381 results about "Forward mode" patented technology

A prediction method, merged method, has been introduced in the enhancement layer of a multiple layer video coding. This merged method was designed to efficiently handle the prediction of the non moving parts in coding of the enhancement layer VOP or frame. All the information for this merged mode prediction is obtained from the base layer, and no additional side information is transmitted. This prediction mode when used together with combination of the existing forward mode, backward mode, and interpolated mode, can improve the coding efficiency for enhancement layer video coding, especially in low bit rate coding. The method can be used in most multiple layer video coding schemes, especially in spatial scalability video coding.

A computer system includes an integrated graphics subsystem and a graphics connector for attaching either an auxiliary graphics subsystem or a loopback card. A first bus connection communicates data from the computer system to the integrated graphics subsystem. With a loopback card in place, data travels from the integrated graphics subsystem back to the computer system via a second bus connection. When the auxiliary graphics subsystem is attached, the integrated graphics subsystem operates in a data forwarding mode. Data is communicated to the integrated graphics subsystem via the first bus connection. The integrated graphics subsystem then forwards data to the auxiliary graphics subsystem. A portion of the second bus connection communicates data from the auxiliary graphics subsystem back to the computer system. The auxiliary graphics subsystem communicates display information back to the integrated graphics subsystem, where it is used to control a display device.

A computer system includes an integrated graphics subsystem and a graphics connector for attaching either an auxiliary graphics subsystem or a loopback card. A first bus connection communicates data from the computer system to the integrated graphics subsystem. With a loopback card in place, data travels from the integrated graphics subsystem back to the computer system via a second bus connection. When the auxiliary graphics subsystem is attached, the integrated graphics subsystem operates in a data forwarding mode. Data is communicated to the integrated graphics subsystem via the first bus connection. The integrated graphics subsystem then forwards data to the auxiliary graphics subsystem. A portion of the second bus connection communicates data from the auxiliary graphics subsystem back to the computer system. The auxiliary graphics subsystem communicates display information back to the integrated graphics subsystem, where it is used to control a display device.

A non-linear dynamic predictive device (60) is disclosed which operates either in a configuration mode or in one of three runtime modes: prediction mode, horizon mode, or reverse horizon mode. An external device controller (50) sets the mode and determines the data source and the frequency of data. In prediction mode, the input data are such as might be received from a distributed control system (DCS) (10) as found in a manufacturing process; the device controller ensures that a contiguous stream of data from the DCS is provided to the predictive device at a synchronous discrete base sample time. In prediction mode, the device controller operates the predictive device once per base sample time and receives the output from the predictive device through path (14). In horizon mode and reverse horizon mode, the device controller operates the predictive device additionally many times during base sample time interval. In horizon mode, additional data is provided through path (52). In reverse horizon mode data is passed in a reverse direction through the device, utilizing information stored during horizon mode, and returned to the device controller through path (66). In the forward modes, the data are passed to a series of preprocessing units (20) which convert each input variable (18) from engineering units to normalized units. Each preprocessing unit feeds a delay unit (22) that time-aligns the input to take into account dead time effects such as pipeline transport delay. The output of each delay unit is passed to a dynamic filter unit (24). Each dynamic filter unit internally utilizes one or more feedback paths that are essential for representing the dynamic information in the process. The filter units themselves are configured into loosely coupled subfilters which are automatically set up during the configuration mode and allow the capability of practical operator override of the automatic configuration settings. The outputs (28) of the dynamic filter units are passed to a non-linear analyzer (26) which outputs a value in normalized units. The output of the analyzer is passed to a post-processing unit (32) that converts the output to engineering units. This output represents a prediction of the output of the modeled process. In reverse horizon mode, a value of 1 is presented at the output of the predictive device and data is passed through the device in a reverse flow to produce a set of outputs (64) at the input of the predictive device. These are returned to the device controller through path (66). The purpose of the reverse horizon mode is to provide essential information for process control and optimization. The precise operation of the predictive device is configured by a set of parameters. that are determined during the configuration mode and stored in a storage device (30). The configuration mode makes use of one or more files of training data (48) collected from the DCS during standard operation of the process, or through structured plant testing. The predictive device is trained in four phases (40, 42, 44, and 46) correspo

The invention relates to a rotating catch lock, wherein a closing member (10) interacts with a catch (20), which can be rotated between a closing position accommodating the closing member (10) and an open position which releases said member. The catch (20) is force-loaded (22) in an open position and is held by a spring-loaded (33) rotating latch (30) in the close position. Said latch (30) is moved by a motor (50) between the locking position retaining the catch (20) and a stand-by release position in which the spring-loaded latch (30) is propped up by the catch (20) as long as it remains in an open position. In order to use small compact motors (50), the invention provides that the stored energy (61) exerted by an energy storage mechanism (60) is transmitted to the latch (30) via a storage lever (40). Normally, the latch (30) is shifted into its stand-by position by the storage lever (40). When the latch (30) is in a stand-by position, the storage lever (40) is supported on a control tappet (51) which is rotationally driven by the motor (50). The motor (50) can be driven by an electrical control logic in both a forward mode (56) unloading the energy storage (60) and a reverse mode (56') loading the energy storage (60), i.e. in opposite directions. In the reverse mode (56') the control tappet (51) releases the latch (30), moves towards the storage lever (40) and guides it back into a starting position which corresponds to the stand-by position of the latch (30).

A method is provided for automatically determining in which data forwarding mode a network device should operate. Also, other settings for operation of the device may be automatically determined. These modes and settings may be selected based on one or more attributes of the network to which the device is connected. In one example, the network device includes a wired network interface and a wireless network interface. The device may be capable of operating in a routing, bridging, or repeating mode. The network device may select a forwarding mode based on attributes of the network that are detected or otherwise received by the network device.

The electrically variable transmission family of the present invention provides low-content, low-cost electrically variable transmission mechanisms including first, second and third differential gear sets, a battery, two electric machines serving interchangeably as motors or generators and five or six selectable torque-transfer devices. The selectable torque transfer devices are engaged to provide an EVT with a continuously variable range of speeds (including reverse), four or more mechanically fixed forward speed ratios and at least one mechanical reverse speed ratio. The torque transfer devices and the first and second motor / generators are operable to provide six operating modes in the electrically variable transmission, including battery reverse mode, EVT reverse mode, reverse and forward launch modes, continuously variable transmission range mode, fixed forward mode and mechanical reverse mode.

The present disclosure provides a power split transmission with two Electric Variable Transmission (EVT) modes and four fixed gears for use in hybrid electrical vehicles (HEV). The present disclosure utilizes two electric motors (“E-motors”), an engine, three planetary gear sets, and four selectively engageable clutches. The clutches are engaged in different combinations to engage the different gears and EVT modes. In the four fixed gears, power is transmitted only on the mechanical path for the highest transmission efficiency. In the two EVT modes, a part of the power is transmitted electrically. Alternatively, the E-motors can be located in the middle integrated with the transmission design. Advantageously, the present invention works with lower component speeds than existing two-mode hybrid transmissions. This can be achieved with a front E-motor design enabling modularity and also with a center E-motor design.

A PC card video recorder. The conditional access functionality of a Point Of Deployment module (POD) is augmented by providing solid state memory on a PC card for recording and playback of programming. An encrypted video stream from a television Set-Top Box (STB)or other appliance is decrypted in the PC card. The decrypted video stream is then filtered to remove information not relevant to a program to be stored. The filtered video stream is then applied to the solid state memory. During playback, the video stream is retrieved from the memory and encrypted prior to transmission to the STB. Intra-pictures can be played back rapidly to provide a fast forward mode by reference to a table or packet header storing starting and ending address of the intra-pictures. Multiple POD card interfaces can be provided in the STB to accept multiple PC card recorders. Pairing security can be provided by checking a recording STB identifier against a playback STB identifier.

The disclosed system provides a transformation-based implementation of forward-mode and reverse-mode automatic differentiation as a built-in, first-class function in a functional programming language. Each of these constructs imposes only a small constant factor of the computational burden (time) of the function itself, and the forward construct has the same properties in terms of space. The functions can be applied to any function, including those involving derivatives and nested closures.

A thermodynamic system that can approximate the Ericsson or Brayton cycles and operated in reverse or forward modes to implement a cooler or engine, respectively. The thermodynamic system includes a device for compressing a first fluid stream containing a first gas-liquid mixture having a sufficient liquid content so that compression of the gas within the first gas-liquid mixture by the compressing device is nearly isothermal, and a device for expanding a second fluid stream containing a second gas-liquid mixture having a sufficient liquid content so that expansion of the gas within the second gas-liquid mixture by the expanding device is nearly isothermal. A heat sink is in thermal communication with at least the liquid of the first gas-liquid mixture for transferring heat therefrom, and a heat source is in thermal communication with at least the liquid of the second gas-liquid mixture for transferring heat thereto. A device is provided for transferring heat between at least the gas of the first gas-liquid mixture after the first fluid stream exits the compressing device and at least the gas of the second gas-liquid mixture after the second fluid stream exits the expanding device. The compressing and expanding devices are not liquid-ring compressors or expanders, but instead are devices that tolerate liquid flooding, such as scroll-type compressors and expanders.

A camera stabilizer with a changeable structure comprises an X-axis drive device, a Y-axis drive device and a Z-axis drive device, which are perpendicular to one another and can be rotated 360 degrees. The Z-axis drive device is connected with Y-axis drive device via a first connecting arm, the Y-axis drive device is connected with X-axis drive device via a second connecting arm, and the X-axis drive device is connected with a fixing device. The disclosed camera stabilizer has three shafts which can rotate 360 degrees, and a fixing device for mounting different types of mirrorless cameras. By adjusting the three control shafts, the gravity center of the camera can be adjusted to achieve mechanical stabilization. By changing the configuration of the handheld part, the camera stabilizer can be switched between a single hand-held mode and a two hand-held mode and between a forward mode and a reverse mode.

Some exemplary embodiments of a III-nitride switching device with an emulated diode have been disclosed. One exemplary embodiment comprises a GaN switching device fabricated on a substrate comprising a high threshold GaN transistor coupled across a low threshold GaN transistor, wherein a gate and a source of the low threshold GaN transistor are shorted with an interconnect metal to function as a parallel diode in a reverse mode. The high threshold GaN transistor is configured to provide noise immunity for the GaN switching device when in a forward mode. The high threshold GaN transistor and the low threshold GaN transistor are typically fabricated on the same substrate, and with significantly different thresholds. As a result, the superior switching characteristics of III-nitride devices may be leveraged while retaining the functionality and the monolithic structure of the inherent body diode in traditional silicon FETs.

Replaying a compressed digital video stream in fast-forward and reverse modes at varied playback rates. An index of interceded frames, those frames not dependant on other frames for generation, is stored. The index includes the size of intercoded frames and their storage location. When a specified playback rate is requested, the intercoded frames are retrieved using the index. The interceded frames then have one or more intracoded frames, frames that reference other frames for generation, placed between them to generate a frame sequence. The intracoded frames are “blank,” meaning they contain only information from their associated interceded frame. By inserting “blank” frames specified playback rates and bit rates are generated. The index of interceded frames may also be accessed to generate playback in reverse mode, which conserves memory resources of associated systems by generating the reverse playback stream in an iterative manner.

A non-linear dynamic predictive device (60) is disclosed which operates either in a configuration mode or in one of three runtime modes: prediction mode, horizon mode, or reverse horizon mode. An external device controller (50) sets the mode and determines the data source and the frequency of data. In the forward modes (prediction and horizon), the data are passed to a series of preprocessing units (20) which convert each input variable (18) from engineering units to normalized units. Each preprocessing unit feeds a delay unit (22) that time-aligns the input to take into account dead time effects. The output of each delay unit is passed to a dynamic filter unit (24). Each dynamic filter unit internally utilizes one or more feedback paths that provide representations of the dynamic information in the process. The outputs (28) of the dynamic filter units are passed to a non-linear approximator (26) which outputs a value in normalized units. The output of the approximator is passed to a post-processing unit (32) that converts the output to engineering units. This output represents a prediction of the output of the modeled process. In reverse horizon mode, data is passed through the device in a reverse flow to produce a set of outputs (64) at the input of the predictive device. These are returned to the device controller through path (66). The purpose of the reverse horizon mode is to provide information for process control and optimization. The predictive device approximates a large class of non-linear dynamic processes. The structure of the predictive device allows it to be incorporated into a practical multivariable non-linear Model Predictive Control scheme, or used to estimate process properties.

An Ethernet switching and forwarding method, and at least one Ethernet forwarding mode of standard Ethernet forwarding, multiplex Ethernet forwarding, layer-3 routing and forwarding, across-VLAN multicast forwarding plane, point-to-point VLAN forwarding, or point-to-point double VLAN forwarding. The method includes: an Ethernet message entering a user side port or a network side port; processing, by the port, the message to provide the message with a VLAN tag allocated uniformly by the port; determining, by the port, a forwarding mode for the message and sending the message to a corresponding forwarding plane; determining, by the forwarding plane, an egress port of the message and processing the specific Ethernet control message in accordance with a control message capturing policy table; and forwarding the message to the egress port and encapsulating the message in accordance with an attribute table of the egress port.

There is disclosed a video playback device for playing back a video program in fast forward mode on a display screen coupled to the video playback device. The video playback device contains an apparatus for selectively playing back portions of an audio signal associated with the video program during fast forward mode. The apparatus comprises: 1) an audio filtering processor for identifying a plurality of audio sub-segments in the audio signal and determining an importance factor associated with each of the plurality of audio sub-segments; and 2) a video processor coupled to and controlled by the audio filtering processor, wherein the audio filtering processor transmits selected ones of the plurality of audio sub-segments to the video processor and causes the video processor to play the selected audio sub-segments concurrently with a corresponding portion of a video signal from the video program during fast forward mode.

A rotary tool, such as an impact wrench, operable in a forward mode and a reverse mode. The rotary tool includes a housing having a forward end and supporting a motor. The motor has a motor shaft extending axially through the housing and defining an axis. The rotary tool also include a frame supported in the housing and being rotatable relative to the housing about the axis, an output shaft supported in the forward end of the housing and rotatable about the axis, and a hammer pivotably coupled to the frame and defining a central aperture. The hammer has a first jaw and a second jaw extending into the central aperture. The first jaw and the second jaw are non-symmetrical.

A thermodynamic system that can approximate the Ericsson or Brayton cycles and operated in reverse or forward modes to implement a cooler or engine, respectively. The thermodynamic system includes a device for compressing a first fluid stream containing a first gas-liquid mixture having a sufficient liquid content so that compression of the gas within the first gas-liquid mixture by the compressing device is nearly isothermal, and a device for expanding a second fluid stream containing a second gas-liquid mixture having a sufficient liquid content so that expansion of the gas within the second gas-liquid mixture by the expanding device is nearly isothermal. A heat sink is in thermal communication with at least the liquid of the first gas-liquid mixture for transferring heat therefrom, and a heat source is in thermal communication with at least the liquid of the second gas-liquid mixture for transferring heat thereto. A device is provided for transferring heat between at least the gas of the first gas-liquid mixture after the first fluid stream exits the compressing device and at least the gas of the second gas-liquid mixture after the second fluid stream exits the expanding device. The compressing and expanding devices are not liquid-ring compressors or expanders, but instead are devices that tolerate liquid flooding, such as scroll-type compressors and expanders.

An infinitely variable transmission (IVT) for a work vehicle includes a variator with a first transmission component configured to receive engine power from an engine, a second transmission component configured to receive IVP power from an IVP machine, and an output transmission component configured output summed engine power and IVP power. The IVT also includes a power reverser that connects the engine to the first transmission component of the variator and that transfers engine power to the first transmission component. The power reverser has a forward mode and a reverse mode. The power reverser, in the forward mode, is configured to rotate the first transmission component in a forward direction. The power reverser, in the reverse mode, is configured to rotate the first transmission component in a reverse direction.

The invention relates to the field of wireless network high-speed switching and high bandwidth communication under mobile environment, which aims at solving the technical problem of a system and a method for realizing bandwidth communication between highway vehicles, wherein, the system comprises base stations distributed and installed along the roadsides of highways and on-board wireless communication terminals, which all comply with the WLAN wireless access 802.11a / b / g / p standard, the base stations are connected by optical fibers to form a local area network, the on-board wireless communication terminal is also provided with the global positioning system (GPS) function. The on-board wireless communication equipment can synchronously establish radio links with a plurality of roadside base stations so as to realize the high bandwidth communication, the transmission rate of which is higher than the previous transmission rate by a plurality of times. When passing through the covered areas of different base stations at high speed, the vehicle can adopt the self-adaption rate selection and self-adaption flow method to gradually disconnect the links with gradually weak wireless signals, and establish the new links with gradually strong signals in sequence or in a great-leap-forward mode, thus realizing steady and extremely soft network switch, and ensuring communication continuity. The method supports the high-speed mobility of the vehicle, the multimedia broadband service of the mobile equipment and the large-scale network coverage, and realizes the bandwidth communication of highway vehicles.

The invention provides an IOV (Internet of Vehicles) V2X business forwarding method and device, and the method comprises the steps that a base station eNB receives the information which comprises the V2X business identification or a V2X business identification index and is transmitted by an OBU (on-board unit) through a Uu port; the eNB determines a to-be-transmitted V2X business according to the V2X business identification or the V2X business identification index, and determines a forwarding mode of the V2X business; the eNB carries out the forwarding of the V2X business transmitted by the OBU in a forwarding mode through the Uu port. According to the invention, the method solves a problem that the OBU and the eNB are difficult to carry out the forwarding of the V2X business through the Uu port in the related technologies.

The invention discloses a message packaging method and a method for detecting a forwarding loop. The message packaging method comprises the following steps of: packaging data received by an MPLS (Multi-Protocol Label Switching) network entry routing node into a message with a fixed format, and meanwhile, distributing a label to the message for marking the forwarding mode of the message; splitting the message into a plurality of information segments according to a fixed length; packaging the distributed label into a cell header and loading the cell header to the front of each information segment to obtain cells, wherein each cell also comprises an idle field in the message with a confirmed fixed format, and a TTL (Time to Live) value of the message is set in the idle field; and setting a survival identification for identifying whether the cell of the cell header has the idle field or not in each cell header. In the method for detecting a forwarding loop, received cells are detected whether to carry the TTL values or not by utilizing the survival identifications in the cell headers so as to achieve the purpose of detecting the forwarding loop by utilizing a TTL mechanism, and the forwarding loop is effectively detected under the condition of no occupation of the effective information bits of the cell headers.

A method of processing data includes at least one processor accessing a data storage unit, the data storage unit providing at least one input data object and at least one transmutation command to be performed on the at least one input data object. The at least one transmutation command operates in a forward mode on the at least one input data object to produce at least one output data object to be stored in a data storage unit.

The invention relates to a vehicle-mounted IOT (Internet of Things) routing method on the basis of geographical positions. Forwarding modes of data packets are divided into three types, i.e. a greedy mode, a non-periodic detection edge mode and a periodic detection edge mode. The data packets are all in the greedy mode at the beginning; in the transmission process of the data packets, according to relative positions of vehicles, road information and comparison of vehicle running directions, state conversion of the data packets among the three types of forwarding modes is determined and the data packets are judged whether to be transmitted to a next hop or continuously stored and carried; and the data packets are transmitted to a destination by a plurality of paths so as to improve the delivery rate of the data packets. The vehicle-mounted IOT routing method is on the basis of two network scenes of mixed communication and non communication so as to meet the vehicle-mounted IOT with intermittent connectivity; the vehicle-mounted IOT routing method is more suitable for the real urban traffic network environment; when the network throughput is improved, the excessive network congestion cannot be generated; and the vehicle-mounted IOT routing method is suitable for network application with high requirement for the data delivery rate, but low requirement for the transmission delay.

The invention provides a method for communication among business boards in distributed equipment. The method comprises steps of issuing interboard table items and an ACL; matching received messages by an incoming interface according to the ACL and obtaining corresponding execution motions; sending the messages to internet accesses of corresponding business boards according to the execution motions; each business board performing application processing of the message entering via the internet access and sending the message to a CPU of the corresponding business board according to a self interboard table item; and when a current business board does not find a next business board corresponding to the message according to the interboard table item, using a business board of a forwarding mode to find an outcoming interface for forwarding the message to the distributed equipment. The business boards process and forward the messages according to the interboard table items, and internal interboard channels are used for forwarding when the business boards forward the messages to next business boards, so that the problem that networking is complex is improved.

A Bluetooth device and a method for transmitting data among Bluetooth devices are provided. The method includes, at a first Bluetooth device, receiving data from a second Bluetooth device with which the first Bluetooth device establishes a Bluetooth connection, at the first Bluetooth device, determining whether a forwarding mode is activated, and if the forwarding mode is activated, transmitting the received data to at least one target Bluetooth device selected depending on preset forwarding information.

A vehicle includes a rear-wheel drive (RWD) automatic transmission having a stationary member, a two-mode selectable one-way clutch (SOWC), pressurized fluid, and a valve body assembly (VBA). The VBA has a piston, a return spring, and an actuator linkage in contact with the piston and a shift lever of the SOWC. Fluid moves the piston and linkage in one direction to lock the SOWC and enable a reverse mode having no spin losses, and the spring moves the piston and linkage in another direction to unlock the SOWC in a forward mode. A method reduces spin losses by admitting fluid into the VBA to move the piston in one direction to thereby rotate the shift lever of the SOWC to one angular position to lock a driving member of the transmission to the stationary member during reverse, engine braking first gear, and manual low speeds.

The power converter is an integration of three topologies which include a forward converter topology, a flyback converter topology, and a resonant circuit topology. The combination of these three topologies functions to transfer energy using three different modes. A first mode, or forward mode, is a forward energy transfer that forwards energy from the input supply to the output load in a manner similar to a forward converter. A second mode, or flyback mode, stores and releases energy in a manner similar to a flyback converter. A third mode, or resonant mode, stores and releases energy from the resonant tank using a resonant circuit and a secondary side forward-type converter topologies. An output circuit of the power converter is configured as a forward-type converter including two diodes and an inductor. The output circuit is coupled to a secondary winding of a converter transformer.