The present invention relates to a battery cell test system that applies overvoltage to a battery cell and inspects abnormal conditions, such as swelling, vent, and thermal runaway, of the battery cell, which occur over time. According to specific features of the present invention, the battery cell test system comprises: a battery cell inspection apparatus that stores a battery cell in an inspection box, applies a high voltage to the battery cell, and discharges internal gas to the outside; and an exhaust pressure inspection apparatus including one or more pressure inspection means for inspecting the pressure of exhaust gas discharged from the battery cell inspection apparatus.
H01M 10/42 - Procédés ou dispositions pour assurer le fonctionnement ou l'entretien des éléments secondaires ou des demi-éléments secondaires
H01M 50/30 - Aménagements pour faciliter l’échappement des gaz
G01L 17/00 - Dispositifs ou appareils pour mesurer la pression des pneumatiques ou la pression dans d'autres corps gonflés
G01L 19/00 - MESURE DES FORCES, DES CONTRAINTES, DES COUPLES, DU TRAVAIL, DE LA PUISSANCE MÉCANIQUE, DU RENDEMENT MÉCANIQUE OU DE LA PRESSION DES FLUIDES - Détails ou accessoires des appareils pour la mesure de la pression permanente ou quasi permanente d'un milieu fluent dans la mesure où ces détails ou accessoires ne sont pas particuliers à des types particuliers de manomètres
G01L 19/08 - Moyens pour l'indication ou l'enregistrement, p.ex. pour l'indication à distance
The present invention relates to an automatic liquid drain device improved to have improved operation reliability of a buoyancy valve member for automatically discharging liquid, enabling emergency action in case of failure, and ensuring safety. The present invention comprises: a body (10) having a water collection chamber (12) and configured to fasten an upper cap member (11) having a liquid inlet (13) to an upper portion of the water collection chamber (12); a buoyancy valve member (20) embedded to be vertically movable in the water collection chamber (12), having a plurality of down-inclined ribs (23) provided in a circumferential direction at equal intervals and a drop drain (24), and provided with a valve packing (25) protruding from the lower center thereof; and a drain emergency action member (30) including a liquid storage space (122) formed in a lower portion of the water collection chamber (12) at the lower side of the buoyancy valve member (20), a drain nipple (31) having a vertical drain hole (32) of which an upper end is exposed to the liquid storage space (122), and an opening/closing nipple (34) fastened to a lower portion of the drain nipple (31) to open and close the vertical drain hole (32).
F16K 21/00 - Obturateurs de distribution pour fluides
F16K 31/22 - Moyens de fonctionnement; Dispositifs de retour à la position de repos actionnés par un fluide et actionnés par un flotteur commandant une soupape de levage le flotteur étant rigidement lié à la soupape
COMPONENT DRIVING DEVICE FOR LAUNDRY PROCESSING DEVICE, LAUNDRY PROCESSING DEVICE COMPRISING SAME AND MANUFACTURING METHOD FOR COMPONENT DRIVING DEVICE
A component driving device for a laundry processing device, according to a disclosed embodiment, comprises: a motor which includes a plurality of motor terminal units for receiving power and which provides driving force to components for the laundry processing device; a case in which the motor is disposed; a support unit coupled to the case and disposed on one side of the motor; a plurality of terminals disposed on the opposite side of the motor with respect to the support unit, and supported by the support unit; and a plurality of power connection lines which electrically connects the plurality of motor terminal units and the plurality of terminals and which extends across the support unit.
A device for opening and closing a washing water pipeline part of a laundry processing apparatus, according to a disclosed embodiment, comprises: a case connected to a washing water pipeline part; a driving part disposed in the case and supplying driving power; a main driving part provided so as to be rotatable around a main driving rotary shaft by receiving the driving power; a link connected to the main driving part so as to be reciprocable in a first direction that is vertical to the main driving rotary shaft and a second direction opposite to the first direction when the main driving part rotates; and a moving member coupled to the link so as to be movable in the first and second directions, wherein the moving member includes: a valve for closing the pipeline part in a state in which the moving member has moved to a predetermined position in the first direction and opening the pipeline part in a state in which the moving member has moved in the second direction; and an elastic member of which one end is supported by the link and the other end is supported by the moving member. The case includes an operating guide having a guide plane, which slidably comes in contact with the link and the moving member so as to guide the movement directions of the link and the moving member.
A component drive device for a laundry treatment apparatus according to an embodiment disclosed herein comprises: a case: a motor arranged in the case; a motor gear which rotates while being fixed to the shaft of the motor; multiple gears which are sequentially engaged with each other and rotate by receiving a rotational force of the motor gear; and a main-moving portion which rotates around a main-moving rotating shaft by receiving rotational forces of the multiple gears and includes a main-moving protrusion arranged at a position spaced apart from the main-moving rotating shaft.
An embodiment provides a driving device for controlling an ice-making operation of an icemaker. The driving device comprises: a housing having an inner space formed therein; an operation unit disposed at one side of the inner space and comprising a driving motor for generating rotation force and a gear assembly driven by the rotation force generated by the driving motor; and a sensing unit disposed at the other side of the inner space to sense the amount of ice discharged from an icemaker. The sensing unit comprises: a driving gear engaging with one side of the gear assembly to be rotated within a first angle range; a magnetic contact member which has a magnetic body attached thereto and rotates within a second angle range, which is smaller than the first angle range, while being in contact with the driving gear; and a sensor configured to sense the movement of the magnetic body to output a first signal or a second signal according to the amount of ice discharged from the icemaker.
G01F 23/26 - Indication ou mesure du niveau des liquides ou des matériaux solides fluents, p.ex. indication en fonction du volume ou indication au moyen d'un signal d'alarme en mesurant des variables physiques autres que les dimensions linéaires, la pression ou le poids, selon le niveau à mesurer, p.ex. par la différence de transfert de chaleur de vapeur ou d'eau en mesurant les variations de capacité ou l'inductance de condensateurs ou de bobines produites par la présence d'un liquide ou d'un matériau solide fluent dans des champs électriques ou électromagnétiques
The present invention provides a drain motor which enables parts provided in a housing to be simply assembled and be compactly manufactured. According to one embodiment, the drain motor comprises: a lever coupled to a drain valve of a washing machine; a driving part including a driving motor for driving the lever; a power terminal to be connected to an external connector; a switch for restricting power supplied to the driving part; a housing for accommodating at least a portion of each of the lever, the driving part, the power terminal, and the switch therein; a stopping plate disposed inside the housing so as to hold and support the driving motor, the power terminal, and the switch such that a driving motor terminal, the power terminal, and a switch terminal face one direction; and a circuit board disposed so as to come in contact with the driving motor terminal, the power terminal, and the switch terminal inside the housing.
F16D 27/112 - Embrayages actionnés magnétiquement; Leur commande ou leurs circuits électriques avec un électro-aimant ne tournant pas avec un organe de l'embrayage, c. à d. sans bagues collectrices avec des organes d'embrayage mobiles selon l'axe avec des surfaces de friction plates, p.ex. des disques
H02K 5/22 - Parties auxiliaires des enveloppes non couvertes par les groupes , p.ex. façonnées pour former des boîtes à connexions ou à bornes
H02K 7/116 - Association structurelle avec des embrayages, des freins, des engrenages, des poulies ou des démarreurs mécaniques avec des engrenages
A solenoid valve may comprise: a conductive solenoid body; a plunger shaft disposed in the solenoid body; a plunger plate coupled to one end of the plunger shaft; and a non-conductive bobbin at least a portion of which is disposed between the solenoid body and the plunger plate in order to prevent direct contact between the solenoid body and the plunger plate; and a coil surrounding at least a portion of the bobbin.
F16D 27/112 - Embrayages actionnés magnétiquement; Leur commande ou leurs circuits électriques avec un électro-aimant ne tournant pas avec un organe de l'embrayage, c. à d. sans bagues collectrices avec des organes d'embrayage mobiles selon l'axe avec des surfaces de friction plates, p.ex. des disques
A clutch for cooperation with a solenoid valve according to an embodiment may comprise: a clutch gear; a clutch shift which is prevented from being separated from the clutch by the clutch gear and is engaged or disengaged with the clutch gear while moving on the clutch gear; a spring which is disposed between the clutch gear and the clutch shift so as to apply force to the clutch shift in a direction away from the clutch gear; and a shaft passing through the centers of the clutch gear, the clutch shift, and the spring.
The present disclosure provides a door lock device for releasably locking a door of a washing machine. The door lock device has first to third latches, and a drive motor and a latch drive mechanism for moving the third latch. The first latch releasably locks the door of the washing machine and is movable in frontward and rearward directions. The movement of the first latch is changed at a change position. The first latch is always biased frontward by a spring. The second latch releasably locks the first latch, which locks the door of the washing machine, at a door locking position. The third latch is moved in a direction perpendicular to the movement direction of the first latch. The third latch restricts the first latch at the door locking position, or unlocks the first latch after pushing the first latch from the door locking position against the spring.
D06F 39/14 - Portes ou couvercles; Leurs systèmes de fixation
E05B 17/20 - Moyens indépendants du mécanisme de verrouillage pour empêcher une ouverture non autorisée, p.ex. pour bloquer le pêne en position de fermeture
E05B 47/06 - Commande des pênes à fonctionnement mécanique par des cliquets à déclenchement électro-magnétique
E05C 19/02 - Loquets automatiques, c. à d. libérés en tirant ou poussant le battant
D06F 37/42 - Dispositifs de sécurité, p.ex. pour arrêter la rotation du réceptacle lors de l'ouverture de la porte extérieure
E05B 47/00 - Fonctionnement ou commande des serrures ou autres dispositifs d'immobilisation par des moyens électriques ou magnétiques
The present invention provides a four-way refrigerant valve for controlling the refrigerant flow of a refrigerant. The four-way refrigerant valve comprises: a driving part; a valve plate having an inlet and first to third outlets; a valve housing which is sealedly coupled to the valve plate and defines a chamber in which a refrigerant flows along the valve plate; and a valve body which is arranged within the chamber and selectively opens and closes the first to third outlets. The valve body has: a closing part which closes at least one of the first to third outlets; and an opening part which opens at least one of the first to third outlets and allows the refrigerant to flow.
The present invention relates to an outer rotor type motor. The outer rotor type motor according to the present invention comprises: a base plate; a bearing holder that is integrally formed with the base plate and includes a bearing accommodating section; a stator into which the bearing holder is inserted; and a bearing accommodated in the bearing accommodating section, wherein the bearing holder and the stator are coupled to each other by expansion of the bearing holder in cases where the bearing is accommodated in the bearing accommodating section.
H02K 5/24 - Enveloppes; Enceintes; Supports spécialement adaptés pour la réduction ou à la suppression des bruits ou vibrations
H02K 21/22 - Moteurs synchrones à aimants permanents; Génératrices synchrones à aimants permanents avec des induits fixes et des aimants tournants avec des aimants tournant autour des induits, p.ex. volants magnétiques
A system and a method for manufacturing curved glass are disclosed. The system transfers a glass plate, which is molded, while the same is exposed to heat. To this end, a wire mesh-type jig is used. A glass plate is positioned between an upper plate heater, which can be lifted/lowered, and a lower plate heater and is then heated. In addition, while the glass plate, which has been heated to a working temperature, is adsorbed onto an upper mold unit, a high-temperature gas is ejected from below, thereby performing molding. Such a system and a method exhibit high energy efficiency, have simple processes, and therefore can produce a large amount of touch panel glass at economical costs.
Disclosed is a curved glass manufacturing apparatus. A process is performed while a lower mold part is transferred step-by-step by a conveyor in a heating furnace having a predetermined length. When the lower mold part is transferred to a working position after being preheated, a vacuum means is connected to the lower mold part to make a glass plate attracted to the upper surface of a core of the lower mold part. At the same time, an upper mold part moves downward to spray high-temperature gas onto the glass plate, thereby molding the glass plate. In addition, after the molding is completed, the conveyor transfers the lower mold part to a cooling position to cool the lower mold part.
An apparatus and a method for driving an icemaker for making ice cubes in a refrigerator. An ice-full state is sensed in such a way as to rotate an ejector and a cam gear in a reverse direction (opposite to an ice-ejecting direction), thereby preventing interference with the ice cubes present in the icemaker and thus enabling the ice-full state to be accurately sensed. A first torsion spring is mounted to an intermediate gear with a small rotation angle ratio to allow only a minimum amount of torque to be transferred to other components such as an ice-detecting lever, thereby increasing the durability of the components and providing a precise rotation force. The axial center of rotation of a second torsion spring is defined at a position that faces the other end (the revolving end) of the ice-detecting lever, to allow a minimum moment to be substantially constantly applied.
The present invention relates to a linear motion apparatus for a refrigerator, the part count and size of which are reduced, and in which an advancing/retreating rod can advance/retreat to/from an exact position without a separate micro-switch sensing the advancing/retreating position, and a motor can be prevented from being overloaded. The linear motion apparatus for a refrigerator according to the present invention comprises: a hollow case; an advancing/retreating rod which has a rack gear and which advances/retreats relative to the case; a motor accommodated in the case so as to generate power for powering the advancement/retreat of the advancing/retreating rod; a worm axially coupled to a rotating shaft of the motor; a first intermediate gear which is arranged at one side of the worm in the case, and the upper portion of which has a worm wheel meshing with the worm and a the lower portion of which has a lower spur gear; and a second intermediate gear which is arranged at the other side of the worm in the case, and the lower portion of which has a lower spur gear meshing with the lower spur gear of the first intermediate gear and the upper portion of which has an upper spur gear meshing with the rack gear.
The present invention relates to an apparatus and method for driving an icemaker for making ice cubes in a refrigerator or the like. More particularly, the present invention relates to an apparatus and method in which it is detected whether or not a maximum ice cube level has been reached while an ejector and a cam gear rotate in a reverse direction (opposite to an ice-discharging direction) so as to prevent interference with the ice cubes remaining inside the refrigerator, and thus accurately determine whether or not the maximum ice cube level has been reached. Further, the apparatus and method for driving an icemaker according to the present invention are configured such that a torsion spring is mounted on an intermediate gear having a small rotational angle ratio such that only a minimum amount of torque can be transmitted to other components, such as an ice-detecting lever, thus increasing the durability of components and providing precise rotational force. Further, the apparatus and the method for driving an icemaker according to the present invention are configured such that the axial center of the rotational direction of a second torsion spring, which enables the ice-detecting lever to elastically contact the cam surface of the cam gear, is arranged at the point facing the other side (revolving side) of the ice-detecting lever so as to enable the minimum moment to be regularly applied.
Provided is a driving device for an automatic ice-making machine, the driving device including: a cam gear that rotates a tray; and an operating lever that organically operates along a cam plane for an ice-cube quantity detecting arm formed at the cam gear and allows the ice-cube quantity detecting arm to rotate downward into an ice-cube storage bin, wherein a cam groove for the ice-cube quantity detecting arm is formed in the cam plane for the ice-cube quantity detecting arm of the cam gear and allows the operating level to descend so that the ice-cube quantity detecting arm rotates downward into the ice-cube storage bin, and a protrusion is formed between the cam plane for the ice-cube quantity detecting arm and the cam groove for the ice-cube quantity detecting arm and allows the operating lever to ascend so that the ice-cube quantity detecting arm that rotates downward into the ice-cube storage bin rotates upward.
The present invention relates to an apparatus for driving an ice maker for a refrigerator, which comprises: a case (100); a drive part (110) including a gearing part (104) with a magnet (M), and a motor (M) connected with the gearing part (104), the drive part being mounted in the case (100); and a housing (100b) for detachably mounting therein the case (100) containing the drive part (110); whereby the apparatus for driving the ice maker is assembled into a single module to reduce the time and speed of assembling thereof, thus improving the workability thereof. At the same time a low-voltage DC step motor is used to decrease the risks of fire and electric shock, thus enhancing safety. The magnet (M) is made to rotate about the central axis of the gearing part so as to generate a magnetic signal of rotation which may be detected and output. Hence the salability is maximized.
An antenna of a plasma processing apparatus includes first and second wiring groups that respectively are electrically coupled to different RF power source. The first wiring group is formed on an internal region and an intermediate region, and the first wiring group transfers a power of a first RF power source from the intermediate region to the internal region. The second wiring group is formed on the intermediate region and an outer region. The second wiring group receives a power of a second RF power source from the intermediate region, or alternatively from the outer region. The frequency of the second RF power applied to the second wiring group is lower than the frequency of the first RF power applied to the first wiring group, thereby reducing the plasma loss at the outer region.