mhurhangee/ep-ind-claims huggingface dataset:
A blood processing system comprising: a blood separator (24, 114) configured to separate plasma from blood and provided with a plasma flow path (36, 130, 136) for the flow of the separated plasma; and an optical sensor system (40, 172, 172a), wherein the optical sensor system comprises: a blue and/or ultraviolet light source (42, 182, 182a, 182b) configured to pass a blue and/or ultraviolet light through separated plasma in the plasma flow path (36, 130, 136); and a light detector (44, 184, 184a, 184b) configured to receive at least a portion of said blue and/or ultraviolet light passing through the separated plasma and generate a signal indicative of lipid content in the separated plasma in the plasma flow path (36, 130, 136). a blood separator (24, 114) configured to separate plasma from blood and provided with a plasma flow path (36, 130, 136) for the flow of the separated plasma; and an optical sensor system (40, 172, 172a), wherein the optical sensor system comprises: a blue and/or ultraviolet light source (42, 182, 182a, 182b) configured to pass a blue and/or ultraviolet light through separated plasma in the plasma flow path (36, 130, 136); and a light detector (44, 184, 184a, 184b) configured to receive at least a portion of said blue and/or ultraviolet light passing through the separated plasma and generate a signal indicative of lipid content in the separated plasma in the plasma flow path (36, 130, 136). a blue and/or ultraviolet light source (42, 182, 182a, 182b) configured to pass a blue and/or ultraviolet light through separated plasma in the plasma flow path (36, 130, 136); and a light detector (44, 184, 184a, 184b) configured to receive at least a portion of said blue and/or ultraviolet light passing through the separated plasma and generate a signal indicative of lipid content in the separated plasma in the plasma flow path (36, 130, 136).
An elevator system, comprising: a sensor system configured to sense elevator car conditions; a safety system signaling element to generate a safety signal indicative of an incident; and a control system configured to react to the safety system signal; characterized in that when the control system receives the safety signal indicating that an incident has occurred that requires engagement of one of primary and secondary brakes (111, 222), the control system controls a deceleration rate during the incident by: operating the primary brake (111, 222), determining whether the deceleration rate is within a target range, and adjusting the deceleration rate based on signals from the sensor system by adjusting the operating of a driving machine or a braking assembly as the primary brake in an event the deceleration rate is above the target range and operating the other of the driving machine or the braking assembly as the secondary brake in an event the deceleration rate is below the target range (7022, 7023, 7024). a sensor system configured to sense elevator car conditions; a safety system signaling element to generate a safety signal indicative of an incident; and a control system configured to react to the safety system signal; characterized in that when the control system receives the safety signal indicating that an incident has occurred that requires engagement of one of primary and secondary brakes (111, 222), the control system controls a deceleration rate during the incident by: operating the primary brake (111, 222), determining whether the deceleration rate is within a target range, and adjusting the deceleration rate based on signals from the sensor system by adjusting the operating of a driving machine or a braking assembly as the primary brake in an event the deceleration rate is above the target range and operating the other of the driving machine or the braking assembly as the secondary brake in an event the deceleration rate is below the target range (7022, 7023, 7024). operating the primary brake (111, 222), determining whether the deceleration rate is within a target range, and adjusting the deceleration rate based on signals from the sensor system by adjusting the operating of a driving machine or a braking assembly as the primary brake in an event the deceleration rate is above the target range and operating the other of the driving machine or the braking assembly as the secondary brake in an event the deceleration rate is below the target range (7022, 7023, 7024).
A heavy-current transformer, in particular for a power source in order to provide a welding current of a resistance welding device, with at least one primary winding and at least one secondary winding with center tapping, characterized in that at least four contacts (20, 21, 22, 23) are provided to form a multi-point contacting, whereby the welding current is at least halved and the contact losses are thus reduced, said contacts (20, 21, 22, 23) being formed by four contact faces within which the at least one primary winding and the at least one secondary winding are arranged in a series/parallel connection.
A booster comprising: a booster circuit configured to generate a boosted output at an output terminal, the boosted output being obtained by boosting an input voltage from a main power source as a target to be boosted, and to feed back to the booster circuit all or part of the boosted output as an operation energy necessary for continuing an operation of the booster circuit, characterized in that the booster further comprises a power supply unit, different from the main power source, configured to supply start-up energy necessary for starting up the booster circuit to the booster circuit, and the booster circuit further comprises an electric pathway between the output terminal of the booster circuit and the power supply unit to output all or a part of the boosted output from the booster circuit to the power supply unit through a rectifier element connected between the output terminal of the booster circuit and the power supply unit in a forward direction, the power supply unit being a rechargeable secondary cell arranged to store the all or part of the boosted output which is output to the power supply unit. a booster circuit configured to generate a boosted output at an output terminal, the boosted output being obtained by boosting an input voltage from a main power source as a target to be boosted, and to feed back to the booster circuit all or part of the boosted output as an operation energy necessary for continuing an operation of the booster circuit, characterized in that the booster further comprises a power supply unit, different from the main power source, configured to supply start-up energy necessary for starting up the booster circuit to the booster circuit, and the booster circuit further comprises an electric pathway between the output terminal of the booster circuit and the power supply unit to output all or a part of the boosted output from the booster circuit to the power supply unit through a rectifier element connected between the output terminal of the booster circuit and the power supply unit in a forward direction, the power supply unit being a rechargeable secondary cell arranged to store the all or part of the boosted output which is output to the power supply unit.
An implantable skin piercing device for connecting an external tube to a catheter tube that can be placed inside the human or animal body, comprising: a substantially cylindrical base body with an upper region facing away from the body in the implanted state and a lower region facing the body in the implanted state, wherein the base body is provided in its lower region with a subcutaneous anchorage intended for subcutaneous insertion and wherein upper connection means for connecting the external tube and lower connection means for connecting the catheter tube are available, characterized in that the subcutaneous anchorage is formed from a plurality of fixing tabs articulated on the base body, and wherein the fixing tabs are pivotable from a radially downwards folded insertion position into a radially outwards folded holding position, and the lower connection means comprise an adapter piece for the catheter tube which can be inserted into the base body and which cooperates with the fixing tabs in such manner that in an inserted lower stop position, it fixes the fixing tabs in the radially outwards folded holding position. the subcutaneous anchorage is formed from a plurality of fixing tabs articulated on the base body, and wherein the fixing tabs are pivotable from a radially downwards folded insertion position into a radially outwards folded holding position, and the lower connection means comprise an adapter piece for the catheter tube which can be inserted into the base body and which cooperates with the fixing tabs in such manner that in an inserted lower stop position, it fixes the fixing tabs in the radially outwards folded holding position.
A hot blow forming method for an aluminum alloy sheet comprising: carrying out hot blow forming for the aluminum alloy sheet using a first metal mold, which is a female mold for forming having a protruding surface portion on an inside surface thereof, and a second metal mold for gas introduction, wherein, immediately prior to the hot blow forming, a temperature of the aluminum alloy sheet and a temperature of the first metal mold satisfy a relation - ≥ 30 °C, and the temperature is equal to or more than 400 °C, wherein a temperature of the second metal mold immediately prior to the hot blow forming is lower than a melting point of the aluminum alloy sheet and is equal to or higher than the temperature, wherein, in the hot blow forming, the aluminum alloy sheet is brought into contact with at least a part of the protruding surface portion of the first metal mold within 30 seconds from a start of gas introduction from the second metal mold, wherein the aluminum alloy sheet is an aluminum alloy sheet comprising, by mass%, 1.1 to 6.5% Mg, 0.01 to 0.3% Fe, and a balance A1 and inevitable impurities, and wherein the temperature is equal to or lower than 550 °C. carrying out hot blow forming for the aluminum alloy sheet using a first metal mold, which is a female mold for forming having a protruding surface portion on an inside surface thereof, and a second metal mold for gas introduction, wherein, immediately prior to the hot blow forming, a temperature of the aluminum alloy sheet and a temperature of the first metal mold satisfy a relation - ≥ 30 °C, and the temperature is equal to or more than 400 °C, wherein a temperature of the second metal mold immediately prior to the hot blow forming is lower than a melting point of the aluminum alloy sheet and is equal to or higher than the temperature, wherein, in the hot blow forming, the aluminum alloy sheet is brought into contact with at least a part of the protruding surface portion of the first metal mold within 30 seconds from a start of gas introduction from the second metal mold, wherein the aluminum alloy sheet is an aluminum alloy sheet comprising, by mass%, 1.1 to 6.5% Mg, 0.01 to 0.3% Fe, and a balance A1 and inevitable impurities, and wherein the temperature is equal to or lower than 550 °C.
A heat radiation arrangement, comprising: a substrate having a first surface on which a heating element is installed; and a heat radiating member that abuts a surface of the heating element via a thermal conductive member, said surface of the heating element being on an opposite side with respect to a side of said first surface of the substrate; and a casing which includes a top plate to which the substrate and the heat radiating member are attached, wherein the heat radiating member is secured to the top plate of the casing at a location that is closer to locations at which the substrate is secured to the top plate of the casing than to an outer edge portion of the top plate of the casing in order to prevent the warpage of the substrate, the thermal conductive member is a thermal conductive elastic member, the substrate is secured to the top plate of the casing within a region between two extended sides and on opposite sides of the heating element when viewed in a direction perpendicular to the first surface, these two extended sides being defined by extending two opposite sides of the heating element, which form outer edges of the heating element, toward outer edges of said first surface of the substrate, the heat radiating member is further secured to the top plate of the casing at said outer edge portion thereof, and the top plate of the casing is provided with an opening portion (21a, 21h, 21k) and the top plate has the substrate at one side and the heat radiating member at the other side. a substrate having a first surface on which a heating element is installed; and a heat radiating member that abuts a surface of the heating element via a thermal conductive member, said surface of the heating element being on an opposite side with respect to a side of said first surface of the substrate; and a casing which includes a top plate to which the substrate and the heat radiating member are attached, wherein the heat radiating member is secured to the top plate of the casing at a location that is closer to locations at which the substrate is secured to the top plate of the casing than to an outer edge portion of the top plate of the casing in order to prevent the warpage of the substrate, the thermal conductive member is a thermal conductive elastic member, the substrate is secured to the top plate of the casing within a region between two extended sides and on opposite sides of the heating element when viewed in a direction perpendicular to the first surface, these two extended sides being defined by extending two opposite sides of the heating element, which form outer edges of the heating element, toward outer edges of said first surface of the substrate, the heat radiating member is further secured to the top plate of the casing at said outer edge portion thereof, and the top plate of the casing is provided with an opening portion (21a, 21h, 21k) and the top plate has the substrate at one side and the heat radiating member at the other side.
Radiating surface structure for controlling the temperature of a room, comprising at least one ceiling radiating panel with one or more pipes of a pipe register through which a heat transfer medium and/or cold transfer medium flows, comprising at least one inner radiating panel and a radiating panel laid into a baffle, which in the installed position are facing the room of which the temperature is to be controlled, comprising a thermal insulation, which in the installed position extends to above the pipe register, and side-wall elements, between which the pipe register is arranged and which laterally terminate an interior space, wherein at least one side-wall element has in the installed position a vertically upwardly running side-wall portion, which has a portion that runs horizontally as a result of a bending and extends over the heat insulation, characterized in that - the side-wall portion of the side-wall element has at least in certain portions on the side facing away from the pipe register a coating of thermally insulating and sound-absorbing material, - the coating is exposed on the side facing away from the pipe register and can be retrofitted and adhesively attached releasably to the side-wall portion, and - the side-wall element has a portion that runs to a pipe of the pipe register and is formed as a radiating panel that does not have a thermally insulating and sound-absorbing coating. - the side-wall portion of the side-wall element has at least in certain portions on the side facing away from the pipe register a coating of thermally insulating and sound-absorbing material, - the coating is exposed on the side facing away from the pipe register and can be retrofitted and adhesively attached releasably to the side-wall portion, and - the side-wall element has a portion that runs to a pipe of the pipe register and is formed as a radiating panel that does not have a thermally insulating and sound-absorbing coating.
Rail vehicle carriage comprising - a carriage body, - interior-space delimiting elements, which are arranged within the carriage body and outwardly delimit an interior space of the rail carriage body arranged within the carriage body, and - at least one temperature sensor for determining an interior-space temperature, an air-guiding unit (20, 42, 50, 58, 70), which has - an intake opening for locally taking in air from the interior space and also - an air-guiding duct for discharging the taken-in air from the interior space and - a fan (30, 52, 60, 74) for predetermining a direction of flow for air through the air-guiding duct, characterized in that the temperature sensor is arranged in the air-guiding duct and/or at the end of the air-guiding duct in the direction of flow of the air, and in that the fan (30, 52, 60, 74) is arranged in an intermediate space between the interior-space delimiting elements and the carriage body or in a cavity within the carriage body. - a carriage body, - interior-space delimiting elements, which are arranged within the carriage body and outwardly delimit an interior space of the rail carriage body arranged within the carriage body, and - at least one temperature sensor for determining an interior-space temperature, - an intake opening for locally taking in air from the interior space and also - an air-guiding duct for discharging the taken-in air from the interior space and - a fan (30, 52, 60, 74) for predetermining a direction of flow for air through the air-guiding duct, the temperature sensor is arranged in the air-guiding duct and/or at the end of the air-guiding duct in the direction of flow of the air, and in that the fan (30, 52, 60, 74) is arranged in an intermediate space between the interior-space delimiting elements and the carriage body or in a cavity within the carriage body.
A method for transferring sheets, in particular of paper, cardboard or plastic, at a sheet transfer point from a sheet feeder of a sheet punching and/or embossing machine to grippers of intermittently rotating gripper carriages of a sheet transport system of the sheet punching and/or embossing machine, wherein each gripper has a gripper pad and a gripper arm, comprising the following steps: a) feeding a sheet by the sheet feeder, b) opening the grippers of a gripper carriage by moving (v) lower gripper pads in a retracted position, c) conveying the sheet to the sheet transfer point and aligning the sheet, d) conveying the gripper carriage collision-free to the sheet transfer point, e) stopping the gripper carriage, f) closing the grippers, g) transporting the sheet through the machine by continuously moving the gripper carriages. a) feeding a sheet by the sheet feeder, b) opening the grippers of a gripper carriage by moving (v) lower gripper pads in a retracted position, c) conveying the sheet to the sheet transfer point and aligning the sheet, d) conveying the gripper carriage collision-free to the sheet transfer point, e) stopping the gripper carriage, f) closing the grippers, g) transporting the sheet through the machine by continuously moving the gripper carriages.
A dietary supplement composition consisting of: (i) a non-encapsulated iron salt suspended in (ii) a carrier consisting of a digestible edible oil that is a liquid at 20°C; and (iii) optionally including at least one supplemental nutrient, wherein the non-encapsulated iron salt is ferrous fumarate, and the digestible edible oil is a medium chain triglyceride oil.
A sensing device comprising: a light source to emit light; a light sensor to detect reflection of the light emitted by the light source, the light sensor having a photodetector with a photocharge storage capacity in excess of one electron, the photodetector including a pinned photodiode, a floating diffusion node having a pinning region therein, and a transfer gate to enable formation of a conductive channel between the pinned photodiode and the floating diffusion node; an output circuit to generate an output signal that transitions between voltage levels in response to and within 100 nanoseconds of photonic detection, within the photodetector, of the reflection of the light emitted by the light source; and a distance determination circuitry to measure an elapsed time based on the output signal transition in response to the photonic detection and to determine, based on the elapsed time, a distance between the sensing device and a surface that yielded the reflection of the light emitted by the light source. a light source to emit light; a light sensor to detect reflection of the light emitted by the light source, the light sensor having a photodetector with a photocharge storage capacity in excess of one electron, the photodetector including a pinned photodiode, a floating diffusion node having a pinning region therein, and a transfer gate to enable formation of a conductive channel between the pinned photodiode and the floating diffusion node; an output circuit to generate an output signal that transitions between voltage levels in response to and within 100 nanoseconds of photonic detection, within the photodetector, of the reflection of the light emitted by the light source; and a distance determination circuitry to measure an elapsed time based on the output signal transition in response to the photonic detection and to determine, based on the elapsed time, a distance between the sensing device and a surface that yielded the reflection of the light emitted by the light source.
An input device comprising: a key assembly including a plurality of keys that are usable to initiate respective inputs for a computing device; a connection portion configured to be removably connected to the computing device physically and communicatively to communicate signals generated by the plurality of keys to the computing device; and an outer layer that is configured to cover the plurality of keys of the key assembly, characterized in that the outer layer having a plurality of areas that are embossed thereon to form a plurality of depressions (2302, 2304) that indicate one or more borders of respective said keys. a key assembly including a plurality of keys that are usable to initiate respective inputs for a computing device; a connection portion configured to be removably connected to the computing device physically and communicatively to communicate signals generated by the plurality of keys to the computing device; and an outer layer that is configured to cover the plurality of keys of the key assembly, characterized in that the outer layer having a plurality of areas that are embossed thereon to form a plurality of depressions (2302, 2304) that indicate one or more borders of respective said keys.