A signal receiving method, a signal sending method, a device, an apparatus, and a storage medium

Abstract

Embodiments of the present application disclose a signal receiving method, a signal sending method, a device, equipment and a storage medium, comprising: when N control channels at the same time occur conflict, according to the resource index of the control channel resource where each control channel in the N control channels is located and the characteristic of the each control channel, determining the priority of the quasi co-location reference signal set of the N control channels; wherein N is an integer greater than or equal to 2, and the characteristic of the each control channel is one of a common characteristic and a special characteristic; receiving one or more of the N control channels in the determined priority mode of the quasi co-location reference signal set.

Description

[0001] This application is a divisional application. The original application has the application number 201810912239.4, the application date is August 10, 2018, and the invention title is "A method and apparatus for determining a quasi-co-located reference signal set". Technical Field

[0002] The embodiments of the present invention relate to the field of communications, and more particularly to a signal receiving method, a transmitting method, an apparatus, a device, and a storage medium. Background Technology

[0003] Release-15 NR User Equipment (UE) supports beam-based high-frequency communication. The core issue of beam-based communication is how to accurately acquire the beam.

[0004] Release-15 NR UEs only support transmitting signals with one Transmission Receiver Point (TRP) at a time. When the beam isolation of multiple TRPs is relatively high, multiple TRPs can be used to transmit multi-stream signals with the same user simultaneously, improving spectral efficiency. On the other hand, multiple TRPs transmitting the same signal with the same user simultaneously can improve the robustness of beam communication, thus requiring NR-UEs to support transmitting signals with multiple TRPs at the same time. When two or more TRPs are operating at high frequencies, and the UE needs to receive signals transmitted by two or more TRPs simultaneously, especially when the terminal cannot obtain the beam through Downlink Control Information (DCI), the core problem this paper aims to solve is determining which beam the UE should use to transmit with multiple TRPs.

[0005] On the other hand, in high-frequency communication, when beams of different signals conflict at the same time, or when terminals cannot receive the beams of two signals at the same time, how should this be handled? Current discussions generally aim to keep the beams of two signals consistent when the base station schedules them at the same time. However, to increase the flexibility of the base station, it should be allowed for the beams of signals scheduled later to conflict with the beams of signals that have been scheduled earlier. This article will further describe how to resolve beam conflicts. Summary of the Invention

[0006] This invention provides a signal receiving method, a transmitting method, an apparatus, a device, and a storage medium, which can determine a quasi-co-located reference signal set, thereby receiving two or more TRP transmission signals based on the quasi-co-located reference signal set.

[0007] This invention provides a method for determining a quasi-co-located reference signal set, comprising:

[0008] Select N2 control channel resources from the control channel resources included in N1 time units; where N1 and N2 are integers greater than or equal to 1.

[0009] Based on the N2 control channel resources, at least M quasi-co-located reference signal sets for M port groups are determined, where M is an integer greater than or equal to 1.

[0010] In this embodiment of the invention, the M port groups satisfy at least one of the following features:

[0011] The M port groups fall at the same time;

[0012] The M port groups fall within the same time unit;

[0013] The M1 channels or signals corresponding to the M port groups fall at the same time;

[0014] The M1 channels or signals corresponding to the M port groups fall in the same time unit;

[0015] The M port groups are the M demodulation reference signal port groups corresponding to the M1 data channels;

[0016] The M port groups are M measurement reference signal groups corresponding to at least one measurement reference resource;

[0017] Where M1 is a positive integer less than or equal to M.

[0018] In this embodiment of the invention, the N1 time units include at least one of the following:

[0019] At least one of the M port groups corresponds to the time unit of the channel or signal in which the port group is located.

[0020] The time unit preceding the time unit in which the channel or signal is located;

[0021] The time unit in which the control signaling for scheduling the channel or signal is located;

[0022] The time units include the N1 time units from the first to the N1th closest to the channel or signal in at least L1 control channel resources, where L1 is a positive integer less than or equal to N2;

[0023] Includes the time unit closest to the channel or signal from a set of at least N2 control channel resources;

[0024] The time unit includes the set of time units closest to the channel or signal in the set of time units in which the demodulation reference signals of any two of the N2 control channel resources do not satisfy the quasi-co-location relationship with respect to the spatial reception parameters;

[0025] The time interval between the channel or signal is less than or equal to the time interval between the control signaling that schedules the channel or signal and the channel or signal;

[0026] The time unit between the control signaling that schedules the channel or signal and the time unit between the channel or signal;

[0027] The time unit in which the distance between the channel or signal is less than a predetermined threshold.

[0028] In embodiments of the present invention, the channel or signal corresponding to at least one of the M port groups satisfies at least one of the following:

[0029] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0030] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0031] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[0032] The signal is a periodic signal;

[0033] The signal is a half-cycle signal;

[0034] The channel is a semi-persistent scheduling channel.

[0035] In this embodiment of the invention, the N1 time units include at least one of the following:

[0036] The time unit includes the time unit set closest to the channel or signal from the time unit set of at least N2 control channel resources;

[0037] The time unit includes the time unit set closest to the channel or signal from the set of at least N2 control channel resources that satisfy the first predetermined characteristic;

[0038] The time units include at least L1 control channel resources that satisfy a first predetermined characteristic, and the N1 time units that are closest to the channel or signal from the 1st to the N1th time units, where L1 is a positive integer less than or equal to N2;

[0039] The control channel resources that satisfy the first predetermined condition include at least one of the following:

[0040] Control channel resources whose center carrier of a member carrier is greater than a predetermined threshold;

[0041] The demodulation reference signal and a quasi-co-located reference signal satisfy the quasi-co-located control channel resources with respect to the spatial receiving filter parameters;

[0042] The demodulation reference signal is configured with control channel resources for the quasi-co-address reference signal regarding the spatial reception filtering parameters;

[0043] The control channel resources that fall within the same frequency domain bandwidth as the port group;

[0044] The demodulation reference signals of the N2 control channel resources or the L1 control channel resources do not satisfy the quasi-co-address relationship with respect to the spatial receiving filter parameters;

[0045] Control channel resources that belong to a predetermined frequency domain bandwidth or a predetermined frequency domain bandwidth group; wherein, a frequency domain bandwidth can be the bandwidth corresponding to a CC or the bandwidth corresponding to a BWP;

[0046] Control channel resources belonging to a control channel resource group;

[0047] Control channel resources belonging to a frequency domain bandwidth or a frequency domain bandwidth group;

[0048] The control channel resources of at least one first communication node that listens on the candidate control channel in the time unit are associated with the control channel resources of the port group.

[0049] In this embodiment of the invention, selecting N2 control channel resources from the control channel resources included in N1 time units includes:

[0050] Based on the channel or signal configuration information, the N2 control channel resources are selected from the control channel resources included in the N1 time units;

[0051] Alternatively, the N2 control channel resources can be selected from the control channel resources included in the N1 time units based on the configuration information of the control channel resources where the scheduling channel or signal control channel is located.

[0052] Alternatively, select N2 control channel resources that satisfy the second predetermined characteristic from the control channel resources included in the N1 time units;

[0053] Wherein, the channel or signal is the channel or signal corresponding to at least one of the M port groups.

[0054] In this embodiment of the invention, the selection of N2 control channel resources satisfying predetermined characteristics from the control channel resources included in the N1 time units includes any one of the following:

[0055] Select N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers from the control channel resources included in the N1 time units;

[0056] From the control channel resources included in the N1 time units whose demodulation reference signals do not satisfy the quasi-co-location relationship with respect to spatial reception parameters, select N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers;

[0057] Where L is an integer greater than or equal to 1.

[0058] In this embodiment of the invention, determining at least M quasi-co-location reference signal sets for M port groups based on N2 control channel resources includes:

[0059] The quasi-co-location reference signal set of any one of the M port groups is determined based on the configuration information of at least one of the N2 control channel resources, where M is a positive integer less than or equal to N2.

[0060] Alternatively, the quasi-co-location reference signal set of any one of the M port groups is determined based on the quasi-co-location reference signal set of the demodulation reference signal of at least one of the N2 control channel resources.

[0061] In this embodiment of the invention, the channel or signal corresponding to at least one of the M port groups satisfies at least one of the following characteristics:

[0062] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0063] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0064] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[0065] The signal is a periodic signal;

[0066] The signal is a half-cycle signal;

[0067] The channel is a semi-persistent scheduling channel.

[0068] In this embodiment of the invention, the N1 time units include M2 ​​time unit groups, and the M port groups correspond to the M2 time unit groups, where M2 is a positive integer greater than or equal to 1;

[0069] And / or, the M port groups correspond to M3 control channel resource groups, where M3 is a positive integer greater than or equal to 1.

[0070] In this embodiment of the invention, the intersection of time units included in different time unit groups is non-empty.

[0071] In this embodiment of the invention, the quasi-co-location reference signal set of the port group corresponding to the time unit group is determined according to N4 control channel resources selected from the time unit group;

[0072] Wherein, N4 is a positive integer less than or equal to N2, and the N4 values ​​corresponding to different time unit groups may be the same or different.

[0073] In an embodiment of the present invention, the time unit group includes N3 time units that are closest to the channel or signal from the 1st to the N3rd time units that satisfy the first characteristic;

[0074] Where N3 is an integer greater than or equal to 1;

[0075] Wherein, the time unit satisfying the first feature includes at least L2 control channel resources in the control channel resource group, where L2 is an integer greater than or equal to 1;

[0076] The channel or signal includes a port group corresponding to the time unit group;

[0077] The control channel resource group includes at least one of the following:

[0078] The control channel resource group corresponding to the port group corresponding to the time unit group;

[0079] The control channel resource group corresponding to the port group included in the channel or signal;

[0080] A control channel resource group corresponding to at least one port group.

[0081] In this embodiment of the invention, selecting N2 control channel resources from the control channel resources included in N1 time units includes:

[0082] N4 control channel resources are selected from the control channel resources belonging to the control channel resource group included in the N3 time units, wherein the control channel resource group corresponds to at least one port group in the port group;

[0083] The step of determining at least M quasi-co-location reference signal sets for M port groups based on the N2 control channel resources includes:

[0084] Based on the N4 control channel resources, determine the quasi-co-address reference signal set for the port group corresponding to the control channel resource group;

[0085] Where N3 is a positive integer less than or equal to N1, N4 is a positive integer less than or equal to N2, L2 is a positive integer less than or equal to N4, and the N4 values ​​corresponding to different port groups may be the same or different, and the N3 values ​​corresponding to different port groups may be the same or different.

[0086] In this embodiment of the invention, the selection of N4 control channel resources from the control channel resources belonging to the control channel resource group included in the N3 time units includes:

[0087] Select N2 control channel resources with the lowest control channel resource identifier from Lth to (L+N2-1)th from the control channel resource resources belonging to the control channel resource group included in the N1 time units;

[0088] From the control channel resources belonging to the control channel resource group included in the N1 time units, select the N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers from the control channel resources whose demodulation reference signal does not satisfy the quasi-co-address relationship with respect to spatial reception parameters;

[0089] Where L is an integer greater than or equal to 1.

[0090] In this embodiment of the invention, the M port groups corresponding to M3 control channel resource groups include at least one of the following:

[0091] Each of the M port groups corresponds to at least one control channel resource group;

[0092] Each of the M3 control channel resource groups corresponds to at least one port group;

[0093] The correspondence between the M port groups and the M3 control channel resource group is determined based on the signaling information;

[0094] The correspondence between the M port groups and the M3 control channel resource group is determined according to the agreed rules;

[0095] Determine the control channel resource group corresponding to a port group based on the signaling information;

[0096] A control channel resource group corresponding to a port group is determined according to the agreed rules;

[0097] A port group corresponds to a control channel group, which is the control channel resource group to which the control channel information of the scheduling channel or signal belongs, wherein the channel or signal includes the port group.

[0098] The control channel resource group corresponding to a port group is the control channel resource group of the control channel resources in the predetermined member carrier;

[0099] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources in a predetermined member carrier group.

[0100] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources that satisfy a first characteristic; wherein, the control channel resources that satisfy the first characteristic are associated with a second quasi-co-address reference signal set; the difference set between the second quasi-co-address reference signal set and the third quasi-co-address reference signal set of the demodulation reference signal of the control channel resources that satisfy the first characteristic is non-empty, and / or the second quasi-co-address reference signal set and the third quasi-co-address reference signal set correspond to different control signaling bit fields;

[0101] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources that satisfy the second characteristic; wherein, the seventh quasi-co-address reference signal set of the demodulation reference signals of the control channel resources that satisfy the second characteristic is associated with the sixth quasi-co-address reference signal set; the difference set between the seventh quasi-co-address reference signal set and the sixth quasi-co-address reference signal set is non-empty, and / or the seventh quasi-co-address reference signal set and the sixth quasi-co-address reference signal set correspond to different control signaling bit fields.

[0102] In this embodiment of the invention, the control channel resource group satisfies at least one of the following:

[0103] Different control channel resources in different control channel resource groups can be received simultaneously by the communication node;

[0104] Different control channel resources in the same control channel resource group cannot be received by the communication node at the same time;

[0105] x1 control channel resources in a control channel resource group can be received simultaneously by a communication node; where x1 is a positive integer less than or equal to x2, and x2 is the number of control channel resources included in the control channel resource group;

[0106] M is a positive integer less than or equal to M²;

[0107] M is a positive integer less than or equal to M3;

[0108] M2 is equal to M3;

[0109] The communication node is the communication node that receives the control channel resource group.

[0110] In embodiments of the present invention, the control channel resource group satisfies at least one of the following:

[0111] Different control channel resources in different control channel resource groups can be received simultaneously by the communication node;

[0112] Different control channel resources in the same control channel resource group cannot be received by the communication node at the same time;

[0113] x1 control channel resources in a control channel resource group can be received simultaneously by a communication node; where x1 is a positive integer less than or equal to x2, and x2 is the number of control channel resources included in the control channel resource group;

[0114] M is a positive integer less than or equal to M²;

[0115] M is a positive integer less than or equal to M3;

[0116] M2 is equal to M3;

[0117] The intersection of the resources occupied by the control channels in different control channel resource groups is empty;

[0118] The communication node is the communication node that receives the control channel resource group.

[0119] This invention provides a method for determining a quasi-co-located reference signal set, comprising:

[0120] Determine at least P sets of quasi-co-addressable reference signals for a class P port group, where P is an integer greater than or equal to 2.

[0121] In this embodiment of the invention, the P-type port group includes a first type of port group and a second type of port group;

[0122] The set of at least P quasi-co-address reference signals for determining the P-type port group includes:

[0123] Determine the first quasi-co-address reference signal set for the first type of port group;

[0124] Determine the second quasi-co-address reference signal set for the second type of port group.

[0125] In an embodiment of the present invention, wherein,

[0126] The first quasi-co-address reference signal set of the first type of port group is determined using the first determination method;

[0127] The second determination method is used to determine the second quasi-co-address reference signal set of the second type of port group.

[0128] In an embodiment of the present invention, wherein,

[0129] The first quasi-co-address reference signal set of the first type of port group is determined based on the first type of parameters;

[0130] The second quasi-co-address reference signal set for the second type of port group is determined based on the second type of parameters;

[0131] Among them, the first type of parameter and the second type of parameter satisfy at least one of the following:

[0132] The difference between the first type of parameter and the second type of parameter is non-empty;

[0133] The first type of parameter is a set of quasi-co-located reference signals for demodulation reference signals of a control channel resource, while the second type of parameter does not include a set of quasi-co-located reference signals for demodulation reference signals of a control channel resource.

[0134] In this embodiment of the invention, determining the first quasi-co-address reference signal set of the first type of port group includes:

[0135] The first quasi-co-location reference signal set is determined based on the third quasi-co-location reference signal set;

[0136] The third quasi-co-location reference signal set is obtained based on the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource that meets predetermined characteristics in the first time unit; or, it is obtained based on the quasi-co-location reference signal set of the demodulation reference of the control channel resource where the control information of the channel or signal corresponding to the first type of port group is located.

[0137] In this embodiment of the invention, the second quasi-co-address reference signal set for determining the second type of port group includes at least one of the following:

[0138] The second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set; wherein, the fourth quasi-co-location reference signal set corresponds to the control channel resources in the second time unit that satisfy predetermined characteristics;

[0139] The second quasi-co-address reference signal set is determined based on the fifth quasi-co-address reference signal set notified by the first control signaling;

[0140] The second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set; wherein, the sixth quasi-co-located reference signal set has a corresponding relationship with the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes the quasi-co-located reference signal set of the demodulation reference signals of the control channel resources that meet predetermined characteristics in the second time unit;

[0141] The second quasi-co-located reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located.

[0142] In this embodiment of the invention, the seventh quasi-co-located reference signal set satisfies at least one of the following:

[0143] The seventh quasi-co-location reference signal set and the fourth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0144] The seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0145] The seventh quasi-co-location reference signal set and the fifth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0146] The seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0147] The seventh quasi-co-location reference signal set and the sixth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0148] The seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0149] The difference set between the seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set is a non-empty set;

[0150] The difference set between the seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set is a non-empty set;

[0151] The difference set between the seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set is a non-empty set;

[0152] The seventh quasi-co-location reference signal set is the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource where the control information of the channel or signal corresponding to the first type of port group is located;

[0153] The control channel resources that meet the predetermined characteristics in the second time unit are the control channel resources where the control information for scheduling the channel or signal corresponding to the first type of port group is located.

[0154] In this embodiment of the invention, the first control signaling includes any one of the following:

[0155] High-level control signaling;

[0156] Physical layer control signaling whose time interval between the channel or signal corresponding to the second type of port group is greater than or equal to a predetermined threshold;

[0157] Physical layer control signaling whose time interval between the measurement reference signal resource corresponding to the second type of port group is greater than or equal to a predetermined threshold.

[0158] Physical layer control signaling with a time interval greater than or equal to a predetermined threshold between the second type of port group and the physical layer control signaling.

[0159] In this embodiment of the invention, the second time unit includes any one of the following:

[0160] The time unit that is closest to the channel corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0161] The time unit that is closest to the measurement channel resource corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0162] The time unit that is closest to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0163] The time unit in which the control signaling for scheduling the channel or signal is located.

[0164] In this embodiment of the invention, the time unit satisfying the second predetermined feature includes any one of the following:

[0165] Time units including control channel resources in the pre-defined component carriers;

[0166] Including the time units of control channel resources in the pre-defined member carrier group;

[0167] It includes time units of at least L control channel resources, where L is a positive integer greater than or equal to 1;

[0168] This includes the time units of control channel resources in the predetermined control channel resource group;

[0169] A time unit including control channel resources with predetermined characteristics; wherein the control channel resources with predetermined characteristics are associated with the fourth quasi-co-located reference signal set, or the seventh quasi-co-located reference signal set of the demodulation reference signals of the control channel resources with predetermined characteristics is associated with the sixth quasi-co-located reference signal set.

[0170] In this embodiment of the invention, the method further includes:

[0171] The port group is determined to be the first type of port group according to the second control signaling and / or predetermined rules;

[0172] The port group is determined to be the second type of port group according to the second control signaling and / or predetermined rules.

[0173] In this embodiment of the invention, at least P quasi-co-address reference signal sets of the P-type port group are determined based on at least one of the following parameter information:

[0174] The maximum number of port groups included in a channel or signal;

[0175] The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0176] A method for determining the quasi-co-located reference signal set for each port group of a channel or signal;

[0177] A set of quasi-co-located reference signals for each port group of a channel or signal;

[0178] A method for determining the quasi-co-location reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0179] A set of quasi-co-located reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0180] In this embodiment of the invention, at least one quasi-co-address reference signal set of at least one port group in the Class P port group is determined based on at least one of the following parameter information:

[0181] The maximum number of port groups included in a channel or signal;

[0182] The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0183] A method for determining the quasi-co-located reference signal set for each port group of a channel or signal;

[0184] A set of quasi-co-located reference signals for each port group of a channel or signal;

[0185] A method for determining the quasi-co-location reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0186] A set of quasi-co-located reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0187] In this embodiment of the invention, the parameter information is determined according to signaling information or predetermined rules, wherein the signaling information includes at least one of the following:

[0188] Non-physical layer signaling information;

[0189] High-level signaling information;

[0190] Configure the signaling information of the channel corresponding to the port group;

[0191] Configure the signaling information of the measurement reference signal resources corresponding to the port group;

[0192] Configuration information of the control channel resources where the control information of the channel corresponding to the port group is located;

[0193] The configuration information of control channel resources that meet predetermined characteristics is included in the time unit closest to the channel corresponding to the port group;

[0194] Configuration information of the control channel resources where the control information for the measurement reference signal resources corresponding to the port group is located;

[0195] Configuration information of control channel resources that meet predetermined characteristics, included in the time unit closest to the measurement reference signal resource corresponding to the port group.

[0196] In embodiments of the present invention, the port group satisfies at least one of the following characteristics:

[0197] The maximum number of port groups included in a channel or signal is related to the number of control channel resources;

[0198] The maximum number of port groups included in a channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0199] The maximum number of port groups included in a channel or signal is related to the number of control channel resource groups;

[0200] The maximum number of port groups included in a channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0201] In an embodiment of the present invention, wherein,

[0202] The P-type port group corresponds to one or more data channels with P demodulation reference signal port groups;

[0203] Alternatively, the P-type port group corresponds to P measurement reference signal port groups of one or more measurement reference signal resources;

[0204] Alternatively, some port groups in the P-type port group may correspond to one or more demodulation reference signal port groups for data channels, and some port groups may correspond to one or more measurement reference signal port groups.

[0205] In an embodiment of the present invention, the port group satisfies at least one of the following:

[0206] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0207] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0208] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[0209] The signal is a periodic signal;

[0210] The signal is a half-cycle signal;

[0211] The channel is a half-cycle scheduling channel;

[0212] The channels corresponding to the Class P port groups are received in the same time unit;

[0213] The measurement reference signal resources corresponding to the P-type port group are received in the same time unit;

[0214] The channels corresponding to the Class P port groups are received at the same time.

[0215] The measurement reference signal resources corresponding to the P-type port group are received at the same time;

[0216] The channel or signal is a channel or signal corresponding to at least one port group in the port group.

[0217] This invention provides a method for determining a quasi-co-located reference signal set, comprising:

[0218] Determine the set of second quasi-co-address reference signals corresponding to the second type of port group.

[0219] In this embodiment of the invention, determining the second quasi-co-address reference signal set corresponding to the second type of port group includes at least one of the following:

[0220] The second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set; wherein, the fourth quasi-co-location reference signal set corresponds to the control channel resources in the second time unit that satisfy the second predetermined characteristic;

[0221] The second quasi-co-address reference signal set is determined based on the fifth quasi-co-address reference signal set notified by the first control signaling;

[0222] The second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set; wherein, the sixth quasi-co-located reference signal set has a corresponding relationship with the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes the quasi-co-located reference signal set of the demodulation reference signals of the control channel resources that satisfy the second predetermined characteristics in the second time unit;

[0223] The second quasi-co-located reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located.

[0224] In this embodiment of the invention, the second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set, wherein the fourth quasi-co-location reference signal set corresponds to control channel resources in the second time unit that satisfy a second predetermined characteristic, including at least one of the following:

[0225] The first quasi-co-address reference signal set of the first type of port group is obtained based on the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel in the control channel resources that satisfy the second predetermined characteristics in the second time unit;

[0226] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the frequency domain bandwidth of the second type of port group in the configuration information of the control channel resources that satisfy the second predetermined characteristics;

[0227] The configuration information of the control channel resources that satisfy the second predetermined feature includes at least one of the fourth quasi-co-located reference signal sets, wherein the different fourth quasi-co-located reference signal sets correspond to different frequency domain bandwidths;

[0228] The fourth quasi-co-located reference signal set is configured in the configuration information of the control channel resources that satisfy the second predetermined feature. The fourth quasi-co-located reference signal set is shared by at least one frequency domain bandwidth that has a corresponding relationship with the control channel resources that satisfy the second predetermined feature, and / or the fourth quasi-co-located reference signal set is associated with spatial reception filtering parameters.

[0229] In this embodiment of the invention, the second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set, wherein the sixth quasi-co-located reference signal set corresponds to the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes a set of quasi-co-located reference signals of demodulation reference signals of control channel resources satisfying the second predetermined characteristic in the second time unit, including at least one of the following:

[0230] The first quasi-co-address reference signal set of the first type of port group is obtained based on the seventh quasi-co-address reference signal set;

[0231] The sixth quasi-co-location reference signal set is the quasi-co-location reference signal configured for the frequency domain bandwidth of the second type of port group in the seventh quasi-co-location reference signal set;

[0232] The seventh quasi-co-located reference signal set is configured with at least one of the sixth quasi-co-located reference signal sets, each corresponding to at least one frequency domain bandwidth, wherein different sixth quasi-co-located reference signal sets correspond to different frequency domain bandwidths.

[0233] In this embodiment of the invention, the second quasi-co-location reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located, including at least one of the following:

[0234] The first quasi-co-address reference signal set of the first type of port group is obtained based on the eighth quasi-co-address reference signal set of the demodulation reference signal of the control channel;

[0235] The second quasi-co-address reference signal set of the second type of port group is the quasi-co-address reference signal set configured for the frequency domain bandwidth where the second type of port group is located in the control channel resources;

[0236] The configuration information of the control channel resources includes at least one second quasi-co-located reference signal set, wherein different second quasi-co-located reference signal sets correspond to different frequency domain bandwidths;

[0237] The eighth quasi-co-located reference signal set and the second quasi-co-located reference signal set are two different quasi-co-located reference signal sets.

[0238] In this embodiment of the invention, the control channel resources satisfying the second predetermined feature in the second time unit include at least one of the following:

[0239] The control channel resource with the lowest identifier in the second time unit; in this document, the identifier of the control channel resource may also be referred to as the index of the control channel resource.

[0240] When there is more than one control channel resource with the lowest identifier in the second time unit, the control channel resources with the lowest identifier in the second time unit belong to the control channel resources in the frequency domain bandwidth of the lowest frequency domain bandwidth identifier.

[0241] The control channel resources with the lowest identifier are included in the set of frequency domain bandwidths that satisfy the third predetermined characteristic in the second time unit.

[0242] The control channel resource with the lowest identifier in the set of control channel resources that satisfy the fourth predetermined characteristic in the second time unit;

[0243] The set of control channel resources that satisfy the fourth predetermined feature in the second time unit includes the control channel resources with the lowest identifier number that belong to the frequency domain bandwidth of the lowest frequency domain bandwidth identifier number.

[0244] The set of frequency domain bandwidths that satisfy the third predetermined characteristic in the second time unit includes the control channel resources that satisfy the fourth predetermined characteristic and have the lowest frequency domain bandwidth identifier.

[0245] In this embodiment of the invention, the first type of port group satisfies at least one of the following features:

[0246] The first type of port group and the second type of port group are different port groups included in a channel or signal;

[0247] The first type of port group and the second type of port group belong to different channels or signals;

[0248] The intersection of the time-domain resources occupied by the channel or signal corresponding to the first type of port group and the time-domain resources occupied by the channel or signal corresponding to the second type of port group is not empty;

[0249] The first type of port group and the second type of port group belong to the same frequency domain bandwidth;

[0250] The relationship between the first time interval and the predetermined threshold is consistent with the relationship between the second time interval and the predetermined threshold; wherein, the first time interval is the time interval between the channel or signal corresponding to the first type of port group and the control channel that schedules the first type of port group, and the second time interval is the time interval between the channel or signal corresponding to the second type of port group and the control channel that schedules the second type of port group.

[0251] In this embodiment of the invention, the seventh quasi-co-located reference signal set satisfies at least one of the following:

[0252] The seventh quasi-co-location reference signal set and the fourth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0253] The seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0254] The seventh quasi-co-location reference signal set and the fifth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0255] The seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0256] The seventh quasi-co-location reference signal set and the sixth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0257] The seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0258] The difference set between the seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set is a non-empty set;

[0259] The difference set between the seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set is a non-empty set;

[0260] The difference set between the seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set is a non-empty set;

[0261] The seventh quasi-co-location reference signal set is the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource where the control information of the channel or signal corresponding to the first type of port group is located;

[0262] The control channel resources that meet the predetermined characteristics in the second time unit are the control channel resources where the control information for scheduling the channel or signal corresponding to the first type of port group is located.

[0263] In this embodiment of the invention, the correspondence between the fourth quasi-co-located reference signal set and the control channel resources in the second time unit that satisfy predetermined characteristics includes at least one of the following:

[0264] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the second type of port group in the configuration information of the control channel resources that meet the predetermined characteristics;

[0265] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the frequency domain bandwidth of the second type of port group in the configuration information of the control channel resources that meet the predetermined characteristics.

[0266] In this embodiment of the invention, determining the second quasi-co-location reference signal set based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located includes:

[0267] The set of quasi-co-address reference signals configured for the second type of port group in the configuration information of the control channel resource where the control channel is located is the second quasi-co-address reference signal set.

[0268] In this embodiment of the invention, the second time unit includes any one of the following:

[0269] The time unit that is closest to the channel corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0270] The time unit that is closest to the measurement channel resource corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0271] The time unit that is closest to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0272] The time unit in which the control signaling for scheduling the channel or signal is located.

[0273] In this embodiment of the invention, the time unit that satisfies the second predetermined feature includes any one of the following:

[0274] Time units including control channel resources in the pre-defined component carriers;

[0275] Including the time units of control channel resources in the pre-defined member carrier group;

[0276] It includes time units of at least L control channel resources, where L is a positive integer greater than or equal to 1;

[0277] This includes the time units of control channel resources in the predetermined control channel resource group;

[0278] The time unit includes control channel resources that satisfy a fourth predetermined characteristic; wherein the control channel resources satisfying the fourth predetermined characteristic satisfy at least one of the following: the control channel resources are associated with the fourth quasi-co-address reference signal set; the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel resources is associated with the sixth quasi-co-address reference signal set; the center carrier of the member carrier in which the control resource is located is greater than a predetermined threshold; the demodulation reference signal of the control channel resources and a quasi-co-address reference signal satisfy a quasi-co-address relationship with respect to spatial receiving filter parameters; the demodulation reference signal of the control channel resources is configured with a quasi-co-address reference signal with respect to spatial receiving filter parameters; the control channel resources and the second type of port group fall in the same frequency domain bandwidth; the control channel resources belong to a predetermined frequency domain bandwidth; the control channel resources are associated with at least one candidate control channel monitored by a first communication node in the time unit, wherein the first communication node is the receiver of the second type of port group.

[0279] In this embodiment of the invention, first parameter information is determined according to second control signaling and / or agreed rules, and at least one of the following is determined according to the first parameter information:

[0280] The second quasi-co-address reference signal set;

[0281] Does a time unit include the second type of port group?

[0282] The number of port groups included in a time unit;

[0283] The number of port groups that satisfy predetermined characteristics included in a time unit.

[0284] In this embodiment of the invention, the first parameter information includes at least one of the following:

[0285] The maximum number of port groups included in each of the G channels or signals;

[0286] The maximum number of port groups included in each of the G channels or signals when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0287] Method for determining the quasi-co-located reference signal set for each port group of each of the G channels or signals;

[0288] The set of quasi-co-located reference signals for each port group of each of the G channels or signals;

[0289] A method for determining the quasi-co-location reference signal set for each of the G channels or signals when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0290] The set of quasi-co-location reference signals for each of the G channels or signals when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0291] The maximum number of port groups that satisfy predetermined characteristics included in a time unit;

[0292] The maximum number of port groups included in a time unit;

[0293] Wherein, the intersection between the time-domain resources occupied by each of the G channels or signals and the one time unit is non-empty, and G is a positive integer greater than or equal to 1.

[0294] In embodiments of the present invention, the number of port groups included in the channel or signal satisfies at least one of the following characteristics:

[0295] The maximum number of port groups included in the channel or signal is related to the number of control channel resources;

[0296] The maximum number of port groups included in the channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0297] The maximum number of port groups included in the channel or signal is related to the number of control channel resource groups;

[0298] The maximum number of port groups included in the channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0299] In this embodiment of the invention, the second control signaling includes at least one of the following:

[0300] Non-physical layer signaling information;

[0301] High-level signaling information;

[0302] Configure the signaling information of the channel corresponding to the second type of port group;

[0303] Configure the signaling information of the measurement reference signal resources corresponding to the second type of port group;

[0304] Configuration information of the control channel resources where the control information of the channel corresponding to the second type of port group is located;

[0305] The configuration information of control channel resources that meet predetermined characteristics is included in the time unit closest to the channel corresponding to the second type of port group;

[0306] Configuration information of the control channel resources where the control information for scheduling the measurement reference signal resources corresponding to the second type of port group is located;

[0307] Configuration information of control channel resources that meet predetermined characteristics, included in the time unit closest to the measurement reference signal resource corresponding to the second type of port group.

[0308] In embodiments of the present invention, the port group satisfying the predetermined characteristics includes at least one of the following:

[0309] A group of ports belonging to a predetermined frequency domain bandwidth within a time unit;

[0310] The interval between the port group and the control signaling that schedules the port group is less than a predetermined threshold;

[0311] The interval between the channel or signal corresponding to the port group and the control signaling that schedules the port group is less than a predetermined threshold.

[0312] The port group whose frequency domain bandwidth is greater than a predetermined threshold;

[0313] There exists a port group that is associated with a quasi-co-located reference signal that contains spatial reception filtering parameters.

[0314] In this embodiment of the invention, the number of port groups included in a time unit or the number of port groups satisfying predetermined characteristics included in a time unit satisfies at least one of the following characteristics:

[0315] The maximum number of port groups is related to the number of control channel resources;

[0316] The maximum number of port groups is related to the number of control channel resources;

[0317] The maximum number of port groups is related to the number of control channel resources included in the time unit;

[0318] The maximum number of port groups is related to the number of control channel resource groups included in the time unit.

[0319] In embodiments of the present invention, the second type of port group satisfies at least one of the following:

[0320] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0321] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0322] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the second type of port group;

[0323] The signal is a periodic signal;

[0324] The signal is a half-cycle signal;

[0325] The channel is a half-cycle scheduling channel;

[0326] The channel or signal is a channel or signal corresponding to at least one port group in the second type of port group.

[0327] This invention provides a method for determining a quasi-co-located reference signal set, comprising:

[0328] Determine the set of quasi-co-located reference signals;

[0329] Transmit channels or signals on corresponding resources according to the quasi-co-location reference signal set;

[0330] Wherein, one of the resources corresponds to A sets of the quasi-co-location reference signals;

[0331] Wherein, the reference signal in each of the A quasi-co-address reference signal sets and the resource have a quasi-co-address relationship with respect to a class of quasi-co-address parameters, and A is an integer greater than or equal to 1.

[0332] In this embodiment of the invention, the resource includes any one of the following:

[0333] Demodulation reference signal port resources, measurement reference signal port resources, control channel resources, and data channel resources.

[0334] In this embodiment of the invention, the resource corresponding to A sets of quasi-co-location reference signals includes:

[0335] The A sets of quasi-co-located reference signals include a first set of quasi-co-located reference signals and a second set of quasi-co-located reference signals;

[0336] The difference between the first quasi-co-address parameter set associated with the first quasi-co-address reference signal set and the second quasi-co-address parameter set associated with the second quasi-co-address reference signal set is an empty set.

[0337] In an embodiment of the present invention, wherein,

[0338] The A1 frequency domain resource sets of a resource correspond to A1 quasi-co-located reference signal sets;

[0339] The A2 time-domain resource sets of a resource correspond to A2 quasi-co-located reference signal sets;

[0340] Where A1 and A2 are positive integers less than or equal to the value of A.

[0341] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising:

[0342] The selection module is used to select N2 control channel resources from the control channel resources included in N1 time units; where N1 and N2 are integers greater than or equal to 1.

[0343] The first determining module is used to determine at least M quasi-co-located reference signal sets for M port groups based on the N2 control channel resources, where M is an integer greater than or equal to 1.

[0344] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising:

[0345] The second determining module is used to determine at least P sets of quasi-co-addressable reference signals for a class P port group, where P is an integer greater than or equal to 2.

[0346] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising:

[0347] The sixth determining module is used to determine the set of second quasi-co-address reference signals corresponding to the second type of port group.

[0348] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising:

[0349] The third determining module is used to determine the set of quasi-co-address reference signals;

[0350] The transmission module is used to transmit channels or signals on corresponding resources according to the quasi-co-location reference signal set;

[0351] Wherein, one of the resources corresponds to A sets of the quasi-co-location reference signals;

[0352] Wherein, the reference signal in each of the A quasi-co-address reference signal sets and the resource have a quasi-co-address relationship with respect to a class of quasi-co-address parameters, and A is an integer greater than or equal to 1.

[0353] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising a processor and a computer-readable storage medium, wherein the computer-readable storage medium stores instructions that, when executed by the processor, implement any of the methods described above for determining a set of quasi-co-located reference signals.

[0354] This invention provides a computer-readable storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of any of the methods described above for determining a set of quasi-co-located reference signals.

[0355] This invention provides a channel measurement method, comprising:

[0356] The channel measurement time corresponding to the channel state information fed back by the communication node does not include the time-domain symbol set where the second measurement reference signal is located;

[0357] And / or, the second measurement reference signal is not measured in the time-domain symbol set;

[0358] The time-domain symbol set includes the time-domain symbol where the channel or signal is located; the channel state information corresponds to the second measurement reference signal.

[0359] In an embodiment of the present invention, the time-domain symbol set includes at least two time-domain symbols occupied by the second measurement reference signal in at least one time unit;

[0360] The difference set between the time-domain symbol set and the time-domain symbol set of the channel or signal is not empty.

[0361] In embodiments of the present invention, the non-measurement of the second measurement reference signal in the time-domain symbol set includes at least one of the following:

[0362] The second measurement reference signal is not received in the time-domain symbol set;

[0363] No channel state information is fed back at the first moment, wherein the feedback period corresponding to the first moment includes the time-domain symbol set.

[0364] In embodiments of the present invention, the channel or signal and the second measurement reference signal satisfy at least one of the following characteristics:

[0365] In the time domain symbol, the channel or signal and the second measurement reference signal do not satisfy a quasi-co-address relationship with respect to the spatial domain reception parameters;

[0366] In the channel state feedback configuration corresponding to the second measurement reference signal, the channel measurement time domain limitation is disabled;

[0367] The transmission beam corresponding to each second measurement reference signal resource in the measurement reference signal set where the second measurement reference signal is located remains unchanged;

[0368] Different measurement reference signal resources in the set of measurement reference signals containing the second measurement reference signal satisfy a quasi-co-address relationship;

[0369] In the time domain symbol, the first type of quasi-co-address parameters of the channel or signal have a higher priority than the first type of quasi-co-address parameters of the second measurement reference signal;

[0370] On the time-domain symbol, the channel or signal on the time-domain symbol is received with the first type of quasi-co-address parameters of the channel or signal;

[0371] On the time domain symbol, the first type of quasi-co-address parameters of the second measurement reference signal are obtained using the first type of quasi-co-address parameters of the channel or signal;

[0372] In the time domain symbol, the priority of the quasi-co-address reference signal set of the channel or signal with respect to the first type of quasi-co-address parameters is higher than that of the quasi-co-address reference signal set of the second measurement reference signal with respect to the first type of quasi-co-address parameters;

[0373] In the time domain symbol, the set of quasi-co-address reference signals of the second measurement reference signal with respect to the first type of quasi-co-address parameters is obtained based on the set of quasi-co-address reference signals of the channel or signal with respect to the first type of quasi-co-address parameters;

[0374] The time interval between the first control signaling that schedules the channel or signal and the channel or signal is greater than or equal to a predetermined threshold.

[0375] The time interval between the second control signal that schedules the second measurement reference signal and the second measurement reference signal is less than or equal to a predetermined threshold.

[0376] In the time domain symbol, the first type of quasi-co-address parameters of the channel or signal are different from the first type of quasi-co-address parameters of the second measurement reference signal;

[0377] In the time domain symbol, the quasi-co-address reference signal set of the channel or signal with respect to the first type of quasi-co-address parameters and the quasi-co-address reference signal set of the second measurement reference signal with respect to the first type of quasi-co-address parameters are different;

[0378] The second measurement reference signal is a measurement reference signal for higher-level signaling scheduling;

[0379] The channel or signal is a channel or signal for physical layer control signaling scheduling;

[0380] The second measurement reference signal is a periodic measurement reference signal;

[0381] The second measurement reference signal is a half-cycle measurement reference signal;

[0382] The second measurement reference signal is a tracking measurement reference signal.

[0383] In an embodiment of the present invention, wherein,

[0384] The first type of quasi-co-address parameters include at least one of the following parameters:

[0385] Doppler shift, Doppler spread, multipath delay, multipath spread, spatial reception parameters.

[0386] This invention provides a channel measurement device, comprising:

[0387] The receiving module is used to receive channel state information fed back by the communication node. The channel measurement time does not include the time domain symbol set where the measurement reference signal is located.

[0388] And / or, the second measurement reference signal is not measured in the time-domain symbol set;

[0389] The time-domain symbol set includes the time-domain symbol where the channel or signal is located; the channel state information corresponds to the measurement reference signal.

[0390] This invention provides a channel measurement device, including a processor and a computer-readable storage medium, wherein the computer-readable storage medium stores instructions that, when executed by the processor, implement any of the aforementioned channel measurement methods.

[0391] This invention provides a computer-readable storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of any of the above-described channel measurement methods.

[0392] This invention provides a signaling transmission method, comprising:

[0393] Receive configuration information from S serving cells;

[0394] The configuration information indicates that the i-th serving cell includes C. i One control channel resource; i = 1, 2...S, where S is a positive integer greater than or equal to 1, C i It is an integer greater than or equal to 0.

[0395] In this embodiment of the invention, the identification number j of the control channel resource of the i-th serving cell satisfies:

[0396] j∈{0,1,...I max -1};wherein,

[0397] In an embodiment of the present invention, wherein,

[0398] The identification number j of the control channel resource of the i-th serving cell is: j = j i,start +j i,local ;

[0399] Where, j i,start The i-th serving cell includes C i The starting identification number of the control channel resource, j i,local Let j be the index of the control channel resources of the i-th serving cell. i,start ∈{0,1,...I max -1},j i,local =0,1,...,C i -1.

[0400] This invention provides a signaling transmission device, comprising:

[0401] The receiving module is used to receive configuration information from S serving cells;

[0402] The configuration information indicates that the i-th serving cell includes C. i One control channel resource; i = 1, 2...S, where S is a positive integer greater than or equal to 1, C i It is an integer greater than or equal to 0.

[0403] This invention provides a signaling transmission device, including a processor and a computer-readable storage medium, wherein the computer-readable storage medium stores instructions, and when the instructions are executed by the processor, any of the above-described signaling transmission methods are implemented.

[0404] This invention provides a computer-readable storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of any of the signaling transmission methods described above.

[0405] This invention provides a signal processing method, comprising:

[0406] When N channels or signals collide at the same time, the processing method and / or information reporting method of the channel or signal are determined according to the configuration information of at least one of the N channels or signals; where N is an integer greater than or equal to 2.

[0407] The channel or signal is processed in the determined processing method, and / or information is reported in the determined information reporting method.

[0408] In this embodiment of the invention, the processing method includes at least one of the following methods:

[0409] Measurement method, priority of quasi-co-address parameters, priority of quasi-co-address reference signal set;

[0410] The processing of the channel or signal in a defined processing method includes at least one of the following:

[0411] The channel or signal may be received with or without signal measurement, provided that a defined set of quasi-co-located reference signals is used.

[0412] In this embodiment of the invention, when the channel is a control channel, the priority of the quasi-co-location reference signal set of the N channels satisfies at least one of the following characteristics:

[0413] The control channel resource with a lower control channel resource identifier has a higher priority than the control channel resource resource with a higher control channel resource identifier.

[0414] Shared control channels or groups of common control channels have higher priority than dedicated control channels;

[0415] Control channels with longer search space periods have higher priority than control channels with shorter search space periods.

[0416] Where N is an integer greater than 1.

[0417] In an embodiment of the present invention, wherein,

[0418] The high-priority control channel is received using the quasi-co-address reference signal set of the high-priority control channel;

[0419] And / or schedule the lower-priority control channel not to detect at the time of the conflict;

[0420] Alternatively, the set of quasi-co-located reference signals for the lower-priority control channels is updated to the set of quasi-co-located reference signals for the higher-priority control channels in the conflicting time-domain symbols / time units.

[0421] In this embodiment of the invention, the method of determining the information reporting includes: reporting information or not reporting information.

[0422] In this embodiment of the invention, the signal includes a measurement reference signal, and the processing method for determining the channel or signal based on the configuration information of at least one of N channels or signals includes at least one of the following:

[0423] Determine a set of X signal measurement methods, and select a signal measurement method from the set of measurement methods based on the configuration information of the measurement reference signal, where X>1;

[0424] Determine a set of Y information reporting methods, and select an information reporting method from the set of reporting methods based on the configuration information of the measurement reference signal, where Y>1.

[0425] In this embodiment of the invention, the configuration information of the measurement reference signal includes any one or more of the following:

[0426] The time-domain behavior information of the measurement reference signal;

[0427] The channel measurement time domain limitation information of the channel state feedback configuration information corresponding to the measurement reference signal;

[0428] The duplicate information in the reference signal resource set where the measurement reference signal is located;

[0429] The purpose and configuration of the measurement reference signal.

[0430] In this embodiment of the invention, the situation where N channels or signals collide at the same time includes at least one of the following:

[0431] The N channels or signals do not satisfy a quasi-co-address relationship with respect to spatial reception parameters;

[0432] The quasi-co-address reference signals of the N channels or signals with respect to the spatial reception parameters do not satisfy the quasi-co-address relationship;

[0433] The N channels or signals cannot be simultaneously received by the first communication node; wherein, the first communication node is the communication node that receives the reference signal.

[0434] The quasi-co-location reference signal set associated with one or more quasi-co-location parameters of one of the N channels or signals is updated to the quasi-co-location reference signal set associated with one or more quasi-co-location parameters of another of the N channels or signals.

[0435] In this embodiment of the invention, the set of X signal measurement methods includes at least one of the following signal measurement methods:

[0436] The measurement reference signal is not received on the time-domain symbol set;

[0437] The measurement reference signal is not measured on the time-domain symbol set;

[0438] The measurement reference signal is received on the time-domain symbol set;

[0439] The measurement reference signal is measured over a set of time-domain symbols.

[0440] In this embodiment of the invention, the information reporting method set in Y includes at least one of the following information reporting methods:

[0441] Report channel state information, wherein the channel measurement time corresponding to the reported channel state information does not include the time domain symbol set;

[0442] The channel state information is reported, and the channel measurement time corresponding to the reported channel state information includes a set of time-domain symbols;

[0443] Channel state information is reported at the first reporting time, and the reporting period corresponding to the first reporting time includes time-domain symbols from the time-domain symbol set.

[0444] Channel state information is not reported at the first reporting time, and the reporting period corresponding to the first reporting time includes time-domain symbols from the time-domain symbol set;

[0445] The intersection between the time-domain symbol set containing the reference signal and the time-domain symbol that is in conflict is non-empty.

[0446] In this embodiment of the invention, the configuration information of at least one of the N channels or signals includes at least one of the following:

[0447] Whether the aggregation factor of the channel is greater than a predetermined value;

[0448] Is the channel a private channel, a public channel, or a group channel?

[0449] The detection period of the N channels;

[0450] Whether the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same component carrier;

[0451] Whether the channel or signal and the control channel that schedules the distance to the channel or signal belong to the same component carrier;

[0452] Whether the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same bandwidth portion;

[0453] Whether the channel or signal and the control channel that schedules the distance to the channel or signal belong to the same bandwidth portion.

[0454] In this embodiment of the invention, the N channels or signals at the same time satisfy at least one of the following characteristics:

[0455] The N channels or signals are on the same time-domain symbol;

[0456] The subcarrier spacings corresponding to the time-domain symbols of the N channels or signals are different;

[0457] The N channels or signals are in the same time unit.

[0458] This invention provides a signal processing apparatus, comprising:

[0459] The fourth determining module is used to determine the processing method of a channel or signal based on the configuration information of at least one of the N channels or signals when N channels or signals conflict at the same time; where N is an integer greater than or equal to 2.

[0460] The processing module is used to process the channel or signal in the determined processing method and / or determine the information reporting method.

[0461] This invention provides a signal processing apparatus, including a processor and a computer-readable storage medium, wherein the computer-readable storage medium stores instructions, characterized in that, when the instructions are executed by the processor, any of the above-described signal processing methods are implemented.

[0462] This invention provides a computer-readable storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of any of the above-described signal processing methods.

[0463] This invention provides a method for determining a quasi-co-located reference signal set, comprising:

[0464] Obtain the quasi-co-located reference signal set for the channel or signal based on at least one of the following:

[0465] Whether the aggregation factor of the channel is greater than a predetermined value;

[0466] Whether the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same frequency domain bandwidth;

[0467] Whether the control channel that schedules the channel or signal and the channel or signal belong to the same frequency domain bandwidth;

[0468] The agreed-upon rules.

[0469] In this embodiment of the invention, the frequency domain bandwidth includes at least one of the following: the frequency domain bandwidth corresponding to the carrier member, and the bandwidth portion.

[0470] In this embodiment of the invention, determining the quasi-co-location reference signal set of the channel or signal based on whether the channel or signal and the control channel resources that satisfy predetermined characteristics in the time unit closest to the channel or signal belong to the same frequency domain bandwidth includes at least one of the following:

[0471] When the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same frequency domain bandwidth, the quasi-co-address reference signal of the quasi-co-address parameter in the associated first type of quasi-co-address parameter set of the channel or signal is determined according to the quasi-co-address reference signal set of the demodulation reference signal of the control channel resource that meets the predetermined characteristics;

[0472] When the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to different frequency domain bandwidths, the quasi-co-address reference signal of the associated spatial reception parameters of the channel or signal is determined according to the quasi-co-address reference signal of the associated spatial reception parameters of the demodulation reference signal of the control channel resource that meets the predetermined characteristics. The quasi-co-address reference signal of the quasi-co-address parameters in the second type of quasi-co-address parameter set associated with the channel or signal is obtained according to the quasi-co-address reference signal information indicated by the second signaling information, wherein the second signaling is physical layer dynamic control signaling for scheduling the channel / signal, or higher layer signaling.

[0473] When the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to different frequency domain bandwidths, the quasi-co-address reference signal of the associated spatial reception parameters of the channel or signal is determined according to the quasi-co-address reference signal of the associated spatial reception parameters of the demodulation reference signal of the control channel resource that meets the predetermined characteristics. The quasi-co-address reference signal of the quasi-co-address parameters in the second type of quasi-co-address parameter set associated with the channel or signal is obtained according to the quasi-co-address reference signal set of the demodulation reference signal of the physical control channel that schedules the channel or signal.

[0474] The first type of quasi-co-address parameter set includes the following quasi-co-address parameters:

[0475] Doppler frequency shift, Doppler spread, average delay, delay spread, spatial reception parameters;

[0476] The second type of quasi-co-address parameter set includes the following quasi-co-address parameters:

[0477] Doppler frequency shift, Doppler spread, average delay, delay spread.

[0478] In this embodiment of the invention, when the second signaling information is higher-layer signaling, it satisfies at least one of the following characteristics:

[0479] The physical layer dynamic control signaling for scheduling the channel or signal does not include an indication field for indicating the quasi-co-location reference signal set of the channel or signal;

[0480] The quasi-co-location reference signal of the quasi-co-location parameter in the second type of quasi-co-location parameter set associated with the channel or signal is obtained according to the first quasi-co-location reference signal set in the list of quasi-co-location reference signal sets configured in the higher layer signaling;

[0481] The quasi-co-address reference signal of the channel or signal with respect to the quasi-co-address parameters in the second type of quasi-co-address parameter set is obtained from the first item in the list of quasi-co-address reference signal sets of data channels included in the configuration information of the bandwidth portion with predetermined characteristics in the component carrier where the channel or signal is located;

[0482] The quasi-co-location reference signal of the channel or signal with respect to the quasi-co-location parameters in the second type of quasi-co-location parameter set is obtained from the first quasi-co-location reference signal set in the list of quasi-co-location reference signal sets included in the configuration information of the member carrier in which the channel or signal is located.

[0483] In this embodiment of the invention, when the second signaling information is higher-layer signaling, it satisfies at least one of the following characteristics:

[0484] The quasi-co-location reference signal of the channel or signal with respect to the quasi-co-location parameters in the second type of quasi-co-location parameter set is obtained according to the first item of the quasi-co-location reference signal set list included in the configuration information of the frequency domain bandwidth where the channel or signal is located;

[0485] The quasi-co-address reference signal of the second type of quasi-co-address parameter associated with the control channel or signal is obtained based on the fourth quasi-co-address reference signal set associated with the control channel or signal where the control channel or signal is located. The fourth quasi-co-address reference signal set and the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel resource are different sets.

[0486] In this embodiment of the invention, determining the quasi-co-location reference signal set of the channel based on whether the aggregation factor of the channel is greater than a predetermined value includes:

[0487] When the aggregation factor of the channel is greater than the predetermined value, it includes at least one of the following:

[0488] The quasi-co-location reference signal set of the channel is obtained according to the information indicated in the control signaling that schedules the channel;

[0489] The quasi-co-address reference signal set of the demodulation reference signal of the channel is obtained based on the quasi-co-address reference signal set of the demodulation reference signal of the control channel that schedules the channel;

[0490] The quasi-co-address reference signal set of the demodulation reference signal of the channel is obtained based on the fourth quasi-co-address reference signal set associated with the control channel resource where the control channel is located, wherein the fourth quasi-co-address reference signal set and the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel resource are different sets.

[0491] In this embodiment of the invention, determining the quasi-co-location reference signal set of the channel based on whether the aggregation factor of the channel is greater than a predetermined value and an agreed rule includes:

[0492] When the aggregation factor of the channel is greater than the predetermined value, the communication node does not want to receive configuration information that does not satisfy at least one of the following characteristics:

[0493] The interval between the channel and the control channel that schedules the channel in each time unit it occupies is greater than or equal to a predetermined threshold.

[0494] The set of quasi-co-located reference signals for demodulation reference signals of control channel resources with the lowest control channel resource identifier is the same in each of the X time units;

[0495] The control channel resources with the lowest control channel resource identifier are the same in each of the X time units;

[0496] The demodulation reference signals of the control channel resources with the lowest control channel resource identifier included in each of the X time units satisfy the quasi-co-address relationship;

[0497] The X time units correspond to the Y time units occupied by the aggregated channel, and one of the X time units is the time unit that is closest to one or more of the Y time units occupied by the channel, which includes the time units for controlling channel resources.

[0498] Where X is a positive integer less than or equal to Y, and the communication node is the communication node that receives the channel.

[0499] In embodiments of the present invention, the channel or signal satisfies at least one of the following characteristics:

[0500] The physical layer controls the distance between the channel and the signal to be less than a predetermined threshold.

[0501] The physical layer control channel that schedules the channel or signal does not include indication information indicating the quasi-co-located reference signal set of the channel or signal.

[0502] In this embodiment of the invention, determining the quasi-co-location reference signal set of the channel or signal based on whether the control channel for scheduling the channel or signal and the channel or signal belong to the same frequency domain bandwidth includes at least one of the following:

[0503] When the control channel for scheduling the channel or signal and the channel or signal belong to the same frequency domain bandwidth, the quasi-co-address parameter reference signal set of the channel or signal with respect to the first type of quasi-co-address parameter set is obtained according to the quasi-co-address reference signal set of the demodulation reference signal of the control channel;

[0504] When the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, the quasi-co-address reference signal of the associated spatial reception parameters of the channel or signal is obtained according to the quasi-co-address reference signal of the associated spatial reception parameters of the demodulation reference signal of the control channel. The quasi-co-address reference signal of the channel or signal with respect to the quasi-co-address parameters in the second type of quasi-co-address parameter set is obtained according to the first item of the quasi-co-address reference signal set in the quasi-co-address reference signal set list configured in the higher layer signaling.

[0505] When the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, the quasi-co-address reference signal of the associated spatial reception parameters of the channel or signal is obtained according to the quasi-co-address reference signal of the associated spatial reception parameters of the demodulation reference signal of the control channel. The quasi-co-address reference signal of the channel or signal with respect to the quasi-co-address parameters in the second type of quasi-co-address parameter set is obtained according to the first item of the quasi-co-address reference signal set list of the data channel quasi-co-address reference signal set included in the configuration information of the bandwidth portion with predetermined characteristics in the component carrier where the channel or signal is located.

[0506] When the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, the quasi-co-address reference signal of the associated spatial reception parameters of the channel or signal is obtained according to the quasi-co-address reference signal of the associated spatial reception parameters of the demodulation reference signal of the control channel. The quasi-co-address reference signal of the channel or signal with respect to the quasi-co-address parameters in the second type of quasi-co-address parameter set is obtained according to the first item of the quasi-co-address reference signal set in the list of quasi-co-address reference signal sets included in the member carrier where the channel or signal is located.

[0507] When the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, the quasi-co-address reference signal of the associated spatial reception parameters of the channel or signal is obtained according to the quasi-co-address reference signal of the associated spatial reception parameters of the demodulation reference signal of the control channel. The quasi-co-address reference signal of the channel or signal with respect to the quasi-co-address parameters in the second type of quasi-co-address parameter set is obtained according to the fourth quasi-co-address reference signal set associated with the control channel resource where the control channel is located, wherein the fourth quasi-co-address reference signal set and the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel resource are different sets.

[0508] When the control channel and the channel or signal that are scheduling the channel or signal belong to different component carriers, the quasi-co-address reference signal set of the channel or signal is obtained according to the higher-layer signaling information.

[0509] In this embodiment of the invention, when the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, and / or the control channel for scheduling the channel or signal does not include a quasi-co-address reference signal indication domain, the quasi-co-address reference signal set of the channel or signal is obtained according to at least one of the following methods:

[0510] The quasi-co-location reference signal set of the channel or signal is obtained by configuring a predetermined item in the list of quasi-co-location reference signal sets in the frequency domain bandwidth where the channel or signal is located;

[0511] The quasi-co-location reference signal set of the channel or signal is obtained based on the quasi-co-location reference signal set information configured for the frequency domain bandwidth of the channel or signal in the control channel that schedules the channel or signal;

[0512] The quasi-co-location reference signal set of the channel or signal is obtained from the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource with a predetermined identifier in the frequency domain bandwidth where the channel or signal is located;

[0513] The quasi-co-located reference signal set of the channel or signal is obtained from the set of quasi-co-located reference signals of the demodulation reference signals of the control channel resources that satisfy the first predetermined characteristic in the time unit of the control channel resources that satisfy the second predetermined characteristic in the time unit closest to the channel or signal.

[0514] In embodiments of the present invention, the index of the predetermined item in the quasi-co-located reference signal set list, and / or the predetermined identifier number, is obtained according to at least one of the following:

[0515] The time unit index of the channel or signal;

[0516] The time unit index of the control channel that schedules the channel or signal;

[0517] The control channel resource index where the control channel for scheduling the channel or signal is located;

[0518] The candidate control channel index corresponding to the control channel that schedules the channel or signal;

[0519] The identification number of the control channel resource that satisfies the second predetermined characteristic in the time unit of the control channel resource that is closest to the channel or signal and includes the frequency domain bandwidth of the channel or signal;

[0520] The number of items included in the quasi-co-located reference signal set list;

[0521] The total number of control channel resources configured in the frequency domain bandwidth where the channel or signal is located.

[0522] In an embodiment of the present invention, wherein,

[0523] The control channel does not include indication information for a set of quasi-co-located reference signals used to indicate the channel or signal;

[0524] And / or, the time interval between the control channel and the channel or signal is greater than or equal to a predetermined threshold.

[0525] In this embodiment of the invention, the method further includes:

[0526] When the first control channel resource and the channel or signal belong to different frequency domain bandwidths, the quasi-co-location reference signal set of the channel or signal is obtained according to the indication information of whether there is quasi-co-location reference signal information in the control channel that schedules the channel or signal;

[0527] The first control channel resource includes at least one of the following control channel resources: a control channel resource that meets predetermined characteristics in the time unit closest to the channel or signal, and a control channel for scheduling the channel or signal.

[0528] In this embodiment of the invention, obtaining the set of quasi-co-location reference signals for a channel or signal based on indication information indicating whether quasi-co-location reference signal information exists in the control channel of the scheduling channel or signal includes at least one of the following:

[0529] When there is indication information of quasi-co-location reference signal information in the control channel for scheduling the channel or signal, the quasi-co-location reference signal set of the channel or signal with respect to the second type of quasi-co-location parameters is obtained according to the indication information of the quasi-co-location reference signal information.

[0530] When there is no indication information for quasi-co-location reference signal information in the control channel for scheduling the channel or signal, the set of quasi-co-location reference signals for the channel or signal with respect to the second type of quasi-co-location parameters is obtained according to a predetermined item in the list of quasi-co-location reference signals configured in the frequency domain bandwidth where the channel or signal is located.

[0531] When there is no indication information for quasi-co-location reference signal information in the control channel for scheduling the channel or signal, the set of quasi-co-location reference signals for the channel or signal with respect to the second type of quasi-co-location parameters is obtained based on the quasi-co-location reference signals of the predetermined control channel resources in the frequency domain bandwidth where the channel or signal is located.

[0532] In this embodiment of the invention, when the aggregation factor of the channel is greater than the predetermined value, it includes at least one of the following:

[0533] When a first predetermined condition is met, it is not desirable to receive a control channel that schedules the channel and meets the following characteristics: the time interval between the channel in one or more of the A time units and the control channel that schedules the channel is less than a predetermined threshold.

[0534] When a first predetermined condition is met, it is desirable to receive a control channel that schedules the channel and satisfies the following characteristics: the time interval between the channel or signal in each of A time units and the control channel that schedules the channel is greater than or equal to a predetermined threshold.

[0535] When the second predetermined condition is met, the time interval between the channel in each of the A time units and the control channel that schedules the channel is not limited;

[0536] The quasi-co-address reference signal set of the demodulation reference signal of the channel in A time units is the same;

[0537] Wherein, the A time units are the time units occupied by the channel, and A is equal to the aggregation factor.

[0538] In this embodiment of the invention, the first predetermined condition includes one of the following:

[0539] Among all the configured quasi-co-located reference signal sets, there is at least one first quasi-co-located reference signal set, and one or more reference signals in the first quasi-co-located reference signal set are associated with spatial reception parameters;

[0540] Among all the sets of quasi-co-located reference signals configured in the frequency domain bandwidth where the channel or signal is located, there is at least one first quasi-co-located reference signal set;

[0541] Among all the quasi-co-located reference signal sets configured in the frequency domain bandwidth group where the channel or signal is located, there is at least one first quasi-co-located reference signal set.

[0542] In embodiments of the present invention, the second predetermined condition includes at least one of the following:

[0543] None of the configured sets of quasi-co-location reference signals include quasi-co-location reference signals associated with spatial reception parameters;

[0544] The set of all quasi-co-location reference signals configured in the frequency domain bandwidth where the channel or signal is located does not include quasi-co-location reference signals associated with spatial reception parameters;

[0545] The set of all quasi-co-located reference signals configured in the frequency domain bandwidth group where the channel or signal is located does not include quasi-co-located reference signals associated with spatial reception parameters.

[0546] In an embodiment of the present invention, a transmission configuration indication state includes one or more of the aforementioned quasi-co-location reference signal sets;

[0547] And / or, a transmission configuration indication state includes one or more of the aforementioned quasi-co-location reference signal sets;

[0548] And / or, the frequency domain bandwidth corresponds to a serving cell.

[0549] In this embodiment of the invention, obtaining the quasi-co-location reference signal set of a channel or signal according to agreed rules includes:

[0550] When the third predetermined condition is met, the quasi-co-addressable reference signal set of the channel or signal is obtained according to one of the following:

[0551] A set of quasi-co-address reference signals for the demodulation reference signals of the control channel that schedules the channel or signal;

[0552] Configuration information of the quasi-co-location reference signal set of control channel resources that meet predetermined characteristics in the time unit where the control channel or signal is located;

[0553] The quasi-co-location reference signal set of the channel or signal is obtained based on the configuration information of the quasi-co-location reference signal set of control channel resources that meet predetermined characteristics in the first time unit where the channel or signal is located;

[0554] The set of quasi-co-located reference signals indicated in the control channel that schedules the channel or signal.

[0555] In this embodiment of the invention, the third predetermined condition includes at least one of the following:

[0556] The aggregation factor of the channel is greater than a predetermined value;

[0557] The time interval between the channel or signal and the control channel that schedules the channel or signal is greater than or equal to a predetermined threshold.

[0558] The control channel that schedules the channels or signals does not include indication information for the quasi-co-location reference signal set of the channels or signals;

[0559] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0560] Transmit signaling information, wherein the signaling information indicates the method of obtaining the quasi-co-located reference signal set of the channel or signal.

[0561] In this embodiment of the invention, the method further includes:

[0562] The first communication node does not want to receive configuration information that does not meet at least one of the following requirements:

[0563] Z control channel resources satisfy a quasi-co-address relationship with respect to spatial reception parameters, wherein different control channel resources among the Z control channel resources belong to different frequency domain bandwidths;

[0564] When the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, the higher-layer configuration information of the frequency domain bandwidth where the channel or signal is located includes at least one quasi-co-address reference signal indication information.

[0565] When the control channel for scheduling the channel or signal and the channel or signal belong to different frequency domain bandwidths, the control channel for scheduling the channel or signal includes quasi-co-address reference signal indication information of the channel or signal;

[0566] The first communication node is the receiving node of the channel or signal.

[0567] In this embodiment of the invention, the Z control channel resources satisfy at least one of the following:

[0568] The Z control channel resources fall within the same time unit;

[0569] The Z control channel resources correspond to Z types of channels or signals, wherein the Z types of channels or signals satisfy at least one of the following:

[0570] The quasi-co-address reference signal of the i-th type of channel or signal is obtained based on the quasi-co-address reference signal of the i-th control channel resource; where i is an integer greater than or equal to 1 and less than or equal to Z;

[0571] The i-th type of channel or signal and the i-th control channel resources belong to the same frequency domain bandwidth;

[0572] The i-th control channel resource is the channel resource that satisfies the second predetermined characteristic in the time unit that is closest to the i-th type of channel or signal, which includes control channel resources that satisfy the first predetermined characteristic.

[0573] The Z-type channels or signals fall within the same time unit.

[0574] In this embodiment of the invention, determining the quasi-co-location reference signal set of the channel or signal according to agreed rules includes:

[0575] When the interval between the control channel that schedules the channel or signal and the channel or signal is less than a predetermined value, the quasi-co-located reference signal set of the channel or signal is obtained according to the quasi-co-located reference signal set of the demodulation reference signal of the control channel resource that satisfies the second predetermined characteristic in the time unit closest to the channel or signal from the time unit set that includes at least one control channel resource that satisfies the first predetermined characteristic.

[0576] In this embodiment of the invention, the control channel resources satisfying the first predetermined feature include at least one of the following:

[0577] Control channel resources whose center carrier of a member carrier is greater than a predetermined threshold;

[0578] The demodulation reference signal and a quasi-co-located reference signal satisfy a quasi-co-located relationship with respect to the spatial receiving filter parameters of the control channel resources;

[0579] The demodulation reference signal is configured with control channel resources for the quasi-co-address reference signal regarding the spatial reception filtering parameters;

[0580] Control channel resources that fall within the same frequency domain bandwidth as the channel or signal;

[0581] Control channel resources that belong to a predetermined frequency domain bandwidth or frequency domain bandwidth group;

[0582] The control value channel belongs to the predetermined control channel resource group;

[0583] The control channel resources of at least one first communication node are associated with the candidate control channel being monitored in the time unit, wherein the first communication node is a receiving node for the channel or signal.

[0584] In this embodiment of the invention, the control channel resources satisfying the second predetermined feature include at least one of the following:

[0585] The control channel resource with the lowest identifier number in the set of control channel resources with the first predetermined characteristics included in the most recent time unit;

[0586] Among the control channel resources with the lowest identifier in the set of control channel resources with the first predetermined characteristics included in the most recent time unit, the control channel resources belong to the frequency domain bandwidth with the lowest frequency domain bandwidth identifier.

[0587] The control channel resources with the first predetermined characteristics included in the most recent time unit are the control channel resources with the lowest identifier in the frequency domain bandwidth with the lowest frequency domain bandwidth identifier.

[0588] In this embodiment of the invention, the quasi-co-location reference signal set of the channel or signal is obtained based on whether the aggregation factor of the channel is greater than a predetermined value, including at least one of the following:

[0589] The aggregation factor of the channel is greater than or equal to a predetermined value, and the A time units occupied by the channel are divided into G time unit groups, each time unit group corresponding to at least one of the following:

[0590] A set of demodulation reference signal configuration information; a set of quasi-co-located reference signal set configuration information.

[0591] In embodiments of the present invention, the channel or signal satisfies at least one of the following:

[0592] The time interval between the control channel and the channel or signal is greater than or equal to a predetermined threshold;

[0593] The physical layer controls the distance between the channel and the signal to be less than a predetermined threshold.

[0594] The control channel for scheduling the channel or signal does not include indication information for indicating the quasi-co-location reference signal set of the channel or signal;

[0595] The channel is a semi-persistent channel.

[0596] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising:

[0597] The fifth determining module is used to obtain the quasi-co-addressable reference signal set for the channel or signal based on at least one of the following information:

[0598] Whether the aggregation factor of the channel is greater than a predetermined value;

[0599] Whether the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same frequency domain bandwidth;

[0600] Whether the control channel that schedules the channel or signal and the channel or signal belong to the same frequency domain bandwidth;

[0601] The agreed-upon rules.

[0602] In this document, the quasi-co-address reference set of the channel is the quasi-co-address reference signal set of the channel.

[0603] This invention provides a method for determining a quasi-co-located reference signal set, comprising:

[0604] Determine at least one of the following based on whether the predetermined conditions are met:

[0605] Whether to determine the quasi-co-located reference signal set for the channel or signal based on the first information;

[0606] Are there any restrictions on the configuration information of the channel or signal?

[0607] The set of quasi-co-address reference signals for the channel or signal;

[0608] The first piece of information includes at least one of the following:

[0609] Whether the aggregation factor of the channel is greater than a predetermined value;

[0610] Whether the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same frequency domain bandwidth;

[0611] Whether the control channel that schedules the channel or signal and the channel or signal belong to the same frequency domain bandwidth.

[0612] In this embodiment of the invention, the predetermined condition includes one of the following:

[0613] None of the configured sets of quasi-common reference signals include quasi-common reference signals associated with space reception parameters;

[0614] The set of all quasi-common reference signals configured in all frequency domain bandwidths does not include quasi-common reference signals associated with spatial reception parameters;

[0615] The set of all quasi-common reference signals configured in the frequency domain bandwidth where the channel or signal is located does not include quasi-common reference signals associated with spatial reception parameters;

[0616] The set of all quasi-common reference signals configured in the frequency domain bandwidth group where the channel or signal is located does not include quasi-common reference signals with associated spatial reception parameters.

[0617] In this embodiment of the invention, determining whether to determine the quasi-co-location reference signal set of the channel or signal based on whether a predetermined condition is met includes at least one of the following:

[0618] When the predetermined conditions are met, the quasi-co-location reference signal set of the channel or signal is not determined based on the first information;

[0619] When the predetermined conditions are not met, the quasi-co-location reference signal set of the channel or signal is determined based on the first information;

[0620] When the predetermined conditions are not met, a method for obtaining the quasi-co-located reference signal set of the channel or signal is determined based on the first information;

[0621] A method for obtaining the quasi-co-located reference signal set of the channel or signal without determining the first information when the predetermined conditions are met.

[0622] In this embodiment of the invention, the determination of the channel or signal configuration information based on whether a predetermined condition is met is subject to limitations; at least one of the following features must be met:

[0623] When the predetermined conditions are not met, the communication node does not want to receive a control channel that schedules the channel or signal that meets the following characteristics: the time interval between the channel or signal in one or more time units of A time units and the control channel or signal that schedules the channel or signal is less than a predetermined threshold.

[0624] When the predetermined conditions are not met, the communication node expects to receive a control channel that schedules the channel or signal, which satisfies the following characteristics: the time interval between the channel or signal in each of the A time units and the control channel or signal that schedules the channel or signal is greater than or equal to a predetermined threshold.

[0625] When the predetermined conditions are met, the time interval between the channel or signal in each of the A time units and the control channel or signal that schedules the channel or signal is not limited;

[0626] When the predetermined conditions are not met, the communication node does not want to receive configuration information that meets the following characteristics: at least two channels or signals at the same time do not satisfy the quasi-co-address relationship with respect to spatial reception parameters;

[0627] When the predetermined conditions are met, there are no restrictions between the quasi-co-located reference signal sets of at least two channels or signals at the same time;

[0628] When the predetermined conditions are met, at least two channels or signals at the same time satisfy or do not satisfy the quasi-co-address relationship between quasi-co-address reference signals of the same type of quasi-co-parameters;

[0629] When the predetermined conditions are not met, the communication node does not want to receive configuration information that meets the following characteristics: at least two channels or signals at the same time do not satisfy the quasi-co-address relationship with respect to the same type of quasi-co-parameter quasi-co-address reference signals;

[0630] Wherein, the A time units are the A time units occupied by the channel or signal, where A is an integer greater than or equal to 1, and the communication node is the communication node that receives the channel or signal or the signal.

[0631] In this embodiment of the invention, determining the quasi-co-location reference signal set of the channel or signal based on whether a predetermined condition is met includes at least one of the following:

[0632] When the predetermined conditions are met, and the control channel for scheduling the channel or signal does not include the quasi-co-address reference signal set of the channel or signal, the quasi-co-address reference signal set of the channel or signal is obtained based on the quasi-co-address reference signal set of the demodulation reference signal of the control channel for scheduling the channel or signal.

[0633] When the predetermined conditions are not met, and the control channel for scheduling the channel or signal does not include the quasi-co-located reference signal set of the channel or signal, and the time interval between the control channel for scheduling the channel or signal and the channel or signal is less than a predetermined threshold, the quasi-co-located reference signal set of the channel or signal is obtained according to the configuration information of the quasi-co-located reference signal set of the control channel resources with predetermined characteristics in the time unit that includes control channel resources and is closest to the channel or signal.

[0634] When the predetermined conditions are not met, and the control channel for scheduling the channel or signal does not include the quasi-co-location reference signal set of the channel or signal, and the time interval between the control channel for scheduling the channel or signal and the channel or signal is greater than or equal to a predetermined threshold, the quasi-co-location reference signal set of the channel or signal is obtained based on the quasi-co-location reference signal set of the demodulation reference signal of the control channel for scheduling the channel or signal.

[0635] In embodiments of the present invention, at least one of the following is included:

[0636] A transmission configuration indication state includes one or more of the aforementioned quasi-co-location reference signal sets;

[0637] A transmission configuration indication state includes one or more of the aforementioned quasi-co-location reference signal sets;

[0638] The frequency domain bandwidth corresponds to one serving cell.

[0639] The frequency domain bandwidth is a bandwidth portion.

[0640] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising:

[0641] The determining module is used to determine at least one of the following based on whether a predetermined condition is met:

[0642] Whether to determine the quasi-co-located reference signal set for the channel or signal based on the first information;

[0643] Are there any restrictions on the configuration information of the channel or signal?

[0644] The set of quasi-co-address reference signals for the channel or signal;

[0645] The first piece of information includes at least one of the following:

[0646] Whether the aggregation factor of the channel is greater than a predetermined value;

[0647] Whether the channel or signal and the control channel resource that meets the predetermined characteristics in the time unit closest to the channel or signal belong to the same frequency domain bandwidth;

[0648] Whether the control channel that schedules the channel or signal and the channel or signal belong to the same frequency domain bandwidth.

[0649] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising a processor and a computer-readable storage medium, wherein the computer-readable storage medium stores instructions that, when executed by the processor, implement any of the methods described above for determining a set of quasi-co-located reference signals.

[0650] This invention provides a computer-readable storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of any of the methods described above for determining a set of quasi-co-located reference signals.

[0651] This invention provides a method for transmitting channel state feedback capability, comprising:

[0652] The first communication node transmits channel measurement feedback capability as either a first capability or a second capability. When the channel measurement feedback capability is the first capability, it determines whether to ignore the control information that triggers channel state feedback based on the relationship between the product of min(E,F) and the first time interval and the second time interval.

[0653] When the channel measurement feedback capability is the second capability, determine whether to ignore the control information that triggers the channel state feedback based on the relationship between the third time interval and the second time interval corresponding to any channel state feedback.

[0654] Wherein, the second time interval is the interval between the control channel that triggers the channel measurement feedback and the channel where the channel state feedback information is located, the E value is the number of channel state feedbacks that the first communication node can calculate simultaneously within a given time, F is the number of channel feedbacks that the control channel triggers simultaneously, and the third time interval and / or the first time interval are obtained according to signaling information or agreed rules.

[0655] In an embodiment of the present invention,

[0656] When the channel measurement feedback capability is the first capability, determine whether to update more than min(E,F) of channel state information based on the relationship between the product of min(E,F) and the fifth time interval and the sixth time interval.

[0657] When the channel measurement feedback capability is the second capability, it is determined whether to update the channel state information based on the relationship between the fourth time interval and the sixth time interval corresponding to a channel state feedback.

[0658] The sixth time interval is the interval between the measurement reference signal and the channel in which the channel state is located, and the fifth time interval and / or the fourth time interval are obtained according to signaling information or agreed rules.

[0659] In an embodiment of the present invention,

[0660] When the channel measurement feedback capability is the first capability, and the second time interval is less than the product of min(E,F) and the first time interval, the control information that triggers the channel state feedback is ignored.

[0661] When the channel measurement feedback capability is the first capability, and the sixth time interval is less than the product of min(E,F) and the fifth time interval, channel state information exceeding min(E,F) is not updated.

[0662] When the channel measurement feedback capability is the second capability, and the second time interval is less than the third time interval corresponding to any channel state feedback, the control information that triggers the channel state feedback is ignored.

[0663] When the channel measurement feedback capability is the second capability, and the sixth time interval is less than the fourth time interval corresponding to the channel state feedback, it is determined that the channel state information will not be updated.

[0664] In embodiments of the present invention, at least one of the following features is satisfied:

[0665] The E value is the capability information of the first communication node;

[0666] The first time interval is the capability information of the first communication node;

[0667] The fifth time interval is the capability information of the first communication node;

[0668] The third time interval is the capability information of the first communication node;

[0669] The seventh time interval is the capability information of the first communication node;

[0670] The third time interval corresponding to a channel state feedback satisfies the condition that if the second time interval is less than the third time interval, the control information that triggers the channel state feedback is ignored.

[0671] If the first time interval corresponding to a channel state feedback satisfies the condition that when the second time interval is less than the first time interval, the control information that triggers the channel state feedback is ignored.

[0672] The fifth time interval corresponding to a channel state feedback satisfies the condition that the channel state feedback information is not updated when the sixth time interval is less than the seventh time interval;

[0673] The fourth time interval corresponding to a channel state feedback satisfies the condition that the channel state feedback information is not updated when the sixth time interval is less than the fifth time interval.

[0674] This invention provides an apparatus for transmitting channel state feedback capability, comprising:

[0675] The transmitting module is used to transmit whether the channel measurement feedback capability is the primary or secondary capability.

[0676] The processing module is used to determine whether to ignore the control information that triggers the channel state feedback when the channel measurement feedback capability is the first capability, based on the relationship between the product of min(E,F) and the first time interval and the second time interval.

[0677] When the channel measurement feedback capability is the second capability, determine whether to ignore the control information that triggers the channel state feedback based on the relationship between the third time interval and the second time interval corresponding to any channel state feedback.

[0678] Wherein, the second time interval is the interval between the control channel that triggers the channel measurement feedback and the channel where the channel state feedback information is located, the E value is the number of channel state feedbacks that the first communication node can calculate simultaneously within a given time, F is the number of channel feedbacks that the control channel triggers simultaneously, and the third time interval and / or the first time interval are obtained according to signaling information or agreed rules.

[0679] This invention provides an apparatus for determining a set of quasi-co-located reference signals, comprising a processor and a computer-readable storage medium, wherein the computer-readable storage medium stores instructions that, when executed by the processor, implement any of the aforementioned methods for transmitting channel state feedback capabilities.

[0680] This invention provides a computer-readable storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of any of the above-described methods for transmitting channel state feedback capability.

[0681] This invention includes: selecting N2 control channel resources from N1 time units; where N1 and N2 are integers greater than or equal to 1; and determining at least M quasi-co-location reference signal sets for M port groups based on the N2 control channel resources, where M is an integer greater than or equal to 1. This invention determines at least M QCL reference signal sets for M port groups based on the selected N2 control channel resources, thereby receiving two or more TRP transmission signals or channels based on the at least M quasi-co-location reference signal sets for the M port groups.

[0682] Other features and advantages of embodiments of the present invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the embodiments of the invention. The objects and other advantages of embodiments of the invention may be realized and obtained by means of the structures particularly pointed out in the description, claims, and drawings. Attached Figure Description

[0683] The accompanying drawings are used to provide a further understanding of the technical solutions of the embodiments of the present invention and constitute a part of the specification. They are used together with the embodiments of the present invention to explain the technical solutions of the embodiments of the present invention, and do not constitute a limitation on the technical solutions of the embodiments of the present invention.

[0684] Figure 1 This is a schematic diagram of multiple TRP transmission in an embodiment of the present invention. Figure 1 ;

[0685] Figure 2 This is a flowchart of a method for determining a QCL reference signal set according to an embodiment of the present invention;

[0686] Figure 3(a) is a schematic diagram of the selection of control channel resources in an embodiment of the present invention. Figure 1 ;

[0687] Figure 3(b) is a schematic diagram of the selection of control channel resources in an embodiment of the present invention. Figure 2 ;

[0688] Figure 3(c) is a schematic diagram of selecting control channel resources according to an embodiment of the present invention;

[0689] Figure 4 This is a schematic diagram of multiple TRP transmission in an embodiment of the present invention. Figure 2 ;

[0690] Figure 5 This is a schematic diagram of multiple TRP transmission according to an embodiment of the present invention;

[0691] Figure 6 This is a flowchart of a method for determining a QCL reference signal set according to another embodiment of the present invention;

[0692] Figure 7 This is a schematic diagram illustrating the reception of quasi-co-address reference signal sets from two port groups according to an embodiment of the present invention;

[0693] Figure 8 This is a flowchart of a method for determining a quasi-co-located reference signal set according to another embodiment of the present invention;

[0694] Figure 9 This is a schematic diagram of multiple TRP transmission in an embodiment of the present invention. Figure 4 ;

[0695] Figure 10 This is a schematic diagram of the structural composition of a device for determining a quasi-co-located reference signal set according to another embodiment of the present invention;

[0696] Figure 11 This is a schematic diagram of the structural composition of a device for determining a quasi-co-located reference signal set according to another embodiment of the present invention;

[0697] Figure 12 This is a schematic diagram of the structural composition of a device for determining a quasi-co-located reference signal set according to another embodiment of the present invention;

[0698] Figure 13 This is a schematic diagram illustrating beam collisions in a channel or signal according to an embodiment of the present invention.

[0699] Figure 14 This is a flowchart of a signal processing method proposed in another embodiment of the present invention;

[0700] Figure 15 This is a schematic diagram of the structural composition of a signal processing device proposed in another embodiment of the present invention.

[0701] Figure 16 This is a schematic diagram illustrating the allocation of control channel resources in X time units when the aggregation factor of the channel is greater than 1, according to an embodiment of the present invention. Figure 1 ;

[0702] Figure 17 This is a schematic diagram illustrating the allocation of control channel resources in X time units when the aggregation factor of the channel is greater than 1, according to an embodiment of the present invention. Figure 2 ;

[0703] Figure 18 This is an example diagram of the feedback period corresponding to a feedback moment in an embodiment of the present invention;

[0704] Figure 19 This is a diagram illustrating the association of two control channel resources with two CCs. Figure 1 ;

[0705] Figure 20 This is a diagram illustrating the association of two control channel resources with two CCs. Figure 2 . Detailed Implementation

[0706] The embodiments of the present invention will be described in detail below with reference to the accompanying drawings. It should be noted that, unless otherwise specified, the embodiments and features in the embodiments of the present invention can be arbitrarily combined with each other.

[0707] The steps illustrated in the flowchart in the accompanying drawings can be executed in a computer system such as a set of computer-executable instructions. Furthermore, although a logical order is shown in the flowchart, in some cases the steps shown or described may be performed in a different order than that shown here.

[0708] NR supports dynamic indication of the beam used by the Physical Downlink Shared Channel (PDSCH) through Downlink Control Information (DCI). Specifically, the beam used by the PDSCH is indicated by the Transmission Configuration Indication (TCI) field in the DCI. That is, the TCI field indicates the quasi-co-location (QCL) reference signal set of the demodulation reference signal (DMRS) of the PDSCH. In other words, the reference signals in the DMRS and QCL reference signal set of the PDSCH satisfy a QCL relationship with respect to a class of QCL parameters. Thus, the terminal can obtain the QCL parameters of the DMRS of the PDSCH based on the QCL parameters of the reference signals in the QCL reference signal set.

[0709] The QCL parameters include at least one of the following parameters:

[0710] Doppler shift, Doppler spread, average delay, multipath spread, and spatial Rx parameter.

[0711] As shown in Table 1, TCI state 1 indicates that DMRS group 1 and Channel State Information Reference Signal 1 satisfy the QCL relationship with respect to {Doppler shift, Doppler spread, average delay, delay spread}, and DMRS group 1 and CSI-RS2 satisfy the QCL relationship with respect to {Spatial Rx parameter}. In this paper, the QCL reference signal set of DMRS group 1 is referred to as {CSI-RS1, CSI-RS2}.

[0712]

[0713] Table 1

[0714] Specifically, the terminal obtains the Spatial Rx parameter of the DMRS of the PDSCH based on the reference signal associated with the Spatial Rx parameter in the QCL reference signal set indicated by the TCI field. This allows the terminal to use a suitable receive beam to receive the PDSCH. However, the QCL reference signal set of the PDSCH can only be obtained through the TCI field indicated in the DCI when the transmission time interval between the DCI and the PDSCH is greater than or equal to a predetermined threshold K. When the transmission time interval between the DCI and the PDSCH is less than the predetermined threshold, the terminal has not yet decoded the DCI or has not had time to switch the beam to the receive beam indicated by the TCI field in the DCI when receiving the PDSCH. Therefore, the terminal cannot use the beam indicated in the DCI to receive the PDSCH. To address this issue, the NR now specifies that when the transmission time interval between the DCI and the PDSCH is less than the predetermined threshold K, the terminal uses the Control Channel Resource Set (CORESET) with the lowest Control Channel Resource Set ID (CORESETID) in the time unit closest to the PDSCH. The beam of the set is used to receive the PDSCH, wherein the time unit contains at least one CORESET that the terminal needs to detect, that is, the set of QCL reference signals that satisfy the QCL relationship with the DMRS of the PDSCH at this time is the set of QCL reference signals of the demodulation reference signal of the CORESET.

[0715] The above scheme is only applicable to single TRP transmission. When there are two or more TRPs communicating with the terminal, the above scheme is not applicable.

[0716] For example, such as Figure 1 As shown, TRP1 and TRP2 serve the UE. TRP1 sends (DCI1, PDSCH1) to the UE, and TRP2 sends (DCI2, PDSCH2) to the UE. Since there is no ideal backhaul between TRP1 and TRP2, they independently schedule PDSCH and exist at the same time or in the same time unit (e.g., in the same slot). The terminal needs to receive PDSCH1 from TRP1 and PDSCH2 from TRP2 simultaneously. That is, the time domain resources occupied by PDSCH1 and PDSCH2 at least partially overlap or occupy the same time unit; or PDSCH1 and PDSCH2 may be in different time units, but their receive beaming issues must be considered independently because the transmit beams of PDSCH1 and PDSCH2 are different. In other words, both TRP1 and TRP2 send DCI and data channels. DCI1 is used to schedule PDSCH1, and DCI2 is used to schedule PDSCH2. Figure 1 In the process, when the time interval between DCI1 and PDSCH1 is less than the predetermined threshold K, and the time interval between DCI2 and PDSCH2 is also less than the predetermined threshold K, the receiving beam problem of PDSCH1 and PDSCH2 needs to be considered.

[0717] In this paper, a QCL reference signal set for a reference signal means that the reference signal and the reference signals in the QCL reference signal set satisfy a QCL relationship with respect to at least one QCL parameter.

[0718] Where two reference signals satisfy a QCL relationship with respect to at least one QCL parameter, it means that the QCL parameter of one reference signal can be obtained from the QCL parameter of the other reference signal.

[0719] See Figure 2 One embodiment of the present invention proposes a method for determining a QCL reference signal set, comprising:

[0720] Step 200: Select N2 control channel resources from the control channel resources included in N1 time units; where N1 and N2 are integers greater than or equal to 1.

[0721] Step 201: Determine at least M QCL reference signal sets for the M port groups based on the N2 control channel resources.

[0722] Optionally, the method further includes:

[0723] The QCL parameters of the channel or signal corresponding to at least one of the M port groups are determined based on at least M QCL reference signal sets of the M port groups, and the channel or signal is received based on the QCL parameters.

[0724] In this embodiment of the invention, a time unit can be a slot, or a time domain symbol included in a slot.

[0725] In this embodiment of the invention, the M port groups satisfy at least one of the following characteristics:

[0726] M port groups fall at the same time;

[0727] M port groups fall within the same time unit;

[0728] M1 channels or signals corresponding to M port groups fall at the same time;

[0729] M1 channels or signals corresponding to M port groups fall in the same time unit;

[0730] The M port groups are the M demodulation reference signal port groups corresponding to the M1 data channels;

[0731] M port groups are M measurement reference signal groups corresponding to at least one measurement reference resource;

[0732] Where M1 is a positive integer less than or equal to M.

[0733] In embodiments of the present invention, the channel or signal corresponding to at least one of the M port groups satisfies at least one of the following:

[0734] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0735] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0736] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[0737] The signal is a periodic signal;

[0738] The signal is a half-cycle signal;

[0739] The channel is a semi-persistent scheduling channel.

[0740] In this embodiment of the invention, the N1 time units include at least one of the following:

[0741] At least one of the M port groups corresponds to the time unit of the channel or signal in the port group;

[0742] The time unit preceding the time unit in which the channel or signal is located;

[0743] The time unit in which the control signaling for scheduling the channel or signal is located;

[0744] The N1 time units, which include at least L1 control channel resources, are the N1 time units closest to the channel or signal from the 1st to the N1th time units, where L1 is a positive integer less than or equal to N2. For example, when N1 is 1, the N1 time units are the time units closest to the channel or signal among the time units including at least N2 control channel resources; when N1 is greater than or equal to 2, the N1 time units are the N1 time units closest to the channel or signal from the 1st to the N1th time units among the time units including at least L1 control channel resources, and the sum of the number of control channel resources included in these N1 time units is greater than or equal to N2.

[0745] Includes the time unit closest to the channel or signal from a set of at least N2 control channel resources;

[0746] The time unit includes the set of time units closest to the channel or signal in the set of time units in which the demodulation reference signals of any two of the N2 control channel resources do not satisfy the quasi-co-location relationship with respect to the spatial reception parameters;

[0747] The time interval between the channel or signal is less than or equal to the time interval between the control signaling that schedules the channel or signal and the channel or signal;

[0748] The time unit between the control signaling that schedules the channel or signal and the time unit between the channel or signal;

[0749] The time unit in which the distance between the channel or signal is less than a predetermined threshold.

[0750] In this embodiment of the invention, the N1 time units include at least one of the following:

[0751] The time unit includes the time unit set closest to the channel or signal from the time unit set of at least N2 control channel resources;

[0752] The time unit includes the time unit set closest to the channel or signal from the set of at least N2 control channel resources that satisfy the first predetermined characteristic;

[0753] The time units include at least L1 control channel resources that satisfy a first predetermined characteristic, and the N1 time units that are closest to the channel or signal from the 1st to the N1th time units, where L1 is a positive integer less than or equal to N2;

[0754] The control channel resources that satisfy the first predetermined feature include at least one of the following:

[0755] Control channel resources whose center carrier of a member carrier is greater than a predetermined threshold;

[0756] The demodulation reference signal and a quasi-co-located reference signal satisfy a quasi-co-located relationship with respect to the spatial receiving filter parameters of the control channel resources;

[0757] The demodulation reference signal is configured with control channel resources for the quasi-co-address reference signal regarding the spatial reception filtering parameters;

[0758] The control channel resources that fall within the same frequency domain bandwidth as the port group;

[0759] The demodulation reference signals of the N2 control channel resources or the L1 control channel resources do not satisfy the quasi-co-address relationship with respect to the spatial receiving filter parameters;

[0760] Control channel resources that belong to a predetermined frequency domain bandwidth or a predetermined frequency domain bandwidth group; wherein, a frequency domain bandwidth can be the bandwidth corresponding to a component carrier (CC) or the bandwidth corresponding to a bandwidth portion (BWP);

[0761] Control channel resources belonging to a control channel resource group;

[0762] Control channel resources belonging to a frequency domain bandwidth or a frequency domain bandwidth group;

[0763] The control channel resources of at least one first communication node that listens on the candidate control channel in the time unit are associated with the control channel resources of the port group.

[0764] In this embodiment of the invention, a control channel resource includes any one of the following:

[0765] A CORESET (Control resource set), a search space set, a search space, a candidate control channel, and a Physical Downlink Control Channel (PDCCH).

[0766] One CORESET corresponds to one control channel resource, one PDCCH occupies part or all of the frequency domain resources in one CORESET, one CORESET corresponds to one set of frequency domain resources, one CORESET is a set of frequency domain resources for transmitting control channels, and the time domain resources corresponding to the CORESET are determined by the configuration information in the search space set associated with the CORESET.

[0767] One time unit includes control channel resources, indicating that the control channels included in this control channel resource need to be detected in this time unit.

[0768] For example, when the control channel resource is CORESET, whether a time unit includes the CORESET is determined based on whether the CORESET is associated with at least one search space set that needs to be detected in that time unit.

[0769] Specifically, when a CORESET is associated with at least one search space set that needs to be detected in that time unit, the time unit is determined to include the CORESET; when a CORESET is not associated with any search space set that needs to be detected in that time unit, the time unit is determined to exclude the CORESET.

[0770] For example, if a CORESET has a search space set configured in this time unit, but the number of candidate control channels configured in this time unit exceeds the terminal's detection capability, such as exceeding a predetermined threshold, then according to certain discarding principles, no search space set of this CORESET will be detected, and therefore this CORESET will not be included in this time unit.

[0771] In this embodiment of the invention, N2 control channel resources can be selected from the control channel resources included in N1 time units according to the channel or signal configuration information;

[0772] Alternatively, N2 control channel resources can be selected from the control channel resources included in N1 time units based on the configuration information of the control channel resources where the scheduling channel or signal control channel is located.

[0773] Alternatively, select N2 control channel resources that satisfy the second predetermined characteristic from the control channel resources included in the N1 time units;

[0774] Wherein, the channel or signal is the channel or signal corresponding to at least one of the M port groups.

[0775] The configuration information of the channel or signal, or the configuration information of the control channel resources for scheduling the channel or signal, indicates the N2 control channel resources selected from the control channel resources included in the N1 time units.

[0776] Among them, the N2 control channel resources that satisfy the second predetermined characteristic selected from the control channel resources included in the N1 time units include any one of the following:

[0777] Select N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers from the control channel resources included in the N1 time units;

[0778] From the control channel resources included in the N1 time units whose demodulation reference signals do not satisfy the quasi-co-location relationship with respect to spatial reception parameters, select N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers;

[0779] Where L is an integer greater than or equal to 1.

[0780] For example, such as Figure 1 As shown, there is no ideal backhaul between TRP1 and TRP2. TRP1 and TRP2 are independently scheduled, resulting in PDSCH1 and PDSCH2 being on slot(n). Among the slots preceding slot(n), including those containing the CORESETs the terminal needs to detect, the slot closest to slot(n) is slot(n-2). The CORESETs the terminal needs to detect on slot(n-2) include {CORESET0, CORESET1, CORESET2, CORESET3}. The terminal determines the CORESET based on the TCI configuration of CORESET0 (i.e., the demodulation reference signal of CORESET0 and the QCL reference signal included in the TCI configuration information of CORESET0, which satisfy a QCL relationship with respect to a class of QCL parameters). That is, the QCL reference signal set of the demodulation reference signal of CORESET0 is obtained according to the TCI configuration in CORESET0. The terminal obtains the QCL reference signal set of PDSCH1's DMRS according to the TCI configuration of CORESET1 (that is, the demodulation reference signal of CORESET1 and the QCL reference signal included in the TCI configuration information of CORESET1 satisfy a QCL relationship with respect to a class of QCL parameters). For example, the QCL reference signal set of PDSCH2's DMRS is the QCL reference signal set of CORESET1's demodulation reference signal. If there is only one CORESET in slot (n-2), the QCL reference signal set of PDSCH2 is obtained according to the beam with the lowest CORESETID in the slot before slot (n-2). That is, the slot that includes the CORESET and is closest to slotn is slot(n-2), and there is only one CORESET in slot(n-2). The following method can be used to determine the beams of PDSCH1 and PDSCH2:

[0781] Method 1 for selecting N2 control channel resources: From slots containing at least two CORESETs, select the time unit closest to the slots containing PDSCH1 and PDSCH2, and select the two CORESETs with the lowest CORESETIDs from the first to the second lowest CORESETIDs. Based on the QCL reference signal sets of the demodulation reference signals of these two CORESETs, obtain the QCL reference signal sets of the demodulation reference signals for PDSCH1 and PDSCH2 respectively. For example, slots (n) and (n-1) do not contain any CORESETs, slot (n-2) only contains CORESET0, and slot (n-3) contains {CORESET1, CORESET3}. Then, based on the QCL reference signal sets of the demodulation reference signals of {CORESET1, CORESET3} in slot (n-3), obtain the QCL reference signal sets of PDSCH1 and PDSCH2 respectively, as shown in Figure 3(a).

[0782] Method 2 for selecting N2 control channel resources: Select the two CORESETs from the time unit set that is closest to slot(n) from the time unit set that includes at least two CORESETs. Select the two CORESETs from the first lowest CORESETID to the second lowest CORESETID. Obtain the QCL reference signal sets of the demodulation reference signals of PDSCH1 and PDSCH2 respectively based on the QCL reference signal sets of the demodulation reference signals of these two CORESETs. For example, slot(n) includes {CORESET0}, slot(n-1) includes {CORESET0}, slot(n-2) does not include CORESET, and slot(n-3) includes {CORESET1, CORESET3}. Then, select the QCL reference signal sets of the demodulation reference signals of {CORESET0, CORESET1} from {CORESET0, CORESET1, CORESET3} included in {slot(n)~slot(n-3)} as the QCL reference signal sets of PDSCH1 and PDSCH2 respectively, as shown in Figure 3(b).

[0783] Method 3 for selecting N2 control channel resources: Select the time unit set closest to slot(n) from the time unit set of different CORESETs that include at least two demodulation reference signals. Select the two CORESETs from the first lowest CORESETID to the second lowest CORESETID. Based on the QCL reference signal sets of the demodulation reference signals of these two CORESETs, obtain the QCL reference signal sets of the demodulation reference signals of PDSCH1 and PDSCH2 respectively. For example, slot(n) includes {CORESET0}, slot(n-1) includes {CORESET0}, slot(n-2) does not include CORESET, and slot(n-3) includes {CORESET1, CORESET3}. Then, the {CORESET0} included in {slot(n)~slot(n-3)} are... The QCL reference signal sets of the demodulated reference signals {CORESET0, CORESET1} within {CORESET0, CORESET1} are selected as the QCL reference signal sets of PDSCH1 and PDSCH2, respectively, as shown in Figure 3(b). Although CORESET0 and CORESET1 are different CORESETs, their demodulated reference signals have the same QCL reference signal set, which is QCL reference signal set 1. The QCL reference signal set of the demodulated reference signal of CORESET3 is QCL reference signal set 2. Therefore, the QCL reference signal set of the demodulated reference signal of PDSCH1 is the QCL reference signal set 1 corresponding to CORESET0 and CORESET1, and the QCL reference signal set of the demodulated reference signal of PDSCH2 is the QCL reference signal set 2 corresponding to CORESET3.The demodulation reference signals of CORESET0 and CORESET1 have the same QCL reference signal set. In another embodiment of this example, the demodulation reference signals of CORESET0 and CORESET1 have different QCL reference signal sets, but their QCL reference signals with respect to spatial receiving filter parameters are the same. For example, the demodulation reference signal of CORESET0 has a QCL reference signal set {CSI-RS1, CSI-RS2}, where the QCL parameters associated with CSI-RS1 are {Doppler shift, Doppler spread, average delay, delay spread}, and the QCL parameter associated with CSI-RS2 is the Spatial Rx parameter. The demodulation reference signal of CORESET1 has a QCL reference signal set {CSI-RS3, CSI-RS2}, where the QCL parameters associated with CSI-RS3 are {Doppler shift, Doppler spread, average delay, delay spread}, and the QCL parameter associated with CSI-RS2 is the Spatial Rx parameter. Rxparameter. Therefore, the QCL reference signal set of PDSCH1 is obtained using the QCL reference signal set of CORESET0. That is, from the set of time units of CORESETs that include at least two demodulation reference signals that do not satisfy the QCL relationship with respect to the Spatial Rx parameter, the set of time units closest to slot(n) is selected, and the two CORESETs from the first lowest CORESETID to the second lowest CORESETID are selected.

[0784] In Figures 3(a) and 3(b), the time interval between DCI1 and PDSCH1 is less than a predetermined threshold K, and the time interval between DCI2 and PDSCH2 is also less than a predetermined threshold K, for example, K is 4 slots. Since DCI1 and DCI2 will be sent in two different CORESETs, starting from slot(n), before encountering DCI1 and DCI2, a CORESET that meets the requirements may be found, or it may not be found. If it cannot be found, it will encounter the CORESET where DCI1 and DCI2 are located. Thus, N1 time units belong to the time units between the time unit where DCI is located and the time unit where PDSCH is located, that is, the time interval between the N1 time units and the PDSCH is less than K.

[0785] Method four for selecting N2 control channel resources: From the time units of at least L1 control channel resources satisfying a first predetermined characteristic, N2 control channel resources satisfying a second predetermined characteristic are selected from the N1 time units closest to the channel or signal (from the 1st to the N1th). The control channel resources satisfying the first predetermined characteristic include at least one of the following: control channel resources whose center carrier of the component carrier is greater than a predetermined threshold; control channel resources where a demodulation reference signal and a quasi-co-address reference signal satisfy a quasi-co-address relationship with respect to spatial reception filtering parameters; control channel resources where the demodulation reference signal is configured with respect to a quasi-co-address reference signal with respect to spatial reception filtering parameters; and control channels falling within the same frequency domain bandwidth as the port group. Resources; wherein, a frequency domain bandwidth can be the bandwidth corresponding to a component carrier (CC) or the bandwidth corresponding to a bandwidth portion (BWP); the demodulation reference signals of different control channel resources in the N2 control channel resources or the L1 control channel resources do not satisfy the quasi-co-address relationship with respect to the spatial receiving filter parameters; control channel resources belonging to a predetermined frequency domain bandwidth or a predetermined frequency domain bandwidth group; control channel resources associated with at least one candidate control channel monitored by a first communication node in the time unit, wherein the first communication node is the receiving node of the port group; control channel resources belonging to a predetermined control channel resource group; control channel resources belonging to a frequency domain bandwidth or a frequency domain bandwidth group. The control channel resources with the second predetermined feature satisfy one of the following characteristics: Among the control channel resources with the first predetermined feature included in the N1 time units, there are control channel resources with the lowest identifier number from Lth to L+N2-1th; when there are more than one control channel resource with the same identifier among the control channel resources with the same identifier, the control channel resource belonging to the frequency domain bandwidth with the lowest frequency domain bandwidth identifier is selected from the multiple control channel resources with the same identifier; the control channel resources belonging to the F frequency domain bandwidths with the lowest frequency domain bandwidth identifier are included in the set of control channel resources with the first predetermined feature included in the N1 time units.

[0786] Alternatively, PDSCH1 and / or PDSCH2 are semi-persistent scheduled PDSCHs (SPS-PDSCH), and the DCI1 for scheduling PDSCH1 and the DCI2 for scheduling PDSCH2 are in slot (n-20). The period of PDSCH1 and PDSCH2 is 5 slots, meaning that PDSCH1 and PDSCH2 are transmitted once every 5 slots. The interval between PDSCH1 and PDSCH2 in slot (n) and the time between their DCIs exceeds 4 periods of semi-persistent scheduled PDSCHs. In Figures 3(a) and 3(b), PDSCH1 should be configured with the CORESET that should be selected as the first lowest CORESETID, and PDSCH2 should be configured with the CORESET that should be selected as the second lowest CORESETID. In the aforementioned distances, each PDSCH includes only one DMRS group. However, in this embodiment, it is not excluded that each PDSCH may correspond to multiple DMRS groups. Therefore, PDSCH1 is configured to select the 1st to 2nd lowest CORESETID CORESET, and PDSCH2 is configured to select the 3rd lowest CORESETID CORESET. That is, when the distance between the currently semi-persistently scheduled channel and the DCI of the scheduled semi-persistent PDSCH is sufficiently large, such as exceeding a predetermined number of semi-persistent periods, the quasi-co-address reference signal of the semi-persistent channel is obtained by following the set of quasi-co-address reference signals of the control channel resources satisfying the second predetermined characteristic in the time unit closest to the current semi-persistent PDSCH within the time unit containing the control channel resources satisfying the first predetermined characteristic. When the distance between the currently semi-persistently scheduled channel and the DCI of the scheduled semi-persistent PDSCH is relatively small, such as within the predetermined number of semi-persistent periods, the set of quasi-co-address reference signals of the currently semi-persistently scheduled channel can be obtained based on the TCI field indicated by the DCI of the scheduled semi-persistent PDSCH.

[0787] In embodiments of the present invention, at least one of the following characteristics is satisfied by the channel or signal corresponding to at least one of the M port groups:

[0788] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0789] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0790] The control signaling for the scheduling channel or signal does not include notification information for the quasi-co-location reference signal set of the port group;

[0791] The signal is a periodic signal;

[0792] The signal is a half-cycle signal;

[0793] The channel is a semi-persistent scheduling channel.

[0794] The notification information can be a TCI field.

[0795] In another embodiment of the present invention, the N1 time units include M2 ​​time unit groups, wherein the M port groups correspond to the M2 time unit groups, and M2 is a positive integer greater than or equal to 1;

[0796] And / or, M port groups correspond to M3 control channel resource groups, where M3 is a positive integer greater than or equal to 1.

[0797] The intersection of time units included in different time unit groups is non-empty.

[0798] The quasi-co-address reference signal set of the port group corresponding to the time unit group is determined based on the N4 control channel resources selected from the time unit group. In other words, the quasi-co-address reference signal set of the port group corresponding to the time unit group is the QCL reference signal set of the DMRS for the N4 control channel resources.

[0799] Wherein, N4 is a positive integer less than or equal to N2, and the N4 values ​​corresponding to different time unit groups may be the same or different.

[0800] Each time unit group includes N3 time units that are closest to the channel or signal from the 1st to the N3rd time units that satisfy the first characteristic; where N3 is an integer greater than or equal to 1.

[0801] Wherein, the time unit satisfying the first feature includes at least L2 control channel resources in a control channel resource group, where L2 is an integer greater than or equal to 1;

[0802] The channel or signal includes a port group corresponding to the time unit group;

[0803] The control channel resource group includes at least one of the following:

[0804] The control channel resource group corresponding to the port group corresponding to the time unit group;

[0805] The control channel resource group corresponding to the port group included in the channel or signal;

[0806] A control channel resource group corresponding to at least one port group.

[0807] The selection of N2 control channel resources from the control channel resources included in the N1 time units includes:

[0808] N4 control channel resources are selected from the control channel resources belonging to the control channel resource group included in the N3 time units, wherein the control channel resource group corresponds to at least one port group in the port group;

[0809] The step of determining at least M quasi-co-location reference signal sets for M port groups based on the N2 control channel resources includes:

[0810] Based on the N4 control channel resources, determine the quasi-co-address reference signal set for the port group corresponding to the control channel resource group;

[0811] Where N3 is a positive integer less than or equal to N1, N4 is a positive integer less than or equal to N2, L2 is a positive integer less than or equal to N4, and the N4 values ​​corresponding to different port groups may be the same or different, and the N3 values ​​corresponding to different port groups may be the same or different.

[0812] The selection of N4 control channel resources from the control channel resources belonging to the control channel resource group included in the N3 time units includes:

[0813] Select N2 control channel resources with the lowest control channel resource identifier from Lth to (L+N2-1)th from the control channel resource resources belonging to the control channel resource group included in the N1 time units;

[0814] From the control channel resources belonging to the control channel resource group included in the N1 time units, select the N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers from the control channel resources whose demodulation reference signal does not satisfy the quasi-co-address relationship with respect to spatial reception parameters;

[0815] Where L is an integer greater than or equal to 1.

[0816] Among them, the M port groups correspond to M3 control channel resource groups, including at least one of the following:

[0817] Each of the M port groups corresponds to at least one control channel resource group;

[0818] Each of the M3 control channel resource groups corresponds to at least one port group;

[0819] The correspondence between the M port groups and the M3 control channel resource group is determined based on the signaling information;

[0820] The correspondence between the M port groups and the M3 control channel resource group is determined according to the agreed rules;

[0821] Determine the control channel resource group corresponding to a port group based on the signaling information;

[0822] A control channel resource group corresponding to a port group is determined according to the agreed rules;

[0823] A port group corresponds to a control channel group, which is the control channel resource group to which the control channel information of the scheduling channel or signal belongs, wherein the channel or signal includes the port group.

[0824] A control channel group corresponding to a port group is a control channel resource group that includes control channel resources in a predetermined component carrier (CC).

[0825] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources in a predetermined member carrier group.

[0826] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources satisfying a first characteristic; wherein, the control channel resources satisfying the first characteristic are associated with a second QCL reference signal set, and different control channel resources satisfying the first characteristic are associated with different second QCL reference signal sets; the intersection between the second quasi-co-address reference signal set and the third quasi-co-address reference signal set of the demodulated reference signal of the control channel resources satisfying the first characteristic is non-empty, and / or the second quasi-co-address reference signal set and the third quasi-co-address reference signal set correspond to different control signaling bit fields; the reference signals in the third quasi-co-address reference signal set and the demodulated reference signals of the control channel resources satisfying the first characteristic satisfy a quasi-co-address relationship with respect to the first type of quasi-co-address parameters;

[0827] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources satisfying the second characteristic; wherein, the seventh QCL reference signal set of the demodulation reference signals of the control channel resources satisfying the second characteristic is associated with the sixth QCL reference signal set, and the sixth QCL reference signal set associated with the seventh QCL reference signal set of different control channel resources satisfying the second characteristic is different; the intersection between the sixth quasi-co-address reference signal set and the seventh quasi-co-address reference signal set is non-empty, and / or the sixth quasi-co-address reference signal set and the seventh quasi-co-address reference signal set correspond to different control signaling bit fields; the reference signals in the seventh quasi-co-address reference signal set and the demodulation reference signals of the control channel resources satisfying the second characteristic satisfy a quasi-co-address relationship with respect to the second type of quasi-co-address parameters.

[0828] Among them, the association between control channel resources satisfying the first characteristic and the second quasi-co-located reference signal set means that:

[0829] Configure the second quasi-co-location reference signal set in the configuration information of control channel resources that satisfy the first feature;

[0830] Alternatively, the configuration information of the second quasi-co-located reference signal set may include configuration information of control channel resources that satisfy the first feature;

[0831] Alternatively, the association between control channel resources that satisfy the first characteristic and the second quasi-co-located reference signal set can be determined by predetermined rules.

[0832] The association between the fourth QCL reference signal set and the fifth quasi-co-located reference signal set of the demodulation reference signals of the control channel resources that satisfy the second characteristic means:

[0833] Configure the fifth quasi-co-located reference signal set in the configuration information of the fourth QCL reference signal set;

[0834] Alternatively, the configuration information of the fourth QCL reference signal set may be included in the configuration information of the fifth quasi-co-located reference signal set;

[0835] Alternatively, the association between the fourth QCL reference signal set and the fifth quasi-co-located reference signal set can be determined by predetermined rules.

[0836] In embodiments of the present invention, the control channel resource group satisfies at least one of the following:

[0837] Different control channel resources in different control channel resource groups can be received simultaneously by the communication node;

[0838] Different control channel resources in the same control channel resource group cannot be received by the communication node at the same time;

[0839] x1 control channel resources in the same control channel resource group can be received simultaneously by the communication node, where x1 is a positive integer less than or equal to x2, and x2 is the number of control channel resources included in the control channel resource group;

[0840] For example, a downlink control channel resource group corresponds to a receiving panel of a communication node. Control channel resources in different control channel resource groups can be received by the communication node simultaneously, and generally, the beam isolation between different panels is relatively high. Different control channel resources in the same control resource group cannot be received by the communication node simultaneously, that is, in this case, a panel has only one radio frequency link, and a radio frequency link can only generate one radio frequency beam at a time. Of course, a panel can also correspond to multiple radio frequency links, so there can be x1 control channel resources in a control channel resource group that can be received by the communication node simultaneously, where x1 is a positive integer less than or equal to x2, and x2 is the number of control channel resources included in the control channel resource group.

[0841] M is a positive integer less than or equal to M²;

[0842] M is a positive integer less than or equal to M3;

[0843] M2 is equal to M3.

[0844] In embodiments of the present invention, the control channel resource group satisfies at least one of the following:

[0845] Different control channel resources in different control channel resource groups can be received simultaneously by the communication node;

[0846] Different control channel resources in the same control channel resource group cannot be received by the communication node at the same time;

[0847] x1 control channel resources in a control channel resource group can be received simultaneously by a communication node; where x1 is a positive integer less than or equal to x2, and x2 is the number of control channel resources included in the control channel resource group;

[0848] M is a positive integer less than or equal to M²;

[0849] M is a positive integer less than or equal to M3;

[0850] M2 is equal to M3;

[0851] The intersection of the resources occupied by the control channels in different control channel resource groups is empty;

[0852] The communication node is the communication node that receives the control channel resource group.

[0853] The aforementioned communication node (such as a terminal) is the communication node that receives the control channel resource group.

[0854] In this embodiment of the invention, a type of QCL parameter refers to at least one QCL parameter.

[0855] In this embodiment of the invention, the port can be a DMRS port or a measurement reference signal port.

[0856] When selecting control channel resources as described above, it is equivalent to PDSCH1 and PDSCH2 selecting control channel resources in the same control channel resource group. The following describes another method for selecting control channel resources: PDSCH1 selects control channels from the control channel resource group corresponding to PDSCH1, and PDSCH2 selects control channels from the control channel resource group corresponding to PDSCH2.

[0857] For example, as shown in Figure 3(c), the control channel resource group corresponding to PDSCH1 is group 1 {CORESET0, CORESET1, CORESET2}, and the control channel resource group corresponding to PDSCH2 is group 2 {CORESET3, CORESET4, CORESET5}. When the interval between DCI1 and PDSCH1 is less than K, N4 control channel resources are selected from the slot closest to PDSCH1 within the slot containing at least one control channel resource from control channel resource group 1. Based on these N4 control channel resources, a set of QCL reference signals for N4 DMRS groups of PDSCH1 is obtained, where one DMRS group corresponds to one set of QCL reference signals. Alternatively, a set of QCL reference signals for PDSCH1 with fewer than N4 DMRS groups is obtained based on the N4 control channel resources, where one DMRS group corresponds to more than one set of QCL reference signals.

[0858] For example, as shown in Figure 3(c), both PDSCH1 and PDSCH2 are in slot(n). Among the slots of CORESET in control channel resource group 1, the slot closest to PDSCH1 is slot(n-1). Thus, the QCL reference signal set of PDSCH1 is the QCL reference signal set of the demodulation reference signal of CORESET1 with the lowest CORESETID in {CORESET1, CORESET2} in slot(n-1).

[0859] In the control channel resource group 2, the slot closest to PDSCH2 in the CORESET slot is slot (n-2). Therefore, the QCL reference signal set for PDSCH2 is the set of demodulated reference signals of CORESET3 with the lowest CORESETID within {CORESET3, CORESET4} in slot (n-2). Optionally, PDSCH1 and PDSCH2 belong to the same carrier member (CC), or they fall within the same bandwidth part (BWP).

[0860] The aforementioned port group corresponds to one control channel resource group. However, this embodiment of the invention does not exclude the possibility of one port group corresponding to multiple control channel resource groups. For example, if a port group is transmitted in multiple time units, the port group in each time unit corresponds to one control channel resource group. One control channel resource group can also correspond to one or more port groups. For instance, a PDSCH includes two DMRS groups, and the QCL reference signal set in the two DMRS groups is the set of QCL reference signals for selecting two control channel resources from one control channel resource group corresponding to the PDSCH. The method for selecting N4 control channel resources from one control channel resource group can be similar to methods one through four described above for selecting N2 control channel resources, except that N4 control channel resources are selected from one control channel resource group.

[0861] The following section details how to obtain the correspondence between port groups and control channel resource groups.

[0862] Method 1 for determining the correspondence between port groups and control channel resource groups: The configuration information of the data channel includes the configuration information of the control channel resource group corresponding to the data channel. For example, the configuration information of the PDSCH includes the configuration information of the CORESET group corresponding to the PDSCH. Then the port group included in this data channel corresponds to the control channel resource group configured in this data channel.

[0863] For example, the transmission parameters of PDSCH are configured in the higher-layer signaling, and the corresponding CORESET group of PDSCH is also configured. DCI dynamically schedules PDSCH. Some transmission parameters of the dynamically scheduled PDSCH are obtained according to the transmission parameters of PDSCH configured in the higher-layer signaling. The dynamically scheduled PDSCH may include one demodulation reference signal port group or two demodulation reference signal port groups. The control channel resource group corresponding to all demodulation reference signal port groups included in the dynamically scheduled PDSCH is the CORESET group included in the higher-layer signaling configuration of PDSCH.

[0864] Method 2 for determining the correspondence between port groups and control channel resource groups: Configure the index of the control channel resource group in the configuration information of the control channel resource. If there is no index of the control channel resource group in the configuration information of a control channel resource, the control channel resource is defaulted to the first group.

[0865] For example, the CORESET group ID can be configured in the CORESET configuration information. If the CORESET configuration information does not include the CORESET group ID, the default is that the CORESET belongs to the first CORESET group.

[0866] Alternatively, configure a control channel resource group, wherein the configuration information of the control channel resource group includes the configuration information of the control channel resources included in the control channel resource group.

[0867] Among them, the CORESET group corresponding to a port group is the CORESET group to which the DCI of the channel or signal corresponding to the port group belongs.

[0868] Method 3 for determining the correspondence between port groups and control channel resource groups: The control channel resource group corresponding to a port group is the predetermined CC or the control channel resources in the predetermined CC group.

[0869] Among them, the reserved CC or reserved CC group corresponding to a port group is obtained according to signaling information or agreed rules.

[0870] For example, a port group corresponds to any of the following CC / CC groups:

[0871] The CC of the lowest CCID in the most recent time unit of the channel or signal corresponding to the port group / the CC group to which that CC belongs;

[0872] The CC where the channel or signal corresponding to the port group is located / the CC group to which the CC is located;

[0873] The CC where the DCI of the channel or signal corresponding to the scheduling port group is located / the CC group to which the CC is located.

[0874] Different CCs can be represented by different serving cells.

[0875] For example, when there are multiple CCs, it is necessary to determine the control channel resource group corresponding to the port group, select a control channel resource in the control channel resource group, and obtain the QCL reference signal of the port group based on the selected control channel resource. The control channel resource group is determined based on at least one of the CC information mentioned above.

[0876] In this embodiment of the invention, determining at least M quasi-co-location reference signal sets for M port groups based on N2 control channel resources includes:

[0877] The quasi-co-location reference signal set of any one of the M port groups is determined based on the configuration information of at least one of the N2 control channel resources, where M is a positive integer less than or equal to N2.

[0878] Alternatively, the quasi-co-location reference signal set of any one of the M port groups is determined based on the quasi-co-location reference signal set of the demodulation reference signal of at least one of the N2 control channel resources.

[0879] exist Figure 1 In this embodiment, there is no ideal backhaul link between TRP1 and TRP2. Of course, this embodiment does not exclude the possibility that there is an ideal backhaul link between TRP1 and TRP2.

[0880] In the above embodiments, two or more TRPs serving the UE send both control channels and data channels. When some TRPs among the two or more TRPs serving the UE send both control channels and data channels, while some TRPs only send data channels, the solution in the above embodiments is not applicable.

[0881] For example, such as Figure 4 As shown, there is an ideal backhaul between TRP1 and TRP2. TRP1 transmits DMRS group1 of PDSCH and DCI of PDSCH, while TRP2 transmits DMRS group2 of PDSCH. When the time interval between DCI of PDSCH and PDSCH is less than a predetermined threshold K, it is necessary to determine the receiving beams of DMRS group1 and DMRS group2, that is, to determine the QCL reference signal set of DMRS group1 and DMRS group2, or to determine the QCL reference signal set 1 of DMRS group1 that satisfies the QCL relationship with respect to Spatial Rx parameter and the QCL reference signal set 2 of DMRS group2 that satisfies the QCL relationship with respect to Spatial Rx parameter.

[0882] For example, such as Figure 5As shown, there is an ideal backhaul between TRP1 and TRP2. TRP1 transmits PDSCH 1, and TRP2 transmits PDSCH 2. Both DCI1 (scheduling PDSCH 1) and DCI2 (scheduling PDSCH 2) are transmitted on TRP1. When the time interval between DCI1 and PDSCH 1 is less than a predetermined threshold K, and the time interval between DCI2 and PDSCH 2 is less than the predetermined threshold K, it is necessary to determine the receiving beams of PDSCH 1 and PDSCH 2, that is, to determine the QCL reference signal sets of DMRS group1 and DMRS group2, or to determine the QCL reference signal set 1 of DMRS group1 that satisfies the QCL relationship with respect to the Spatial Rx parameter and the QCL reference signal set 2 of DMRS group2 that satisfies the QCL relationship with respect to the Spatial Rx parameter. Here, DMRS group1 is the demodulation reference signal port group included in PDSCH 1, and DMRS group2 is the demodulation reference signal port group included in PDSCH 2; that is... Figure 5 In this embodiment, PDSCH1 and PDSCH2 each include only one DMRS port group. However, this embodiment does not exclude the possibility that PDSCH1 and / or PDSCH2 include two or more DMRS port groups. Optionally, PDSCH1 and PDSCH2 belong to the same CC, or PDSCH1 and PDSCH2 fall within the same BWP.

[0883] See Figure 6 Another embodiment of the present invention proposes a method for determining the QCL reference signal set, comprising:

[0884] Step 600: Determine at least P sets of quasi-co-addressable reference signals for the P-class port group, where P is an integer greater than or equal to 2.

[0885] Specifically, Class P port groups include Class I port groups and Class II port groups;

[0886] The set of at least P quasi-co-address reference signals for determining the P-type port group includes:

[0887] Determine the first quasi-co-address reference signal set for the first type of port group;

[0888] Determine the second quasi-co-address reference signal set for the second type of port group.

[0889] The acquisition methods for the quasi-co-location (QCL) reference signal set of the first type of port group and the second type of port group are different. That is, the first quasi-co-location reference signal set of the first type of port group is determined using a first determination method, and the second quasi-co-location reference signal set of the second type of port group is determined using a second determination method.

[0890] The step of determining the first quasi-co-address reference signal set of the first type of port group using the first determining method includes: determining the first quasi-co-address reference signal set of the first type of port group based on the first type of parameters;

[0891] The step of determining the second quasi-co-address reference signal set of the second type of port group using the second determination method includes: determining the second quasi-co-address reference signal set of the second type of port group based on the second type of parameters;

[0892] Among them, the first type of parameter and the second type of parameter satisfy at least one of the following:

[0893] The difference between the first type of parameters and the second type of parameters is non-empty. For example, the first type of parameters includes a set of quasi-co-located reference signals for demodulation reference signals of predetermined control line channel resources, wherein the predetermined control channel resource packet is a set of control channel resources that satisfy the first predetermined characteristic and are located in the time unit closest to the channel or signal corresponding to the first type of port group, satisfying the second predetermined characteristic. Alternatively, the predetermined control channel resources are the control channel resources where the DCI scheduling the first type of port is located. The second type of parameters does not include a set of quasi-co-located reference signals for demodulation reference signals of predetermined control channel resources, and can be parameters such as higher-layer signaling notification parameters.

[0894] The first type of parameter is a set of quasi-co-located reference signals for the demodulation reference signals of a control channel resource. The second type of parameter does not include the set of quasi-co-located reference signals for the demodulation reference signals of a control channel resource. That is, the second type is not obtained based on the set of quasi-co-located reference signals for the demodulation reference signals of the control channel resource, while the first type is obtained based on the set of quasi-co-located reference signals for the demodulation reference signals of the control channel resource.

[0895] The first QCL reference signal set of the first type of port group can also be determined using the method described in the foregoing embodiments.

[0896] The first quasi-co-address reference signal set used to determine the first type of port group includes:

[0897] The first quasi-co-location reference signal set is determined based on the third quasi-co-location reference signal set;

[0898] The third quasi-co-location reference signal set is obtained based on the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource that meets predetermined characteristics in the first time unit; or, it is obtained based on the quasi-co-location reference signal set of the demodulation reference of the control channel resource where the control information of the channel or signal corresponding to the scheduling first type of port group is located.

[0899] The control channel resources that satisfy predetermined characteristics in the first time unit include:

[0900] The first time unit includes control channel resources with the lowest control channel resource identifier that belong to a control channel resource group;

[0901] Alternatively, the control channel resource with the lowest control channel resource identifier among all control channel resources included in the first time unit;

[0902] Alternatively, the control channel resource with the lowest control channel resource identifier in the predetermined CC / predetermined CC group included in the first time unit;

[0903] Alternatively, the control channel resources in the first time unit satisfy a second predetermined characteristic. The second predetermined characteristic can be found in the description of the above embodiments.

[0904] The QCL reference signal set of the demodulation reference signal means that the demodulation reference signal and any one of the reference signals in the QCL reference signal set satisfy the QCL relationship with respect to one or more QCL parameters.

[0905] The first time unit includes any one of the following:

[0906] The time unit that is closest to the data channel corresponding to the first type of port group in the time unit that satisfies the first predetermined characteristic;

[0907] The time unit that is closest to the measurement channel resource corresponding to the first type of port group in the time unit that satisfies the first predetermined characteristic;

[0908] The time unit that is closest to the first type of port group among the time units that satisfy the first predetermined characteristic.

[0909] The time unit that satisfies the first predetermined feature includes any of the following:

[0910] Time units including control channel resources in the pre-defined component carriers;

[0911] Including the time units of control channel resources in the pre-defined member carrier group;

[0912] It includes time units of at least L control channel resources, where L is a positive integer greater than or equal to 1;

[0913] This includes the time units of control channel resources in the predetermined control channel resource group;

[0914] The time unit includes control channel resources that satisfy a first predetermined feature, wherein the first predetermined feature can be referred to the description of the above embodiment;

[0915] The set of second quasi-co-address reference signals used to determine the second type of port group includes at least one of the following:

[0916] The second quasi-co-located reference signal set is determined based on the fourth quasi-co-located reference signal set; wherein, the fourth quasi-co-located reference signal set corresponds to the control channel resources in the second time unit that satisfy predetermined characteristics; wherein, the control channel resources in the second time unit that satisfy predetermined characteristics are the control channel resources with the lowest control channel resource identifier that belong to a control channel resource group included in the second time unit;

[0917] The second quasi-co-address reference signal set is determined based on the fifth quasi-co-address reference signal set notified by the first control signaling;

[0918] The second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set; wherein, the sixth quasi-co-located reference signal set has a corresponding relationship with the seventh quasi-co-located reference signal set, the seventh quasi-co-located reference signal set includes the quasi-co-located reference signal set of demodulation reference signals of control channel resources that meet predetermined characteristics in the second time unit, and there is a quasi-co-located relationship between the reference signals in the seventh quasi-co-located reference signal set and the demodulation reference signals of control channel resources that meet predetermined characteristics in the second time unit regarding the fourth type of quasi-co-located parameters;

[0919] The second quasi-co-located reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located.

[0920] The seventh quasi-co-located reference signal set satisfies at least one of the following:

[0921] The seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set are different quasi-co-located reference signal sets;

[0922] The seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0923] The seventh quasi-co-location reference signal set and the fifth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0924] The seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0925] The seventh quasi-co-location reference signal set and the sixth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[0926] The seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set correspond to different control signaling bit fields;

[0927] The difference set between the seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set is a non-empty set;

[0928] The difference between the seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set is a non-empty set;

[0929] The difference set between the seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set is a non-empty set;

[0930] The seventh quasi-co-location reference signal set is the set of quasi-co-location reference signals for demodulation reference signals of control channel resources where control information for scheduling the channel or signal corresponding to the first type of port group is located;

[0931] The control channel resources that meet the predetermined characteristics in the second time unit are the control channel resources where the control information for scheduling the channel or signal corresponding to the first type of port group is located.

[0932] Different time unit sets correspond to different fifth quasi-co-located reference signal sets.

[0933] The time units included in the time unit set can be continuous or discontinuous; a time unit can be a slot or a time domain symbol included in a slot.

[0934] The first control signaling includes any one of the following:

[0935] High-level control signaling;

[0936] Physical layer control signaling where the time interval between the data channel corresponding to the second type of port group is greater than or equal to a predetermined threshold.

[0937] Physical layer control signaling whose time interval between the measurement reference signal resource corresponding to the second type of port group is greater than or equal to a predetermined threshold.

[0938] Physical layer control signaling with a time interval greater than or equal to a predetermined threshold between the second type of port group and the physical layer control signaling.

[0939] The second time unit includes any one of the following:

[0940] The time unit that is closest to the data channel corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0941] The time unit that is closest to the measurement channel resource corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0942] The time unit that is closest to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[0943] The time unit in which the control signaling for scheduling the channel or signal is located.

[0944] The time unit that satisfies the second predetermined feature includes any one of the following:

[0945] Time units including control channel resources in the pre-defined component carriers;

[0946] Including the time units of control channel resources in the pre-defined member carrier group;

[0947] It includes time units of at least L control channel resources, where L is a positive integer greater than or equal to 1;

[0948] This includes the time units of control channel resources in the predetermined control channel resource group;

[0949] A time unit including control channel resources with predetermined characteristics; wherein the control channel resources with predetermined characteristics are associated with the fourth quasi-co-located reference signal set, or the seventh quasi-co-located reference signal set of the demodulation reference signals of the control channel resources with predetermined characteristics is associated with the sixth quasi-co-located reference signal set.

[0950] In another embodiment of the present invention, before determining the first quasi-co-location reference signal set, the method further includes: determining the port group as the first type of port group according to the second control signaling and / or predetermined rules;

[0951] Before determining the second quasi-co-location reference signal set, the method further includes: determining the port group as the second type of port group according to the second control signaling and / or predetermined rules.

[0952] For example, in the second control signaling, the method for determining the QCL reference signal set of a port group is either the first determination method or the second determination method. If it is the first determination method, the port group is determined to be a first type of port group; if it is the second determination method, the port group is determined to be a second type of port group.

[0953] Specifically, at least P sets of quasi-co-address reference signals for the P-type port group are determined based on at least one of the following parameters:

[0954] The maximum number of port groups included in a channel or signal;

[0955] The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0956] A method for determining the quasi-co-located reference signal set for each port group of a channel or signal;

[0957] A set of quasi-co-located reference signals for each port group of a channel or signal;

[0958] A method for determining the quasi-co-location reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0959] A set of quasi-co-located reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0960] The channel includes a data channel or a control channel, and the port group of the channel is a demodulation reference signal port group;

[0961] When the signal is a measurement reference signal, the port group of the signal is the measurement reference signal group.

[0962] In this embodiment of the invention, at least one quasi-co-address reference signal set of at least one port group in the Class P port group is determined based on at least one of the following parameter information:

[0963] The maximum number of port groups included in a channel or signal;

[0964] The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0965] A method for determining the quasi-co-located reference signal set for each port group of a channel or signal;

[0966] A set of quasi-co-located reference signals for each port group of a channel or signal;

[0967] A method for determining the quasi-co-location reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[0968] A set of quasi-co-located reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0969] The parameter information is determined based on signaling information or predetermined rules, wherein the signaling information includes at least one of the following:

[0970] Non-physical layer signaling information;

[0971] High-level signaling information;

[0972] Configure the signaling information of the channel corresponding to the port group;

[0973] Configure the signaling information of the measurement reference signal resources corresponding to the port group;

[0974] Configuration information of the control channel resources where the control information of the channel corresponding to the port group is located;

[0975] The configuration information of control channel resources that meet predetermined characteristics is included in the time unit closest to the channel corresponding to the port group;

[0976] Configuration information of the control channel resources where the control information for the measurement reference signal resources corresponding to the port group is located;

[0977] Configuration information of control channel resources that meet predetermined characteristics, included in the time unit closest to the measurement reference signal resource corresponding to the port group.

[0978] Among them, the port group satisfies at least one of the following characteristics:

[0979] The maximum number of port groups included in a channel or signal is related to the number of control channel resources;

[0980] The maximum number of port groups included in a channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0981] The maximum number of port groups included in a channel or signal is related to the number of control channel resource groups;

[0982] The maximum number of port groups included in a channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[0983] If two pieces of information are related, it means that one piece of information can be used to obtain the other piece of information, or to obtain the range of values ​​for the other piece of information.

[0984] Assume that the number of control channel resources is B, where B is an integer greater than or equal to 1, and the B control channel resources satisfy at least one of the following characteristics:

[0985] The B control channel resources belong to one BWP, the B control channel resources are dedicated control channel resources, and the demodulation reference signals of the B control channel resources have different QCL reference signal sets.

[0986] in,

[0987] A Class P port group corresponds to one or more data channels with P demodulation reference signal port groups.

[0988] Alternatively, the P-type port group corresponds to P measurement reference signal port groups of one or more measurement reference signal resources;

[0989] Alternatively, some port groups in the P-type port group may correspond to one or more demodulation reference signal port groups for data channels, and some port groups may correspond to one or more measurement reference signal port groups.

[0990] The port group satisfies at least one of the following:

[0991] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[0992] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[0993] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[0994] The signal is a periodic signal;

[0995] The signal is a half-cycle signal;

[0996] The channel is a half-cycle scheduling channel;

[0997] The channels corresponding to the Class P port groups are received in the same time unit;

[0998] The measurement reference signal resources corresponding to the P-type port group are received in the same time unit;

[0999] The channels corresponding to the Class P port groups are received at the same time.

[1000] The measurement reference signal resources corresponding to the P-type port group are received at the same time;

[1001] The channel or signal is a channel or signal corresponding to at least one port group in the port group.

[1002] In this document, different ports in different port groups do not satisfy QCL relationships, while ports in the same port group satisfy QCL relationships with respect to at least one QCL parameter.

[1003] The method for obtaining the QCL reference signal set of the first type of port group is different from the method for obtaining the QCL reference signal set of the second type of port group.

[1004] For example, the QCL reference signal set of the first type of port group is the QCL reference signal set of the demodulation reference signal of a control channel resource, while the QCL reference signal set of the second type of port group is not obtained based on the QCL reference signal set of the demodulation reference signal of a control channel resource. Figure 4 DMRS group2 or Figure 5 The DMRS group included in PDSCH2 is not the same as the QCL reference signal set of any control channel resource group's demodulation reference signal because TRP2 does not transmit PDCCH.

[1005] The method for obtaining the QCL reference signal set of the second type of port group may include at least one of the following methods:

[1006] Method 1: Determination of the QCL reference signal set for the second type of port group in higher-layer signaling configuration.

[1007] For example, in the higher-layer signaling of PDSCH, when the time interval between DCI and PDSCH is less than K, PDSCH includes the QCL reference signal set of DMRS group2, and the QCL reference signal set of DMRS group1 is the QCL reference signal set containing the demodulated reference signal of CORESET with the lowest CORESETID in the slot closest to PDSCH, such as... Figure 4 As shown.

[1008] Alternatively, the method for determining the QCL reference signal set for each DMRS group in all DMRS groups included in the PDSCH can be configured in the higher-layer signaling of the PDSCH when the time interval between the DCI and the PDSCH is less than K.

[1009] When the time interval between the DCI that schedules the PDSCH and the PDSCH is greater than K, the QCL reference signal set of the port group of the PDSCH is determined according to the TCI field indicated in the DCI, and not according to the QCL reference signal set of the port group configured in the higher-layer signaling.

[1010] To implement the above method, at least one of the following parameters can be obtained through signaling information or predetermined rules:

[1011] Parameter 1: The maximum number of port groups included in the channel or signal.

[1012] For example, the maximum number of demodulation reference signal port groups included in the PDSCH can be further configured in the higher-layer signaling information of the PDSCH, that is, the number of demodulation reference signal port groups included in the PDSCH indicated in the DCI does not exceed the maximum value configured in the higher-layer signaling.

[1013] When the maximum number of port groups is greater than 1, the QCL reference signal of DMRS group1 by default is obtained from the set of QCL reference signals of the demodulation reference signals of the control channel resource with the lowest control channel resource identifier in the control channel resource group that the terminal needs to detect in the predetermined time unit. The predetermined time unit is the time unit closest to the PDSCH among the time units containing the control channel resource to be detected. Further, when configuring other DMRS groups (excluding DMRS group1) where the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the acquisition method of the QCL reference signal set for other DMRS groups, or the QCL reference signal set of other DMRS groups, is specified.

[1014] Alternatively, the higher-layer signaling configures the QCL reference signal set for each of the x3 port groups when the time interval between DCI and PDSCH is less than K, where x3 is the maximum number of port groups included in PDSCH.

[1015] For example, configure the following information in the higher-level signaling configuration of PDSCH.

[1016] For example, the following configuration can be made in the higher-layer signaling of PDSCH: in this article, different DMRS ports in one DMRS group satisfy the QCL relationship, while DMRS ports in different DMRS groups do not satisfy the QCL relationship.

[1017] PDSCH-Config::=SEQUENCE{

[1018] ......,

[1019] The maximum number of DMRS groups included in PDSCH (say, 2) is optional.

[1020] When the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the acquisition method of the QCL reference signal set of DMRS group1 is optional.

[1021] When the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the acquisition method of the QCL reference signal set of DMRS group2 is: optional};

[1022] Alternatively, configure it as follows in the higher-level signaling of PDSCH:

[1023] PDSCH-Config::=SEQUENCE{

[1024] ......,

[1025] The maximum number of DMRS groups included in PDSCH (say, 2), optional;

[1026] When the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the QCL reference signal set of DMRS group2; optional};

[1027] Parameter 2: The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1028] For example, when the time interval between DCI and PDSCH is less than K, the number of port groups included in the PDSCH scheduled in DCI cannot exceed the maximum number of port groups. When the time interval between DCI and PDSCH is greater than or equal to K, the number of port groups included in the PDSCH scheduled in DCI cannot exceed the predetermined maximum number of port groups. For example, it is agreed that the maximum number of DMRS groups that a PDSCH can include is 2. When the time interval between DCI and PDSCH is less than a predetermined threshold, the maximum number of DMRS port groups included in the PDSCH scheduled in DCI is 1. When the time interval between DCI and PDSCH is greater than or equal to the predetermined threshold, the maximum number of DMRS port groups included in the PDSCH scheduled in DCI is 2. In short, the maximum number of DMRS port groups that the PDSCH corresponding to this higher-layer configuration information can include when the time interval between DCI and PDSCH is less than the predetermined threshold and the maximum number of DMRS port groups that the PDSCH corresponding to this higher-layer configuration information can include when the time interval between DCI and PDSCH is greater than or equal to the predetermined threshold can be different. The maximum number of port groups included when the time interval between the control channel that schedules the channel or signal and the channel or signal is less than a predetermined threshold can be a predetermined value, such as 1, or it can be included in the higher-layer signaling configuration information of the PDSCH.

[1029] PDSCH-Config::=SEQUENCE{

[1030] ......,

[1031] The maximum number of DMRS groups included in PDSCH when the interval between the DCI and PDSCH that schedules PDSCH is less than K (e.g., 2), optional;

[1032] When the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the acquisition method of the QCL reference signal set of DMRS group1 is optional.

[1033] When the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the acquisition method of the QCL reference signal set of DMRS group2 is: optional};

[1034] Alternatively, configure it as follows in the higher-level signaling of PDSCH:

[1035] ......,

[1036] PDSCH-Config::=SEQUENCE{

[1037] The maximum number of DMRS groups included in PDSCH when the interval between the DCI and PDSCH that schedules PDSCH is less than K (e.g., 2), optional;

[1038] When the interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the acquisition method of the QCL reference signal set of DMRS group2 is: optional}.

[1039] Alternatively, configure it as follows in the higher-level signaling of PDSCH:

[1040] PDSCH-Config::=SEQUENCE{

[1041] ......,

[1042] The maximum number of DMRS groups included in PDSCH when the interval between the DCI and PDSCH scheduling PDSCH is less than K (assuming it is 1), optional

[1043] When the time interval between the DCI and PDSCH of the PDSCH scheduling is less than K, the QCL reference signal set of DMRS group1; optional};

[1044] Parameter 3: The method for determining the quasi-co-located reference signal set for each port group of the channel or signal.

[1045] For example, is the configuration of each port group determined by a first determination method or a second determination method? In the first determination method, the QCL reference signal set of the port group is the QCL reference signal set of the demodulation reference signals of the control channel resources that meet the specific characteristics mentioned above; in the second determination method, the QCL reference signal set of the port group is not the QCL reference signal set of the demodulation reference signals of the control channel resources that meet the specific characteristics mentioned above, for example, it can be obtained according to the quasi-co-location reference signal set configured in the higher-layer signaling in the PDSCH mentioned above.

[1046] Parameter 4: The set of quasi-co-address reference signals for each port group of the channel or signal, so that the TCI field may not be included in the DCI. The set of quasi-co-address reference signals for each port group is explicitly configured by higher-layer signaling or obtained through predetermined rules.

[1047] Parameter 5: A method for determining the quasi-co-addressable reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold. For example, the determination method may include the first determination method and the second determination method described above.

[1048] Parameter 6: The set of quasi-co-addressable reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1049] The above information is communicated via higher-layer signaling or previous physical layer control signaling. When the interval between the control information of the scheduling channel or signal and the channel or signal is greater than or equal to a predetermined threshold, the quasi-co-addressable reference signal set for each port group is obtained according to the TCI field notified in the DCI, and is no longer obtained according to any one of the parameters one through six mentioned above. Of course, when the DCI does not include the TCI field, even if the interval between the control information and the channel or signal is greater than or equal to the predetermined threshold, it can still be determined according to the parameters one through six mentioned above. The method for determining the QCL reference signal set of DMRS group2 or PDSCH2 mentioned above corresponds to the second determination method.

[1050] The channel or signal is a channel or signal corresponding to at least one port group in the P-type port group.

[1051] The second method for obtaining the QCL reference signal set of the second type of port group is to obtain the QCL reference signal set of the second type of port group through the fourth quasi-co-located reference signal set (also referred to as the fourth QCL reference signal set) associated with a control channel resource. The fourth quasi-co-located reference signal set is not the seventh quasi-reference signal of the demodulation reference signal of the control channel resource.

[1052] For example, CORESET's configuration information includes the following:

[1053] ControlResourceSet::= SEQUENCE{

[1054] controlResourceSetId 1; (i.e., this CORESET is CORESET1) ......

[1056] tci-StatesPDCCH SEQUENCE (SIZE)

[1057] (1..maxNrofTCI-StatesPDCCH))OF TCI-StateId OPTIONAL,

[1058] (The seventh QCL reference signal set used to configure the demodulation reference signal of this Control Resource Set, i.e., CORESET)

[1059] tci-StatesPDSCH SEQUENCE(SIZE(1..maxNrofTCI-StatesPDCCH))OF TCI-StateId OPTIONAL, (used to configure the fourth QCL reference signal set mentioned above)

[1060] }

[1061] One point needs clarification: the above configuration information can be a MAC-CE signaling, which simultaneously activates tci-StatesPDCCH and tci-StatesPDSCH, both of which originate from a TCI state pool configured by the PDCCH Radio Resource Control (RRC); or the above signaling can be RRC signaling, which configures the two TCI state pools tci-StatesPDCCH and tci-StatesPDSCH, and the MAC-CE signaling further activates one TCI state for each of tci-StatesPDCCH and tci-StatesPDSCH.

[1062] Specifically, when the interval between PDSCH and DCI is less than K, and the CORESET with the lowest CORESETID in the slot closest to PDSCH is the CORESET configured above, the QCL reference signal set of DMRS group 1 for this PDSCH is obtained based on the QCL reference signal set of the demodulated reference signal of the aforementioned CORESET, i.e., based on the information configured in tci-StatesPDCCH 1. The QCL reference signal set of DMRS group 2 is obtained based on the tci-StatesPDSCH in the aforementioned CORESET.

[1063] The QCL reference signal set configured in section 1 is obtained.

[1064] like Figure 7 As shown, in slot(n), CORESET1 is in the first 3 time domain symbols, and PDSCH is in the later time domain symbols. The time interval between the DCI and PDSCH of the PDSCH is less than a predetermined threshold K. When the terminal receives PDSCH, it uses the receive beam 1 obtained according to the information configured by tci-StatesPDCCH to receive CORESET, uses the receive beam 1 to receive DMRS group 1 of PDSCH, and uses the receive beam 2 obtained according to the information configured by tci-StatesPDSCH to receive DMRS group 2 of PDSCH.

[1065] Optionally, tci-StatesPDSCH can be related to time-domain sets, with different time-domain sets corresponding to different tci-StatesPDSCH configurations.

[1066] For example, in the time unit closest to PDSCH1, the CORESET with the lowest CORESETID in slot n is CORESET1 (that is, the CORESET1 configured in the above configuration information). The TCI state1 corresponding to CORESET1 in slot (n) is beam 2, and beam 2 is used to receive DMRS group2 of PDSCH1. In the time unit closest to PDSCH2, the CORESET with the lowest CORESETID in slot (n+10) is CORESET1. The TCI state2 corresponding to CORESET1 in slot n+10 is beam 3, and beam 3 is used to receive DMRS group2 of PDSCH2.

[1067] exist Figure 7 The two methods used to obtain the QCL reference signal set are different for different DMRS groups of the same PDSCH. Figure 5 In the process, TRP1 sends DCI1 and DCI2, PDSCH1, and TRP2 sends PDSCH2. DCI1 schedules PDSCH1, and DCI2 schedules PDSCH2.

[1068] When the time interval between DCI1 and PDSCH1 is less than K, the QCL reference signal set of PDSCH1 is obtained based on the QCL reference signal set of the demodulated reference signal with the lowest CORESETID in the time unit closest to PDSCH1 (for example, time unit 1). (i.e., the seventh QCL reference signal set, or the QCL reference signal set configured by tci-StatesPDCCH above).

[1069] The QCL reference signal set of the demodulation reference signal of PDSCH2 is obtained from the CORESET (if it is the CORESET configured above) with the lowest CORESETID in the time unit closest to PDSCH2 (if it is time unit 2).

[1070] The time unit 1 and time unit 2 mentioned above can be the same time unit or different time units.

[1071] The tci-StatesPDSCH can correspond to different QCL reference signal sets in different time domain sets. For example, when CORESET falls in the first time domain set, the QCL reference signal set of PDSCH2 is reference signal set 1; when CORESET falls in the second time domain set, the QCL reference signal set of PDSCH2 is reference signal set 2.

[1072] Furthermore, when the DCI in CORESET1 can be scheduled across CCs, the tci-StatesPDSCH in CORESET1 should correspond to multiple CCs, each corresponding to one of the multiple CCs that CORESET1 can schedule. This ensures that when the terminal is buffering, for each CC's PDSCH, when the interval between the DCI and PDSCH is less than K, the quasi-co-address reference signal set of the DMRSgroup2 or DMRS of PDSCH2 in that CC is used. Alternatively, tci-StatesPDSCH can only be configured with quasi-co-address reference signals associated with spatial reception filtering parameters. In this way, even if CORESET1 can schedule PDSCH / CSI-RS in multiple CCs, but only one quasi-co-address reference signal is configured in tci-StatesPDSCH, the spatial reception filtering parameters of multiple CCs can all use a single quasi-co-address reference signal. The quasi-co-address reference signals for other QCL parameters of the PDSCH in each CC can be obtained from the DCI or the higher layers in each CC.

[1073] Furthermore, the PDSCH configuration information needs to be configured to determine whether, when the time interval between DCI and PDSCH is less than K, the QCL reference signal set of the demodulation reference signal of PDSCH is obtained based on the tci-StatesPDCCH configured in the CORESET with the lowest CORESETID in the time unit closest to the PDSCH (corresponding to the first determination method), or based on the tci-StatesPDSCH configured in the CORESET with the lowest CORESETID in the time unit closest to the PDSCH (corresponding to the second determination method).

[1074] The above configuration includes tci-StatesPDCCH and tci-StatesPDSCH. Alternatively, a TCI state of tci-StatesPDCCH can include two QCL reference signal sets. The first QCL reference signal set is the QCL reference signal set of the demodulation reference signal of the CORESET (i.e., the seventh QCL reference signal set). When the interval between a PDSCH and the DCI that schedules the PDSCH (more precisely, the PDCCH that schedules the PDSCH) is less than K, and the CORESET with the lowest CORESETID in the nearest slot of the PDSCH that includes the CORESET is the aforementioned CORESET, the quasi-co-located reference signal set of the demodulation reference signal of the PDSCH is obtained according to the second QCL reference signal set included in the TCI state of the tci-StatesPDCCH, or the quasi-co-located reference signal set of the second demodulation reference signal group of the PDSCH is obtained according to the second QCL reference signal set included in the TCI state.

[1075] In the above embodiments, the method for determining the QCL reference signal set of a port group is applicable when the time interval between the control information (DCI) scheduling the channel or signal corresponding to the port group and the channel or signal is less than a predetermined threshold. Of course, the method for obtaining the QCL reference signal set of a port group described herein is also applicable when the control information scheduling the channel or signal corresponding to the port group does not include the QCL reference signal set of the port group. That is, the dynamic signaling does not include the TCI field, meaning the dynamic control signaling does not notify the method for determining the QCL reference signal set of the demodulation reference signal. For example, it could be DCI1_0, or the CORESET containing DCI1_1 is configured such that the DCIs included in this CORESET do not include the TCI field. Optionally, when the DCIs do not include the TCI field, and the interval between the DCI and PDSCH is greater than a predetermined threshold, the first time unit or the second time unit is the time unit where the DCI is located, or multiple time units closest to the DCI, wherein the N2 control channel resources include the control channel resources where the DCI is located. For example, PDSCH includes two DMRS groups. DMRS group 1 is determined based on the QCL reference signal of the demodulation reference signal of the CORESET where DCI1 is located. The quasi-co-located reference signal set of DMRS group 2 can be determined according to the above method for determining the quasi-co-located reference signal of DMRS group 2. Here, DCI1 is the DCI that schedules the PDSCH. The quasi-co-located reference signal set of DMRS group 2 can also be determined according to one of the following methods:

[1076] Method 1: Obtain the quasi-co-address reference signal set based on the demodulation reference signal of the lowest CORESETID among the CORESETs other than CORESET1 in the nearest time unit where DCI1 is located, where CORESET1 is the CORESET where DCI is located;

[1077] Method 2: Determine the quasi-co-located reference signal set based on the demodulation reference signal of the lowest CORESETID in the CORESET group (excluding the CORESET group where CORESET1 is located) in the nearest time unit where DCI1 is located, where CORESET1 is the CORESET where DCI is located;

[1078] Method 3: Obtain the QCL reference signal set of DMRS group2 according to the tci-StatesPDSCH configured in the CORESET where the control channel of DCI1 is located, or obtain the QCL reference signal set of DMRS group2 according to the second QCL reference signal set configured in the tci-StatesPDCCH of the CORESET where the control channel of DCI1 is located.

[1079] In this article, the CORESET where DCI is located, that is, the CORESET where PDCCH including DCI is located, is the interval between DCI / control signaling and PDCCH for scheduling PDSCH / AP-CSI-RS. More precisely, it should be the interval between PDCCH and PDCCH for scheduling PDSCH / AP-CSI-RS. DCI includes the transmission parameters for scheduling PDSCH / AP-CSI-RS. DCI channel is encoded and transmitted in PDCCH. The control signaling can correspond to the control channel.

[1080] The demodulation reference signal of a CORESET as described in this article refers to the demodulation reference signal of the DCI transmitted in this CORESET, or the demodulation reference signal of the PDCCH transmitted in this CORESET.

[1081] In the above embodiments, a QCL reference signal set for a target reference signal means that the target reference signal and the reference signals in the QCL reference signal set satisfy a QCL relationship with respect to a class of QCL parameters. Two reference signals satisfying a QCL relationship with respect to a class of QCL parameters indicates that the QCL parameters of one reference signal can be obtained from the QCL parameters of the other reference signal. The class of QCL parameters includes at least one of the following parameters: Doppler shift, Doppler spread, average delay, delay spread, and Spatial Rxparameter.

[1082] In this document, the signal includes at least one of the following signals:

[1083] Demodulation reference signal, measurement reference signal, synchronization signal, phase tracking reference signal (PTRS), tracking reference signal (TRS).

[1084] The channel includes at least one of the following channels:

[1085] Physical Downlink Shared Channel (PDSCH), Physical Downlink Control Channel (PDCCH), Physical Uplink Shared Channel (PUSCH), and Physical Uplink Control Channel (PUCCH).

[1086] Another embodiment of the present invention provides a method for determining a QCL reference signal set, comprising:

[1087] Determine the set of second quasi-co-address reference signals corresponding to the second type of port group.

[1088] In this embodiment of the invention, determining the second quasi-co-address reference signal set corresponding to the second type of port group includes at least one of the following:

[1089] The second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set; wherein, the fourth quasi-co-location reference signal set corresponds to the control channel resources in the second time unit that satisfy the second predetermined characteristic;

[1090] The second quasi-co-address reference signal set is determined based on the fifth quasi-co-address reference signal set notified by the first control signaling;

[1091] The second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set; wherein, the sixth quasi-co-located reference signal set has a corresponding relationship with the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes the quasi-co-located reference signal set of the demodulation reference signals of the control channel resources that satisfy the second predetermined characteristics in the second time unit;

[1092] The second quasi-co-located reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located.

[1093] In this embodiment of the invention, the second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set, wherein the fourth quasi-co-location reference signal set corresponds to control channel resources in the second time unit that satisfy a second predetermined characteristic, including at least one of the following:

[1094] The first quasi-co-address reference signal set of the first type of port group is obtained based on the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel in the control channel resources that satisfy the second predetermined characteristics in the second time unit;

[1095] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the frequency domain bandwidth of the second type of port group in the configuration information of the control channel resources that satisfy the second predetermined characteristics;

[1096] The configuration information of control channel resources satisfying the second predetermined characteristic includes at least one of the fourth quasi-co-located reference signal sets, wherein different fourth quasi-co-located reference signal sets correspond to different frequency domain bandwidths. The configuration information configures a fourth quasi-co-located reference signal set for each frequency domain bandwidth (e.g., CC).

[1097] The fourth quasi-co-located reference signal set is configured in the configuration information of the control channel resources that satisfy the second predetermined feature. The fourth quasi-co-located reference signal set is shared by at least one frequency domain bandwidth that has a corresponding relationship with the control channel resources that satisfy the second predetermined feature, and / or the fourth quasi-co-located reference signal set is associated with spatial reception filtering parameters.

[1098] In this embodiment of the invention, the sixth quasi-co-located reference signal set satisfies the condition of determining the second quasi-co-located reference signal set based on the sixth quasi-co-located reference signal set, wherein the sixth quasi-co-located reference signal set corresponds to the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes a set of quasi-co-located reference signals of demodulation reference signals of control channel resources satisfying the second predetermined characteristic in the second time unit, including at least one of the following:

[1099] The first quasi-co-address reference signal set of the first type of port group is obtained based on the seventh quasi-co-address reference signal set;

[1100] The sixth quasi-co-location reference signal set is the quasi-co-location reference signal configured for the frequency domain bandwidth of the second type of port group in the seventh quasi-co-location reference signal set;

[1101] The seventh quasi-co-located reference signal set is configured with at least one of the sixth quasi-co-located reference signal sets, each corresponding to at least one frequency domain bandwidth, wherein different sixth quasi-co-located reference signal sets correspond to different frequency domain bandwidths.

[1102] In this embodiment of the invention, the second quasi-co-location reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located, including at least one of the following:

[1103] The first quasi-co-address reference signal set of the first type of port group is obtained based on the eighth quasi-co-address reference signal set of the demodulation reference signal of the control channel;

[1104] The second quasi-co-address reference signal set of the second type of port group is the quasi-co-address reference signal set configured for the frequency domain bandwidth where the second type of port group is located in the control channel resources;

[1105] The configuration information of the control channel resources includes at least one second quasi-co-located reference signal set, wherein different second quasi-co-located reference signal sets correspond to different frequency domain bandwidths;

[1106] The eighth quasi-co-located reference signal set and the second quasi-co-located reference signal set are two different quasi-co-located reference signal sets.

[1107] In this embodiment of the invention, the control channel resources satisfying the second predetermined feature in the second time unit include at least one of the following:

[1108] The control channel resource with the lowest identifier number in the second time unit;

[1109] The control channel resources in the lowest frequency domain bandwidth of the lowest frequency domain bandwidth identifier are included in the set of control channel resources with the lowest identifier number in the second time unit.

[1110] The control channel resources with the lowest identifier are included in the set of frequency domain bandwidths that satisfy the third predetermined characteristic in the second time unit.

[1111] The control channel resource with the lowest identifier in the set of control channel resources that satisfy the fourth predetermined characteristic in the second time unit;

[1112] The set of control channel resources that satisfy the fourth predetermined feature in the second time unit includes the control channel resources with the lowest identifier number that belong to the frequency domain bandwidth of the lowest frequency domain bandwidth identifier number.

[1113] The set of frequency domain bandwidths that satisfy the third predetermined characteristic in the second time unit includes the control channel resources that satisfy the fourth predetermined characteristic and have the lowest frequency domain bandwidth identifier.

[1114] Among them, the frequency domain bandwidth that satisfies the third predetermined feature includes at least one control line channel resource that satisfies the first predetermined feature in the second time unit.

[1115] In embodiments of the present invention, the first type of port group satisfies at least one of the following characteristics:

[1116] The first type of port group and the second type of port group are different port groups included in a channel or signal;

[1117] The first type of port group and the second type of port group belong to different channels or signals;

[1118] The intersection of the time-domain resources occupied by the channel or signal corresponding to the first type of port group and the time-domain resources occupied by the channel or signal corresponding to the second type of port group is not empty;

[1119] The first type of port group and the second type of port group belong to the same frequency domain bandwidth;

[1120] The relationship between the first time interval and the predetermined threshold is consistent with the relationship between the second time interval and the predetermined threshold; wherein, the first time interval is the time interval between the channel or signal corresponding to the first type of port group and the control channel that schedules the first type of port group, and the second time interval is the time interval between the channel or signal corresponding to the second type of port group and the control channel that schedules the second type of port group.

[1121] The relationship between the first time interval and the predetermined threshold is consistent with the relationship between the second time interval and the predetermined threshold, meaning that the first time interval and the second time interval are either both greater than or equal to the predetermined threshold, or both are less than the predetermined threshold.

[1122] In embodiments of the present invention, the seventh quasi-co-located reference signal set satisfies at least one of the following:

[1123] The seventh quasi-co-location reference signal set and the fourth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[1124] The seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set correspond to different control signaling bit fields;

[1125] The seventh quasi-co-location reference signal set and the fifth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[1126] The seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set correspond to different control signaling bit fields;

[1127] The seventh quasi-co-location reference signal set and the sixth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[1128] The seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set correspond to different control signaling bit fields;

[1129] The difference set between the seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set is a non-empty set;

[1130] The difference set between the seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set is a non-empty set;

[1131] The difference set between the seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set is a non-empty set;

[1132] The seventh quasi-co-location reference signal set is the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource where the control information of the channel or signal corresponding to the first type of port group is located;

[1133] The control channel resources that meet the predetermined characteristics in the second time unit are the control channel resources where the control information for scheduling the channel or signal corresponding to the first type of port group is located.

[1134] In this embodiment of the invention, the correspondence between the fourth quasi-co-location reference signal set and the control channel resources in the second time unit that satisfy predetermined characteristics includes at least one of the following:

[1135] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the second type of port group in the configuration information of the control channel resources that meet the predetermined characteristics;

[1136] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the frequency domain bandwidth of the second type of port group in the configuration information of the control channel resources that meet the predetermined characteristics.

[1137] In this embodiment of the invention, determining the second quasi-co-location reference signal set based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located includes:

[1138] The set of quasi-co-address reference signals configured for the second type of port group in the configuration information of the control channel resource where the control channel is located is the second quasi-co-address reference signal set.

[1139] In this embodiment of the invention, the second time unit includes any one of the following:

[1140] The time unit that is closest to the channel corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[1141] The time unit that is closest to the measurement channel resource corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[1142] The time unit that is closest to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[1143] The time unit in which the control signaling for scheduling the channel or signal is located.

[1144] In embodiments of the present invention, the time unit that satisfies the second predetermined feature includes any one of the following:

[1145] Time units including control channel resources in the pre-defined component carriers;

[1146] Including the time units of control channel resources in the pre-defined member carrier group;

[1147] It includes time units of at least L control channel resources, where L is a positive integer greater than or equal to 1;

[1148] This includes the time units of control channel resources in the predetermined control channel resource group;

[1149] The time unit includes control channel resources that satisfy a fourth predetermined characteristic; wherein the control channel resources satisfying the fourth predetermined characteristic satisfy at least one of the following: the control channel resources are associated with the fourth quasi-co-address reference signal set; the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel resources is associated with the sixth quasi-co-address reference signal set; the center carrier of the member carrier in which the control resource is located is greater than a predetermined threshold; the demodulation reference signal of the control channel resources and a quasi-co-address reference signal satisfy a quasi-co-address relationship with respect to spatial receiving filter parameters; the demodulation reference signal of the control channel resources is configured with a quasi-co-address reference signal with respect to spatial receiving filter parameters; the control channel resources and the second type of port group fall in the same frequency domain bandwidth; the control channel resources belong to a predetermined frequency domain bandwidth; the control channel resources are associated with at least one candidate control channel monitored by a first communication node in the time unit, wherein the first communication node is the receiver of the second type of port group.

[1150] One frequency domain bandwidth can be the bandwidth corresponding to a CC or the bandwidth corresponding to a BWP.

[1151] In this embodiment of the invention, first parameter information is determined based on the second control signaling and / or agreed-upon rules, and at least one of the following is determined based on the first parameter information:

[1152] The second quasi-co-address reference signal set;

[1153] Does a time unit include the second type of port group?

[1154] The number of port groups included in a time unit;

[1155] The number of port groups that satisfy predetermined characteristics included in a time unit.

[1156] For example, if a slot needs to buffer G PDSCHs, the number of port groups included in the slot is determined based on the number of demodulation reference signal port groups included in each of these G PDSCHs. The number of port groups included in the slot that meet predetermined characteristics is also determined, such as the interval between these port groups and their scheduling DCIs being less than K. Alternatively, the interval between each of the G PDSCHs and its scheduling DCI can all be less than K. Of course, the G PDSCHs can include PDSCHs with scheduling intervals less than K, or they can include those with scheduling intervals greater than K.

[1157] In this embodiment of the invention, the first parameter information includes at least one of the following:

[1158] The maximum number of port groups included in each of the G channels or signals;

[1159] The maximum number of port groups included in each of the G channels or signals when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1160] Method for determining the quasi-co-located reference signal set for each port group of each of the G channels or signals;

[1161] The set of quasi-co-located reference signals for each port group of each of the G channels or signals;

[1162] A method for determining the quasi-co-location reference signal set for each of the G channels or signals when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[1163] The set of quasi-co-location reference signals for each of the G channels or signals when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[1164] The maximum number of port groups that satisfy predetermined characteristics included in a time unit;

[1165] The maximum number of port groups included in a time unit;

[1166] Wherein, the intersection between the time-domain resources occupied by each of the G channels or signals and the one time unit is non-empty, and G is a positive integer greater than or equal to 1.

[1167] In embodiments of the present invention, the number of port groups included in the channel or signal satisfies at least one of the following characteristics:

[1168] The maximum number of port groups included in the channel or signal is related to the number of control channel resources;

[1169] The maximum number of port groups included in the channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1170] The maximum number of port groups included in the channel or signal is related to the number of control channel resource groups;

[1171] The maximum number of port groups included in the channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1172] In embodiments of the present invention, the second control signaling includes at least one of the following:

[1173] Non-physical layer signaling information;

[1174] High-level signaling information;

[1175] Configure the signaling information of the channel corresponding to the second type of port group;

[1176] Configure the signaling information of the measurement reference signal resources corresponding to the second type of port group;

[1177] Configuration information of the control channel resources where the control information of the channel corresponding to the second type of port group is located;

[1178] The configuration information of control channel resources that meet predetermined characteristics is included in the time unit closest to the channel corresponding to the second type of port group;

[1179] Configuration information of the control channel resources where the control information for scheduling the measurement reference signal resources corresponding to the second type of port group is located;

[1180] Configuration information of control channel resources that meet predetermined characteristics, included in the time unit closest to the measurement reference signal resource corresponding to the second type of port group.

[1181] In embodiments of the present invention, a port group satisfying predetermined characteristics includes at least one of the following:

[1182] A group of ports belonging to a predetermined frequency domain bandwidth within a time unit;

[1183] The interval between the port group and the control signaling that schedules the port group is less than a predetermined threshold;

[1184] The interval between the channel or signal corresponding to the port group and the control signaling that schedules the port group is less than a predetermined threshold.

[1185] The port group whose frequency domain bandwidth is greater than a predetermined threshold;

[1186] There exists a port group that is associated with a quasi-co-located reference signal that contains spatial reception filtering parameters.

[1187] In embodiments of the present invention, the number of port groups included in a time unit or the number of port groups satisfying predetermined characteristics included in a time unit satisfies at least one of the following characteristics:

[1188] The maximum number of port groups is related to the number of control channel resources;

[1189] The maximum number of port groups is related to the number of control channel resources;

[1190] The maximum number of port groups is related to the number of control channel resources included in the time unit;

[1191] The maximum number of port groups is related to the number of control channel resource groups included in the time unit.

[1192] In embodiments of the present invention, the second type of port group satisfies at least one of the following:

[1193] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[1194] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[1195] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the second type of port group;

[1196] The signal is a periodic signal;

[1197] The signal is a half-cycle signal;

[1198] The channel is a half-cycle scheduling channel;

[1199] The channel or signal is a channel or signal corresponding to at least one port group in the second type of port group.

[1200] The method for determining the second QCL reference signal set of the second type of port group in this embodiment is similar to the method for determining the QCL reference signal set of the P type port group in the previous embodiment, and will not be repeated here.

[1201] See Figure 8 Another embodiment of the present invention proposes a method for determining a QCL reference signal set, comprising:

[1202] Step 800: Determine the set of quasi-co-located reference signals;

[1203] Step 801: Transmit channels or signals on the corresponding resources according to the quasi-co-location reference signal set.

[1204] In this embodiment of the invention, one resource corresponds to A sets of quasi-co-location reference signals;

[1205] Wherein, the reference signal in each of the A quasi-co-address reference signal sets and the resource have a quasi-co-address relationship with respect to a class of quasi-co-address parameters, and A is an integer greater than or equal to 1.

[1206] The resource includes any of the following:

[1207] One demodulation reference signal port resource, one measurement reference signal port resource, one control channel resource, and one data channel resource.

[1208] In this embodiment of the invention, a channel or signal is transmitted on a corresponding resource according to the quasi-co-location reference signal set; or, a channel or signal is received on a corresponding resource according to the quasi-co-location reference signal set.

[1209] In this embodiment of the invention, the set of A quasi-co-located reference signals corresponding to one resource includes:

[1210] The A sets of quasi-co-located reference signals include a first set of quasi-co-located reference signals and a second set of quasi-co-located reference signals;

[1211] Among them, the difference between the first quasi-co-address parameter set associated with the first quasi-co-address reference signal set and the second quasi-co-address parameter set associated with the second quasi-co-address reference signal set is an empty set.

[1212] The first quasi-co-address parameter set and the second quasi-co-address parameter set include at least one of the following parameters: Doppler shift, Doppler spread, multipath delay, multipath spread, and spatial reception parameters.

[1213] In this embodiment of the invention, the A1 frequency domain resource sets of a resource correspond to A1 quasi-co-located reference signal sets;

[1214] The A2 time-domain resource sets of a resource correspond to A2 quasi-co-located reference signal sets;

[1215] Where A1 and A2 are positive integers less than or equal to the value of A.

[1216] like Figure 9 The method shown assumes an ideal backhaul between TRP1 and TRP2. To increase the robustness of the PDCCH, both TRP1 and TRP2 can transmit the same DCI, resulting in the following scheme:

[1217] Option 1: A PDCCH's DMRS is associated with multiple QCL reference signal sets. The difference between the QCL parameter sets associated with these multiple QCL reference signal sets is empty, meaning the QCL parameter sets associated with these multiple QCL reference signal sets are the same. In this case, two beams are used to transmit the same PDCCH on the same time-frequency resources.

[1218]

[1219] Table 1

[1220] Table 1 shows that one DMRS group corresponds to two sets of QCL reference signals.

[1221] Option 2: Different time domains of a CORESET correspond to different sets of QCL reference signals. For example, the same CORESET may correspond to different sets of QCL reference signals in different slots, or the same CORESET may correspond to different sets of QCL reference signals in different time domain symbol sets in the same slot. In this case, the same PDCCH may be transmitted using different beams on different time domain resources.

[1222] Option 3: Different frequency domains of a CORESET correspond to different sets of QCL reference signals. For example, the first set of Physical Resource Blocks (PRBs) of the same CORESET corresponds to the first set of QCL reference signals, and the second set of PRBs of the same CORESET corresponds to the second set of QCL reference signals. In this case, the same PDCCH uses different beams to transmit on different frequency domain resources.

[1223] Option 4: Configure two CORESETs, each corresponding to a QCL reference signal set, and then configure these two CORESETs to have different transmissions for the same PDCCH.

[1224] Optionally, both CORESETs can agree to always use the same aggregation degree for the same PDCCH.

[1225] Different slots correspond to different sets of QCL reference signals, or the same CORESET corresponds to different sets of QCL reference signals in different time-domain symbol sets in the same slot.

[1226] In this paper, a port group, also known as a quasi-co-located port group, has reference signals that satisfy the QCL relationship, while reference signals in different port groups do not satisfy the QCL relationship.

[1227] In this embodiment of the invention, when the time interval between the channel or signal and the control signaling of the scheduling channel or signal is less than a predetermined threshold, or the control signaling of the scheduling channel or signal does not include notification information of the QCL reference signal set of the port group, or the channel is SPS-PDSCH, or the signal is a periodic signal or a half-periodic signal, the above method solves the signal reception problem and improves the success rate of signal reception.

[1228] See Figure 10 Another embodiment of the present invention provides an apparatus for determining a QCL reference signal set, comprising:

[1229] The selection module is used to select N2 control channel resources from the control channel resources included in N1 time units; where N1 and N2 are integers greater than or equal to 1.

[1230] The first determining module is used to determine at least M quasi-co-located reference signal sets for M port groups based on the N2 control channel resources, where M is an integer greater than or equal to 1.

[1231] In this embodiment of the invention, the M port groups satisfy at least one of the following characteristics:

[1232] The M port groups fall at the same time;

[1233] The M port groups fall within the same time unit;

[1234] The M1 channels or signals corresponding to the M port groups fall at the same time;

[1235] The M1 channels or signals corresponding to the M port groups fall in the same time unit;

[1236] The M port groups are the M demodulation reference signal port groups corresponding to the M1 data channels;

[1237] The M port groups are M measurement reference signal groups corresponding to at least one measurement reference resource;

[1238] Where M1 is a positive integer less than or equal to M.

[1239] In this embodiment of the invention, the N1 time units include at least one of the following:

[1240] At least one of the M port groups corresponds to the time unit of the channel or signal in which the port group is located.

[1241] The time unit preceding the time unit in which the channel or signal is located;

[1242] The time unit in which the control signaling for scheduling the channel or signal is located;

[1243] The time units include the N1 time units from the first to the N1th closest to the channel or signal in at least L1 control channel resources, where L1 is a positive integer less than or equal to N2;

[1244] Includes the time unit closest to the channel or signal from a set of at least N2 control channel resources;

[1245] The time unit includes the set of time units closest to the channel or signal in the set of time units in which the demodulation reference signals of any two of the N2 control channel resources do not satisfy the quasi-co-location relationship with respect to the spatial reception parameters;

[1246] The time interval between the channel or signal is less than or equal to the time interval between the control signaling that schedules the channel or signal and the channel or signal;

[1247] The time unit between the control signaling that schedules the channel or signal and the time unit between the channel or signal;

[1248] The time unit in which the distance between the channel or signal is less than a predetermined threshold.

[1249] In this embodiment of the invention, the N1 time units include at least one of the following:

[1250] The time unit includes the time unit set closest to the channel or signal from the time unit set of at least N2 control channel resources;

[1251] The time unit includes the time unit set closest to the channel or signal from the set of at least N2 control channel resources that satisfy the first predetermined characteristic;

[1252] The time units include at least L1 control channel resources that satisfy a first predetermined characteristic, and the N1 time units that are closest to the channel or signal from the 1st to the N1th time units, where L1 is a positive integer less than or equal to N2;

[1253] The control channel resources that satisfy the first predetermined feature include at least one of the following:

[1254] Control channel resources whose center carrier of a member carrier is greater than a predetermined threshold;

[1255] The demodulation reference signal and a quasi-co-located reference signal satisfy a quasi-co-located relationship with respect to the spatial receiving filter parameters of the control channel resources;

[1256] The demodulation reference signal is configured with control channel resources for the quasi-co-address reference signal regarding the spatial reception filtering parameters;

[1257] The control channel resources that fall within the same frequency domain bandwidth as the port group;

[1258] The demodulation reference signals of the N2 control channel resources or the L1 control channel resources do not satisfy the quasi-co-address relationship with respect to the spatial receiving filter parameters;

[1259] Control channel resources that belong to a predetermined frequency domain bandwidth or a predetermined frequency domain bandwidth group;

[1260] Control channel resources belonging to a control channel resource group; control channel resources belonging to a frequency domain bandwidth or a frequency domain bandwidth group;

[1261] The control channel resources of at least one first communication node that listens on the candidate control channel in the time unit are associated with the control channel resources of the port group.

[1262] In this embodiment of the invention, the selection module is specifically used for:

[1263] Based on the channel or signal configuration information, the N2 control channel resources are selected from the control channel resources included in the N1 time units;

[1264] Alternatively, the N2 control channel resources can be selected from the control channel resources included in the N1 time units based on the configuration information of the control channel resources where the scheduling channel or signal control channel is located.

[1265] Alternatively, select N2 control channel resources that satisfy the second predetermined characteristic from the control channel resources included in the N1 time units;

[1266] Wherein, the channel or signal is the channel or signal corresponding to at least one of the M port groups.

[1267] In this embodiment of the invention, the selection module is specifically used to select N2 control channel resources that satisfy the second predetermined characteristic from the control channel resources included in the N1 time units using any of the following methods:

[1268] Select N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers from the control channel resources included in the N1 time units;

[1269] From the control channel resources included in the N1 time units whose demodulation reference signals do not satisfy the quasi-co-location relationship with respect to spatial reception parameters, select N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers;

[1270] Where L is an integer greater than or equal to 1.

[1271] In this embodiment of the invention, the first determining module is specifically used for:

[1272] The quasi-co-location reference signal set of any one of the M port groups is determined based on the configuration information of at least one of the N2 control channel resources, where M is a positive integer less than or equal to N2.

[1273] Alternatively, the quasi-co-location reference signal set of any one of the M port groups is determined based on the quasi-co-location reference signal set of the demodulation reference signal of at least one of the N2 control channel resources.

[1274] In embodiments of the present invention, at least one of the following characteristics is satisfied by the channel or signal corresponding to at least one of the M port groups:

[1275] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[1276] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[1277] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[1278] The signal is a periodic signal;

[1279] The signal is a half-cycle signal;

[1280] The channel is a semi-persistent scheduling channel.

[1281] In this embodiment of the invention, the N1 time units include M2 ​​time unit groups, and the M port groups correspond to the M2 time unit groups, where M2 is a positive integer greater than or equal to 1;

[1282] And / or, the M port groups correspond to M3 control channel resource groups, where M3 is a positive integer greater than or equal to 1.

[1283] In this embodiment of the invention, the intersection of time units included in different time unit groups is not empty.

[1284] In this embodiment of the invention, the quasi-co-location reference signal set of the port group corresponding to the time unit group is determined based on N4 control channel resources selected from the time unit group;

[1285] Wherein, N4 is a positive integer less than or equal to N2, and the N4 values ​​corresponding to different time unit groups may be the same or different.

[1286] In this embodiment of the invention, the time unit group includes N3 time units that are closest to the channel or signal from the 1st to the N3rd time units that satisfy the first characteristic;

[1287] Where N3 is an integer greater than or equal to 1;

[1288] Wherein, the time unit satisfying the first feature includes at least L2 control channel resources in the control channel resource group, where L2 is an integer greater than or equal to 1;

[1289] The channel or signal includes a port group corresponding to the time unit group;

[1290] The control channel resource group includes at least one of the following:

[1291] The control channel resource group corresponding to the port group corresponding to the time unit group;

[1292] The control channel resource group corresponding to the port group included in the channel or signal;

[1293] A control channel resource group corresponding to at least one port group.

[1294] In this embodiment of the invention, the selection module is specifically used for:

[1295] N4 control channel resources are selected from the control channel resources belonging to the control channel resource group included in the N3 time units, wherein the control channel resource group corresponds to at least one port group in the port group;

[1296] The first determining module is specifically used for:

[1297] Based on the N4 control channel resources, determine the quasi-co-address reference signal set for the port group corresponding to the control channel resource group;

[1298] Where N3 is a positive integer less than or equal to N1, N4 is a positive integer less than or equal to N2, L2 is a positive integer less than or equal to N4, and the N4 values ​​corresponding to different port groups may be the same or different, and the N3 values ​​corresponding to different port groups may be the same or different.

[1299] In this embodiment of the invention, the selection module is specifically used for:

[1300] Select N2 control channel resources with the lowest control channel resource identifier from Lth to (L+N2-1)th from the control channel resource resources belonging to the control channel resource group included in the N1 time units;

[1301] From the control channel resources belonging to the control channel resource group included in the N1 time units, select the N2 control channel resources with the Lth to (L+N2-1)th lowest control channel resource identifiers from the control channel resources whose demodulation reference signal does not satisfy the quasi-co-address relationship with respect to spatial reception parameters;

[1302] Where L is an integer greater than or equal to 1.

[1303] In this embodiment of the invention, the M port groups corresponding to the M3 control channel resource groups include at least one of the following:

[1304] Each of the M port groups corresponds to at least one control channel resource group;

[1305] Each of the M3 control channel resource groups corresponds to at least one port group;

[1306] The correspondence between the M port groups and the M3 control channel resource group is determined based on the signaling information;

[1307] The correspondence between the M port groups and the M3 control channel resource group is determined according to the agreed rules;

[1308] Determine the control channel resource group corresponding to a port group based on the signaling information;

[1309] A control channel resource group corresponding to a port group is determined according to the agreed rules;

[1310] A port group corresponds to a control channel group, which is the control channel resource group to which the control channel information of the scheduling channel or signal belongs, wherein the channel or signal includes the port group.

[1311] The control channel resource group corresponding to a port group is the control channel resource group of the control channel resources in the predetermined member carrier;

[1312] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources in a predetermined member carrier group.

[1313] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources that satisfy a first characteristic; wherein, the control channel resources that satisfy the first characteristic are associated with a second quasi-co-address reference signal set; the difference set between the second quasi-co-address reference signal set and the third quasi-co-address reference signal set of the demodulation reference signal of the control channel resources that satisfy the first characteristic is non-empty, and / or the second quasi-co-address reference signal set and the third quasi-co-address reference signal set correspond to different control signaling bit fields;

[1314] A control channel resource group corresponding to a port group is a control channel resource group that includes control channel resources that satisfy the second characteristic; wherein, the seventh quasi-co-address reference signal set of the demodulation reference signals of the control channel resources that satisfy the second characteristic is associated with the sixth quasi-co-address reference signal set; the difference set between the seventh quasi-co-address reference signal set and the sixth quasi-co-address reference signal set is non-empty, and / or the seventh quasi-co-address reference signal set and the sixth quasi-co-address reference signal set correspond to different control signaling bit fields.

[1315] In this embodiment of the invention, the control channel resource group satisfies at least one of the following:

[1316] Different control channel resources in different control channel resource groups can be received simultaneously by the communication node;

[1317] Different control channel resources in the same control channel resource group cannot be received by the communication node at the same time;

[1318] x1 control channel resources in a control channel resource group can be received simultaneously by a communication node; where x1 is a positive integer less than or equal to x2, and x2 is the number of control channel resources included in the control channel resource group;

[1319] M is a positive integer less than or equal to M²;

[1320] M is a positive integer less than or equal to M3;

[1321] M2 is equal to M3;

[1322] The communication node is the communication node that receives the control channel resource group.

[1323] In this embodiment of the invention, the control channel resource group satisfies the following characteristics:

[1324] The intersection of the resources occupied by the control channels in different control channel resource groups is empty.

[1325] In this embodiment of the invention, at least one of the M port groups corresponds to a channel or signal that satisfies at least one of the following:

[1326] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[1327] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[1328] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[1329] The signal is a periodic signal;

[1330] The signal is a half-cycle signal;

[1331] The channel is a semi-persistent scheduling channel.

[1332] The specific implementation process of the device for determining the QCL reference signal set described above is the same as the method for determining the QCL reference signal set in the foregoing embodiments, and will not be repeated here.

[1333] See Figure 11 Another embodiment of the present invention provides an apparatus for determining a QCL reference signal set, comprising:

[1334] The second determining module is used to determine at least P sets of quasi-co-addressable reference signals for a class P port group, where P is an integer greater than or equal to 2.

[1335] In this embodiment of the invention, the P-type port group includes a first type of port group and a second type of port group;

[1336] The second determining module is specifically used for:

[1337] Determine the first quasi-co-address reference signal set for the first type of port group;

[1338] Determine the second quasi-co-address reference signal set for the second type of port group.

[1339] In this embodiment of the invention, the second determining module is specifically used for:

[1340] The first quasi-co-address reference signal set of the first type of port group is determined using the first determination method;

[1341] The second determination method is used to determine the second quasi-co-address reference signal set of the second type of port group.

[1342] In this embodiment of the invention, the second determining module is specifically used for:

[1343] The first quasi-co-address reference signal set of the first type of port group is determined based on the first type of parameters;

[1344] The second quasi-co-address reference signal set for the second type of port group is determined based on the second type of parameters;

[1345] Among them, the first type of parameter and the second type of parameter satisfy at least one of the following:

[1346] The difference between the first type of parameter and the second type of parameter is non-empty;

[1347] The first type of parameter is a set of quasi-co-located reference signals for demodulation reference signals of a control channel resource, while the second type of parameter does not include a set of quasi-co-located reference signals for demodulation reference signals of a control channel resource.

[1348] In this embodiment of the invention, the second determining module is specifically used to determine the first quasi-co-address reference signal set of the first type of port group in the following manner:

[1349] The first quasi-co-location reference signal set is determined based on the third quasi-co-location reference signal set;

[1350] The third quasi-co-location reference signal set is obtained based on the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource that meets predetermined characteristics in the first time unit; or, it is obtained based on the quasi-co-location reference signal set of the demodulation reference of the control channel resource where the control information of the channel or signal corresponding to the first type of port group is located.

[1351] In this embodiment of the invention, the second determining module is specifically used to determine the second quasi-co-address reference signal set of the second type of port group using at least one of the following methods:

[1352] The second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set; wherein, the fourth quasi-co-location reference signal set corresponds to the control channel resources in the second time unit that satisfy predetermined characteristics;

[1353] The second quasi-co-address reference signal set is determined based on the fifth quasi-co-address reference signal set notified by the first control signaling;

[1354] The second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set; wherein, the sixth quasi-co-located reference signal set has a corresponding relationship with the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes the quasi-co-located reference signal set of the demodulation reference signals of the control channel resources that meet predetermined characteristics in the second time unit;

[1355] The second quasi-co-located reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located.

[1356] In this embodiment of the invention, the seventh quasi-co-located reference signal set satisfies at least one of the following:

[1357] The seventh quasi-co-location reference signal set and the fourth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[1358] The seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set correspond to different control signaling bit fields;

[1359] The seventh quasi-co-location reference signal set and the fifth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[1360] The seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set correspond to different control signaling bit fields;

[1361] The seventh quasi-co-location reference signal set and the sixth quasi-co-location reference signal set are different quasi-co-location reference signal sets;

[1362] The seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set correspond to different control signaling bit fields;

[1363] The difference set between the seventh quasi-co-located reference signal set and the fourth quasi-co-located reference signal set is a non-empty set;

[1364] The difference set between the seventh quasi-co-located reference signal set and the fifth quasi-co-located reference signal set is a non-empty set;

[1365] The difference set between the seventh quasi-co-located reference signal set and the sixth quasi-co-located reference signal set is a non-empty set;

[1366] The seventh quasi-co-location reference signal set is the quasi-co-location reference signal set of the demodulation reference signal of the control channel resource where the control information of the channel or signal corresponding to the first type of port group is located;

[1367] The control channel resources that meet the predetermined characteristics in the second time unit are the control channel resources where the control information for scheduling the channel or signal corresponding to the first type of port group is located.

[1368] In this embodiment of the invention, the first control signaling includes any one of the following:

[1369] High-level control signaling;

[1370] Physical layer control signaling whose time interval between the channel or signal corresponding to the second type of port group is greater than or equal to a predetermined threshold;

[1371] Physical layer control signaling whose time interval between the measurement reference signal resource corresponding to the second type of port group is greater than or equal to a predetermined threshold.

[1372] Physical layer control signaling with a time interval greater than or equal to a predetermined threshold between the second type of port group and the physical layer control signaling.

[1373] In this embodiment of the invention, the second time unit includes any one of the following:

[1374] The time unit that is closest to the channel corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[1375] The time unit that is closest to the measurement channel resource corresponding to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[1376] The time unit that is closest to the second type of port group in the time unit that satisfies the second predetermined characteristic;

[1377] The time unit in which the control signaling for scheduling the channel or signal is located.

[1378] In this embodiment of the invention, the time unit that satisfies the second predetermined feature includes any one of the following:

[1379] Time units including control channel resources in the pre-defined component carriers;

[1380] Including the time units of control channel resources in the pre-defined member carrier group;

[1381] It includes time units of at least L control channel resources, where L is a positive integer greater than or equal to 1;

[1382] This includes the time units of control channel resources in the predetermined control channel resource group;

[1383] A time unit including control channel resources with predetermined characteristics; wherein the control channel resources with predetermined characteristics are associated with the fourth quasi-co-located reference signal set, or the seventh quasi-co-located reference signal set of the demodulation reference signals of the control channel resources with predetermined characteristics is associated with the sixth quasi-co-located reference signal set.

[1384] In this embodiment of the invention, the second determining module is further configured to:

[1385] The port group is determined to be the first type of port group according to the second control signaling and / or predetermined rules;

[1386] The port group is determined to be the second type of port group according to the second control signaling and / or predetermined rules.

[1387] In this embodiment of the invention, the second determining module is further configured to determine at least P quasi-co-address reference signal sets of the P-type port group based on at least one of the following parameter information:

[1388] The maximum number of port groups included in a channel or signal;

[1389] The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[1390] A method for determining the quasi-co-located reference signal set for each port group of a channel or signal;

[1391] A set of quasi-co-located reference signals for each port group of a channel or signal;

[1392] A method for determining the quasi-co-location reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[1393] A set of quasi-co-located reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1394] In this embodiment of the invention, the second determining module is further configured to determine at least one set of quasi-co-address reference signals for at least one port group in the Class P port group based on at least one of the following parameter information:

[1395] The maximum number of port groups included in a channel or signal;

[1396] The maximum number of port groups included when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[1397] A method for determining the quasi-co-located reference signal set for each port group of a channel or signal;

[1398] A set of quasi-co-located reference signals for each port group of a channel or signal;

[1399] A method for determining the quasi-co-location reference signal set for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold;

[1400] A set of quasi-co-located reference signals for each port group when the interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1401] In this embodiment of the invention, the second determining module is further configured to determine the parameter information based on signaling information or predetermined rules, wherein the signaling information includes at least one of the following:

[1402] Non-physical layer signaling information;

[1403] High-level signaling information;

[1404] Configure the signaling information of the channel corresponding to the port group;

[1405] Configure the signaling information of the measurement reference signal resources corresponding to the port group;

[1406] Configuration information of the control channel resources where the control information of the channel corresponding to the port group is located;

[1407] The configuration information of control channel resources that meet predetermined characteristics is included in the time unit closest to the channel corresponding to the port group;

[1408] Configuration information of the control channel resources where the control information for the measurement reference signal resources corresponding to the port group is located;

[1409] Configuration information of control channel resources that meet predetermined characteristics, included in the time unit closest to the measurement reference signal resource corresponding to the port group.

[1410] In embodiments of the present invention, the port group satisfies at least one of the following characteristics:

[1411] The maximum number of port groups included in a channel or signal is related to the number of control channel resources;

[1412] The maximum number of port groups included in a channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1413] The maximum number of port groups included in a channel or signal is related to the number of control channel resource groups;

[1414] The maximum number of port groups included in a channel or signal is related to the number of control channel resources when the time interval between the control information for scheduling the channel or signal and the channel or signal is less than a predetermined threshold.

[1415] In an embodiment of the present invention,

[1416] The P-type port group corresponds to one or more data channels with P demodulation reference signal port groups;

[1417] Alternatively, the P-type port group corresponds to P measurement reference signal port groups of one or more measurement reference signal resources;

[1418] Alternatively, some port groups in the P-type port group may correspond to one or more demodulation reference signal port groups for data channels, and some port groups may correspond to one or more measurement reference signal port groups.

[1419] In embodiments of the present invention, the port group satisfies at least one of the following:

[1420] The time interval between the channel or signal and the control signaling that schedules the channel or signal is less than a predetermined threshold;

[1421] The time interval between the channel or signal and the control channel that schedules the channel or signal is less than a predetermined threshold;

[1422] The control signaling for scheduling the channel or signal does not include notification information for the quasi-co-address reference signal set of the port group;

[1423] The signal is a periodic signal;

[1424] The signal is a half-cycle signal;

[1425] The channel is a half-cycle scheduling channel;

[1426] The channels corresponding to the Class P port groups are received in the same time unit;

[1427] The measurement reference signal resources corresponding to the P-type port group are received in the same time unit;

[1428] The channels corresponding to the Class P port groups are received at the same time.

[1429] The measurement reference signal resources corresponding to the P-type port group are received at the same time;

[1430] The channel or signal is a channel or signal corresponding to at least one port group in the port group.

[1431] The specific implementation process of the device for determining the QCL reference signal set described above is the same as the method for determining the QCL reference signal set in the foregoing embodiments, and will not be repeated here.

[1432] Another embodiment of the present invention provides an apparatus for determining a QCL reference signal set, comprising:

[1433] The sixth determining module is used to determine the set of second quasi-co-address reference signals corresponding to the second type of port group.

[1434] In this embodiment of the invention, the sixth determining module is specifically used to determine the second quasi-co-address reference signal set corresponding to the second type of port group using at least one of the following methods:

[1435] The second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set; wherein, the fourth quasi-co-location reference signal set corresponds to the control channel resources in the second time unit that satisfy the second predetermined characteristic;

[1436] The second quasi-co-address reference signal set is determined based on the fifth quasi-co-address reference signal set notified by the first control signaling;

[1437] The second quasi-co-located reference signal set is determined based on the sixth quasi-co-located reference signal set; wherein, the sixth quasi-co-located reference signal set has a corresponding relationship with the seventh quasi-co-located reference signal set, and the seventh quasi-co-located reference signal set includes the quasi-co-located reference signal set of the demodulation reference signals of the control channel resources that satisfy the second predetermined characteristics in the second time unit;

[1438] The second quasi-co-located reference signal set is determined based on the configuration information of the control channel resources where the control channel of the channel or signal corresponding to the first type of port group is located.

[1439] In this embodiment of the invention, the second quasi-co-location reference signal set is determined based on the fourth quasi-co-location reference signal set, wherein the fourth quasi-co-location reference signal set corresponds to control channel resources in the second time unit that satisfy a second predetermined characteristic, including at least one of the following:

[1440] The first quasi-co-address reference signal set of the first type of port group is obtained based on the seventh quasi-co-address reference signal set of the demodulation reference signal of the control channel in the control channel resources that satisfy the second predetermined characteristics in the second time unit;

[1441] The fourth quasi-co-location reference signal set is the quasi-co-location reference signal set configured for the frequency domain bandwidth of the second type of port group in the configuration information of the control channel resources that satisfy the second predetermined characteristics;

[1442] The configuration information of the control channel resources that satisfy the second predetermined feature includes at least one of the fourth quasi-co-located reference signal sets, wherein the different fourth quasi-co-located reference signal sets correspond to different frequency domain bandwidths;

[1443] The fourth quasi-co-located reference signal set is configured in the configuration information of the control channel resources that satisfy the second predetermined feature. The fourth quasi-co-located reference signal set is shared by at least one frequency domain bandwidth that has a corresponding relationship with the control channel resources that satisfy the second predetermined feature, and / or the fourth quasi-co-located ref...

Claims

1. A signal receiving method, characterized in that, include: When N control channels conflict at the same time, the priority of the quasi-co-location reference signal set of the N control channels is determined according to the resource index of the control channel resource to which each control channel belongs and the characteristics of each control channel; where N is an integer greater than or equal to 2, and the characteristics of each control channel are either shared characteristics or dedicated characteristics; the characteristics of each control channel indicate whether the control channel is a shared control channel or a dedicated control channel; the conflict of N control channels at the same time includes: the N control channels do not satisfy the quasi-co-location relationship of spatial reception parameters; One or more of the N control channels are received according to the priority of the determined quasi-co-location reference signal set.

2. The signal receiving method according to claim 1, characterized in that, The priority of the quasi-co-location reference signal set of the N control channels is determined based on the resource index of the control channel resource where each control channel is located and the characteristics of each control channel, satisfying the following characteristics: The control channel with a lower control channel resource identifier in the control channel resources in the N control channels has a higher priority than the control channel with a higher control channel resource identifier in the control channel resources in the N control channels. Shared control channels have higher priority than dedicated control channels.

3. The signal receiving method according to claim 2, characterized in that, Receiving one or more of the N control channels according to the priority of the determined quasi-co-location reference signal set, including: The high-priority control channel is received using the quasi-co-address reference signal set of the high-priority control channel; At the moment of the conflict, the control channel with the lowest priority among the N control channels is not detected.

4. The signal receiving method according to claim 1, characterized in that, The scenario in which N control channels collide at the same time includes at least one of the following: The N control channels do not satisfy a quasi-co-address relationship regarding spatial reception parameters; The N control channels cannot be simultaneously received by the first communication node; wherein, the first communication node is the communication node that receives the reference signal.

5. The signal receiving method according to claim 1, characterized in that, The N control channels or signals at the same time satisfy the following characteristics: The N control channels or signals are on the same time-domain symbol.

6. The signal receiving method according to claim 1, characterized in that, The N control channels at the same time satisfy the following characteristics: The subcarrier intervals corresponding to the time domain symbols of the N control channels are different, and the times corresponding to the time domain symbols of the N control channels overlap.

7. The signal receiving method according to claim 1, characterized in that, The N control channels at the same time satisfy the following characteristics: The time domain symbols of the different control channels in the N control channels overlap.

8. The method according to any one of claims 1 to 7, characterized in that, The control channel resources include: a search space set.

9. A signal transmission method, characterized in that, include: When N control channels conflict at the same time, the priority of the quasi-co-location reference signal set of the N control channels is determined according to the resource index of the control channel resource in which each control channel is located and the characteristics of each control channel; wherein, N is an integer greater than or equal to 2, and the characteristics of each control channel are either shared characteristics or dedicated characteristics; the characteristics of each control channel indicate whether the control channel is a shared control channel or a dedicated control channel, and the conflict of the N control channels at the same time includes: the N control channels do not satisfy the quasi-co-location relationship of the spatial reception parameters; One or more of the N control channels are transmitted according to the priority of the determined quasi-co-location reference signal set.

10. The signal transmission method according to claim 9, characterized in that, Based on the resource index of the control channel resource where each of the N control channels is located and the characteristics of each control channel, the priority of the quasi-co-location reference signal set of the N control channels is determined, satisfying the following characteristics: The control channel with a lower control channel resource identifier in the control channel resources in which the N control channels are located has a higher priority than the control channel with a higher control channel resource identifier in the control channel resources in which the N control channels are located. Shared control channels have higher priority than dedicated control channels.

11. The signal transmission method according to claim 10, characterized in that, One or more of the N control channels are transmitted according to the priority of the determined quasi-co-location reference signal set, including... The high-priority control channel is transmitted using a set of quasi-co-address reference signals for the high-priority control channel; At the moment of the conflict, the control channel with the lowest priority among the N control channels is not transmitted.

12. The signal transmission method according to claim 9, characterized in that, The scenario in which N control channels collide at the same time includes at least one of the following: The N control channels do not satisfy a quasi-co-address relationship regarding spatial reception parameters; The N control channels cannot be transmitted simultaneously by the first communication node; wherein, the first communication node is the communication node that transmits the reference signal.

13. The signal transmission method according to claim 9, characterized in that, The N control channels at the same time satisfy the following characteristics: The N control channels are on the same time-domain symbol.

14. The signal transmission method according to claim 9, characterized in that, The N control channels at the same time satisfy the following characteristics: The subcarrier intervals corresponding to the time domain symbols of the N control channels are different, and the times corresponding to the time domain symbols of the N control channels overlap.

15. The signal transmission method according to claim 9, characterized in that, The N control channels at the same time satisfy the following characteristics: The time domain symbols of the different control channels in the N control channels overlap.

16. The method according to any one of claims 9 to 15, characterized in that, The control channel resources include: a search space set.

17. A signal receiving apparatus for performing the signal receiving method according to any one of claims 1-8, comprising: A priority determination module is used to determine the priority of the quasi-co-location reference signal set of the N control channels when N control channels conflict at the same time, based on the resource index of the control channel resource to which each control channel belongs and the characteristics of each control channel; wherein, N is an integer greater than or equal to 2, and the characteristics of each control channel are either shared characteristics or dedicated characteristics; the characteristics of each control channel indicate whether the control channel is a shared control channel or a dedicated control channel, and the conflict of the N control channels at the same time includes: the N control channels do not satisfy the quasi-co-location relationship of spatial reception parameters; The control channel receiving module is configured to receive one or more of the N control channels in a priority manner according to the determined quasi-co-location reference signal set.

18. A signal transmitting apparatus for performing the signal transmitting method according to any one of claims 9-16, comprising: A priority determination module is used to determine the priority of the quasi-co-location reference signal set of the N control channels when N control channels conflict at the same time, based on the resource index of the control channel resource to which each control channel belongs and the characteristics of each control channel; wherein, N is an integer greater than or equal to 2, and the characteristics of each control channel are either shared characteristics or dedicated characteristics; the characteristics of each control channel indicate whether the control channel is a shared control channel or a dedicated control channel, and the conflict of the N control channels at the same time includes: the N control channels do not satisfy the quasi-co-location relationship of spatial reception parameters; The control channel transmission module is used to transmit one or more of the N control channels in a priority manner according to the determined quasi-co-location reference signal set.

19. An electronic device comprising a processor and a computer-readable storage medium storing instructions, characterized in that, When the instruction is executed by the processor, it implements the signal receiving method as described in any one of claims 1 to 8 or the signal transmitting method as described in any one of claims 9 to 16.

20. A computer-readable storage medium having a computer program stored thereon, characterized in that, When the computer program is executed by the processor, it implements the signal receiving method as described in any one of claims 1 to 8 or the signal transmitting method as described in any one of claims 9 to 16.

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