mhurhangee/patent-ind-claim-en huggingface dataset:
A ventilation device for a motor vehicle, the ventilation device comprising: - a frame defining an opening for an air flow (F) having an intensity and a direction relative to the frame , - at least one flap mounted rotating relative to the frame about a pivot axis (L1) between an open position, suitable for allowing the air flow (F) to pass, and a closed position, suitable for reducing the intensity of the air flow (F) or changing its direction, the flap extending along the pivot axis (L1) and having a first end and a second end that are opposite one another along the pivot axis (L1), - each of the first end and the second end being mounted rotating on the frame about the pivot axis (L1), and - an intermediate support located between the first end and the second end along the pivot axis (L1), the flap being mounted rotating on the intermediate support relative to the frame about the pivot axis (L1), the intermediate support being attached on the frame , the flap comprising a body extending from the first end to the second end along the pivot axis (L1), characterized in that the flap further comprises a fastening portion secured to the body and forming a third pin and a third housing , the intermediate support forming the other of a third pin and a third housing , the third pin being located in the third housing to form a third pivot about the pivot axis (L1) between the flap and the intermediate support , the third pin and the third housing being configured to nest one in the other along the pivot axis (L1) during a step for assembling the flap on the intermediate support . - a frame defining an opening for an air flow (F) having an intensity and a direction relative to the frame , - at least one flap mounted rotating relative to the frame about a pivot axis (L1) between an open position, suitable for allowing the air flow (F) to pass, and a closed position, suitable for reducing the intensity of the air flow (F) or changing its direction, the flap extending along the pivot axis (L1) and having a first end and a second end that are opposite one another along the pivot axis (L1), - each of the first end and the second end being mounted rotating on the frame about the pivot axis (L1), and - an intermediate support located between the first end and the second end along the pivot axis (L1), the flap being mounted rotating on the intermediate support relative to the frame about the pivot axis (L1), the intermediate support being attached on the frame ,
A method for detecting an obstacle by means of reflected ultrasonic waves, particularly as a park assistance for vehicles, comprising: - transmitting an ultrasonic burst transmission signal by means of an ultrasonic transmitter to a detection area to be observed; - receiving an ultrasonic signal reflected by an obstacle in the detection area by means of an ultrasonic receiver as an ultrasonic reception signal; - detecting at least one echo in the ultrasonic reception signal resulting from an obstacle; - transforming the echo section of the ultrasonic reception signal belonging to the echo from the time domain into the frequency domain; - examining the frequency spectrum of the echo section for the presence of at least one of a plurality of predetermined spectral characteristics, wherein each spectral characteristic is representative of a predetermined obstacle type and possibly of at least one of a plurality of predetermined obstacle types; and - allocating the echo section to a predetermined obstacle type. - transmitting an ultrasonic burst transmission signal by means of an ultrasonic transmitter to a detection area to be observed; - receiving an ultrasonic signal reflected by an obstacle in the detection area by means of an ultrasonic receiver as an ultrasonic reception signal; - detecting at least one echo in the ultrasonic reception signal resulting from an obstacle; - transforming the echo section of the ultrasonic reception signal belonging to the echo from the time domain into the frequency domain; - examining the frequency spectrum of the echo section for the presence of at least one of a plurality of predetermined spectral characteristics, wherein each spectral characteristic is representative of a predetermined obstacle type and possibly of at least one of a plurality of predetermined obstacle types; and - allocating the echo section to a predetermined obstacle type.
A multi-stage pump comprising: a pump having different stages configured to pump a fluid from a pump suction (PS) and to a pump discharge (PD); the different stages comprises: a first stage configured with an area/location of lower pressure, and a second stage configured with a corresponding area/location of high pressure; and a center bushing (CB) configured between the first stage and the second stage, having a center bushing side (CBS1-CBS4) with a high pressure side configured with pockets (PKT, CRP, ECP, FLRP) facing the corresponding area/location of higher pressure to balance axial forces between the different stages of the multistage pump. a pump having different stages configured to pump a fluid from a pump suction (PS) and to a pump discharge (PD); the different stages comprises: a first stage configured with an area/location of lower pressure, and a second stage configured with a corresponding area/location of high pressure; and a first stage configured with an area/location of lower pressure, and a second stage configured with a corresponding area/location of high pressure; and a center bushing (CB) configured between the first stage and the second stage, having a center bushing side (CBS1-CBS4) with a high pressure side configured with pockets (PKT, CRP, ECP, FLRP) facing the corresponding area/location of higher pressure to balance axial forces between the different stages of the multistage pump.
Method for constructing a trafficway tunnel, a conduit shaft or a pressurized-water shaft in tubbing construction mode, wherein tubbing components are assembled in a machine-generated bore in the rock, to form a continuous lining in the form of a tubbing tube, and the annular gap between the bore and the outer wall of the tubbing tube is filled by a polymerization-curing reactive resin and filler, characterized in that the filler is a cement-containing composition and in that the filler, before or while it is conveyed into the annular gap, is supplied with the polymerization-curing reactive resin, which is mixed with the filler and is dispersed therein. tubbing components are assembled in a machine-generated bore in the rock, to form a continuous lining in the form of a tubbing tube, and the annular gap between the bore and the outer wall of the tubbing tube is filled by a polymerization-curing reactive resin and filler, characterized in that the filler is a cement-containing composition and in that the filler, before or while it is conveyed into the annular gap, is supplied with the polymerization-curing reactive resin, which is mixed with the filler and is dispersed therein.
A method of manufacturing an antimicrobial wet-spun fibrous silver wound dressing comprising: a) Dissolving silver nitrate in water; b) Adding sodium chloride or sodium hypochlorite to the silver nitrate solution produced in step a); c) Adding a polymer of required weight into the silver solution produced in step b) to make a silver containing polymer solution, the weight of silver ions to the dry weight of the polymer is 0.01-10% by weight; d) Extruding the silver containing polymer solution into silver antimicrobial fibers through a wet spinning process; e) Converting the silver fibers into fabrics through needle punching non-woven process, chemical bonding non-woven process, a weaving process or a knitting process; f) Cutting, packing and sterilizing the dressing. a) Dissolving silver nitrate in water; b) Adding sodium chloride or sodium hypochlorite to the silver nitrate solution produced in step a); c) Adding a polymer of required weight into the silver solution produced in step b) to make a silver containing polymer solution, the weight of silver ions to the dry weight of the polymer is 0.01-10% by weight; d) Extruding the silver containing polymer solution into silver antimicrobial fibers through a wet spinning process; e) Converting the silver fibers into fabrics through needle punching non-woven process, chemical bonding non-woven process, a weaving process or a knitting process; f) Cutting, packing and sterilizing the dressing.
A bulletproof vest designed to cover at least partially the front part, or chest, and the rear part, or back, of the torso of a wearer, the bulletproof vest being made up of a single garment without anchoring systems on the shoulders and/or on the waist of the wearer and comprising: - at least one outer layer , manufactured with a first elastic knitted fabric; and - at least one inner layer , manufactured with a second elastic knitted fabric and designed to come into contact with the wearer' skin, wherein between at least two portions of said second elastic knitted fabric of said inner layer at least one pocket is obtained which is provided with fastening means and designed to contain at least one corresponding ballistic package , wherein said outer layer and said inner layer are mutually connected by gluing along one or more shaped gluing surfaces , interposed between said outer layer and said inner layer , the bulletproof vest being characterized in that between said outer layer and said inner layer at least one reinforcing rib manufactured with a third fabric is further interposed, said reinforcing rib being designed to surround at least partially and to support said ballistic package inside the respective pocket . - at least one outer layer , manufactured with a first elastic knitted fabric; and - at least one inner layer , manufactured with a second elastic knitted fabric and designed to come into contact with the wearer' skin,
A combination of an Axl inhibitor and a BCL-2 family protein inhibitor for use in a method for treating blood cancer, wherein the method comprises administering the Ax1 inhibitor concomitantly with the BCL-2 family protein inhibitor, wherein the Axl inhibitor is 3-(5-(cyclopropylmethyl)-1,3,4-oxadiazol-2-yl)-5-(1-(piperidin-4-yl)-1H-pyrazol-4-yl)pyridin-2-amine, and the BCL-2 family protein inhibitor is a compound of Formula (IIa) or (IIb): wherein. X 1 is H, F, Cl, Br, or I; X 2 and X 3 are independently hydrogen or alkyl; and X 4 is -O-,- C(R 9 ) 2 -, or -CH 2 CH 2 -; Y 1 is -CN, -NO 2 , -SO 2 C(X 5 ) 3 , -CF 3 , F, Cl, or Br; wherein each X 5 is, at each occurrence, independently, H, F or Cl; R 6 is optionally substituted heterocyclylalkyl, optionally substituted cycloalkylalkyl or optionally substituted heteroalkyl; R 8 is optionally substituted heteroaryl or optionally substituted aryl; Z is -O-, -S- or -NH; Z 1 is azepan-1-yl, morpholin-1-yl, 1,4-oxazepan-4-yl, pyrrolidin-1-yl, -N(CH 3 ) 2 , -N(CH 3 )(CH(CH 3 ) 2 ), 7-azabicyclo[2.2.1]heptan-1-yl or 2-oxa-5-azabicyclo[2.2.1]hept-5-yl; and R 9 is hydrogen or alkyl. the BCL-2 family protein inhibitor is a compound of Formula (IIa) or (IIb): wherein. X 1 is H, F, Cl, Br, or I; X 2 and X 3 are independently hydrogen or alkyl; and X 4 is -O-,- C(R 9 ) 2 -, or -CH 2 CH 2 -; Y 1 is -CN, -NO 2 , -SO 2 C(X 5 ) 3 , -CF 3 , F, Cl, or Br; wherein each X 5 is, at each occurrence, independently, H, F or Cl; R 6 is optionally substituted heterocyclylalkyl, optionally substituted cycloalkylalkyl or optionally substituted heteroalkyl; R 8 is optionally substituted heteroaryl or optionally substituted aryl; Z is -O-, -S- or -NH; Z 1 is azepan-1-yl, morpholin-1-yl, 1,4-oxazepan-4-yl, pyrrolidin-1-yl, -N(CH 3 ) 2 , -N(CH 3 )(CH(CH 3 ) 2 ), 7-azabicyclo[2.2.1]heptan-1-yl or 2-oxa-5-azabicyclo[2.2.1]hept-5-yl; and R 9 is hydrogen or alkyl.
Component for holding a housing of a magnetic reading head of a magnetic card reader, said holding component comprising: - a perforated plane surface appreciably of the same length and same width as the rear face of the housing of the reading head, - two surfaces perpendicular to said perforated plane surface that form two mutually parallel lateral uprights intended to grip the housing of the magnetic reading head, and at least one affixation point, and - at least one affixation point , characterized in that said perforated plane surface is to be disposed so as to be facing the rear face of the housing of the reading head. - a perforated plane surface appreciably of the same length and same width as the rear face of the housing of the reading head, - two surfaces perpendicular to said perforated plane surface that form two mutually parallel lateral uprights intended to grip the housing of the magnetic reading head, and at least one affixation point, and - at least one affixation point ,
Battery cell connector with - at least two terminal clamps , each with a receiving area and a connection area , and - at least one flat part , wherein - the receiving area of at least one of the terminal clamps is arranged to clampingly receive the flat part , and the connection area of at least one of the terminal clamps is arranged to connect to be materially bonded to one pole of a battery cell, characterized in that , - the terminal clamp is bimetallic, wherein the connection area is formed at least partially from a first metal material and the receiving area is formed at least partially from a second metal material different from the first metal material. - at least two terminal clamps , each with a receiving area and a connection area , and - at least one flat part , wherein - the receiving area of at least one of the terminal clamps is arranged to clampingly receive the flat part , and the connection area of at least one of the terminal clamps is arranged to connect to be materially bonded to one pole of a battery cell, characterized in that , - the terminal clamp is bimetallic, wherein the connection area is formed at least partially from a first metal material and the receiving area is formed at least partially from a second metal material different from the first metal material.
Device for measuring fluidity of molten metal , wherein said device comprises a runway for molten metal , and an upper side of the device comprises an inlet hole for filling molten metal into the runway, characterized in that the runway comprises refractory fibre.
A polymeric matrix for oral administration with modified release, comprising coated particles of active substance in the form of powder, the particles being directly covered with a release regulating membrane as the coating, wherein inert cores or supports in the particles are eliminated, the particles each have a core composed of only the active substance and omitting all inert substances, the coated particles have a size, together with the coating thereon, between about 790 microns and about 425 microns, the active substance is thioctic acid, and the release regulating membrane comprises ethylcellulose with talc and/or maize starch, wherein weight ratio of active core to coating in each granule is from about 6:1 to about 1:1.
A method comprising: receiving (S210) one or more data frames at a Time Sensitive Network, TSN, module ; determining (S216) a classification for each data frame via the TSN module ; generating (S218) a schedule for the one or more data frames to transmit the data frame through a communication network based on the classification; and transmitting (S222) the one or more data frames based on the schedule ; characterized by controlling (S224) one or more operations of an installed product based on the transmitted one or more data frames , , wherein the communication network is a deterministic Ethernet network configured as a time sensitive network, TSN, and wherein the TSN module inserts classification data into a reserved field of an Ethernet header to indicate whether the one or more data frames is unscheduled or scheduled, and if the one or more data frames is scheduled, the field includes an indication of which queue to send the one or more data frames to. receiving (S210) one or more data frames at a Time Sensitive Network, TSN, module ; determining (S216) a classification for each data frame via the TSN module ; generating (S218) a schedule for the one or more data frames to transmit the data frame through a communication network based on the classification; and transmitting (S222) the one or more data frames based on the schedule ; characterized by controlling (S224) one or more operations of an installed product based on the transmitted one or more data frames , , wherein the communication network is a deterministic Ethernet network configured as a time sensitive network, TSN, and wherein the TSN module inserts classification data into a reserved field of an Ethernet header to indicate whether the one or more data frames is unscheduled or scheduled, and if the one or more data frames is scheduled, the field includes an indication of which queue to send the one or more data frames to.
A route priority configuration method, wherein the method is applied to a network system, the network system comprises a controller and at least two devices , the at least two devices are deployed with distributed gateways, the distributed gateways on the at least two devices have a same IP address, and the method comprises: receiving, by the controller , an interface creation request for creating a layer 3 interface on a target device sent by the target device , wherein the interface creation request carries the IP address and a subnet mask configured for the layer 3 interface, and the target device is any one of the at least two devices ; generating, by the controller , a direct route of the layer 3 interface based on the interface creation request; allocating, by the controller , a route priority to the direct route according to a preset allocation rule; and sending, by the controller , the direct route and the route priority corresponding to the direct route to the target device , wherein the preset allocation rule indicates that a route priority corresponding to a direct route that is based on the IP address and that is of any one of the at least two devices is different from a route priority corresponding to a direct route that is based on the IP address and that is of another device in the at least two devices , and wherein the controller uniquely identifies the target device by a media access control, MAC, address of the target device. receiving, by the controller , an interface creation request for creating a layer 3 interface on a target device sent by the target device , wherein the interface creation request carries the IP address and a subnet mask configured for the layer 3 interface, and the target device is any one of the at least two devices ; generating, by the controller , a direct route of the layer 3 interface based on the interface creation request; allocating, by the controller , a route priority to the direct route according to a preset allocation rule; and sending, by the controller , the direct route and the route priority corresponding to the direct route to the target device , wherein the preset allocation rule indicates that a route priority corresponding to a direct route that is based on the IP address and that is of any one of the at least two devices is different from a route priority corresponding to a direct route that is based on the IP address and that is of another device in the at least two devices , and wherein the controller uniquely identifies the target device by a media access control, MAC, address of the target device.
An apparatus for implementing clock holdover in a communication system, the apparatus configured to receive a first input clock signal from an external source clock, to receive a second input clock signal from a local oscillator and to output an output clock signal, the apparatus comprising: a first phase-locked circuit for taking the first input clock signal and a first output clock signal as input, and outputting an intermediate clock signal, wherein the first phase-locked circuit includes a first digital oscillator , and the first digital oscillator is configured to take the first output clock signal as a working clock to generate the intermediate clock signal; and a second phase-locked circuit for taking the intermediate clock signal and the second input clock signal as input, and outputting a second output clock signal; wherein the first output clock signal is output by the second phase-locked circuit and fed back to the first phase-locked circuit . a first phase-locked circuit for taking the first input clock signal and a first output clock signal as input, and outputting an intermediate clock signal, wherein the first phase-locked circuit includes a first digital oscillator , and the first digital oscillator is configured to take the first output clock signal as a working clock to generate the intermediate clock signal; and a second phase-locked circuit for taking the intermediate clock signal and the second input clock signal as input, and outputting a second output clock signal; wherein the first output clock signal is output by the second phase-locked circuit and fed back to the first phase-locked circuit .
A luminaire module comprising: a plurality of light-emitting elements (LEEs) arranged to emit light in a forward direction; a light guide comprising a pair of opposing side surfaces extending from a receiving end of the light guide to an opposing end of the light guide, the light guide configured to guide light received at the receiving end from the LEEs in the forward direction to the opposing end, wherein the light guide is elongated along a transverse direction orthogonal to the forward direction; and an optical extractor (140; 240; 340) elongated along the transverse direction and located at the opposing end of the light guide to receive the guided light, the optical extractor comprising a redirecting surface (143; 243; 343) and an output surface (144; 244; 344), wherein the received light undergoes two reflections off the redirecting surface prior to being output through the output surface in an ambient environment as output light in a backward angular range, wherein all output light of the luminaire module is output in a backward direction, wherein the optical extractor is formed from a first solid material, wherein the output surface is convex, and characterized in that the redirecting surface of the optical extractor comprises a first reflective surface (146; 246; 346) where the light received by the optical extractor undergoes a first of the two reflections and a second reflective surface (148; 248; 348) where the light that underwent the first of the two reflections undergoes a second of the two reflections. a plurality of light-emitting elements (LEEs) arranged to emit light in a forward direction; a light guide comprising a pair of opposing side surfaces extending from a receiving end of the light guide to an opposing end of the light guide, the light guide configured to guide light received at the receiving end from the LEEs in the forward direction to the opposing end, wherein the light guide is elongated along a transverse direction orthogonal to the forward direction; and an optical extractor (140; 240; 340) elongated along the transverse direction and located at the opposing end of the light guide to receive the guided light, the optical extractor comprising a redirecting surface (143; 243; 343) and an output surface (144; 244; 344), wherein the received light undergoes two reflections off the redirecting surface prior to being output through the output surface in an ambient environment as output light in a backward angular range, wherein all output light of the luminaire module is output in a backward direction, wherein the optical extractor is formed from a first solid material, wherein the output surface is convex, and characterized in that the redirecting surface of the optical extractor comprises a first reflective surface (146; 246; 346) where the light received by the optical extractor undergoes a first of the two reflections and a second reflective surface (148; 248; 348) where the light that underwent the first of the two reflections undergoes a second of the two reflections.