Abstract: A method performed by a UE is provided. The method includes receiving at least one SL-DRX configuration and a plurality of SL resource pool configurations to be configured on the first UE; performing partial sensing based on at least one of the plurality of SL resource pool configurations when an SL-DRX operation is performed based on the at least one SL-DRX configuration, each of at least one SL resource pool configured by the at least one of the plurality of SL resource pool configurations comprising one or more time slots; and performing SL-CBR measurement associated with each of the at least one SL resource pool in the one or more time slots where the partial sensing is performed.

Abstract: A method for a UE to perform a MUSIM operation is provided. The method includes connecting to a first network associated with a first USIM; transmitting a request message to the first network, the request message including assistance information to request a time gap for the MUSIM operation; receiving a first time gap configuration from the first network in a case that a type of the time gap requested by the UE is aperiodic, the first time gap configuration indicating a starting SFN and a starting subframe of a first configured time gap; and in a case that the UE receives the first time gap configuration, switching to a second network, while keeping a connection to the first network, during the first configured time gap according to the first time gap configuration, the second network being associated with a second USIM.

Abstract: A connection interface adapted for die-to-die includes a plurality of first usage lanes, a plurality of first spare lanes, a plurality of receiving lanes, and a controller. The controller is configured to connect each of the plurality of receiving lanes to a corresponding one of the plurality of first usage lanes and to respectively monitor the plurality of first usage lanes. In response to that any of the plurality of first usage lanes is monitored as an unhealthy lane by the controller, the controller changes one of the plurality of receiving lanes which is currently connected to the unhealthy lane to be instead connected to one of the plurality of first spare lanes.

Abstract: A combination rear lamp is revealed. A light emitting unit is disposed in a mounting space formed between a lamp base and a lamp cover. A plurality of light emitting diodes (LEDs) is arranged at a substrate of the light emitting unit. A transparent first area is formed on a middle part of the lamp cover and a translucent second area is formed around the first area. A light guide bar is located directly under the first area and its length is longer than that of the first area. Two LEDs that emit white light are corresponding to light incident parts on two sides of the light guide bar respectively. Thereby white light emitted and transmitted through the light guide bar and the first area of the lamp cover is projected in a three-dimensional sense. The LEDs and light spot emitted will not be seen through the lamp cover.

Abstract: A combination rear lamp is revealed. A light emitting unit is disposed in a mounting space formed between a lamp base and a lamp cover. A plurality of light emitting diodes (LEDs) is arranged at a substrate of the light emitting unit. A transparent first area is formed on a middle part of the lamp cover and a translucent second area is formed around the first area. A light guide bar is located directly under the first area and its length is longer than that of the first area. Two LEDs that emit white light are corresponding to light incident parts on two sides of the light guide bar respectively. Thereby white light emitted and transmitted through the light guide bar and the first area of the lamp cover is projected in a three-dimensional sense. The LEDs and light spot emitted will not be seen through the lamp cover.

Abstract: A JBOD apparatus (1) having a hard disk drive (HDD) expander (11), a switch (13) and a BMC module (12) is disclosed. The HDD expander (11) is connected to a plurality of hard drives (5) respectively. The switch (13) connects the HDD expander (11) with a connecting port (14) for enabling a first transmission channel, or connects the HDD expander (11) with the BMC module (12) for enabling a second transmission channel. The BMC module (12) is connected to an Ethernet through a network port (17). The HDD expander (11) initially receives a wired transmitted command through the first transmission channel. When the BMC module (12) receives an Ethernet transmitted command through the Ethernet, it controls the switch (13) to change for enabling the second transmission channel, therefore, the BMC module (12) executes an interactive operation with the HDD expander (11) in accordance with the Ethernet transmitted command.

Abstract: A JBOD apparatus (1) having a hard disk drive (HDD) expander (11), a switch (13) and a BMC module (12) is disclosed. The HDD expander (11) is connected to a plurality of hard drives (5) respectively. The switch (13) connects the HDD expander (11) with a connecting port (14) for enabling a first transmission channel, or connects the HDD expander (11) with the BMC module (12) for enabling a second transmission channel. The BMC module (12) is connected to an Ethernet through a network port (17). The HDD expander (11) initially receives a wired transmitted command through the first transmission channel. When the BMC module (12) receives an Ethernet transmitted command through the Ethernet, it controls the switch (13) to change for enabling the second transmission channel, therefore, the BMC module (12) executes an interactive operation with the HDD expander (11) in accordance with the Ethernet transmitted command.