Abstract: A method is proposed to enable a UE performing codeword level interference cancellation (CW-IC) to know whether an interfering transport block (TB) is a new transmission or retransmission. With this knowledge, the UE knows whether the soft channel bits stored in a soft buffer are to be discarded or combined with the soft channel bits newly obtained.

Abstract: Methods for rate matching with soft buffer size setting at the transmitter and soft channel bits storage at the receiver for superposition coding are proposed. In the superposition coding scheme, a transport block intended to one UE needs to be decoded by another UE's receiver. However, the soft buffer sizes per code block of the two receivers may not be the same since the size depends on the UE category. The base station can signal the soft buffer size used at the transmitter for rate matching to the UEs for superposition decoding. A UE stores information bits associated with an interfering signal in its soft buffers in accordance with the soft buffer size used at the transmitter for rate matching. As a result, the UE can decode and subtract the interfering signal from the desired signal for superposition coding.

Abstract: When the codeword level interference cancellation (CW-IC) is used at the receiver in conjunction with the superposition coding scheme at the transmitter, it is helpful if the soft buffer at the receiver is reserved not only for the desired transport blocks (TBs) but also for the interfering TBs handled by the CW-IC. In so doing, the soft channel bits of interfering TBs at multiple (re)transmissions can be combined to enhance the success rate of data decoding. A soft buffer partition method for the soft channel bits of the desired and interfering TBs in the superposition coding scheme is proposed. The proposed method has a full flexibility in adjusting the soft buffer sizes for the desired and interfering TBs.

Abstract: Signaling methods to support robust interference cancellation by obtaining information associated with interfering signals from the network side are provided. The target interference for cancellation is intra-cell interference from MU-MIMO or NOMA operation. A victim receiver receives both desired signal and intra-cell interfering signal. The network may assist the victim receiver by providing information related to the interfering signal. The computational complexity of the victim receiver in blindly detecting the interference signal characteristics is reduced, and the reliability of the signal detection is improved.

Abstract: A method of interference cancellation is proposed. A serving base station transmits a first configuration information to a UE, the first configuration information is related to a desired signal of a data transmission from a serving cell to the UE. The serving base station determines a second configuration information related to an interference signal of a data transmission from a neighboring cell to the UE. The second configuration information comprises a resource allocation type and a basic resource allocation unit of the interference signal. The serving base station transmits the second configuration information to the UE such that the UE can cancel the data transmission from the neighboring cell.

Abstract: A method of interference cancellation is proposed. A UE obtains configuration information of a data transmission from a neighboring cell via an interference channel in a mobile communication network. The UE receives radio signals on a set of data resource elements as determined based on the obtained configuration information. The UE then estimates the interference channel corresponding to the data transmission from the neighboring cell based on the received radio signals on the set of data resource elements. Finally, the UE cancels the data transmission from the neighboring cell based on the estimated interference channel.

Abstract: A method for a receiver to cancel or suppress co-channel interference with network assistance is provided. The method comprises deriving a first set of parameters related to interfering signals in a mobile communication network; receiving a second set of parameters related to the interfering signals from the network; and cancelling the contribution of interfering signals from the received signal based on the combination of the first set and second set of parameters. In one embodiment, scrambling rules and resource block allocation information are signaled to the victim UE to facilitate Codeword-Level Interference Cancellation (CWIC). While the scrambling rule for control channel is based on UE-specific identity, the scrambling rule for data channel is based on cell-specific identity or other network-configurable identity to facilitate CWIC. In addition, RA-allocation information are signaled to the victim UE in an efficient way.

Abstract: A method for a receiver to cancel or suppress co-channel interference with network assistance is provided. The method comprises deriving a first set of parameters related to interfering signals in a mobile communication network; receiving a second set of parameters related to the interfering signals from the network; and cancelling the contribution of interfering signals from the received signal based on the combination of the first set and second set of parameters. In one embodiment, the interfering signals comprise intra-cell interfering signals and/or inter-cell interfering signals. While inter-cell interference comes from neighboring cells, intra-cell interference comes from MU-MIMO transmission to other users in the same serving cell as the victim UE. In one example, the serving base station not only signals information to the victim UE for inter-cell interference, but also for intra-cell interference due to MU-MIMO transmission.

Abstract: A mounting apparatus for securing a data storage device includes a mounting tray, which includes a bottom wall, two sidewalls perpendicularly extending from the bottom wall, a positioning protrusion extending from the bottom wall, and a latching protrusion extending from each sidewall. The latching protrusions are configured for being received in latching holes defined in the data storage device. Each sidewall is elastically deformable. A distance between the two sidewalls is substantially equal to a width of the data storage device. An extending direction of the positioning protrusion is substantially perpendicular to an extending direction of the latching protrusion. An electronic device with the mounting apparatus is further disclosed.

Abstract: An electronic device enclosure includes an inner tray and an outer tray. The inner tray includes a bottom plate. The outer tray receiving the inner tray and includes a base wall with a first bridge. The first bridge includes two first connecting panels and a first mounting panel between the two first connecting panels. Each of the two first connecting panels is slanted relative to the base wall. An acreage of the first mounting panel is less than an acreage of the base wall, and the base wall is engaged with the bottom plate via the first mounting panel by attaching the first mounting panel to the bottom plate, to decrease a contacting acreage between the base wall and the bottom plate.

Abstract: A mounting apparatus for an expansion card includes a bottom plate, a circuit board, and mounting bracket. The bottom plate defines mounting hole. The circuit board is secured to the bottom plate, and a gap is defined between the bottom plate and the circuit board. The mounting bracket includes a base secured to the bottom plate. The base includes two positioning pieces and an elastically deformable mounting portion. The two positioning pieces are received in the gap, to prevent the mounting bracket from moving along a first direction substantially perpendicular to the bottom plate, and the elastically deformable mounting portion is engaged in the mounting hole, to prevent the mounting bracket from moving along a second direction substantially parallel to the bottom plate.

Abstract: A mounting apparatus includes a securing plate and a fan. The securing plate defines an engaging slot and a retaining slot. The fan includes a first sidewall attached to the securing plate. The first sidewall includes a first engaging member and a second engaging member. The first engaging member engages in the engaging slot, to prevent the fan from moving in a first direction substantially parallel to the securing plate. The second engaging member extends through the retaining slot from the front of the securing plate to the back of the securing plate, and engages with the securing plate, to prevent the fan from moving in a second direction substantially perpendicular to the securing plate.

Abstract: A mounting apparatus for a printed circuit board includes an enclosure and a tray. The enclosure includes a bottom wall and a side wall extending from the bottom wall. The side wall is substantially perpendicular to the bottom wall. The tray includes a bottom panel substantially parallel to the bottom wall and a side panel substantially perpendicular to the bottom panel. The bottom panel is configured to secure the printed circuit board, and the side panel contacts and is mounted to the side wall.

Abstract: A mounting apparatus includes a plate and a pressing member rotatably coupled to the plate. The plate includes a frame formed with a plurality of slit ports for respectively exposing PCI cards and a supporting portion for supporting bent portions of the PCI cards. The pressing member is configured for pressing the bent portions of the PCI cards, thereby sandwiching the bent portions of the PCI cards between the pressing member and the supporting portion. A handling member is actuated to drive the pressing member to enable positioning of the pressing member relative to the supporting portion. The handling member includes a main body and two arms extending from the main body. The two arms are inserted through two slots of the plate respectively and connected to two ends of the pressing member respectively.

Abstract: A computer system includes a riser card. The riser card includes a board body and a first socket. The board body includes a first surface. The first socket is located on the first surface. A first socket height of the first socket relative to the first surface is in the range of about 15 mm to about 16 mm.

Abstract: An air conducting device is used for removing heat from at least one component by directing airflow flowing along a first direction. The first direction is parallel to the at least one component. The air conducting device includes an airduct receiving the at least one component therein, and an air guiding member. The air guiding member is attached to an inner side of the airduct. The air guiding member includes a plurality of resilient legs. The legs extend diagonally relative to the first direction in a first state. The legs are able to accommodate the at least one component in a second state. Each leg in the first state is able to serve as a barrier to the airflow.

Abstract: A mounting apparatus includes a securing plate and a fan. The securing plate defines an engaging slot and a retaining slot. The fan includes a first sidewall attached to the securing plate. The first sidewall includes a first engaging member and a second engaging member. The first engaging member engages in the engaging slot, to prevent the fan from moving in a first direction substantially parallel to the securing plate. The second engaging member extends through the retaining slot from the front of the securing plate to the back of the securing plate, and engages with the securing plate, to prevent the fan from moving in a second direction substantially perpendicular to the securing plate.

Abstract: A mounting apparatus for an expansion card includes a bottom plate, a circuit board, and mounting bracket. The bottom plate defines mounting hole. The circuit board is secured to the bottom plate, and a gap is defined between the bottom plate and the circuit board. The mounting bracket includes a base secured to the bottom plate. The base includes two positioning pieces and an elastically deformable mounting portion. The two positioning pieces are received in the gap, to prevent the mounting bracket from moving along a first direction substantially perpendicular to the bottom plate, and the elastically deformable mounting portion is engaged in the mounting hole, to prevent the mounting bracket from moving along a second direction substantially parallel to the bottom plate.

Abstract: An electronic device enclosure includes an inner tray and an outer tray. The inner tray includes a bottom plate. The outer tray receiving the inner tray and includes a base wall with a first bridge. The first bridge includes two first connecting panels and a first mounting panel between the two first connecting panels. Each of the two first connecting panels is slanted relative to the base wall. An acreage of the first mounting panel is less than an acreage of the base wall, and the base wall is engaged with the bottom plate via the first mounting panel by attaching the first mounting panel to the bottom plate, to decrease a contacting acreage between the base wall and the bottom plate.

Abstract: A mounting apparatus includes a plate and a pressing member rotatably coupled to the plate. The plate includes a frame formed with a plurality of slit ports for respectively exposing PCI cards and a supporting portion for supporting bent portions of the PCI cards. The pressing member is configured for pressing the bent portions of the PCI cards, thereby sandwiching the bent portions of the PCI cards between the pressing member and the supporting portion. A handling member is actuated to drive the pressing member to enable positioning of the pressing member relative to the supporting portion. The handling member includes a main body and two arms extending from the main body. The two arms are inserted through two slots of the plate respectively and connected to two ends of the pressing member respectively.