Abstract:
본 발명은 2차원 열유속 측정 게이지에 관한 것이며, 본 발명의 2차원 열유속 측정 게이지는 두께방향을 따라 이격되는 서로 다른 복수개의 측정지점을 구비하는 제1 온도측정부와 상기 제1 온도측정부의 일단부에 마련되며, 둘레방향을 따라 서로 이격되는 서로 다른 복수개의 측정지점을 구비하는 제2 온도측정부와 상기 제1 온도측정부에 설치되며, 상기 제1 온도측정부 및 상기 제2 온도측정부를 가열하는 히터를 포함하는 것을 특징으로 한다. 따라서, 본 발명에 의하면, 후판의 두께방향을 따라 서로 다른 두 측정지점에서 측정된 온도를 이용하여 두께방향의 열유속을 측정할 수 있고, 후판의 외면을 따라 이격되어 서로 다른 깊이를 갖는 두 측정지점의 온도를 이용하여 방사방향의 열유속을 측정할 수 있는 2차원 열유속 측정 게이지가 제공된다.
Abstract:
The present invention relates to an internal water storage type nozzle. The internal water storage type nozzle of the present invention cools a thick plate or a steel plate by spraying cooling water. The internal water storage type nozzle includes a body part having an inner member which is provided so that a flow space which is provided between the surfaces facing each other is tapered in the direction of cooling water flow and which has an opening which supplies cooling water, and an outer member which surrounds the inner member and which forms a storage space storing cooling water between the inner member and the outer member, and supplies the cooling water from the opening to the flow space. Therefore, according to the present invention, an internal water storage type nozzle capable of improving the cooling efficiency of a thick plate and a steel plate by uniformly spraying cooling water and of minimizing the installation space of a nozzle at the same time is provided.
Abstract:
PURPOSE: A printed board type heat exchanger and a manufacturing method thereof are provided to minimize wrong arrangement between channels by closely combining a head unit with a side of a plate. CONSTITUTION: A printed board type heat exchanger includes a plate (110), a header unit (120), and a fixing pin (130). A plurality of plates are prepared and laminated and a channel for a fluid is formed and includes an arrangement protrusion (112). The header unit is installed in the plates. The fixing pin arranges and fixes the arrangement protrusion to prevent wrong arrangement when the plates are being laminated. The arrangement protrusion is protruding from a dent area. The fixing pin is prepared along a thickness direction of the plates and elastically fixed with the arrangement protrusion in order to be completely included in the dent area.
Abstract:
PURPOSE: A method for capturing carbon dioxide including a desalination method of saline water in a forward osmosis mode, and a hybrid system for capturing carbon dioxide are provided to enhance system durability, and to dramatically reduce the maintenance costs by firstly separating carbon dioxide from an ammonium bicarbonate solution at a low temperature and secondly separating ammonia gas, for effectively suppressing solid salt production in a bulk desalination system. CONSTITUTION: A method of capturing carbon dioxide comprises the following steps: a step of emitting thermal energy and exhaust gas from a plant; a step of capturing carbon dioxide by separating an ammonium bicarbonate solution into an ammonia solution and carbon dioxide gas using the thermal energy; a step of collecting fresh water by separating the ammonia solution into ammonia gas and fresh water using the thermal energy; a step of manufacturing the ammonium bicarbonate solution by injecting the exhaust gas and ammonia gas into water, and reacting; a step of injecting the solution containing salts and the ammonium bicarbonate solution into an osmosis chamber; and a step of producing a mixture in which the fresh water is mixed with the ammonium bicarbonate solution by moving a part of the fresh water contained in the solution including salts to the ammonium bicarbonate due to the concentration difference between the solution including salts and the ammonium bicarbonate solution in the osmosis chamber. The mixture is supplied to the ammonium bicarbonate solution in the step of capturing carbon dioxide. In the step of capturing carbon dioxide, carbon dioxide is separated by increasing the temperature of the ammonium bicarbonate solution to 50-88 deg. C using the thermal energy. In the step of producing fresh water, ammonia gas is separated by increasing the temperature of the ammonia solution to 89-99 deg. C using the thermal energy. [Reference numerals] (AA) Start; (BB) End; (S10) Injecting step; (S11) Forward osmosis step; (S12) Carbon dioxide separating step; (S13) Ammonia separating step
Abstract:
PURPOSE: A vacuum hot pressing-diffusion bonding apparatus is provided to prevent an unbalanced compressive force by regulating the height of a piston rod to control the tilting of a support. CONSTITUTION: A vacuum hot pressing-diffusion bonding apparatus comprises a chamber(110), a support(120) which supports the underside of a work piece(A) within the chamber, a pressing member(130) which applies pressure to the top of the work piece within the chamber, and a buffer member(160) which is arranged under the support with liquid filled in a housing space(161) and supports the pressure applied by the pressing member. The buffer member comprises an air cylinder(162) which is installed on a surface(170) in parallel to the pressing direction of the pressing member and a piston rod(163), one end of which is connected to the bottom of the support and the other end of which is moved lengthwise within the air cylinder.
Abstract:
본 발명은 기액 혼합물이 유동하는 제1유동관, 상기 제1유동관과 일정간격 이격되게 설치되는 제2유동관을 포함하는 유동부재; 상기 제1유동관과 제2유동관을 연결하며 상기 제1유동관에서 이송된 기액 혼합물의 유속을 증가시키는 유속증가부재; 상기 유속증가부재의 내부에 설치되며 유속이 증가된 기액 혼합물을 선회시켜 원심력에 의해 기액 혼합물 중 기체를 중심축으로 모으고 액체를 둘레축으로 모으는 선회부재; 및 상기 선회부재의 중심축에 모인 기체를 회수하는 회수부재;를 포함하는 것을 특징으로 한다.
Abstract:
The present invention relates to a swirling nozzle. The swirling nozzle of the present invention includes a body part with a hollow part to make cooling water flow-in; and a swirling part which has a shorter length than that of the body part so as to be inserted into the hollow part and includes a blade on the outer surface in a spiral direction. The hollow part is divided into an insertion section in which the swilling part is inserted and a mixed section in which the swirling part is not inserted. The cooling water flows in the spiral direction by the blade in the insertion section and creates swirling by receiving centrifugal force in the mixed section. Therefore, the cooling water can be injected while forming the swirling by sequentially passing through the insertion section and the mixed section.
Abstract:
본 발명은 핫가스 제상식 히트펌프장치에 관한 것으로서, 더욱 상세하게는 제상 회로에 의해 난방시, 발생하는 제 2 열교환기의 서리를 원활하게 제상하제상하고, 상기 제 2 열교환기를 제상한 뒤, 응축된 냉매를 어큐뮬레이터부에 의해 증발시켜 압축기에 전달하여 제상 중에도 냉매 순환 사이클이 정상적으로 형성됨으로써 압축기의 손상이 발생하지 않으며, 제상 주기를 단축하게 되어 히트펌프 효율이 증가하고, 상기 제 1 열교환기와 제 2 열교환기 사이에 연결되는 이코노마이저에 의해 동절기에 외기의 저온으로 압축비가 상승함에 따라 발생하게 되는 토출 온도의 과열을 방지하고, 동시에 다단 압축 효과로 인한 사이클의 효율이 증가하는 특징이 있다.
Abstract:
본 발명은 니들 형상에 따른 전자팽창밸브에 관한 것으로서, 더욱 상세하게는 니들 헤드부의 형상을 본문에 기술된 [제 1식]과 [제 2식]으로 설계함으로써, 오리피스를 관통하는 CO₂ 냉매의 유량이 선형적으로 유량제어가 가능해졌고, 그로 인해 전자팽창밸브의 효율이 증가하는 특징이 있다.
Abstract:
PURPOSE: A recuperator type gas turbine cycle device is provided to improve the heat exchange and heat transmission efficiency by increasing a heat exchange area due to the formation of a louver unit or a dimple unit on both sides of an uneven unit. CONSTITUTION: A recuperator type gas turbine cycle device comprises a compressor(10), a combustor(20), a turbine(30), a generator(40), and a recuperator type heat exchanger(50). The compressor compresses and transmits air which is drawn from the outside. The combustor combusts and heats the air and gas by mixing the air transmitted from the compressor with the gas drawn from the outside. The turbine is connected to the combustor and is operated by high temperature and high pressure combustion gas. The generator is connected to the turbine and generates electricity according to the operation of the turbine. The recuperator type heat exchanger is connected to the turbine and transfers the high temperature combustion gas used in the turbine. The recuperator heat exchanger is installed between the compressor and the combustor to transmit high pressure air drawn from the compressor and transmits the air to the combustor after heating the air by mutually exchanging the heat of the high temperature combustion gas in the turbine and the high pressure air of the compressor.