Abstract: This disclosure is directed to an adsorption unit having spring structure, which has a frame, multiple limiting springs and multiple adsorption granules. The frame has an inlet side and an exhaust side. The limiting springs are arranged in the frame, and a slot is provided on each limiting spring. The adsorbed granules are arranged in the frame and restricted by the spacers and fixed in the frame so as to locate between the inlet side and the exhaust side. Air enters the adsorption unit from the environment through the inlet side, passes through the adsorption unit, and leaves the adsorption unit through the exhaust side. The air passes through the adsorption unit and returns to the environment so as to contact the adsorption granules to remove carbon dioxide and water.

Abstract: This disclosure is directed to an adsorption unit, having a frame, multiple spacer tubes and multiple adsorption granules. The frame has an inlet side and an exhaust side. The spacer tubes are arranged in the frame, and a plurality of through holes are provided on each of the spacer tubes. The adsorbed granules are arranged in the frame, and the adsorbed granules are restricted by the spacers and fixed in the frame so as to locate between the inlet side and the exhaust side. Air enters the adsorption unit from the environment through the inlet side, passes through the adsorption unit, and leaves the adsorption unit through the exhaust side. The air passes through the adsorption unit and returns to the environment so as to contact the adsorption granules to remove carbon dioxide and water.

Abstract: This disclosure is directed to a carbon capture system having an adsorption module, a fan module, a desorption chamber and a desorption line. The adsorption module has a plurality of adsorption units arranged in a coplanar array. Each of the adsorption units has a frame and a plurality of adsorption structures. The frame has an inlet end and an exhaust end. The adsorption structures are arranged in the frame, and the adsorption module is defined with a flow direction from the inlet ends toward the exhaust ends. The fan module is defined with an air outlet direction, and the air outlet direction is arranged along the flow direction. The desorption chamber is used for accommodating the adsorption module. One end of the desorption pipeline is connected to the desorption chamber, and the desorption pipeline is connected with a gas storage tank and a negative pressure pump arranged in series.

Abstract: This disclosure is directed to an adsorption unit, having a frame, multiple spacer pieces and multiple adsorption structures. The frame has an inlet side and an exhaust side. The spacer pieces are arranged in the frame. The adsorbed structures are arranged in the frame, and are restricted by the spacers and fixed in the frame so as to locate between the inlet side and the exhaust side. Air enters the adsorption unit from the environment through the inlet side, passes through the adsorption unit, and leaves the adsorption unit through the exhaust side. The air passes through the adsorption unit and returns to the environment so as to contact the adsorption structures to remove carbon dioxide and water.

Abstract: The present invention relates to a method of utilizing the aerodynamic interlacing process to produce a chemical filter media, comprising: (a) utilizing the airflow to bring short-cut fibers and functional particulates to a composite air blower, thereby enabling the blowing air of the short-cut fibers and the functional particulates to enter into diffusing mixing conveying area at the same time so that the mixed airflow diffuses the short-cut fibers and the functional particulates from the top to the bottom which flow afterwards to a multilayer interlacing forming area beneath; (b) utilizing an air suction device under the multilayer interlacing forming area to adsorb the short-cut fibers and the functional particulates for sequentially piling up on a moving forming matrix so that the filter media is formed with a laminated structure having several layers of from sparse to dense, (c) heating the filter media and (d) cooling the filter media.

Abstract: The present invention relates to a method of utilizing the aerodynamic interlacing process to produce a chemical filter media, comprising the steps of: (a) utilizing the airflow to bring short-cut fibers and functional particulates to a composite air blower, thereby enabling the blowing air of the short-cut fibers and the functional particulates to enter into diffusing mixing conveying area at the same time so that the mixed airflow diffuses the short-cut fibers and the functional particulates from the top to the bottom which flow afterwards through an air guide device so that the airflow is able to smoothly bring them to a multilayer interlacing forming area beneath; (b) utilizing an air suction device under the multilayer interlacing forming area to adsorb the short-cut fibers and the functional particulates for sequentially piling up on a moving forming matrix so that the filter media is formed with a laminated structure having several layers of from sparse to dense, (c) heating the filter media and (d) co