mhurhangee/patent-ind-claim-en huggingface dataset:
A method , with regard to the arm of a respective driver , for setting an ergonomic position (ER) of a center console with an arm rest and with one or more operating elements separate from the arm rest in a vehicle , wherein at least the arm rest is movably mounted, by means of a positioning unit , at least vertically as well as parallel to a vehicle axis (FA), comprising the following steps: - detecting an arm of the driver facing the centre console with the forearm and at least areas of the upper arm by means of one or more optical sensors ; - determining at least an elbow position (EP) and a hand position (HP) of the arm of the driver using sensor data (SD) of the sensors by means of a suitable evaluation method ; and - automatic moving of the arm rest of the centre console by means of the positioning unit based on the determined elbow positions (EP) and hand positions (HP) at least vertical as well as parallel to the vehicle axis (FA) such that after moving an ergonomic position (ER) of the arm is achieved. - detecting an arm of the driver facing the centre console with the forearm and at least areas of the upper arm by means of one or more optical sensors ; - determining at least an elbow position (EP) and a hand position (HP) of the arm of the driver using sensor data (SD) of the sensors by means of a suitable evaluation method ; and - automatic moving of the arm rest of the centre console by means of the positioning unit based on the determined elbow positions (EP) and hand positions (HP) at least vertical as well as parallel to the vehicle axis (FA) such that after moving an ergonomic position (ER) of the arm is achieved.
Method for manufacturing a current collector head for a current collector having an electrically conductive sliding contact and an electrically insulating sliding contact holder , characterized by the following steps: a) Inserting a section of the sliding contact into an outwardly open cavity in the sliding contact holder that is dimensioned to match this section ; b) Clamping the sliding contact in the cavity of the sliding contact holder by acting on the sliding contact holder with at least an external force directed onto the inserted section of the sliding contact ; c) Heating the sliding contact to a temperature sufficient to form a material bond connection with the sliding contact holder ; d) Cooling the current collector head formed from the sliding contact and the sliding contact holder . a) Inserting a section of the sliding contact into an outwardly open cavity in the sliding contact holder that is dimensioned to match this section ; b) Clamping the sliding contact in the cavity of the sliding contact holder by acting on the sliding contact holder with at least an external force directed onto the inserted section of the sliding contact ; c) Heating the sliding contact to a temperature sufficient to form a material bond connection with the sliding contact holder ; d) Cooling the current collector head formed from the sliding contact and the sliding contact holder .
A refrigerator comprising a shelf assembly , said shelf assembly in turn comprising: a frame assembly having first and second frame members spaced-apart from one another to define a receiving area therebetween, wherein the first frame member includes a first channel , and further wherein the second frame member includes a second channel ; a panel having first and second ends , wherein the panel is received in the receiving area and operable between a first position, wherein the second end is fully received in the second channel , and a second position, wherein the first end is fully received in the first channel and the second end is partially received in the second channel , and further wherein a gap is formed in the second channel when the panel is in the second position; characterised by a spacer assembly (90; 124) releasably coupled to the second frame member and partially received in the gap of the second channel , the overall configuration of the shelf assembly being such that the spacer assembly retains the panel in the second position. a frame assembly having first and second frame members spaced-apart from one another to define a receiving area therebetween, wherein the first frame member includes a first channel , and further wherein the second frame member includes a second channel ; a panel having first and second ends , wherein the panel is received in the receiving area and operable between a first position, wherein the second end is fully received in the second channel , and a second position, wherein the first end is fully received in the first channel and the second end is partially received in the second channel , and further wherein a gap is formed in the second channel when the panel is in the second position; characterised by a spacer assembly (90; 124) releasably coupled to the second frame member and partially received in the gap of the second channel , the overall configuration of the shelf assembly being such that the spacer assembly retains the panel in the second position.
Contamination protection device for high-voltage insulators for fastening to the insulator cap of a high-voltage insulator having a protective shield , which extends radially around a leadthrough opening for the connection element of the insulator cap , wherein the leadthrough opening is surrounded on one side of the protective shield by a fastening region for form-fit connection to the insulator cap , wherein two eyes for pushing through a strap element and a strap element are provided on the other side of the protective shield , wherein the eyes are arranged in such a way that the strap element , once pushed through the two eyes , extends over the leadthrough opening , characterized in that a radial installation opening , which runs from the leadthrough opening up to the outer edge of the protective shield , is provided for laterally leading through the connection element of the insulator cap , and pins of a dovetail joint are provided on both sides of the installation opening for optionally closing the installation opening , wherein preferably at least some of the pins have locking tabs for securing the dovetail joint in the closed position.
An identity verification method, comprising: sending (S201) a short message to the server, the short message carrying information on a mobile phone number; receiving (S202) the mobile phone number from the server; saving (S203) the mobile phone number as the first pre-stored mobile phone number information; sending (S204) current information on the local hardware to the server; receiving (S205) an identity verification instruction from a server; in response to the identity verification instruction, determining (S206) information on local hardware and first pre-stored mobile phone number information, wherein the first pre-stored mobile phone number information is mobile phone number information pre-stored locally; sending (S207), to the server, the information on the local hardware and the first pre-stored mobile phone number information as identity information to be verified; and receiving (S208) a verification result generated by the server in dependence on the identity information to be verified and pre-stored identity information, wherein the pre-stored identity information includes second pre-stored mobile phone number information and the current information on local hardware, and the second pre-stored mobile phone number information is the mobile phone number determined based on the short message at the server. sending (S201) a short message to the server, the short message carrying information on a mobile phone number; receiving (S202) the mobile phone number from the server; saving (S203) the mobile phone number as the first pre-stored mobile phone number information; sending (S204) current information on the local hardware to the server; receiving (S205) an identity verification instruction from a server; in response to the identity verification instruction, determining (S206) information on local hardware and first pre-stored mobile phone number information, wherein the first pre-stored mobile phone number information is mobile phone number information pre-stored locally; sending (S207), to the server, the information on the local hardware and the first pre-stored mobile phone number information as identity information to be verified; and receiving (S208) a verification result generated by the server in dependence on the identity information to be verified and pre-stored identity information, wherein the pre-stored identity information includes second pre-stored mobile phone number information and the current information on local hardware, and the second pre-stored mobile phone number information is the mobile phone number determined based on the short message at the server.
Spinal cord stimulation system which comprises: a. An electrode with a diameter ≤ 1.3 mm, consisting essentially of a plurality of poles , suitable for being inserted inside the intradural space ; b. Unit , connected to the electrode, configured to systematically read the impedance of the poles when the electrode is going through the dura matter , and to generate electric current; and c. A computer comprising a processing unit configured to: i. Receive, from the unit , continuous impedance readings of each pole when the electrode is going through the dura matter , ii. Process the impedance readings received for finding a statistically significant variation or deviation of the impedance, and iii. Wherein the computer comprising a processing unit is characterized in that it is further configured to provide an output through a terminal and give instructions to unit to apply electric current inside the intradural space , when a statistically significant reduction of the impedance of a specific pole is identified, which indicates that the pole has gone through the dura mater and is placed in the intradural space at the inner part of the dura mater-arachnoid . a. An electrode with a diameter ≤ 1.3 mm, consisting essentially of a plurality of poles , suitable for being inserted inside the intradural space ; b. Unit , connected to the electrode, configured to systematically read the impedance of the poles when the electrode is going through the dura matter , and to generate electric current; and c. A computer comprising a processing unit configured to: i. Receive, from the unit , continuous impedance readings of each pole when the electrode is going through the dura matter , ii. Process the impedance readings received for finding a statistically significant variation or deviation of the impedance, and iii. Wherein the computer comprising a processing unit is characterized in that it is further configured to provide an output through a terminal and give instructions to unit to apply electric current inside the intradural space , when a statistically significant reduction of the impedance of a specific pole is identified, which indicates that the pole has gone through the dura mater and is placed in the intradural space at the inner part of the dura mater-arachnoid . i. Receive, from the unit , continuous impedance readings of each pole when the electrode is going through the dura matter , ii. Process the impedance readings received for finding a statistically significant variation or deviation of the impedance, and iii. Wherein the computer comprising a processing unit is characterized in that it is further configured to provide an output through a terminal and give instructions to unit to apply electric current inside the intradural space , when a statistically significant reduction of the impedance of a specific pole is identified, which indicates that the pole has gone through the dura mater and is placed in the intradural space at the inner part of the dura mater-arachnoid .
A method of forming patterns for a large area liquid crystal device, comprising: preparing a large area liquid crystal device which includes a substrate, a conductive layer provided on the substrate, and a liquid crystal alignment film provided on the conductive layer; and exposing one area of the substrate by delaminating one area of the conductive layer and the liquid crystal alignment film by irradiating a laser to the large area liquid crystal device; wherein the laser is irradiated from the liquid crystal alignment film toward the conductive layer and the laser is a Q switching IR laser having a beam diameter of 1 mm or larger and 16 mm or smaller and an energy per pulse of 0.05 J or higher and 2.5 J or lower. preparing a large area liquid crystal device which includes a substrate, a conductive layer provided on the substrate, and a liquid crystal alignment film provided on the conductive layer; and exposing one area of the substrate by delaminating one area of the conductive layer and the liquid crystal alignment film by irradiating a laser to the large area liquid crystal device; wherein the laser is irradiated from the liquid crystal alignment film toward the conductive layer and the laser is a Q switching IR laser having a beam diameter of 1 mm or larger and 16 mm or smaller and an energy per pulse of 0.05 J or higher and 2.5 J or lower.
A storage device configured for hardware verification comprising: a first hardware component comprising a connector and a first verification logic , the first verification logic configured to detect a criterion and generate a first signal via the connector in response to detecting the criterion, wherein the criterion is detecting start of a reset period when a device is inserted into a slot of a computer system without stopping or shutting down the system; and a second hardware component coupled to the first hardware component via the connector , the second hardware component comprising a second verification logic , the second verification logic configured to monitor and receive the first signal via the connector , wherein in response to receiving the first signal, the second verification logic is configured to compare the received first signal to an expected signal and generate a result, wherein the storage device is configured to take an action in response to the result. a first hardware component comprising a connector and a first verification logic , the first verification logic configured to detect a criterion and generate a first signal via the connector in response to detecting the criterion, wherein the criterion is detecting start of a reset period when a device is inserted into a slot of a computer system without stopping or shutting down the system; and a second hardware component coupled to the first hardware component via the connector , the second hardware component comprising a second verification logic , the second verification logic configured to monitor and receive the first signal via the connector , wherein in response to receiving the first signal, the second verification logic is configured to compare the received first signal to an expected signal and generate a result, wherein the storage device is configured to take an action in response to the result.
A manufacturing method of oxidation resistant alloy , the method comprising: producing a first formed member by applying compression forming to metal powder; producing a second formed member by applying compression forming to the first formed member in a state in which the first formed member is entirely covered with alloy powder different from the metal powder; producing a third formed member by applying compression forming to the second formed member in a state in which the second formed member is covered with oxide powder or ceramic precursor powder, wherein the compression forming to produce the third formed member is conducted without melting the oxide powder; and sintering the third formed member thereby producing the oxidation resistant alloy , wherein oxidation resistance of a major constituent of the alloy powder is higher than oxidation resistance of a major constituent of the metal powder, wherein the oxidation resistance is measured as specified in the description, wherein applying the compression forming to the first formed member comprises: producing a piece member through compression forming to the alloy powder; supporting the first formed member using the piece member ; and covering the first formed member with the alloy powder. producing a first formed member by applying compression forming to metal powder; producing a second formed member by applying compression forming to the first formed member in a state in which the first formed member is entirely covered with alloy powder different from the metal powder; producing a third formed member by applying compression forming to the second formed member in a state in which the second formed member is covered with oxide powder or ceramic precursor powder, wherein the compression forming to produce the third formed member is conducted without melting the oxide powder; and sintering the third formed member thereby producing the oxidation resistant alloy , wherein oxidation resistance of a major constituent of the alloy powder is higher than oxidation resistance of a major constituent of the metal powder, wherein the oxidation resistance is measured as specified in the description, producing a piece member through compression forming to the alloy powder; supporting the first formed member using the piece member ; and covering the first formed member with the alloy powder.
A refrigeration cycle apparatus comprising: a refrigerant circuit in which refrigerant circulates in the order of a compressor , an oil separator , a first heat exchanger , a decompressing apparatus , and a second heat exchanger and returns to the compressor ; an oil reservoir configured to store refrigeration oil; a first pipe that connects the oil separator and the oil reservoir , the first pipe being configured to send the refrigeration oil separated by the oil separator to the oil reservoir ; a second pipe that connects the oil reservoir and a suction side of the compressor ; a third pipe that connects the oil reservoir and the suction side of the compressor at a position lower than a position at which the second pipe is connected to the oil reservoir ; and a heater configured to heat the refrigeration oil separated by the oil separator ; characterized in that the refrigeration cycle apparatus further comprises: a temperature sensor configured to detect a temperature of the oil reservoir ; and a controller configured to control the heater to heat the refrigeration oil when the temperature detected by the temperature sensor is lower than a defined temperature, wherein the heater is installed at the first pipe . a refrigerant circuit in which refrigerant circulates in the order of a compressor , an oil separator , a first heat exchanger , a decompressing apparatus , and a second heat exchanger and returns to the compressor ; an oil reservoir configured to store refrigeration oil; a first pipe that connects the oil separator and the oil reservoir , the first pipe being configured to send the refrigeration oil separated by the oil separator to the oil reservoir ; a second pipe that connects the oil reservoir and a suction side of the compressor ; a third pipe that connects the oil reservoir and the suction side of the compressor at a position lower than a position at which the second pipe is connected to the oil reservoir ; and a heater configured to heat the refrigeration oil separated by the oil separator ; characterized in that the refrigeration cycle apparatus further comprises: a temperature sensor configured to detect a temperature of the oil reservoir ; and a controller configured to control the heater to heat the refrigeration oil when the temperature detected by the temperature sensor is lower than a defined temperature, wherein the heater is installed at the first pipe . a temperature sensor configured to detect a temperature of the oil reservoir ; and a controller configured to control the heater to heat the refrigeration oil when the temperature detected by the temperature sensor is lower than a defined temperature, wherein the heater is installed at the first pipe .
A computer implemented method for obtaining at least one physical property of a subsurface volume of a hydrocarbon reservoir over time, the subsurface volume comprising a porous medium containing at least one fluid, the method being carried out by a system for obtaining at least one physical property of a subsurface volume of a hydrocarbon reservoir over time, said method comprising the following steps: - obtaining observed data representative of a fluid saturation in the subsurface volume over time, - mapping a location of at least one observed fluid front over time from the observed data, - obtaining simulated data representative of the fluid saturation in the subsurface volume over time using at least one reservoir model , - mapping a location of at least one simulated fluid front over time from the simulated data, - obtaining simulated fluid flow streamlines in the subsurface volume over time from a flow simulator , characterized by - computing a cost function representing a mismatch between the observed data and the simulated data by calculating at least one shortest distance (d) among a plurality of distances (d) along a corresponding plurality of simulated fluid flow streamlines , each of said simulated fluid flow streamlines connecting a same first location of the observed fluid front to a same second location of the simulated fluid front , - minimizing said cost function, - obtaining the at least one physical property of the subsurface model over time. - obtaining observed data representative of a fluid saturation in the subsurface volume over time, - mapping a location of at least one observed fluid front over time from the observed data, - obtaining simulated data representative of the fluid saturation in the subsurface volume over time using at least one reservoir model , - mapping a location of at least one simulated fluid front over time from the simulated data, - obtaining simulated fluid flow streamlines in the subsurface volume over time from a flow simulator , characterized by - computing a cost function representing a mismatch between the observed data and the simulated data by calculating at least one shortest distance (d) among a plurality of distances (d) along a corresponding plurality of simulated fluid flow streamlines , each of said simulated fluid flow streamlines connecting a same first location of the observed fluid front to a same second location of the simulated fluid front , - minimizing said cost function, - obtaining the at least one physical property of the subsurface model over time.