mhurhangee/ep-ind-claims huggingface dataset:
Use of an adhesive tape in a method for moulding a body in a mould, comprising the following steps: • applying the adhesive tape to the inner side of a mould • distributing the material layers forming the body over the adhesive tape • curing the material layers • removing the body from the mould wherein the adhesive tape has a carrier material comprising the following layers: a textile coated with fluoropolymers or silicone polymers and composed of fibres having a softening point (measured by the measuring method specified in the description) of greater than or equal to 200°C, preferably 250°C, to the upper side of which textile a first film composed of fluoropolymers is applied over the whole surface and to the lower side of which textile a second film is applied over the whole surface, and wherein an adhesive, in particular a self-adhesive, is applied to one side of the carrier material. • applying the adhesive tape to the inner side of a mould • distributing the material layers forming the body over the adhesive tape • curing the material layers • removing the body from the mould a textile coated with fluoropolymers or silicone polymers and composed of fibres having a softening point (measured by the measuring method specified in the description) of greater than or equal to 200°C, preferably 250°C, to the upper side of which textile a first film composed of fluoropolymers is applied over the whole surface and to the lower side of which textile a second film is applied over the whole surface, and wherein an adhesive, in particular a self-adhesive, is applied to one side of the carrier material.
A method for fabricating a LTPS TFT, comprising: forming on a substrate an active layer, a source, a drain, a gate, and a gate insulating layer between the active layer and the gate, and forming a graphene oxide layer between the active layer and the gate insulating layer, characterized in that, forming the graphene oxide layer comprises: preparing a graphene oxide dispersion; spin coating the graphene oxide dispersion on the active layer or the gate insulating layer, and baking the graphene oxide dispersion to form the graphene oxide layer, wherein the method further comprises performing chemical mechanical polishing on the graphene oxide layer. forming on a substrate an active layer, a source, a drain, a gate, and a gate insulating layer between the active layer and the gate, and forming a graphene oxide layer between the active layer and the gate insulating layer, characterized in that, forming the graphene oxide layer comprises: preparing a graphene oxide dispersion; spin coating the graphene oxide dispersion on the active layer or the gate insulating layer, and baking the graphene oxide dispersion to form the graphene oxide layer, preparing a graphene oxide dispersion; spin coating the graphene oxide dispersion on the active layer or the gate insulating layer, and baking the graphene oxide dispersion to form the graphene oxide layer, wherein the method further comprises performing chemical mechanical polishing on the graphene oxide layer.
An aspiration system, comprising: an aspiration catheter having a distal end sized and dimensioned to reach an occlusion within a remote location of a vasculature of a patient; an aspiration source fluidly coupled to the aspiration catheter to create an aspiration flow path between the aspiration catheter and the aspiration source; a pressurized fluid source; and characterised in that the aspiration system further comprises: a passive pressure oscillation assembly (44, 44', 44", 44a, 44b, 44c) fluidly coupled between the pressurized fluid source and the aspiration flow path, the passive pressure oscillation assembly (44, 44', 44", 44a, 44b, 44c) configured for being operated between a normal mode that prevents fluid communication between the pressurized fluid source and the aspiration flow path, and an oscillatory mode that pulses fluid communication between the pressurized fluid source and the aspiration flow path, wherein the passive pressure oscillation assembly (44, 44', 44", 44a, 44b, 44c) is configured for being triggered to switch from the normal mode or another oscillatory mode to the oscillatory mode in response to a clog in the aspiration catheter. an aspiration catheter having a distal end sized and dimensioned to reach an occlusion within a remote location of a vasculature of a patient; an aspiration source fluidly coupled to the aspiration catheter to create an aspiration flow path between the aspiration catheter and the aspiration source; a pressurized fluid source; and
A transceiver (100; 200) for Orthogonal Frequency Division Multiplexing, OFDM, communication, comprising a receiver (150; 250), a transmitter (140, 240), a memory (160; 260) and a controller (170; 270), wherein the receiver (150; 250) is adapted: for receiving a packet, the packet including a packet header having a receiver station identifier identifying the transceiver as an intended transceiver for receiving the packet and a signal field, the signal field including Length information in bytes and Rate information wherein the Length and Rate information are encoded in an OFDM symbol, the Length and Rate information not permitting unintended receivers, by using said values, to correctly demodulate data symbols of the packet while, in combination, being useable by unintended receivers to determine the duration of the packet, wherein the receiver is characterised in that it is adapted to determine that the packet header further includes an indication of which one of a plurality of optimized communication parameter sets is to be used for decoding data symbols of the received packet by the receiver (150; 250), said one of said plurality of optimized communication parameter sets having been determined by the receiver of the intended transceiver and being used in an effort to optimize a data communication rate when communicating to the intended transceiver by implementing a change in data communication rate using said indication of said one optimized communication parameter set; and for using said one of said plurality of optimized communication parameter sets to correctly decode data symbols of the packet. for receiving a packet, the packet including a packet header having a receiver station identifier identifying the transceiver as an intended transceiver for receiving the packet and a signal field, the signal field including Length information in bytes and Rate information wherein the Length and Rate information are encoded in an OFDM symbol, the Length and Rate information not permitting unintended receivers, by using said values, to correctly demodulate data symbols of the packet while, in combination, being useable by unintended receivers to determine the duration of the packet, wherein the receiver is characterised in that it is adapted to determine that the packet header further includes an indication of which one of a plurality of optimized communication parameter sets is to be used for decoding data symbols of the received packet by the receiver (150; 250), said one of said plurality of optimized communication parameter sets having been determined by the receiver of the intended transceiver and being used in an effort to optimize a data communication rate when communicating to the intended transceiver by implementing a change in data communication rate using said indication of said one optimized communication parameter set; and for using said one of said plurality of optimized communication parameter sets to correctly decode data symbols of the packet.
A connector, comprising: a surface mount connector, including a number of connection sites; a printed circuit board, PCB, (102, 250) coupled to the surface mount connector with a number of matching PCB connection sites, including a number of PCB signal sites and a number of PCB ground sites, wherein the number of PCB ground sites are coupled together on a first side of the PCB; and a number of ground vias passing through the PCB to a second side of the PCB, wherein the number of ground vias is smaller than the number of ground sites, characterized in that the number of connection sites includes a plurality of signal sites substantially surrounded by a number of ground sites. a surface mount connector, including a number of connection sites; a printed circuit board, PCB, (102, 250) coupled to the surface mount connector with a number of matching PCB connection sites, including a number of PCB signal sites and a number of PCB ground sites, wherein the number of PCB ground sites are coupled together on a first side of the PCB; and a number of ground vias passing through the PCB to a second side of the PCB,
A method of measuring integrity of a pulse-width modulated power converter, the method comprising the steps of: monitoring input data associated with an input to the pulse-width modulated power converter; monitoring output data associated with an output from the pulse-width modulated power converter; and correlating the input data and the output data to identify a degradation in performance of the power converter in a way that either: a) a ripple component of the input current (I in), a ripple component of the output current (I out) and an alternating component of the output current (I out); or b) a ripple component of the input current (I in), a ripple component of the output current (I out), an alternating component of the output voltage (V out) and the power factor average; are processed to calculate an equivalent series resistance of the power converter. monitoring input data associated with an input to the pulse-width modulated power converter; monitoring output data associated with an output from the pulse-width modulated power converter; and correlating the input data and the output data to identify a degradation in performance of the power converter in a way that either: a) a ripple component of the input current (I in), a ripple component of the output current (I out) and an alternating component of the output current (I out); or b) a ripple component of the input current (I in), a ripple component of the output current (I out), an alternating component of the output voltage (V out) and the power factor average; a) a ripple component of the input current (I in), a ripple component of the output current (I out) and an alternating component of the output current (I out); or b) a ripple component of the input current (I in), a ripple component of the output current (I out), an alternating component of the output voltage (V out) and the power factor average; are processed to calculate an equivalent series resistance of the power converter.
Closed-loop control circuit for an auxiliary power supply unit, comprising a control loop for the closed-loop control of a voltage transformer of the auxiliary power supply unit via a control voltage at an internal node of the control loop to a setpoint voltage, wherein a voltage generated by the voltage transformer of the auxiliary power supply unit is provided at a first node, which is electrically directly connected to a common first output (13, 21) for outputting the voltage generated by the auxiliary power supply unit, wherein the control loop includes an additional circuit, which is configured to limit a change of the control voltage in the event of provision of an external voltage of a main power supply unit at the common first output (13, 21), if the external voltage exceeds the setpoint voltage of the auxiliary power supply unit, characterized in that - the internal node is configured to receive, during operation, an internal voltage from the voltage transformer for the closed-loop control of the voltage transformer, - the additional circuit is configured to prevent an increase of the internal voltage provided at the internal node by the voltage transformer of the auxiliary power supply unit during operation to the external voltage provided at the first output (13, 21), and - the control voltage of the auxiliary power supply unit is slightly lower than a control voltage of the main power supply unit during operation, so that in the operation of the main power supply unit, a feed of the common first output (13, 21) is effected by the main power supply unit. - the internal node is configured to receive, during operation, an internal voltage from the voltage transformer for the closed-loop control of the voltage transformer, - the additional circuit is configured to prevent an increase of the internal voltage provided at the internal node by the voltage transformer of the auxiliary power supply unit during operation to the external voltage provided at the first output (13, 21), and - the control voltage of the auxiliary power supply unit is slightly lower than a control voltage of the main power supply unit during operation, so that in the operation of the main power supply unit, a feed of the common first output (13, 21) is effected by the main power supply unit.
A synthetic eye model, comprising: a rigid or semi-rigid eye shell; a synthetic iris base positioned within the eye shell; an eye core (104, 604) positioned within the eye shell and encircling the synthetic iris base, the eye core including a channel integral to the eye core configured to replicate Schlemm' s canal of a human eye; the synthetic eye model being characterized in that it further comprises: a synthetic trabecular meshwork tissue coupled to the eye shell and extending across the channel; and wherein the eye core further including a protrusion adjacent to the channel and being configured to replicate a scleral spur of a human eye. a rigid or semi-rigid eye shell; a synthetic iris base positioned within the eye shell; an eye core (104, 604) positioned within the eye shell and encircling the synthetic iris base, the eye core including a channel integral to the eye core configured to replicate Schlemm' s canal of a human eye; a synthetic trabecular meshwork tissue coupled to the eye shell and extending across the channel; and wherein the eye core further including a protrusion adjacent to the channel and being configured to replicate a scleral spur of a human eye.
A reduced pressure therapy system, comprising: a suction device comprising a suction chamber and a slidable seal therein; a magnet coupled to the slidable seal; and an alarm device configured to detachably retain the suction device, wherein the alarm device comprises a sensor configured to detect the location of the magnet within the suction chamber, and a notification mechanism configured to generate an alert according to the location of the magnet. a suction device comprising a suction chamber and a slidable seal therein; a magnet coupled to the slidable seal; and an alarm device configured to detachably retain the suction device, wherein the alarm device comprises a sensor configured to detect the location of the magnet within the suction chamber, and a notification mechanism configured to generate an alert according to the location of the magnet.
Battery cell, in particular lithium-ion battery cell, having a first terminal which is electrically conductively connected to a first electrode and a second terminal which is electrically conductively connected to a second electrode, wherein the first terminal is arranged within the second terminal and the first terminal comprises a first screw thread and the second terminal comprises a second screw thread, characterized in that the ends of the screw thread (1a, 2a) of the first terminal and second terminal, which ends are situated outside the battery cell, start at the same height.
A laminated device comprising a film laminated to a circuit sheet (4, 4'), wherein: the film has an upper surface and a lower surface, the film comprising (i) an active region comprising a piezoelectric polymer, the active region having a thickness that extends from the upper surface of the film to the lower surface of the film, and (ii) an adhesive sheet, wherein the adhesive sheet defines part of the upper or lower surface of the film; the circuit sheet comprises an electrode region (7, 7', 7") adjacent the active region of the film, and a polymer in-fill adjacent or surrounding the electrode region; and the circuit sheet is bonded to the adhesive sheet (3, 15) of the film outside the active region. the film has an upper surface and a lower surface, the film comprising (i) an active region comprising a piezoelectric polymer, the active region having a thickness that extends from the upper surface of the film to the lower surface of the film, and (ii) an adhesive sheet, wherein the adhesive sheet defines part of the upper or lower surface of the film; the circuit sheet comprises an electrode region (7, 7', 7") adjacent the active region of the film, and a polymer in-fill adjacent or surrounding the electrode region; and the circuit sheet is bonded to the adhesive sheet (3, 15) of the film outside the active region.
Method for producing a line which extends in a line longitudinal direction and which has a line core and an outer shell surrounding said line core, wherein the outer shell is formed from individual shell sections which directly adjoin one another, and the individual shell sections of the outer shell are formed, in a continuous moulding process by means of a tool mould which is divided along a dividing plane, in successive fashion by virtue of the line core being surrounded with a solidifiable plastics compound, wherein, in at least one subsection, the outer shell is produced with a cross-sectional geometry which varies in the line longitudinal direction, wherein, to form the outer shell, the plastics compound is introduced into the tool mould, said tool mould having a moulding module which can be divided along a dividing plane and which has a moulding cavity with a cross-sectional geometry which varies in the line longitudinal direction in order to form the subsection with correspondingly varying cross-sectional geometry, wherein the outer shell is produced by means of the tool mould in a modified extrusion process, in which, - in an extrusion step, the line core is guided continuously through the moulding module and a subsection of the outer shell with uniform cross-sectional geometry is extruded onto the line core, and in which, - in a subsequent end step, the conveyance of the line core is stopped, and the line core remains within the moulding module and the introduced plastics compound solidifies in the moulding module. - in an extrusion step, the line core is guided continuously through the moulding module and a subsection of the outer shell with uniform cross-sectional geometry is extruded onto the line core, and in which, - in a subsequent end step, the conveyance of the line core is stopped, and the line core remains within the moulding module and the introduced plastics compound solidifies in the moulding module.
A respiration estimation method comprising: a first step of estimating a breathing rate of a subject based on each of a time-series signal of first data relating to a cardiac function of the subject and a time-series signal of second data relating to an acceleration by a respiratory motion of the subject, wherein the first data includes at least one of an amplitude of an R wave, an R-R interval which is an interval between an R wave and an immediately preceding R wave, an amplitude of an S wave, and an RS amplitude which is an amplitude from a peak value of an R wave to a peak value of an S wave; a second step of measuring error coefficients respectively indicating reliabilities of the first data and the second data; a third step of obtaining weighting constants as elements of a weighting matrix based on the error coefficients; a fourth step of updating a covariance estimation error matrix of a Kalman filter so that an estimation error of the Kalman filter becomes minimum; a fifth step of updating a Kalman gain of the Kalman filter based on the weighting matrix and the covariance estimation error matrix; a sixth step of estimating a breathing rate obtained by filtering noise using the Kalman filter of which the Kalman gain is updated for each of the breathing rate estimated based on the first data and the breathing rate estimated based on the second data; and a seventh step of executing weighted averaging processing for the plurality of estimated values of the breathing rates obtained in the sixth step. a first step of estimating a breathing rate of a subject based on each of a time-series signal of first data relating to a cardiac function of the subject and a time-series signal of second data relating to an acceleration by a respiratory motion of the subject, wherein the first data includes at least one of an amplitude of an R wave, an R-R interval which is an interval between an R wave and an immediately preceding R wave, an amplitude of an S wave, and an RS amplitude which is an amplitude from a peak value of an R wave to a peak value of an S wave; a second step of measuring error coefficients respectively indicating reliabilities of the first data and the second data; a third step of obtaining weighting constants as elements of a weighting matrix based on the error coefficients; a fourth step of updating a covariance estimation error matrix of a Kalman filter so that an estimation error of the Kalman filter becomes minimum; a fifth step of updating a Kalman gain of the Kalman filter based on the weighting matrix and the covariance estimation error matrix; a sixth step of estimating a breathing rate obtained by filtering noise using the Kalman filter of which the Kalman gain is updated for each of the breathing rate estimated based on the first data and the breathing rate estimated based on the second data; and a seventh step of executing weighted averaging processing for the plurality of estimated values of the breathing rates obtained in the sixth step.
An electrical connector assembly, comprising: a connector housing defining a cavity in which a pair of electrical busbars is disposed, wherein the connector housing defines an opening to the cavity; and a cover attached to the connector housing and configured to cool the pair of electrical busbars, arranged proximate the pair of electrical busbars to extract heat from the pair of electrical busbars, wherein the cover includes a coolant channel in fluidic communication with an inlet port and an outlet port, characterized in that a portion of the cover is in intimate thermal and physical contact with the pair of electrical busbars, wherein the cover has a dielectric thermal interface material layer that is in intimate thermal contact with the pair of electrical busbars, thereby electrically isolating the pair of electrical busbars from one another. a connector housing defining a cavity in which a pair of electrical busbars is disposed, wherein the connector housing defines an opening to the cavity; and a cover attached to the connector housing and configured to cool the pair of electrical busbars, arranged proximate the pair of electrical busbars to extract heat from the pair of electrical busbars, wherein the cover includes a coolant channel in fluidic communication with an inlet port and an outlet port, characterized in that a portion of the cover is in intimate thermal and physical contact with the pair of electrical busbars, wherein the cover has a dielectric thermal interface material layer that is in intimate thermal contact with the pair of electrical busbars, thereby electrically isolating the pair of electrical busbars from one another.