mhurhangee/patent-ind-claim-en huggingface dataset:
A wound therapy device configured to provide negative pressure therapy to a wound, comprising: a housing (20; 120; 220; 420; 520; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640, 640'; 840) positioned inside of the housing; a liquid absorbing structure within the liquid-retention chamber; a vacuum connection (30, 32; 130, 132; 232; 432) for coupling to a vacuum source (134; 234; 434; 534; 634, 634'), the vacuum connection in gaseous communication with the liquid-retention chamber, a liquid barrier (36; 136; 236; 436; 636, 636') configured to prevent liquid travel from the liquid absorbing structure into the vacuum connection while allowing gas flow, characterized in that the liquid barrier is positioned inside the housing, and in that the liquid absorbing structure comprises super-absorbent polymers that form gels to assist in retaining the liquid drawn into the liquid-retention chamber. a housing (20; 120; 220; 420; 520; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640, 640'; 840) positioned inside of the housing; a liquid absorbing structure within the liquid-retention chamber; a vacuum connection (30, 32; 130, 132; 232; 432) for coupling to a vacuum source (134; 234; 434; 534; 634, 634'), the vacuum connection in gaseous communication with the liquid-retention chamber, a liquid barrier (36; 136; 236; 436; 636, 636') configured to prevent liquid travel from the liquid absorbing structure into the vacuum connection while allowing gas flow, characterized in that the liquid barrier is positioned inside the housing, and in that the liquid absorbing structure comprises super-absorbent polymers that form gels to assist in retaining the liquid drawn into the liquid-retention chamber.
A manufacturing method for a TFT device of a liquid crystal display, comprising: 1) depositing a first silicon nitride protective film on a first metal layer formed on a substrate ; 2) depositing a second metal layer and a second silicon nitride protective film on the first silicon nitride protective film in order; and 3) depositing a conductive film on the second metal layer where the second silicon nitride protective film is etched, and on a contact hole which passes through the second silicon nitride protective film and the first silicon nitride protective film , so as to connect and conduct with the first metal layer and the second metal layer , wherein the second silicon nitride protective film and the first silicon nitride protective film are etched by one patterning process to form the contact hole which exposes the first metal layer , while the second silicon nitride protective film is etched by the one patterning process to completely expose the second metal layer . 1) depositing a first silicon nitride protective film on a first metal layer formed on a substrate ; 2) depositing a second metal layer and a second silicon nitride protective film on the first silicon nitride protective film in order; and 3) depositing a conductive film on the second metal layer where the second silicon nitride protective film is etched, and on a contact hole which passes through the second silicon nitride protective film and the first silicon nitride protective film , so as to connect and conduct with the first metal layer and the second metal layer ,
A system , comprising: an interface configured to receive (i) multiple electrophysiological (EP) signals acquired by multiple electrodes (16/116) of a multi-electrode catheter (14/114) that are in contact with tissue in a region of a cardiac chamber, and (ii) respective tissue locations at which the electrodes acquired the EP signals; and a processor , which is configured to: divide the region into two sections; using the EP signals acquired by the electrodes, calculate local activation time (LAT) values for the respective tissue locations, and find a first section of the two sections having a smaller average LAT value, and a second section of the two sections having a higher average value; determine a first representative location in the first section, and a second representative location in the second section; calculate between the first and second representative locations a propagation vector indicative of propagation of an EP wave that has generated the EP signals; wherein the processor is further configured to, in case a reentering EP wave is detected, calculate an additional propagation vector for the reentering EP wave; and present the propagation vectors to a user. an interface configured to receive (i) multiple electrophysiological (EP) signals acquired by multiple electrodes (16/116) of a multi-electrode catheter (14/114) that are in contact with tissue in a region of a cardiac chamber, and (ii) respective tissue locations at which the electrodes acquired the EP signals; and a processor , which is configured to: divide the region into two sections; using the EP signals acquired by the electrodes, calculate local activation time (LAT) values for the respective tissue locations, and find a first section of the two sections having a smaller average LAT value, and a second section of the two sections having a higher average value; determine a first representative location in the first section, and a second representative location in the second section; calculate between the first and second representative locations a propagation vector indicative of propagation of an EP wave that has generated the EP signals; wherein the processor is further configured to, in case a reentering EP wave is detected, calculate an additional propagation vector for the reentering EP wave; and present the propagation vectors to a user. divide the region into two sections; using the EP signals acquired by the electrodes, calculate local activation time (LAT) values for the respective tissue locations, and find a first section of the two sections having a smaller average LAT value, and a second section of the two sections having a higher average value; determine a first representative location in the first section, and a second representative location in the second section; calculate between the first and second representative locations a propagation vector indicative of propagation of an EP wave that has generated the EP signals; wherein the processor is further configured to, in case a reentering EP wave is detected, calculate an additional propagation vector for the reentering EP wave; and present the propagation vectors to a user.
A curable composition comprising: a silicon compound comprising a hydrogen atom binding to a silicon atom; and a polymerization product comprising (i) a linear structure polyorganosiloxane comprising an aliphatic unsaturated bond, a unit of formula R 1 R 2 SiO 2/2 (Formula 2) and a unit of formula R 3 2 SiO 2/2 (Formula 3) wherein R 1 and R 2 are each independently an epoxy group or a monovalent hydrocarbon group, and R 3 is an aryl group; and (ii) a cyclic compound which comprises a compound represented by Formula 6 whose weight average molecular weight is 800 or less measured by gel permeation chromatography with respect to standard polystyrene, the cyclic compound being comprised in the polymerization product in an amount of 7 weight% or less; wherein R a and R b are each independently an epoxy group or a monovalent hydrocarbon group, R c is an aryl group, m is 0 to 10, n is 0 to 10, and the sum (m+n) of m and n is 2 to 20. a silicon compound comprising a hydrogen atom binding to a silicon atom; and a polymerization product comprising (i) a linear structure polyorganosiloxane comprising an aliphatic unsaturated bond, a unit of formula R 1 R 2 SiO 2/2 (Formula 2) and a unit of formula R 3 2 SiO 2/2 (Formula 3) wherein R 1 and R 2 are each independently an epoxy group or a monovalent hydrocarbon group, and R 3 is an aryl group; and (ii) a cyclic compound which comprises a compound represented by Formula 6 whose weight average molecular weight is 800 or less measured by gel permeation chromatography with respect to standard polystyrene, the cyclic compound being comprised in the polymerization product in an amount of 7 weight% or less; wherein R a and R b are each independently an epoxy group or a monovalent hydrocarbon group, R c is an aryl group, m is 0 to 10, n is 0 to 10, and the sum (m+n) of m and n is 2 to 20.
An arm cap friction hinge mechanism , comprising: a center link ; a first top link coupled to the center link; a top friction hinge link coupled to the center link; an upper hinge mount coupled to an arm cap of an aircraft seat, the upper hinge mount coupled to the first top link, the upper hinge mount coupled to the top friction hinge link via a first friction hinge , the arm cap being configured to actuate between a closed position and a first open position around the first friction hinge; a second top link coupled to the center link; a top pin link coupled to the center link; an upper pin mount coupled to the arm cap of the aircraft seat, the upper pin mount coupled to the second top link and the top pin link; and at least one hinge mount coupled to the aircraft seat, the center link coupled to the at least one hinge mount via at least a second friction hinge, the arm cap being configured to actuate between the first open position and a second open position about an axis through the at least a second friction hinge . a center link ; a first top link coupled to the center link; a top friction hinge link coupled to the center link; an upper hinge mount coupled to an arm cap of an aircraft seat, the upper hinge mount coupled to the first top link, the upper hinge mount coupled to the top friction hinge link via a first friction hinge , the arm cap being configured to actuate between a closed position and a first open position around the first friction hinge; a second top link coupled to the center link; a top pin link coupled to the center link; an upper pin mount coupled to the arm cap of the aircraft seat, the upper pin mount coupled to the second top link and the top pin link; and at least one hinge mount coupled to the aircraft seat, the center link coupled to the at least one hinge mount via at least a second friction hinge, the arm cap being configured to actuate between the first open position and a second open position about an axis through the at least a second friction hinge .
Method for producing a panelling component for a motor vehicle, said method comprising the steps of - press-forming a fibre-reinforced load-bearing composite component ; - separately forming a film , wherein the film has a Class A surface; - joining the load-bearing composite component as a first layer and the film as a second layer by means of an adhesive as an interposed third layer, wherein the film prior to joining already has the structure of the finished panelling component. - press-forming a fibre-reinforced load-bearing composite component ; - separately forming a film , wherein the film has a Class A surface; - joining the load-bearing composite component as a first layer and the film as a second layer by means of an adhesive as an interposed third layer, wherein the film prior to joining already has the structure of the finished panelling component.
A positive electrode comprising a positive electrode active material-containing layer , the layer contains - positive electrode active material particles, - 0.2-5 wt.-% of polymer fibers having an average fiber diameter of 1-100 nm and including cellulose fibers, the average fibre diameter being measured according to the method disclosed in the description, and - 0.5-10 wt.-% of inorganic solid particles including at least one material selected from Al 2 O 3 , TiO 2 , ZrO 2 , and a phosphate compound which is AlPO 4 , Li 3 PO 4 or a material having a NASICON structure and being expressed as Li 1+y Al x M 2-x (PO 4 ) 3 wherein M is at least one element selected from Ti, Ge, Sr, Sn, Zr and Ca for 0 ≤ x ≤ 1 and 0 ≤ y ≤ 1. - positive electrode active material particles, - 0.2-5 wt.-% of polymer fibers having an average fiber diameter of 1-100 nm and including cellulose fibers, the average fibre diameter being measured according to the method disclosed in the description, and - 0.5-10 wt.-% of inorganic solid particles including at least one material selected from Al 2 O 3 , TiO 2 , ZrO 2 , and a phosphate compound which is AlPO 4 , Li 3 PO 4 or a material having a NASICON structure and being expressed as Li 1+y Al x M 2-x (PO 4 ) 3 wherein M is at least one element selected from Ti, Ge, Sr, Sn, Zr and Ca for 0 ≤ x ≤ 1 and 0 ≤ y ≤ 1.
A squeezing threaded rod , comprising: a rod body which comprises a feeding segment , a squeezing segment connected with the feeding segment and a residue discharge segment connected with the squeezing segment ; wherein the area of the cross section of the rod body gradually increases from the feeding segment to the squeezing segment wherein threads are arranged on the feeding segment and the squeezing segment of the rod body , and the thread pitch of the threads gradually decreases from the feeding segment to the squeezing segment , characterized in that the compression ratio of the squeezing threaded rod is A, the value of which is more than or equal to 1.8 and less than or equal to 3.6, wherein the compression ratio of the screw refers to the ratio of the volume of the first thread pitch on the feeding segment to the volume of the last thread pitch on the squeezing segment, the thread pitch of the squeezing threaded rod refers to the distance between two adjacent threads along the axial direction of the rod body, and the volume of the thread pitch refers to the amount of food that can be accommodated in this distance, wherein the width of one end of the thread connected with the rod body is D1, the value of which is more than or equal to 5mm and less than or equal to 12.99mm, and wherein the width of one end of the thread away from the rod body is D2, and the value of the D2 is more than or equal to 1mm and less than or equal to 4.99mm. a rod body which comprises a feeding segment , a squeezing segment connected with the feeding segment and a residue discharge segment connected with the squeezing segment ; wherein the area of the cross section of the rod body gradually increases from the feeding segment to the squeezing segment wherein threads are arranged on the feeding segment and the squeezing segment of the rod body , and the thread pitch of the threads gradually decreases from the feeding segment to the squeezing segment , characterized in that the compression ratio of the squeezing threaded rod is A, the value of which is more than or equal to 1.8 and less than or equal to 3.6, wherein the compression ratio of the screw refers to the ratio of the volume of the first thread pitch on the feeding segment to the volume of the last thread pitch on the squeezing segment, the thread pitch of the squeezing threaded rod refers to the distance between two adjacent threads along the axial direction of the rod body, and the volume of the thread pitch refers to the amount of food that can be accommodated in this distance, wherein the width of one end of the thread connected with the rod body is D1, the value of which is more than or equal to 5mm and less than or equal to 12.99mm, and wherein the width of one end of the thread away from the rod body is D2, and the value of the D2 is more than or equal to 1mm and less than or equal to 4.99mm.
A radiating element , comprising: a first dipole radiator (320-1) that extends along a first axis (322-2), the first dipole radiator (320-1) including a first pair of dipole arms (330-1) that are configured to resonate at a first frequency and a second pair of dipole arms (330-3) that are configured to resonate at a second frequency that is different than the first frequency, wherein each dipole arm in the first pair of dipole arms (330-1) comprises a plurality of widened sections that are connected by intervening narrowed sections , wherein the first frequency and the second frequency are within a first operating frequency band of the radiating element , and wherein the first dipole radiator (320-1) is configured to transmit radio frequency, RF, signals in the first operating frequency band and to be substantially transparent to RF signals in a second operating frequency band. a first dipole radiator (320-1) that extends along a first axis (322-2), the first dipole radiator (320-1) including a first pair of dipole arms (330-1) that are configured to resonate at a first frequency and a second pair of dipole arms (330-3) that are configured to resonate at a second frequency that is different than the first frequency, wherein each dipole arm in the first pair of dipole arms (330-1) comprises a plurality of widened sections that are connected by intervening narrowed sections , wherein the first frequency and the second frequency are within a first operating frequency band of the radiating element , and wherein the first dipole radiator (320-1) is configured to transmit radio frequency, RF, signals in the first operating frequency band and to be substantially transparent to RF signals in a second operating frequency band.
Flap for a device for shutting off an air inlet of a motor vehicle front end, said flap comprising a profiled flap body that has an oblong shape, is obtained by extrusion and extends along its axis of rotation (A), said flap body comprising a front wall , which is intended to be arranged in opposition to an air flow when the flap is in a closed position, and a rear wall , which is opposite the front wall and is intended to be connected to at least one retaining device borne by the shut-off device , the rear wall comprising a groove extending concentrically to the axis of rotation (A) of the flap , the front wall and rear wall being connected edge to edge and delimiting an inner cavity , said flap also comprising an end piece at each of the ends of the flap body , said end pieces comprising an inner portion inserted into the cavity in the flap body and an outer portion that extends beyond said flap body , and at least one end piece comprises a hooking finger , said hooking finger protruding from the end piece along the axis of rotation (A) and being inserted within the groove in the rear wall , said hooking finger comprising at least one tooth that is intended to be embedded within said groove , said tooth being oriented so as to prevent the end piece from being removed from the flap body .
An exhaust treatment device for a diesel engine, the exhaust treatment device comprising: a DPF disposed on an exhaust path ; a PM deposition estimation device that estimates an amount of deposition of PM deposited on the DPF ; an electronic control device that performs regenerating treatment for the DPF , upon arrival of the amount of PM deposition on the DPF at a predetermined regeneration request value; an exhaust temperature sensor ; a differential pressure sensor ; an exhaust flow rate calculation device ; a memory device ; a timer ; and an ash deposition estimation device , wherein the memory device stores (S3) data regarding differential pressure between an exhaust inlet side and an exhaust outlet side of the DPF detected by the differential pressure sensor , and exhaust flow rate calculated by the exhaust flow rate calculation device , and the ash deposition estimation device estimates (S6) an amount of ash deposition on the DPF after ending of regenerating treatment (S5) for the DPF , characterized in that the estimate is based on the data regarding the differential pressure and the exhaust flow rate stored in the memory device over a period immediately before the end of regeneration, the period ranging from an end point of regenerating treatment for the DPF to a point in time going back a predetermined duration. a DPF disposed on an exhaust path ; a PM deposition estimation device that estimates an amount of deposition of PM deposited on the DPF ; an electronic control device that performs regenerating treatment for the DPF , upon arrival of the amount of PM deposition on the DPF at a predetermined regeneration request value; an exhaust temperature sensor ; a differential pressure sensor ; an exhaust flow rate calculation device ; a memory device ; a timer ; and an ash deposition estimation device , wherein the memory device stores (S3) data regarding differential pressure between an exhaust inlet side and an exhaust outlet side of the DPF detected by the differential pressure sensor , and exhaust flow rate calculated by the exhaust flow rate calculation device , and the ash deposition estimation device estimates (S6) an amount of ash deposition on the DPF after ending of regenerating treatment (S5) for the DPF , characterized in that the estimate is based on the data regarding the differential pressure and the exhaust flow rate stored in the memory device over a period immediately before the end of regeneration, the period ranging from an end point of regenerating treatment for the DPF to a point in time going back a predetermined duration.
Method for the computer-aided generation of a security data record for detecting manipulation, having the following method steps of: - capturing measured values relating to a device by means of security sensors of the device, wherein - the measured values are not evaluated; - cryptographically protecting the measured values by means of a symmetrical and/or asymmetrical method; - generating the security data record by means of the device, wherein the security data record comprises the measured values; - providing the security data record at a communication interface by means of the device, wherein - the security data record is transmitted to an evaluation device upon provision, - manipulation of the device can be detected by the evaluation device on the basis of the security data record, - the measured values are transmitted to the evaluation device cyclically or within a predefined interval of time, - these measured values are also transmitted if the security sensors do not capture any change in measured values. - capturing measured values relating to a device by means of security sensors of the device, wherein - the measured values are not evaluated; - the measured values are not evaluated; - cryptographically protecting the measured values by means of a symmetrical and/or asymmetrical method; - generating the security data record by means of the device, wherein the security data record comprises the measured values; - providing the security data record at a communication interface by means of the device, wherein - the security data record is transmitted to an evaluation device upon provision, - manipulation of the device can be detected by the evaluation device on the basis of the security data record, - the measured values are transmitted to the evaluation device cyclically or within a predefined interval of time, - these measured values are also transmitted if the security sensors do not capture any change in measured values. - the security data record is transmitted to an evaluation device upon provision, - manipulation of the device can be detected by the evaluation device on the basis of the security data record, - the measured values are transmitted to the evaluation device cyclically or within a predefined interval of time, - these measured values are also transmitted if the security sensors do not capture any change in measured values.