Abstract: A data processing method includes obtaining N sampled data items from a sensor of a mobile platform, and separating the N sampled data items into a first data group, a second data group, and a third data group. Each of the first data group and the second data group includes M sampled data items, and the third data group includes one sampled data items. M is an integer greater than or equal to 2, and N=2×M+1. The method further includes obtaining a median data item of the N sampled data items according to a larger one of a minimum sampled data item in the first data group and a minimum sampled data item in the second data group, a smaller one of a maximum sampled data item in the first data group and a maximum sampled data item in the second data group, and the one sampled data item in the third data group.

Abstract: A data processing method includes obtaining N pieces of data at a time from data to be processed, determining first valid data from the N pieces of data, writing the first valid data into a storage device, and reading second valid data at a time from the storage device. N is an integer larger than or equal to 2. A number of pieces of data of the first valid data is larger than or equal to 0 and smaller than or equal to N. A number of pieces of data of the second valid data is K, and K is an integer larger than or equal to 1 and smaller than N.

Abstract: An unmanned aerial vehicle (UAV) control method includes generating a flight strategy for a target UAV in a UAV group, sending flight information to the target UAV, performing a clock synchronization on the target UAV to configure a reference time for the target UAV, and sending a take-off instruction to the target UAV. The flight strategy includes a flight instruction instructing the target UAV to fly to a target position at a target moment. The flight information includes the flight strategy. The take-off instruction triggers the target UAV to fly to the target position at the target moment according to the flight instruction by using the reference time as a standard reference time.

Abstract: A modular protective housing structure for a rack includes a bottom portion of the rack having a plurality of rollers installed thereon; the module protective housing structure including a chassis having a base and an outer cover configured to surround the base thereon; the outer cover having a front opening; and a front door panel pivotally attached to the base; the front door panel configured to cover onto the front opening and placed on a ground; the front door panel having a plurality of slanted ribs attached to the ground; wherein when the front door panel is placed on the ground, the rack slides into the chassis from the ground along the front door panel, and positions of the slanted ribs are arranged corresponding to positions of the rollers. Therefore, effects of cost saving and supporting ability of the front door panel are achieved.

Abstract: A sever rack system includes a rack body, multiple server units, a power control unit and a power supply module. Multiple storage cabinets, a first surface and a second surface are disposed on the rack body. The server units are respectively installed on each storage cabinet and perpendicular to the first surface. Each server unit includes a power socket and each power socket protrudes towards the second surface. The power control unit is installed on one of the storage cabinets and near one side of the server units. The power control unit includes multiple power supplies, a first conductive sheet and a second conductive sheet connected to each power supply. The power supply module includes a first conductive stick, multiple insulation blocks and a second conductive stick. Each insulation block is disposed between the first conductive stick and the second conductive stick for being coupled with the power socket.

Abstract: A double-rack storage media chassis structure includes a chassis (100), two storage media modules (200) and two slide modules (300). The chassis (100) includes a partition frame (110) and two storage spaces (120) formed on both sides of the partition frame (110) respectively. Each storage media module (200) accommodated in each respective storage space (120) includes a tray frame (210) and storage media (220). The tray frame (210) includes a side panel (230) and an access opening (240) disposed opposite to the side panel (230). Each access opening (240) of each storage media module (200) is arranged correspondingly. Each slide module (300) includes a first slide assembly (310) on a side panel of the chassis (100) and a second slide assembly (320) on a side panel (230) of the tray frame (210). The storage media can be pulled out from inner sides of the two storage media modules conveniently.

Abstract: A sever rack system includes a rack body, multiple server units, a power control unit and a power supply module. Multiple storage cabinets, a first surface and a second surface are disposed on the rack body. The server units are respectively installed on each storage cabinet and perpendicular to the first surface. Each server unit includes a power socket and each power socket protrudes towards the second surface. The power control unit is installed on one of the storage cabinets and near one side of the server units. The power control unit includes multiple power supplies, a first conductive sheet and a second conductive sheet connected to each power supply. The power supply module includes a first conductive stick, multiple insulation blocks and a second conductive stick. Each insulation block is disposed between the first conductive stick and the second conductive stick for being coupled with the power socket.

Abstract: A modular protective housing structure for a rack includes a bottom portion of the rack having a plurality of rollers installed thereon; the module protective housing structure including a chassis having a base and an outer cover configured to surround the base thereon; the outer cover having a front opening; and a front door panel pivotally attached to the base; the front door panel configured to cover onto the front opening and placed on a ground; the front door panel having a plurality of slanted ribs attached to the ground; wherein when the front door panel is placed on the ground, the rack slides into the chassis from the ground along the front door panel, and positions of the slanted ribs are arranged corresponding to positions of the rollers. Therefore, effects of cost saving and supporting ability of the front door panel are achieved.

Abstract: An assembly structure for a server hard disk back panel includes a server chassis; a plurality of hard disk frames disposed inside the server chassis; and a back panel disposed between the server chassis and the hard disk frame. A hook is disposed, corresponding to the back panel, on a side edge of each of the two side portions of each hard disk frame. The hooks of any two adjacent hard disk frames are disposed adjacent to each other correspondingly. The back panel includes a plurality of hook holes, and a respective one of the hook holes is corresponding to each two adjacent hooks. Each of the hook holes includes two contact edges corresponding to each other at two sides and includes a hook edge between the two contact edges.