mhurhangee/ep-ind-claims huggingface dataset:
A MEMS digital variable capacitor, comprising: a first dielectric layer having a first electrode, an RF electrode, a ground electrode and a shielding electrode, each being disposed in the first dielectric layer, wherein the shielding electrode is disposed between and adjacent the RF electrode and the first electrode and wherein the shielding electrode is grounded, wherein the shielding electrode is electrically isolated from each of the RF electrode and the first electrode, wherein the shield electrode is disposed between the RF electrode and the ground electrode; a second dielectric layer disposed over each of the first electrode, the RF electrode, the ground electrode and the shielding electrode; a second electrode disposed opposite the first electrode and having a third dielectric layer thereover; and a movable electrode coupled to the ground electrode and movable from a position in contact with the second dielectric layer and a position in contact with the third dielectric layer. a first dielectric layer having a first electrode, an RF electrode, a ground electrode and a shielding electrode, each being disposed in the first dielectric layer, wherein the shielding electrode is disposed between and adjacent the RF electrode and the first electrode and wherein the shielding electrode is grounded, wherein the shielding electrode is electrically isolated from each of the RF electrode and the first electrode, wherein the shield electrode is disposed between the RF electrode and the ground electrode; a second dielectric layer disposed over each of the first electrode, the RF electrode, the ground electrode and the shielding electrode; a second electrode disposed opposite the first electrode and having a third dielectric layer thereover; and a movable electrode coupled to the ground electrode and movable from a position in contact with the second dielectric layer and a position in contact with the third dielectric layer.
An attenuation element for a fuel supply line system of a spacecraft propulsion system, comprising: - a housing with a receiving space, which is couplable to a line of the fuel supply line system, said line being connectable to a fuel tank and to an engine; and - an elastic body, which is arranged in the receiving space and which, when a tank cutoff element of the fuel supply line system is opened, is deformable in a defined manner by the surge occurring due to the influx of fuel into the fuel supply line system, thereby attenuating the surge; characterized in that - the elastic body has one or more recess(es), through which fuel enters the interior of the elastic body during the deformation of the elastic body, wherein the receiving space of the attenuation element, after the end of the surge, is filled completely with fuel. - a housing with a receiving space, which is couplable to a line of the fuel supply line system, said line being connectable to a fuel tank and to an engine; and - an elastic body, which is arranged in the receiving space and which, when a tank cutoff element of the fuel supply line system is opened, is deformable in a defined manner by the surge occurring due to the influx of fuel into the fuel supply line system, thereby attenuating the surge; - the elastic body has one or more recess(es), through which fuel enters the interior of the elastic body during the deformation of the elastic body, wherein the receiving space of the attenuation element, after the end of the surge, is filled completely with fuel.
An intravascular blood pump, comprising - a drive part which has a motor housing with a proximal end and a distal end and an electric motor arranged in the motor housing, wherein the electric motor has a motor shaft which protrudes with one end from the distal end of the motor housing and is radially mounted (27, 31) in the motor housing both at the proximal end and at the distal end of the motor housing, wherein the radial mounting of the motor shaft at the proximal end of the motor housing and/or the radial mounting of the motor shaft at the distal end of the motor housing is configured as a radial plain bearing and the motor shaft is mounted axially in the motor housing by means of at least one axial plain bearing or radial-axial plain bearing, - a catheter which is connected to the proximal end of the motor housing and along which there extend lines for power supply to the electric motor, and - a pump section having a tubular pump housing which is fastened to the distal end of the motor housing, and an impeller which sits on the end of the motor shaft protruding out of the distal end of the motor housing and is rotatable in the pump housing, characterized in that the motor shaft is made of ceramic and one of the surfaces forming the bearing gap of the radial bearing (27, 31) configured as a radial plain bearing is a ceramic surface, and the correspondingly other one of the surfaces forming the bearing gap is formed by the ceramic shaft, wherein the motor shaft in the motor housing is mounted in exactly two bearings that are spaced apart maximally, namely at the proximal end and at the distal end of the motor housing. - a drive part which has a motor housing with a proximal end and a distal end and an electric motor arranged in the motor housing, wherein the electric motor has a motor shaft which protrudes with one end from the distal end of the motor housing and is radially mounted (27, 31) in the motor housing both at the proximal end and at the distal end of the motor housing, wherein the radial mounting of the motor shaft at the proximal end of the motor housing and/or the radial mounting of the motor shaft at the distal end of the motor housing is configured as a radial plain bearing and the motor shaft is mounted axially in the motor housing by means of at least one axial plain bearing or radial-axial plain bearing, - a catheter which is connected to the proximal end of the motor housing and along which there extend lines for power supply to the electric motor, and - a pump section having a tubular pump housing which is fastened to the distal end of the motor housing, and an impeller which sits on the end of the motor shaft protruding out of the distal end of the motor housing and is rotatable in the pump housing,
A sparkle effect detection system comprising an image source, a first polarizer having an optical axis of polarisation, a transparent sample, and a device for detecting the sparkle effect of said transparent sample, wherein said transparent sample is arranged in front of said image source, to which said first polarizer is associated, wherein said detection device includes an imaging system, and wherein said transparent sample, said first polarizer and said imaging system are arranged along an optical path originated from said image source, characterized in that said detection device includes a second polarizer arranged between said transparent sample and said imaging system, said second polarizer having an optical axis of polarization directed at ninety degrees with respect to the optical axis of polarization of said first polarizer.
A method of detecting an envelope of a modulating signal, to exchange information between devices, the method comprising: extracting an odd number, 2N+1, of 5 or higher of sampled signals from among a plurality of sampled signals corresponding to the modulating signal; distinguishing a target sampled signal x from among the extracted sampled signals as the center sampled signal and at least two pairs of other extracted sampled signals x(T-τ j) and x(T+τ j) at equal intervals Δt relative to the center sampled signal; calculating an envelope component value R associated with the target sampled signal, based on differences between a component value associated with the target sampled signal and component values associated with the at least two pairs of other sampled signals from among the extracted sampled signals by, using a calculating unit, *solving - for R - the following equation a plurality of times: k N R T 2 = Nx T 2 − ∑ j = 1 N x T − τ j ⋅ x T + τ j based on 2N+1 sampled signals x(t) from the modulating signal, wherein natural number N > 1 and constant k N has a value of k N 2 = ∑ j = 1 N sin 2 ε j, ε j, has a value of ε j = 2 πf c τ j, and τ j has a value of τ j = c j Δ t, with f c being the carrier frequency, and c an integer; and *detecting the envelope of the modulating signal based on the calculated envelope component values. extracting an odd number, 2N+1, of 5 or higher of sampled signals from among a plurality of sampled signals corresponding to the modulating signal; distinguishing a target sampled signal x from among the extracted sampled signals as the center sampled signal and at least two pairs of other extracted sampled signals x(T-τ j) and x(T+τ j) at equal intervals Δt relative to the center sampled signal; calculating an envelope component value R associated with the target sampled signal, based on differences between a component value associated with the target sampled signal and component values associated with the at least two pairs of other sampled signals from among the extracted sampled signals by, using a calculating unit, *solving - for R - the following equation a plurality of times: k N R T 2 = Nx T 2 − ∑ j = 1 N x T − τ j ⋅ x T + τ j based on 2N+1 sampled signals x(t) from the modulating signal, wherein natural number N > 1 and constant k N has a value of k N 2 = ∑ j = 1 N sin 2 ε j, ε j, has a value of ε j = 2 πf c τ j, and τ j has a value of τ j = c j Δ t, with f c being the carrier frequency, and c an integer; and *detecting the envelope of the modulating signal based on the calculated envelope component values. *solving - for R - the following equation a plurality of times: k N R T 2 = Nx T 2 − ∑ j = 1 N x T − τ j ⋅ x T + τ j based on 2N+1 sampled signals x(t) from the modulating signal, wherein natural number N > 1 and constant k N has a value of k N 2 = ∑ j = 1 N sin 2 ε j, ε j, has a value of ε j = 2 πf c τ j, and τ j has a value of τ j = c j Δ t, with f c being the carrier frequency, and c an integer; and *detecting the envelope of the modulating signal based on the calculated envelope component values.
A urological device (900, 910, 920) of a polymeric viscoelastic foam material comprising: - a urological valve, - α support for the valve, the support being generally tubular and adapted for mounting in α urinary tract, - a bladder retainer for locating the device in a bladder and a urethral retainer tc prevent migration of the device, - the valve including a plurality of valve leaflets, (3, 4, 5), - the valve having internally located, stiffening reinforcement means defining a fulcrum or hinge region about which the valve leaflets are movable from a normally closed configuration to an open configuration, the stiffening reinforcement means extending vertically, - the valve having a region of co-aption between the valve leaflets, the valve having the normally closed configuration in which the valve leaflets are engaged at the region of co-aption and the open configuration in which the valve leaflets are separated at the co-aption region for fluid flow through the valve, the valve leaflets being configured to evert automatically on movement between the closed configuration and the open configuration in response to applied urological pressure. - a urological valve, - α support for the valve, the support being generally tubular and adapted for mounting in α urinary tract, - a bladder retainer for locating the device in a bladder and a urethral retainer tc prevent migration of the device, - the valve including a plurality of valve leaflets, (3, 4, 5), - the valve having internally located, stiffening reinforcement means defining a fulcrum or hinge region about which the valve leaflets are movable from a normally closed configuration to an open configuration, the stiffening reinforcement means extending vertically, - the valve having a region of co-aption between the valve leaflets, the valve having the normally closed configuration in which the valve leaflets are engaged at the region of co-aption and the open configuration in which the valve leaflets are separated at the co-aption region for fluid flow through the valve, the valve leaflets being configured to evert automatically on movement between the closed configuration and the open configuration in response to applied urological pressure.
A battery module comprising: a plurality of battery cells stacked together; first and second end plates located at a first end and a second end, respectively, of the stacked battery cells; and side plates and a bottom plate coupled to the first and second end plates (110, 120) wherein the bottom plate connects the first and second end plates (110, 120) to each other and is located between the first and second end plates; wherein at least one of the first end plate and the second end plate has a bent support portion (114, 124) which extends from a bottom portion of the first or second end plate (110, 120) towards the battery cells such that it overlaps with and supports at least a portion of the bottom plate; characterised in that the first and second end plates are each oriented to contact one of the outermost battery cells in the stack, and to apply a compressive force to the battery cells, and the battery cells are positioned on the bottom plate such that the bottom plate supports the load of the battery cells; the first or second end plate (110, 120) has a first fastening hole (113a, 123a) on a portion that contacts an end (141, 142) of the bottom plate; the bottom plate has a second fastening hole (141a, 142a) that is aligned with the first fastening hole (113a, 123a); and the first and second fastening holes (113a, 123a, 141a, 142a) accommodate a fixing member. a plurality of battery cells stacked together; first and second end plates located at a first end and a second end, respectively, of the stacked battery cells; and side plates and a bottom plate coupled to the first and second end plates (110, 120) wherein the bottom plate connects the first and second end plates (110, 120) to each other and is located between the first and second end plates; wherein at least one of the first end plate and the second end plate has a bent support portion (114, 124) which extends from a bottom portion of the first or second end plate (110, 120) towards the battery cells such that it overlaps with and supports at least a portion of the bottom plate; characterised in that the first and second end plates are each oriented to contact one of the outermost battery cells in the stack, and to apply a compressive force to the battery cells, and the battery cells are positioned on the bottom plate such that the bottom plate supports the load of the battery cells; the first or second end plate (110, 120) has a first fastening hole (113a, 123a) on a portion that contacts an end (141, 142) of the bottom plate; the bottom plate has a second fastening hole (141a, 142a) that is aligned with the first fastening hole (113a, 123a); and the first and second fastening holes (113a, 123a, 141a, 142a) accommodate a fixing member.
Computer implemented method for modelling an imaging device comprising an image sensor and an optical system, the image sensor being disposed in an image plane of the optical system, the optical system comprising an aperture iris diaphragm defining an entrance pupil of the optical system, the method comprising for a given configuration of said imaging device: - determining a set of characteristic intrinsic parameters of said imaging device, comprising: * a first intrinsic parameter representative of a distance between said image plane and a sensor conjugated plane conjugated to the image sensor with respect to the optical system; * a second intrinsic parameter representative of a distance between said sensor conjugated plane and the entrance pupil; * a third intrinsic parameter representative of a magnification of said optical system; - determining first modelling data ( P x) as a function of said first and third intrinsic parameters (Z, M); - determining second modelling data ( P α) as a function of said second and third intrinsic parameters (D, M); - mapping a 3D point to an associated image point on said image sensor based on a model of the imaging device obtained as a function of said first and second modelling data ( P x, P α). - determining a set of characteristic intrinsic parameters of said imaging device, comprising: * a first intrinsic parameter representative of a distance between said image plane and a sensor conjugated plane conjugated to the image sensor with respect to the optical system; * a second intrinsic parameter representative of a distance between said sensor conjugated plane and the entrance pupil; * a third intrinsic parameter representative of a magnification of said optical system; * a first intrinsic parameter representative of a distance between said image plane and a sensor conjugated plane conjugated to the image sensor with respect to the optical system; * a second intrinsic parameter representative of a distance between said sensor conjugated plane and the entrance pupil; * a third intrinsic parameter representative of a magnification of said optical system; - determining first modelling data ( P x) as a function of said first and third intrinsic parameters (Z, M); - determining second modelling data ( P α) as a function of said second and third intrinsic parameters (D, M); - mapping a 3D point to an associated image point on said image sensor based on a model of the imaging device obtained as a function of said first and second modelling data ( P x, P α).
A method of controlling an RPM of a blower for a gas furnace that passes air to be supplied to a room around a heat exchanger of a gas furnace, the gas furnace including a burner in which a fuel gas is burned to generate a combustion gas passing through the heat exchanger, the method comprising: Starting operation of the gas furnace; Measuring an air temperature in an outlet side of the gas furnace; Measuring the RPM of the blower; Determining whether the air temperature falls within a reference temperature range; and Adjusting the RPM of the blower such that the air temperature falls within the reference temperature range, characterised in that the reference temperature range is a specific range between a lower limit temperature and an upper limit temperature, and in that adjusting the RPM of the blower comprises reducing a current RPM of the blower when the blower is operating by transmitting a third control signal to the blower, if it is determined that the air temperature is lower than the lower limit temperature of the reference temperature range. Starting operation of the gas furnace; Measuring an air temperature in an outlet side of the gas furnace; Measuring the RPM of the blower; Determining whether the air temperature falls within a reference temperature range; and Adjusting the RPM of the blower such that the air temperature falls within the reference temperature range, characterised in that the reference temperature range is a specific range between a lower limit temperature and an upper limit temperature, and in that adjusting the RPM of the blower comprises reducing a current RPM of the blower when the blower is operating by transmitting a third control signal to the blower, if it is determined that the air temperature is lower than the lower limit temperature of the reference temperature range.
Transport system having at least one vehicle which comprises a transport means, in particular a cab, a bogie and rails, wherein the bogie rolls via bogie rollers on a track formed by the rails and with which the vehicle can be moved along the track, wherein the track has at least two sections (3a to 3d) with different gradients, wherein the transport means is mounted on the bogie so as to be movable in the vertical direction and pivotable, wherein a guide track extends along the track which is at a different distance from the track in sections (3a to 3e), wherein a guide device is guided along the guide track, and wherein the transport means is connected to the guide device for level control, so that the level respectively the horizontal alignment of the transport means is kept constant, characterized in that the guide track has at least one guide rail (12, 22, 23, 27) arranged essentially underneath one of the rails or extends on the lower edge respectively the underside of one of the rails.
A method by a first network node for adapting transmit configuration of a first user equipment, UE, for communications directly to a second UE, the method comprising: obtaining a first timing measurement between the first UE and the first network node; obtaining a second timing measurement between the second UE and a second network node; adapting a transmit configuration comprising transmit power of a wireless communication from the first UE directly to the second UE based on the first timing measurement and the second timing measurement; further comprising transmitting a message containing information instructing the first UE to perform device-to-device direct communications with the second UE using the transmit configuration to control a transmit power level at which the first UE will transmit to the second UE. obtaining a first timing measurement between the first UE and the first network node; obtaining a second timing measurement between the second UE and a second network node; adapting a transmit configuration comprising transmit power of a wireless communication from the first UE directly to the second UE based on the first timing measurement and the second timing measurement; further comprising transmitting a message containing information instructing the first UE to perform device-to-device direct communications with the second UE using the transmit configuration to control a transmit power level at which the first UE will transmit to the second UE.
A method for information exchange in an automation system comprising a plurality of automation devices, the plurality of automation devices employing disparate data protocols, the method comprising: receiving at a transformation component, from a first automation device of the plurality of automation devices, source data in conformance with a source data protocol associated with the first automation device; translating, at the transformation component, the source data to an intermediate data protocol; determining, at the transformation component, a second automation device of the plurality of automation devices as a target device and a data protocol associated with the second automation device as a target data protocol; obtaining, at the transformation component, translation information specifying a format in accordance with the target data protocol; applying, at the transformation component, the obtained translation information to the received data in the intermediate protocol to translate the data into the target protocol utilized by the second automation device; and transferring, from the transformation component, the translated data in the target data protocol to the second automation device. receiving at a transformation component, from a first automation device of the plurality of automation devices, source data in conformance with a source data protocol associated with the first automation device; translating, at the transformation component, the source data to an intermediate data protocol; determining, at the transformation component, a second automation device of the plurality of automation devices as a target device and a data protocol associated with the second automation device as a target data protocol; obtaining, at the transformation component, translation information specifying a format in accordance with the target data protocol; applying, at the transformation component, the obtained translation information to the received data in the intermediate protocol to translate the data into the target protocol utilized by the second automation device; and transferring, from the transformation component, the translated data in the target data protocol to the second automation device.