mhurhangee/patent-ind-claim-en huggingface dataset:
A method of electrodynamically finishing a plain bearing assembly, comprising: electrically separating a bearing housing from a journal shaft with a lubricant disposed on a bearing surface of the bearing housing; rotating one of the bearing housing and the journal shaft relative to the other of the bearing housing and the journal shaft; applying a voltage differential across the bearing housing and the journal shaft; and eroding an asperity disposed on the bearing surface with an electric discharge event across a gap between the bearing housing and the journal shaft. electrically separating a bearing housing from a journal shaft with a lubricant disposed on a bearing surface of the bearing housing; rotating one of the bearing housing and the journal shaft relative to the other of the bearing housing and the journal shaft; applying a voltage differential across the bearing housing and the journal shaft; and eroding an asperity disposed on the bearing surface with an electric discharge event across a gap between the bearing housing and the journal shaft.
A patch device of a wearable device for health monitoring, the patch device comprising: a top layer ; an electronic sub-assembly layer coupled to the top layer ; a bottom layer coupled to the sub-assembly layer ; a first intermediate layer that is coupled between the sub-assembly layer and the bottom layer, wherein the first intermediate layer comprises an adhesive die cut layer and a foam layer coupled to the adhesive die cut layer to create a waterproof seal over the sub-assembly layer , wherein both the adhesive die cut layer and the foam layer include a sealable flap to enable insertion and attachment of an electronic module to the disposable patch device ; and a flap layer coupled to the sealable flap of the adhesive die cut layer to prevent the adhesive die cut layer from sticking to the electronic module. a top layer ; an electronic sub-assembly layer coupled to the top layer ; a bottom layer coupled to the sub-assembly layer ; a first intermediate layer that is coupled between the sub-assembly layer and the bottom layer, wherein the first intermediate layer comprises an adhesive die cut layer and a foam layer coupled to the adhesive die cut layer to create a waterproof seal over the sub-assembly layer , wherein both the adhesive die cut layer and the foam layer include a sealable flap to enable insertion and attachment of an electronic module to the disposable patch device ; and a flap layer coupled to the sealable flap of the adhesive die cut layer to prevent the adhesive die cut layer from sticking to the electronic module.
A system for treating a fracture in a bone comprising: a bone plate configured to engage the bone, the bone plate extending along a longitudinal axis (A) and comprising a proximal portion , a shaft , and a distal portion , the shaft comprises a plurality of holes (230a-230l), the plurality of holes (230a-230k, 2301) include a first repeating pattern of holes and a second repeating pattern of holes , the first repeating pattern of holes having a first virtual line segment (L1) connecting center points of all of the first repeating pattern of holes , the second repeating pattern of holes having a second virtual line segment (L2) connecting center points of all of the second repeating pattern of holes , wherein the first virtual line segment (L1) and the second virtual line segment (L2) are parallel, and the first virtual line segment (L1) and the second virtual line segment (L2) are angled relative to the longitudinal axis (A), and the distal portion comprises a plurality of distal holes (240a-240j) and a posterior side and an anterior side, wherein the posterior side of the distal portion is raised relative to the anterior side of the distal portion ; wherein a center point of the center hole of each repeating pattern may be aligned generally along the longitudinal axis (A) of the plate ; wherein the bone plate further includes indentations of a scallop along the anterior and posterior sidewalls may be generally aligned with the center hole of each repeating pattern and wherein the center of the scallops on both of the side surfaces are aligned with the center of the middle row of the holes (230a-230l)and the indentations of the scallop along the side surfaces lie on an axis (L3, L4) which is perpendicular to the centered longitudinal axis (A) along the length of the shaft . wherein a center point of the center hole of each repeating pattern may be aligned generally along the longitudinal axis (A) of the plate ; wherein the bone plate further includes indentations of a scallop along the anterior and posterior sidewalls may be generally aligned with the center hole of each repeating pattern and wherein the center of the scallops on both of the side surfaces are aligned with the center of the middle row of the holes (230a-230l)and the indentations of the scallop along the side surfaces lie on an axis (L3, L4) which is perpendicular to the centered longitudinal axis (A) along the length of the shaft .
A method for producing solar cells, comprising the steps of - providing silicon containing vitreous substrates, each provided with an electrically conductive material on at least one side thereof, - successively transporting at least a portion of each substrate through an electrolytic solution that is present in an electrolytic bath, wherein a sloping slot is provided in at least one wall, more preferably in two mutually opposed walls, of the electrolytic bath and wherein panels with holes therein are provided at mutually opposed sides of the path followed by the substrates through the electrolytic bath, - connecting said electrically conductive material to act as a cathode during the transport of the substrates through the electrolytic bath for the purpose of electrodepositing material from the electrolytic solution onto the electrically conductive material during said transport, characterised in that the substrates are suspended from a conveyor element during transport and extend in the transport direction. - providing silicon containing vitreous substrates, each provided with an electrically conductive material on at least one side thereof, - successively transporting at least a portion of each substrate through an electrolytic solution that is present in an electrolytic bath, wherein a sloping slot is provided in at least one wall, more preferably in two mutually opposed walls, of the electrolytic bath and wherein panels with holes therein are provided at mutually opposed sides of the path followed by the substrates through the electrolytic bath, - connecting said electrically conductive material to act as a cathode during the transport of the substrates through the electrolytic bath for the purpose of electrodepositing material from the electrolytic solution onto the electrically conductive material during said transport,
Electronic device , in particular an actuator, having a housing which has an opening into which a plug part of an electrical plug connection is inserted, characterized in that the opening can be closed by a pot-shaped cover which accommodates a mating plug part of the electrical plug connection, wherein the plug part is encapsulated on its rear side, and the housing is connected to the cover in a sealing manner.
Process module with at least one evacuable process chamber provided inside the process module and at least one support device being horizontally moveable through the process module in at least one substrate transport direction for accommodating at least one flat substrate each, which is to be processed in the process chamber , wherein the at least one process chamber is physically closeable against the process module by the support device , whose position changeable in at least one closing direction transversely to the substrate transport direction, wherein the at least one support device forms a bottom of the at least one process chamber , characterized in that the process module is formed as a module of an inline device and the substrate transport direction is the inline direction through the inline device or the process module is an end module, which comprises an opening for supplying and removing at least one support device, wherein there are two substrate transport directions, an insertion direction and a removal direction opposite thereto and wherein the process module comprises a transport system for supplying the support device to the process chamber and/or for removing the support device from the process chamber , wherein the supplying and/or removing in a transport level is arranged parallelly to a horizontal extension of the process chamber , wherein the movement direction of the support device towards the process chamber and after the processing away from the process chamber in the inline device is the inline direction.
A composition comprising ground or pulverized amniotic membrane derived from, or isolated from, frozen or previously frozen placenta, for use in a method of medical treatment of reversing scar formation in a subject.
An oil separation barrel, comprising: a barrel body; and an oil separation and filtration structure provided in the barrel body, the barrel body being provided with an oil separation cavity and an output port , such that an output gas flow entering in the oil separation barrel is filtered by the oil separation and filtration structure , enters the oil separation cavity, and is output from the output port ; and at least part of a barrel wall of the barrel body forming the oil separation cavity comprises two or more layers of circumferential walls, such that before being output from the output port , the output gas flow flows in the oil separation cavity in such a manner that a flowing direction of the output gas flow changes multiple times; characterized in that , the barrel body comprises: an outer circumferential wall enclosing the oil separation cavity; and an inner circumferential wall , the inner circumferential wall separating the oil separation cavity into an inner oil separation cavity and an outer oil separation cavity . a barrel body; and an oil separation and filtration structure provided in the barrel body, the barrel body being provided with an oil separation cavity and an output port , such that an output gas flow entering in the oil separation barrel is filtered by the oil separation and filtration structure , enters the oil separation cavity, and is output from the output port ; and at least part of a barrel wall of the barrel body forming the oil separation cavity comprises two or more layers of circumferential walls, such that before being output from the output port , the output gas flow flows in the oil separation cavity in such a manner that a flowing direction of the output gas flow changes multiple times; characterized in that , the barrel body comprises: an outer circumferential wall enclosing the oil separation cavity; and an inner circumferential wall , the inner circumferential wall separating the oil separation cavity into an inner oil separation cavity and an outer oil separation cavity . an outer circumferential wall enclosing the oil separation cavity; and an inner circumferential wall , the inner circumferential wall separating the oil separation cavity into an inner oil separation cavity and an outer oil separation cavity .
A fusion protein comprising at least two VHHs, comprising a single heavy chain variable domain antibody (VHH) which binds to a biomaterial, selected from the group consisting of hydroxyapatite, calciumphosphate or a biocompatible metal coated with hydroxyapatite or calciumphosphate, and further comprising at least one VHH which binds to a BMP growth factor, which fusion protein is for use in a method of treatment for the regeneration, reconstruction and replacement of lost and worn out tissues.
Integrated circuitry having one or more layers and comprising an inductor arrangement , the inductor arrangement comprising: a first pair of driven inductors configured to produce magnetic fields which are substantially in antiphase, and arranged relative to one another so that their magnetic fields substantially cancel one another at a first null line between those inductors; and a second pair of driven inductors configured to produce magnetic fields which are substantially in antiphase, and arranged relative to one another so that their magnetic fields substantially cancel one another at a second null line between those inductors, wherein the pairs of driven inductors are arranged relative to one another so that the first and second null lines intersect one another, with the first pair of driven inductors located substantially on the second null line and the second pair of inductors located substantially on the first null line, wherein the first and second pairs of inductors are formed in the same layer of the integrated circuitry, wherein the inductors of the first and second pairs all have the same size and number of turns as each other, characterized in that the driven inductors of the first and second pairs are differential inductors, and wherein the driven inductors are centre-tapped at centre-tap nodes. a first pair of driven inductors configured to produce magnetic fields which are substantially in antiphase, and arranged relative to one another so that their magnetic fields substantially cancel one another at a first null line between those inductors; and a second pair of driven inductors configured to produce magnetic fields which are substantially in antiphase, and arranged relative to one another so that their magnetic fields substantially cancel one another at a second null line between those inductors, wherein the pairs of driven inductors are arranged relative to one another so that the first and second null lines intersect one another, with the first pair of driven inductors located substantially on the second null line and the second pair of inductors located substantially on the first null line, wherein the first and second pairs of inductors are formed in the same layer of the integrated circuitry, wherein the inductors of the first and second pairs all have the same size and number of turns as each other, characterized in that the driven inductors of the first and second pairs are differential inductors, and wherein the driven inductors are centre-tapped at centre-tap nodes.
A medical instrument comprising a magnetic resonance imaging system for acquiring magnetic resonance imaging data from an imaging zone , wherein the medical instrument further comprises: - a subject support configured for supporting at least a portion of the subject within the imaging zone, wherein the subject support comprises a support surface for receiving the subject, wherein the subject support comprises a radar array , in particular arranged embedded below the support surface; - a radar system for acquiring a radar signal from the subject, wherein the radar system comprises the radar array; - a motion detection system configured for acquiring a movement signal from the subject; - a memory for storing machine executable instructions and pulse sequence commands ; - a processor for controlling the medical instrument, wherein execution of the machine executable instructions causes the processor to: - continuously receive the radar signal from the radar system; - continuously receive the movement signal from the motion detection system; - continuously calculate a combined motion signal from the radar system and the movement signal; and - control the magnetic resonance imaging system with the pulse sequence commands to acquire the magnetic resonance imaging data, wherein the acquisition of the magnetic resonance imaging data is controlled using the combined motion signal. - a subject support configured for supporting at least a portion of the subject within the imaging zone, wherein the subject support comprises a support surface for receiving the subject, wherein the subject support comprises a radar array , in particular arranged embedded below the support surface; - a radar system for acquiring a radar signal from the subject, wherein the radar system comprises the radar array; - a motion detection system configured for acquiring a movement signal from the subject; - a memory for storing machine executable instructions and pulse sequence commands ; - a processor for controlling the medical instrument, - continuously receive the radar signal from the radar system; - continuously receive the movement signal from the motion detection system; - continuously calculate a combined motion signal from the radar system and the movement signal; and - control the magnetic resonance imaging system with the pulse sequence commands to acquire the magnetic resonance imaging data, wherein the acquisition of the magnetic resonance imaging data is controlled using the combined motion signal.
Tamping assembly for a track tamping machine, comprising tamping tool pairs arranged on a girder - which is guided so as to be vertically adjustable in a tamping assembly frame - and formed as swing arms, the lower tamping pick ends of the tamping tool pairs configured to be plunged into a ballast bed being drivable using an oscillation drive and being hydraulically closable toward one another, wherein a hydraulic cylinder and optionally a position sensor for determining the hydraulic cylinder position are associated with each of the tamping tools of a tamping tool pair, and the hydraulic cylinders form both the linear closing drive and also the oscillation drive of the tamping tools , and wherein electrohydraulic valves are provided to actuate the hydraulic cylinders and comprise a mechanical hydraulic cylinder actuation valve part and an associated valve electronic unit , wherein the valve electronic unit is mounted so as to be vibration-damped with respect to the hydraulic cylinder using vibration dampers (D), characterised in that the mechanical hydraulic cylinder actuation valve part is arranged on the hydraulic cylinder so as to be vibration-damped using vibration dampers (D) and/or in that the valve electronic unit is arranged on the mechanical hydraulic cylinder actuation valve part so as to be vibration-damped using vibration dampers (D).
A membrane comprising a copolymer of acrylonitrile and sodium methallylsulfonate and water, characterized in that the water content of the membrane, measured according to the method defined in the description, under ATPS conditions, i.e., at ambient temperature and ambient pressure, and in air saturated with water vapor, is in the range of from 70 to 75 wt.-%, relative to the total weight of the membrane.
A robot joint comprising: a first robot part and a second robot part arranged to have a relative movement in between, a joint gap separating the first robot part and the second robot part from each other, and a seal arrangement for sealing the joint gap against external impact, the seal arrangement comprising a first side element being part of the first robot part and immobile in relation to the same, and a gap element extending across the joint gap , wherein one of the first side element and the gap element comprises a first surface in a food grade material, wherein the other one of the first side element and the gap element comprises a first sealing element configured to be in sliding contact with the first surface , wherein the seal arrangement comprises a second side element being part of the second robot part and immobile in relation to the same, one of the second side element and the gap element comprising a second surface in a food grade material, and the other one of the second side element and the gap element comprising a second sealing element , characterized in that the second sealing element is configured to be in sliding contact with the second surface . a first robot part and a second robot part arranged to have a relative movement in between, a joint gap separating the first robot part and the second robot part from each other, and a seal arrangement for sealing the joint gap against external impact, the seal arrangement comprising a first side element being part of the first robot part and immobile in relation to the same, and a gap element extending across the joint gap , wherein one of the first side element and the gap element comprises a first surface in a food grade material, wherein the other one of the first side element and the gap element comprises a first sealing element configured to be in sliding contact with the first surface , wherein the seal arrangement comprises a second side element being part of the second robot part and immobile in relation to the same, one of the second side element and the gap element comprising a second surface in a food grade material, and the other one of the second side element and the gap element comprising a second sealing element ,
A refrigeration system comprising: a compression mechanism in which one high-stage compression component , one or more intermediate-stage compression components , and one low-stage compression component are connected to each other in series; a high-stage-corresponding heat exchanger which, during a first cycle, functions as a gas cooler that cools refrigerant that has been discharged from the high-stage compression component and which, during a second cycle in which the flow of the refrigerant is the opposite of the flow of the refrigerant in the first cycle, functions as an evaporator; a low-stage-corresponding heat exchanger which, during the first cycle, functions as an intercooler that cools refrigerant that has been discharged from the low-stage compression component and which, during the second cycle, functions as an evaporator; characterized in that the refrigeration system further comprises a bypass valve that opens and closes a bypass flow path that bypasses, from a first flow path through which the refrigerant that has been discharged from the high-stage compression component flows to a second flow path through which refrigerant that becomes sucked into the low-stage compression component flows, the refrigerant that has been discharged from the high-stage compression component; and a control component that is configured to control the bypass valve to open the bypass flow path during a defrost operation that the control component performs by switching the second cycle to the first cycle. a compression mechanism in which one high-stage compression component , one or more intermediate-stage compression components , and one low-stage compression component are connected to each other in series; a high-stage-corresponding heat exchanger which, during a first cycle, functions as a gas cooler that cools refrigerant that has been discharged from the high-stage compression component and which, during a second cycle in which the flow of the refrigerant is the opposite of the flow of the refrigerant in the first cycle, functions as an evaporator; a low-stage-corresponding heat exchanger which, during the first cycle, functions as an intercooler that cools refrigerant that has been discharged from the low-stage compression component and which, during the second cycle, functions as an evaporator; characterized in that the refrigeration system further comprises a bypass valve that opens and closes a bypass flow path that bypasses, from a first flow path through which the refrigerant that has been discharged from the high-stage compression component flows to a second flow path through which refrigerant that becomes sucked into the low-stage compression component flows, the refrigerant that has been discharged from the high-stage compression component; and a control component that is configured to control the bypass valve to open the bypass flow path during a defrost operation that the control component performs by switching the second cycle to the first cycle.