mhurhangee/ep-ind-claims huggingface dataset:
A device for mangling laundry items with at least one permanently stationary mangle body, the outer shell surface of which forms a heatable pressing surface and at least one circumferentially drivable mangling belt assigned to the at least one mangle body, by which mangling belt the laundry items can be moved along on the outer pressing surface of the at least one mangle body, wherein the at least one mangle body is formed to be double-walled with at least one cavity between an outer mangle body wall and an inner mangle body wall, in which a liquid heat transfer medium is located and at least one heating device for heating the heat transfer medium in the cavity is arranged entirely or at least partially in the interior of the at least one mangle body, characterized in that the interior of the at least one mangle body is formed to be gas- or pressure-tight and pressure-resistant and is configured as at least one boiler (32; 45; 49), such that thermal energy of hot air generated in the boiler (32; 45; 49) of the inner space of the mangle body can be transferred from an inner side of inner mangle body wall by heat conduction to an outer side of inner mangle body wall and as a result liquid heat transfer medium in the cavity of the double-walled mangle body can be heated, and in that the heating device is formed from at least one heating body located in the boiler (32; 45; 49) and a burner which is operated with fossil fuel and is attached externally to an end wall of the mangle body..
A probe for a vitrectomy tool comprising: a vitreous cutter tube having a blunt tip at a distal end and adapted to be coupled at a proximal end to a handpiece of a vitrectomy tool; a retractable outer trocar tube surrounding the vitreous cutter tube having an open distal end with a sharpened edge; and a retraction mechanism (138, 140, 142, 144, 146) coupled to a proximal end of the outer trocar for selectively extending and retracting the outer trocar tube between a first extended position wherein the sharpened edge of the outer trocar is extended beyond the blunt tip of the vitreous cutter tube to facilitate insertion into the eye and a second retracted position wherein the sharpened edge of the outer trocar is retracted behind the blunt tip of the vitreous cutter tube to facilitate safe operation of the probe; wherein said vitreous cutter tube comprises an aperture extending into a central bore and a reciprocal cutter (46, 54) fitted in the central bore having a cutting edge adapted for travel across an aperture adapted to receive a flow of vitreous material, and wherein the retraction mechanism (138, 140, 142, 144, 146) comprises a telescopically movable hub coupled to the proximal end of the outer trocar wherein the telescopic movement of the hub imparts relative movement to the outer trocar. a vitreous cutter tube having a blunt tip at a distal end and adapted to be coupled at a proximal end to a handpiece of a vitrectomy tool; a retractable outer trocar tube surrounding the vitreous cutter tube having an open distal end with a sharpened edge; and a retraction mechanism (138, 140, 142, 144, 146) coupled to a proximal end of the outer trocar for selectively extending and retracting the outer trocar tube between a first extended position wherein the sharpened edge of the outer trocar is extended beyond the blunt tip of the vitreous cutter tube to facilitate insertion into the eye and a second retracted position wherein the sharpened edge of the outer trocar is retracted behind the blunt tip of the vitreous cutter tube to facilitate safe operation of the probe;
An electronic cigarette device comprising a housing configured to hold a battery, a vent port arranged in the housing, a safety valve means arranged on the vent port, wherein the safety valve means is configured to open and/or close the vent port partially and/or completely characterised in that the safety valve means is configured to open and/or close the vent port partially and/or completely depending on the temperature within the housing. a housing configured to hold a battery, a vent port arranged in the housing, a safety valve means arranged on the vent port, wherein the safety valve means is configured to open and/or close the vent port partially and/or completely characterised in that the safety valve means is configured to open and/or close the vent port partially and/or completely depending on the temperature within the housing.
A blood pressure cuff, comprising: a longitudinal axis that extends substantially centrally along a length of the blood pressure cuff; a first bladder extending substantially parallel to the longitudinal axis from a first cuff perimeter segment to a lateral seal that extends substantially perpendicular to the longitudinal axis, the first bladder having a first side and a second side opposite the first side; a second bladder extending substantially parallel to the longitudinal axis from a second cuff perimeter segment to the lateral seal, the second bladder having a third side adjacent to the second side of the first bladder, and a fourth side opposite the third side, the fourth side being disposed adjacent to the first side of the first bladder; a first port fluidly connected to the first bladder, the first port extending from the first side of the first bladder; a second port fluidly connected to the second bladder, the second port extending from the third side of the second bladder; a first closure element located between the first perimeter segment and the first port; and a second closure element located between the second perimeter segment and the second port; wherein the first bladder is fluidly separate from the second bladder, wherein: the first bladder, when inflated, has a first volume; the second bladder, when inflated, has a second volume, wherein the first volume is less than the second volume. a longitudinal axis that extends substantially centrally along a length of the blood pressure cuff; a first bladder extending substantially parallel to the longitudinal axis from a first cuff perimeter segment to a lateral seal that extends substantially perpendicular to the longitudinal axis, the first bladder having a first side and a second side opposite the first side; a second bladder extending substantially parallel to the longitudinal axis from a second cuff perimeter segment to the lateral seal, the second bladder having a third side adjacent to the second side of the first bladder, and a fourth side opposite the third side, the fourth side being disposed adjacent to the first side of the first bladder; a first port fluidly connected to the first bladder, the first port extending from the first side of the first bladder; a second port fluidly connected to the second bladder, the second port extending from the third side of the second bladder; a first closure element located between the first perimeter segment and the first port; and a second closure element located between the second perimeter segment and the second port; wherein the first bladder is fluidly separate from the second bladder, wherein: the first bladder, when inflated, has a first volume; the second bladder, when inflated, has a second volume, wherein the first volume is less than the second volume. the first bladder, when inflated, has a first volume; the second bladder, when inflated, has a second volume, wherein the first volume is less than the second volume.
A method performed by at least one processor executing instructions retrieved from at least one data storage device to automatically generate a wiring schema, the method comprising: determining a corresponding number of terminals A i for each safety device of N safety devices to be connected to a safety evaluation device; and, detecting a number of terminals B of the safety evaluation device available to connect to the N safety devices, wherein, A = ∑ i = 1 N A i, and if A is greater than B, then: (a) automatically identifying one or more sets of the N safety devices that are able to share a terminal of the safety evaluation device based upon test signal compatibility among the N safety devices; (b) for each of the identified one or more sets of the N safety devices, determining a shared terminal of the safety evaluation device connectable to an external terminal block; and, (c) automatically generating a wiring schema, wherein, for each of the identified one or more sets, the external terminal block provides electrical connection between each of the safety devices in that set and the shared terminal of the safety evaluation device associated with that set. determining a corresponding number of terminals A i for each safety device of N safety devices to be connected to a safety evaluation device; and, detecting a number of terminals B of the safety evaluation device available to connect to the N safety devices, wherein, A = ∑ i = 1 N A i, and if A is greater than B, then: (a) automatically identifying one or more sets of the N safety devices that are able to share a terminal of the safety evaluation device based upon test signal compatibility among the N safety devices; (b) for each of the identified one or more sets of the N safety devices, determining a shared terminal of the safety evaluation device connectable to an external terminal block; and, (c) automatically generating a wiring schema, wherein, for each of the identified one or more sets, the external terminal block provides electrical connection between each of the safety devices in that set and the shared terminal of the safety evaluation device associated with that set. (a) automatically identifying one or more sets of the N safety devices that are able to share a terminal of the safety evaluation device based upon test signal compatibility among the N safety devices; (b) for each of the identified one or more sets of the N safety devices, determining a shared terminal of the safety evaluation device connectable to an external terminal block; and, (c) automatically generating a wiring schema, wherein, for each of the identified one or more sets, the external terminal block provides electrical connection between each of the safety devices in that set and the shared terminal of the safety evaluation device associated with that set.
A method for forming a three-dimensional object, comprising: a) providing a powder bed comprising powder material; b) applying a first binding substance to a first area of a first layer of powder material of said powder bed; c) subsequent to applying said first binding substance to said first area, using a first perimeter generator to generate one or more perimeters in said first area of said first layer, wherein said first perimeter generator generates the one or more perimeters mechanically, and wherein said one or more perimeters of said first layer is in accordance to a model design of said three-dimensional object in computer memory; d) applying a second binding substance to a second area of a second layer of powder material of said powder bed, which second layer is adjacent to said first layer; and e) subsequent to applying said second binding substance to said second area, using a second perimeter generator to generate one or more perimeters in said second area of said second layer of powder material, wherein said second perimeter generator generates the one or more perimeters mechanically or through the application of heat, and wherein said one or more perimeters of said second layer is in accordance to said model design of said three-dimensional object, thereby generating at least a portion of said three-dimensional object. a) providing a powder bed comprising powder material; b) applying a first binding substance to a first area of a first layer of powder material of said powder bed; c) subsequent to applying said first binding substance to said first area, using a first perimeter generator to generate one or more perimeters in said first area of said first layer, wherein said first perimeter generator generates the one or more perimeters mechanically, and wherein said one or more perimeters of said first layer is in accordance to a model design of said three-dimensional object in computer memory; d) applying a second binding substance to a second area of a second layer of powder material of said powder bed, which second layer is adjacent to said first layer; and e) subsequent to applying said second binding substance to said second area, using a second perimeter generator to generate one or more perimeters in said second area of said second layer of powder material, wherein said second perimeter generator generates the one or more perimeters mechanically or through the application of heat, and wherein said one or more perimeters of said second layer is in accordance to said model design of said three-dimensional object, thereby generating at least a portion of said three-dimensional object.
An electric water heater, in particular an electronic instantaneous water heater, hot water system, drinking water heat pump, small water heater, wall mounted cylinder, floor mounted cylinder and/or automatic water boiler, comprising: - a flow channel (9, 10, 11) including a heating section, - a heating element, in particular a bare wire heating element, disposed in the region of the heating section, - a measuring sensor having two spaced apart electrodes (22, 22') reaching into the flow channel, and which is configured for measuring a resistance of a fluid flowing through the flow channel (9, 10, 11) by applying an AC voltage across the two spaced apart electrodes (22, 22'); and - an electronic control device for controlling the electric water heater, wherein the electronic control device is configured to control a heating output of the heating element in dependence of the measured resistance, in particular to interrupt the heating output when a threshold value of the resistance is not met and/or exceeded, wherein the flow channel (9, 10, 11) includes an upstream section, the heating section and a downstream section, characterised in that the measuring sensor is disposed in the downstream section. - a flow channel (9, 10, 11) including a heating section, - a heating element, in particular a bare wire heating element, disposed in the region of the heating section, - a measuring sensor having two spaced apart electrodes (22, 22') reaching into the flow channel, and which is configured for measuring a resistance of a fluid flowing through the flow channel (9, 10, 11) by applying an AC voltage across the two spaced apart electrodes (22, 22'); and - an electronic control device for controlling the electric water heater, wherein the electronic control device is configured to control a heating output of the heating element in dependence of the measured resistance, in particular to interrupt the heating output when a threshold value of the resistance is not met and/or exceeded,
Method for establishing a connection between two pipe segments of a tower-like structure, in particular a wind turbine, in which a first pipe segment is pushed into a second pipe segment at an end face or a first pipe segment is placed over a second pipe segment at an end face and an annular space is formed between the first and the second pipe segment, two at least partially circumferential joining elements, spaced apart from one another in the longitudinal direction of the pipe segments are arranged in the annular space, wherein the joining elements are arranged on an outer wall of one of the pipe segments and/or on an inner wall of one of the pipe segments, and the pipe segments are mechanically coupled to one another via the joining elements in the annular space, characterized in that a mechanical parameter of the mechanical coupling between the pipe segments is detected by means of at least one measuring device on at least one of the pipe segments, and - that, depending on the detected mechanical parameter, the annular gap is filled with grouting compound after an initial installation and commissioning of the structure. - that, depending on the detected mechanical parameter, the annular gap is filled with grouting compound after an initial installation and commissioning of the structure.
A system comprising: a device (102, 608) configured to be implanted within a recipient and comprising an integrated circuit comprising: a first node configured to provide a bandgap reference voltage (Vref), the first node coupled to a first input of an analog-to-digital converter, and a second node providing a complementary to absolute temperature (CTAT) voltage, the second node coupled to a second input of the ADC; and a processor (104, 604) communicatively coupled to an output of the ADC and configured to: determine, based on the output of the ADC, the CTAT voltage, and determine, based on the CTAT voltage, a temperature of the device, wherein the determining the temperature of the device comprises: determining a difference between the CTAT voltage and the bandgap reference voltage; and determining, based on the difference between the CTAT voltage and the bandgap reference voltage, and based on a known temperature response of the CTAT voltage, the temperature of the device. a device (102, 608) configured to be implanted within a recipient and comprising an integrated circuit comprising: a first node configured to provide a bandgap reference voltage (Vref), the first node coupled to a first input of an analog-to-digital converter, and a second node providing a complementary to absolute temperature (CTAT) voltage, the second node coupled to a second input of the ADC; and a first node configured to provide a bandgap reference voltage (Vref), the first node coupled to a first input of an analog-to-digital converter, and a second node providing a complementary to absolute temperature (CTAT) voltage, the second node coupled to a second input of the ADC; and a processor (104, 604) communicatively coupled to an output of the ADC and configured to: determine, based on the output of the ADC, the CTAT voltage, and determine, based on the CTAT voltage, a temperature of the device, determine, based on the output of the ADC, the CTAT voltage, and determine, based on the CTAT voltage, a temperature of the device, wherein the determining the temperature of the device comprises: determining a difference between the CTAT voltage and the bandgap reference voltage; and determining, based on the difference between the CTAT voltage and the bandgap reference voltage, and based on a known temperature response of the CTAT voltage, the temperature of the device. determining a difference between the CTAT voltage and the bandgap reference voltage; and determining, based on the difference between the CTAT voltage and the bandgap reference voltage, and based on a known temperature response of the CTAT voltage, the temperature of the device.
Process for the treatment of a subterranean formation, said subterranean formation being passed through by at least one injection well, characterized in that the following steps are carried out: a) an aqueous gelling solution comprising an alkaline potassium silicate solution, an acetic acid and an aluminate is prepared; and b) said aqueous gelling solution is injected from said injection well into said subterranean formation in order to seal and/or consolidate said subterranean formation. a) an aqueous gelling solution comprising an alkaline potassium silicate solution, an acetic acid and an aluminate is prepared; and b) said aqueous gelling solution is injected from said injection well into said subterranean formation in order to seal and/or consolidate said subterranean formation.
A method of building up a measurement data set for a surface of an object using an analogue measurement probe mounted on a machine tool apparatus which obtains scanned measurement data of the surface over a plurality of offset traverses, in which a subsequent traverse is offset from a previous traverse such that over a series of traverses the analogue probe's surface detecting region progresses i) laterally across the object, and/or ii) away from or towards the object, and in which the course of relative motion for at least one subsequent traverse is generated and/or updated based on data obtained during at least one previous traverse.
The hydrogen sulfate salt of 5-(5-chloro-2-{[(3 S)-3-(morpholin-4-ylmethyl)-3,4-dihydroisoquinolin-2(1 H)-yl]carbonyl} phenyl)- N -(5-cyano-1,2-dimethyl-1 H -pyrrol-3-yl)- N- (4-hydroxyphenyl)-1,2-dimethyl-1 H -pyrrole-3-carboxamide (Compound A, H 2 SO 4).
A metal mold for injection molding for molding a semiconductor package (100;100';200), the metal mold for injection molding being closed to define a mold cavity, to enable molding a semiconductor package (100;100';200) by injecting a resin into the cavity, the metal mold for injection molding comprising: a fixed mold member; and a plurality of movable mold members; wherein the fixed mold member and the plurality of movable mold members each has an inner surface capable of collectively defining the mold cavity upon closing thereof; characterized in that the fixed mold member or the movable mold members have a gate formed continuous to the inner surface thereof to inject a resin into the mold cavity; and in that the inner surface of the metal mold for injection has a first mold surface and a second mold surface being disposed facing each other and tapering toward the gate, the first mold surface or the second mold surface having a recess at a portion to be in contact with the gate, wherein a lead frame is placed between the fixed mold member and the movable mold members, and a narrowest gap between an end surface of the lead frame and the inner surface of the movable mold members is one fourth or less of a height of the mold cavity defined by the movable mold members. a fixed mold member; and a plurality of movable mold members; wherein the fixed mold member and the plurality of movable mold members each has an inner surface capable of collectively defining the mold cavity upon closing thereof; the fixed mold member or the movable mold members have a gate formed continuous to the inner surface thereof to inject a resin into the mold cavity; and in that the inner surface of the metal mold for injection has a first mold surface and a second mold surface being disposed facing each other and tapering toward the gate, the first mold surface or the second mold surface having a recess at a portion to be in contact with the gate,