Abstract: Disclosed are a low-cost high-efficiency drip irrigation system for a cotton field and a use method thereof. The drip irrigation system for a cotton field includes a filtering device and a water supply device; wherein the filtering device adopts different types of single filtering devices or combined filtering devices according to different water source types; the water supply device includes multiple stages of main pipes, submain pipes and laterals; the laterals (a drip irrigation tape with labyrinth on one side or a drip irrigation tape inlaid with emitters inside) are laid on the surface of the ground and located below a mulch film. The drip irrigation system adopts the design of large flow (1.5-3.4 L/h), slightly larger pipe diameter (>75 mm), low water pressure (operating pressure of drip irrigation tape being 0.03-0.07 MPa) and suitable drip irrigation uniformity (80%-90%).

Abstract: A solid state drive (SSD) device includes a cage with a top wall and a bottom wall spaced a distance from the top wall so as to define a cage interior between the top and bottom walls. In addition, at least 10% of an area along a side of the cage is open to the cage interior to permit airflow through the side of the cage. At least one printed circuit board (PCB), which includes at least one integrated circuit component, is also provided within the cage interior.

Abstract: A solid state drive (SSD) device includes a cage with a top wall and a bottom wall spaced a distance from the top wall so as to define a cage interior between the top and bottom walls. In addition, at least 10% of an area along a side of the cage is open to the cage interior to permit airflow through the side of the cage. At least one printed circuit board (PCB), which includes at least one integrated circuit component, is also provided within the cage interior.

Abstract: The embodiments herein describe a function module that is removably mounted in a chassis. For example, the chassis may be a server chassis which stores a plurality of blade servers which uses hardware components and a fan module mounted in the function module to increase the storage capacity or computing performance of the blade servers. The function module can include PCIe cards, GPU cards, hard drives, and the like which are communicatively coupled to the blade servers in the chassis. In one embodiment, the function module is slidably mounted onto the chassis so that when pulled by the system administrator, the function module slides out of a front or rear side of the chassis. Doing so provides room for the system administrator to then add and/or remove the hardware components and the fan module mounted in the function module.

Abstract: The embodiments herein describe a computing device (e.g., a storage server) that includes at least one telescoping unit which includes a plurality of removable (or pluggable) hardware components. The computing device includes a chassis which defines a form factor of the computing device. The telescoping unit, when prompted by the user, can extend vertically from a top surface of the computing device. By doing so, the pluggable hardware components are then exposed to the user who can add or replace the components. In one embodiment, the telescoping unit includes telescoping links disposed on opposite sides which are used to guide or urge the telescoping unit vertically from the chassis. Cross links may be coupled between first and second rails where one end of each of the links is coupled to a sliding member in the rail while the other end is fixably attached to the rail.

Abstract: In accordance with various embodiments of the disclosed subject matter, a display motherboard, a fabricating method thereof, a related display panel, and a related display apparatus are provided. In some embodiments, the display motherboard comprises: a display region corresponding to each display unit to be formed; a non-display region around each display region; and an alignment layer disposed in the display region and the non-display region; wherein the alignment layer disposed in the display region and the non-display region has a single body structure.

Abstract: A centralized photosensitive LED streetlight control system, includes a control center, a number of LED streetlights and multiple field distribution boxes, with each field distribution box supplying power to multiple LED streetlights in a centralized way, and also includes multiple field controllers used in a complementing way with field distribution boxes. The field controller consists of photosensitive sensor, processor, power switch control unit and communication module, with the power switch control unit connecting to the power switch of field distribution box, the processor collecting and converting photosensitive sensor signal and outputting after analyzing and judging the control signal to the power switch control unit to control the power switch of field distribution box; the communication module connecting with the control center network for the control center to monitor in real time the working states of field controller and power switch.

Abstract: An LED (light emitting diode) lighting device with high color rendering index includes a plurality of LED luminous units, wherein one of the LED luminous units has (u?, v?) chromaticity coordinates defined on a 1976CIE chromaticity diagram, a distance between every two coordinate points is not less than 0.01, a distance between at least one of the coordinate points and any other coordinate point is not less than 0.1, and coordinates of at least one of the coordinate points meet a condition that 0.10?u??0.45 and 0.30?v??0.50. By selecting a variety of LEDs within a certain spectral range to mix light, the color rendering index of the LED lighting device with high color rendering index of the present invention can be improved, and simultaneously the cost of the light source can be controlled.