mhurhangee/ep-ind-claims huggingface dataset:
A method for securing a wearable electronic device, the method comprising, on the wearable electronic device: determining whether the wearable electronic device is currently being worn by a user based on determining whether a pulse of the user is present; when the pulse of the user is determined not to be present, securing the wearable electronic device; and when the pulse of the user is determined to be present: determining whether the wearable electronic device is still being worn by the user by periodically checking for a proximity of the user's skin to the wearable electronic device without performing a pulse detection operation; when, during a periodic check, the user's skin is determined not to be proximal to the wearable electronic device, performing a second pulse detection operation; and when the second pulse detection operation fails, securing the wearable electronic device. determining whether the wearable electronic device is currently being worn by a user based on determining whether a pulse of the user is present; when the pulse of the user is determined not to be present, securing the wearable electronic device; and when the pulse of the user is determined to be present: determining whether the wearable electronic device is still being worn by the user by periodically checking for a proximity of the user's skin to the wearable electronic device without performing a pulse detection operation; when, during a periodic check, the user's skin is determined not to be proximal to the wearable electronic device, performing a second pulse detection operation; and when the second pulse detection operation fails, securing the wearable electronic device. determining whether the wearable electronic device is still being worn by the user by periodically checking for a proximity of the user's skin to the wearable electronic device without performing a pulse detection operation; when, during a periodic check, the user's skin is determined not to be proximal to the wearable electronic device, performing a second pulse detection operation; and when the second pulse detection operation fails, securing the wearable electronic device.
A distributed control system comprising: a plurality of control devices (11, 12, 20); a process IO master device shared by the control devices (11, 12, 20) and including an output authority table and an output data memory having areas for storing data outputted from the control devices (11, 12, 20); and a plurality of process IO modules (100 - 110) connected to the process IO master device and each connectable to a sensor and an actuator (200 - 210), characterized in that the process IO master device and the process IO modules (100 - 110) are connected to each other via a field bus, and wherein the process IO modules (100 - 110) and the sensors and actuators (200 - 210) are respectively connectable to each other via process signal lines, and in that the output authority table provides an authority for determining the control device (11, 12, 20) of which output data is to be adopted and used as actual output data, for each of addresses corresponding to the actuators (200 - 210) and the areas. a plurality of control devices (11, 12, 20); a process IO master device shared by the control devices (11, 12, 20) and including an output authority table and an output data memory having areas for storing data outputted from the control devices (11, 12, 20); and a plurality of process IO modules (100 - 110) connected to the process IO master device and each connectable to a sensor and an actuator (200 - 210), characterized in that the process IO master device and the process IO modules (100 - 110) are connected to each other via a field bus, and wherein the process IO modules (100 - 110) and the sensors and actuators (200 - 210) are respectively connectable to each other via process signal lines, and in that the output authority table provides an authority for determining the control device (11, 12, 20) of which output data is to be adopted and used as actual output data, for each of addresses corresponding to the actuators (200 - 210) and the areas.
A method for producing a superconductive conductor (30, 40), comprising, in a following order: preparing a plurality of deposition substrates and a connection base material to be connected with and to be integrated with the plurality of deposition substrates; integrating the plurality of deposition substrates with the connection base material; and depositing a superconductive layer and a protective layer on each of the plurality of deposition substrates. preparing a plurality of deposition substrates and a connection base material to be connected with and to be integrated with the plurality of deposition substrates; integrating the plurality of deposition substrates with the connection base material; and depositing a superconductive layer and a protective layer on each of the plurality of deposition substrates.
A method comprising: determining, by one or more processors, a set of routes from a start location to an end location, each route of the set of routes comprising one or more portions; for each given route of the set of routes, determining, by the one or more processors, a total motion sickness value based on a sway motion sickness value relating to a lateral acceleration of a vehicle, a surge motion sickness value relating to a fore-aft acceleration of the vehicle, and a heave motion sickness value relating to a vertical acceleration of the vehicle for each of the one or more portions of the given route, wherein the total motion sickness value for a route reflects a likelihood that a user will experience motion sickness while in the vehicle along the route; selecting, by the one or more processors, a first route of the set of routes based on the total motion sickness value of each route of the set of routes; and maneuvering, by the one or more processors, the vehicle according to the first route. determining, by one or more processors, a set of routes from a start location to an end location, each route of the set of routes comprising one or more portions; for each given route of the set of routes, determining, by the one or more processors, a total motion sickness value based on a sway motion sickness value relating to a lateral acceleration of a vehicle, a surge motion sickness value relating to a fore-aft acceleration of the vehicle, and a heave motion sickness value relating to a vertical acceleration of the vehicle for each of the one or more portions of the given route, wherein the total motion sickness value for a route reflects a likelihood that a user will experience motion sickness while in the vehicle along the route; selecting, by the one or more processors, a first route of the set of routes based on the total motion sickness value of each route of the set of routes; and maneuvering, by the one or more processors, the vehicle according to the first route.
An electromagnetic shielding material having a structure in which at least three metal foils are laminated via insulating layers, the electromagnetic shielding material having a thickness of each insulating layer of 80 μm or more and a total thickness of the metal foils of from 15 to 150 μm, wherein all of combinations of the metal foils and the insulating layers making up the electromagnetic shielding material satisfy the equation: σ M × d M × d R ≥ 3 × 10 -3, in which: the symbol σ M represents conductivity of each metal foil at 20 °C (S/m); the symbol d M represents the thickness of each metal foil (m); and the symbol d R represents the thickness of each insulating layer (m). the symbol σ M represents conductivity of each metal foil at 20 °C (S/m); the symbol d M represents the thickness of each metal foil (m); and the symbol d R represents the thickness of each insulating layer (m).
A decorator assembly comprising: a mandrel turret assembly including a rotatable turret, a number of mandrels, and a number of independent ink stations; said turret structured to rotate about a turret axis of rotation; each said mandrel rotatably coupled to said turret, each said mandrel extending generally radially from said turret, said mandrels disposed generally in a plane about the turret axis of rotation whereby each said mandrel moves over a generally circular path of travel, and each said independent ink station disposed adjacent to the path of travel of said mandrels. a mandrel turret assembly including a rotatable turret, a number of mandrels, and a number of independent ink stations; said turret structured to rotate about a turret axis of rotation; each said mandrel rotatably coupled to said turret, each said mandrel extending generally radially from said turret, said mandrels disposed generally in a plane about the turret axis of rotation whereby each said mandrel moves over a generally circular path of travel, and each said independent ink station disposed adjacent to the path of travel of said mandrels.
A method for reducing formation of oligomers and homopolymers comprising contacting a composition comprising at least one fluoroolefin with an amount of at least one member selected from the group consisting of limonene, α-terpinene, and α-tocopherol, wherein the amount of the at least one member preferably is from about 10 ppm to about 2,000 ppm by weight, wherein the at least one fluoroolefin comprises at least one selected from the group consisting of HFO-1234yf and HFO-1234ze, and wherein the composition has been exposed to at least one of air, oxygen, cumene hydroperoxide, and fluoroolefin polyperoxides, peroxides, hydroperoxides, persulfates, percarbonates, perborates and hydropersulfates before said contacting. wherein the amount of the at least one member preferably is from about 10 ppm to about 2,000 ppm by weight, wherein the at least one fluoroolefin comprises at least one selected from the group consisting of HFO-1234yf and HFO-1234ze, and wherein the composition has been exposed to at least one of air, oxygen, cumene hydroperoxide, and fluoroolefin polyperoxides, peroxides, hydroperoxides, persulfates, percarbonates, perborates and hydropersulfates before said contacting.
An inertial measurement device comprising a housing, a plate connected to the housing via a first stage of suspension, an inertial measurement unit comprising vibrating sensors having predetermined first resonant modes of vibration and mounted on the plate via a second stage of suspension, the first stage having four resilient suspension elements (11, 12, 13, 14); characterized in that the first stage has a resonant frequency lower than a bandwidth of the inertial measurement unit, and the second stage has a resonant frequency higher than a resonant frequency of the first stage and lower than the first resonant modes of the vibrating sensors, wherein the first stage has a center of stiffness corresponding substantially to the center of gravity of the assembly formed by the plate, the second stage, and the inertial measurement unit; and wherein the second stage has one to three resilient suspension elements (21, 22, 23)
An exhaust gas analysis apparatus comprising: an exhaust gas flow channel configured to permit passage of exhaust gas of an internal combustion engine and provided with an analysis device, which is a filter that captures particulate matter, PM, contained in the exhaust gas or an exhaust gas analysis apparatus which continuously measures the exhaust gas of the internal combustion engine; a pump disposed downstream of the analysis device in the exhaust gas flow channel; and a heat exchanger configured to receive at least one of heat of the pump and heat of exhaust gas passing downstream of the pump, and to use the heat to heat exhaust gas passing between the pump and the analysis device in the exhaust gas flow channel, characterized in that the heat exchanger comprises: a downstream-side heat transfer part located downstream of the pump in the exhaust gas flow channel; and an upstream-side heat transfer part located between the pump and the analysis device in the exhaust gas flow channel and in contact with the downstream-side heat transfer part, wherein a surface of the upstream-side heat transfer part which is opposed to the downstream-side heat transfer part is formed as a heat receiving surface, and the entirety or a part of a side surface of the downstream-side heat transfer part which is opposed to the upstream-side heat transfer part is in contact with the heat receiving surface. an exhaust gas flow channel configured to permit passage of exhaust gas of an internal combustion engine and provided with an analysis device, which is a filter that captures particulate matter, PM, contained in the exhaust gas or an exhaust gas analysis apparatus which continuously measures the exhaust gas of the internal combustion engine; a pump disposed downstream of the analysis device in the exhaust gas flow channel; and a heat exchanger configured to receive at least one of heat of the pump and heat of exhaust gas passing downstream of the pump, and to use the heat to heat exhaust gas passing between the pump and the analysis device in the exhaust gas flow channel, a downstream-side heat transfer part located downstream of the pump in the exhaust gas flow channel; and an upstream-side heat transfer part located between the pump and the analysis device in the exhaust gas flow channel and in contact with the downstream-side heat transfer part, wherein a surface of the upstream-side heat transfer part which is opposed to the downstream-side heat transfer part is formed as a heat receiving surface, and the entirety or a part of a side surface of the downstream-side heat transfer part which is opposed to the upstream-side heat transfer part is in contact with the heat receiving surface.
A voltage source converter for use in high voltage DC power transmission and reactive power compensation, the voltage source converter comprising at least one converter limb including first and second DC terminals (36, 38) for connection in use to a DC network and an AC terminal for connection in use to an AC network, the or each converter limb defining first and second limb portions (34a, 34b), each limb portion including at least one switching element and in addition a chain link-converter, said at least one switching element being connected in series with said chain-link converter between a respective one of the first and second DC terminals and the AC terminal, the switching elements of the first and second limb portions being operable to switch the respective chain-link converters in and out of circuit between the respective DC terminal and the AC terminal and the chain-link converters being operable to generate a voltage waveform at the AC terminal.
Charge transfer image sensor operating by time delay and charge integration, the sensor comprising N adjacent lines of P pixels with a view to an observation of one and the same image line successively by several lines of pixels with a summation of the electric charges generated by an image point in the pixels of the same rank of the various lines, the adjacent pixels of a column each comprising a photodiode (PH i) of width L P diffused in an active semiconducting layer and a storage gate (G i) of width L G made of doped polycrystalline silicon, adjacent to the photodiode of the pixel and adjacent to the photodiode (PH i+1) of a following pixel of the column, characterized in that - the configuration of the doping of the active layer is unique over the whole width L P of the photodiode, - the configuration of the doping of the active layer is unique over the whole width L G of the gate, - and the polycrystalline silicon gate comprises two types of doping which are a doping of a first type of conductivity over a part of the width L G, on the side where the gate is adjacent to the photodiode of the pixel, and a doping of an opposite type of conductivity over another part of the width L G, on the side adjacent to the photodiode of the following pixel, the two parts being carried to the same potential by a metallic conductor which comes into contact with each part. - the configuration of the doping of the active layer is unique over the whole width L P of the photodiode, - the configuration of the doping of the active layer is unique over the whole width L G of the gate, - and the polycrystalline silicon gate comprises two types of doping which are a doping of a first type of conductivity over a part of the width L G, on the side where the gate is adjacent to the photodiode of the pixel, and a doping of an opposite type of conductivity over another part of the width L G, on the side adjacent to the photodiode of the following pixel, the two parts being carried to the same potential by a metallic conductor which comes into contact with each part.
A method for sending a preamble sequence, wherein the method comprises: determining a transmit power for sending a preamble sequence, wherein the transmit power meets the following formula: Power = min P max, PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter + PL, wherein Power is the determined transmit power, P max is a maximum transmit power of user equipment, PL is obtained by estimating according to a downlink path loss, and PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter PREAMBLE is a target receive power of the preamble sequence, and sending the preamble sequence according to the determined transmit power through a preamble sequence resource pool i for coverage enhancement random access, characterized in that: wherein PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter = p r e a m b l e I n i t i a l R e c e i v e d T arg etPower + DELTA _ PREAMBLE − X i + preamble _ transmission _ counter − 1 ∗ powerRampingStep, and preambleInitialReceivedTargetPower is an initial target receive power of the preamble sequence, DELTA_PREAMBLE is a power offset based on a format of the preamble sequence, powerRampingStep is a power ramp step, preamble_transmission_counter is a repetition count for transmitting the preamble sequence, where preamble_transmission_counter ∈ {1, 2,...,preambleTansMax}, and preambleTransMax is a maximum transmission count of the preamble sequence, and X i is a power offset corresponding to the preamble sequence resource pool i. determining a transmit power for sending a preamble sequence, wherein the transmit power meets the following formula: Power = min P max, PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter + PL, wherein Power is the determined transmit power, P max is a maximum transmit power of user equipment, PL is obtained by estimating according to a downlink path loss, and PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter PREAMBLE is a target receive power of the preamble sequence, and sending the preamble sequence according to the determined transmit power through a preamble sequence resource pool i for coverage enhancement random access, characterized in that: wherein PREAMBLE _ RECEIVED _ TARGET _ POWER i preamble _ transmission _ counter = p r e a m b l e I n i t i a l R e c e i v e d T arg etPower + DELTA _ PREAMBLE − X i + preamble _ transmission _ counter − 1 ∗ powerRampingStep, and preambleInitialReceivedTargetPower is an initial target receive power of the preamble sequence, DELTA_PREAMBLE is a power offset based on a format of the preamble sequence, powerRampingStep is a power ramp step, preamble_transmission_counter is a repetition count for transmitting the preamble sequence, where preamble_transmission_counter ∈ {1, 2,...,preambleTansMax}, and preambleTransMax is a maximum transmission count of the preamble sequence, and X i is a power offset corresponding to the preamble sequence resource pool i.
A method for separating, with a multi-stage distillation column, a mixture containing an active hydrogen-containing compound and a compound that reversibly reacts with the active hydrogen-containing compound, the method comprising: distillation-separating the active hydrogen-containing compound and the compound with the multi-stage distillation column in the presence of an intermediate-boiling-point inactive compound that has a normal boiling point between a normal boiling point of the active hydrogen-containing compound and a normal boiling point of the compound and is chemically inactive for the active hydrogen-containing compound and the compound; wherein the active hydrogen-containing compound is at least one compound selected from the group consisting of a hydroxy compound, a thiol, an aromatic thiol, and a hydrogen halide; the compound is an isocyanate and/or an isothiocyanate; and; the intermediate-boiling-point inactive compound is at least one kind of compound selected from the group consisting of: hydrocarbon compounds having a linear, branched or cyclic structure; compounds in which hydrocarbon compounds of the same kind or different kind having a linear, branched or cyclic structure are bonded via an ether bond or a thioether bond; aromatic hydrocarbon compounds that may have a substituent comprising a hydrocarbon group; compounds in which aromatic hydrocarbon compounds of the same kind or different kind are bonded via an ether bond or a thioether bond; compounds in which a hydrocarbon compound having a linear, branched, or cyclic structure is bonded to an aromatic hydrocarbon compound via an ether bond or a thioether bond; and halides in which at least one hydrogen atom constituting a hydrocarbon compound having a linear, branched, or cyclic structure, or at least one hydrogen atom constituting an aromatic hydrocarbon compound that may have a substituent comprising a hydrocarbon group is substituted by a halogen atom. hydrocarbon compounds having a linear, branched or cyclic structure; compounds in which hydrocarbon compounds of the same kind or different kind having a linear, branched or cyclic structure are bonded via an ether bond or a thioether bond; aromatic hydrocarbon compounds that may have a substituent comprising a hydrocarbon group; compounds in which aromatic hydrocarbon compounds of the same kind or different kind are bonded via an ether bond or a thioether bond; compounds in which a hydrocarbon compound having a linear, branched, or cyclic structure is bonded to an aromatic hydrocarbon compound via an ether bond or a thioether bond; and halides in which at least one hydrogen atom constituting a hydrocarbon compound having a linear, branched, or cyclic structure, or at least one hydrogen atom constituting an aromatic hydrocarbon compound that may have a substituent comprising a hydrocarbon group is substituted by a halogen atom.
LIFTING PLATFORM FOR VEHICLES, OF THE PANTOGRAPH TYPE, in which the lifting mechanisms consist of pairs of articulated levers, of the single scissor or double scissor type, which lifts two pads, on which the vehicle sits, by means of one or more drive members, such as oil-hydraulic jacks and where both of the lower ends of the levers of the mechanism rest on the structure of a base block, said lifting platform being characterised in that the upper levers of the pantograph arranged towards the outside are hinged onto a structure, which acts as a support for the support arms, while the upper levers of the pantograph arranged towards the inside do not project above the central articulation hinge of the pantograph.