mhurhangee/ep-ind-claims huggingface dataset:
Method for non-invasive determination of vital parameters of a living organism, in particular for a single or continuous measurement and/or monitoring of blood pressure, by means of a device with at least one optical recording unit and a computing unit, by recording a sequence of individual image data of a limited area of the skin of the living organism by means of the optical recording unit, evaluating the image data by means of the computing unit, comprising determination of a pulse wave propagation time and detection of the brightnesses of the pulse wave and determination of one or more vital parameters of the organism from the image data, wherein in the pulse wave measurement with a certain light colour, the detected total brightnesses of the pulse wave of at least one RR interval are split into discrete colours by means of suitable colour models, wherein the measured total brightnesses are converted for this to the colour model YCbCr and from this data are converted into the RGB colour model, characterised in that the pulse wave is represented three-dimensionally using the RGB colour model, wherein waves assigned to the different colours are displayed directly singly or continuously to the user.
A method comprising: identifying, at a mobile phone having a geomagnetic sensor and a motion sensor, a change value of an azimuth, the azimuth being sensed by the geomagnetic sensor (operation 201; 301; 401); determining reliability of the change value (operation 203) by comparing the change value to a specified value (operation 303;405) or by determining the location of the mobile phone; when the change value has been determined unreliable, sensing motion of the mobile phone (operation 205; 305; 407) with the motion sensor; and correcting the azimuth according to the motion (operation 207; 307; 413). identifying, at a mobile phone having a geomagnetic sensor and a motion sensor, a change value of an azimuth, the azimuth being sensed by the geomagnetic sensor (operation 201; 301; 401); determining reliability of the change value (operation 203) by comparing the change value to a specified value (operation 303;405) or by determining the location of the mobile phone; when the change value has been determined unreliable, sensing motion of the mobile phone (operation 205; 305; 407) with the motion sensor; and correcting the azimuth according to the motion (operation 207; 307; 413).
An oven comprising - a body, - a cooking chamber that is disposed inside the body, - a door that provides access to the cooking chamber, - a control unit and an indicator that are disposed on the door, - a cable that provides electric current and data transmission to the control unit and/or the indicator, and - a frame belonging to the door and having an outer glass plate disposed on the outer surface thereof, an inner glass plate placed on the inner surface thereof, an upper profile, two side profiles and a lower profile, - a cable channel that is disposed on the surface of the side profile of the frame remaining between the outer glass plate and the inner glass plate and wherein the cable is placed, characterized by - at least two extensions that extend in a manner opposite to each another along the side profile and that form the walls of the cable channel, - a protector that is disposed between the extensions and that covers the cable channel, - at least two guides that are situated on the opposite extensions and wherein the protector is placed, - a cable retainer that is disposed in the region the cable passes from the upper profile to the control unit and the indicator and that has a groove through which the cable passes. - a body, - a cooking chamber that is disposed inside the body, - a door that provides access to the cooking chamber, - a control unit and an indicator that are disposed on the door, - a cable that provides electric current and data transmission to the control unit and/or the indicator, and - a frame belonging to the door and having an outer glass plate disposed on the outer surface thereof, an inner glass plate placed on the inner surface thereof, an upper profile, two side profiles and a lower profile, - a cable channel that is disposed on the surface of the side profile of the frame remaining between the outer glass plate and the inner glass plate and wherein the cable is placed, - at least two extensions that extend in a manner opposite to each another along the side profile and that form the walls of the cable channel, - a protector that is disposed between the extensions and that covers the cable channel, - at least two guides that are situated on the opposite extensions and wherein the protector is placed, - a cable retainer that is disposed in the region the cable passes from the upper profile to the control unit and the indicator and that has a groove through which the cable passes.
A pharmaceutical composition comprising at least one double-stranded siRNA targeted against ADAMTS-5 and at least one double-stranded siRNA targeted against ADAM17, and optionally a pharmaceutically acceptable carrier, wherein the sense strand of the double-stranded siRNA targeted against ADAMTS-5 comprises a nucleotide sequence having at least 60% identity to SEQ ID NO: 1, and the antisense strand of double-stranded siRNA targeted against ADAMTS-5 comprises a nucleotide sequence having at least 60% identity to SEQ ID NO: 2, and wherein the sense strand of the double-stranded siRNA targeted against ADAM17 comprises a nucleotide sequence having at least 60% identity to SEQ ID NO: 7, and the antisense strand of the double-stranded siRNA targeted against ADAM17 comprises a nucleotide sequence having at least 60% identity to SEQ ID NO: 8.
Gas-insulated, metal-encapsulated, high-voltage circuit breaker having an interrupter unit, a closing resistor and a switch, which is connected in series with the closing resistor, for insertion of the closing resistor in the circuit when on load, wherein the interrupter unit has a moving, first interrupter contact, which is driven via a drive rod and interacts with a second interrupter contact in order to open and close the high-voltage circuit breaker, wherein the switch has a movable switching contact, whose movement is mechanically coupled by means of a transmission to the movement of the first interrupter contact, wherein the switching contact is rotatably arranged about a rotation shaft for insertion of the closing resistor, characterized in that the transmission converts a linear movement of a drive rod and/or of the first interrupter contact in the direction of a first axis to a rotary movement of the switching contact about the rotation shaft.
A method for transmitting data by a user equipment in a wireless communication system, the method comprising: transmitting a radio resource control, RRC, connection request message; receiving an RRC connection setup message in response to the RRC connection request message; and transmitting, prior to activation of security, a RRC message comprising a non-access stratum, NAS, message, wherein the NAS message comprises user data, wherein based on i) the NAS message comprising only the user data and ii) the RRC message without RRC control information different from the NAS message, the RRC message is transmitted through a specific signaling radio bearer, SRB, for the RRC message and the NAS message prior to the activation of the security and for narrowband internet of things, NB-IoT, wherein the specific SRB is different from SRB1, SRB2, and SRB0, wherein based on i) the NAS message comprising NAS control information in addition to the user data or ii) the RRC message comprising the RRC control information in addition to the NAS message, the RRC message is transmitted through the SRB1 rather than the specific SRB, and wherein the specific SRB is established based on the RRC connection setup message. transmitting a radio resource control, RRC, connection request message; receiving an RRC connection setup message in response to the RRC connection request message; and transmitting, prior to activation of security, a RRC message comprising a non-access stratum, NAS, message, wherein the NAS message comprises user data, wherein based on i) the NAS message comprising only the user data and ii) the RRC message without RRC control information different from the NAS message, the RRC message is transmitted through a specific signaling radio bearer, SRB, for the RRC message and the NAS message prior to the activation of the security and for narrowband internet of things, NB-IoT, wherein the specific SRB is different from SRB1, SRB2, and SRB0, wherein based on i) the NAS message comprising NAS control information in addition to the user data or ii) the RRC message comprising the RRC control information in addition to the NAS message, the RRC message is transmitted through the SRB1 rather than the specific SRB, and wherein the specific SRB is established based on the RRC connection setup message.
Apparatus for the separation and secure accommodation of particles which are to be separated from a particle-containing raw gas, where at least one filter element with a filter medium designed for the separation of particles is arranged in a collecting container, there being additionally arranged on the collecting container, on the upper end wall, a first combined connection and sealing element for the entry of particle-containing raw gas and a second combined connection and sealing element for the discharge of particle-free gas, the arrangement being such that the at least one filter element with filter medium is arranged between the raw gas feed facility with the first combined connection and sealing element and the particle-free gas discharge facility with the second combined connection and sealing element, a line for feeding raw gas being releasably attachable to the first combined sealing and connection element and aligned for discharging particle-free gas being releasably attachable to the second combined connection and sealing element, characterized in that the first and second combined connection and sealing elements (3, 4) are different in design and/or dimensions.
A method for analyzing a plant AHASL gene, said method comprising: (a) providing DNA comprising the plant AHASL gene; (b) amplifying the DNA using an AHASL forward primer, an AHASL reverse primer, polymerase, and deoxyribonucleotide triphosphates; (c) detecting products of the amplification with a wild-type AHASL probe and a herbicide-tolerant AHASL probe thereby identifying the AHASL gene as wild-type or variant for the single nucleotide polymorphism resulting in an amino acid substitution corresponding to the S653( At)N substitution; wherein the AHASL forward primer is an oligonucleotide comprising a sequence selected from SEQ ID NO:16, SEQ ID NO:18, SEQ ID NO:21, SEQ ID NO:23, SEQ ID NO:26, and SEQ ID NO:28; wherein the AHASL forward primer comprises a mismatch with the plant AHASL gene located 2 or 3 nucleotides upstream from the 3'-terminal nucleotide of the AHASL forward primer; and wherein the 3'-terminal nucleotide of the AHASL forward primer is an AHASL single nucleotide polymorphism site. (a) providing DNA comprising the plant AHASL gene; (b) amplifying the DNA using an AHASL forward primer, an AHASL reverse primer, polymerase, and deoxyribonucleotide triphosphates; (c) detecting products of the amplification with a wild-type AHASL probe and a herbicide-tolerant AHASL probe thereby identifying the AHASL gene as wild-type or variant for the single nucleotide polymorphism resulting in an amino acid substitution corresponding to the S653( At)N substitution;
A heart monitor which is or can be connected at least to a sensor for pressure and volume data or substitute variable of a heart and which comprises an evaluation unit for processing input signals reflecting the course over time of pressure and volume data, or substitute variables of the heart, said evaluation unit being configured such that the evaluation unit segments the input signals in accordance with individual completed cardiac cycles and examines segments of the input signals obtained in this way as to whether a particular segment of the input signals represents a pV diagram, which corresponds to specified quality conditions, wherein the evaluation unit is configured to evaluate consecutive signal value pairs of the input signals in terms of a loop direction of a pV diagram represented by the signal value pairs, characterised in that the evaluation unit is configured to use the loop direction of a respective pV diagram represented by signal value pairs to identify and, where appropriate, to correct invalid signal value pairs in order to create a corrected pV diagram.
Sensor configured to detect and/or measure a force applied on the sensor, wherein the sensor comprises: - a carrier, - a first electrode that is formed by at least one first thread that is embroidered on the carrier and that comprises electrically conductive components, - a second electrode that is formed by at least one second thread that is embroidered on the carrier and that comprises electrically conductive components, wherein the two electrodes (18, 20) are arranged with distance to one another on the carrier, - a cover layer that is formed by at least one third thread that is embroidered on the carrier and that comprises electrically conductive components, wherein the at least one third thread of cover layer is in abutment with the at least one first thread of first electrode and the at least one second thread of second electrode at multiple contact sites (34, 35), characterized in that the first electrode has a first base zone and multiple first electrode fingers extending away from the first base zone, wherein a first interstice is formed between two directly adjacent first electrode fingers respectively, that the second electrode comprises a second base zone and multiple second electrode fingers extending away from the second base zone, wherein a second interstice is formed between two directly adjacent second electrode fingers respectively. - a carrier, - a first electrode that is formed by at least one first thread that is embroidered on the carrier and that comprises electrically conductive components, - a second electrode that is formed by at least one second thread that is embroidered on the carrier and that comprises electrically conductive components, wherein the two electrodes (18, 20) are arranged with distance to one another on the carrier, - a cover layer that is formed by at least one third thread that is embroidered on the carrier and that comprises electrically conductive components, wherein the at least one third thread of cover layer is in abutment with the at least one first thread of first electrode and the at least one second thread of second electrode at multiple contact sites (34, 35),
A method, in a time-of-flight (ToF) measurement device, the method comprising: obtaining a distance measurement, using one or more pixels in a ToF sensor; obtaining an intensity measurement corresponding to the distance measurement, using the one or more pixels; and calculating a reflectance value for the one or more pixels, based on the distance measurement, the intensity measurement, and a reflectance calibration factor, characterized in that the reflectance calibration factor is compensating for at least one of a viewing angle for the one or more pixels using Lambert's cosine law, and a difference between a distance to a planar, diffuse, calibration surface measured by the one or more pixels and a distance calibration value using inverse square law. obtaining a distance measurement, using one or more pixels in a ToF sensor; obtaining an intensity measurement corresponding to the distance measurement, using the one or more pixels; and calculating a reflectance value for the one or more pixels, based on the distance measurement, the intensity measurement, and a reflectance calibration factor, characterized in that the reflectance calibration factor is compensating for at least one of a viewing angle for the one or more pixels using Lambert's cosine law, and a difference between a distance to a planar, diffuse, calibration surface measured by the one or more pixels and a distance calibration value using inverse square law.
A water-based pigment dispersion comprising a colorant, a dispersant and water, wherein the colorant contains an azo pigment which is an aggregate of molecules represented by Formula that has characteristic X-ray diffraction peaks at Bragg angles (2θ±0.2°) of 7.2°, 13.4°, 15.0° and 25.9° in CuKa characteristic X-ray diffraction, or a tautomer thereof, or an azo pigment which is an aggregate of molecules represented by Formula that has characteristic X-ray diffraction peaks at Bragg angles (2θ±0.2°) of 4.8°, 7.2° and 9.7° in CuKa characteristic X-ray diffraction, or a tautomer thereof, characterized in that the dispersant is a water-soluble polymer, and the water-based dispersion is cross-linked by a cross-linking agent. an azo pigment which is an aggregate of molecules represented by Formula that has characteristic X-ray diffraction peaks at Bragg angles (2θ±0.2°) of 7.2°, 13.4°, 15.0° and 25.9° in CuKa characteristic X-ray diffraction, or a tautomer thereof, or an azo pigment which is an aggregate of molecules represented by Formula that has characteristic X-ray diffraction peaks at Bragg angles (2θ±0.2°) of 4.8°, 7.2° and 9.7° in CuKa characteristic X-ray diffraction, or a tautomer thereof, characterized in that the dispersant is a water-soluble polymer, and the water-based dispersion is cross-linked by a cross-linking agent.
Catalyst, comprising a carrier substrate of length L, which extends between a first end surface a and a second end surface b, and catalytically active material zones A, B, and C of different compositions, wherein - material zone A contains platinum or platinum and palladium, one or more alkaline earth compounds, and cerium oxide - material zone B contains platinum or platinum and palladium, and cerium oxide - material zone C contains platinum or platinum and palladium, and rhodium and cerium oxide wherein - material zone A extends, starting from end surface b, over a length of 30 - 90% of length L, and - material zone B extends, starting from end surface a, over a length of 10% - 70% of length L, and - material zone C is arranged over material zone A and extends, starting from end surface b, over 30 - 90% of length L. - material zone A contains platinum or platinum and palladium, one or more alkaline earth compounds, and cerium oxide - material zone B contains platinum or platinum and palladium, and cerium oxide - material zone C contains platinum or platinum and palladium, and rhodium and cerium oxide - material zone A extends, starting from end surface b, over a length of 30 - 90% of length L, and - material zone B extends, starting from end surface a, over a length of 10% - 70% of length L, and - material zone C is arranged over material zone A and extends, starting from end surface b, over 30 - 90% of length L.
A suction pad for sucking an object (61, W) under a negative pressure, the suction pad comprising: a stationary section fixable on a support; and a deformable section deformable under the negative pressure, the deformable section including a plurality of marks (151 to 155) at a plurality of positions spaced from one another and displaceable with respect to the stationary section in response to deformation of the deformable section, the plurality of marks (151 to 155) being optically identifiable, the plurality of marks (151 to 155) being continuous across the plurality of positions or being separate at the plurality of positions characterized in that the marks (151 to 155) are formed from a retroreflective material. a stationary section fixable on a support; and a deformable section deformable under the negative pressure, the deformable section including a plurality of marks (151 to 155) at a plurality of positions spaced from one another and displaceable with respect to the stationary section in response to deformation of the deformable section, the plurality of marks (151 to 155) being optically identifiable, the plurality of marks (151 to 155) being continuous across the plurality of positions or being separate at the plurality of positions characterized in that the marks (151 to 155) are formed from a retroreflective material.
A method, comprising: identifying, by a particular node in a directed acyclic graph in a computer network, a low-contact node in the DAG; identifying neighbors of the low-contact node; establishing a multicast tree from the particular node to the low-contact node through a plurality of the neighbors to reach the low-contact node; and sending traffic from the particular node to the low-contact node as multicast traffic on the multicast tree, wherein each of the plurality of neighbors attempts to forward the traffic to the low-contact node. identifying, by a particular node in a directed acyclic graph in a computer network, a low-contact node in the DAG; identifying neighbors of the low-contact node; establishing a multicast tree from the particular node to the low-contact node through a plurality of the neighbors to reach the low-contact node; and sending traffic from the particular node to the low-contact node as multicast traffic on the multicast tree, wherein each of the plurality of neighbors attempts to forward the traffic to the low-contact node.
Device for the purpose of insulating a ventilation duct, especially an air-conditioning duct passing through a penetration in a wall or ceiling or the like, and a gap between duct and penetration is filled with packing material and wherein insulation material is provided around the outside of the duct, and the insulating material makes at least partial contact with the penetration via its end face, and a heat-resistant adhesive material is provided over the end face of the insulating material, preferably over the full surface in some sections, characterised by the fact that the packing material at an end pointing to the adhesive material is coated with a fire-inhibiting foam-forming agent and that the heat-resistant adhesive material bonds at least part of the surface of the insulating material to the packing material coated with the foam-forming agent.