mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting a graphic representation which is produced on a substrate, wherein the graphic representation is produced by means of a substance in which a remission by the substance still takes place even after an illumination which is suitable for the detection and which triggers the remission, having the following steps of: - exposing the graphic representation with the illumination during a predeterminable time period, and - recording the remission produced by the illumination by means of a detector, wherein the beginning of the recording begins with or after the beginning of the time period and ends after the end of the time period, wherein the graphic representation is exposed during a plurality of predeterminable sequential time periods, wherein between the time periods exposure pauses of a predeterminable duration are carried out in order to record the remission and wherein the recording is carried out in exposure pauses, characterised in that remission signals which are recorded in the exposure pauses are collected in the detector for the detection of the graphic representation. - exposing the graphic representation with the illumination during a predeterminable time period, and - recording the remission produced by the illumination by means of a detector, wherein the beginning of the recording begins with or after the beginning of the time period and ends after the end of the time period, wherein the graphic representation is exposed during a plurality of predeterminable sequential time periods, wherein between the time periods exposure pauses of a predeterminable duration are carried out in order to record the remission and wherein the recording is carried out in exposure pauses, characterised in that remission signals which are recorded in the exposure pauses are collected in the detector for the detection of the graphic representation.
Magnifying device with multiple magnifications comprising: - an outer shell forming a body of revolution with an axis of revolution (X-X) and having an inner cavity , - a first lens mounted at a first end of said outer shell , said magnifying device being characterised in that it comprises a second lens capable of moving between a retracted position and an extended position in which said second lens is superimposed on said first lens so as to change the optical characteristics of the magnifying device ; said second lens being integral with a moving carriage capable of being actuated by the user via a carriage guide rod ; said second lens being housed at said inner cavity of said outer shell in both the retracted and extended positions thereof. - an outer shell forming a body of revolution with an axis of revolution (X-X) and having an inner cavity , - a first lens mounted at a first end of said outer shell , said magnifying device being characterised in that it comprises a second lens capable of moving between a retracted position and an extended position in which said second lens is superimposed on said first lens so as to change the optical characteristics of the magnifying device ; said second lens being integral with a moving carriage capable of being actuated by the user via a carriage guide rod ; said second lens being housed at said inner cavity of said outer shell in both the retracted and extended positions thereof.
A method of operating a bicycle carrier, the method comprising: disengaging a first locking mechanism securing a first load arm to a base ; disposing a second load arm between the base and the first load arm ; engaging a second locking mechanism to secure the second load arm to the base ; and connecting the second locking mechanism to the first locking mechanism . disengaging a first locking mechanism securing a first load arm to a base ; disposing a second load arm between the base and the first load arm ; engaging a second locking mechanism to secure the second load arm to the base ; and connecting the second locking mechanism to the first locking mechanism .
A fan with an external rotor motor , comprising a rotor rotating about an axis of rotation (RA) in a motor section , configured to receive a fan wheel in a radially outwardly enclosing manner, and motor electronics arranged in an electronics section , received in an electronics housing , the motor section and the electronics section being arranged axially or radially adjacent to one another along the axis of rotation (RA), the fan producing a differential pressure (Δp) between a suction side and a pressure side via the fan wheel when operated as intended, a continuous cooling channel runs within the external rotor motor from a flow opening at the electronics housing along the motor electronics and at least partially along the rotor to a flow opening in the motor section , and a cooling air flow through the cooling channel being producible purely passively by the differential pressure (Δp) produced by the fan wheel during operation to cool both the electronics section and the motor section , characterized in that the external rotor motor in the motor section has a stator bushing with a laminated stator core and motor windings as well as stator cooling fins arranged in the circumferential direction in a distributed manner, the cooling channel running either along the stator cooling fins or along the stator cooling fins and along the laminated stator core .
A system for hemodialysis, comprising: a first dialysis system comprising: a dialyzer , a blood circuit configured to receive blood from a patient and circulate the blood through the dialyzer, and a dialysate circuit to circulate dialysate through the dialyzer to receive toxins removed from the blood, wherein the dialysate circuit comprises a filter with a sorbent material including activated carbon; and a second dialysis system , wherein components of the second dialysis system are releasably coupled to the first dialysis system to create a tethered system, the first dialysis system and the second dialysis system configured to be used in combination, in an alternating fashion, over a combined cycle, to provide hemodialysis for the patient, wherein the first dialysis system is configured to be worn by the patient during a first portion of the combined cycle, and wherein the second dialysis system is configured to be positioned on a support independent of the patient during a second portion of the combined cycle. a first dialysis system comprising: a dialyzer , a blood circuit configured to receive blood from a patient and circulate the blood through the dialyzer, and a dialysate circuit to circulate dialysate through the dialyzer to receive toxins removed from the blood, wherein the dialysate circuit comprises a filter with a sorbent material including activated carbon; and a dialyzer , a blood circuit configured to receive blood from a patient and circulate the blood through the dialyzer, and a dialysate circuit to circulate dialysate through the dialyzer to receive toxins removed from the blood, wherein the dialysate circuit comprises a filter with a sorbent material including activated carbon; and a second dialysis system , wherein components of the second dialysis system are releasably coupled to the first dialysis system to create a tethered system, the first dialysis system and the second dialysis system configured to be used in combination, in an alternating fashion, over a combined cycle, to provide hemodialysis for the patient, wherein the first dialysis system is configured to be worn by the patient during a first portion of the combined cycle, and wherein the second dialysis system is configured to be positioned on a support independent of the patient during a second portion of the combined cycle.
A power conversion circuit, comprising: a circuit board (CB) including a plurality of layers on which circuit patterns (111a-111c, 112a-112c, 211a-211d) are formed; a plurality of semiconductor switching elements (102a-102d), which are connected to the circuit patterns (111a-111c, 112a-112c, 211a-211d) of the circuit board (CB), and are configured to perform switching for power conversion, each semiconductor switching element (102a-102d) comprising a drain (D), a gate (G) and a source (S); and a plurality of drivers (103a-103d), each being connected to a respective one of the plurality of semiconductor switching elements (102a-102d), to drive the plurality of semiconductor switching elements (102a-102d), wherein, in the circuit board (CB), a plurality of isolated control ground patterns (112a-112c) are provided for the plurality of semiconductor switching elements (102a-102d), each isolated control ground pattern (112a-112c) having a form of a solid pattern around the drivers (103a-103d), and providing connection to an isolated power supply , and wherein the plurality of isolated control ground patterns (112a-112c) are connected to sources (S) of the plurality of semiconductor switching elements (102a-102d), are connected to terminals of the drivers (103a-103d) and are arranged so as not to overlap one another in plan view in a stacking direction of the plurality of layers of the circuit board (CB). a circuit board (CB) including a plurality of layers on which circuit patterns (111a-111c, 112a-112c, 211a-211d) are formed; a plurality of semiconductor switching elements (102a-102d), which are connected to the circuit patterns (111a-111c, 112a-112c, 211a-211d) of the circuit board (CB), and are configured to perform switching for power conversion, each semiconductor switching element (102a-102d) comprising a drain (D), a gate (G) and a source (S); and a plurality of drivers (103a-103d), each being connected to a respective one of the plurality of semiconductor switching elements (102a-102d), to drive the plurality of semiconductor switching elements (102a-102d), wherein, in the circuit board (CB), a plurality of isolated control ground patterns (112a-112c) are provided for the plurality of semiconductor switching elements (102a-102d), each isolated control ground pattern (112a-112c) having a form of a solid pattern around the drivers (103a-103d), and providing connection to an isolated power supply , and wherein the plurality of isolated control ground patterns (112a-112c) are connected to sources (S) of the plurality of semiconductor switching elements (102a-102d), are connected to terminals of the drivers (103a-103d) and are arranged so as not to overlap one another in plan view in a stacking direction of the plurality of layers of the circuit board (CB).
A patch case which holds a microneedle patch comprising a support film , the patch case being made of a thermoplastic polymer and the support film being heat-sealable to the thermoplastic polymer, wherein the microneedle patch is attached to the underside of the edge of the patch case by thermal fusion and wherein the break strength of the heat fusion portion is 0.01 to 20 N. wherein the microneedle patch is attached to the underside of the edge of the patch case by thermal fusion and wherein the break strength of the heat fusion portion is 0.01 to 20 N.
A method for customizing a shape of a fan assembly housed within an enclosure , the method comprising: characterizing an efficiency of an air transport through an air inlet opening of the fan assembly positioned within the enclosure , the fan assembly comprising a combination of a fan assembly housing and cover, and a plurality of blades coupled to an impeller, wherein the combination of the fan assembly housing and the cover includes a wall proximate the air inlet ; modifying the shape of the fan assembly in accordance with the characterization by enlarging a pinch point area between the wall and the enclosure , wherein modifying the shape includes contouring the wall proximate the air inlet opening so as to increase the efficiency of the air transport through the air inlet ; the method being characterised by : reducing the height of at least one of the plurality of blades to conform to the contoured shape of the combination of the fan assembly housing and cover. characterizing an efficiency of an air transport through an air inlet opening of the fan assembly positioned within the enclosure , the fan assembly comprising a combination of a fan assembly housing and cover, and a plurality of blades coupled to an impeller, wherein the combination of the fan assembly housing and the cover includes a wall proximate the air inlet ; modifying the shape of the fan assembly in accordance with the characterization by enlarging a pinch point area between the wall and the enclosure , wherein modifying the shape includes contouring the wall proximate the air inlet opening so as to increase the efficiency of the air transport through the air inlet ; the method being characterised by : reducing the height of at least one of the plurality of blades to conform to the contoured shape of the combination of the fan assembly housing and cover.
A mixing device with a mixing chamber bounded by an inner surface of a wall , the wall additionally having a cylindrical outer surface , the wall comprising at least one feed duct that one the one hand ends with an opening in the cylindrical outer surface of the wall and on the other hand ends with an opening in the inner surface of the wall , the mixing device further comprising a magazine that has a cylindrical inner surface, the cylinder axis of which is coaxial with respect to a cylinder axis of the cylindrical outer surface of the wall , the magazine including a plurality of ducts , which each extend from a respective connection to a respective opening in the cylindrical inner surface of the magazine , the magazine and the wall being movable with respect to one another in such a way that the openings of the plurality of ducts in the inner surface of the magazine can be made to establish a media-conducting connection to the opening of the at least one feed duct in the outer surface of the wall , characterized in that in that the mixing device additionally comprises a mixer that is movable in the mixing chamber along the cylinder axis of the outer surface of the wall for mixing media, and that the openings of the plurality of ducts of the magazine are arranged in the inner surface of the magazine in exactly two or exactly three planes, which are perpendicular to the cylinder axis of the cylindrical outer surface of the wall . a mixing chamber bounded by an inner surface of a wall , the wall additionally having a cylindrical outer surface , the wall comprising at least one feed duct that one the one hand ends with an opening in the cylindrical outer surface of the wall and on the other hand ends with an opening in the inner surface of the wall , the mixing device further comprising a magazine that has a cylindrical inner surface, the cylinder axis of which is coaxial with respect to a cylinder axis of the cylindrical outer surface of the wall , the magazine including a plurality of ducts , which each extend from a respective connection to a respective opening in the cylindrical inner surface of the magazine , the magazine and the wall being movable with respect to one another in such a way that the openings of the plurality of ducts in the inner surface of the magazine can be made to establish a media-conducting connection to the opening of the at least one feed duct in the outer surface of the wall , characterized in that in that the mixing device additionally comprises a mixer that is movable in the mixing chamber along the cylinder axis of the outer surface of the wall for mixing media, and that the openings of the plurality of ducts of the magazine are arranged in the inner surface of the magazine in exactly two or exactly three planes, which are perpendicular to the cylinder axis of the cylindrical outer surface of the wall .
A valve actuator including: a drive shaft for, in use, adjusting a valve between an open position and a closed position; and an AC induction motor for driving the drive shaft; characterised by a contactless position sensor configured to, in use, output a signal representing an angular position of the drive shaft or the valve, and a controller configured to control the AC induction motor in accordance with the signal output by the position sensor, wherein the controller is configured to set a rate at which the AC induction motor drives the drive shaft dependent upon said angular position of the drive shaft and to store data representing a plurality of drive shaft angular positions, wherein the controller is configured to vary a rate at which the AC induction motor drives the drive shaft between said stored drive shaft angular positions. a drive shaft for, in use, adjusting a valve between an open position and a closed position; and an AC induction motor for driving the drive shaft; characterised by a contactless position sensor configured to, in use, output a signal representing an angular position of the drive shaft or the valve, and a controller configured to control the AC induction motor in accordance with the signal output by the position sensor, wherein the controller is configured to set a rate at which the AC induction motor drives the drive shaft dependent upon said angular position of the drive shaft and to store data representing a plurality of drive shaft angular positions, wherein the controller is configured to vary a rate at which the AC induction motor drives the drive shaft between said stored drive shaft angular positions.
A peritoneal dialysis ("PD") system comprising: a housing ; a dialysis fluid pump housed by the housing and including a reusable pump body that accepts PD fluid for pumping; a dialysis fluid inline heater housed by the housing and including a reusable heater body that accepts PD fluid for heating; a patient line connector presented by the housing ; a drain line connector presented by the housing ; a first reusable PD fluid line extending from the housing and including a first connector configured to mate with the patient line connector for a heat cleaning sequence and a first PD fluid container for a PD treatment; a second reusable PD fluid line extending from the housing and including a second connector configured to mate with the drain line connector for the heat cleaning sequence and a second PD fluid container for the PD treatment; and a control unit configured to run the heat cleaning sequence after the PD treatment, wherein the first connector of the first reusable PD fluid line is disconnected from the first PD fluid container and mated with the patient line connector , the second connector of the second reusable PD fluid line is disconnected from the second PD fluid container and mated with the drain line connector , and wherein the dialysis fluid pump and the dialysis fluid inline heater are actuated during the heat cleaning sequence. a housing ; a dialysis fluid pump housed by the housing and including a reusable pump body that accepts PD fluid for pumping; a dialysis fluid inline heater housed by the housing and including a reusable heater body that accepts PD fluid for heating; a patient line connector presented by the housing ; a drain line connector presented by the housing ; a first reusable PD fluid line extending from the housing and including a first connector configured to mate with the patient line connector for a heat cleaning sequence and a first PD fluid container for a PD treatment; a second reusable PD fluid line extending from the housing and including a second connector configured to mate with the drain line connector for the heat cleaning sequence and a second PD fluid container for the PD treatment; and a control unit configured to run the heat cleaning sequence after the PD treatment, wherein the first connector of the first reusable PD fluid line is disconnected from the first PD fluid container and mated with the patient line connector , the second connector of the second reusable PD fluid line is disconnected from the second PD fluid container and mated with the drain line connector , and wherein the dialysis fluid pump and the dialysis fluid inline heater are actuated during the heat cleaning sequence.
A computer-implemented method comprising: receiving, by a processor of a computing device, an encrypted command request from a mobile device , the encrypted command request comprising an encrypted key part and an encrypted signing key; decrypting, by a hardware security module, HSM , the encrypted command request using a key associated with a security zone of the mobile device; decrypting, by the HSM, the encrypted key part and the encrypted signing key to generate a decrypted key part and a decrypted signing key, wherein decrypting the encrypted key part and the encrypted signing key comprises using the key associated with the security zone of the mobile device and a key associated with a remote administrator associated with the mobile device; generating, for a domain with a target HSM and based on the encrypted command request, a command using the decrypted key part and the decrypted signing key; and transmitting the command to the domain for execution by the target HSM. receiving, by a processor of a computing device, an encrypted command request from a mobile device , the encrypted command request comprising an encrypted key part and an encrypted signing key; decrypting, by a hardware security module, HSM , the encrypted command request using a key associated with a security zone of the mobile device; decrypting, by the HSM, the encrypted key part and the encrypted signing key to generate a decrypted key part and a decrypted signing key, wherein decrypting the encrypted key part and the encrypted signing key comprises using the key associated with the security zone of the mobile device and a key associated with a remote administrator associated with the mobile device; generating, for a domain with a target HSM and based on the encrypted command request, a command using the decrypted key part and the decrypted signing key; and transmitting the command to the domain for execution by the target HSM.
A process for increasing the hydrogen content of a synthesis gas mixture comprising hydrogen, carbon oxides and steam, comprising the steps of: (i) passing the synthesis gas mixture at an inlet temperature in the range 300-450°C over a first water-gas shift catalyst disposed in a first shift vessel to form a first shifted gas mixture, and (ii) passing the first shifted gas mixture at an inlet temperature in the range 170-300°C over a second water gas shift catalyst disposed in a second shift vessel to form a second shifted gas mixture, wherein the second water-gas shift catalyst comprises copper and the first shift vessel contains a sorbent material for capturing halogen contaminants disposed downstream of the first water gas shift catalyst. (i) passing the synthesis gas mixture at an inlet temperature in the range 300-450°C over a first water-gas shift catalyst disposed in a first shift vessel to form a first shifted gas mixture, and (ii) passing the first shifted gas mixture at an inlet temperature in the range 170-300°C over a second water gas shift catalyst disposed in a second shift vessel to form a second shifted gas mixture, wherein the second water-gas shift catalyst comprises copper and the first shift vessel contains a sorbent material for capturing halogen contaminants disposed downstream of the first water gas shift catalyst.