Abstract:
A reciprocating compressor includes: a reciprocating motor (200) installed in the container (100) and having a stators provided with at least on step portion (713) at both sides thereof, and an armature (230) linearly moving therebetween; a compression unit (300) having a cylinder and a piston inserted in the cylinder to receive a driving force of the reciprocating motor (200) and compress a gas while making a reciprocal movement; a suction unit (400) sucking a gas sucked into the container (100) through the gas suction pipe (110); a discharge unit (500) discharging the gas compressed in the compression unit (300) to outside the container (100); a resonance spring unit elastically supporting the piston and the armature (230); and a frame unit (700) supporting the compression unit (300) and the reciprocating motor (200). Since the stable driving is made in its operating, generation of a vibration and a noise can be minimized, heightening a reliability.
Abstract:
The present invention relates to a mounting structure of a piston pin for a hermetic compressor. In the present invention, caulking portions (26) are beforehand formed in a connecting chamber (22) of the piston (20), and then, a piston pin (30) is fastened to the piston (20) by means of plastic deformation of the caulking portions (26). At this time, the caulking portions (26) are formed at upper and lower ends of an interference preventive portion (24) defined within the connecting chamber (22) and cause the upper and lower ends of the piston pin (30) to be fastened to the piston (20) within the connecting chamber (22) of the piston. According to the present invention, there is an advantage in that an outer diameter of the piston (20) is not changed during its assembling process, since the piston pin (30) can be fastened to the piston (20) merely by causing only the caulking portions (26) of the piston (20) to be subjected to the plastic deformation.
Abstract:
An electromagnetic compressor reciprocating pistons by the suction force of electromagnets and the resiliency of a return spring to suck and compress gas and a method of manufacturing the compressor; the compressor, comprising a cylinder assembly having a front cylinder part (1), a rear cylinder part (3), and a center hole reciprocatingly storing the pistons (4, 5) therein and having an operating chamber (10) divided by the pistons and electromagnets (20, 21, 22) disposed between the front cylinder part and the rear cylinder part and operating the pistons, wherein the cylinder assembly and the electromagnets are formed of resin integrally with each other in the state that internal passages are sealed against the electromagnets and electric conductive members; the method of manufacturing the compressor, comprising the steps of inserting a core (20) having a coil (22) wound thereon into the cavity of a fixed metal mold along a cylindrical projection (41) for centering formed on the fixed metal mold (40), positioning a magnetic pole (20a) formed on the core, covering a movable metal mold on the fixed metal mold, and filling a thermosetting resin to form a housing assembly.
Abstract:
A variable displacement type compressor, comprising a cylinder block (1) having a plurality of cylinder bores (6), a shaft (5) supported rotatably at the center part of the cylinder block (1), a swash plate (10) installed on and rotated integrally with the shaft (5), and a plurality of pistons (20) connected to the swash plate (10) and slid inside the cylinder bores (6) by the rotation of the swash plate (10), wherein a guide part (28) guiding the piston (20) into the cylinder bore (6) when the piston (20) is assembled into the cylinder bore (6) is formed on a cylindrical part (22) of the piston (20) at a top end part (20a) thereof.
Abstract:
The invention concerns a servicing apparatus for treating compressed air, the apparatus comprising a basic body (2) and a mounting casing (4) which can be detachably secured thereon via a bayonet-connection arrangement (12). The rotational movement of the mounting casing (4) necessary for producing the bayonet connection is brought about via a rotary drive arrangement (33) which is disposed on a mounting member (34) on which the mounting casing (4) is also rotatably mounted. In this way, the collector casing can be easily assembled and dismantled even when limited space is available.
Abstract:
A reciprocating compressor (1 ) comprises a cylinder (2), a piston (3), an intake duct (4), defining an intake space (4A), a discharge duct (6) defining a discharge space (6A), an intake valve (8) disposed in the intake duct (4), a discharge valve (9) disposed in the discharge duct (6); for each discharge valve (9) and intake valve (8), the reciprocating compressor comprises a blocking unit (100) configured to block the respective intake valve (8) or discharge valve (9) at its operating position; for each intake valve (8) and discharge valve (9), the reciprocating compressor comprises a dead space including a corresponding under valve space (1 1 ); each blocking unit (100) includes an abutment surface (100A), designed to butt against the respective intake valve (8) or discharge valve (9) in an insertion direction (I), a blocking member (100B), removably inserted in the respective intake duct (4) or discharge duct (6), abutting against the respective intake valve (8) or discharge valve (9) to prevent it from moving in an extraction direction (E).
Abstract:
The piston coupling structure of a small reciprocating compressor according to the present invention comprises: a block; a tubular cylinder coupled to the block; a valve assembly comprising a suction valve and a discharge valve to block a front end of the cylinder; a valve cover covering the valve assembly to form a suction space and a discharge space on an upper part of the valve assembly; at least one pressing bolt coupling the valve cover and the block so as to press the cylinder between the valve cover and the block; a piston conducting linear reciprocating motion in the cylinder; a stator coupled to the block; a rotor located to rotate relative to the stator; a rotation shaft coupled to the rotor to rotate integrally with the rotor so as to be rotatable and axially supported to the block; a crank part converting a rotation motion of the rotation shaft to a linear reciprocating motion of the piston; a connecting rod formed with an insertion cylindrical part and a rod part into which a journal and a bearing of the crank part are inserted; and an upper ball bearing and a lower ball bearing installed on an upper part and a lower part of the rotation shaft, respectively, wherein the piston has an O-ring, which is a sealing member, interposed between a piston supporter at one side and a stopper at the other side.
Abstract:
본 발명은 하우징 일체형 분리판을 갖는 지로터 펌프에 관한 것으로서, 유체가 유입 및 배출되도록 이루어진 펌프 하우징과; 내부 로터와 외부 로터로 이루어지고, 상기 펌프 하우징 내에 직렬로 배치된 두 쌍의 로터 모듈과; 상기 두 쌍의 로터 모듈의 내부 로터에 연결되는 구동축과; 상기 두 쌍의 로터 모듈 사이에 배치되는 동시에 상기 펌프 하우징의 일부를 함께 구성하는 분리판을 포함하여 구성됨으로써, 전체적으로 조립성을 개선함과 아울러 양쪽 펌핑 공간을 정확하고 안정적으로 구획할 수 있게 되어 펌핑 작동이 안정적으로 이루어져 펌프의 효율성을 높일 수 있다.
Abstract:
A plunger clamp is disclosed that includes a body comprising a first end, a second end, and a clamp connector disposed between the first and second ends, wherein the clamp connector comprises a threaded portion that interfaces with one or both of the first and second ends facilitating relative rotation with, and separation from, the first and second ends and the clamp connector.
Abstract:
The present invention relates to an inverter board assembly (1) for a hermetic compressor (2) comprising a casing (3); a bracket (4), a terminal socket (5), a grounding socket (6). The inverter board assembly (1) comprises a housing (7), a terminal plug (8), a grounding plug (9), an attachment means (10) for attaching the housing (7) to the bracket (4). The inverter board assembly (1) of the present invention comprises a first fixing means (1 1) for fixing the terminal plug (8) to the housing (7) in the position which faces the terminal socket (5); a second fixing means (12) for fixing the grounding plug (9) to the housing (7) in the position which faces the grounding socket (6). The terminal plug (8) and the grounding plug (9) respectively get connected to the terminal socket (5) and the grounding socket (6) upon attachment of the housing (7) to the bracket (4).