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 configured to cool a heat source includes a tank, a bellow and a solenoid valve. The tank contains a coolant, and the heat source is immersed in the coolant. The solenoid valve includes a first channel, a second channel, a third channel and a piston. The first channel is connected to the tank. The second channel is connected to the bellow. The third channel is connected to an external space. The piston is configured to seal the second channel and the third channel. The piston is configured to connect the first channel to one of the second channel and the third channel. When the heat source is initially activated, the piston is moved to connect the first channel to the third channel. When the heat source operates, the piston is moved to connect the first channel to the second channel.

Abstract: A computer system connected to an external heat dissipation device and including a casing, a circuit board, a heat source, an open type heat dissipation device and a closed type heat dissipation device. The circuit board is disposed on the casing. The heat source is disposed on the circuit board. The open type heat dissipation device includes a liquid cold plate and two connectors. The liquid cold plate is disposed on the circuit board and spaced apart from the heat source. The liquid cold plate is configured to be connected to the external heat dissipation device via the two connectors. The closed type heat dissipation device includes an evaporator and a condenser that are connected to each other. The evaporator is in thermal contact with the heat source, and the condenser is in thermal contact with the liquid cold plate.

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 immersion cooling apparatus includes a heat-generating member, a chamber and a plurality of metal tubes. The chamber has a plurality of upper steam-discharging outlets. The chamber stores a cooling solution and contains the heat-generating member to make the heat-generating member immersed in the cooling solution. The plurality of metal tubes is communicated with the plurality of the upper steam-discharging outlets respectively. Each metal tube extends upward from the upper steam-discharging outlet to guide steam generated by the cooling solution when the cooling solution absorbs heat of the heat-generating member to leave the chamber through the upper steam-discharging outlets and then enter the metal tubes. When the metal tubes cool the steam into liquid, the liquid flows downward along each metal tube and then flows into the cooling solution through the plurality of upper steam-discharging outlets.

Abstract: A container for immersion cooling system includes a plural of container sidewalls, a circuit board, an inner connector, and an outer connector. The plural of container sidewalls form an accommodating space. One of the plural of container sidewalls has an opening. The circuit board is fixed to the one of the plural of container sidewalls and seals the opening. The circuit board has a first surface and a second surface opposite to the first surface. The first surface is exposed to the accommodating space. The inner connector is fixed on the first surface and is located in the accommodating space. The outer connector is fixed on the second surface and is electrically connected to the inner connector through the circuit board. The outer connector is exposed out of the container. Therein, the circuit board, the inner connector, and the outer connector form an adapter module for the container.

Abstract: A container for immersion cooling system includes a plural of container sidewalls, a circuit board, an inner connector, and an outer connector. The plural of container sidewalls form an accommodating space. One of the plural of container sidewalls has an opening. The circuit board is fixed to the one of the plural of container sidewalls and seals the opening. The circuit board has a first surface and a second surface opposite to the first surface. The first surface is exposed to the accommodating space. The inner connector is fixed on the first surface and is located in the accommodating space. The outer connector is fixed on the second surface and is electrically connected to the inner connector through the circuit board. The outer connector is exposed out of the container. Therein, the circuit board, the inner connector, and the outer connector form an adapter module for the container.

Abstract: A cooling device includes a sink, a dielectric liquid disposed in the sink, a heat exchanger, a first tube, a second tube, a gas storage unit, a first valve, a second valve and a third valve. A first interface of the first tube is connected to a first sink interface of the sink. A second interface of the first tube is connected to a first heat exchanger interface of the heat exchanger. The second tube is connected between a second sink interface of the sink and a second heat exchanger interface of the heat exchanger. The first valve is disposed on a third interface of the first tube. The second valve is disposed between the first valve and a first gas storage unit interface of the gas storage unit. The third valve is disposed between a second gas storage unit interface of the gas storage unit and an external space.

Abstract: A cooling system includes a housing, a dielectric liquid and a dielectric vapor. The housing has an accommodating space configured to accommodate a heat generating component. The dielectric liquid partially fills the accommodating space and is configured to contact the heat generating component. The dielectric vapor partially fills the accommodating space and is configured to contact the housing.

Abstract: A method for controlling an angular speed of a fan of a computer system includes obtaining an error value; obtaining an adjusted error value by adjusting the error value using an adjustment constant when an absolute value of the error value is not larger than a predetermined value; obtaining a total output value according to at least the adjusted error value; and controlling the angular speed of the fan according to the total output value. The total output value is positively related to a pulse width modulation value, and the angular speed of the fan increases when the pulse width modulation value increases.

Abstract: An immersion cooling apparatus includes a chamber, a steam-discharging tube, a liquid-returning tube, and a heat-dissipating tube. The chamber has a steam-discharging outlet and a liquid-returning inlet for storing a cooling solution and containing a heat-generating member. The steam-discharging tube is communicated with the steam-discharging outlet to discharge steam generated by the cooling solution. The liquid-returning tube passes through the liquid-returning inlet to be immersed in the cooling solution. The heat-dissipating tube is communicated with the steam-discharging tube and the liquid-returning tube and is spaced apart from the chamber for cooling the steam into liquid and returning the liquid to the cooling solution through the liquid-returning tube.

Abstract: A data recording system includes a host terminal and a data recorder. The host terminal defines a first module card to be corresponding to a first data channel and a first module card slot of the data recorder. The first module card is inserted into the first module card slot, and the data recorder stores a first type of data captured from the first data channel to the first module card. The host terminal has the data recorder stop capturing the first type of data, and defines a second module card to be corresponding to a second data channel and the first module card slot of the data recorder. The data recorder is shut down, and the first module card is dismounted from the first module card slot. The second module card is inserted into the first module card slot, and the data recorder is rebooted.

Abstract: The disclosure is related to a method for verifying an immersion cooling system. The immersion cooling system includes a first sensor, a second sensor and at least one third sensor. The method includes: obtaining a first difference value; determining whether the first difference value is smaller than a first threshold value; determining that the first sensor and the second sensor are in normal operation when the first difference value is smaller than the first threshold value; when the first difference value is not smaller than the first threshold value, determining an operating condition of the first sensor or the second sensor according to a relationship between a sensor value of the at least one third sensor and the sensor value of the first sensor, or a relationship between the sensor value of the at least one third sensor and the sensor value of the second sensor.

Abstract: A gas storage device includes a hollow casing, a gas storage bag, a gas tube, and a retractable module. The hollow casing has a casing top, a casing sidewall, and a casing bottom. The gas storage bag is located in the hollow casing. The gas tube is arranged through the casing bottom and in fluid communication between the gas storage bag and an exterior space. The retractable module is connected between a top surface of the gas storage bag and the casing top. The gas storage bag expands when fluid is filled into the gas storage bag through the gas tube, such that the retractable module is folded. The gas storage bag contracts when fluid is drawn out of the gas storage bag through the gas tube, such that the retractable module is unfolded.

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 gas storage device includes a hollow casing, a gas storage bag, a gas tube, and a retractable module. The hollow casing has a casing top, a casing sidewall, and a casing bottom. The gas storage bag is located in the hollow casing. The gas tube is arranged through the casing bottom and in fluid communication between the gas storage bag and an exterior space. The retractable module is connected between a top surface of the gas storage bag and the casing top. The gas storage bag expands when fluid is filled into the gas storage bag through the gas tube, such that the retractable module is folded. The gas storage bag contracts when fluid is drawn out of the gas storage bag through the gas tube, such that the retractable module is unfolded.

Abstract: A heat dissipation control method is applied to an immersion cooling apparatus for cooling a heat generating member. The immersion cooling apparatus includes a cooling chamber, a fan device, and a pump communicated with the cooling chamber and the fan device for transmitting vapor generated by a cooling solution to the fan device and transmitting the cooling solution to the cooling chamber. The heat generating member is immersed in the cooling solution stored in the cooling chamber. The fan device cools the vapor into liquid. The heat dissipation control method includes utilizing a sensing processor to detect a vapor temperature, the sensing processor preferentially increasing power of the pump when determining the vapor temperature is larger than a maximum of a temperature control range, and the sensing processor preferentially decreasing power of the fan device when determining the vapor temperature is less than a minimum of the temperature control range.

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.