mhurhangee/ep-ind-claims huggingface dataset:
A device for physical exercise, in particular for motor rehabilitation exercises, comprising: - a body with a casing that defines an inner chamber designed to be filled with a pressurised gas, said casing comprising at least a part made of a translucent or transparent material and at least a part made of a flexible material, said body having at least an opening, communicating with the inner chamber; - a closing element housed in the opening designed to couple with the opening of the casing, said closing element comprising a head portion and a support portion, the latter extending from the head portion towards the inner chamber; the device further comprising the following components mounted on the support portion: - at least one pressure sensor; - at least one light source; - a control unit, connected to the light source and to the pressure sensor; - a battery that powers the above-mentioned components; wherein the pressure sensor is positioned in such a way as to detect the value of the pressure in the inner chamber and wherein the control unit is configured to receive the measurement of said pressure value and to control the activation state of the light source according to said parameter. - a body with a casing that defines an inner chamber designed to be filled with a pressurised gas, said casing comprising at least a part made of a translucent or transparent material and at least a part made of a flexible material, said body having at least an opening, communicating with the inner chamber; - a closing element housed in the opening designed to couple with the opening of the casing, said closing element comprising a head portion and a support portion, the latter extending from the head portion towards the inner chamber; the device further comprising the following components mounted on the support portion: - at least one pressure sensor; - at least one light source; - a control unit, connected to the light source and to the pressure sensor; - a battery that powers the above-mentioned components; - at least one pressure sensor; - at least one light source; - a control unit, connected to the light source and to the pressure sensor; - a battery that powers the above-mentioned components; wherein the pressure sensor is positioned in such a way as to detect the value of the pressure in the inner chamber and wherein the control unit is configured to receive the measurement of said pressure value and to control the activation state of the light source according to said parameter.
Heat exchanger plate, which has a plate body formed from at least two plate elements (3, 4) and at least one connection piece for a cooling fluid, which are joined together by soldering, wherein the connecting piece has a joining section which is joined in a receiving section of the plate body formed between the plate elements (3, 4), wherein a solder resist is provided which limits the solder flow when producing the solder connection, characterized in that the solder resist is formed by a sealing metal which has a higher melting temperature than the solder material used and the solder resist is arranged on the joining section of the connecting piece.
A dialysis treatment system comprising: at least one fluid conduit; at least one mechanical component (312, 320) coupled to the at least one fluid conduit; and a treatment controller (100, 350) configured to control operation of the at least one mechanical component (312, 320) to manage passage of fluid through the at least one conduit for a patient, wherein the treatment controller includes: a sleep state component configured to determine a sleep state for the patient, store sleep state data over time for the patient, and project an expected sleep state for the patient responsive to analyzing the stored sleep state data; and an execution component configured to limit operation of at least the at least one mechanical component (312, 320) responsive to the determined sleep state, wherein the execution component is configured to manage treatment execution, including operation of the at least one mechanical component (312, 320), responsive to receiving expected sleep state information from the sleep state component, and schedule the treatment execution such that a loudest treatment operation is executed during time periods projected to coincide with deep sleep states for the patient. at least one fluid conduit; at least one mechanical component (312, 320) coupled to the at least one fluid conduit; and a treatment controller (100, 350) configured to control operation of the at least one mechanical component (312, 320) to manage passage of fluid through the at least one conduit for a patient, wherein the treatment controller includes: a sleep state component configured to determine a sleep state for the patient, store sleep state data over time for the patient, and project an expected sleep state for the patient responsive to analyzing the stored sleep state data; and an execution component configured to limit operation of at least the at least one mechanical component (312, 320) responsive to the determined sleep state, wherein the execution component is configured to manage treatment execution, including operation of the at least one mechanical component (312, 320), responsive to receiving expected sleep state information from the sleep state component, and schedule the treatment execution such that a loudest treatment operation is executed during time periods projected to coincide with deep sleep states for the patient. a sleep state component configured to determine a sleep state for the patient, store sleep state data over time for the patient, and project an expected sleep state for the patient responsive to analyzing the stored sleep state data; and an execution component configured to limit operation of at least the at least one mechanical component (312, 320) responsive to the determined sleep state, wherein the execution component is configured to manage treatment execution, including operation of the at least one mechanical component (312, 320), responsive to receiving expected sleep state information from the sleep state component, and schedule the treatment execution such that a loudest treatment operation is executed during time periods projected to coincide with deep sleep states for the patient.
Sensor of magnetic fields along a direction of measurement, this sensor comprising N magneto-resistive transducers TM i, the resistance of each transducer TM i varying linearly to within ±x i % as a function of the intensity of the magnetic field to be measured within a maximum range [a i; b i] of intensity of the magnetic field to be measured and non-linearly outside of this range, the index i being an identifier of the transducer TM i, characterized in that the sensor comprises: - a generator generating N magnetic fields CM i using at least one permanent magnet (AP i), each field CM i exhibiting an intensity I i in the direction of measurement, this intensity I i being constant and independent of the intensity of the magnetic field to be measured, each transducer TM i being placed inside a respective magnetic field CM i, each transducer TM i placed inside the field CM i forming a measurement block (B i) for which the range in which the resistance of the transducer TM i of this block varies linearly to within ±x i % is offset by I i and becomes [a i + I i; b i + I i], each intensity I i being different from the others so as to obtain N different ranges [a i + I i; b i + I i], N being an integer number greater than or equal to two, - a computer capable: • of selecting the appropriate measurement block or blocks for which the intensity of the magnetic field to be measured lies within the range [a i + I i; b i + I i] of this block, and • of establishing the measurement of the intensity of the magnetic field on the basis of the measurement of the only measurement block or blocks selected. - a generator generating N magnetic fields CM i using at least one permanent magnet (AP i), each field CM i exhibiting an intensity I i in the direction of measurement, this intensity I i being constant and independent of the intensity of the magnetic field to be measured, each transducer TM i being placed inside a respective magnetic field CM i, each transducer TM i placed inside the field CM i forming a measurement block (B i) for which the range in which the resistance of the transducer TM i of this block varies linearly to within ±x i % is offset by I i and becomes [a i + I i; b i + I i], each intensity I i being different from the others so as to obtain N different ranges [a i + I i; b i + I i], N being an integer number greater than or equal to two, - a computer capable: • of selecting the appropriate measurement block or blocks for which the intensity of the magnetic field to be measured lies within the range [a i + I i; b i + I i] of this block, and • of establishing the measurement of the intensity of the magnetic field on the basis of the measurement of the only measurement block or blocks selected. • of selecting the appropriate measurement block or blocks for which the intensity of the magnetic field to be measured lies within the range [a i + I i; b i + I i] of this block, and • of establishing the measurement of the intensity of the magnetic field on the basis of the measurement of the only measurement block or blocks selected.
A computer-implemented method for converting an input into one or more haptic effects using frequency shifting, the computer-implemented method comprising: receiving an input signal; performing a fast Fourier transform of the input signal; sorting a plurality of frequencies of the transformed input signal by their amplitudes; selecting a plurality of the sorted frequencies of the transformed input signal whose amplitudes are the largest; shifting the selected frequencies of the transformed input signal from their existing frequencies to frequencies within a shift-to frequency range, wherein the shifting comprises assigning amplitudes of selected frequencies to frequencies within the shift-to frequency range; performing an inverse fast Fourier transform of the frequency-shifted signal, wherein the inversely transformed signal forms a haptic signal; and generating the one or more haptic effects based on the haptic signal by sending the haptic signal to a haptic output device. receiving an input signal; performing a fast Fourier transform of the input signal; sorting a plurality of frequencies of the transformed input signal by their amplitudes; selecting a plurality of the sorted frequencies of the transformed input signal whose amplitudes are the largest; shifting the selected frequencies of the transformed input signal from their existing frequencies to frequencies within a shift-to frequency range, wherein the shifting comprises assigning amplitudes of selected frequencies to frequencies within the shift-to frequency range; performing an inverse fast Fourier transform of the frequency-shifted signal, wherein the inversely transformed signal forms a haptic signal; and generating the one or more haptic effects based on the haptic signal by sending the haptic signal to a haptic output device.
Maintenance facility comprising a maintenance platform for suspending on support cables for the maintenance of rotor blades of wind turbines that have a tower, a nacelle having a rotor blade hub and a rotor having rotor blades, the maintenance facility having at least three support cables and all the support cables being guided in such a way that none of the support cables crosses a rotor plane defined by the rotor blades of the relevant wind turbine, characterised in that, during operation, at least one of the support cables is fastened to the rotor blade hub of the relevant wind turbine by means of a cable suspension member and specifically on a side of the rotor plane of the relevant wind turbine that faces away from the tower, while two additional support cables are fastened to the nacelle of the relevant wind turbine during operation and extend between the rotor plane and the tower on a side of the rotor plane that is close to the tower.
A kit for detecting mutation or polymorphism in the human mitochondrial DNA characterized in that the kit comprises the 96 sequencing primers of SEQ ID Nos. 1-96.
Method for optimizing energy consumption of a vehicle, said method comprising the steps of: a) Selecting an economical pathway based on a theoretical energy consumption (TEp) among several possible pathways, at start of a given mission; b) Monitoring the actual energy consumption (EfEn) during the travel along the selected pathway and comparing, for a given position of said vehicle, the actual energy consumption (EfEnp) with the corresponding theoretical energy consumption (TEp) originally determined for the selected pathway; c) Monitoring and updating the theoretical energy consumption (TEb) for a remaining part of the selected pathway, thereby obtaining a revised theoretical energy consumption (TEbr), and comparing, for a given position of said vehicle, the revised theoretical energy consumption (TEbr) with the corresponding theoretical energy consumption (TEb) originally determined for the remaining part of the selected pathway; d) Triggering a re-computation of an alternative pathway; e) Selecting an alternative pathway, among one or more re-computed pathways; characterized in that, at step d), the re-computation of an alternative pathway is triggered only if at a position of said vehicle the actual energy consumption (EfEnp) on the initially selected pathway becomes higher than the theoretical energy consumption (TEp) by an amount equal or higher than a first threshold value (Δ1), and the revised theoretical energy consumption (TEbr) for the remaining part of the initially selected pathway becomes higher than the theoretical energy consumption (TEb) originally determined for the same remaining part by an amount equal or higher than a third threshold value (Δ3). a) Selecting an economical pathway based on a theoretical energy consumption (TEp) among several possible pathways, at start of a given mission; b) Monitoring the actual energy consumption (EfEn) during the travel along the selected pathway and comparing, for a given position of said vehicle, the actual energy consumption (EfEnp) with the corresponding theoretical energy consumption (TEp) originally determined for the selected pathway; c) Monitoring and updating the theoretical energy consumption (TEb) for a remaining part of the selected pathway, thereby obtaining a revised theoretical energy consumption (TEbr), and comparing, for a given position of said vehicle, the revised theoretical energy consumption (TEbr) with the corresponding theoretical energy consumption (TEb) originally determined for the remaining part of the selected pathway; d) Triggering a re-computation of an alternative pathway; e) Selecting an alternative pathway, among one or more re-computed pathways;
An air cleaner, comprising: a case; a front panel having a plurality of air inlets formed thereon for air to flow in from outside the case; a first blower device arranged inside the case to force air to flow through one of the plurality of air inlets; a first filter unit arranged to filter the air forced to flow through one of the plurality of air inlets by the first blower device; a first outlet located on the case to release the air that passed through the first filter unit out of the case; a first fluid path formed between the one of the plurality of air inlets and the first outlet; a second blower device arranged inside the case to force air to flow through other one of the plurality of air inlets; a second filter unit arranged to filter the air forced to flow through the other one of the plurality of air inlets by the second blower device; a second outlet located on the case to release the air that passed through the second filter unit out of the case; and a second fluid path separated from the first fluid path and formed between the other one of the plurality of air inlets and the second outlet, and wherein the first outlet is located on at least one of a side and the back of the case, and the second outlet is located on at least one of the side and the top of the case. a case; a front panel having a plurality of air inlets formed thereon for air to flow in from outside the case; a first blower device arranged inside the case to force air to flow through one of the plurality of air inlets; a first filter unit arranged to filter the air forced to flow through one of the plurality of air inlets by the first blower device; a first outlet located on the case to release the air that passed through the first filter unit out of the case; a first fluid path formed between the one of the plurality of air inlets and the first outlet; a second blower device arranged inside the case to force air to flow through other one of the plurality of air inlets; a second filter unit arranged to filter the air forced to flow through the other one of the plurality of air inlets by the second blower device; a second outlet located on the case to release the air that passed through the second filter unit out of the case; and a second fluid path separated from the first fluid path and formed between the other one of the plurality of air inlets and the second outlet, and wherein the first outlet is located on at least one of a side and the back of the case, and the second outlet is located on at least one of the side and the top of the case.
A process for the solidification of liquid waste prior to depositing the waste in a landfill or other environmental site, wherein the process comprises the steps of: obtaining a container having a predetermined amount of at least one solidifying agent and having an outer layer of an impermeable membrane, wherein the container includes a closeable leakproof injection port for removably receiving an injector tube for conveying liquid waste through at least one perforation in the injector tube into the container, said at least one perforation being in the portion of the injector tube located within the container; injecting the liquid waste into the container through the closeable leakproof injection port through said at least one perforation of the injector tube, and into contact with said at least one solidifying agent; permitting contact without mechanical mixing between the liquid waste and at least one solidifying agent having a swelling character for a time sufficient for the liquid waste to become substantially solidified in the container; removing the injector tube and closing the closeable leakproof injection port; and depositing the container of substantially solidified liquid waste in a landfill or other environmental site. obtaining a container having a predetermined amount of at least one solidifying agent and having an outer layer of an impermeable membrane, wherein the container includes a closeable leakproof injection port for removably receiving an injector tube for conveying liquid waste through at least one perforation in the injector tube into the container, said at least one perforation being in the portion of the injector tube located within the container; injecting the liquid waste into the container through the closeable leakproof injection port through said at least one perforation of the injector tube, and into contact with said at least one solidifying agent; permitting contact without mechanical mixing between the liquid waste and at least one solidifying agent having a swelling character for a time sufficient for the liquid waste to become substantially solidified in the container; removing the injector tube and closing the closeable leakproof injection port; and depositing the container of substantially solidified liquid waste in a landfill or other environmental site.
A device for preparing a high-strength and high-modulus polyolefin thin film, wherein: the device comprises a melt extruder, a cooling system, a stretching system and an extraction system, and characterized in that the melt extruder, the cooling system, the stretching system and the extraction system are configured in a sequence; the stretching system comprises a plurality among a transverse stretching machine for stretching an object to be stretched in a transverse direction, a longitudinal stretching machine for stretching an object to be stretched in a longitudinal direction, and a bidirectional synchronous stretching machine for stretching an object to be stretched in a bidirectional direction; slitting machine for slitting an object to be stretched, and a steering device is provided behind the slitting machine; preferably, a plurality of the bidirectional synchronous stretching machines are provided; preferably, three bidirectional synchronous stretching machines are stacked in a height direction; preferably, the bidirectional synchronous stretching machine is provided with a heating oven and a cooling oven, and the heating oven has a temperature accuracy of ± 0.5°C and a wind speed uniformity of ± 1 m/s.
A transconductance amplifier, comprising: an input amplifier stage (MP4, MN4, MP3, MN3) configured to receive an input voltage; an output amplifier stage configured to output a current (MP, MN); a replica output stage (MP2, MN2) which is configured to generate a feedback current (Ifb) which is a scaled replica of the output current (lout) of the amplifier, wherein the feedback current is provided to the amplifier input for input termination, and wherein the input amplifier stage comprises a first inverter and a second inverter in series, wherein the second inverter is configured to provide a drive signal (Vg), and the amplifier output stage and replica output stage are configured to be driven in parallel each by the drive signal (Vg); and a first resistor arranged between a first power rail and a first internal signal node, and a second resistor arranged between a second power rail and a second internal signal node; wherein the input amplifier stage, the output amplifier stage and the replica output stage are connected in parallel between the first internal signal node and the second internal signal node. an input amplifier stage (MP4, MN4, MP3, MN3) configured to receive an input voltage; an output amplifier stage configured to output a current (MP, MN); a replica output stage (MP2, MN2) which is configured to generate a feedback current (Ifb) which is a scaled replica of the output current (lout) of the amplifier, wherein the feedback current is provided to the amplifier input for input termination, and wherein the input amplifier stage comprises a first inverter and a second inverter in series, wherein the second inverter is configured to provide a drive signal (Vg), and the amplifier output stage and replica output stage are configured to be driven in parallel each by the drive signal (Vg); and a first resistor arranged between a first power rail and a first internal signal node, and a second resistor arranged between a second power rail and a second internal signal node; wherein the input amplifier stage, the output amplifier stage and the replica output stage are connected in parallel between the first internal signal node and the second internal signal node.