mhurhangee/ep-ind-claims huggingface dataset:
A structural member used as a frame member in a seat structure for a transport machine, the structural member comprising, in combination: a side frame cover comprising a laminated body provided with a planar member made of cloth and planar members (2, 3) made of synthetic resin laminated on both sides of the planar member made of cloth via adhesive agent and formed in a predetermined shape; and a side frame base body composed of a metal member joined to at least a portion of the laminated body via adhesive agent, wherein the laminated body and the metal member are joined to each other via an adhesive layer formed by impregnating adhesive agent into the planar member made of cloth; the laminated body and the metal member are provided with protruded portions (211a, 212a) that are protruded toward each other when the laminated body and the metal member are made to face each other, one protruded portion being overlapped with any site of the other protruded portion, where the laminated body and the metal member are joined to each other; and the adhesive layer is pulled out beyond a portion where the laminated body and the metal member are overlapped with each other, a pulled-out portion of the adhesive layer and an inner face of the metal member being joined to each other. a side frame cover comprising a laminated body provided with a planar member made of cloth and planar members (2, 3) made of synthetic resin laminated on both sides of the planar member made of cloth via adhesive agent and formed in a predetermined shape; and a side frame base body composed of a metal member joined to at least a portion of the laminated body via adhesive agent, wherein the laminated body and the metal member are joined to each other via an adhesive layer formed by impregnating adhesive agent into the planar member made of cloth; the laminated body and the metal member are provided with protruded portions (211a, 212a) that are protruded toward each other when the laminated body and the metal member are made to face each other, one protruded portion being overlapped with any site of the other protruded portion, where the laminated body and the metal member are joined to each other; and the adhesive layer is pulled out beyond a portion where the laminated body and the metal member are overlapped with each other, a pulled-out portion of the adhesive layer and an inner face of the metal member being joined to each other.
A dispersing agent comprising a mixture of a plurality of polyaromatic hydrocarbon oxides, wherein the mixture includes polyaromatic hydrocarbon oxides having a molecular weight of 300 to 1000 in an amount of 60% by weight or more, wherein the oxygen content is 12 to 50% by weight based on the total element content, when a plurality of polyaromatic hydrocarbon oxides are subjected to elemental analysis.
A method for producing a three-dimensionally deformed plate made of a wood fiber material, wherein a) a prefabricated flat original plate made of wood fiber material is subjected to steam, b) the plate is coated with a separating agent c) the plate is deformed in a molding station and d) the plate is hardened by cooling, characterized in that an MDF-plate with a thickness comprised between 1.0 and 3.0 mm is used as the flat original plate, wherein the deformation is carried out between at least one pair of rollers (6, 7) and wherein a wave shape with a wave height comprised between 6.5 and 50 mm is formed in the plate. a) a prefabricated flat original plate made of wood fiber material is subjected to steam, b) the plate is coated with a separating agent c) the plate is deformed in a molding station and d) the plate is hardened by cooling,
Radiator valve device for controlling the flow volume of a heating medium from a heater flow line into a radiator, comprising a sleeve for connection with the flow line, the sleeve having a circumferentially extending oblong hole and a piston sealingly guided in the sleeve, the stroke movement thereof opening or closing the oblong hole, wherein the piston is rotatable about its longitudinal centre line and comprises a cylindrical shell surface whose length is greater in a closing portion than in an opening portion such that, by rotating the piston, the shell surface of the closing portion changes the flow cross section of the oblong hole, in order to adjust the flow volume by means of the valve device, characterized in that the piston comprises an adapter fitting together with a thermostatic head for setting the target room temperature, so that by turning the thermostatic head to set the target room temperature the shell surface of the closing portion changes the flow cross section of the oblong hole, so as to adjust the flow volume to the set target room temperature by means of the valve device.
A workflow engine tool comprising: a processor; and a computer-readable medium storing instructions that are operative when executed by the processor to: extract module definitions from a programming language script; extract execution flow information from the programming language script; generate, for a first workflow engine, modules from the extracted module definitions; generate, for the first workflow engine, edges for connecting the modules generated for the first workflow engine; connect the modules generated for the first workflow engine with the edges generated for the first workflow engine, based at least on the extracted execution flow information, to generate a first workflow pipeline for the first workflow engine; recognize a workflow-specific parameter; if the first workflow engine is supported, pass the workflow-specific parameter to the workflow engine; and if the first workflow engine is not supported, eliminate the workflow-specific parameter and not pass it. a processor; and a computer-readable medium storing instructions that are operative when executed by the processor to: extract module definitions from a programming language script; extract execution flow information from the programming language script; generate, for a first workflow engine, modules from the extracted module definitions; generate, for the first workflow engine, edges for connecting the modules generated for the first workflow engine; connect the modules generated for the first workflow engine with the edges generated for the first workflow engine, based at least on the extracted execution flow information, to generate a first workflow pipeline for the first workflow engine; recognize a workflow-specific parameter; if the first workflow engine is supported, pass the workflow-specific parameter to the workflow engine; and if the first workflow engine is not supported, eliminate the workflow-specific parameter and not pass it. extract module definitions from a programming language script; extract execution flow information from the programming language script; generate, for a first workflow engine, modules from the extracted module definitions; generate, for the first workflow engine, edges for connecting the modules generated for the first workflow engine; connect the modules generated for the first workflow engine with the edges generated for the first workflow engine, based at least on the extracted execution flow information, to generate a first workflow pipeline for the first workflow engine; recognize a workflow-specific parameter; if the first workflow engine is supported, pass the workflow-specific parameter to the workflow engine; and if the first workflow engine is not supported, eliminate the workflow-specific parameter and not pass it.
Method for controlling an electrostatic atomizer for liquids, the atomizer comprising a liquid tank and a delivery device for liquid from the liquid tank, a high-voltage source and also atomizer nozzles (102a - 102h) for the atomization of liquid, the atomizer nozzles (102a - 102h) being connected to the high-voltage source, the voltage and/or the current intensity at at least one of the atomizer nozzles (102a - 102h) being detected by means of sensor means (S102-1, S102-2) of control electronics and/or the voltage and/or the current intensity at the high-voltage source being detected by means of sensor means (S109-1, S109-2) of the control electronics, characterized in that, when there is a deactivation of the atomizer, first the delivery device is deactivated and then the high-voltage generator is deactivated.
A surface excavation machine including wear sensing, the surface excavation machine including: a rotatable reducing structure having an axis of rotation and including a drum (38; 738) and a plurality of reducing elements (42; 310, 312; Al, Bl, C1, A2, B2, C2, A3, B3, C3; 742) carried by the drum (38; 738) and spaced about the circumference of the drum, the drum (38; 738) being at least partially covered by a shroud disposed radially outward from the drum; a wear sensing system (70; 800) including a sensor mounted inside the shroud adjacent to the rotatable reducing structure, the sensor being an inductive sensor, wherein the sensor senses a general wear state of at least one of the reducing elements (42; 310, 312; Al, Bl, C1, A2, B2, C2, A3, B3, C3; 742) by sensing a general physical characteristic of the reducing element (42; 310, 312; Al, Bl, C1, A2, B2, C2, A3, B3, C3; 742) when the surface excavation machine is performing a reducing operation without measuring a position of a specific point on the rotatable reducing structure; the machine being characterized by further comprising a breaker structure positioned within the shroud upstream from the sensor to prevent material from damaging the sensor, the breaker structure being spaced a first radial distance from the axis of rotation of the rotatable reducing structure and the sensor being spaced a second radial distance from the axis of rotation of the rotatable reducing structure, the second radial distance being longer than the first radial distance. a rotatable reducing structure having an axis of rotation and including a drum (38; 738) and a plurality of reducing elements (42; 310, 312; Al, Bl, C1, A2, B2, C2, A3, B3, C3; 742) carried by the drum (38; 738) and spaced about the circumference of the drum, the drum (38; 738) being at least partially covered by a shroud disposed radially outward from the drum; a wear sensing system (70; 800) including a sensor mounted inside the shroud adjacent to the rotatable reducing structure, the sensor being an inductive sensor, wherein the sensor senses a general wear state of at least one of the reducing elements (42; 310, 312; Al, Bl, C1, A2, B2, C2, A3, B3, C3; 742) by sensing a general physical characteristic of the reducing element (42; 310, 312; Al, Bl, C1, A2, B2, C2, A3, B3, C3; 742) when the surface excavation machine is performing a reducing operation without measuring a position of a specific point on the rotatable reducing structure; the machine being characterized by further comprising a breaker structure positioned within the shroud upstream from the sensor to prevent material from damaging the sensor, the breaker structure being spaced a first radial distance from the axis of rotation of the rotatable reducing structure and the sensor being spaced a second radial distance from the axis of rotation of the rotatable reducing structure, the second radial distance being longer than the first radial distance.
A method comprising: receiving a serial data stream; measuring payload time periods between signal transitions in a payload portion of the serial data stream using at least one Grey code oscillator; and generating a recovered data signal corresponding to the payload portion of the serial data stream by, at least in part, comparing the measured payload time periods to one or more calibration time periods. receiving a serial data stream; measuring payload time periods between signal transitions in a payload portion of the serial data stream using at least one Grey code oscillator; and generating a recovered data signal corresponding to the payload portion of the serial data stream by, at least in part, comparing the measured payload time periods to one or more calibration time periods.
A heat sink, comprising: a body having a plurality of fins; a pump assembly disposed on a top surface of the body, the pump assembly arranged to generate a radial magnetic field; a heat exchanger assembly disposed on a bottom surface of the body; and a two-channel pipe arranged to house at least a portion of a first channel and at least a portion of a second channel, the pipe extending from past the top surface through the body to past the bottom surface, wherein fluid flow direction in the first channel and the second channel is dependent on the radial magnetic field, and wherein the two-channel pipe is formed of a thermally conductive metal and the first and second channels are adjacent within the two-channel pipe such that the first channel and the second channel are in thermal contact with each other within the pipe. a body having a plurality of fins; a pump assembly disposed on a top surface of the body, the pump assembly arranged to generate a radial magnetic field; a heat exchanger assembly disposed on a bottom surface of the body; and a two-channel pipe arranged to house at least a portion of a first channel and at least a portion of a second channel, the pipe extending from past the top surface through the body to past the bottom surface, wherein fluid flow direction in the first channel and the second channel is dependent on the radial magnetic field, and wherein the two-channel pipe is formed of a thermally conductive metal and the first and second channels are adjacent within the two-channel pipe such that the first channel and the second channel are in thermal contact with each other within the pipe.
A battery pack device comprising a plurality of alternately lined up battery cells and thermally conductive members, wherein the thermally conductive members each have a sheet shape and an at least three-layer laminated structure which is composed of a backing layer having a thermal conductivity of less than 0.5 W/mK and thermally conductive layers each having a thermal conductivity of 0.5 W/mK or more provided respectively on both sides of the backing layer, wherein the thermally conductive layers are each formed from a resin composition and wherein the thermally conductive layers each contain a thermally conductive filler.
A variable lighting apparatus, the apparatus comprising: a lighting unit (10,110,210) to emit light with at least two connection end portions which extend In different directions and from which each has a contact point; and a supporting unit (40,140,240) adapted to be selectively connected with one of the connection end portions and to corresponding contact point of the lighting unit to support the lighting unit, and to provide power to the connected lighting unit, the variable lighting apparatus being characterised in that: the lighting unit (10, 110, 210) is adapted to change a connection posture with the supporting unit (40, 140, 240) according to the connection of one of the connection end portions with the supporting unit (40, 140, 240), and in that the lighting unit has a lighting condition for different connection posture of the lighting unit (10, 110, 210). a lighting unit (10,110,210) to emit light with at least two connection end portions which extend In different directions and from which each has a contact point; and a supporting unit (40,140,240) adapted to be selectively connected with one of the connection end portions and to corresponding contact point of the lighting unit to support the lighting unit, and to provide power to the connected lighting unit, the variable lighting apparatus being characterised in that: the lighting unit (10, 110, 210) is adapted to change a connection posture with the supporting unit (40, 140, 240) according to the connection of one of the connection end portions with the supporting unit (40, 140, 240), and in that the lighting unit has a lighting condition for different connection posture of the lighting unit (10, 110, 210).
An endoscope comprising: an elongated member including an inner wall defining an inflow channel and configured to accept an instrument inserted therethrough; and a valve assembly in fluid communication with the inflow channel and including a valve housing and a valve body, characterized by the valve housing including a valve inlet coupled to a fluid inlet line and a valve outlet coupled to a proximal end of the elongated member, and the valve body being within the valve housing between the valve inlet and the valve outlet and being rotatable to selectively define a first fluid path and a second fluid path through the endoscope, wherein an impedance of fluid flow through the endoscope without the instrument inserted therethrough and with the valve body defining the first fluid path is substantially equal to an impedance of fluid flow through the endoscope with the instrument inserted therethrough and with the valve body defining the second fluid path. an elongated member including an inner wall defining an inflow channel and configured to accept an instrument inserted therethrough; and a valve assembly in fluid communication with the inflow channel and including a valve housing and a valve body, characterized by the valve housing including a valve inlet coupled to a fluid inlet line and a valve outlet coupled to a proximal end of the elongated member, and the valve body being within the valve housing between the valve inlet and the valve outlet and being rotatable to selectively define a first fluid path and a second fluid path through the endoscope, wherein an impedance of fluid flow through the endoscope without the instrument inserted therethrough and with the valve body defining the first fluid path is substantially equal to an impedance of fluid flow through the endoscope with the instrument inserted therethrough and with the valve body defining the second fluid path.
A recombinant host capable of producing a steviol glycoside which overexpresses a nucleic acid which encodes a polypeptide which mediates steviol glycoside transport and which polypeptide comprises the amino acid sequence set forth in SEQ ID NO: 29 or an amino acid sequence having at least 70% sequence identity thereto, and wherein the amount of total steviol glycoside outside the cell as compared to inside the cell is higher as compared to a corresponding cell which does not overexpress a nucleic acid which encodes a polypeptide which mediates steviol glycoside transport and which polypeptide comprises the amino acid sequence set forth in SEQ ID NO: 29 or an amino acid sequence having at least 70% sequence identity thereto, wherein the recombinant host is a yeast.
A far-side airbag apparatus comprising a gas generator, and an airbag comprising a fixed portion set in a rear end portion of the airbag and disposed to incline such that the upper side of the fixed portion is positioned close to the rear side, wherein the airbag is configured to be deployed and inflated diagonally forward and upward from the fixed portion in order to protect, when mounted in a vehicle, an upper body of an occupant, who sits on a vehicle seat positioned apart from a side wall portion of the vehicle in which multiple vehicle seats are provided side by side in a width direction, by deploying and inflating the airbag diagonally forward and upward from the fixed portion between adjacent vehicle seats via inflating gas which is supplied from the gas generator according to a side impact applied to the side wall portion of the vehicle, wherein a rear lower portion of the airbag is formed as a support portion that has a high rigidity and supports an upper portion positioned higher than the rear lower portion of the airbag, as thickness restriction portions which restrict the inflation thickness of the airbag, multiple partition portions (55, 56) are provided in the upper portion of the airbag, extend in a vertical direction, and partition the upper portion into multiple regions in a forward and rearward direction, the multiple partition portions are provided in each of a front region and a rear region which are respectively positioned in front of and in back of a central portion of the upper portion in the forward and rearward direction, a lower end portion of the partition portion in the front region is positioned at a location lower than a lower end portion of the partition portion in the rear region, rigidity of the support portion is increased by not providing a partition portion in the support portion, the airbag includes a pair of side fabric portions (42, 43) which are disposed in the vehicle width direction, and the partition portions are formed integrally with both of the side fabric portions by weaving.
A method to prevent lost circulation of a drilling fluid in a wellbore, comprising: introducing an altered drilling fluid into the wellbore while drilling such that a loss prevention material contacts a loss zone, wherein the altered drilling fluid comprises the drilling fluid and the LPM, wherein the LPM comprises: a first plurality of particles produced from date tree seeds; a second plurality of particles produced from date tree rachis, date tree leaves, or a combination thereof, and a third plurality of particles produced from scrap tires. a first plurality of particles produced from date tree seeds; a second plurality of particles produced from date tree rachis, date tree leaves, or a combination thereof, and a third plurality of particles produced from scrap tires.
A secondary battery comprising: an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator between the first electrode plate and the second electrode plate; a can accommodating the electrode assembly and having a pipe shape and having a thickness (t1, t2, t3, t4) varying along a circumference of the pipe shape; a first side plate sealing a first end of the can; a second side plate sealing a second end of the can; a first side terminal electrically connected to the first electrode plate and exposed to the outside through the first side plate; and a second side terminal electrically connected to the second electrode plate and exposed to the outside through the second side plate, wherein the can is formed in a rectangular pipe shape, and has a first short side, a second short side, a first long side, and a second long side, and wherein the thickness (t1, t2) of each of the first short side and the second short side is greater than the thickness (t3, t4) of each of the first long side and the second long side. an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator between the first electrode plate and the second electrode plate; a can accommodating the electrode assembly and having a pipe shape and having a thickness (t1, t2, t3, t4) varying along a circumference of the pipe shape; a first side plate sealing a first end of the can; a second side plate sealing a second end of the can; a first side terminal electrically connected to the first electrode plate and exposed to the outside through the first side plate; and a second side terminal electrically connected to the second electrode plate and exposed to the outside through the second side plate, wherein the can is formed in a rectangular pipe shape, and has a first short side, a second short side, a first long side, and a second long side, and wherein the thickness (t1, t2) of each of the first short side and the second short side is greater than the thickness (t3, t4) of each of the first long side and the second long side.