mhurhangee/ep-ind-claims huggingface dataset:
A device for heating and/or air conditioning for a motor vehicle comprising an air inlet for feeding air; an air transmission branch and an air heating branch, both fed by the air inlet and communicating with each other through a mixing zone; and mixing means configured to distribute an air flow between the air transmission branch and the air heating branch, wherein said mixing means are movable between two extreme positions comprising a closed position, wherein the mixing means prevent a communication between the air inlet and the air heating branch and force the air flow to flow through the air transmission branch; and an open position, wherein the mixing means prevent communication between the air inlet and the air transmission branch, and force the air flow to flow through the air heating branch; wherein said mixing means comprise a tilting flap arranged between the air inlet and the air transmission and air heating branches (26, 28), said tilting flap comprising a first end hinged to a sliding transmission element configured to drive the tilting flap, and a second end guided by a sliding guide configured to orient the tilting flap relative to the air flow, wherein in said closed position the tilting flap closes an inlet of the air heating branch and deflects the air flow into the air transmission branch, and in said open position the tilting flap closes an inlet of the air transmission branch and deflects the air flow into the air heating branch, the device being characterized in that in said closed position the first end of the tilting flap is in abutment against a first wall of the air inlet, and the second end of the tilting flap is in abutment against an inner partition separating the air heating branch from the air transmission branch, and in said open position the first end of the tilting flap is in abutment against a second wall of the air inlet, opposite to said first wall, and the second end of the tilting flap is in abutment against said inner partition. wherein said mixing means comprise a tilting flap arranged between the air inlet and the air transmission and air heating branches (26, 28), said tilting flap comprising a first end hinged to a sliding transmission element configured to drive the tilting flap, and a second end guided by a sliding guide configured to orient the tilting flap relative to the air flow, wherein in said closed position the tilting flap closes an inlet of the air heating branch and deflects the air flow into the air transmission branch, and in said open position the tilting flap closes an inlet of the air transmission branch and deflects the air flow into the air heating branch, the device being characterized in that in said closed position the first end of the tilting flap is in abutment against a first wall of the air inlet, and the second end of the tilting flap is in abutment against an inner partition separating the air heating branch from the air transmission branch, and in said open position the first end of the tilting flap is in abutment against a second wall of the air inlet, opposite to said first wall, and the second end of the tilting flap is in abutment against said inner partition.
A cosmetic container having a hiding/revealing pump outlet, the cosmetic container comprising: an outer container formed at an upper portion thereof with an entrance; an inner container inserted into the outer container for accommodating a cosmetic material in the inner container; a first coupling body fixed to an upper portion of the inner container, and having a pump installation hole eccentrically formed in the first coupling body; a second coupling body fixed to an upper portion of the first coupling body, and having a pump penetration hole eccentrically formed in the second coupling body; a pump installed while passing through the pump installation hole of the first coupling body and the pump penetration hole of the second coupling body to pump the cosmetic material; a pressing member rotatably coupled to an upper portion of the pump while being exposed on an upper portion of the second coupling body, and formed at one side thereof with an outlet; and a cap rotatably coupled to the upper portion of the second coupling body, and formed at one side thereof with an outlet hiding/revealing hole. an outer container formed at an upper portion thereof with an entrance; an inner container inserted into the outer container for accommodating a cosmetic material in the inner container; a first coupling body fixed to an upper portion of the inner container, and having a pump installation hole eccentrically formed in the first coupling body; a second coupling body fixed to an upper portion of the first coupling body, and having a pump penetration hole eccentrically formed in the second coupling body; a pump installed while passing through the pump installation hole of the first coupling body and the pump penetration hole of the second coupling body to pump the cosmetic material; a pressing member rotatably coupled to an upper portion of the pump while being exposed on an upper portion of the second coupling body, and formed at one side thereof with an outlet; and a cap rotatably coupled to the upper portion of the second coupling body, and formed at one side thereof with an outlet hiding/revealing hole.
A method for diagnosing the operation of a string of photovoltaic modules comprising at least one photovoltaic module, the method comprising an acquisition of a series of current and voltage measurements measured during a monitoring period, forming a curve of current as a function of voltage, called the I curve, the method being characterised in that it comprises the steps, implemented by a computing processor, of: - transforming into polar coordinates, each pair of current and voltage values of the I curve being transformed into a corresponding radius-angle pair, - calculating (48, 50) parameters of a first electrical model approximating said I curve, and a first cost representative of a deviation between said first model and said I curve, by implementing a distance metric in polar coordinate space, - calculating (52, 54) parameters of a second electrical model approximating said I curve, and a second cost representative of a deviation between said second model and said I curve, by implementing a distance metric in polar coordinate space, - selecting an electrical model for estimating the I curve from said first electrical approximation model and second electrical approximation model according to the first and second costs, - diagnosing operation as a function of the value of at least one parameter of the selected electrical estimation model. - transforming into polar coordinates, each pair of current and voltage values of the I curve being transformed into a corresponding radius-angle pair, - calculating (48, 50) parameters of a first electrical model approximating said I curve, and a first cost representative of a deviation between said first model and said I curve, by implementing a distance metric in polar coordinate space, - calculating (52, 54) parameters of a second electrical model approximating said I curve, and a second cost representative of a deviation between said second model and said I curve, by implementing a distance metric in polar coordinate space, - selecting an electrical model for estimating the I curve from said first electrical approximation model and second electrical approximation model according to the first and second costs, - diagnosing operation as a function of the value of at least one parameter of the selected electrical estimation model.
A regulating valve, comprising an internally hollow housing allowing fluid communication between at least two ports of the housing, and which housing comprises a circumferential inner wall having a rotational symmetrical cylindrical extension as seen along a longitudinal centre axis, said circumferential inner wall having an opening to each port, and wherein the cross-sectional area of the opening is arranged to be regulated for controlling fluid communication through the opening; an obturator (2, 2') which is rotatable about a rotational axis in relation to the opening to be regulated, said rotational axis coinciding with the longitudinal centre axis of the housing, and wherein the obturator (2, 2') comprises a support member (19, 19') having a surface extension in the circumferential direction and in the axial direction; a thin walled sealing member (4, 4') made of stainless steel and having a surface extension in the circumferential direction and in the axial direction, wherein said surface extension delimits a sealing area exceeding the cross sectional area of the opening of the housing to be regulated; and a biasing member being arranged in a position between the support member (19, 19') and a rear wall of the thin walled sealing member (4, 4'); wherein the thin walled sealing member (4, 4') is supported by the support member (19, 19') and biased by the biasing member in the radial direction with regards to the longitudinal centre axis of the housing to thereby sealingly abut the circumferential inner wall of the housing; characterized in that, the regulating valve is dimensioned for a pressure difference of 10 bar (1000 kPa) and the outer diameter of the obturator (2, 2') is in the range of 15-100 mm; the thin walled sealing member (4, 4') has a thickness of 0.1-0.5 mm and more preferred 0.15-0.35 mm; and the biasing member is separate from the thin walled sealing member (4, 4').
A method in a network virtualization scenario, comprising determining, by a virtual network function manager (VNFM, 10) managing a virtualized network function, constraints related to said virtualized network function, transmitting, by said virtual network function manager, information indicative of said constraints to a network function virtualization orchestrator (NFVO, 20) managing resource capacity in said network virtualization scenario, and deciding, by said network function virtualization orchestrator, resources or resource capacity to be allocated for said virtualized network function, based on said information indicative of said constraints, characterized by passing, by the network function virtualization orchestrator, a result of the deciding to the virtual network function manager, wherein the result of the deciding indicates a virtual infrastructure manager if resources fulfilling said constraints are available, invoking, by the virtual network function manager, a resource creation request to the virtual infrastructure manager indicated in the result of the deciding if resources fulfilling said constraints are available, wherein said constraints comprise at least one of a desired virtualized infrastructure manager managing a set of said resources in said network virtualization scenario, a host physically providing a portion of said resources in said network virtualization scenario, a resource location, and placement constraints constraining a placement of said resource to be allocated. determining, by a virtual network function manager (VNFM, 10) managing a virtualized network function, constraints related to said virtualized network function, transmitting, by said virtual network function manager, information indicative of said constraints to a network function virtualization orchestrator (NFVO, 20) managing resource capacity in said network virtualization scenario, and deciding, by said network function virtualization orchestrator, resources or resource capacity to be allocated for said virtualized network function, based on said information indicative of said constraints, characterized by passing, by the network function virtualization orchestrator, a result of the deciding to the virtual network function manager, wherein the result of the deciding indicates a virtual infrastructure manager if resources fulfilling said constraints are available, invoking, by the virtual network function manager, a resource creation request to the virtual infrastructure manager indicated in the result of the deciding if resources fulfilling said constraints are available, wherein said constraints comprise at least one of a desired virtualized infrastructure manager managing a set of said resources in said network virtualization scenario, a host physically providing a portion of said resources in said network virtualization scenario, a resource location, and placement constraints constraining a placement of said resource to be allocated.
A method for transmitting on an enhanced random-access channel, 'RACH', by a device such that an initial access burst is received in a single time slot by a wireless network, the method comprising: determining whether a timing advance is known by the device, the timing advance being associated with a serving cell; and if the timing advance is known, transmitting, using the timing advance, the initial access burst on the enhanced RACH, wherein the initial access burst comprises: an identifier that uniquely identifies the device; and an indication of an amount of data to be sent. determining whether a timing advance is known by the device, the timing advance being associated with a serving cell; and if the timing advance is known, transmitting, using the timing advance, the initial access burst on the enhanced RACH, wherein the initial access burst comprises: an identifier that uniquely identifies the device; and an indication of an amount of data to be sent. an identifier that uniquely identifies the device; and an indication of an amount of data to be sent.
A microneedle array for use in sensing an analyte, comprising: a plurality of solid microneedles, wherein at least one microneedle comprises: a columnar body portion; a tapered portion distal to the columnar body portion, the tapered portion having an insulated distal apex; and an annular electrode on a surface of the tapered portion, wherein the annular electrode is located proximal to the insulated distal apex. a columnar body portion; a tapered portion distal to the columnar body portion, the tapered portion having an insulated distal apex; and an annular electrode on a surface of the tapered portion, wherein the annular electrode is located proximal to the insulated distal apex.
An HDMI source device for unidirectionally transmitting, to an HDMI sink device using a first differential signal, via an HDMI cable, pixel data of an uncompressed image of one screen during an effective video period representing a period from one vertical synchronization signal to the next vertical synchronization signal excluding horizontal blanking intervals and a vertical blanking interval, the HDMI source device comprising: a signal transmitting unit configured to transmit, to the HDMI sink device via said HDMI cable, a second differential signal representing transmission data different from the pixel data via differential transmission lines formed from a pair consisting of the Reserved signal line of the HDMI cable and the HPD signal line of the HDMI cable; a signal receiving unit connected to the signal transmitting unit, the signal receiving unit receiving a signal comprising said second differential signal and a third differential signal transmitted from the HDMI sink device via the Reserved signal line and the HPD signal line, and the signal receiving unit converting said received signal to an output signal; a subtracting circuit configured to subtract the transmission data of the transmitting unit from the output signal of the signal receiving unit, and a terminating resistor in a circuit that connects the signal transmitting unit to the signal receiving unit, the terminating resistor electrically connecting between the Reserved and HPD signal lines (501,502) of the HDMI cable; wherein: the signal transmitting unit and the signal receiving unit are parallel-connected to the terminating resistor. a signal transmitting unit configured to transmit, to the HDMI sink device via said HDMI cable, a second differential signal representing transmission data different from the pixel data via differential transmission lines formed from a pair consisting of the Reserved signal line of the HDMI cable and the HPD signal line of the HDMI cable; a signal receiving unit connected to the signal transmitting unit, the signal receiving unit receiving a signal comprising said second differential signal and a third differential signal transmitted from the HDMI sink device via the Reserved signal line and the HPD signal line, and the signal receiving unit converting said received signal to an output signal; a subtracting circuit configured to subtract the transmission data of the transmitting unit from the output signal of the signal receiving unit, and a terminating resistor in a circuit that connects the signal transmitting unit to the signal receiving unit, the terminating resistor electrically connecting between the Reserved and HPD signal lines (501,502) of the HDMI cable; wherein: the signal transmitting unit and the signal receiving unit are parallel-connected to the terminating resistor. the signal transmitting unit and the signal receiving unit are parallel-connected to the terminating resistor.
A contact member comprising: a metal base; and a coating disposed on at least part of the metal base, characterized in that the coating contains fluorinated oil having a polar group, and metal particles surface-treated with a fluorine-based compound having a polar group, the metal particles have an average primary particle size of 0.2 um to 10.0 um, and the average primary particle size of the metal particles being an arithmetic average value obtained by measuring the diameters of 20 or more metal particles using an electron microscope. a metal base; and a coating disposed on at least part of the metal base, characterized in that the coating contains fluorinated oil having a polar group, and metal particles surface-treated with a fluorine-based compound having a polar group, the metal particles have an average primary particle size of 0.2 um to 10.0 um, and the average primary particle size of the metal particles being an arithmetic average value obtained by measuring the diameters of 20 or more metal particles using an electron microscope.
Lighting module (100, 200) for a motor vehicle, including a light source (110, 210) adapted to emit coherent light, modulation means (120, 220) for modulating the intensity of the light emitted by said source (110, 210) in accordance with a modulation signal, conversion means (130, 230) such that at least a portion of the incident coherent light coming from said source (110, 210) is converted into incoherent light, characterized in that the module further includes means (140, 240) for producing a variation signal indicating the variation of the luminous intensity of incident light disposed downstream of the conversion means (130, 230), and means (150, 250) for controlling the light source (110, 210) configured to compare the variation signal to the modulation signal and to control the operation of said light source following the comparison of said variation signal to said modulation signal.
A compact motion simulator made up of: - a seat, - controls for simulating the own controls of a vehicle, and - three supports, distributed as two front supports and one rear support, that extend from the bottom of the seat, wherein each of the supports (6,7) has: - an upper end with a first joint, and - a lower end with a second joint, the simulator further comprises: - runners on which each of the supports (6,7) rest, linked by means of the second joint, - movable guides through each one of which a corresponding runner moves longitudinally, - fixed guides, below and transverse to each of the respective movable guides, through which a corresponding movable guide moves longitudinally, - first electric motors for actuating the runners, - second electric motors for actuating the movable guides, and - an external controller for controlling the first and second electric motors based on linear movement parameters. - a seat, - controls for simulating the own controls of a vehicle, and - three supports, distributed as two front supports and one rear support, that extend from the bottom of the seat, wherein each of the supports (6,7) has: - an upper end with a first joint, and - a lower end with a second joint, the simulator further comprises: - runners on which each of the supports (6,7) rest, linked by means of the second joint, - movable guides through each one of which a corresponding runner moves longitudinally, - fixed guides, below and transverse to each of the respective movable guides, through which a corresponding movable guide moves longitudinally, - first electric motors for actuating the runners, - second electric motors for actuating the movable guides, and - an external controller for controlling the first and second electric motors based on linear movement parameters. - an upper end with a first joint, and - a lower end with a second joint, the simulator further comprises: - runners on which each of the supports (6,7) rest, linked by means of the second joint, - movable guides through each one of which a corresponding runner moves longitudinally, - fixed guides, below and transverse to each of the respective movable guides, through which a corresponding movable guide moves longitudinally, - first electric motors for actuating the runners, - second electric motors for actuating the movable guides, and - an external controller for controlling the first and second electric motors based on linear movement parameters. - runners on which each of the supports (6,7) rest, linked by means of the second joint, - movable guides through each one of which a corresponding runner moves longitudinally, - fixed guides, below and transverse to each of the respective movable guides, through which a corresponding movable guide moves longitudinally, - first electric motors for actuating the runners, - second electric motors for actuating the movable guides, and - an external controller for controlling the first and second electric motors based on linear movement parameters.
Lateral fishplate (21, 22) for isolating a railway rail, in particular a buried rail, an upper face of said fishplate (21, 22) comprising a protective strip characterised in that said protective strip is formed of a wire mesh and of a sheet glued to one another, preferably via welding.