mhurhangee/ep-ind-claims huggingface dataset:
An ECG adapter system (100, 300) for coupling an ECG lead set (120, 130) with an incompatible ECG monitor, the ECG adapter system (100, 300) comprising: at least one ECG adapter (110, 210a-c, 310) including an adapter body and first and second remote ECG adapter bodies (211a-b) connected to the adapter body through respective cables (215a-b) or other suitable means of forming an electrical and/or mechanical connection, each of the first and second remote ECG adapter bodies having a specific ECG monitor connector plug (213d, 213e) adapted for coupling to a specific input connector receptacle (224d, 224e) of the ECG monitor and at least one standard lead set receptacle (112a-b, 212a-b, 312a) different from the at least one specific ECG monitor connector plug and being adapted for coupling to a standard connector plug (121, 131) of an ECG lead set (120, 130) incompatible with the specific input connector receptacle of the ECG monitor, wherein the specific ECG monitor connector plug of the first remote ECG adapter body being different than the specific ECG monitor connector plug of the second remote ECG adapter body, and wherein the specific ECG monitor connector plugs of the first and second remote ECG adapter bodies are configured to couple to different specific input connector receptacles (224d-e) of the ECG monitor. at least one ECG adapter (110, 210a-c, 310) including an adapter body and first and second remote ECG adapter bodies (211a-b) connected to the adapter body through respective cables (215a-b) or other suitable means of forming an electrical and/or mechanical connection, each of the first and second remote ECG adapter bodies having a specific ECG monitor connector plug (213d, 213e) adapted for coupling to a specific input connector receptacle (224d, 224e) of the ECG monitor and at least one standard lead set receptacle (112a-b, 212a-b, 312a) different from the at least one specific ECG monitor connector plug and being adapted for coupling to a standard connector plug (121, 131) of an ECG lead set (120, 130) incompatible with the specific input connector receptacle of the ECG monitor, wherein the specific ECG monitor connector plug of the first remote ECG adapter body being different than the specific ECG monitor connector plug of the second remote ECG adapter body, and wherein the specific ECG monitor connector plugs of the first and second remote ECG adapter bodies are configured to couple to different specific input connector receptacles (224d-e) of the ECG monitor.
A motor vehicle body having at least one suspension strut mounting which, as a cast component, consists of a light metal, wherein the suspension strut mounting is connected to at least one other structural component (1, 3) of the motor vehicle body, which structural component consists of an iron material, characterised in that apart from the suspension strut mountings, all the structural components of a front end of the motor vehicle body consist of an iron material.
Method for protecting against an overspeed of an electric machine in a hybrid motor vehicle drivetrain having at least one axle able to be driven at least partially by the electric machine and an internal combustion engine, comprising the following steps: - estimating a motor vehicle weight during a start-up procedure, - continually calculating a dynamic axle load of the driven axle, a driving wheel torque and a required friction coefficient, - detecting wheel slip by way of detecting microslip between a driving and a non-driven axle, - estimating a current roadway friction coefficient μ roadway based on the driving wheel torque calculated during the wheel slip and the dynamic axle load of the driven axle calculated during the wheel slip, - keeping the estimated roadway friction coefficient μ roadway until the wheel slip is no longer detected and at the same time - ascertaining a maximum speed n max of the electric machine at which this is actively decoupled from the drivetrain in terms of drive, based on the ascertained roadway friction coefficient μ roadway and the current load of the internal combustion engine. - estimating a motor vehicle weight during a start-up procedure, - continually calculating a dynamic axle load of the driven axle, a driving wheel torque and a required friction coefficient, - detecting wheel slip by way of detecting microslip between a driving and a non-driven axle, - estimating a current roadway friction coefficient μ roadway based on the driving wheel torque calculated during the wheel slip and the dynamic axle load of the driven axle calculated during the wheel slip, - keeping the estimated roadway friction coefficient μ roadway until the wheel slip is no longer detected and at the same time - ascertaining a maximum speed n max of the electric machine at which this is actively decoupled from the drivetrain in terms of drive, based on the ascertained roadway friction coefficient μ roadway and the current load of the internal combustion engine.
A wellhead system, comprising: a wellhead with a landing shoulder therein; and a wellhead component to be installed in the wellhead at a predetermined aligned position in the wellhead; wherein the wellhead component comprises a position indicator; characterized in that the position indicator is disposed in an outer surface of the wellhead component; and the wellhead comprises a position sensor configured to transmit a position signal in response to the position indicator contacting the landing shoulder of the wellhead as the wellhead component enters into a predetermined aligned position in the wellhead. a wellhead with a landing shoulder therein; and a wellhead component to be installed in the wellhead at a predetermined aligned position in the wellhead; wherein the wellhead component comprises a position indicator; characterized in that the position indicator is disposed in an outer surface of the wellhead component; and the wellhead comprises a position sensor configured to transmit a position signal in response to the position indicator contacting the landing shoulder of the wellhead as the wellhead component enters into a predetermined aligned position in the wellhead.
A method for producing a molded material, the molded material comprising: a tubular body and a flange formed at an end portion of the body, the molded material being produced by performing at least two molding processes on a base metal sheet, wherein the at least two molding processes comprise at least one drawing-out process and at least one drawing process performed after the drawing-out process; wherein the drawing-out process is carried out using a mold that comprises a punch and a die having a pushing hole to form a first intermediate body; wherein a first drawing process among the at least one drawing process is carried out using a mold comprising a die and a drawing sleeve; and wherein the first drawing process is carried out on a region corresponding to the body of the molded material, while a gap between the die and the drawing sleeve is open so that the outer edge of the first intermediate body is not sandwiched; and wherein an ironing process is performed on a region corresponding to the flange of the molded material, while keeping a constant interval of a mold gap between the die and the drawing sleeve that is set to sandwich the region corresponding to the flange, wherein an ironing ratio of the ironing process is set so as to be less than the thickness of the flange; at more than 0%, and 50% or less, wherein the ironing ratio is calculated by the following equation: Ironing Ratio % = Sheet thickness before ironing − Sheet thickness after ironing Sheet thickness before ironing × 100.
A saddle assembly for a stringed musical instrument comprising a saddle footing having a body of any desired geometry and a surface curvature compatible with and conforming to the surface curvature of the soundboard of the stringed musical instrument upon which the body of the saddle footing is mounted, with the saddle footing comprising an elongated slot adapted to accommodate either a bridge or saddle, characterized in that at least one transducer pick up is incorporated in the body of the saddle footing.
A heat-curable resin composition comprising: a cyanate ester compound having at least two cyanate groups in a molecule, a phenol curing agent including a resorcinol type phenol resin represented by the following formula wherein n represents an integer from 0 to 10, each of R 1 and R 2 independently represents a hydrogen atom or a monovalent group selected from an alkyl group having 1 to 10 carbon atoms, an allyl group, and a vinyl group, and at least one compound selected from a tetraphenylborate of 1,8-diazabicyclo[5.4.0]undec-7-ene derivative represented by the following formula, and a tetraphenylborate of 1,5-diazabicyclo[4.3.0]non-5-ene derivative represented by the following formula: wherein, R 4 and R 5 represent a hydrogen atom or a monovalent group selected from a saturated hydrocarbon group having 1 to 30 carbon atoms, or an unsaturated hydrocarbon group having 2 to 30 carbon atoms. a cyanate ester compound having at least two cyanate groups in a molecule, a phenol curing agent including a resorcinol type phenol resin represented by the following formula wherein n represents an integer from 0 to 10, each of R 1 and R 2 independently represents a hydrogen atom or a monovalent group selected from an alkyl group having 1 to 10 carbon atoms, an allyl group, and a vinyl group, and at least one compound selected from a tetraphenylborate of 1,8-diazabicyclo[5.4.0]undec-7-ene derivative represented by the following formula, and a tetraphenylborate of 1,5-diazabicyclo[4.3.0]non-5-ene derivative represented by the following formula: wherein, R 4 and R 5 represent a hydrogen atom or a monovalent group selected from a saturated hydrocarbon group having 1 to 30 carbon atoms, or an unsaturated hydrocarbon group having 2 to 30 carbon atoms.
A User Equipment comprising: a modem capable of connecting to a Long-Term Evolution, LTE, cellular network and capable of connecting to a Universal Mobile Telecommunications System UMTS cellular network for transmitting and receiving data, the modem, when using the UMTS cellular network, having an idle state, one or more intermediate states, and a dedicated channel state, wherein: (a) in the idle state the modem is not connected to the UMTS cellular network, (b) in the dedicated channel state the modem is connected to the UMTS cellular network via a dedicated communication channel, and (c) in each of the intermediate states the modem is not connected to the UMTS cellular network via the dedicated communication channel and a first time-period required to transition from the corresponding intermediate state to the dedicated channel state is shorter than a second time-period required to transition from the idle state to the dedicated channel state; and a processing resource; the UE characterized by the processing resource being configured to: maintain a state transitioning regime of the UE when the modem is connected to the UMTS cellular network, wherein the state transitioning regime includes (a) preventing at least one transition of the UE to an idle state for at least one time-period, and (b) periodically transitioning the UE to the idle state, and enabling the modem to switch from the UMTS cellular network to the LTE cellular network. a modem capable of connecting to a Long-Term Evolution, LTE, cellular network and capable of connecting to a Universal Mobile Telecommunications System UMTS cellular network for transmitting and receiving data, the modem, when using the UMTS cellular network, having an idle state, one or more intermediate states, and a dedicated channel state, wherein: (a) in the idle state the modem is not connected to the UMTS cellular network, (b) in the dedicated channel state the modem is connected to the UMTS cellular network via a dedicated communication channel, and (c) in each of the intermediate states the modem is not connected to the UMTS cellular network via the dedicated communication channel and a first time-period required to transition from the corresponding intermediate state to the dedicated channel state is shorter than a second time-period required to transition from the idle state to the dedicated channel state; and a processing resource; the UE characterized by the processing resource being configured to: maintain a state transitioning regime of the UE when the modem is connected to the UMTS cellular network, wherein the state transitioning regime includes (a) preventing at least one transition of the UE to an idle state for at least one time-period, and (b) periodically transitioning the UE to the idle state, and enabling the modem to switch from the UMTS cellular network to the LTE cellular network.
A glazing comprising: - a ply of glazing material (11, 11a) having a surface (S2, S4) - a sensor for sensing a voltage modulated by damage to the ply of glazing material (11, 11a), said sensor substantially circumscribing the ply of glazing material (11, 11a) characterised by - a surface contact bonded to the surface (S2, S4) configured with a portion of the sensor to form a capacitive coupling for transferring AC signals in a frequency range. - a ply of glazing material (11, 11a) having a surface (S2, S4) - a sensor for sensing a voltage modulated by damage to the ply of glazing material (11, 11a), said sensor substantially circumscribing the ply of glazing material (11, 11a) characterised by - a surface contact bonded to the surface (S2, S4) configured with a portion of the sensor to form a capacitive coupling for transferring AC signals in a frequency range.
A touch panel having improved visibility, the touch panel comprising: a window part including a polymer film layer; a first ultraviolet, UV, resin layer attached to a bottom surface of the polymer film layer; a second UV resin layer attached to a bottom surface of the first UV resin layer to prevent refractions and reflections of light; and a display part including a touch sensor film module attached to a bottom surface of the second UV resin layer, wherein the polymer film layer comprises: a bonding layer; a film body layer formed on a bottom surface of the bonding layer; and a soft primer layer formed on a bottom surface of the film body layer. a window part including a polymer film layer; a first ultraviolet, UV, resin layer attached to a bottom surface of the polymer film layer; a second UV resin layer attached to a bottom surface of the first UV resin layer to prevent refractions and reflections of light; and a display part including a touch sensor film module attached to a bottom surface of the second UV resin layer, wherein the polymer film layer comprises: a bonding layer; a film body layer formed on a bottom surface of the bonding layer; and a soft primer layer formed on a bottom surface of the film body layer. a bonding layer; a film body layer formed on a bottom surface of the bonding layer; and a soft primer layer formed on a bottom surface of the film body layer.
Electrochemical energy storage device with at least one storage cell comprising at least one cathode space, at least one anode space, at least one at least substantially planar separator, which is arranged between the cathode space and the anode space, and at least one electrically insulating frame surrounding at least the cathode space, wherein the frame is connected to the at least substantially planar separator by means of a glass, characterised by at least one cathode-side sealing ring comprising a metal layer which faces towards the cathode space and whose electrochemical potential is higher than or equal to an electrochemical potential of an active cathode material, and comprising a metal layer which faces away from the cathode space.
A pump (10, 200, 400, 500) comprising: a housing defining first and second pump housings (40, 240, 540, 50, 250, 550); a stator supported in the housing; a rotor (32, 232, 532) supported in the housing and rotatable about an axis (12, 212, 512), the rotor (32, 232, 532) comprising a first pumping stage (42, 242, 442, 542) comprising_a first impeller (34, 234, 534) disposed in the first pump housing (40, 240, 540) and a second pumping stage (52, 252, 452, 552) comprising a second impeller (36, 236, 536) disposed in the second pump housing (50, 250, 550), characterized in that the pump (10, 200, 400, 500) is configured such that inlet pressures acting on the first impeller (34, 234, 534) move the rotor (32, 232, 532) relative to the housing in a first direction along the axis (12, 212, 512) and inlet pressures acting on the second impeller (36, 236, 536) move the rotor (32, 232, 532) relative to the housing in a second direction along the axis (12, 212, 512) opposite the first direction, movement of the rotor (32, 232, 532) in the first and second directions adjusting hydraulic performance characteristics of the first and second pumping stages (42, 52) such that axial movement of the rotor (32, 232, 532) that produces increased flow from the first pumping stage (42, 242, 442, 542) will also produce a decrease in flow from the second pumping stage (52, 252, 452, 552), and such that axial movement of the rotor (32, 232, 532) that produces increased flow from the second pumping stage (52, 252, 452, 552) will also produce a decrease in flow from the first pumping stage (42, 242, 442, 542). a housing defining first and second pump housings (40, 240, 540, 50, 250, 550); a stator supported in the housing; a rotor (32, 232, 532) supported in the housing and rotatable about an axis (12, 212, 512), the rotor (32, 232, 532) comprising a first pumping stage (42, 242, 442, 542) comprising_a first impeller (34, 234, 534) disposed in the first pump housing (40, 240, 540) and a second pumping stage (52, 252, 452, 552) comprising a second impeller (36, 236, 536) disposed in the second pump housing (50, 250, 550), characterized in that the pump (10, 200, 400, 500) is configured such that inlet pressures acting on the first impeller (34, 234, 534) move the rotor (32, 232, 532) relative to the housing in a first direction along the axis (12, 212, 512) and inlet pressures acting on the second impeller (36, 236, 536) move the rotor (32, 232, 532) relative to the housing in a second direction along the axis (12, 212, 512) opposite the first direction, movement of the rotor (32, 232, 532) in the first and second directions adjusting hydraulic performance characteristics of the first and second pumping stages (42, 52) such that axial movement of the rotor (32, 232, 532) that produces increased flow from the first pumping stage (42, 242, 442, 542) will also produce a decrease in flow from the second pumping stage (52, 252, 452, 552), and such that axial movement of the rotor (32, 232, 532) that produces increased flow from the second pumping stage (52, 252, 452, 552) will also produce a decrease in flow from the first pumping stage (42, 242, 442, 542).
A device for perfusing porous biomaterials with biological liquids, comprising: - a tubular body with an axial cavity defining a perfusion chamber for containing a porous biocompatible material; - a connector located at a distal end of said tubular body for introducing a perfusion liquid therein; - a plunger having a distal end slidably movable in said cavity to withdraw air from the biomaterial to be perfused; - vent means for releasing the air withdrawn from the biomaterial and contained in said chamber to the outside; - filter means for permitting selective passage of the air contained in said chamber toward said vent means, while preventing leakage of the liquid to the outside; characterized in that it comprises air collection means, which communicate with said chamber and said vent means, control means being associated with said plunger and designed to be actuated by the user to control the air flow from said collection means to said vent means. - a tubular body with an axial cavity defining a perfusion chamber for containing a porous biocompatible material; - a connector located at a distal end of said tubular body for introducing a perfusion liquid therein; - a plunger having a distal end slidably movable in said cavity to withdraw air from the biomaterial to be perfused; - vent means for releasing the air withdrawn from the biomaterial and contained in said chamber to the outside; - filter means for permitting selective passage of the air contained in said chamber toward said vent means, while preventing leakage of the liquid to the outside;
A balloon formed from a lamination, the lamination comprising: a first layer comprising from about 40 to about 60 wt.% crystalline polyester and from about 40 to about 60 wt.% of a formability enhancer to assist in increasing the polymeric chain flexibility, the formability enhancer having a melting point as measured according to the description of less than about 230°C, the first layer having a MD and a TD Young's Modulus of at least 10% lower than a crystalline polyester film in the absence of the formability enhancer or the first layer having a composite MD and TD Young's Modulus of less than about 500 kg/mm 2 as measured by ASTM D 882; a second layer being a metallic barrier layer; a graphic design printed onto a surface of the metallic barrier layer; and a third layer being a sealant layer, the first layer being located between the second and third layers, wherein the balloon contains a gas lighter than air, wherein the formability enhancer is selected from the group consisting of homopolymer or copolymer polyesters of terephthalic acid with diols longer than ethylene glycol, a homopolymer or copolymer comprising repeating units of trimethylene terephthalate or a homopolymer or copolymer comprising repeating units of butylene terephthalate; copolyester elastomers; polyesters comprising repeating units of at least one aliphatic dicarboxylic acid; polyesters having more than four methylene groups from aliphatic diols within repeating units; or one or more combinations thereof wherein the first layer is biaxially oriented. a first layer comprising from about 40 to about 60 wt.% crystalline polyester and from about 40 to about 60 wt.% of a formability enhancer to assist in increasing the polymeric chain flexibility, the formability enhancer having a melting point as measured according to the description of less than about 230°C, the first layer having a MD and a TD Young's Modulus of at least 10% lower than a crystalline polyester film in the absence of the formability enhancer or the first layer having a composite MD and TD Young's Modulus of less than about 500 kg/mm 2 as measured by ASTM D 882; a second layer being a metallic barrier layer; a graphic design printed onto a surface of the metallic barrier layer; and a third layer being a sealant layer, the first layer being located between the second and third layers, wherein the balloon contains a gas lighter than air, wherein the formability enhancer is selected from the group consisting of homopolymer or copolymer polyesters of terephthalic acid with diols longer than ethylene glycol, a homopolymer or copolymer comprising repeating units of trimethylene terephthalate or a homopolymer or copolymer comprising repeating units of butylene terephthalate; copolyester elastomers; polyesters comprising repeating units of at least one aliphatic dicarboxylic acid; polyesters having more than four methylene groups from aliphatic diols within repeating units; or one or more combinations thereof wherein the first layer is biaxially oriented.