mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic button for detecting a finger, comprising: an ultrasonic transmitter configured to transmit an ultrasonic wave; a piezoelectric receiver layer configured to receive a reflected wave of the ultrasonic wave; a platen layer configured to protect the ultrasonic transmitter and the piezoelectric receiver layer; a first matching layer configured to match an acoustic impedance of the platen layer with an acoustic impedance of ridges of a finger, wherein the first matching layer is separate to the platen layer, wherein the first matching layer has an acoustic impedance approximately equal to a geometric mean of the acoustic impedance of the ridges of the finger and the acoustic impedance of the platen layer; and an ultrasonic sensor array configured to detect the finger using the reflected wave. an ultrasonic transmitter configured to transmit an ultrasonic wave; a piezoelectric receiver layer configured to receive a reflected wave of the ultrasonic wave; a platen layer configured to protect the ultrasonic transmitter and the piezoelectric receiver layer; a first matching layer configured to match an acoustic impedance of the platen layer with an acoustic impedance of ridges of a finger, wherein the first matching layer is separate to the platen layer, wherein the first matching layer has an acoustic impedance approximately equal to a geometric mean of the acoustic impedance of the ridges of the finger and the acoustic impedance of the platen layer; and an ultrasonic sensor array configured to detect the finger using the reflected wave.
Use of a catalyst for a water-hydrogen exchange reaction between moisture and hydrogen, in which moisture and hydrogen, at least one of which contains a hydrogen isotope, are allowed to react to cause hydrogen isotope exchange at 25°C or more and 95°C or less, wherein the catalyst comprises a catalytic metal supported on a carrier formed of an inorganic oxide, wherein the carrier is formed of an inorganic oxide that has a hydrophobic compound bound to a surface of the inorganic oxide and has been rendered hydrophobic, the catalytic metal consists of platinum, and the chlorine content per 1 mass% of the amount of platinum supported is 25 ppm or more and 1,000 ppm or less based on the total mass of the catalyst. the carrier is formed of an inorganic oxide that has a hydrophobic compound bound to a surface of the inorganic oxide and has been rendered hydrophobic, the catalytic metal consists of platinum, and the chlorine content per 1 mass% of the amount of platinum supported is 25 ppm or more and 1,000 ppm or less based on the total mass of the catalyst.
Distributor of a turbomachine radial turbine comprising a rotor equipped with vanes adapted to be rotated about a central axis , said distributor comprising an annular grill extending about said central axis , intended to be arranged on the periphery of said rotor and comprising a plurality of variable-pitch blades arranged about said central axis delimiting between them a passage cross section of an air stream from said distributor to said rotor, each variable-pitch blade further extending in a main direction and having a leading edge and a trailing edge intended to be arranged opposite the leading edge on the rotor vanes, characterized in that each variable-pitch blade is mounted to be rotatably movable about a pivot shaft extending parallel to the central axis , this pivot shaft being itself movable relative to the central axis in one direction, called the translation direction, comprising at least one radial component, so that this blade may, upon actuation of control means , be pivoted about the pivot shaft and/or moved relative to the central axis in said translation direction so as to be able to modify said passage cross section of the air stream from upstream to downstream of the distributor, by controlling respectively the angle, called metal angle ( α 3), formed between the main direction of the blade and the radial direction, and the radial spacing (ΔR) which separates the trailing edge of the blade and the leading edge of the rotor vanes.
An ink reservoir member , having a solid truncated cone-like shape, a core insertion hole being axially formed therethrough that penetrates through the central portion thereof, configured to slidably house one half part of a core , and a number of slits for reservoiring ink being formed radially from the core insertion hole and configured to reservoir ink.
An industrial vehicle comprising storage and retrieval hardware , a tag reader , a reader module , and a vehicle controller , wherein: the storage and retrieval hardware is configured to store and retrieve items from selected storage elements positioned along an aisle path ; the industrial vehicle being characterised in that : the tag reader and the reader module cooperate to identify individual tags of a tag layout along the aisle path; the tag reader comprises two read antennas positioned on opposite sides of a longitudinal travel axis of the industrial vehicle ; the read antennas define respective read ranges and generate respective tag read signals when tags enter the respective read ranges of the read antennas ; the tag reader and the reader module further cooperate to generate a vehicle direction signal when the individual tags of the tag layout are identified with reference to tag read signals from only one of the two read antennas ; and the vehicle controller controls operational functions of the storage and retrieval hardware partially as a function of the vehicle direction signal. the storage and retrieval hardware is configured to store and retrieve items from selected storage elements positioned along an aisle path ; the industrial vehicle being characterised in that : the tag reader and the reader module cooperate to identify individual tags of a tag layout along the aisle path; the tag reader comprises two read antennas positioned on opposite sides of a longitudinal travel axis of the industrial vehicle ; the read antennas define respective read ranges and generate respective tag read signals when tags enter the respective read ranges of the read antennas ; the tag reader and the reader module further cooperate to generate a vehicle direction signal when the individual tags of the tag layout are identified with reference to tag read signals from only one of the two read antennas ; and the vehicle controller controls operational functions of the storage and retrieval hardware partially as a function of the vehicle direction signal. the tag reader and the reader module cooperate to identify individual tags of a tag layout along the aisle path; the tag reader comprises two read antennas positioned on opposite sides of a longitudinal travel axis of the industrial vehicle ; the read antennas define respective read ranges and generate respective tag read signals when tags enter the respective read ranges of the read antennas ; the tag reader and the reader module further cooperate to generate a vehicle direction signal when the individual tags of the tag layout are identified with reference to tag read signals from only one of the two read antennas ; and the vehicle controller controls operational functions of the storage and retrieval hardware partially as a function of the vehicle direction signal.
A communication method executed by a source access network device, the method comprising: sending (S101), by the source access network device, a first data packet of a terminal to a target access network device; determining, by the source access network device, that the target access network device has received the first data packet; and sending (S103), by the source access network device, a first message to the terminal, wherein the first message is used to indicate the terminal to hand over to the target access network device; wherein the source access network device determines that the target access network device has received the first data packet comprises: determining, by the source access network device based on latency information, that the target access network device has received the first data packet; wherein the method further comprises: determining, by the source access network device, the latency information based on QoS information of the first data packet; or obtaining, by the source access network device, the latency information from a session management function network element. sending (S101), by the source access network device, a first data packet of a terminal to a target access network device; determining, by the source access network device, that the target access network device has received the first data packet; and sending (S103), by the source access network device, a first message to the terminal, wherein the first message is used to indicate the terminal to hand over to the target access network device; wherein the source access network device determines that the target access network device has received the first data packet comprises: determining, by the source access network device based on latency information, that the target access network device has received the first data packet; wherein the method further comprises: determining, by the source access network device, the latency information based on QoS information of the first data packet; or obtaining, by the source access network device, the latency information from a session management function network element. determining, by the source access network device based on latency information, that the target access network device has received the first data packet; wherein the method further comprises: determining, by the source access network device, the latency information based on QoS information of the first data packet; or obtaining, by the source access network device, the latency information from a session management function network element. determining, by the source access network device, the latency information based on QoS information of the first data packet; or obtaining, by the source access network device, the latency information from a session management function network element.
Process for manufacturing a nonwoven sheet material having a liquid-impermeable layer on one side and an anti-slip coating on the other side, process comprising the steps of: - carding fibers and forming a web, wherein the fibers have a common general orientation; - bonding the fibers into a nonwoven sheet material, - applying an anti-slip coating onto one surface of the nonwoven sheet material, and - applying a polymer onto the second surface of the nonwoven sheet material to form the liquid impermeable layer - characterized in that it further comprises the step of maintaining the orientation of the fibers over the whole process. - carding fibers and forming a web, wherein the fibers have a common general orientation; - bonding the fibers into a nonwoven sheet material, - applying an anti-slip coating onto one surface of the nonwoven sheet material, and - applying a polymer onto the second surface of the nonwoven sheet material to form the liquid impermeable layer - characterized in that it further comprises the step of maintaining the orientation of the fibers over the whole process.
A radiating structure , comprising a radiating sheet , wherein a radiating slot is defined in a middle portion of the radiating sheet , the radiating slot includes a lateral slot and a longitudinal slot that are communicated with each other and are cross-orthogonal, and the lengths of the lateral slot and the longitudinal slot are both smaller than the lengths of the radiating sheet in corresponding extending directions of the corresponding radiating slots ; characterized in that at least one groove is provided on an outer edge of the radiating sheet , and the groove is not communicated with the radiating slot , and the groove is disposed at a location corresponding to an end portion of the radiating slot .
1-{(S)-3-[6-(6-Methoxy-5-trifluoromethyl-pyridin-3-yl)-5,6,7,8-tetrahydro-pyrido[4,3-d]pyrimidin-4-ylamino]-pyrrolidin-1-yl}-propan-1-one or pharmaceutically acceptable salts thereof for use in the treatment of primary Sjögren's Syndrome.
A system for collision avoidance within a monitoring zone of a goods logistics facility, comprising a first transmitter and receiver apparatus , a second transmitter and receiver apparatus , and at least two stationary positioning apparatuses , wherein the positioning apparatuses are configured for transmitting and receiving electromagnetic signals, and the positions of the positioning apparatuses with respect to the monitoring zone can be specified or determined, wherein the first transmitter and receiver apparatus being disposed on an industrial truck and the second transmitter and receiver apparatus being disposed on a movable object , wherein the system is configured for determining an object position of the movable object within the monitoring zone by means of travel time measurement of a signal between the second transmitter and receiver apparatus and the positioning apparatuses , wherein the system is further configured for determining whether a risk of collision exists between the industrial truck and the movable object and for initiating safety measures if a collision risk does exist, wherein the monitoring zone includes at least one separation zone , and wherein the system is configured for defining that there is no collision risk between an industrial truck and a movable object if the object position is located within the separation zone , characterized in that the existence and/or the shape and/or the dimensions and/or the collocation of the separation zone is/are time dependent or variable over time.
A 3D printing method comprising a step during which a composite material is melted then solidified, the composite material comprising a polymer matrix wherein particles with a core/shell structure are dispersed, the core being made of a thermally conductive element having a thermal conductivity greater than 2 W.m -1 .K -1 , the shell being made of an electrically insulating element having an electrical resistivity greater than 1×10 13 ohm.cm, the particles having a form factor greater than 10, and preferably greater than 20.
A Mie photo sensor comprising: a material layer having a first index of refraction; a mesa of semiconducting material on the material layer, the mesa of semiconducting material configured to generate free carriers within the mesa of semiconducting material in response to an electromagnetic perturbation; a refractive medium surrounding the material layer and the mesa of semiconducting material, the refractive medium having a complex index of refraction, the refractive medium and mesa forming (i) an interface with an index of refraction across the interface that is discontinuous, and (ii) an electromagnetic scattering center configured for generating free carriers via optical absorption and Mie resonance of the electromagnetic perturbation at the scattering center; and one or more electrical contacts coupled to and extending upwards from a top surface of the mesa, and the one or more electrical contacts configured to sense free carriers generated within the scattering center in response to the electromagnetic perturbation; wherein the mesa of semiconductor material forms a geometric shape having a set of boundaries, and the electromagnetic scattering center is formed at the boundaries such that the electromagnetic scattering center comprises the semiconducting material of the mesa . a material layer having a first index of refraction; a mesa of semiconducting material on the material layer, the mesa of semiconducting material configured to generate free carriers within the mesa of semiconducting material in response to an electromagnetic perturbation; a refractive medium surrounding the material layer and the mesa of semiconducting material, the refractive medium having a complex index of refraction, the refractive medium and mesa forming (i) an interface with an index of refraction across the interface that is discontinuous, and (ii) an electromagnetic scattering center configured for generating free carriers via optical absorption and Mie resonance of the electromagnetic perturbation at the scattering center; and one or more electrical contacts coupled to and extending upwards from a top surface of the mesa, and the one or more electrical contacts configured to sense free carriers generated within the scattering center in response to the electromagnetic perturbation; wherein the mesa of semiconductor material forms a geometric shape having a set of boundaries, and the electromagnetic scattering center is formed at the boundaries such that the electromagnetic scattering center comprises the semiconducting material of the mesa .
An electrospinning apparatus comprising: (i) at least one spinneret comprising an electrified tip and (ii) a collector being a biocompatible support, at least two rods and a platform connected to the at least two rods, wherein the at least two rods are configured to split an electric field between them, and the fibers are collected on a surface of the biocompatible support, wherein the platform comprises a bearing that comprises an electrical conductor configured to allow electrical conductance to the two rods and/or wherein the bearing comprises mercury. (i) at least one spinneret comprising an electrified tip and (ii) a collector being a biocompatible support, at least two rods and a platform connected to the at least two rods, wherein the at least two rods are configured to split an electric field between them, and the fibers are collected on a surface of the biocompatible support, wherein the platform comprises a bearing that comprises an electrical conductor configured to allow electrical conductance to the two rods and/or wherein the bearing comprises mercury.
An antibody that binds to a TREM2 protein, wherein the antibody comprises a heavy chain variable region and a light chain variable region, wherein: (a) the heavy chain variable region comprises the amino acid sequence of SEQ ID NO: 64; and the light chain variable region comprises the amino acid sequence of SEQ ID NO: 108; or (b) the heavy chain variable region comprises the amino acid sequence of SEQ ID NO: 59; and the light chain variable region comprises the amino acid sequence of SEQ ID NO: 112. (a) the heavy chain variable region comprises the amino acid sequence of SEQ ID NO: 64; and the light chain variable region comprises the amino acid sequence of SEQ ID NO: 108; or (b) the heavy chain variable region comprises the amino acid sequence of SEQ ID NO: 59; and the light chain variable region comprises the amino acid sequence of SEQ ID NO: 112.
A composite material, comprising: i. a modified MCrAlY formulation, the formulation characterized by an absence of silicon and hafnium, wherein the modified MCrAlY formulation consists of M, which is selected from the group consisting of Co, Ni. Fe and combinations thereof, wherein Co is in an amount of 45 to 75 weight percent (wt%), Ni is in an amount of 0 to 12 wt% and Fe is in an amount of 0 to 12 wt%; Cr in an amount of 15 to 25 wt%; Y in an amount of 0.1 to 1.0 wt%; and Al in an amount of 5 to 10 wt%; and Nb is in an amount of 6 to 15 wt%; and ii. a ceramic material, the ceramic material incorporated into the MCrAlY formulation in an amount from 15 to 45 wt% of the composite material, wherein the ceramic material is a metal oxide. i. a modified MCrAlY formulation, the formulation characterized by an absence of silicon and hafnium, wherein the modified MCrAlY formulation consists of M, which is selected from the group consisting of Co, Ni. Fe and combinations thereof, wherein Co is in an amount of 45 to 75 weight percent (wt%), Ni is in an amount of 0 to 12 wt% and Fe is in an amount of 0 to 12 wt%; Cr in an amount of 15 to 25 wt%; Y in an amount of 0.1 to 1.0 wt%; and Al in an amount of 5 to 10 wt%; and Nb is in an amount of 6 to 15 wt%; and M, which is selected from the group consisting of Co, Ni. Fe and combinations thereof, wherein Co is in an amount of 45 to 75 weight percent (wt%), Ni is in an amount of 0 to 12 wt% and Fe is in an amount of 0 to 12 wt%; Cr in an amount of 15 to 25 wt%; Y in an amount of 0.1 to 1.0 wt%; and Al in an amount of 5 to 10 wt%; and Nb is in an amount of 6 to 15 wt%; and ii. a ceramic material, the ceramic material incorporated into the MCrAlY formulation in an amount from 15 to 45 wt% of the composite material, wherein the ceramic material is a metal oxide.
Motor holder device designed to hold an electric motor having a cooling rotor , which faces in the radial direction in relation to the motor holder device and is drivable by the electric motor , wherein the motor holder device comprises a housing wall having a circumferential pressure chamber, which is designed to radially adjoin the cooling rotor of the electric motor , wherein the pressure chamber is formed asymmetrically in an axial top view, and an intake opening and an exhaust opening are provided spaced apart from one another in the circumferential direction on the housing wall delimiting the pressure chamber.
An electronic vaporizing device chip with an air pressure sensing unit, comprising an air pressure sensing unit, a control unit, a plurality of auxiliary resistors, a capacitor, and a plurality of pins, wherein the air pressure sensing unit, the control unit, the plurality of auxiliary resistors, the capacitor, and the plurality of pins are electrically connected, characterized in that the control unit comprises a memory, a control logic module, an air pressure sensing unit driving module, a signal amplification module, an analog-to-digital conversion module, a data processing and calibration module, a communication interface module, and an enabling signal input control circuit, the air pressure sensing unit is configured to detect an air pressure generated inside the electronic vaporizing device during suction, the memory is configured to store a relevant parameter, the control logic module is configured for a logic control of an internal circuit of the control unit, the air pressure sensing unit driving module is configured to drive the air pressure sensing unit to work, the signal amplification module is configured to amplify and then transmit an air pressure analog signal detected by the air pressure sensing unit to the analog-to-digital conversion module, the analog-to-digital conversion module is configured to convert the air pressure analog signal into an air pressure digital signal, the data processing and calibration module is configured to process and calibrate the air pressure digital signal, and then convert the air pressure digital signal into an air flow quantity digital signal, the communication interface module is configured for a communication connection with an external component, and the enabling signal input control circuit is configured to receive an external enabling signal and control the communication interface module to work, and the electronic vaporizing device chip further comprises a temperature sensing unit for detecting temperature of the electronic vaporizing device chip, wherein the control unit further comprises a circuit switching module for switching the air pressure analog signal detected by the air pressure sensing unit and a temperature analog signal detected by the temperature sensing unit, and then transmitting the switched air pressure analog signal or the switched temperature analog signal to the analog-to-digital conversion module in turn, and the analog-to-digital conversion module is capable of converting the temperature analog signal into a temperature digital signal.
A method for the cooling of process gas between catalytic layers or beds in a wet gas sulfuric acid plant, in which sulfuric acid is produced from feed gases containing sulfurous components like SO 2 , H 2 S, CS 2 and COS or liquid feeds like molten sulfur or spent sulfuric acid, wherein one or more boilers are used to cool the process gas between the catalytic beds in the SO 2 converter of the plant.