Abstract: A heat-dissipating element having a casing having a closed fluid space. At least a part of the fluid space is filled with a coolant fluid, and the coolant fluid is transformed between a liquid phase and a gas phase by an environment temperature transferred by the casing.

Abstract: A vapor chamber includes a first cover, a second cover and a partition. The second cover and the first cover are bonded together to form a heat dissipation space. The second cover has at least two through holes. The at least two through holes correspond to the heat dissipation space. The at least two through holes are configured for at least two pipes to be inserted therein. The partition is located in the heat dissipation space, and protrudes from the first cover. The partition divides the heat dissipation space into an air tight subspace and an open subspace which are not in fluid communication with each other. The partition surrounds the open subspace. The open subspace is in fluid communication with the at least two through holes.

Abstract: A vapor chamber including a first plate, second plate, plurality of first support structures, plurality of second support structures, and at least one tubular heat transfer structure is provided. The first plate and the second plate define an interior cavity having a first, second, and third portion, the first, second, and third portion each have a first, second, and third depth, respectively, the plurality of first support structures is disposed in the first portion, the plurality of support structures is disposed in the second portion and the third portion, respectively, the at least one tubular heat transfer structure is disposed in the first portion and includes a first working fluid having a first working fluid circulation path, the first portion, the second portion, and the third portion include a second working fluid having a second working fluid circulation path different from the first working fluid circulation path.

Abstract: A vapor chamber including a first plate, second plate, plurality of support structures, and plurality of heat transfer structures is provided. The first plate and the second plate define an interior cavity having a first portion, a pair of second portions, and a pair of third portions. The pair of second portions and pair of third portions surround the first portion. A length of the pair of third portions defines a longitudinal direction and is greater than a width of the pair of second portions. The plurality of heat transfer structures is disposed in the first portion and the plurality of support structures is disposed throughout the interior cavity. A position of the structure length of each of the plurality of heat transfer structures is in line with the longitudinal direction so that working fluid flows from the pair of third portions to and through the first portion unhindered.

Abstract: A heat dissipating system provided herein comprises a cooling tank for storing a cooling liquid and a heat element, wherein the cooling liquid is phase-changed into a working gas due to thermal energy generated by the heat element; an evaporator installed in the cooling tank for absorbing thermal energy of the working gas; a condenser uncovered by the cooling tank; at least one communicating member communicated with the evaporator and the condenser and filled with a coolant, wherein the coolant is heated in the evaporator and flows to the condenser through the communicating member in a gaseous state, and, after being cooled in the condenser, recovers into a liquid state and then returns to the evaporator through the communicating member; and a first gas driving module for driving air to flow around the condenser.

Abstract: A heat dissipating system provided herein comprises a cooling tank for storing a cooling liquid and a heat element, wherein the cooling liquid is phase-changed into a working gas due to thermal energy generated by the heat element; an evaporator installed in the cooling tank for absorbing thermal energy of the working gas; a condenser uncovered by the cooling tank; at least one communicating member communicated with the evaporator and the condenser and filled with a coolant, wherein the coolant is heated in the evaporator and flows to the condenser through the communicating member in a gaseous state, and, after being cooled in the condenser, recovers into a liquid state and then returns to the evaporator through the communicating member; and a first gas driving module for driving air to flow around the condenser.