WIWYNN CORPORATION

A heat dissipation assembly is configured to be thermally coupled to a first heat source and a second heat source which has a thermal design power greater than a thermal design power of the first heat source. The heat dissipation assembly includes a heat exchanger and a cold plate. The heat exchanger is configured to be thermally coupled to the first heat source and receive a coolant, such that the coolant absorbs heat generated by the first heat source so as to have temperature increase. The cold plate is configured to be thermally coupled to the second heat source, and the cold plate is in fluid communication with the heat exchanger for receiving the coolant from the heat exchanger, such that the coolant absorbs heat generated by the second heat source so as to vaporize.

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.

A supply cart is configured to accommodate multiple trays to be taken out by a feeder. The supply cart includes a cabinet, multiple first drawer slides, multiple second drawer slides and multiple first reflectors. The multiple first drawer slides are fixed to one side of the cabinet. The multiple second drawer slides are fixed to an opposite side of the cabinet. One of multiple first drawer slides and one of the multiple second drawer slides are a pair of drawer slides configured to support one of the multiple trays. The multiple first reflectors are respectively disposed on the multiple first drawer slides, and configured to generate a first feedback signal corresponding to a sensing signal that is generated by a level sensor disposed on the feeder.

A chassis includes a casing and a tray. The tray is disposed in the casing. The tray includes a tray body, a lock member and an unlock member. The tray body has a bottom plate and a side wall. The lock member is pivotally connected to the bottom plate and the lock member is locked with the casing. The unlock member is pivotally connected to the side wall and the unlock member engages with the lock member. When the unlock member rotates toward a first direction to disengage from the lock member, the tray is able to move out of the casing and the lock member is able to be pushed by the casing to rotate toward a second direction, such that the lock member is unlocked from the casing. The first direction is perpendicular to the second direction.

An electronic assembly for being installed in a housing of an electronic apparatus is provided. The electronic assembly includes an electronic device, a limiting component and a fixing component. The fixing component includes a stop structure. The stop structure protrudes from a surface of the fixing component perpendicularly to a first direction. When the electronic device is installed in the housing along the first direction and is in a fixed position, the limiting component is partially embedded in the electronic device and partially embedded in the housing, and the stop structure stops the electronic device from leaving the housing along a second direction opposite to the first direction.

A control method includes monitoring a leakage detector via a module controller, and when the module controller receives a leakage signal transmitted from the leakage detector, the module controller closes a valve connected to a cold plate and activates an air cooling assembly for generating an airflow towards a fin assembly thermally coupled with the cold plate.

A desiccant box module includes a case configured to contain a desiccant. The case includes a case inner frame, a case mesh sheet and a case outer frame. The case mesh sheet is sandwiched between the case outer frame and the case inner frame. A plurality of first ventilation holes are formed on the case mesh sheet. A size of the first ventilation hole is smaller than a size of particle of the desiccant.

An inner tank assembly is configured to accommodate a plurality of electronic devices. The inner tank assembly includes a bottom plate, four sidewalls, a bracket, and a busbar. The four sidewalls are connected to the bottom plate, and one of the four sidewalls is provided with an opening. The bracket is disposed on the bottom plate. The busbar is slidably mounted on the bracket through the opening and configured to provide electricity to the electronic devices.

A condenser module of an immersion cooling apparatus includes a sealing plate, an inlet water box, an outlet water box, a connection water box, a plurality of first pipes and a plurality of second pipes. The sealing plate is configured to seal a tank of the immersion cooling apparatus. The inlet water box is fixed to the sealing plate. The outlet water box is fixed to the sealing plate. The first pipes are connected between the inlet water box and the connection water box. The second pipes are connected between the outlet water box and the connection water box.

A power transmission assembly includes a positive transmission plate and a negative transmission plate. The positive transmission plate includes a first positive electrode, a second positive electrode and a third positive electrode. The second positive electrode is movably lapped over the first positive electrode. The third positive electrode is movably lapped over the second positive electrode. The negative transmission plate includes a first negative electrode, a second negative electrode, a third negative electrode and a fourth negative electrode. The first negative electrode is parallel to the first positive electrode. The second negative electrode is parallel to the second positive electrode and movably lapped over the first negative electrode. The third negative electrode is parallel to the second positive electrode and movably lapped over the second negative electrode. The fourth negative electrode is parallel to the third positive electrode and movably lapped over the third negative electrode.