mhurhangee/patent-ind-claim-en huggingface dataset:
A furnace , particularly for melting metal, comprising: a container comprising an opening for receiving a melt; a door for closing and opening the opening ; at least two first door-side joints , which are fixedly arranged relative to the door ; at least one second door-side joint which is fixedly arranged relative to the door ; a first coupling device movably connecting the door to the container via the first door-side joints ; a second coupling device movably connecting the door to the container via the at least one second door-side joint ; at least one first container-side joint , which is fixedly arranged relative to the container ; and at least one second container-side joint , which is fixedly arranged relative to the container ; the first coupling device comprising at least one first coupling arm (7', 7") in each case connecting at least one of the first door-side joints to at least one of the at least one first container-side joint ; and the second coupling device comprising a second coupling arm connecting the at least one second door-side joint to the at least one second container-side joint ; characterized in that at least one of the at least one first container-side joint comprises a ball joint and/or that the at least one second door-side joint is designed as a ball joint. a container comprising an opening for receiving a melt; a door for closing and opening the opening ; at least two first door-side joints , which are fixedly arranged relative to the door ; at least one second door-side joint which is fixedly arranged relative to the door ; a first coupling device movably connecting the door to the container via the first door-side joints ; a second coupling device movably connecting the door to the container via the at least one second door-side joint ; at least one first container-side joint , which is fixedly arranged relative to the container ; and at least one second container-side joint , which is fixedly arranged relative to the container ; the first coupling device comprising at least one first coupling arm (7', 7") in each case connecting at least one of the first door-side joints to at least one of the at least one first container-side joint ; and the second coupling device comprising a second coupling arm connecting the at least one second door-side joint to the at least one second container-side joint ; characterized in that at least one of the at least one first container-side joint comprises a ball joint and/or that the at least one second door-side joint is designed as a ball joint.
A wireless power receiving module to receive magnetic flux for wireless power transfer, the module comprising: a receiver coil comprising a single length of wire wound into a plurality of turns, the receiver coil configured to receive magnetic flux generated by a transmitter coil in a wireless charging device during a charging event and generate a plurality of electric fields; an electromagnetic receiver shield coupled to a first side of the receiver coil , the electromagnetic receiver shield being configured to intercept some of the plurality of electric fields directed away from the receiver coil and allow the magnetic flux to pass through the first electromagnetic receiver shield toward the receiver coil ; a ferrite layer coupled to a second side of the receiver coil opposite of the first side, the ferrite layer positioned to redirect magnetic flux during the charging event to improve charging efficiency; and a thermal mitigation shield comprising a thermally conductive layer adhered to an electrically conductive layer where the electrically conductive layer is coupled to ground, enabling the electrically conductive layer to capture stray flux during the charging event, wherein the ferrite layer is sandwiched between the thermal mitigation shield and the receiver coil , and the receiver coil is sandwiched between the ferrite layer and the electromagnetic receiver shield . a receiver coil comprising a single length of wire wound into a plurality of turns, the receiver coil configured to receive magnetic flux generated by a transmitter coil in a wireless charging device during a charging event and generate a plurality of electric fields; an electromagnetic receiver shield coupled to a first side of the receiver coil , the electromagnetic receiver shield being configured to intercept some of the plurality of electric fields directed away from the receiver coil and allow the magnetic flux to pass through the first electromagnetic receiver shield toward the receiver coil ; a ferrite layer coupled to a second side of the receiver coil opposite of the first side, the ferrite layer positioned to redirect magnetic flux during the charging event to improve charging efficiency; and a thermal mitigation shield comprising a thermally conductive layer adhered to an electrically conductive layer where the electrically conductive layer is coupled to ground, enabling the electrically conductive layer to capture stray flux during the charging event, wherein the ferrite layer is sandwiched between the thermal mitigation shield and the receiver coil , and the receiver coil is sandwiched between the ferrite layer and the electromagnetic receiver shield .
A light-emitting device comprising: a reflective layer comprising a plurality of nano-structures two-dimensionally disposed regularly and a low-refractive-index layer disposed adjacent to the plurality of nano-structures; a first electrode disposed on the reflective layer; an organic emission layer disposed on the first electrode; and a second electrode disposed on the organic emission layer, wherein each of the plurality of nano-structures comprises a non-metallic material, and the low-refractive-index layer comprises a dielectric material having a second refractive index lower than a first refractive index of the non-metallic material, wherein the reflective layer and the second electrode form a micro-cavity having a resonance wavelength, and wherein a diameter of each of the plurality of nano-structures, a height of each of the plurality of nano-structures, and a period of the plurality of nano-structures of the reflective layer are determined such that the reflective layer has a highest reflectance for light having a wavelength corresponding to the resonance wavelength of the micro-cavity, and wherein the low-refractive-index layer is disposed to completely surround a bottom surface, a side surface, and a top surface of each of the plurality of nano-structures. a reflective layer comprising a plurality of nano-structures two-dimensionally disposed regularly and a low-refractive-index layer disposed adjacent to the plurality of nano-structures; a first electrode disposed on the reflective layer; an organic emission layer disposed on the first electrode; and a second electrode disposed on the organic emission layer, wherein each of the plurality of nano-structures comprises a non-metallic material, and the low-refractive-index layer comprises a dielectric material having a second refractive index lower than a first refractive index of the non-metallic material, wherein the reflective layer and the second electrode form a micro-cavity having a resonance wavelength, and wherein a diameter of each of the plurality of nano-structures, a height of each of the plurality of nano-structures, and a period of the plurality of nano-structures of the reflective layer are determined such that the reflective layer has a highest reflectance for light having a wavelength corresponding to the resonance wavelength of the micro-cavity, and wherein the low-refractive-index layer is disposed to completely surround a bottom surface, a side surface, and a top surface of each of the plurality of nano-structures.
A method for wireless communications by a user equipment, UE , comprising: receiving downlink control information, DCI, that allocates resources for a communication, the DCI includes a first field that indicates a transport block size, TBS, of the communication and a second field, different from the first field, that indicates a modulation order of the communication, wherein the communication includes a transmission or a reception, wherein the first field indicates a default modulation order , and different values of the second field indicate whether to use the default modulation order or an adjusted default modulation order, and characterized in that the first field indicates whether the adjusted default modulation order is an increase from the default modulation order or a decrease from the default modulation order ; indicating, to a base station, BS , a capability to determine the indicated modulation order of the communication based on the second field; receiving, from the BS in response to the capability indicated to the BS, a configuration that configures the UE to process the communication according to the indicated modulation order according to the second field; and processing the communication according to the indicated modulation order and transport block size according to the configuration. receiving downlink control information, DCI, that allocates resources for a communication, the DCI includes a first field that indicates a transport block size, TBS, of the communication and a second field, different from the first field, that indicates a modulation order of the communication, wherein the communication includes a transmission or a reception, wherein the first field indicates a default modulation order , and different values of the second field indicate whether to use the default modulation order or an adjusted default modulation order, and characterized in that the first field indicates whether the adjusted default modulation order is an increase from the default modulation order or a decrease from the default modulation order ; indicating, to a base station, BS , a capability to determine the indicated modulation order of the communication based on the second field; receiving, from the BS in response to the capability indicated to the BS, a configuration that configures the UE to process the communication according to the indicated modulation order according to the second field; and processing the communication according to the indicated modulation order and transport block size according to the configuration.
Arrangement for mounting an inside rear-view mirror to a vehicle , in particular a motor vehicle, wherein the inside rear-view mirror has a mirror head which is adjustably mounted by means of a mirror base on a base plate fixed to the vehicle, wherein the mirror base viewed in the longitudinal vehicle direction (X-direction) is pivotable on the one hand about a transverse vehicle axis via a first, front bearing point and on the other hand is mounted on the base plate via a second, rear bearing point that is releasable as a result of a force F exceeding a specific holding force, characterized in that the first, front bearing point is formed by two bearing cheeks of the base plate that are spaced apart from one another as seen in the transverse vehicle direction (Y-direction), said bearing cheeks each having a bearing eye in which the mirror base is pivotably mounted about a transverse vehicle axis by means of a common bearing axis or one bearing axis each, wherein at least one bearing cheek for mounting the relevant bearing axis of the mirror base transversely to the center axis of the bearing eye is slotted toward the same, and wherein said mounting slot is arranged in a region of the at least one bearing cheek that faces away from the front of the vehicle .
A method of making a balloon catheter, the method comprising: providing a balloon catheter comprising a catheter having a folded balloon coupled to one end of the catheter, wherein the balloon has an external surface, a length, and a circumference; immersing the folded balloon in a pre-conditioning solution; at least partially drying the pre-conditioning solution on the balloon to form a pre-conditioned balloon; partially expanding the pre-conditioned balloon; and coating the external surface of the preconditioned balloon with a restenosis inhibitor, wherein the restenosis inhibitor comprises an active agent and a contrast agent, wherein the active agent is paclitaxel and the contrast agent is iopromide, wherein coating the external surface of the preconditioned balloon with a restenosis inhibitor comprises: providing a coating solution comprising: 30 mg/ml to 90 mg/ml paclitaxel; at least 45 mg/ml iopromide; 7.5 vol-% to 50 vol-% acetone; 30 vol-% to 80 vol-% ethanol; and at least 4 vol-% water; coating the balloon with the coating solution and drying the coating solution on the balloon under conditions effective to provide a balloon catheter having a dried coating on the external surface of the balloon, wherein the pre-conditioning solution comprises 70% to 95% acetone and 5% to 30% ethanol. providing a balloon catheter comprising a catheter having a folded balloon coupled to one end of the catheter, wherein the balloon has an external surface, a length, and a circumference; immersing the folded balloon in a pre-conditioning solution; at least partially drying the pre-conditioning solution on the balloon to form a pre-conditioned balloon; partially expanding the pre-conditioned balloon; and coating the external surface of the preconditioned balloon with a restenosis inhibitor, wherein the restenosis inhibitor comprises an active agent and a contrast agent, wherein the active agent is paclitaxel and the contrast agent is iopromide, wherein coating the external surface of the preconditioned balloon with a restenosis inhibitor comprises: providing a coating solution comprising: 30 mg/ml to 90 mg/ml paclitaxel; at least 45 mg/ml iopromide; 7.5 vol-% to 50 vol-% acetone; 30 vol-% to 80 vol-% ethanol; and at least 4 vol-% water; 30 mg/ml to 90 mg/ml paclitaxel; at least 45 mg/ml iopromide; 7.5 vol-% to 50 vol-% acetone; 30 vol-% to 80 vol-% ethanol; and at least 4 vol-% water; coating the balloon with the coating solution and drying the coating solution on the balloon under conditions effective to provide a balloon catheter having a dried coating on the external surface of the balloon, wherein the pre-conditioning solution comprises 70% to 95% acetone and 5% to 30% ethanol.
A method for determining, by a first user equipment, UE, an identifier, ID, of a second UE in a wireless communication system supporting device-to-device, D2D, communication, the method comprising: receiving, from the second UE, a D2D signal including a D2D ID, when the first UE and the second UE are in a same first region; measuring, strength or quality of a cellular signal transmitted from one or more cell in the first region; ordering the IDs of the one or more cell in a list based on the signal strength; determining the ID of the second UE based on the received D2D ID and the order of the cell IDs in the list; measuring signal strength or quality of a cellular signal transmitted from one or more cell in a second region when the first UE moves to the second region; ordering the IDs of the one or more cell in a second list based on the signal strength; and determining the ID of a third UE transmitting the same D2D ID in the second region based on the received D2D ID and on the order of the cell IDs in the second list. receiving, from the second UE, a D2D signal including a D2D ID, when the first UE and the second UE are in a same first region; measuring, strength or quality of a cellular signal transmitted from one or more cell in the first region; ordering the IDs of the one or more cell in a list based on the signal strength; determining the ID of the second UE based on the received D2D ID and the order of the cell IDs in the list; measuring signal strength or quality of a cellular signal transmitted from one or more cell in a second region when the first UE moves to the second region; ordering the IDs of the one or more cell in a second list based on the signal strength; and determining the ID of a third UE transmitting the same D2D ID in the second region based on the received D2D ID and on the order of the cell IDs in the second list.
A stimulation monitoring system positioned in a non-sterile field separate from a sterile field in which a subject is positioned, the stimulation monitoring system, comprising: a stimulation system ; a conductor physically configured to be connected to the stimulation system; and a stimulation instrument configured to be positioned within the sterile field near the subject and connected to the stimulation system via the conductor, the stimulation instrument having a housing defining a handle configured to be grasped by a user during use of the stimulation instrument; a switch assembly comprising a plurality of push buttons (140-144) and a plurality of switches (130-134); and characterized in that the switch assembly is included within the handle of the stimulation instrument; wherein each push button of the plurality of push buttons is configured to engage one switch of the plurality of switches; wherein each switch is configured to provide a signal to the stimulation system for operation of the stimulation system; wherein the stimulation instrument is operable to deliver a generated stimulation from the stimulation system. a stimulation system ; a conductor physically configured to be connected to the stimulation system; and a stimulation instrument configured to be positioned within the sterile field near the subject and connected to the stimulation system via the conductor, the stimulation instrument having a housing defining a handle configured to be grasped by a user during use of the stimulation instrument; a switch assembly comprising a plurality of push buttons (140-144) and a plurality of switches (130-134); and characterized in that the switch assembly is included within the handle of the stimulation instrument; wherein each push button of the plurality of push buttons is configured to engage one switch of the plurality of switches; wherein each switch is configured to provide a signal to the stimulation system for operation of the stimulation system; wherein the stimulation instrument is operable to deliver a generated stimulation from the stimulation system.
An analysis apparatus comprising: a plurality of streams each including a separation column for separating a sample, and a pump for liquid-delivering a sample or a solvent to the separation column; a detector for detecting a sample separated by the separation column of the plurality of streams; and a control unit for controlling operation of the plurality of streams and the detector, wherein each of the plurality of streams includes a verification flow path connected in parallel to the separation column , and the control unit is configured to supply a verification sample to the verification flow path of the plurality of streams , and correct one or more set values of the plurality of streams based on a holding time of the verification sample introduced from the verification flow paths into the detector , characterized in that the control unit is configured to correct the set values of the plurality of streams based on a difference between a holding time of the verification sample stored in advance in the control unit and the holding time of the verification sample introduced into the detector , the one or more set values of the streams being a liquid-delivery flow rate and/or a gradient grade of the pump . a plurality of streams each including a separation column for separating a sample, and a pump for liquid-delivering a sample or a solvent to the separation column; a separation column for separating a sample, and a pump for liquid-delivering a sample or a solvent to the separation column; a detector for detecting a sample separated by the separation column of the plurality of streams; and a control unit for controlling operation of the plurality of streams and the detector, wherein each of the plurality of streams includes a verification flow path connected in parallel to the separation column , and the control unit is configured to supply a verification sample to the verification flow path of the plurality of streams , and correct one or more set values of the plurality of streams based on a holding time of the verification sample introduced from the verification flow paths into the detector , characterized in that the control unit is configured to correct the set values of the plurality of streams based on a difference between a holding time of the verification sample stored in advance in the control unit and the holding time of the verification sample introduced into the detector , the one or more set values of the streams being a liquid-delivery flow rate and/or a gradient grade of the pump .
A three-dimensional structure, wherein: the three-dimensional structure has a pouch form, the three-dimensional structure is made of non-woven fabric by depositing fibers measuring 1-100 μm in diameter produced by electrospinning, the fibers of the three-dimensional structure are containing a polyhydroxyalkanoate which is a copolymer of at least two monomers selected from 3-hydroxybutyric acid, 3-hydroxyvaleric acid, and 4-hydroxybutyric acid. the three-dimensional structure has a pouch form, the three-dimensional structure is made of non-woven fabric by depositing fibers measuring 1-100 μm in diameter produced by electrospinning, the fibers of the three-dimensional structure are containing a polyhydroxyalkanoate which is a copolymer of at least two monomers selected from 3-hydroxybutyric acid, 3-hydroxyvaleric acid, and 4-hydroxybutyric acid.
Torch for electric welding under gas and with suction, comprising: - an inner sub-assembly extending along a central axis (C) and having a wire-feedthrough contact tube connected to a gas diffuser , itself connected to a tubular element forming a swan neck of which the curvature extends in a longitudinal plane (x, z) comprising the central axis (C), - an outer sub-assembly arranged coaxially around the inner sub-assembly , and having a blow nozzle connected to a smoke sensor , itself connected to a rigid casing forming a swan neck, the outer sub-assembly being electrically isolated from the inner sub-assembly ; the smoke sensor , which is generally cylindrical in shape, having at least one opening to allow the suction of smoke; - the welding torch being characterized in that the smoke sensor has two flow grooves , symmetrical with respect to the longitudinal plane (x, z), which both originate in an edge region of the sensor in contact with the blow nozzle and extend as far as the (at least one) opening . - an inner sub-assembly extending along a central axis (C) and having a wire-feedthrough contact tube connected to a gas diffuser , itself connected to a tubular element forming a swan neck of which the curvature extends in a longitudinal plane (x, z) comprising the central axis (C), - an outer sub-assembly arranged coaxially around the inner sub-assembly , and having a blow nozzle connected to a smoke sensor , itself connected to a rigid casing forming a swan neck, the outer sub-assembly being electrically isolated from the inner sub-assembly ; the smoke sensor , which is generally cylindrical in shape, having at least one opening to allow the suction of smoke; - the welding torch being characterized in that the smoke sensor has two flow grooves , symmetrical with respect to the longitudinal plane (x, z), which both originate in an edge region of the sensor in contact with the blow nozzle and extend as far as the (at least one) opening .