Abstract: Provided is a method for treating cancer by administering to a subject in need thereof with a pharmaceutical composition including a benzenesulfonamide derivative in combination with a cancer immunotherapeutic agent such as the immune check point inhibitor (ICI).

Abstract: A wafer transporting method includes following operations. A plurality of wafers are received in a semiconductor container attached to a mobile vehicle. An air processing system is coupled to a wall of the semiconductor container. The air processing system includes an inlet valve, an outlet valve, a pump between the inlet valve and the outlet valve, and a desiccant coupled to the pump. The semiconductor container is moved. The pump of the air processing system is turned on to extract air from inside the semiconductor container into the air processing system through the inlet valve. Humidity of the air is reduced when the air passes through the desiccant of the air processing system. The air is returned back to the semiconductor container through the outlet valve.

Abstract: Provided is a pharmaceutical composition for treating malignant peripheral nerve sheath (MPNST), including a benzenesulfonamide derivative and a pharmaceutically acceptable carrier. Also provided is a method for treating canine MPNST by administering the pharmaceutical composition to a subject in need thereof.

Abstract: A temperature control device comprises a fan, a temperature sensor, a modeling circuit and a PID controller, with the PID controller connected with the fan, the temperature sensor and the modeling circuit. The fan drives airflows for controlling the temperature of a controlled region. The temperature sensor is disposed in the controlled region and obtains a detected temperature indicating the temperature of the controlled region. The modeling circuit obtains at least one cooling parameter group based on a transfer function. The PID controller controls the fan based on an initial parameter group when the detected temperature is lower than a first temperature, and controls the fan based on said at least one cooling parameter group when the detected temperature is equal to or higher than the first temperature. The initial parameter group comprises initial parameters, with the value of each of the initial parameters equal to a preset value.

Abstract: A cooling device includes a sink, a first tube, a second tube, a heat exchanger, a pressure adjuster, and a dielectric liquid. The sink has a first outlet and a second outlet. The first tube has a first outlet connected to the first outlet of the sink, and a second outlet. The second tube has a first outlet connected to the second outlet of the sink, and a second outlet. The heat exchanger has a first outlet connected to the second outlet of the first tube, a second outlet connected to the second outlet of the second tube, and a third outlet. The pressure adjuster has an outlet connected to the third outlet of the heat exchanger. A heating element is placed in the sink and immersed in the dielectric liquid. The size of the pressure adjuster is defined by a volume of a vaporization status of the dielectric liquid.

Abstract: A cooling device includes a sink, a first tube, a second tube, a heat exchanger, a pressure adjuster, and a dielectric liquid. The sink has a first outlet and a second outlet. The first tube has a first outlet connected to the first outlet of the sink, and a second outlet. The second tube has a first outlet connected to the second outlet of the sink, and a second outlet. The heat exchanger has a first outlet connected to the second outlet of the first tube, a second outlet connected to the second outlet of the second tube, and a third outlet. The pressure adjuster has an outlet connected to the third outlet of the heat exchanger. A heating element is placed in the sink and immersed in the dielectric liquid. The size of the pressure adjuster is defined by a volume of a vaporization status of the dielectric liquid.

Abstract: An automatic power supply system is electrically coupled to a component to be tested. The automatic power supply system includes a power array and a controller. The power array includes a plurality of power channels, and provides power supplies through the plurality of power channels. The component to be tested is electrically coupled to a first power channel of the plurality of power channels and receives a power supply through the first power channel. The controller is electrically coupled to the power array, and calculates a power of the power supply received by the component to be tested. The controller adjusts a power specification of the power supply provided through the first power channel according to the power.

Abstract: A power supply array system includes N first receiving devices and a power supply array device capable of generating N voltages. The power supply array device includes M adjustable power control boards, an adjustable input/output circuit board, and a controller. The M adjustable power control boards are used for outputting the N voltages. Each adjustable power control board has a plurality of output terminals. Each output terminal is used for outputting a voltage. The adjustable input/output circuit board is coupled to the plurality of output terminals of each adjustable power control board for detecting a voltage and a current of each output terminal. The controller is used for receiving data of the voltage and the current of the each output terminal of the each power control board accordingly. N and M are two integers greater than two and N>M.

Abstract: After a temperature point of the cooling fan is set according to a plurality of temperatures corresponding to a plurality of first consecutive time intervals, control a duty cycle of the cooling fan according to the temperature point, acquire temperature variation data of the cooling fan during a plurality of second consecutive time intervals, generate a gain factor and a frequency factor of the cooling fan according to the temperature variation data, and generate a proportional gain factor, an integral time factor and a derivative time factor of a proportional-integral-derivative controller of the cooling fan according to the gain factor and the frequency factor of the cooling fan. The plurality of first consecutive time intervals are followed by the plurality of second consecutive time intervals.

Abstract: A temperature-controlling method adapted to a server comprises: getting a detected temperature; selecting a schedule from a plurality of schedules according to the detected temperature by a gain-scheduling unit, wherein the plurality of schedules comprises an initial parameter set and at least one cooling parameter set; calculating and outputting a control signal of fan speed according to the initial parameter set or said at least one cooling parameter set by a PID controller; and adjusting a rotating speed according to the control signal of fan speed by a fan.

Abstract: A temperature control device comprises a fan, a temperature sensor, a modeling circuit and a PID controller, with the PID controller connected with the fan, the temperature sensor and the modeling circuit. The fan drives airflows for controlling the temperature of a controlled region. The temperature sensor is disposed in the controlled region and obtains a detected temperature indicating the temperature of the controlled region. The modeling circuit obtains at least one cooling parameter group based on a transfer function. The PID controller controls the fan based on an initial parameter group when the detected temperature is lower than a first temperature, and controls the fan based on said at least one cooling parameter group when the detected temperature is equal to or higher than the first temperature. The initial parameter group comprises initial parameters, with the value of each of the initial parameters equal to a preset value.

Abstract: After a temperature point of the cooling fan is set according to a plurality of temperatures corresponding to a plurality of first consecutive time intervals, control a duty cycle of the cooling fan according to the temperature point, acquire temperature variation data of the cooling fan during a plurality of second consecutive time intervals, generate a gain factor and a frequency factor of the cooling fan according to the temperature variation data, and generate a proportional gain factor, an integral time factor and a derivative time factor of a proportional-integral-derivative controller of the cooling fan according to the gain factor and the frequency factor of the cooling fan. The plurality of first consecutive time intervals are followed by the plurality of second consecutive time intervals.

Abstract: A power supply array system includes N first receiving devices and a power supply array device capable of generating N voltages. The power supply array device includes M adjustable power control boards, an adjustable input/output circuit board, and a controller. The M adjustable power control boards are used for outputting the N voltages. Each adjustable power control board has a plurality of output terminals. Each output terminal is used for outputting a voltage. The adjustable input/output circuit board is coupled to the plurality of output terminals of each adjustable power control board for detecting a voltage and a current of each output terminal. The controller is used for receiving data of the voltage and the current of the each output terminal of the each power control board accordingly. N and M are two integers greater than two and N>M.

Abstract: A heat dissipation module includes a heat conducting plate having an upper surface, a stacked fins heat sink in thermal contact with and disposed on the upper surface of the heat conducting plate, at least one heat pipe and multiple fins. The evaporation end is in thermal contact with and disposed on the upper surface. The plurality of fins are located on the upper surface and positioned at intervals. Each of the fins has at least one through hole and the condensation end runs through the at least one through hole.

Abstract: A server includes a motherboard and a heat dissipation module. The motherboard includes a heat source. The heat dissipation module includes a cooling plate, a liquid cooling heat exchanger, a circulation line and several fans. The cooling plate is thermally contacted with the heat source. The liquid cooling heat exchanger is located on one side of the motherboard. The liquid cooling heat exchanger is connected with the cooling plate via the circulation line for forming a circulation circuit. The plurality of fans are located next to the liquid cooling heat exchanger.

Abstract: A server includes a housing, a motherboard and a heat dissipating module. The motherboard is disposed inside the housing and includes multiple heat sources. The heat dissipating module includes a cooling plate disposed inside the housing and in thermal contact with multiple heat sources. The cooling plate includes a substrate, a casing and multiple fins. The substrate is in thermal contact with multiple heat sources. The casing is disposed on the substrate, while the casing and the substrate form a chamber. Multiple fins are disposed on the substrate and are inside the chamber.

Abstract: A plastic auxiliary frame magnetically attachable to eyeglasses wherein magnets are positioned such that they magnetically engage the face of the rim surrounding the parent eyeglass frame. The magnets are so positioned that they do not actually touch the rim face so that scratching of the finish on the face is prevented.

Abstract: A cooling circulation system of a server includes a cabinet assembly, a plurality of first fan modules, a plurality of second fan modules, and two air guide hoods. The first fan modules and the second fan modules are disposed on the cabinet assembly. The first fan modules blow a first airflow towards a first direction, and the second fan modules blow a second airflow towards a second direction. The air guide hoods are respectively installed on two ends of the cabinet assembly. The first airflow and the second airflow join each other through the air guide hoods, so as to form a cooling circulation loop inside the cabinet assembly.

Abstract: This invention is a magnetic pulling type free hanging frame, the pulling type free hanging frame comprises at least a plastic ring and the lens contained in said plastic ring; said plastic ring includes a positioning mechanism which coordinates with the main eyeglass frame; the pulling type free hanging frame also includes at least a magnet, said magnet is inlayed in said plastic ring.

Abstract: A cooling circulation system of a server includes a cabinet assembly, a plurality of first fan modules, a plurality of second fan modules, and two air guide hoods. The first fan modules and the second fan modules are disposed on the cabinet assembly. The first fan modules blow a first airflow towards a first direction, and the second fan modules blow a second airflow towards a second direction. The air guide hoods are respectively installed on two ends of the cabinet assembly. The first airflow and the second airflow join each other through the air guide hoods, so as to form a cooling circulation loop inside the cabinet assembly.