Configuring Transport

Abstract

One or more devices, systems and / or methods are provided to facilitate transmission of one or more configurations. For example, a wireless node may receive a core configuration. The wireless node may receive a modified configuration. The wireless node may modify the core configuration based on the modified configuration to generate a modified configuration. The wireless node may perform measurements based on the modified configuration.

Description

Background Art

[0001] By transmitting reference signals (RS) between wireless nodes (e.g., between user equipment (UE) and the network), a communication link between wireless nodes can be facilitated. For example, the network can send one or more RSs to the UE. The UE can use one or more RSs to perform radio resource management (RRM) measurements. Information about the communication link can be determined based on the RRM measurements. Summary of the invention

[0002] According to the present disclosure, one or more devices and / or methods are provided to facilitate the transmission of configurations. In one example, a core configuration may be generated. A modified configuration corresponding to the core configuration may be generated. The core configuration and the modified configuration may be sent to a node.

[0003] In an example, a core configuration may be determined. A cell configuration corresponding to a cell may be determined. One or more differences between the core configuration and the cell configuration may be determined. A modified configuration may be generated based on the one or more differences. The core configuration and the modified configuration may be sent to a node.

[0004] In an example, a core configuration and a modified configuration may be received from a node. The core configuration may be modified based on the modified configuration to generate a modified configuration. A first action may be performed based on the core configuration. A second action may be performed based on the modified configuration. BRIEF DESCRIPTION OF THE DRAWINGS

[0005] Although the technology presented herein can be embodied in alternative forms, the specific embodiments shown in the drawings are merely some examples to supplement the description provided herein. These embodiments should not be interpreted in a limiting manner, such as limiting the appended claims.

[0006] Figure 1A is a flow chart illustrating an example method of facilitating transmission of a configuration.

[0007] Figure 1B is a flow chart illustrating an example method of facilitating transmission of a configuration.

[0008] Figure 1C is a flow chart illustrating an example method that facilitates receipt of a configuration.

[0009] Figure 2 is a component block diagram illustrating an example system for facilitating transmission of configurations.

[0010] Figure 3 is a component block diagram illustrating an example system for facilitating transmission of configurations.

[0011] Figure 4 is a component block diagram illustrating an example system for facilitating transmission of configurations.

[0012] Figure 5 is a diagram showing an example of a core channel state information (CSI) resource signal (RS) configuration.

[0013] Figure 6 is a diagram showing an example of a measurement object.

[0014] Figure 7 is a diagram showing an example of a measurement object.

[0015] Figure 8 is a diagram showing an example of a measurement object.

[0016] Fig. 9 is a diagram showing an example of a measurement object.

[0017] Fig.10 is a diagram showing an example of a measurement object.

[0018] Fig.11 is a diagram showing an example of a measurement object.

[0019] Fig.12 is a diagram showing an example of a measurement object.

[0020] Fig.13A is a component block diagram of an example system illustrating multiple cells.

[0021] Fig. 13B is a component block diagram of an example system illustrating multiple cells.

[0022] Fig.14A is a component block diagram of an example system illustrating multiple CSI RS resources.

[0023] Fig. 14B is a component block diagram of an example system illustrating multiple CSI RS resources.

[0024] Fig.15 is a diagram showing an example of a core IDLE RS measurement configuration.

[0025] Fig.16 is a diagram illustrating an example of one or more IDLE RS measurement configurations.

[0026] Fig.17 is a diagram showing an example of a core IDLE RS measurement configuration.

[0027] Fig.18 is a diagram showing an example of a cell IDLE RS measurement configuration.

[0028] Fig.19A is a component block diagram of an example system illustrating multiple cells.

[0029] Fig.19B is a component block diagram of an example system illustrating multiple cells.

[0030] Fig. 20 is an illustration of a scenario involving an example configuration of a base station (BS) that may utilize and / or implement at least a portion of the techniques presented herein.

[0031] Fig.21 is an illustration of a scenario involving an example configuration of a user equipment (UE) that may utilize and / or implement at least a portion of the techniques presented herein.

[0032] Fig. 22 is an illustration of a scenario featuring an exemplary non-transitory computer-readable medium according to one or more provisions set forth herein. DETAILED DESCRIPTION

[0033] The subject matter will now be described more fully hereinafter with reference to the accompanying drawings, which form a part of the present invention and show by way of illustration specific example embodiments. The description is not intended as an extensive or detailed discussion of known concepts. Details commonly known to those of ordinary skill in the relevant art may have been omitted or may be treated in a summary manner.

[0034] The following subject matter may be embodied in a variety of different forms, such as methods, devices, components, and / or systems. Therefore, the subject matter is not intended to be construed as limited to any example embodiments set forth herein. Instead, example embodiments are provided for illustration only. Such embodiments may, for example, take the form of hardware, software, firmware, or any combination thereof.

[0035] One or more computing devices and / or techniques for facilitating the transmission of a configuration are provided. For example, a user equipment (UE) may be connected to a (e.g., wireless communication) network. The UE may perform cell-specific radio resource management (RRM) measurements. RRM measurements may be used, for example, (e.g., and / or sent) to enable the network to communicate with the UE reliably and / or at a high data rate. The UE may perform RRM measurements based on the cell to derive one or more qualities of the cell (e.g., and / or a signal corresponding to the cell). The UE may perform RRM measurements based on the cell using a configuration corresponding to the cell. The UE may perform RRM measurements (e.g., and / or perform cell detection) based on the cell based on a configuration contained in an IDLE reference signal (RS) (e.g., received from the network). The configuration may correspond to an IDLE RS measurement configuration in an idle (IDLE) state and / or an IDLE RS measurement configuration in a connected (CONNECTED) state. The UE may perform RRM measurements (e.g., and / or cell detection) based on the cell based on one or more other (e.g., additional) RSs. One or more other RSs may include channel state information (CSI) RSs and / or other information. The CSI RS may include a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or a high-layer CSI RS resource configuration for the third layer. The UE may perform RRM measurements, manage (e.g., multi-antenna) beamforming applications, and / or manage the first layer (e.g., physical layer) and / or the second layer (e.g., medium access control (MAC) layer) on a cell basis based on the low-layer CSI RS resource configuration for the first layer and / or the second layer. The UE may perform RRM measurements, manage the third layer (e.g., radio resource control (RRC) layer), and / or perform measurements for third-layer mobility (e.g., and / or RRM mobility) on a cell basis based on the high-layer CSI RS resource configuration for the third layer. These RS configurations (e.g., their transmission, processing, etc.) may result in signaling overhead, particularly when the UE operates at high frequencies. The high-layer CSI RS resource configuration for the third layer may be the same, partially the same, and / or different from the low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the UE may use the low-layer CSI RS resource configuration for the first layer and / or the second layer as a configuration reference for the high-layer CSI RS resource configuration for the third layer to reduce signaling overhead. Alternatively and / or additionally, the UE may use the IDLE RS measurement configuration in the IDLE state as a configuration reference for the IDLE RS measurement configuration in the CONNECTED state to reduce signaling overhead.

[0036] exist Figure 1AAn example method 100A for facilitating configuration transmission from a first wireless node to a second wireless node is shown in FIG. The first wireless node may be a network and / or a base station (BS), and the second wireless node may be a UE. The first wireless node may be required to send a configuration (e.g., a CSI RS resource configuration, an IDLE RS measurement configuration, etc.) to the second wireless node.

[0037] Thus, at 105A, the first wireless node generates a core configuration. In some examples, the core configuration may represent a configuration reference for one or more configurations. The one or more configurations may correspond (e.g., respectively) to a (e.g., specific and / or defined) configuration type of one or more layers and / or one or more states. For example, one or more low-layer CSI RS resource configurations for the first layer and / or the second layer may correspond to a first configuration type, one or more high-layer CSI RS resource configurations for the third layer may correspond to a second configuration type, one or more IDLE RS measurement configurations for the IDLE state may correspond to a third configuration type, one or more IDLE RS measurement configurations for the CONNECTED state may correspond to a fourth configuration type, and so on. In some examples, the core configuration may correspond to: (e.g., the same as) one or more configurations for which the core configuration represents a configuration reference. In some examples, the core configuration may correspond to: (e.g., the same as) one or more configurations for which the core configuration represents a configuration reference (different from) one or more configurations for which the core configuration represents a configuration reference.

[0038] At 110A, the first wireless node generates a modified configuration corresponding to the core configuration. In some examples, the core configuration and / or the modified configuration corresponds to a (e.g., a specific and / or defined) frequency. In some examples, the modified configuration may include overlay information (which corresponds to information included in the core configuration), which may overlay at least some of the information included in the core configuration. In some examples, the modified configuration may include additional information, which may be added and / or combined with the information included in the core configuration.

[0039] The modified configuration may correspond to the following configuration type, which may be the same or different from the configuration type of the core configuration. In some examples, the core configuration may include a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or the modified configuration may correspond to (e.g., and / or represent) a high-layer CSI RS resource configuration for the third layer. Alternatively and / or additionally, the core configuration may include an IDLE RS measurement configuration for the IDLE state and / or the modified configuration may correspond to (e.g., and / or represent) an IDLE RS measurement configuration for the CONNECTED state. Alternatively and / or additionally, the core configuration may include a first IDLE RS measurement configuration for the IDLE state and / or the modified configuration may correspond to (e.g., and / or represent) a second IDLE RS measurement configuration for the IDLE state. Alternatively and / or additionally, the core configuration may include a first IDLE RS measurement configuration for the CONNECTED state, and / or the modified configuration may correspond to (e.g., and / or represent) a second IDLE RS measurement configuration for the IDLE state. Alternatively and / or additionally, the core configuration may include a first IDLE RS measurement configuration for the CONNECTED state, and / or the modified configuration may correspond to (e.g., and / or represent) a second IDLE RS measurement configuration for the CONNECTED state.

[0040] At 115A, the first wireless node sends the core configuration and / or the modified configuration to the second wireless node.

[0041] Alternatively and / or additionally, the first wireless node may generate a second modified configuration corresponding to the core configuration. The first wireless node may send the second modified configuration to the second wireless node. In some examples, the second modified configuration may correspond to the core configuration (e.g., and / or correspond to a configuration type of the core configuration).

[0042] exist Figure 1B An example method 100B for facilitating configuration transmission from a first wireless node to a second wireless node is shown in FIG. 100B. The first wireless node may be a network and / or the second wireless node may be a UE. Thus, at 105B, the first wireless node determines a core configuration. At 110B, the first wireless node determines a cell configuration corresponding to a cell.

[0043] The core configuration may represent a configuration reference of one or more configurations corresponding to one or more cells. The one or more configurations may include a cell configuration. The core configuration and / or one or more configurations may correspond to a (e.g., a specific and / or defined) frequency. At 115B, the first wireless node determines one or more differences between the core configuration and the cell configuration. At 120B, the first wireless node generates a modified configuration based on the one or more differences. In some examples, the modified configuration may include overlay information (which corresponds to information included in the core configuration), which may overlay at least some of the information included in the core configuration. In some examples, the modified configuration may include additional information, which may be added and / or combined with the information contained in the core configuration.

[0044] The modified configuration may correspond to the following configuration type, which may be the same or different from the configuration type of the core configuration. In some examples, the core configuration may include a first high-level CSI RS resource configuration for the third layer and / or the modified configuration (e.g., and / or one or more configurations) may correspond to (e.g., and / or represent) a second high-level CSI RS resource configuration for the third layer.

[0045] In some examples, the core cell configuration corresponding to the second cell may include a core configuration.At 125B, the first wireless node sends the core configuration and the modified configuration to the second wireless node.

[0046] exist Figure 1C An example method 100C for facilitating receiving a configuration from a first wireless node at a second wireless node is shown. The first wireless node may be a network and the second wireless node may be a UE. The second wireless node may use one or more configurations from the first wireless node to perform one or more actions. Thus, at 105C, the second wireless node receives a core configuration and a modified configuration from the first wireless node. The core configuration may include information, and / or the modified configuration may include overlay information that may overlay at least some of the information included in the core configuration and / or additional information that may be added and / or combined with the information included in the core configuration.

[0047] Alternatively and / or additionally, at 110C, the second wireless node generates a modified configuration by modifying the core configuration based on the modified configuration. The second wireless node may modify information (e.g., of the core configuration) based on the coverage information (e.g., of the modified configuration) and / or the additional information to generate the modified configuration.

[0048] In some examples, the core configuration may represent a configuration reference for one or more configurations corresponding to a (e.g., specific and / or defined) configuration type (e.g., a low-layer CSI RS resource configuration for the first layer and / or the second layer, a high-layer CSI RS resource configuration for the third layer, an IDLE RS measurement configuration for an IDLE state, an IDLE RS measurement configuration for a CONNECTED state, etc.). The one or more configurations may include a modified configuration.

[0049] In some examples, the core configuration may correspond to: a configuration type that is (different from) one or more configurations for which the core configuration represents a configuration reference. For example, the core configuration may include a low-layer CSI RS resource configuration for the first layer and / or the second layer, and / or the one or more configurations may include a high-layer CSI RS resource configuration for the third layer (for example, and / or vice versa). Alternatively and / or additionally, the core configuration may include an IDLERS measurement configuration for the IDLE state, and / or the one or more configurations may include an IDLE RS measurement configuration for the CONNECTED state (for example, and / or vice versa).

[0050] In some examples, the core configuration may correspond to: (e.g., the same as) a configuration type of one or more configurations for which the core configuration represents a configuration reference. For example, the core configuration may include a first high-level CSI RS resource configuration for the third layer, and / or the one or more configurations may include a second high-level CSI RS resource configuration for the third layer. Alternatively and / or additionally, the core configuration may include a first IDLE RS measurement configuration for an IDLE state, and / or the one or more configurations may include a second IDLE RS measurement configuration for an IDLE state. Alternatively and / or additionally, the core configuration may include a first IDLE RS measurement configuration for a CONNECTED state, and / or the one or more configurations may include a second IDLE RS measurement configuration for a CONNECTED state.

[0051] At 115C, the second wireless node performs a first action based on the core configuration. In some examples, the core configuration may include a low-layer CSI RS resource configuration for the first layer and / or the second layer (e.g., and / or management of the first layer and / or the second layer). The second wireless node may perform the first action based on the core configuration by using a cell corresponding to the first layer and / or the second layer based on the core configuration (e.g., and / or based on its management and / or performing RRM measurements).

[0052] Alternatively and / or additionally, the core configuration may include a high-layer CSI RS resource configuration for the third layer (e.g., and / or third layer mobility). The second wireless node may perform the first action based on the core configuration, by using a cell corresponding to the third layer based on the core configuration (e.g., and / or managing and / or performing RRM measurements based thereon).

[0053] In some examples, the core configuration may include an IDLE RS measurement configuration for an IDLE state. Then, the second wireless node may perform a first action based on the core configuration by performing a first (e.g., RRM) measurement (e.g., and / or performing cell detection) in an IDLE state based on the core configuration and / or the corresponding cell. Alternatively and / or additionally, the core configuration may include an IDLE RS measurement configuration for a CONNECTED state. Then, the second wireless node may perform a first action based on the core configuration by performing a second (e.g., RRM) measurement (e.g., and / or performing cell detection) in a CONNECTED state based on the core configuration and / or the corresponding cell.

[0054] At 120C, the second wireless node performs a second action based on the modified configuration. In some examples, the modified configuration may include a low-layer CSIRS resource configuration for the first layer and / or the second layer (e.g., and / or management of the first layer and / or the second layer). The second wireless node may perform a second action based on the modified configuration by using a cell corresponding to the first layer and / or the second layer based on the modified configuration (e.g., and / or managing and / or performing RRM measurements based thereon).

[0055] Alternatively and / or additionally, the modified configuration may include a high-layer CSI RS resource configuration for a third layer (e.g., and / or third layer mobility). The second wireless node may perform a second action based on the modified configuration, by using a cell corresponding to the third layer based on the modified configuration (e.g., and / or managing and / or performing RRM measurements based thereon).

[0056] In some examples, the modified configuration may include an IDLE RS measurement configuration for an IDLE state. Then, the second wireless node may perform a second action based on the modified configuration, by performing a first (e.g., RRM) measurement (e.g., and / or performing cell detection) in an IDLE state based on the modified configuration and / or the corresponding cell. Alternatively and / or additionally, the modified configuration may include an IDLE RS measurement configuration for a CONNECTED state. Then, the second wireless node may perform a second action based on the modified configuration, by performing a second (e.g., RRM) measurement (e.g., and / or performing cell detection) in a CONNECTED state based on the modified configuration and / or the corresponding cell.

[0057] Alternatively and / or additionally, the second wireless node may receive a second modified configuration. Then, the second wireless node may generate a second modified configuration by modifying the core configuration based on the second modified configuration. In some examples, the second modified configuration may include a low-layer CSI RS resource configuration for the first layer and / or the second layer. Then, the second wireless node may use the cell corresponding to the first layer and / or the second layer based on the second modified configuration (e.g., and / or manage and / or perform RRM measurements based thereon).

[0058] Alternatively and / or additionally, the second modified configuration may include an IDLE state measurement configuration for the IDLE state. Then, the second wireless node may perform (e.g., RRM) measurements (e.g., and / or perform cell detection) in the IDLE state based on the second modified configuration and / or the corresponding cell.

[0059] The core configuration may correspond to a (e.g., a specific and / or defined) frequency. The core configuration may represent a configuration reference for one or more configurations corresponding to the frequency. The one or more configurations may include a cell configuration corresponding to a cell. Thus, the second wireless node may use one or more cells based on the core configuration (e.g., and / or manage and / or perform RRM measurements based thereon). The cell configuration may include a modified configuration. Thus, the second wireless node may use the cell based on the modified configuration (e.g., and / or manage and / or perform RRM measurements based thereon).

[0060] In some examples, the core cell configuration corresponding to the second cell may include a core configuration. Thus, the second wireless node may use the second cell (e.g., and / or manage and / or perform RRM measurements based thereon) based on the core configuration (e.g., the core cell configuration).

[0061] In some examples, the second wireless node may perform RRM measurements based on the cell to derive one or more qualities of the cell (e.g., and / or a signal corresponding to the cell). The second wireless node may perform RRM measurements based on (e.g., and / or using) at least one of a low layer CSI RS resource configuration for the first layer and / or the second layer, a high layer CSI RS resource configuration for the third layer, an IDLE RS measurement configuration for an IDLE state, and / or an IDLE RS measurement configuration for a CONNECTED state.

[0062] The first layer may include a physical layer. The physical layer may carry information such as power control measurements and / or cell search measurements (e.g., and / or other information and / or measurements). The second layer may include at least one of a MAC layer, a radio link control (RLC) layer, and / or a packet data convergence control (PDCP) layer. The MAC layer may provide a connection between a logical channel and a transport channel and / or a connection between the physical layer and a transport channel (e.g., and / or perform other functions). The third layer may include an RRC layer and / or a non-access stratum (NAS) protocol. The RRC layer may broadcast system information related to the NAS protocol (e.g., and / or perform other functions).

[0063] Figure 2 An example of a system 200 for facilitating configuration transmission from a first wireless node 205 (e.g., a network) to a second wireless node 210 (e.g., a UE) is shown. The first wireless node 205 may generate a core configuration 215 representing a configuration reference for one or more configurations. The first wireless node 205 may generate a modified configuration 220.

[0064] The first wireless node 205 may send the core configuration 215 and / or the modified configuration 220 to the second wireless node 210. In some examples, the core configuration 215 and / or the modified configuration 220 may be sent together and / or in a common signal. In some examples, the core configuration 215 and / or the modified configuration 220 may be sent separately and / or in separate signals.

[0065] The second wireless node 210 may generate a modified configuration 225 by modifying the core configuration 215 based on the modified configuration 220. The core configuration 215 may correspond to a first configuration type and / or the modified configuration 225 may correspond to a second configuration type.

[0066] The first configuration type and the second configuration type may be different types. For example, the core configuration 215 includes a low-layer CSI RS resource configuration for the first layer and / or the second layer, and / or the modified configuration 225 may include a high-layer CSI RS resource configuration for the third layer. Alternatively and / or additionally, the core configuration 215 may include an IDLERS measurement configuration for the IDLE state, and / or the modified configuration 225 may include an IDLE RS measurement configuration for the CONNECTED state.

[0067] Alternatively and / or additionally, the first configuration type and the second configuration type may be of similar type and / or the same type. For example, the core configuration 215 may include a high-layer CSI RS resource configuration for the third layer, and / or the modified configuration 225 may include a high-layer CSI RS resource configuration for the third layer. Alternatively and / or additionally, the core configuration 215 may include an IDLE RS measurement configuration for a CONNECTED state, and / or the modified configuration 225 may include an IDLE RS measurement configuration for a CONNECTED state.

[0068] Figure 3 An example of a system 300 for facilitating configuration transmission from a first wireless node 305 (e.g., a network) to a second wireless node 310 (e.g., a UE) is shown. The first wireless node 305 may generate a core configuration 315, a modified configuration 320, and / or a second modified configuration 325. The core configuration 315 may represent a configuration baseline for one or more configurations.

[0069] The first wireless node 305 may send the core configuration 315, the modified configuration 320, and / or the second modified configuration 325 to the second wireless node 310. In some examples, the core configuration 315, the modified configuration 320, and / or the second modified configuration 325 may be sent together and / or in a common signal. In some examples, the core configuration 315, the modified configuration 320, and / or the second modified configuration 325 may be sent separately and / or in separate signals. In some examples, at least some of the core configuration 315, the modified configuration 320, and / or the second modified configuration 325 may be sent in a first signal, while the rest of the core configuration 315, the modified configuration 320, and / or the second modified configuration 325 may be sent in a second signal.

[0070] The second wireless node 310 may generate a modified configuration 330 by modifying the core configuration 315 based on the modification configuration 320. The second wireless node 310 may generate a second modified configuration 335 by modifying the core configuration 315 based on the second modification configuration.

[0071] The second modified configuration 335 may correspond to the first configuration type and / or the modified configuration 330 may correspond to the second configuration type. The first configuration type and the second configuration type may be different types. For example, the second modified configuration 335 may include a low-layer CSI RS resource configuration for the first layer and / or the second layer, and / or the modified configuration 330 may include a high-layer CSI RS resource configuration for the third layer. Alternatively and / or additionally, the second modified configuration 335 may include an IDLE RS measurement configuration for the IDLE state, and / or the modified configuration 330 may include an IDLE RS measurement configuration for the CONNECTED state.

[0072] Alternatively and / or additionally, the first configuration type and the second configuration type may be of similar type and / or the same type. For example, the second modified configuration 335 may include a high-layer CSI RS resource configuration for the third layer, and / or the modified configuration 330 may include a high-layer CSI RS resource configuration for the third layer. Alternatively and / or additionally, the second modified configuration 335 may include an IDLE RS measurement configuration for the CONNECTED state, and / or the modified configuration 330 may include an IDLE RS measurement configuration for the CONNECTED state.

[0073] Figure 4 An example of a system 400 for facilitating configuration transmission from a first wireless node 405 (e.g., a network) to a second wireless node 410 (e.g., a UE) is shown. The first wireless node 405 may determine (e.g., and / or generate) a core configuration 415. Alternatively and / or in addition, the first wireless node 405 may determine (e.g., and / or generate) a cell configuration 425 corresponding to a cell. The first wireless node 405 may then use an analyzer 430 to determine one or more differences between the core configuration 415 and the cell configuration 425. The first wireless node 405 may then generate (e.g., and / or determine) a modified configuration 420 based on the one or more differences.

[0074] The first wireless node 405 may send the core configuration 415 and / or the modified configuration 420 to the second wireless node 410. In some examples, the core configuration 415 and / or the modified configuration 420 may be sent together and / or in a common signal. In some examples, the core configuration 415 and / or the modified configuration 420 may be sent separately and / or in separate signals.

[0075] The core configuration 415 may represent a configuration reference of one or more configurations corresponding to one or more cells, the one or more configurations including the cell configuration 425. Therefore, the second wireless node 410 may generate the cell configuration 425 by modifying the core configuration 415 based on the modified configuration 420.

[0076] It will be appreciated that the core configuration, the cell configuration and / or the modified configuration (e.g., as discussed with respect to FIGS. 1-4 ) may include (e.g., core, carrier frequency, cell, upper layer, lower layer, etc.) CSI RS resource configuration and / or (e.g., core, carrier frequency, cell, etc.) IDLE RS measurement configuration (e.g., as discussed with respect to Figure 5-19B discussed).

[0077] Figure 5 An example of a data structure 500 for a core CSI RS resource configuration is shown. In some examples, the core CSI RS resource configuration may include (e.g., and / or be configured to) a lower layer CSI RS resource configuration for the first layer and / or the second layer. Thus, a wireless node (e.g., a UE) may (e.g., be configured to) use a cell corresponding to the first layer and / or the second layer (e.g., and / or manage and / or perform RRM measurements based thereon) based on the core CSI RS resource configuration.

[0078] The core CSI RS resource configuration may include one or more CSI RS resource settings. Thus, the core CSI RS resource configuration may include a CSI RS resource setting identified as CSI resource setting identification (ID) 1 505. In some examples, the CSI RS resource setting may be configured outside of the measurement object and / or measurement configuration information (e.g., measConfig). Alternatively and / or additionally, the CSI RS resource setting may be configured within a dedicated physical configuration (e.g., physicalConfigDedicated).

[0079] The CSI RS resource setting may include one or more CSI RS resources. Thus, the CSI RS resource setting may include a first CSI RS resource identified as CSI RS resource ID 1 510 and / or a second CSI RS resource identified as CSI resource ID 2 520.

[0080] The first CSI RS resource may include (e.g., and / or be configured with) first CSI RS resource information 515 and / or the second CSI RS resource may include (e.g., and / or be configured with) second CSI RS resource information 525. The first CSI RS resource information 515 and / or the second CSI RS resource information 525 may include at least one of a cell ID, the number of antenna ports, a configuration for time / frequency resource mapping, a timing configuration (e.g., a time offset and / or a periodicity), a parameter for sequence generation, and / or other information (e.g., and / or a parameter). The first CSI RS resource information 515 and / or the second CSI RS resource information 525 may include different (e.g., and / or similar) information.

[0081] In some examples, a core CSI RS resource configuration may represent a configuration reference for one or more CSI RS resource configurations (eg, in one or more measurement objects).

[0082] Figure 6 An example of a data structure 600 of a measurement object identified as measurement object ID 1 605 is shown. The measurement object may include information 610 and / or CSI RS resource configuration 615. The information 610 includes at least one of a carrier frequency, a measurement bandwidth, a timing configuration (e.g., a time offset and / or a periodicity), information of an antenna port, and / or other information (e.g., and / or parameters).

[0083] In some examples, the CSI RS resource configuration 615 may include one or more CSI RS resource setting IDs. The one or more CSI RS resource setting IDs may correspond to (e.g., link to) one or more CSI RS resource settings included in the core CSI RS resource configuration. For example, CSI RS resource setting ID 1 of the CSI RS resource configuration 615 corresponds to (e.g., links to) a first CSI RS resource setting included in the core CSI RS resource configuration. Accordingly, CSI RS resource setting ID 3 of the CSI RS resource configuration 615 corresponds to (e.g., links to) a second CSI RS resource setting included in the core CSI RS resource configuration.

[0084] In some examples, CSI RS resource setting ID 1 of CSI RS resource configuration 615 corresponds to (e.g., is linked to) a CSI RS resource setting included in a core CSI RS resource configuration identified by the same CSI RS resource setting ID. Accordingly, CSI RS resource setting ID 3 of CSI RS resource configuration 615 corresponds to (e.g., is linked to) a CSI RS resource setting included in a core CSI RS resource configuration identified by the same CSI RS resource setting ID.

[0085] In some examples, the CSI RS resource configuration 615 may include (e.g., and / or be configured as) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Thus, the wireless node (e.g., UE) may (e.g., be configured to) use a cell corresponding to the third layer (e.g., and / or manage and / or perform RRM measurements based thereon) based on the CSI RS resource configuration 615 (e.g., and / or the measurement object). In some examples, the core CSI RS resource configuration may include (e.g., and / or be configured as) a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or a high-layer CSI RS resource configuration for the third layer. Thus, the wireless node may (e.g., be configured to) use a cell corresponding to the first layer and / or the second layer and / or a cell corresponding to the third layer (e.g., and / or manage and / or perform RRM measurements based thereon) based on the core CSI RS resource configuration.

[0086] In some examples, the CSI RS resource configuration 615 may include one or more modification configurations. In some examples, the wireless node may modify the core CSI RS resource configuration based on one or more modification configurations (e.g., to generate the CSI RS resource configuration 615). The modification configuration may include one or more CSI RS resource setting configurations, which may not be included in the core CSI RS resource configuration. Therefore, the CSI RS resource configuration 615 may correspond to a modified (e.g., added, supplemented, adjusted, etc.) version of the core CSI RS resource configuration. Alternatively and / or additionally, the CSI RS resource configuration 615 may include a zero modification configuration. Therefore, the CSI RS resource configuration 615 may correspond to an unmodified version of the core CSI RS resource configuration.

[0087] Figure 7 An example of a data structure 700 is shown for a measurement object identified as measurement object ID 1 705. The measurement object may include information 710 and / or a CSI RS resource configuration 715.

[0088] In some examples, the CSI RS resource configuration 715 may include a CSI RS resource setting ID 1, which corresponds to (e.g., linked to) a first CSI RS resource setting included in the core CSI RS resource configuration. Alternatively and / or additionally, the CSI RS resource configuration 715 may include a CSI RS resource setting ID 3, which corresponds to (e.g., linked to) a second CSI RS resource setting included in the core CSI RS resource configuration. In some examples, the CSI RS resource configuration 715 may include a CSI RS resource setting ID 1, which corresponds to (e.g., linked to) a CSI RS resource setting included in a core CSI RS resource configuration identified by the same CSI RS resource setting ID. Alternatively and / or additionally, the CSI RS resource configuration 715 may include a CSI RS resource setting ID 3, which corresponds to (e.g., linked to) a CSI RS resource setting included in a core CSI RS resource configuration identified by the same CSI RS resource setting ID.

[0089] In some examples, the CSI RS resource configuration 715 may include one or more CSI RS resource IDs. The one or more CSI RS resource IDs may correspond to (e.g., linked to) one or more CSI RS resources included in the core CSI RS resource configuration. In some examples, the one or more CSI RS resource IDs included in the CSI RS resource setting may correspond to one or more CSI RS resources that are identified by the same CSI RS ID included in the corresponding CSI RS resource setting identified by the same CSI RS resource setting ID in the core CSI RS resource configuration. For example, CSI RS resource ID 1 and / or CSI RS resource ID 5 included in the CSI RS resource setting identified by CSI RS resource setting ID 1 of the CSI RS resource configuration 715 may correspond to CSI RS resource ID 1 and CSI RS resource ID 5 included in the CSI RS resource setting identified by CSI RS resource setting ID 1 in the core CSI RS resource configuration.

[0090] In some examples, the CSI RS resource configuration 715 may include (e.g., and / or be configured to) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use a cell corresponding to the third layer and / or a cell corresponding to the first layer and / or the second layer (e.g., and / or manage and / or perform RRM measurements based thereon) based on the CSI RS resource configuration 715 (e.g., and / or measurement object). In some examples, the core CSI RS resource configuration may include (e.g., and / or be configured to) a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or a high-layer CSI RS resource configuration for the third layer. Therefore, the wireless node may (e.g., be configured to) use a cell corresponding to the first layer and / or the second layer and / or a cell corresponding to the third layer (e.g., and / or manage and / or perform RRM measurements based thereon) based on the core CSI RS resource configuration. In some examples, the CSI RS resource configuration 715 may include a core CSI RS resource configuration.

[0091] Figure 8 An example of a data structure 800 is shown for a measurement object identified as measurement object ID 1 805. The measurement object may include information 810 and / or a CSI RS resource configuration 815.

[0092] The CSI RS resource configuration 815 may include a CSI RS resource setting ID 1 corresponding to (e.g., linked to) a CSI RS resource setting included within the core CSI RS resource configuration. In some examples, the CSI RS resource configuration 815 may include a CSI RS resource ID 2 corresponding to (e.g., linked to) a CSI RS resource included within the CSI RS resource setting.

[0093] In some examples, the CSI RS resource configuration 815 may include (e.g., and / or be configured to) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use the cell corresponding to the third layer and / or the cell corresponding to the first layer and / or the second layer based on the CSI RS resource configuration 815 (e.g., and / or the measurement object) (e.g., and / or manage and / or perform RRM measurements based thereon). In some examples, the core CSI RS resource configuration may include (e.g., and / or be configured to) a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or a high-layer CSI RS resource configuration for the third layer. Therefore, the wireless node may (e.g., be configured to) use the cell corresponding to the first layer and / or the second layer and / or the cell corresponding to the third layer based on the core CSI RS resource configuration (e.g., and / or manage and / or perform RRM measurements based thereon).

[0094] In some examples, the CSI RS resource configuration 815 may include one or more modification configurations. The modification configuration may include one or more overlay and / or additional CSI RS resource configurations. For example, the CSI RS resource configuration 815 may include a modification configuration corresponding to CSI RS resource ID 2. The wireless node may modify the CSI RS resources contained within the core CSI RS resource configuration based on the modification configuration (e.g., to generate the CSI RS resource configuration 815). Thus, the CSI RS resource configuration 815 may correspond to a modified version of the core CSI RS resource configuration.

[0095] In some examples, the modification configuration may include coverage information including one or more modification parameters. The one or more modification parameters may correspond to one or more parameters of CSI RS resource information of the CSI RS resource. For example, a modification parameter having a first value may correspond to a parameter of the CSI RS resource information having a second value. Thus, the wireless node may modify the CSI RS resource information (e.g., and / or the core RS resource configuration) by modifying (e.g., changing) the second value of the CSI RS resource information to the first value.

[0096] For example, the CSI RS resource information may include at least one of: a first parameter including the number of antenna ports; a second parameter including a configuration for time / frequency resource mapping; a third parameter including a timing configuration (e.g., time offset and / or periodicity), a parameter for sequence generation, and / or other parameters. Alternatively and / or additionally, modifying the configuration may include: a first modification parameter including a configuration for time / frequency resource mapping, and / or a second modification parameter including a timing configuration. Therefore, the wireless node may modify the CSI RS resource information by modifying the value of the second parameter (e.g., the configuration for time / frequency resource mapping) to the value of the first modification parameter (e.g., corresponding to the second parameter). Alternatively and / or additionally, the wireless node may modify the CSI RS resource information by modifying the value of the third parameter (e.g., the timing configuration) to the value of the second modification parameter (e.g., corresponding to the third parameter).

[0097] Fig. 9 An example of a data structure 900 of a measurement object identified as measurement object ID 1 905 is shown. The measurement object may include information 910 and / or a CSI RS resource configuration 915.

[0098] The CSI RS resource configuration 915 may include a CSI RS resource ID 1, which corresponds to (e.g., is linked to) a first CSI RS resource included in the core CSI RS resource configuration. Alternatively and / or additionally, the CSI RS resource configuration 915 may include a CSI RS resource ID 2, which corresponds to (e.g., is linked to) a second CSI RS resource included in the core CSI RS resource configuration. Alternatively and / or additionally, the CSI RS resource configuration 915 may include a CSI RS resource ID 4, which corresponds to (e.g., is linked to) a third CSI RS resource included in the core CSI RS resource configuration.

[0099] In some examples, the CSI RS resource configuration 915 may include (e.g., and / or be configured as) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use the cell corresponding to the third layer and / or the cell corresponding to the first layer and / or the second layer based on the CSI RS resource configuration 915 (e.g., and / or the measurement object) (e.g., and / or manage and / or perform RRM measurements based thereon). In some examples, the core CSI RS resource configuration may include (e.g., and / or be configured as) a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or a high-layer CSI RS resource configuration for the third layer. Therefore, the wireless node may (e.g., be configured to) use the cell corresponding to the first layer and / or the second layer and / or the cell corresponding to the third layer based on the core CSI RS resource configuration (e.g., and / or manage and / or perform RRM measurements based thereon).

[0100] In some examples, the CSI RS resource configuration 915 may include one or more modification configurations. The modification configuration may include one or more overlay and / or additional CSI RS resource configurations. For example, the CSI RS resource configuration 915 may include a first modification configuration corresponding to CSI RS resource ID 2 (e.g., and / or corresponding to a second CSI RS resource). The wireless node may modify the second CSI RS resource included in the core CSI RS resource configuration based on the first modification configuration (e.g., to generate the CSI RS resource configuration 915). Alternatively and / or additionally, the CSI RS resource configuration 915 may include a second modification configuration corresponding to CSI RS resource ID 4 (e.g., and / or corresponding to a third CSI RS resource). The wireless node may modify the third CSI RS resource included in the core CSI RS resource configuration based on the second modification configuration (e.g., to generate the CSI RS resource configuration 915). Thus, the CSI RS resource configuration 915 may correspond to a modified version of the core CSI RS resource configuration.

[0101] In some examples, the first modification configuration may include coverage information including one or more modification parameters. For example, the first modification configuration may include a first modification parameter (e.g., a configuration for time / frequency resource mapping) corresponding to a first parameter (e.g., a configuration for time / frequency resource mapping) of the second CSI RS resource. Thus, the wireless node may modify the second CSI RS resource information by modifying (e.g., changing) the value of the first parameter to the value of the first modification parameter. Alternatively and / or additionally, the first modification configuration may include a second modification parameter (e.g., a timing configuration) corresponding to a second parameter (e.g., a timing configuration) of the second CSI RS resource information. Thus, the wireless node may modify the second CSI RS resource information by modifying (e.g., changing) the value of the second parameter to the value of the second modification parameter.

[0102] In some examples, the second modification configuration may include coverage information including one or more modification parameters. For example, the second modification configuration may include a third modification parameter (e.g., the number of antenna ports) corresponding to a third parameter (e.g., the number of antenna ports) of the third CSI RS resource information of the third CSI RS resource. Therefore, the wireless node may modify the third CSI RS resource information by modifying (e.g., changing) the value of the third parameter to the value of the third modification parameter. Alternatively and / or additionally, the second modification configuration may include a fourth modification parameter (e.g., a configuration for time / frequency resource mapping) corresponding to a fourth parameter (e.g., a configuration for time / frequency resource mapping) of the third CSI RS resource information. Therefore, the wireless node may modify the third CSI RS resource information by modifying (e.g., changing) the value of the fourth parameter to the value of the fourth modification parameter.

[0103] Therefore, the wireless node can modify the second CSI RS resource information of the second CSI RS resource (e.g., identified by CSI RS resource ID 2) and / or the third CSI RS resource information of the third CSI RS resource (e.g., identified by CSI RS resource ID 4) without modifying the first CSI RS resource information of the first CSI RS resource (e.g., identified by CSI RS resource ID 1).

[0104] Fig.10 An example of a data structure 1000 is shown for a measurement object identified as measurement object ID 1 1005. The measurement object may include information 1010 and / or a CSI RS resource configuration 1015. The CSI RS resource configuration 1015 may include a CSI RS resource ID 1 corresponding to (e.g., linked to) a CSI RS resource included within a core CSI RS resource configuration.

[0105] In some examples, the CSI RS resource configuration 1015 may include (e.g., and / or be configured to) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use the cell corresponding to the third layer and / or the cell corresponding to the first layer and / or the second layer based on the CSI RS resource configuration 1015 (e.g., and / or the measurement object) (e.g., and / or manage and / or perform RRM measurements based thereon). In some examples, the core CSI RS resource configuration may include (e.g., and / or be configured to) a low-layer CSI RS resource configuration for the first layer and / or the second layer and / or a high-layer CSI RS resource configuration for the third layer. Therefore, the wireless node may (e.g., be configured to) use the cell corresponding to the first layer and / or the second layer and / or the cell corresponding to the third layer based on the core CSI RS resource configuration (e.g., and / or manage and / or perform RRM measurements based thereon).

[0106] In some examples, the CSI RS resource configuration 1015 may include one or more modification configurations. The modification configuration may include one or more overlay and / or additional CSI RS resource configurations. For example, the CSI RS resource configuration 1015 may include a modification configuration corresponding to CSI RS resource ID 1 (e.g., and / or corresponding to a CSI RS resource). The wireless node may modify the CSI RS resource within the core CSI RS resource configuration based on the modification configuration (e.g., to generate the CSI RS resource configuration 1015). Thus, the CSI RS resource configuration 1015 may correspond to a modified version of the core CSI RS resource configuration.

[0107] The CSI RS resource information of the CSI RS resource may include one or more parameters corresponding to one or more values. The modification configuration may include override information including one or more modification parameters corresponding to the one or more modification values ​​(e.g., corresponding to the one or more parameters). The wireless node may modify the CSI RS resource information by modifying (e.g., and / or changing) one or more values ​​(e.g., each of them) (e.g., all of them) corresponding to the one or more parameters to one or more modification values ​​corresponding to the one or more modification parameters.

[0108] Fig.11An example of a data structure 1100 of a measurement object identified as measurement object ID 1 1105 is shown. The measurement object may include information 1110, a core CSI RS resource configuration 1115, a first cell CSI RS resource configuration 1125 (identified as cell ID 1 1120), and / or a second cell CSI RS resource configuration 1135 (identified as cell ID 2 1130).

[0109] In some examples, information 1110 includes at least one of: carrier frequency, measurement bandwidth, timing configuration (e.g., time offset and / or periodicity), information of antenna ports, and / or other information (e.g., and / or parameters). In some examples, at least one of core CSI RS resource configuration 1115, first cell CSI RS resource configuration 1125, and / or second cell CSI RS resource configuration 1135 may correspond to a carrier frequency.

[0110] In some examples, the core CSI RS resource configuration 1115 may include (e.g., and / or be configured to) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use a cell corresponding to the third layer and / or a cell corresponding to the first layer and / or the second layer (e.g., and / or manage and / or perform RRM measurements based thereon) based on the core CSI RS resource configuration 1115 (e.g., and / or measurement objects).

[0111] The core CSI RS resource configuration 1115 may include one or more CSI RS resource settings. Therefore, the core CSI RS resource configuration 1115 may include a first CSI RS resource setting identified as CSI resource setting ID 1 and / or a second CSI RS resource setting identified as CSI resource setting ID 2. The first CSI RS resource setting and / or the second CSI RS resource setting may include one or more CSI RS resources. Therefore, the first CSI RS resource setting may include a first CSI RS resource identified as CSI RS resource ID 1, and / or the second CSI RS resource setting may include a second RS resource identified as CSI RS resource ID 1. The first CSI RS resource may be configured with first CSI RS resource information and / or the second CSI RS resource may be configured with second CSI RS resource information.

[0112] The first cell CSI RS resource configuration 1125 may correspond to the cell corresponding to the cell ID 1 1120. The first cell CSI RS resource configuration 1125 may include a CSI RS resource setting ID 1 corresponding to (e.g., linked to) a first CSI RS resource setting within the core CSI RS resource configuration 1115. The first cell CSI RS resource configuration 1125 may include a CSI RS resource ID 1 of a first CSI RS resource corresponding to (e.g., linked to) a first CSI RS resource setting within the core CSI RS resource configuration 1115.

[0113] The second cell CSI RS resource configuration 1135 may correspond to the cell corresponding to the cell ID 2 1130. The second cell CSI RS resource configuration 1135 may include a CSI RS resource setting 2 corresponding to (e.g., linked to) a second CSI RS resource setting within the core CSI RS resource configuration 1115. The second cell CSI RS resource configuration 1135 may include a CSI RS resource ID 1 of a first CSI RS resource corresponding to (e.g., linked to) a second CSI RS resource setting within the core CSI RS resource configuration 1115.

[0114] In some examples, the first cell CSI RS resource configuration 1125 and / or the second cell CSI RS resource configuration 1135 may include (e.g., and / or be configured to) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use (e.g., and / or manage and / or perform RRM measurements based on) the cell corresponding to the third layer and / or the cell corresponding to the first layer and / or the second layer based on the first cell CSI RS resource configuration 1125 and / or the second cell CSI RS resource configuration 1135 (e.g., and / or measurement objects).

[0115] In some examples, the first cell CSI RS resource configuration 1125 may include a modified configuration corresponding to the first CSI RS resource. The modified configuration may include one or more overlay and / or additional CSI RS resource configurations. The wireless node may modify the first CSI RS resource within the core CSI RS resource configuration 1115 based on the modified configuration (e.g., to generate the first cell CSI RS resource configuration 1125). Thus, the first cell CSI RS resource configuration 1125 may correspond to a modified version of the core CSI RS resource configuration 1115.

[0116] In some examples, the modification configuration may include overlay information including one or more modification parameters. For example, the modification configuration may include a first modification parameter (e.g., a configuration for time / frequency resource mapping) corresponding to a first parameter (e.g., a configuration for time / frequency resource mapping) of the first CSI RS resource information. Thus, the wireless node may modify the first CSI RS resource information by modifying (e.g., changing) the value of the first parameter to the value of the first modification parameter. Alternatively and / or additionally, the modification configuration may include a second modification parameter (e.g., a timing configuration) corresponding to a second parameter (e.g., a timing configuration) of the first CSI RS resource information. Thus, the wireless node may modify the first CSI RS resource information by modifying (e.g., changing) the value of the second parameter to the value of the second modification parameter.

[0117] Thus, the first cell CSI RS resource configuration 1125 may correspond to a modified version of the core CSI RS resource configuration 1115 , and / or the second cell CSI RS resource configuration 1135 may correspond to an unmodified version of the core CSI RS resource configuration 1115 .

[0118] Fig.12 An example of a data structure 1200 of a measurement object identified as measurement object ID 1 1205 is shown. The measurement object may include information 1210, a first cell CSI RS resource configuration 1220 identified as cell ID 1 1215, a second cell CSI RS resource configuration 1230 identified as cell ID 2 1225, and / or a third cell CSI RS resource configuration 1240 identified as cell ID 3 1235.

[0119] In some examples, the information 1210 includes at least one of: a carrier frequency, a measurement bandwidth, a timing configuration (e.g., a time offset and / or a periodicity), information of an antenna port, and / or other information (e.g., and / or or parameters). In some examples, at least one of the first cell CSI RS resource configuration 1220, the second cell CSI RS resource configuration 1230, and / or the third cell CSI RS resource configuration 1240 may correspond to a carrier frequency.

[0120] In some examples, the first cell CSI RS resource configuration 1220 may include (e.g., and / or be configured to) a high-layer CSI RS resource configuration for the third layer and / or a low-layer CSI RS resource configuration for the first layer and / or the second layer. Therefore, the wireless node (e.g., UE) may (e.g., be configured to) use (e.g., and / or manage and / or perform RRM measurements based on) the cell corresponding to the third layer and / or the cell corresponding to the first layer and / or the second layer based on the first cell CSI RS resource configuration 1220 (e.g., and / or measurement object).

[0121] The first cell CSI RS resource configuration 1220 may include one or more CSI RS resource settings, which include one or more CSI resources. Therefore, the first cell CSI RS resource configuration 1220 may include a CSI RS resource setting identified as CRS resource setting ID 1 and / or a CSI RS resource identified as CSI RS resource ID 1.

[0122] Fig.13A An example of a system 1300A for multiple cells corresponding to multiple cell CSI RS resource configurations is shown. The multiple cell CSI RS resource configurations may correspond to (e.g., specific and / or defined) frequencies. The system 1300A may be applied to Fig.12 The data structure 1200 is shown. A first cell CSI RS resource configuration 1220 corresponding to the first cell 1 1035A among the plurality of cell CSI RS resource configurations may correspond to (eg, serve) a core CSI RS resource configuration.

[0123] In some examples, the first cell CSI RS configuration 1220 may represent a reference configuration for one or more cell CSI RS resource configurations (e.g., other than the first cell CSI RS resource configuration 1220) of the plurality of cell CSI RS resource configurations. The one or more cell CSI RS resource configurations may include a second cell CSI RS resource configuration 1230 corresponding to the second cell 2 1310A, and / or a third cell CSI RS resource configuration 1240 corresponding to the third cell 3 1315A. Thus, the second cell CSI RS resource configuration 1230 may include a CSI RS resource setting ID 1 corresponding to (e.g., linked to) the CSI RS resource setting of the first cell CSI RS configuration 1220, and / or a CSI RS resource ID 1 corresponding to (e.g., linked to) the CSI RS resource of the first cell CSI RS configuration 1220. The third cell RS resource configuration 1240 may include resource setting ID 1 corresponding to (eg, linked to) a CSI RS resource setting and / or CSI RS resource ID 1 corresponding to (eg, linked to) a CSI RS resource (eg, corresponding to the first cell CSI RS resource configuration 1220).

[0124] In some examples, the second cell CSI RS resource configuration 1230 may include a modified configuration corresponding to the CSI RS resource. The modified configuration may include one or more overlay and / or additional CSI RS resource configurations. The wireless node may modify the CSI RS resource within the first cell CSI RS resource configuration 1220 based on the modified configuration (e.g., to generate the second cell CSI RS resource configuration 1230). Thus, the second cell CSI RS resource configuration 1230 may correspond to a modified version of the first cell CSI RS resource configuration 1220. The third cell CSI RS resource configuration 1240 may correspond to an unmodified version of the first cell CSI RS resource configuration 1220.

[0125] Fig. 13B An example of a system 1300B for multiple cells corresponding to multiple cell CSI RS resource configurations is shown. The multiple cell CSI RS resource configurations may correspond to (e.g., specific and / or defined) frequencies. In some examples, a cell CSI RS resource configuration in the multiple cell CSI RS resource configurations may represent a configuration reference for (e.g., no more than) one (e.g., next and / or subsequent) cell CSI RS resource configuration in the multiple cell CSI RS resource configurations. The system 1300B may be applied to Fig.12The data structure 1200 is shown. The first cell CSI RS resource configuration 1220 corresponding to the first cell 11035B among the multiple cell CSI RS resource configurations may represent a configuration reference of a second cell CSI RS resource configuration 1230 corresponding to the second cell 2 1310B (e.g., the next and / or subsequent) among the multiple cell CSI RS resource configurations. The second cell CSI RS resource configuration 1230 may represent a configuration reference of a third cell CSI RS resource configuration 1240 corresponding to the third cell 3 1315B (e.g., the next and / or subsequent) among the multiple cell CSI RS resource configurations.

[0126] Therefore, the second-cell CSI RS resource configuration 1230 may include: a CSI CSI resource setting ID 1 corresponding to (e.g., linked to) the CSI RS resource setting of the first-cell CSI RS configuration 1220, and / or a CSI RS resource ID 1 corresponding to (e.g., linked to) the CSI RS resource of the first-cell CSI RS configuration 1220. The third-cell RS resource configuration 1240 may include: a resource setting ID 1 corresponding to (e.g., linked to) the second CSI RS resource setting of the second-cell CSI RS resource configuration 1220, and / or a CSI RS resource ID 1 corresponding to (e.g., linked to) the second CSI RS resource of the second-cell CSI RS resource configuration 1230.

[0127] In some examples, the second cell CSI RS resource configuration 1230 may include a modified configuration corresponding to the CSI RS resource. The modified configuration may include one or more overlay and / or additional CSI RS resource configurations. The wireless node may modify the CSI RS resource within the first cell CSI RS resource configuration 1220 based on the modified configuration (e.g., to generate the second cell CSI RS resource configuration 1230). Thus, the second cell CSI RS resource configuration 1230 may correspond to a modified version of the first cell CSI RS resource configuration 1220. The third cell CSI RS resource configuration 1240 may correspond to an unmodified version of the second cell CSI RS resource configuration 1230.

[0128] Fig.14AAn example of a system 1400A for multiple CSI RS resources is shown. Multiple CSI RS resources may correspond to (e.g., specific and / or defined) frequencies and / or cells and / or CSI RS resource settings. Alternatively and / or additionally, multiple CSI RS resources may be included in one or more measurement objects (e.g., and / or cells). Multiple CSI RS resources may include a first CSI RS resource 1 1405A. In some examples, the first CSI RS resource 1 1405A may correspond to (e.g., used as) a core CSI RS resource. In some examples, the first CSI RS resource 1 1405A may represent a configuration reference for one or more CSI RS resources in multiple cell CSI RS resources (e.g., in addition to the first cell CSI RS resource 1 1405A). One or more CSI RS resources may include a second CSI RS resource 2 1410A and / or a third CSI RS resource 3 1415A.

[0129] Fig. 14B An example of a system 1400B for multiple CSI RS resources is shown. Multiple CSI RS resources may correspond to (e.g., specific and / or defined) frequencies and / or cells and / or CSI RS resource settings. Alternatively and / or additionally, multiple CSI RS resources may be included in one or more measurement objects (e.g., and / or cells). In some examples, a CSI RS resource in a plurality of CSI RS resources may represent a configuration reference for (e.g., no more than) one (e.g., the next and / or subsequent) CSI RS resource in a plurality of CSI RS resources. For example, a plurality of CSI RS resources may include a first CSI RS resource 1 1405B. The first CSI RS resource 1 1405B may represent a configuration reference for a (e.g., the next and / or subsequent) second CSI RS resource 2 1410B. The second CSI resource 3 1415B may represent a configuration for a (e.g., the next and / or subsequent) third CSI RS resource 3 1415B.

[0130] Fig.15An example of a data structure 1500 for a core IDLE RS measurement configuration is shown. In some examples, the core IDLE RS measurement configuration may include (e.g., and / or be configured as) an IDLE RS measurement configuration for an IDLE state. Thus, the wireless node (e.g., UE) may then perform a first (e.g., RRM) measurement (e.g., and / or perform cell detection) in the IDLE state based on the core IDLE RS measurement configuration and / or the corresponding cell. Alternatively and / or additionally, the core IDLE RS measurement configuration may include (e.g., and / or be configured as) an IDLE RS measurement configuration for a CONNECTED state. The wireless node may then perform a second (e.g., RRM) measurement (e.g., and / or perform cell detection) in the CONNECTED state based on the core IDLE RS measurement configuration and / or the corresponding cell.

[0131] The core IDLE RS measurement configuration may include one or more carrier frequency IDLE RS measurement configurations. Thus, the core IDLE RS measurement configuration may include a first IDLE RS measurement configuration 1505 corresponding to a first frequency and / or a second IDLE RS measurement configuration 1510 corresponding to a second frequency. The first frequency may be the same as or different from the second frequency.

[0132] The first IDLE RS measurement configuration 1505 may be configured with first IDLE RS information and / or the second IDLE RS measurement configuration 1510 may be configured with second IDLE RS information.

[0133] The first IDLE RS information and / or the second IDLE RS information may include at least one of the following: IDLE RS periodicity, IDLE RS timing window (e.g., timing offset and / or duration), actually sent IDLE RS information and / or other information (e.g., and / or parameters). The first IDLE RS information and / or the second IDLE RS information may include different (e.g., or similar) information.

[0134] In some examples, a core IDLE RS measurement configuration may represent a configuration reference for one or more IDLE RS measurement configurations.

[0135] Fig.16An example of a data structure 1600 of one or more IDLE RS measurement configurations is shown. One or more IDLE RS measurement configurations may include a carrier frequency 1 IDLE RS measurement configuration 1605 corresponding to carrier frequency 1, and / or a carrier frequency 2 IDLE RS measurement configuration 1610 corresponding to carrier frequency 2, and / or a carrier frequency 3 IDLE RS measurement configuration 1615 corresponding to carrier frequency 3. Carrier frequency 1 may correspond to (e.g., linked to) a first frequency of a first IDLE RS measurement configuration included in a core IDLE RS measurement configuration. Carrier frequency 2 may correspond to (e.g., linked to) a second frequency of a second IDLE RS measurement configuration included in a core IDLE RS measurement configuration. The first frequency may be the same as or different from the second frequency. Carrier frequency 3 may correspond to an additional carrier frequency in addition to the first carrier frequency and the second carrier frequency in the core IDLE RS measurement configuration.

[0136] In some examples, carrier frequency 1 IDLE RS measurement configuration 1605 may include a first modified configuration corresponding to the first IDLE RS measurement configuration. The wireless node may modify the first IDLE RS measurement configuration within the core IDLE RS measurement configuration based on the first modified configuration (e.g., to generate carrier frequency 1 IDLE RS measurement configuration 1605). Therefore, carrier frequency 1 IDLE RS measurement configuration 1605 may correspond to a modified version of the first IDLE RS measurement configuration.

[0137] In some examples, the first modification configuration may include coverage information including one or more modification parameters. For example, the first modification configuration may include a first modification parameter (e.g., an IDLE timing window) corresponding to a first parameter (e.g., an IDLE timing window) of the first IDLE RS information of the first IDLE RS measurement configuration. Therefore, the wireless node can modify the first IDLE RS information by modifying (e.g., changing) the value of the first parameter to the value of the first modification parameter.

[0138] In some examples, the carrier frequency 2 IDLE RS measurement configuration 1610 may include a second modified configuration corresponding to the second IDLE RS measurement configuration. The wireless node may modify the second IDLE RS measurement configuration within the core IDLE RS measurement configuration based on the second modified configuration (e.g., to generate the carrier frequency 2 IDLE RS measurement configuration 1610). Therefore, the carrier frequency 2 IDLE RS measurement configuration 1610 may correspond to a modified version of the second IDLE RS measurement configuration.

[0139] In some examples, the second modification configuration may include coverage information including one or more modification parameters. For example, the second modification configuration may include a second modification parameter (e.g., the IDLE RS information actually sent) corresponding to the second parameter of the second IDLE RS information of the second IDLE RS measurement configuration (e.g., the IDLE RS information actually sent). Therefore, the wireless node can modify the second IDLE RS information by modifying (e.g., changing) the value of the second parameter to the value of the second modification parameter.

[0140] In some examples, the third modified configuration may add a third IDLE RS measurement configuration 1615 corresponding to a third frequency (e.g., carrier frequency 3). The third IDLE RS measurement configuration 1615 may be configured with third IDLE RS information. The third IDLE RS information may include at least one of: IDLE RS periodicity, IDLE RS timing window (e.g., timing offset and / or duration), actually transmitted IDLE RS information, and / or other information (e.g., and / or parameters). Therefore, the wireless node may add a third IDLE RS configuration in addition to the first and second IDLE RS configurations.

[0141] In some examples, the carrier frequency 1 IDLE RS measurement configuration 1605 and / or the carrier frequency 2 IDLE RS measurement configuration 1610 may include (e.g., and / or be configured as) an IDLE RS measurement configuration for an IDLE state. Therefore, the wireless node (e.g., UE) may then perform a first (e.g., RRM) measurement (e.g., and / or perform cell detection) in the IDLE state based on the carrier frequency 1 IDLE RS measurement configuration 1605, the frequency 2 IDLE RS measurement configuration 1610, and / or the corresponding cell. Alternatively and / or in addition, the carrier frequency 1 IDLE RS measurement configuration 1605 and / or the carrier frequency 2 IDLE RS measurement configuration 1610 may include (e.g., and / or be configured as) an IDLE RS measurement configuration for a CONNECTED state. Then, the wireless node may perform a second (e.g., RRM) measurement (e.g., and / or perform cell detection) in the CONNECTED state based on the carrier frequency 1 IDLE RS measurement configuration 1605, the carrier frequency 2 IDLE RS measurement configuration 1610, and / or the corresponding cell.

[0142] Fig.17An example of a data structure 1700 is shown for a core IDLE RS measurement configuration 1705 and / or a cell IDLE RS measurement configuration 1710 identified as cell ID 1. The cell IDLE RS measurement configuration 1710 may correspond to carrier frequency 1, which corresponds to (eg, is linked to) the frequency of the core IDLE RS measurement configuration 1705.

[0143] In some examples, the cell IDLE RS measurement configuration 1710 may include a modified configuration corresponding to the core IDLE RS measurement configuration 1705. The wireless node may modify the core IDLE RS measurement configuration 1705 based on the modified configuration (e.g., to generate the cell IDLE RS measurement configuration 1710). Thus, the cell IDLE RS measurement configuration 1710 may correspond to a modified version of the core IDLE RS measurement configuration 1705.

[0144] In some examples, the modification configuration may include coverage information including one or more modification parameters. For example, the modification configuration may include modification parameters (e.g., the IDLE RS information actually sent) corresponding to the parameters of the core IDLE RS information of the core IDLE RS measurement configuration 1705 (e.g., the IDLE RS information actually sent). Therefore, the wireless node can modify the core IDLE RS information by modifying (e.g., changing) the value of the parameter to the value of the modification parameter.

[0145] In some examples, the core IDLE RS measurement configuration 1705 and / or the cell IDLE RS measurement configuration 1710 may include (e.g., and / or be configured as) an IDLE RS measurement configuration for an IDLE state. Therefore, the wireless node (e.g., UE) may then perform a first (e.g., RRM) measurement (e.g., and / or perform cell detection) in the IDLE state based on the core IDLE RS measurement configuration 1705, the cell IDLE RS measurement configuration 1710, and / or the corresponding cell. Alternatively and / or additionally, the core IDLE RS measurement configuration 1705 and / or the cell IDLE RS measurement configuration 1710 may correspond to (e.g., and / or be configured as) an IDLE RS measurement configuration for a CONNECTED state. Then, the wireless node may perform a second (e.g., RRM) measurement (e.g., and / or perform cell detection) in the CONNECTED state based on the core IDLE RS measurement configuration 1705, the cell IDLE RS measurement configuration 1710, and / or the corresponding cell.

[0146] Fig.18An example of a data structure 1800 is shown of a first cell IDLE RS measurement configuration 1810 identified as cell ID 1, a second cell IDLE RS measurement configuration 1815 identified as cell ID 2, and / or a third cell IDLE RS measurement configuration 1820 identified as cell ID 3. The first cell IDLE RS measurement configuration 1810, the second cell IDLE RS measurement configuration 1815, and / or the third cell IDLE RS measurement configuration 1820 may correspond to carrier frequency 1 1805.

[0147] Fig.19A An example of a system 1900A for multiple cells corresponding to multiple cell IDLE RS measurement configurations is shown. The multiple cell IDLE RS measurement configurations may correspond to (e.g., specific and / or defined) frequencies. The system 1900A may be applied to Fig.18 The data structure 1800 is shown. A first cell IDLE RS measurement configuration 1810 corresponding to the first cell 1 1905A among the plurality of cell IDLE RS measurement configurations may correspond to (eg, be used as) a core IDLE RS measurement configuration.

[0148] In some examples, the first cell IDLE RS measurement configuration 1810 may represent a configuration reference of one or more cell IDLE RS measurement configurations in a plurality of cell IDLE RS measurement configurations (e.g., different from the first cell IDLE RS measurement configuration 1810). The one or more cell IDLE RS measurement configurations may include a second cell IDLE RS measurement configuration 1815 corresponding to the second cell 2 1910A, and / or a third cell IDLE RS measurement configuration 1820 corresponding to the third cell 3 1915A. Therefore, the second cell IDLE RS measurement configuration 1815 may correspond to (e.g., be linked to) the first cell IDLE RS measurement configuration 1810. Alternatively and / or additionally, the third cell IDLE RS measurement configuration 1820 may correspond to (e.g., be linked to) the first cell IDLE RS measurement configuration 1810.

[0149] In some examples, the second cell IDLE RS measurement configuration 1815 may include a first modified configuration corresponding to the first cell IDLE RS measurement configuration 1810. The wireless node may modify the first cell IDLE RS measurement configuration 1810 based on the first modified configuration (e.g., to generate the second cell IDLE RS measurement configuration 1815). Thus, the second cell IDLE RS measurement configuration 1815 may correspond to a modified version of the first cell IDLE RS measurement configuration 1810. The third cell IDLE RS 1820 configuration may correspond to an unmodified version of the first cell IDLE RS measurement configuration 1810.

[0150] Fig.19B An example of a system 1900B for multiple cells corresponding to multiple cell IDLE RS measurement configurations is shown. The multiple cell IDLE RS measurement configurations may correspond to (e.g., specific and / or defined) frequencies. In some examples, a cell IDLE RS measurement configuration in the multiple cell IDLE RS measurement configurations may represent a configuration reference for (e.g., no more than) one (e.g., next and / or subsequent) cell IDLE RS measurement configuration of the multiple cell IDLE RS measurement configurations. System 1900B may be applied to Fig.18 The data structure 1800 is shown. A first cell IDLE RS measurement configuration 1810 corresponding to the first cell 1 1905B among the multiple cell IDLE RS measurement configurations may represent a configuration reference for a second cell IDLE RS measurement configuration 1815 corresponding to the second cell 2 1910B among the multiple cell IDLE RS measurement configurations. The second cell IDLE RS measurement configuration 1815 may represent a configuration reference for a third cell IDLE RS measurement configuration 1820 corresponding to (e.g., the next and / or subsequent) a third cell IDLE RS measurement configuration 1820 among the multiple cell IDLE RS measurement configurations corresponding to the third cell 3 1915B.

[0151] In some examples, the second cell IDLE RS measurement configuration 1815 may include a second modified configuration corresponding to the first cell IDLE RS measurement configuration 1810. The wireless node may modify the first cell IDLE RS measurement configuration 1810 based on the second modified configuration (e.g., to generate the second cell IDLE RS measurement configuration 1815). Thus, the second cell IDLE RS measurement configuration 1815 may correspond to a modified version of the first cell IDLE RS measurement configuration 1810. The third cell IDLE RS 1820 configuration may correspond to an unmodified version of the second cell IDLE RS measurement configuration 1815.

[0152] Fig. 20A schematic architectural diagram 2000 of a base station 2050 (e.g., a node) that can utilize at least a portion of the techniques provided herein is presented. Such a base station 2050 can vary widely in configuration and / or capabilities (alone or in combination with other base stations, nodes, terminal units, and / or servers, etc.) to provide services, such as at least some of one or more of the more other disclosed techniques, scenarios, etc. For example, the base station 2050 can connect one or more user equipment (UE) to a (e.g., wireless and / or wired) network (e.g., which can be connected to and / or include one or more other base stations), such as a code division multiple access (CDMA) network, a time division multiple access (TDMA) network, a frequency division multiple access (FDMA) network, an orthogonal FDMA (OFDMA) network, a single carrier FDMA (SC-FDMA) network, etc. The network may implement a radio technology such as Universal Terrestrial Radio Access (UTRA), CDMA2000, Global System for Mobile Communications (GSM), Evolved UTRA (E-UTRA), IEEE 802.11, IEEE 802.16, IEEE802.20, Flash-OFDM, etc. The base station 2050 and / or the network may communicate using a standard such as Long Term Evolution (LTE).

[0153] The base station 2050 may include one or more (e.g., hardware) processors 2010 that process instructions. The one or more processors 2010 may optionally include multiple cores; one or more coprocessors, such as a math coprocessor or an integrated graphics processing unit (GPU); and / or one or more layers of local cache memory. The base station 2050 may include a memory 2002 that stores various forms of application programs, such as an operating system 2004; one or more base station applications 2006; and / or various forms of data, such as a database 2008 and / or a file system. The base station 2050 may include various peripheral components, such as a wired and / or wireless network adapter 2014 that can be connected to a local area network and / or a wide area network; one or more storage components 2016, such as a hard drive, a solid state storage device (SSD), a flash memory device, and / or a magnetic and / or optical disk reader; and / or other peripheral components.

[0154] The base station 2050 may include a mainboard featuring one or more communication buses 2012 that interconnect the processor 2010, memory 2002, and / or various peripheral devices using various bus technologies (such as variations of the serial or parallel AT attachment (ATA) bus protocol; the unified serial bus (USB) protocol; and / or the small computer system interface (SCI) bus protocol). In a multi-bus scenario, the communication bus 2012 may interconnect the base station 2050 with at least one other server. Other components that are optionally included in the base station 2050 (although not included in the description) may include: Fig. 202000 ) includes a display; a display adapter such as a graphics processing unit (GPU); input peripherals such as a keyboard and / or a mouse; and / or a flash memory device that can store a basic input / output system (BIOS) routine (which helps boot the base station 2050 to a ready state), etc.

[0155] The base station 2050 can operate in a variety of physical enclosures, such as a desktop or tower, and / or can be integrated with a display as an "all-in-one" device. The base station 2050 can be mounted horizontally and / or mounted in a cabinet or rack, and / or can simply include a set of interconnected components. The base station 2050 can include a dedicated and / or shared power supply 2018, which provides and / or regulates power for other components. The base station 2050 can provide power to another base station and / or server and / or other equipment and / or receive power from it. The base station 2050 may include a shared and / or dedicated climate control unit 2020, which regulates climate characteristics, such as temperature, humidity and / or airflow. Many such base stations 2050 can be configured and / or adapted to utilize at least a portion of the technology presented herein.

[0156] Fig.21 A schematic architectural diagram 2100 of a user equipment (UE) 2150 (such as a node) is presented, based on which at least a portion of the technology presented herein can be implemented. Such a UE 2150 can vary greatly in configuration and / or capabilities to provide a variety of functions to a user. The UE 2150 can be provided in various forms, such as a mobile phone (such as a smart phone); a desktop or tower workstation; an "all-in-one" device integrated with a display 2108; a laptop, a tablet, a convertible tablet, or a handheld device; a wearable device (such as one that can be installed in headphones, glasses, earbuds, and / or watches, and / or integrated with clothing); and / or a component of a piece of furniture, such as a desktop, and / or other devices such as a vehicle or a residence. The UE 2150 can serve a user in various roles, such as a phone, a workstation, a self-service terminal, a media player, a gaming device, and / or a home appliance.

[0157] UE 2150 may include one or more (such as hardware) processors 2110 that process instructions. The one or more processors 2110 may optionally include multiple cores; one or more coprocessors such as a math coprocessor or an integrated graphics processing unit (GPU); and / or one or more layers of local cache memory. UE 2150 may include a memory 2101 that stores various forms of applications, such as an operating system 2103; one or more user applications 2102, such as document applications, media applications, file and / or data access applications, communication applications, such as web browsers and / or email clients, utilities and / or games; and / or drivers for various peripheral devices. UE 2150 may include various peripheral components, such as a wired and / or wireless network adapter 2106 that can be connected to a local area network and / or a wide area network; one or more output components, such as a display 2108 coupled to a display adapter (optionally including a graphics processing unit (GPU)), a sound adapter coupled to a speaker, and / or a printer; an input device for receiving input from a user, such as a keyboard 2111, a mouse, a microphone, a camera, and / or a touch-sensitive component of the display 2108; and / or an environmental sensor, such as a GPS receiver 2119 that detects the position, speed, and / or acceleration of UE 2150, a compass, an accelerometer, and / or a gyroscope that detects the physical orientation of UE 2150. UE 2150 may optionally include a wireless network interface (UE) 2106, although not shown in the figure. Fig.21 Other components of the UE 2150 (shown in the schematic architecture diagram 2100) include one or more storage components, such as a hard drive, a solid-state storage device (SSD), a flash memory device, and / or a magnetic disk and / or optical disk reader; a flash memory device that can store basic input / output system (BIOS) routines (which helps boot the UE 2150 to a ready state); and / or a climate control unit that adjusts climate characteristics such as temperature, humidity, and airflow.

[0158] UE 2150 may include a motherboard featuring one or more communication buses 2112 that interconnect processor 2110, memory 2101, and / or various peripherals using various bus technologies (such as variations of serial or parallel AT attachment (ATA) bus protocols; unified serial bus (USB) protocols; and / or small computer system interface (SCI) bus protocols). UE 2150 may include dedicated and / or shared power supplies 2118 that supply and / or regulate power for other components, and / or a battery 2104 that stores power for use when UE 2150 is not connected to a power source via power supply 2118. UE 2150 may provide power to and / or receive power from other client devices.

[0159] Fig. 22is an illustration of a scenario 2200 involving an exemplary non-transitory computer-readable medium 2202. The non-transitory computer-readable medium 2202 may include processor-executable instructions 2212 that, when executed by a processor 2216, cause execution (such as, execution by the processor 2216) of at least some of the provisions herein. The non-transitory computer-readable medium 2202 may include a memory semiconductor (such as, a semiconductor utilizing static random access memory (SRAM), dynamic random access memory (DRAM), and / or synchronous dynamic random access memory (SDRAM) technology), a platter of a hard drive, a flash memory device, or a magnetic or optical disk (such as a compact disk (CD), a digital versatile disk (DVD), and / or a floppy disk). The exemplary non-transitory computer-readable medium 2202 stores computer-readable data 2204 that, when read 2206 by a reader 2210 of a device 2208 (such as, a read head of a hard drive or a read operation invoked on a solid-state storage device), represents the computer-readable data 2204. In some embodiments, processor executable instructions 2212, when executed, cause performance of operations such as, for example, Figure 1A Example method 100A, example Figure 1B Method 100B, Figure 1C In some embodiments, the processor executable instructions 2212 are configured to cause implementation of systems and / or scenarios, such as Figure 2 Example system 200, Figure 3 Example system 300, Figure 4 Example system 400, and Figure 5 An example system corresponding to the data structure 500 of Figure 6 An example system corresponding to the data structure 600 of Figure 7 An example system corresponding to the data structure 700 of Figure 8 An example system corresponding to the data structure 800 of Fig. 9 An example system corresponding to the data structure 900 of Fig.10 An example system corresponding to the data structure 1000 of Fig.11 An example system corresponding to the data structure 1100 of Fig.12 An example system corresponding to the data structure 1200, Fig.13A Example system 1300A, Fig. 13B Example system 1300B, Fig.14A Example system 1400A, Fig. 14B Example system 1400B, with Fig.15 An example system corresponding to the data structure 1500 of Fig.16 An example system corresponding to the data structure 1600 of Fig.17Example system corresponding to the data structure 1700 of Fig.18 An example system corresponding to the data structure 1800, Fig.19A Example system 1900A and / or Fig.19B At least some of the example system 1900B.

[0160] As used in this application, "component", "module", "system", "interface" and / or the like are generally intended to refer to a computer-related entity, either hardware, a combination of hardware and software, or software in execution. For example, a component can be, but is not limited to, a process running on a processor, a processor, an object, an executable file, a thread of execution, a program and / or a computer. For example, an application running on a controller and the controller can both be components. One or more components can reside within a process and / or thread of execution, and a component can be located on one computer and / or distributed between two or more computers (such as nodes).

[0161] Unless otherwise specified, "first," "second," and / or the like are not intended to imply a temporal aspect, a spatial aspect, an order, etc. Rather, these terms are merely used as identifiers, names, etc. of features, elements, items, etc. For example, a first object and a second object generally correspond to object A and object B or two different or two identical objects or equivalent objects.

[0162] In addition, "example" is used herein to mean used as an example, illustration, etc., and is not necessarily advantageous. As used herein, "or" is intended to mean an inclusive "or" rather than an exclusive "or". In addition, "a" and "an" used in this application are generally interpreted to mean "one or more" unless otherwise specified or clearly directed to the singular form from the context. In addition, at least one of A and / or B, etc. generally means A or B or both A and B. In addition, to the extent that "including", "having", "with", "having" and / or variations thereof are used in the specification or claims, these terms are intended to be included in a manner similar to the term "comprising".

[0163] Although the subject matter has been described in language specific to structural features and / or methodological acts, it should be understood that the subject matter defined in the appended claims is not necessarily limited to the specific features or acts described above. Instead, the specific features and acts described above are disclosed as example forms of implementing at least some of the claims.

[0164] In addition, the claimed subject matter can be implemented as a method, apparatus, or article of manufacture using standard programming and / or engineering techniques to produce software, firmware, hardware, or any combination thereof to control a computer (such as a node) to implement the disclosed subject matter. The term "article of manufacture" as used herein is intended to encompass a computer program accessible from any computer-readable device, carrier, or medium. Of course, many modifications may be made to this construction without departing from the scope or spirit of the claimed subject matter.

[0165] Various operations of embodiments and / or examples are provided herein. The order of some or all operations described herein should not be interpreted as implying that these operations must rely on order. Those skilled in the art who benefit from this specification will understand that alternative sequencing is possible. In addition, it should be understood that not all operations must be present in each embodiment and / or example provided herein. Moreover, it should be understood that not all operations are necessary in some embodiments and / or examples.

[0166] In addition, although the present disclosure has been shown and described with respect to one or more embodiments, equivalent changes and modifications will occur to those skilled in the art based on the reading and understanding of this specification and the accompanying drawings. The present disclosure includes all such modifications and changes and is limited only by the scope of the appended claims. In particular, with respect to the various functions performed by the above-mentioned components (such as, elements, resources, etc.), unless otherwise specified, the terms used to describe these components are intended to correspond to any component that performs the specified functions (such as, functionally equivalent) of the described components, although the structure is not structurally equivalent to the disclosed structure. In addition, although specific features of the present disclosure may be disclosed only with respect to one of several embodiments, such features may be combined with one or more other features of other embodiments, as may be desired and advantageous for any given or specific application.

Claims

1. A communication method, comprising: Generate core configuration; Generate a modified configuration corresponding to the core configuration; and Send the core configuration and modified configuration to the node, wherein the core configuration includes information; and the modified configuration includes overlay information corresponding to the information, the overlay information being able to overlay at least some of the information included in the core configuration, wherein the information includes a low-layer configuration corresponding to at least one of the first layer or the second layer; and The modified configuration represents a high-level configuration corresponding to the third layer.

2. The method according to claim 1, wherein The core configuration represents a configuration reference of a lower layer configuration corresponding to at least one of the first layer or the second layer.

3. The method according to claim 2, comprising: generating a second modified configuration corresponding to the core configuration, the second modified configuration representing a low-level configuration; and Send the second modified configuration to the node.

4. The method according to claim 1, wherein The core configuration represents a configuration reference of an idle state measurement configuration corresponding to an idle state and a connected state measurement configuration corresponding to a connected state.

5. The method according to claim 4, comprising: generating a second modified configuration corresponding to the core configuration, the second modified configuration representing an idle state measurement configuration; and The second modified configuration is sent to the node.

6. The method according to claim 1, wherein The core configuration corresponds to a frequency; and The modified configuration corresponds to the frequency.

7. A communication method, comprising: Determine the core configuration; determining a cell configuration corresponding to the cell; determining one or more differences between the core configuration and the cell configuration; generating a modified configuration based on the one or more differences; and Send the core configuration and modified configuration to the node, where The core configuration includes information; and the modified configuration includes overlay information corresponding to the information, the overlay information being capable of overlaying at least some of the information included in the core configuration.

8. The method according to claim 7, wherein The core configuration represents a configuration reference for cell configuration.

9. The method according to claim 7, wherein The core configuration represents a configuration reference of one or more cell configurations corresponding to one or more cells, and the one or more cell configurations correspond to frequencies.

10. The method according to claim 7, wherein The core configuration includes a second cell configuration corresponding to a second cell, and the second cell configuration represents a configuration reference of the cell configuration.

11. The method according to claim 7, wherein The core configuration includes a second cell configuration corresponding to a second cell, the second cell configuration representing a configuration reference of one or more cell configurations corresponding to one or more cells, the one or more cell configurations corresponding to a frequency.

12. The method according to claim 7, wherein The core configuration includes a first high-level configuration corresponding to the third layer; and The modified configuration represents a second higher layer configuration corresponding to the third layer.

13. A communication method, comprising: Receive core configuration and modify configuration from nodes; generating a modified configuration by modifying the core configuration based on the modified configuration; Execute a first action based on the core configuration; and performing a second action according to the modified configuration, The core configuration includes information; the modified configuration includes coverage information corresponding to the information, and the coverage information can cover at least some of the information included in the core configuration, wherein the information includes a low-level configuration corresponding to at least one of the first layer or the second layer, and the modified configuration includes a high-level configuration corresponding to the third layer; The core configuration is modified based on the coverage information.

14. The method according to claim 13, wherein The core configuration represents a configuration reference of a lower layer configuration corresponding to at least one of the first layer or the second layer.

15. The method according to claim 13, wherein The first action includes using at least one of the first layer or the second layer based on the core configuration; The second action includes using a third layer based on the modified configuration.

16. The method according to claim 13, wherein The first action includes performing a first measurement based on a cell corresponding to at least one of the first layer or the second layer according to the core configuration; The second action includes performing a second measurement based on a cell corresponding to a third layer according to the modified configuration.

17. The method according to claim 13, comprising: receiving a second modified configuration; and A second modified configuration is generated by modifying the core configuration based on a second modified configuration.

18. The method according to claim 17, wherein The second modified configuration includes a low-level configuration corresponding to at least one of the first level or the second level; and The first action includes using at least one of the first layer or the second layer based on the second modified configuration.

19. The method according to claim 13, wherein The core configuration represents a configuration reference of an idle state measurement configuration corresponding to an idle state and a connected state measurement configuration corresponding to a connected state.

20. The method of claim 17, wherein The second modified configuration comprises an idle state measurement configuration corresponding to an idle state; and The first action includes performing a first measurement in an idle state based on a second modified configuration.

21. The method according to claim 13, comprising: The information is modified based on the overlay information to generate a modified configuration.

22. The method of claim 13, wherein The core configuration corresponds to a frequency; The modified configuration corresponds to the frequency; and The modified configuration corresponds to the frequency.

23. A communication method, comprising: Receive core configuration and modify configuration from the node, wherein the modified configuration is generated based on one or more differences between the core configuration and the cell configuration; generating a modified configuration by modifying the core configuration based on the modified configuration; Performing a first action based on the core configuration; and performing a second action according to the modified configuration, wherein the core configuration includes information; the modified configuration includes coverage information corresponding to the information, and the coverage information can cover at least some of the information included in the core configuration; The core configuration is modified based on the coverage information.

24. The method according to claim 23, wherein The core configuration represents a configuration reference of one or more configuration cells corresponding to one or more cells, the one or more configuration cells corresponding to a frequency; and The first action includes using the one or more cells based on a core configuration.

25. The method of claim 23, wherein The modified configuration includes a cell configuration corresponding to a cell; and The second action includes using the cell based on the cell configuration.

26. The method of claim 23, wherein The core configuration includes a cell configuration corresponding to a cell, which represents a configuration reference of one or more cell configurations corresponding to one or more cells, the one or more cell configurations corresponding to a frequency; The first action includes using a cell based on a cell configuration; The modified configuration includes a second cell configuration corresponding to a second cell; and The second action includes using a second cell based on a second cell configuration.

27. A communication device comprising: processor; and A memory comprising processor-executable instructions which, when executed by a processor, cause the method of any one of claims 1 to 26 to be performed.

28. A non-transitory computer readable medium having stored thereon processor executable instructions which, when executed, cause performance of the method of any one of claims 1 to 26.

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