mhurhangee/patent-ind-claim-en huggingface dataset:
Sanitary valve, having a main valve which has a movable diaphragm , and a pilot valve by which the main valve is actuatable, wherein a position of the diaphragm is predefinable by a setting of a valve tappet of the pilot valve , wherein the valve tappet is connected to a push-push mechanism , wherein the valve tappet is switchable between switching positions with the push-push mechanism , wherein the push-push mechanism , by a mechanical guide, enforces an alternation between the achievable switching positions by repeated, uniform pressing of an actuation element , wherein the push-push mechanism has a movable displacement part with in each case several displacement elements that run in one of several guide tracks , and the push-push mechanism has a switching part which is arranged movably counter to a restoring force and which has at least one guide element which runs in at least one guide track and which, by way of the several movable displacement elements , is able to be transferred from one guide track to a neighbouring guide track , wherein the valve tappet , in an inner switching position of the switching positions, defines a stop for the movable diaphragm , characterized in that the valve tappet is switchable with the push-push mechanism between at least three switching positions.
A powder bed system for creating a part by a powder-based additive manufacturing process, the powder bed system comprising a substrate having a build surface for fusing to a part being formed on the substrate by the additive manufacturing process, wherein the substrate has an upper portion nearest the build surface and a lower portion , characterized in that the upper portion includes an array of protrusions with their longitudinal axis aligned substantially perpendicular to the build surface, wherein the protrusions are slender and have an aspect ratio of at least 3, and wherein the protrusions take the form of pillars having a generally planar top.
A memory device bitcell, comprising: a semiconductor substrate having a surface, wherein the semiconductor substrate comprises a fin and the surface comprises the top of the fin; a diffusion area on or in the surface of the semiconductor substrate ; first and second vertical dielectric spacers , at least one of those spacers being over and in contact with the diffusion area ; metal deposited between and in contact with the first and second vertical dielectric spacers , the metal also being at least partially in contact with the diffusion area ; a first trench-based conductive contact that is not in contact with the diffusion area but forms an antifuse element (C) in conjunction with the first vertical dielectric spacer and the metal ; and a second trench-based conductive contact that is in contact with the diffusion area and forms a selector element (D) in conjunction with the diffusion area and the metal . a semiconductor substrate having a surface, wherein the semiconductor substrate comprises a fin and the surface comprises the top of the fin; a diffusion area on or in the surface of the semiconductor substrate ; first and second vertical dielectric spacers , at least one of those spacers being over and in contact with the diffusion area ; metal deposited between and in contact with the first and second vertical dielectric spacers , the metal also being at least partially in contact with the diffusion area ; a first trench-based conductive contact that is not in contact with the diffusion area but forms an antifuse element (C) in conjunction with the first vertical dielectric spacer and the metal ; and a second trench-based conductive contact that is in contact with the diffusion area and forms a selector element (D) in conjunction with the diffusion area and the metal .
A method for controlling a defect density in a silicon single crystal substrate by performing: a preparation step of preparing a silicon single crystal substrate whose defect density is to be controlled; a particle beam irradiation step of irradiating the prepared silicon single crystal substrate with a particle beam; and a heat treatment step of performing a heat treatment on the silicon single crystal substrate after the particle beam irradiation step, the method comprising: a measurement step comprising irradiating a plurality of test silicon single crystal substrates having different nitrogen concentrations with the particle beam in advance before performing the preparation step, then carrying out a heat treatment, and measuring densities of defects produced in the plurality of test silicon single crystal substrates; and a correlation acquisition step of acquiring a correlation between the measured defect densities and the nitrogen concentrations, wherein a nitrogen concentration of the silicon single crystal substrate prepared in the preparation step is adjusted based on the acquired correlation in such a manner that the defect density in the silicon single crystal substrate reaches a target value after the heat treatment step. a preparation step of preparing a silicon single crystal substrate whose defect density is to be controlled; a particle beam irradiation step of irradiating the prepared silicon single crystal substrate with a particle beam; and a heat treatment step of performing a heat treatment on the silicon single crystal substrate after the particle beam irradiation step, the method comprising: a measurement step comprising irradiating a plurality of test silicon single crystal substrates having different nitrogen concentrations with the particle beam in advance before performing the preparation step, then carrying out a heat treatment, and measuring densities of defects produced in the plurality of test silicon single crystal substrates; and a correlation acquisition step of acquiring a correlation between the measured defect densities and the nitrogen concentrations, wherein a nitrogen concentration of the silicon single crystal substrate prepared in the preparation step is adjusted based on the acquired correlation in such a manner that the defect density in the silicon single crystal substrate reaches a target value after the heat treatment step. a measurement step comprising irradiating a plurality of test silicon single crystal substrates having different nitrogen concentrations with the particle beam in advance before performing the preparation step, then carrying out a heat treatment, and measuring densities of defects produced in the plurality of test silicon single crystal substrates; and a correlation acquisition step of acquiring a correlation between the measured defect densities and the nitrogen concentrations, wherein a nitrogen concentration of the silicon single crystal substrate prepared in the preparation step is adjusted based on the acquired correlation in such a manner that the defect density in the silicon single crystal substrate reaches a target value after the heat treatment step.
A stick vacuum cleaner comprising; a body , a brush head having a bracket , a pipe extending between and rotatably connecting the body to the brush head via the bracket , at least a camera and a light source placed on to the brush head so as to capture the image of the area to be swept, a display placed on to the body to display the image captured by the camera , characterized in that an angular position sensor is placed on to the bracket to measure the angle (A) between the pipe and the brush head , a dc motor , placed on to the body to rotatably mobilize the display upon activation to form an angle (B) between the body and the display , a control unit to activate the dc motor if the angle (A) between the pipe and the brush head falls below a value predetermined by the manufacturer.
A needle-based medical device comprising: a needle having a proximal end and a distal end ; a tube having a first lumen ; a needle guide having a cylindrical body including an outer surface , dimensioned to be inserted at least partially into the first lumen , and a glue well for receiving glue to secure the needle guide to the tube , the needle guide including a second lumen into which the proximal end of the needle is inserted; and glue to secure the needle guide to the tube , said device being characterized in that the needle guide includes at least one rib extending distally from the body and a flange coupled to the at least one rib at a distal end of the needle guide , the flange is positioned to engage with an outer wall of the tube when the body is inserted into the first lumen , the flange acts as a mechanical stop, limiting the depth to which the body of the needle guide can be inserted into the first lumen , and a hermetic seal is provided between the needle guide and the tube . a needle having a proximal end and a distal end ; a tube having a first lumen ; a needle guide having a cylindrical body including an outer surface , dimensioned to be inserted at least partially into the first lumen , and a glue well for receiving glue to secure the needle guide to the tube , the needle guide including a second lumen into which the proximal end of the needle is inserted; and glue to secure the needle guide to the tube , said device being characterized in that the needle guide includes at least one rib extending distally from the body and a flange coupled to the at least one rib at a distal end of the needle guide , the flange is positioned to engage with an outer wall of the tube when the body is inserted into the first lumen , the flange acts as a mechanical stop, limiting the depth to which the body of the needle guide can be inserted into the first lumen , and a hermetic seal is provided between the needle guide and the tube .
A seat assembly for use in an automotive vehicle, the seat assembly comprising: a seat cushion for supporting an occupant in the automotive vehicle and a seat back pivotally coupled to the seat cushion ; a seat base adapted for mounting the seat assembly within the automotive vehicle; at least one link (22; 44A, 44B, 44C) pivotally coupled between the seat cushion and the seat base , wherein pivoting of the at least one link (22; 44A, 44B, 44C) moves the seat assembly between at least a design position and a pitch position; a detent assembly rotatably coupled to the seat base , the detent assembly actuatable between a use condition for operatively coupling the at least one link (22; 44A, 44B, 44C) and the detent assembly , and an override condition for decoupling the at least one link (22; 44A, 44B, 44C) and the detent assembly ; and a linkage motor operatively engaged with the detent assembly for pivoting the at least one link (22; 44A, 44B, 44C) to move the seat assembly between the design position and the pitch position, wherein actuating the detent assembly from the use condition to the override condition allows for manual pivoting of the at least one link (22; 44A, 44B, 44C) to move the seat assembly between the design position and the pitch position independently of the detent assembly and without use of the linkage motor . a seat cushion for supporting an occupant in the automotive vehicle and a seat back pivotally coupled to the seat cushion ; a seat base adapted for mounting the seat assembly within the automotive vehicle; at least one link (22; 44A, 44B, 44C) pivotally coupled between the seat cushion and the seat base , wherein pivoting of the at least one link (22; 44A, 44B, 44C) moves the seat assembly between at least a design position and a pitch position; a detent assembly rotatably coupled to the seat base , the detent assembly actuatable between a use condition for operatively coupling the at least one link (22; 44A, 44B, 44C) and the detent assembly , and an override condition for decoupling the at least one link (22; 44A, 44B, 44C) and the detent assembly ; and a linkage motor operatively engaged with the detent assembly for pivoting the at least one link (22; 44A, 44B, 44C) to move the seat assembly between the design position and the pitch position, wherein actuating the detent assembly from the use condition to the override condition allows for manual pivoting of the at least one link (22; 44A, 44B, 44C) to move the seat assembly between the design position and the pitch position independently of the detent assembly and without use of the linkage motor .
An indwelling device for embolization comprising a coil portion having a proximal side and a distal side and having a lumen extending in a longitudinal direction, and a stretch-resistant member disposed in the lumen, wherein the stretch-resistant member has a waveform, and a wave height , which is a distance between peaks on an inner side of the waveform of the stretch-resistant member, is 35 μm or larger and smaller than an inner diameter of the coil portion, characterised in that a spring constant of the coil portion is 1.0 N/mm or less. the stretch-resistant member has a waveform, and a wave height , which is a distance between peaks on an inner side of the waveform of the stretch-resistant member, is 35 μm or larger and smaller than an inner diameter of the coil portion, characterised in that a spring constant of the coil portion is 1.0 N/mm or less.
Method for mould production, comprising: - preparing a core made of polystyrene; - shaping said core , thereby obtaining a shaped core ; - executing a first thermoforming operation to coat said shaped core with a first thermoformable thermoplastic material , thereby obtaining a coated structure ; characterized in that it further comprises: - executing an additional thermoforming operation to coat said coated structure with an additional thermoformable thermoplastic material , thereby obtaining a shaped structure formed by said additional thermoformable thermoplastic material ; - executing a step of separating said coated structure from said shaped structure ; wherein said shaped structure forms a mould. - preparing a core made of polystyrene; - shaping said core , thereby obtaining a shaped core ; - executing a first thermoforming operation to coat said shaped core with a first thermoformable thermoplastic material , thereby obtaining a coated structure ; - executing an additional thermoforming operation to coat said coated structure with an additional thermoformable thermoplastic material , thereby obtaining a shaped structure formed by said additional thermoformable thermoplastic material ; - executing a step of separating said coated structure from said shaped structure ;
A cyanoacrylate composition comprising: (a) a cyanoacrylate component; (b) a toughening agent comprising an ethylene-vinyl acetate copolymer comprising 30 wt% vinyl acetate to 95 wt% vinyl acetate based on the total weight of the copolymer; (c) a component having at least two (meth)acrylate functional groups having the formula: wherein R 1 and R 2 are the same or different and are selected from the group consisting of H or Me; and wherein X is a C 4 to C 30 alkyl chain and wherein said chain is optionally substituted with one or more acrylate and/or methacrylate functional groups, and/or one or more C 1 -C 10 alkyl groups; (d) a benzonitrile component; and (e) an anhydride component. (a) a cyanoacrylate component; (b) a toughening agent comprising an ethylene-vinyl acetate copolymer comprising 30 wt% vinyl acetate to 95 wt% vinyl acetate based on the total weight of the copolymer; (c) a component having at least two (meth)acrylate functional groups having the formula: wherein R 1 and R 2 are the same or different and are selected from the group consisting of H or Me; and wherein X is a C 4 to C 30 alkyl chain and wherein said chain is optionally substituted with one or more acrylate and/or methacrylate functional groups, and/or one or more C 1 -C 10 alkyl groups; (d) a benzonitrile component; and (e) an anhydride component.
A method for time-of-flight, ToF, positioning in a wireless network compliant with the IEEE 802.11 standards performed by an initiating station , the method comprising: transmitting a message M1 carrying a high-throughput control, HTC, field, the HTC field including a reverse direction grant, RDG, indication, the RDG indication granting permission to a responding station to send information back to the initiating station , the message M1 being a timing measurement action frame; receiving an acknowledgement, ACK, frame to acknowledge receipt of the message M1 , the ACK frame carrying an HTC field that includes an indication to indicate whether a separate frame is to follow the ACK frame ; and receiving a message M2 from the responding station , the message M2 including timing measurement information from at least at one of a current and a previous ToF message exchange; characterized in that when the message M2 is an Action No ACK management frame, the method includes refraining, by the initiating station, from sending an ACK frame to acknowledge the message M2, and the message M2 is arranged to include the timing measurement information from both a current ToF message exchange and a previous ToF message exchange. transmitting a message M1 carrying a high-throughput control, HTC, field, the HTC field including a reverse direction grant, RDG, indication, the RDG indication granting permission to a responding station to send information back to the initiating station , the message M1 being a timing measurement action frame; receiving an acknowledgement, ACK, frame to acknowledge receipt of the message M1 , the ACK frame carrying an HTC field that includes an indication to indicate whether a separate frame is to follow the ACK frame ; and receiving a message M2 from the responding station , the message M2 including timing measurement information from at least at one of a current and a previous ToF message exchange; characterized in that when the message M2 is an Action No ACK management frame, the method includes refraining, by the initiating station, from sending an ACK frame to acknowledge the message M2, and the message M2 is arranged to include the timing measurement information from both a current ToF message exchange and a previous ToF message exchange.
A biocompatible device comprising a body structure and a wound-healing-enhancing agent in a wound-healing-enhancing effective amount, the biocompatible device further comprising a coating, wherein the wound-healing enhancing agent is included in the coating, the coating comprising microparticles and/or nanoparticles, wherein the wound-healing-enhancing agent is encapsulated into the microparticles and/or nanoparticles; wherein the microparticles and/or nanoparticles are admixed with or encapsulated within a polymeric material matrix; wherein the wound-healing-enhancing agent is fibromodulin (FMOD), an FMOD polypeptide, or an FMOD peptide; wherein the FMOD, FMOD polypeptide, or FMOD peptide is modified by fusion to a polypeptide sequence or by attachment to a polymer; and wherein the biocompatible device is a medical implant or cosmetic implant. the biocompatible device further comprising a coating, wherein the wound-healing enhancing agent is included in the coating, the coating comprising microparticles and/or nanoparticles, wherein the wound-healing-enhancing agent is encapsulated into the microparticles and/or nanoparticles; wherein the microparticles and/or nanoparticles are admixed with or encapsulated within a polymeric material matrix; wherein the wound-healing-enhancing agent is fibromodulin (FMOD), an FMOD polypeptide, or an FMOD peptide; wherein the FMOD, FMOD polypeptide, or FMOD peptide is modified by fusion to a polypeptide sequence or by attachment to a polymer; and wherein the biocompatible device is a medical implant or cosmetic implant.
A combination of a protective tarpaulin for covering a heavy truck body with one or more tubular elements the tarpaulin having elements for coupling or containing one or more of the said tubular elements; the said tubular elements being inflatable, to a working shape from an initial rest shape in which the element is deflated or partially deflated, characterized in that the tubular element is of modular type and has anchor points for tubular elements of the same type, such that it may form a multiplicity of support structures for said protective tarpaulin, which may thus be laid in different manners, when such tubular element/s are coupled to said tarpaulin and in that each tubular element has an annular appendix at one end , which is designed to be coupled to corresponding hooks or eyelets of tubular elements of the same type, to form T-shaped structures; the at least one tubular element extends along a straight axis, and has at least one transverse tape with an eyelet for engagement with corresponding eyelets or hooks associated with further tubular elements or with the tarpaulin with which the element is designed to be coupled when it is installed.
A rolling process for long solid-section products, comprising rolling through at least one pair of rolling mill stands , wherein rolled stock is subjected to a tensile load, between the two stands , which generates a single-axial deformation ε greater than 0.1 in the rolling direction, and is deformed by compression between the rolls of at least one rolling mill stand in the said pair, thereby achieving a reduction in the area of the cross section of at least 5%.
A water-soluble coloring composition comprising - at least one alcohol alkoxylate of the formula (I) R - O - (C z H 2z O) x - H (I) - wherein R is a linear or branched alkyl having a total number of carbon atoms from 20 to 30; - z has a value of 2 or 3; and - x has a value of from 40 to 160; - at least one filler; and - at least one coloring substance. - at least one alcohol alkoxylate of the formula (I) R - O - (C z H 2z O) x - H (I) - wherein R is a linear or branched alkyl having a total number of carbon atoms from 20 to 30; - z has a value of 2 or 3; and - x has a value of from 40 to 160; - wherein R is a linear or branched alkyl having a total number of carbon atoms from 20 to 30; - z has a value of 2 or 3; and - x has a value of from 40 to 160; - at least one filler; and - at least one coloring substance.
A combined fire suppression and detection system comprising: a fire panel having a loop driver; a combined detection and suppression loop connected to the loop driver of the fire panel; a plurality of fire detection devices that are coupled to the detection and suppression loop ; and a plurality of fire suppression devices that are coupled to the detection and suppression loop ; wherein the fire suppression devices comprise multiple sprinkler devices, each of the sprinkler devices comprising a sprinkler bulb and a circuit ; and wherein the circuit of each sprinkler device is detectable via the fire panel using the detection and suppression loop in order to provide information from the sprinkler devices to the fire panel . a fire panel having a loop driver; a combined detection and suppression loop connected to the loop driver of the fire panel; a plurality of fire detection devices that are coupled to the detection and suppression loop ; and a plurality of fire suppression devices that are coupled to the detection and suppression loop ; wherein the fire suppression devices comprise multiple sprinkler devices, each of the sprinkler devices comprising a sprinkler bulb and a circuit ; and wherein the circuit of each sprinkler device is detectable via the fire panel using the detection and suppression loop in order to provide information from the sprinkler devices to the fire panel .