Abstract: A model for predicting bioavailability of arsenic in site soil and a construction method and an application thereof, includes steps of: leveling soil after selecting a measuring point, vertically placing a measuring sleeve, fully supplying water to site soil to be measured, balancing for 20-40 min, measuring a water content in a soil volume not less than 40%, placing a piston DGT device into the measuring sleeve and pressing the device into soil, covering a top of the measuring sleeve with a wind shield, cleaning the piston DGT device after the measurement, analyzing a concentration of available arsenic by ICP-MS, and measuring available arsenic of soil; linearly fitting the available arsenic measured by a DGT method with human bioavailable arsenic measured by a UBM method, and obtaining a model for predicting bioavailability of arsenic in site soil.

Abstract: A knitted component comprising two yarns, forming at least a heel region of an upper for an article of footwear, where one of the yarns comprises a thermoplastic material. The outer surface may include a fused area comprising a first thermoplastic yarn. The inner surface may be at least partially formed with a second yarn and may substantially exclude the thermoplastic material. There may be a transitional area including a reduced amount of thermoplastic material relative to a fused area. The knitted component may include a cushioning material between layers of the knit element.

Abstract: Various embodiments of the present disclosure are directed towards a method for forming an integrated chip, the method includes forming a through substrate via (TSV) in a first substrate. The TSV continuously extends from a first surface of the first substrate to a second surface of the first substrate. A conductive contact is formed on the second surface of the first substrate. The conductive contact comprises a first conductive layer disposed on the TSV. An upper conductive layer is formed between the conductive contact and the TSV. The upper conductive layer comprises a silicide of a conductive material of the first conductive layer.

Abstract: A wireless modem and an operation method thereof are provided. The operation method of the wireless modem includes the following steps. A communication signal is buffered in a storage unit when the communication signal is received. The communication signal is a paging early indicator (PEI) signal, a paging signal or a radio resource management (RRM) signal. A synchronization procedure is performed, when a reference signal is received. The communication signal is fetched from the storage unit, when the synchronization procedure is finished. A compensation procedure is performed on the communication signal. The communication signal which is compensated is demodulated.

Abstract: An immersion cooling system includes a work tank, a chip device, a microchannel device, a first communication pipeline, and a first heat exchange device. The work tank includes a fluid section. The chip device is in the fluid section and has an inlet and an outlet. The chip device includes a motherboard, a chip, and a cover. The motherboard has a main surface substantially parallel to a vertical line. The cover is on the motherboard. The chip is between the cover and the motherboard. The microchannel device is in the chip device. Two ends of the microchannel device are respectively in communication with the inlet and the outlet. The first communication pipeline and the first heat exchange device are in the fluid section. Two ends of the first communication pipeline are respectively in communication with the outlet and the first heat exchange device.

Abstract: A piece of immersion liquid cooling equipment, which is adapted for an electronic device, includes a tank, a condenser, a cold plate, and a first pipe. The tank accommodates a first fluid, and the electronic device is immersed in the first fluid in the form of a liquid. The condenser is disposed in the tank and located above the first fluid in the form of a liquid. The cold plate is disposed in the tank and is in thermal contact with at least one high power commodity of the electronic device. The first pipe is disposed and extends between an exterior and an interior of the tank. The first pipe communicates with the condenser and the cold plate. The first pipe is configured to receive a second fluid to flow through the condenser and the cold plate. A heat dissipation method for an electronic device.

Abstract: An immersion cooling system including a cooling tank, an immersion unit, and a baffle assembly is provided. The cooling tank has a receiving portion. The immersion unit is in the receiving portion and includes a boiler plate. The baffle assembly divides the receiving portion into an inner upper portion, an inner lower portion, and a peripheral portion. The boiler plate is in the inner lower portion, and a width of the inner upper portion is less than or equal to a width of the boiler plate.

Abstract: An immersion cooling system includes a cooling tank, an immersion unit, a first disturbing element, and a first maintaining element. The cooling tank has a receiving portion. The immersion unit is in the receiving portion, and the immersion unit includes a boiler plate. The first disturbing element has a first convex surface. The first maintaining element maintains the first disturbing element to allow a convex direction of the first convex surface towards the boiler plate, and a first predetermined distance is between the first convex surface and the boiler plate.

Abstract: An immersion cooling system including a cooling tank, an immersion unit, a plurality of piezoelectric units, and a piezoelectric driver is provided. The cooling tank has a receiving portion. The immersion unit is in the receiving portion and the immersion unit includes a boiler plate. One or more channels are between the piezoelectric units, and the at least one channel is in communication with the boiler plate. The piezoelectric driver is for driving each of the piezoelectric units to generate a deformation.

Abstract: A flow dividing device including a box body and a baffle set is provided. The box body includes a chamber, an inflow port, and an outflow port. The baffle set is located in the chamber and divides the chamber into a plurality of guide channels, and two ends of the guide channel communicate with the inflow port and the outflow port respectively. After flowing into the flow dividing device, the condensate fluid can guide different liquids in the condensate fluid to separate from each other. An immersion cooling system including the flow dividing device and a fluid separation method of the immersion cooling system are also provided.

Abstract: In an embodiment, the present disclosure relates to a targeting platform that includes a targeted delivery system including an agent. In some embodiments, the targeted delivery system is modified by fluorination. In some embodiments, the targeted delivery system is electrically charge neutral. In a further embodiment, the present disclosure relates to a method that includes fluorinating a targeting compound with a fluorinating reagent and loading an agent with the fluorinated targeting compound to thereby form a micelle. In an additional embodiment, the present disclosure relates to a targeting platform that includes a fluorinated polymeric system including an agent. In another embodiment, the present disclosure relates to a method that includes fluorinating a targeting compound with a fluorinating reagent and loading an agent with the fluorinated targeting compound to thereby form a micelle. Additionally, the method can include administering the fluorinated targeting compound to a subject.

Abstract: A fan includes an impeller, a drive device, and a frame structure. The driving device drives the impeller to rotate, and the frame structure accommodates the driving device. The frame structure includes a frame body, a first frame, a second frame, a base and a plurality of supports. The frame body has first engaging portions and second engaging portions, which are disposed annularly at the upper end and the lower end of the frame body, respectively. The first frame is mounted on the frame body and disposed corresponding to the first engaging portions. The second frame is mounted on the frame body and disposed corresponding to the second engaging portions. The base is disposed within the frame body and located adjacent to the second frame. The supports are disposed around the base. The material of the frame body is different from that of the first and second frames.

Abstract: A display driving apparatus including a receiver circuit, a detection circuit and a driving circuit is provided. The receiver circuit receives the video image data at a first rate. The detection circuit is coupled to the receiver circuit. The detection circuit detects whether the video image data is a static image, and determines whether the display driving apparatus enters a power saving mode based on a detecting result. The driving circuit is coupled to the receiver circuit. The driving circuit drives the display panel. In the power saving mode, the receiver circuit continuously receives the video image data at the first rate, and periodically masks a part of the video image data according to the detecting result and outputs an unmasked part of the video image data to the driving circuit. Furthermore, a display driving method adapted for the foregoing display driving apparatus is also provided.

Abstract: A thermal detection device includes a first camera, a second camera, a thermal camera, and a processor. The thermal camera is disposed between the first camera and the second camera, and detects a to-be-measured object to generate a first temperature value. The processor includes a control unit, which controls the first camera and the second camera according to settings of a first measurement mode and a second measurement mode. In the first measurement mode, the control unit captures images from the first camera and the second camera to measure a first distance between the to-be-measured object and an installation surface. In the second measurement mode, the control unit captures images from the first camera to measure a size of the to-be-measured object. The processor determines a second temperature value of the to-be-measured object according to the first temperature value, the first distance, and the size of the to-be-measured object.

Abstract: A thermal detection device includes a first camera, a second camera, a thermal camera, and a processor. The thermal camera is disposed between the first camera and the second camera, and detects a to-be-measured object to generate a first temperature value. The processor includes a control unit, which controls the first camera and the second camera according to settings of a first measurement mode and a second measurement mode. In the first measurement mode, the control unit captures images from the first camera and the second camera to measure a first distance between the to-be-measured object and an installation surface. In the second measurement mode, the control unit captures images from the first camera to measure a size of the to-be-measured object. The processor determines a second temperature value of the to-be-measured object according to the first temperature value, the first distance, and the size of the to-be-measured object.

Abstract: A display driving apparatus including a receiver circuit, a detection circuit and a driving circuit is provided. The receiver circuit receives the video image data at a first rate. The detection circuit is coupled to the receiver circuit. The detection circuit detects whether the video image data is a static image, and determines whether the display driving apparatus enters a power saving mode based on a detecting result. The driving circuit is coupled to the receiver circuit. The driving circuit drives the display panel. In the power saving mode, the receiver circuit continuously receives the video image data at the first rate, and periodically masks a part of the video image data according to the detecting result and outputs an unmasked part of the video image data to the driving circuit. Furthermore, a display driving method adapted for the foregoing display driving apparatus is also provided.

Abstract: A fan includes an impeller, a drive device, and a frame structure. The driving device drives the impeller to rotate, and the frame structure accommodates the driving device. The frame structure includes a frame body, a first frame, a second frame, a base and a plurality of supports. The frame body has first engaging portions and second engaging portions, which are disposed annularly at the upper end and the lower end of the frame body, respectively. The first frame is mounted on the frame body and disposed corresponding to the first engaging portions. The second frame is mounted on the frame body and disposed corresponding to the second engaging portions. The base is disposed within the frame body and located adjacent to the second frame. The supports are disposed around the base. The material of the frame body is different from that of the first and second frames.