Abstract: An antenna selection method includes selecting M1 antenna sets from CN-L1L2 antenna combinations, where L1 is a quantity of reserved antennas, a sum of L1 and L2 is equal to L, determining an antenna set with a maximum channel capacity, in M2 antenna sets, as a target antenna set to perform a preset-duration data transmission, where the M2 antenna sets are antenna sets formed by the M1 antenna sets and the L1 reserved antennas. The L1 reserved antennas include a maximum SNR in a target antenna set used in previous preset-duration data transmission. Each of the M2 antenna sets includes the L1 reserved antennas.

Abstract: A thermal module including a first body, a second body, a first fan assembly, a second fan assembly, and a shaft is provided. The first body and the second body are slidably connected to each other and form an accommodating space together. The first fan assembly is disposed in the accommodating space and has a first hub and a plurality of first fan blades. The first hub is connected to the first body. The second fan assembly is disposed in the accommodating space and has a second hub and a plurality of second fan blades, and the second hub is connected to the second body. The first hub and the second hub overlap each other. The shaft is pivotally disposed in the first body and the second body and is engaged with the first fan assembly and the second fan assembly.

Abstract: Provided are a trench gate IGBT and a device. The trench gate IGBT includes an emitting electrode, a p well region, a gate, a gate oxide layer, a drift region and a back collecting electrode. The gate is located in a trench; the gate is isolated from the emitting electrode, the p well region and the drift region by the gate oxide layer; the trench is disposed inside a substrate; and recesses are provided at the boundary of the trench and the drift region. During switching on and off the trench gate IGBT, an interface between the drift region and a side surface of the trench is provided with recess gate oxide layers, so that electron charges can be restrained and accumulated, and improving the conduction capacity.

Abstract: An antenna selection method and a terminal, where the terminal includes m primary antennas configured for a first application program and n secondary antennas, where m?1, and n?1. The method includes, when the terminal is in a WI-FI connected state and a landscape state, obtaining a key factor and a radio frequency indicator that are of each of m+n antenna combinations, determining a first antenna combination based on the key factor and the radio frequency indicator, where the first antenna combination is a first-priority antenna combination of the m+n antenna combinations, and the first antenna combination includes at least one of the secondary antennas, and using the first antenna combination to perform communication for a second application program.

Abstract: An antenna selection method includes selecting M1 antenna sets from CN?L1L2 antenna combinations, where L1 is a quantity of reserved antennas, a sum of L1 and L2 is equal to L, determining an antenna set with a maximum channel capacity, in M2 antenna sets, as a target antenna set to perform a preset-duration data transmission, where the M2 antenna sets are antenna sets formed by the M1 antenna sets and the L1 reserved antennas. The L1 reserved antennas include a maximum SNR in a target antenna set used in previous preset-duration data transmission. Each of the M2 antenna sets includes the L1 reserved antennas.

Abstract: A flexible electronic device includes: a base; a supporting plate having a first end pivotally connected to the base, and a second end; two pivot modules disposed at the second end; a bearing frame having a fixed part connected to the two pivot modules, and two curved parts connected to the fixed part; a bending mechanism disposed on the fixed part and the two curved parts and connected to the pivot modules; and a flexible panel disposed on the bearing frame and covering the bending mechanism. When the flexible electronic device is switched to a curve mode, the bending module drives the two curved parts to stretch with respect to the fixed part to bend the flexible panel. When the flexible electronic device is switched to a flat mode, the bending module drives the two curved parts to move close to the fixed part to flatten the flexible panel.

Abstract: An electronic device including a casing and a lens module is provided. The casing has a receiving groove. The lens module is assembled to the casing in a multiple-axial manner, located in the receiving groove and capable of rotating in a range of ?90 degrees to 90 degrees relative to the casing. By assembling the lens module to the casing through a multiple-axial manner, the gap between the lens module and the casing can be reduced, and the appearance of the simple electronic device can be created.

Abstract: A flexible display includes a bottom plate, a support plate, two hinge modules, a frame body, a bending module and a flexible panel. The support plate is provided with a first end and a second end. The first end is rotatably connected to the bottom plate. The hinge modules are disposed at the second end of the support plate. The frame body is provided with a fixed frame and a plurality of turning frames. The fixed frame is connected to the hinge modules. The plurality of turning frames are pivoted to two opposite sides of the fixed frame respectively. The bending module is connected with the fixed frame and the plurality of turning frames. The flexible panel is disposed on the frame body and covers the bending module. When the flexible display is switched to a touch mode, the bending module drives the plurality of turning frames to be flush with the fixed frame so that the flexible panel is in a flat plate shape.

Abstract: This disclosure provides a data processing method, including: receiving, by a first computing device, a first packet sent by a second computing device, where the first computing device is configured to assist the second computing device in performing service processing, the first computing device is a computing device in a heterogeneous resource pool, the first computing device communicates with the second computing device through a network, the heterogeneous resource pool includes at least one first computing device, and the first packet includes an instruction used to request the first computing device to process to-be-processed data; processing, by the first computing device, the to-be-processed data based on the instruction; and sending, by the first computing device, a second packet to the second computing device, where the second packet includes a processing result of the to-be-processed data.

Abstract: A hinge module and an electronic device are provided. The hinge module includes a pair of brackets, a plurality of tabs, a torque providing assembly, and a torque adjustment member. Each bracket has at least one first sliding slot extending along a first direction and a first through hole extending along a second direction, wherein the first direction and the second direction are perpendicular to each other. The tabs pass through the corresponding ones of the first sliding slots, and the tabs have second sliding slots extending along the second direction. The torque providing assembly has a first end connected to one of the brackets and one of the tabs and a second end connected to the other one of the brackets and the other one of the tabs. The torque adjusting member inserts into the first through holes of the brackets and the second sliding slots of the tabs.

Abstract: A hinge module includes a base, a first shaft, a second shaft, a first bracket, a second bracket, and a linkage component. The base has a bottom plate and two guiding plates opposite to each other. The first shaft is movably and rotatably penetrates through the two guiding plates. The second shaft is movably and rotatably penetrates through the two guiding plates. The first bracket is disposed at a first end of the first shaft. The second bracket is disposed at a first end of the second shaft. The linkage component is disposed in the base and is connected to the first shaft and the second shaft. The first shaft and the second shaft linearly move along the two guiding plates through the linkage component to change a spacing distance between the first shaft and the second shaft and are configured to drive the first bracket and the second bracket to move away from each other or approach each other.

Abstract: A data packet transmission method—that includes: obtaining, by a terminal, N application programs that are running; and if the N application programs include an application program including a low-latency service; determining whether an unlicensed frequency band is in a congestion state; and instructing a network device to schedule a data packet of the terminal to a licensed frequency band for transmission when the unlicensed frequency band is in a congestion state. When determining that the N running application programs include the application program including the low-latency service, the terminal may instruct the network device to schedule the data packet of the terminal to the licensed frequency band for transmission, so as to transmit a data packet of the low-latency service by using the licensed frequency band. Resources in the licensed frequency band are centrally scheduled by the network device, instead of being used through contention.

Abstract: An electronic device including two bodies and at least one hinge structure including a connecting assembly and two rotating assemblies is provided. Each rotating assembly is rotatably connected to the connecting assembly and includes a bracket having at least one first sliding slot, a translation member translatably arranged on the bracket and having at least one second sliding slot, and a sliding member having at least one pillar penetrating the first second sliding slots at an overlapping position. The first and second sliding slots are inclined to each other and partially overlapped at the overlapping position. The two bodies are respectively connected to the sliding members. When each rotating assembly rotates, the connecting assembly guides the translation member to translate relative to the bracket to displace the overlapping position and drive the pillar to slide along the first and second slots to move the sliding member and the corresponding body.

Abstract: A method includes determining, by a user equipment (UE), to use a first radio access technology, and triggering, by the UE, a first event to disable a second radio access technology while the UE currently uses the second radio access technology. The first event indicates that a base station fails to configure a secondary cell or instructs the base station to delete a configured secondary cell. The secondary cell is a secondary cell of the second radio access technology on the unlicensed spectrum.

Abstract: An electronic device includes a first body, a second body, a hinge mechanism, two driving mechanisms, at least two lifting mechanisms, and a flexible panel. The first body is connected to the second body through the hinge mechanism. The two driving mechanisms are disposed in the first and second bodies, respectively, and the hinge mechanism is connected to the two driving mechanisms. The lifting mechanisms are respectively disposed in the first body and the second body, and each lifting mechanism is connected to the corresponding driving mechanism. The hinge mechanism is configured to drive the two driving mechanisms which respectively drive the two lifting mechanisms to ascend or descend. The flexible panel includes a first bonding portion secured to the first body, a second bonding portion secured to the second body, and a bending portion between the first and second bonding portions. The bending portion contacts the two lifting mechanisms.

Abstract: An electronic device includes a first body, a second body, a hinge structure, an ascending/descending mechanism, and a flexible screen. The hinge structure is located between the first body and the second body, and the first body is connected to the second body through the hinge structure. At least one of the first body and the second body has an accommodating space. The ascending/descending mechanism is disposed in the accommodating space and connected to the hinge structure. The flexible screen includes a first bonding portion fixed to the first body, a second bonding portion fixed to the second body, and a bending portion located between the first and second bonding portions. The bending portion is aligned to the hinge structure and the ascending/descending mechanism. The ascending/descending mechanism is driven by the hinge structure to ascend or descend, so that the bending portion moves out of or into the accommodating space.

Abstract: A thermal module including a first body, a second body, a first fan assembly, a second fan assembly, and a shaft is provided. The first body and the second body are slidably connected to each other and form an accommodating space together. The first fan assembly is disposed in the accommodating space and has a first hub and a plurality of first fan blades. The first hub is connected to the first body. The second fan assembly is disposed in the accommodating space and has a second hub and a plurality of second fan blades, and the second hub is connected to the second body. The first hub and the second hub overlap each other. The shaft is pivotally disposed in the first body and the second body and is engaged with the first fan assembly and the second fan assembly.

Abstract: A flexible electronic device includes: a base; a supporting plate having a first end pivotally connected to the base, and a second end; two pivot modules disposed at the second end; a bearing frame having a fixed part connected to the two pivot modules, and two curved parts connected to the fixed part; a bending mechanism disposed on the fixed part and the two curved parts and connected to the pivot modules; and a flexible panel disposed on the bearing frame and covering the bending mechanism. When the flexible electronic device is switched to a curve mode, the bending module drives the two curved parts to stretch with respect to the fixed part to bend the flexible panel. When the flexible electronic device is switched to a flat mode, the bending module drives the two curved parts to move close to the fixed part to flatten the flexible panel.

Abstract: A fan module including a body and a plurality of blades is provided. The body has a rotating axis and the body is telescopic along the rotating axis to have an elongated state and a shortened state. The blades are respectively disposed on the body and rotate along with the body along the rotating axis. At least a portion of each blade is flexible and a bending state of each blade is changed along with the elongated state or the shortened state of the body. An axial size of each blade along the rotating axis when the body is in the elongated state is greater than the axial size of each blade along the rotating axis when the body is in the shortened state.

Abstract: A flexible display includes a bottom plate, a support plate, two hinge modules, a frame body, a bending module and a flexible panel. The support plate is provided with a first end and a second end. The first end is rotatably connected to the bottom plate. The hinge modules are disposed at the second end of the support plate. The frame body is provided with a fixed frame and a plurality of turning frames. The fixed frame is connected to the hinge modules. The plurality of turning frames are pivoted to two opposite sides of the fixed frame respectively. The bending module is connected with the fixed frame and the plurality of turning frames. The flexible panel is disposed on the frame body and covers the bending module. When the flexible display is switched to a touch mode, the bending module drives the plurality of turning frames to be flush with the fixed frame so that the flexible panel is in a flat plate shape.