mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine comprising: a cabinet ; a tub provided inside the cabinet ; a drain pump provided to discharge washing water accommodated in the tub to the outside of the cabinet ; a drain hose configured to guide the washing water pumped by the drain pump to the outside of the cabinet ; and a holder coupled to an outer surface of the cabinet to fix the drain hose to the cabinet , wherein the holder includes an accommodating portion provided to accommodate the drain hose ; the holder further comprises a damping portion located between the accommodating portion and the cabinet , configured to cause the drain hose to be spaced apart from the cabinet , wherein the damping portion includes a first damping portion comprising an open damping hole coming in contact with the cabinet and a second damping portion characterized in that the second damping portion comprises an open damping hole provided between the first damping portion and the accommodating portion , so that vibration transmitted from the drain hose to the cabinet are absorbed, so that, when the washing water is drained, vibration of the drain hose due to the drain pump is prevented from being transmitted to the cabinet , wherein the holder is injection-molded from material that is elastically deformable. a cabinet ; a tub provided inside the cabinet ; a drain pump provided to discharge washing water accommodated in the tub to the outside of the cabinet ; a drain hose configured to guide the washing water pumped by the drain pump to the outside of the cabinet ; and a holder coupled to an outer surface of the cabinet to fix the drain hose to the cabinet , wherein the holder includes an accommodating portion provided to accommodate the drain hose ; the holder further comprises a damping portion located between the accommodating portion and the cabinet , configured to cause the drain hose to be spaced apart from the cabinet , wherein the damping portion includes a first damping portion comprising an open damping hole coming in contact with the cabinet and a second damping portion characterized in that the second damping portion comprises an open damping hole provided between the first damping portion and the accommodating portion , so that vibration transmitted from the drain hose to the cabinet are absorbed, so that, when the washing water is drained, vibration of the drain hose due to the drain pump is prevented from being transmitted to the cabinet , wherein the holder is injection-molded from material that is elastically deformable.
A method for controlling the throughflow cross-section of a gas valve which includes a valve body in which a flow channel is provided, a valve element adjustable therein between a closed and an open position, an armature , a coil , a spring and a control circuit , characterized in that for opening the flow channel the following steps are provided: - the control circuit energizes the coil with a pulse-width-modulated current whose duty cycle is increased proceeding from a starting value, until the armature starts to move from the closed position against the action of the spring ; - the control circuit reduces the duty cycle before the valve element has reached the open position; - the control circuit sets the duty cycle to a predefined holding value with which the valve element is held in the open position. - the control circuit energizes the coil with a pulse-width-modulated current whose duty cycle is increased proceeding from a starting value, until the armature starts to move from the closed position against the action of the spring ; - the control circuit reduces the duty cycle before the valve element has reached the open position; - the control circuit sets the duty cycle to a predefined holding value with which the valve element is held in the open position.
Capsule filling machine for filling a capsule which has two capsule parts, namely a capsule upper part and a capsule lower part , comprising: - a conveying device which has a capsule upper part receptacle for receiving a capsule upper part and a capsule lower part receptacle for receiving a capsule lower part , wherein the capsule upper part receptacle and the capsule lower part receptacle can be positioned in alignment with one another along a joining axis , wherein the conveying device can be driven to move within a conveying region by means of a conveying drive , - at least one filling station for filling the capsule lower part with a filling material, and - at least one station for closing a filled capsule lower part with a capsule upper part and for transporting a filled and completely joined capsule , wherein the station comprises a closing element which is movable along the joining axis and driven by means of a closing drive , and which cooperates with an underside of the filled capsule lower part , and a counterholder which interacts with an upper side of the capsule upper part , characterized in that the counterholder can be or is arranged, at least for a final part of a joining path between the filled capsule lower part and the capsule upper part , in a stop region which, when viewed along the joining axis , is spaced apart from the conveying region with the interposition of a transport region , wherein a transport sleeve which fixes and transports the filled and completely joined capsule outside the conveying region is arranged in the transport region . - a conveying device which has a capsule upper part receptacle for receiving a capsule upper part and a capsule lower part receptacle for receiving a capsule lower part , wherein the capsule upper part receptacle and the capsule lower part receptacle can be positioned in alignment with one another along a joining axis , wherein the conveying device can be driven to move within a conveying region by means of a conveying drive , - at least one filling station for filling the capsule lower part with a filling material, and - at least one station for closing a filled capsule lower part with a capsule upper part and for transporting a filled and completely joined capsule , wherein the station comprises a closing element which is movable along the joining axis and driven by means of a closing drive , and which cooperates with an underside of the filled capsule lower part , and a counterholder which interacts with an upper side of the capsule upper part ,
A method for processing a signal formed from a sequence of pulses, including at least one repeating pattern formed from at least one pulse, said pattern being repeated in the signal with a pattern repetition period, characterized in that it includes the following steps: - estimating the pattern repetition period of said signal, - calculating a sequence of phases as a function of an arrival date of each pulse relative to a chosen reference arrival date and the estimated pattern repetition period, - from said calculated sequence of phases, estimating at least one phase value and an associated standard deviation, said phase value being associated with a phase moment representative of the repetitive pattern; - obtaining and exploiting characterization parameters of the signal by using the estimated phase values. - estimating the pattern repetition period of said signal, - calculating a sequence of phases as a function of an arrival date of each pulse relative to a chosen reference arrival date and the estimated pattern repetition period, - from said calculated sequence of phases, estimating at least one phase value and an associated standard deviation, said phase value being associated with a phase moment representative of the repetitive pattern; - obtaining and exploiting characterization parameters of the signal by using the estimated phase values.
A magnetic type switch comprising: a magnet having a magnetic pole face arranged to face a magnetic body provided in an object , a change in magnetic field due to a change in distance between the magnetic body and the magnet by an operation of the object being detected to output a signal for indicating presence/absence of the operation of the object, and a casing (5; 51, 55) in which the magnet is disposed, the casing (5; 51, 55) having a facing part between the magnet pole face and the magnetic body ; characterized in that : a protector member is formed of a non-magnetic body having a predetermined thickness in a direction vertical to the magnetic pole face , the protector member being attached to the casing to cover at least the facing part of the casing (5; 51, 55). a magnet having a magnetic pole face arranged to face a magnetic body provided in an object , a change in magnetic field due to a change in distance between the magnetic body and the magnet by an operation of the object being detected to output a signal for indicating presence/absence of the operation of the object, and a casing (5; 51, 55) in which the magnet is disposed, the casing (5; 51, 55) having a facing part between the magnet pole face and the magnetic body ; characterized in that : a protector member is formed of a non-magnetic body having a predetermined thickness in a direction vertical to the magnetic pole face , the protector member being attached to the casing to cover at least the facing part of the casing (5; 51, 55).
A headphone comprising: a driver unit including a vibration plate ; a housing configured to house the driver unit, to form an air-tightened front air chamber of which a part except for an opening for sound output is spatially blocked from the outside on a front side on which the vibration plate of the driver unit is provided, and to form a rear air chamber that has a predetermined capacity on a rear side that is the opposite side to the front side, and a driver unit rear air chamber that is formed between a frame of the driver unit and the vibration plate ; and an acoustic tube provided in a partial region of a partition wall of the housing that constitutes the rear air chamber and configured to directly spatially connect the rear air chamber and the outside of the housing through a tube; characterized by an acoustic characteristic adjustment mechanism configured to adjust an acoustic characteristic of the headphone by changing a characteristic of the acoustic tube; wherein the acoustic characteristic adjustment mechanism is constituted by a switch member that has a boss to be inserted into and removed from the acoustic tube . a driver unit including a vibration plate ; a housing configured to house the driver unit, to form an air-tightened front air chamber of which a part except for an opening for sound output is spatially blocked from the outside on a front side on which the vibration plate of the driver unit is provided, and to form a rear air chamber that has a predetermined capacity on a rear side that is the opposite side to the front side, and a driver unit rear air chamber that is formed between a frame of the driver unit and the vibration plate ; and an acoustic tube provided in a partial region of a partition wall of the housing that constitutes the rear air chamber and configured to directly spatially connect the rear air chamber and the outside of the housing through a tube; characterized by an acoustic characteristic adjustment mechanism configured to adjust an acoustic characteristic of the headphone by changing a characteristic of the acoustic tube; wherein the acoustic characteristic adjustment mechanism is constituted by a switch member that has a boss to be inserted into and removed from the acoustic tube .
A method for bulk onboarding of charging devices (101A-101N, 102A-102N) onto a cloud-based system , characterized by : - obtaining onboarding parameters associated with each of the charging devices (101A-101N, 102A-102N), wherein the charging devices (101A-101N, 102A-102N) comprise at least one parent charging device (102A-102N) communicating with the cloud-based system , and wherein the onboarding parameters are obtained from the at least one parent charging device (102A-102N); - dynamically obtaining charging device verification data based on the onboarding parameters associated with the charging devices (101A-101N, 102A-102N), wherein the charging device verification data comprises at least a certificate associated with each of the charging devices (101A-101N, 102A-102N); - validating the onboarding parameters based on the charging device verification data; and - establishing a connection between the at least one parent charging device (102A-102N) and the cloud-based system over a communication network for onboarding the charging devices (101A-101N, 102A-102N), upon validation of the onboarding parameters. - obtaining onboarding parameters associated with each of the charging devices (101A-101N, 102A-102N), wherein the charging devices (101A-101N, 102A-102N) comprise at least one parent charging device (102A-102N) communicating with the cloud-based system , and wherein the onboarding parameters are obtained from the at least one parent charging device (102A-102N); - dynamically obtaining charging device verification data based on the onboarding parameters associated with the charging devices (101A-101N, 102A-102N), wherein the charging device verification data comprises at least a certificate associated with each of the charging devices (101A-101N, 102A-102N); - validating the onboarding parameters based on the charging device verification data; and - establishing a connection between the at least one parent charging device (102A-102N) and the cloud-based system over a communication network for onboarding the charging devices (101A-101N, 102A-102N), upon validation of the onboarding parameters.
A flow-altering device having a base comprising an inner side for attaching onto a surface of the wind turbine blade, and an outer side with one or more flow-altering device parts protruding from the base, wherein the flow-altering device comprises an adhesive material arranged on the inner surface, characterised in that the adhesive material has one or more slits for reducing air bubble formation between the flow-altering device and the surface of the wind turbine blade.
Process for preparing m isocyanates in m process chains, in each of which an isocyanate is prepared as end product via at least one intermediate, wherein each of the m process chains is conducted in at least 2 production plants (100 000-1, 100 000-2, ...), namely in a first production plant (100 000-1) designed for the preparation of the at least one intermediate and in a second production plant (100 000-2) designed for the preparation of the isocyanate end product, wherein the at least 2 production plants (100 000-1, 100 000-2, ...,) are part of an integrated production system (1 000 000), wherein a total of n chemical products selected from the group consisting of intermediates, catalysts and isocyanate end products are prepared in the integrated production system (1 000 000), where n is a natural number in the range from 2 to 40, preferably in the range from 2 to 20, more preferably in the range from 2 to 15, and where m is a natural number in the range from 1 to n , wherein, in the preparation of each of the n chemical products, at least one heat-releasing or heat-consuming operation takes place and, in the process for preparing the m isocyanates, a total of at least one heat-releasing operation and at least one heat-consuming operation take place, wherein (i) the heat energy released in a heat-releasing operation in the preparation of one of the chemical products in a first production plant (100 000-1) is utilized at least partly for generation of vapor, especially of steam, at a pressure of 1.31 bar (abs.) to 1.91 bar (abs.) and a temperature of 107°C to 119°C; (ii) the vapor generated in (i) is used for the performance of a heat-consuming operation in the preparation of a chemical product different than the chemical product prepared in step (i), wherein the preparation of this chemical product different than the chemical product prepared in step (i) takes place in a second production plant (100 000-2), wherein the vapor generated in (i) is guided from the vapor-releasing point in step (i) via a pipeline to the position of the heat-consuming operation in step (ii). (i) the heat energy released in a heat-releasing operation in the preparation of one of the chemical products in a first production plant (100 000-1) is utilized at least partly for generation of vapor, especially of steam, at a pressure of 1.31 bar (abs.) to 1.91 bar (abs.) and a temperature of 107°C to 119°C; (ii) the vapor generated in (i) is used for the performance of a heat-consuming operation in the preparation of a chemical product different than the chemical product prepared in step (i), wherein the preparation of this chemical product different than the chemical product prepared in step (i) takes place in a second production plant (100 000-2), wherein the vapor generated in (i) is guided from the vapor-releasing point in step (i) via a pipeline to the position of the heat-consuming operation in step (ii).
A pedal assembly for a motor vehicle, comprising: - an elongated pedal arm having a first end and a second end comprising a pedal plate , wherein when the pedal arm is in an operating position (OP) the pedal arm is pivotably arranged about a rotation shaft at its first end , and - a bracket , which is rotatably arranged around the rotation shaft and connected to the first end of the pedal arm through a pedal connection shaft , - a locking arrangement configured to, when in a locked state, lock the bracket in a first bracket position (B1, B1') relative the pedal arm such that the bracket rotates with the pedal arm when the pedal arm pivots about the rotation shaft , and the pedal arm is held in the operating position (OP), and when changing from the locked state to an unlocked state, unlock the bracket from the pedal arm such that, under influence of gravity, the pedal arm is released from the rotation shaft and displaced from the operating position (OP) to a safety position (SP), wherein the first end of the pedal arm is connected to the rotation shaft via the pedal connection shaft and the bracket , and the bracket is rotated relative the pedal arm about the rotation shaft and the pedal connection shaft in a direction substantially opposite to a direction of displacement of the second end of the pedal arm when the pedal arm is displaced from the operating position (OP) to the safety position (SP) to a second bracket position (B2, B2') relative the pedal arm , characterized in that the pedal assembly further comprises a bracket rotation stop arranged to stop the rotation of the bracket relative the pedal arm in the second bracket position (B2, B2'). - an elongated pedal arm having a first end and a second end comprising a pedal plate , wherein when the pedal arm is in an operating position (OP) the pedal arm is pivotably arranged about a rotation shaft at its first end , and - a bracket , which is rotatably arranged around the rotation shaft and connected to the first end of the pedal arm through a pedal connection shaft , - a locking arrangement configured to,
Air-water or water-water ammonia-lithium nitrate absorption water chiller, comprising a refrigerant-absorbent pair using ammonia-lithium nitrate mixture, a plate heat exchanger used as an evaporator , a plate heat exchanger used as an absorber , a plate heat exchanger used as a solution heat exchanger , a corrugated plate heat exchanger used as a generator , a plate heat exchanger used as refrigerant subcooler , and a plate heat exchanger used as a condenser for the water-water chiller model or optionally with a coil of finned tubes of steel used as a condenser for the air-water model, further comprising a separator tank , a liquid receiver , a compound generating system including the corrugated plate heat exchanger and the separator tank where the separation of the two phases takes place, and solar collectors, wherein the solar collectors are connected to the corrugated plate heat exchanger used as the generator to provide hot liquid to the corrugated plate heat exchanger used as the generator to generate refrigerant vapor in the separator tank placed downstream the generator by means of an upper inlet, wherein the refrigerant vapor is provided to the condenser placed downstream the separator tank , the condenser , is connected with the separator tank by means of a vapor outlet in the top thereof, the liquid receiver is connected to the condenser for receiving the condensed refrigerant, wherein the separation of refrigerant in two phases takes place by means of a stream of hot water at 80°C-11aoc from the solar collectors circulating in countercurrent to the solution which flows upward in the corrugated plate, heat exchanger .
An anamorphic lens system having an angle of view of 180° in a first direction perpendicular to an optical axis thereof, the lens system consisting of four lenses arranged in the following order when viewed from the object: a first negative lens (L1) which is made of glass and has spherical surfaces; a second negative lens (L2) having at least one non-rotationally symmetric aspherical surface; a third positive lens (L3); an aperture stop (S); and a fourth positive lens (L4), wherein the third lens (L3) includes a non-rotationally symmetric aspherical surface; wherein the following relationship is satisfied: − 0.80 < fx 12 / fx 34 < − 0.35 fx12 is a combined focal length, of the first lens (L1) and the second lens (L2), in the first direction; and fx34 is a combined focal length, of the third lens (L3) and the fourth lens (L4), in the first direction; wherein a plastic lens is provided as the third lens (L3). a first negative lens (L1) which is made of glass and has spherical surfaces; a second negative lens (L2) having at least one non-rotationally symmetric aspherical surface; a third positive lens (L3); an aperture stop (S); and a fourth positive lens (L4), wherein the third lens (L3) includes a non-rotationally symmetric aspherical surface; wherein the following relationship is satisfied: − 0.80 < fx 12 / fx 34 < − 0.35 fx12 is a combined focal length, of the first lens (L1) and the second lens (L2), in the first direction; and fx34 is a combined focal length, of the third lens (L3) and the fourth lens (L4), in the first direction; wherein a plastic lens is provided as the third lens (L3).
A double heart valve anchoring system (100; 120; 130; 140; 150; 160; 170; 180; 190) comprising: a first anchor (500; 550) comprising at least a portion configured to be secured within a first trans-septal opening in an interventricular septum ; a tricuspid valve device coupled to the first anchor (500; 550) via a first connector (400; 420; 430); and a mitral valve device coupled to the first anchor (500; 550) via the first connector (400; 420; 430). a first anchor (500; 550) comprising at least a portion configured to be secured within a first trans-septal opening in an interventricular septum ; a tricuspid valve device coupled to the first anchor (500; 550) via a first connector (400; 420; 430); and a mitral valve device coupled to the first anchor (500; 550) via the first connector (400; 420; 430).
A method for preparing a compound of Formula V, comprising the step of reacting a compound of Formula VA with a compound selected from 2,3-dichloro-5,6-dicyano-1,4-benzoquinone (DDQ) and para-benzoquinone, in the presence of an acid; wherein said compound of Formula VA is selected from Table A and wherein R 1 is as defined in Table A: Table A: No Structure No Structure 1 60 2 61 3 62 4 63 5 64 6 65 7 66 8 67 9 68 10 69 11 70 12 71 13 72 14 73 15 74 16 75 17 76 18 77 19 78 20 79 21 80 22 81 23 82 24 83 25 84 26 85 27 86 28 87 29 88 30 89 31 90 32 91 33 92 34 93 35 94 36 95 37 96 38 97 39 98 40 99 41 100 42 101 43 102 44 103 45 104 46 105 47 106 48 107 49 108 50 109 51 110 52 111 53 112 54 113 55 114 56 115 57 116 58 117 59 118
Use of a silicone mold in molding a curable composition containing an epoxy resin, the silicone mold comprising a cured product of a silicone resin composition, wherein the cured product has a light transmittance at a wavelength of 400 nm of 80% or higher at a thickness of 1 mm, an elongation at break in accordance with JIS K 7161 of 250% or less, and a thermal linear expansion coefficient of 350 ppm/°C or less at 20 to 40°C.