mhurhangee/ep-ind-claims huggingface dataset:
A packaging material for a power storage device, comprising: in order from a first surface of a metal foil, a first corrosion protection layer and a coating layer; and in order from a second surface of the metal foil, a second corrosion protection layer, an adhesive layer, and a sealant layer, wherein: the coating layer contains at least one selected from a group consisting of fluorine resins and amorphous polyester resins, wherein the coating layer is directly formed on the first corrosion protection layer formed on the first surface of the metal foil without an adhesive layer. in order from a first surface of a metal foil, a first corrosion protection layer and a coating layer; and in order from a second surface of the metal foil, a second corrosion protection layer, an adhesive layer, and a sealant layer, the coating layer contains at least one selected from a group consisting of fluorine resins and amorphous polyester resins, wherein the coating layer is directly formed on the first corrosion protection layer formed on the first surface of the metal foil without an adhesive layer.
A cylinder for high pressure compressed fluids, comprising: - a first hollow body having an opening towards the outside and such as to define with the relative internal cavity a first housing space for a compressed fluid; - at least one second hollow body having an opening towards the outside and such as to define with the relative internal cavity a second housing space separate and different from the first housing space for a compressed fluid; wherein the second hollow body is housed inside the first hollow body in such a way as to define a first chamber for housing the compressed fluids having as a space at least the first housing space less the external space of the second hollow body and a second chamber for housing the compressed fluids having as a space the second housing space, the first housing chamber being isolated from the second housing chamber and vice versa, wherein the first housing chamber and the second housing chamber have, respectively, an opening (2a, 3a) towards the outside at a same head end of the cylinder for compressed fluids and characterised in that at least one of the first hollow body and the second hollow body have at a bottom end opposite the head end a bottom opening ("C") made on the first hollow body and such as to be normally closed in a condition of use of the cylinder. - a first hollow body having an opening towards the outside and such as to define with the relative internal cavity a first housing space for a compressed fluid; - at least one second hollow body having an opening towards the outside and such as to define with the relative internal cavity a second housing space separate and different from the first housing space for a compressed fluid;
An assembled battery comprising: a case which retains a plurality of single batteries arranged side by side and each provided with a positive electrode terminal and a negative electrode terminal on one surface; an insulation cover which covers one surface side of the plurality of single batteries retained in the case; a bus bar which electrically connects the terminals adjacent to each other of the plurality of single batteries and is exposed from the insulation cover; and a circuit board which is fixed to the case and is disposed above the insulation cover, wherein an elastic contact member is attached to a back surface of the circuit board facing the insulation cover so as to be brought into pressure contact with the bus bar by fixing the circuit board to the case, and a support member is provided on the insulation cover or the bus bar so as to be in contact with a front surface of the circuit board on an opposite side of the back surface of the circuit board to support the circuit board. a case which retains a plurality of single batteries arranged side by side and each provided with a positive electrode terminal and a negative electrode terminal on one surface; an insulation cover which covers one surface side of the plurality of single batteries retained in the case; a bus bar which electrically connects the terminals adjacent to each other of the plurality of single batteries and is exposed from the insulation cover; and a circuit board which is fixed to the case and is disposed above the insulation cover, wherein an elastic contact member is attached to a back surface of the circuit board facing the insulation cover so as to be brought into pressure contact with the bus bar by fixing the circuit board to the case, and a support member is provided on the insulation cover or the bus bar so as to be in contact with a front surface of the circuit board on an opposite side of the back surface of the circuit board to support the circuit board.
A power generation apparatus comprising: a first loop (102; 202; 302); a first plurality of resistive devices (104,106; 204,206; 304,306) coupled to the first loop, at least one resistive device of the first plurality of resistive devices being configured to transfer a force to the first loop, the force being generated based on an aerodynamic drag associated with the at least one resistive device; a rotary element, in particular a pulley (108; 208; 314) coupled to the first loop, the rotary element being configured to receive the force transferred to the first loop, and the rotary element being further configured to rotate in response to receiving the force from the first loop; and a generator (112; 212; 318) coupled to the rotary element, the generator being coupled to an electrical system, and the generator being further configured to deliver power to the electrical system in response to the rotary element rotating, characterized in that the first loop (102; 202; 302) is configured to be deployed from an empennage section of an airplane into an airstream flowing by the airplane. a first loop (102; 202; 302); a first plurality of resistive devices (104,106; 204,206; 304,306) coupled to the first loop, at least one resistive device of the first plurality of resistive devices being configured to transfer a force to the first loop, the force being generated based on an aerodynamic drag associated with the at least one resistive device; a rotary element, in particular a pulley (108; 208; 314) coupled to the first loop, the rotary element being configured to receive the force transferred to the first loop, and the rotary element being further configured to rotate in response to receiving the force from the first loop; and a generator (112; 212; 318) coupled to the rotary element, the generator being coupled to an electrical system, and the generator being further configured to deliver power to the electrical system in response to the rotary element rotating,
A system for assembling a double-deck vehicle body, comprising: a vehicle body chassis support and an upper floor support, wherein: the vehicle body chassis support comprises a crossbeam (13, 14), end supports, and an intermediate support, wherein the end supports are arranged separately at two ends of the crossbeam (13, 14), the intermediate support is arranged at the middle of the crossbeam (13, 14), a height of the end supports is greater than a height of the intermediate support, upper surfaces of the end supports and an upper surface of the intermediate support are configured to be closely fitted to a lower surface of a vehicle body chassis; and the upper floor support is detachably arranged on the vehicle body chassis for supporting an upper floor of the vehicle body. the vehicle body chassis support comprises a crossbeam (13, 14), end supports, and an intermediate support, wherein the end supports are arranged separately at two ends of the crossbeam (13, 14), the intermediate support is arranged at the middle of the crossbeam (13, 14), a height of the end supports is greater than a height of the intermediate support, upper surfaces of the end supports and an upper surface of the intermediate support are configured to be closely fitted to a lower surface of a vehicle body chassis; and the upper floor support is detachably arranged on the vehicle body chassis for supporting an upper floor of the vehicle body.
A saddle-riding vehicle comprising: a rear frame configured to support a seat; and a tail lamp supported by a rear end portion of the rear frame, wherein the rear end portion of the rear frame is open, and the rear end portion of the rear frame is closed by the tail lamp, a rear fender is supported by the rear frame and configured to cover an area below the rear frame; and an engine control unit is disposed forward of the tail lamp and supported by the rear fender, characterized in that: the rear frame has an upright wall formed therein, the upright wall being configured to partition a space where the tail lamp is disposed, and a space where the engine control unit is disposed so that access is prevented to the engine control unit from the space where the tail lamp is disposed. a rear frame configured to support a seat; and a tail lamp supported by a rear end portion of the rear frame, wherein the rear end portion of the rear frame is open, and the rear end portion of the rear frame is closed by the tail lamp, a rear fender is supported by the rear frame and configured to cover an area below the rear frame; and an engine control unit is disposed forward of the tail lamp and supported by the rear fender, characterized in that: the rear frame has an upright wall formed therein, the upright wall being configured to partition a space where the tail lamp is disposed, and a space where the engine control unit is disposed so that access is prevented to the engine control unit from the space where the tail lamp is disposed.
A tool changing method for a machine tool configured to change tools between a machining space and a tool storage space by engaging grippers of a changing arm with V-shaped grooves of tool holders of the tools, and rotating the changing arm, the method comprising: an image capturing step of capturing an image of a tool with an image capturing device; an operation parameter determining step of calculating the mass of each tool engaged with each of the grippers and the position of center of gravity of each tool, based on the image of each tool captured by the image capturing device, calculating a rotational moment acting on the tool around the V-shaped groove of the tool holder of the tool by the rotation of the changing arm, based on the mass and the position of center of gravity of each tool, and determining the rotational speed as the operation parameter for the changing arm at the time of tool change by the changing arm, based on the calculated rotational moment acting on the grippers of the changing arm; and a tool changing step of changing the tools by the changing arm operated based on the operation parameter. an image capturing step of capturing an image of a tool with an image capturing device; an operation parameter determining step of calculating the mass of each tool engaged with each of the grippers and the position of center of gravity of each tool, based on the image of each tool captured by the image capturing device, calculating a rotational moment acting on the tool around the V-shaped groove of the tool holder of the tool by the rotation of the changing arm, based on the mass and the position of center of gravity of each tool, and determining the rotational speed as the operation parameter for the changing arm at the time of tool change by the changing arm, based on the calculated rotational moment acting on the grippers of the changing arm; and a tool changing step of changing the tools by the changing arm operated based on the operation parameter.
An inductive sensing circuit, comprising: a signal generator, configured to generate a drive signal; one or more sensing arrangements, each of the one or more sensing arrangements comprising: two sets of one or more inductive sensing elements (132a, 132b; 134a, 134b), configured in a half bridge arrangement, the two sets of one or more inductive sensing elements driven by the drive signal; a correction signal circuit, configured to generate a correction signal (833, 835), wherein the correction signal is an adjustably scaled version of the drive signal; and a summing circuit (842, 844), configured to sum an output signal (142, 244) of the two sets of one or more inductive sensing elements with the correction signal; and a demodulation circuit, configured to demodulate an output of the summing circuit (842, 844) of each of the one or more sensing arrangements. a signal generator, configured to generate a drive signal; one or more sensing arrangements, each of the one or more sensing arrangements comprising: two sets of one or more inductive sensing elements (132a, 132b; 134a, 134b), configured in a half bridge arrangement, the two sets of one or more inductive sensing elements driven by the drive signal; a correction signal circuit, configured to generate a correction signal (833, 835), wherein the correction signal is an adjustably scaled version of the drive signal; and a summing circuit (842, 844), configured to sum an output signal (142, 244) of the two sets of one or more inductive sensing elements with the correction signal; and two sets of one or more inductive sensing elements (132a, 132b; 134a, 134b), configured in a half bridge arrangement, the two sets of one or more inductive sensing elements driven by the drive signal; a correction signal circuit, configured to generate a correction signal (833, 835), wherein the correction signal is an adjustably scaled version of the drive signal; and a summing circuit (842, 844), configured to sum an output signal (142, 244) of the two sets of one or more inductive sensing elements with the correction signal; and a demodulation circuit, configured to demodulate an output of the summing circuit (842, 844) of each of the one or more sensing arrangements.
A follicle container for transporting an extracted hair follicle from a follicle extractor and containing the hair follicle for future use, the follicle container comprising: - a receptacle operable to hold a hair follicle extracted from skin by a follicle extractor; - a conduit, coupleable with the follicle extractor, and operable to convey the extracted hair follicle toward the receptacle; - a pump - the receptacle is coupled with the pump, the pump operable to move air through the conduit and receptacle to urge the extracted hair follicle to travel toward the receptacle; and - an injector operable to aerosolize and inject an irrigant into the conduit while the extracted hair follicle travels toward the receptacle characterized in that the injector includes: - a first passage having a throat, - a second passage having a port disposed in the throat, and - wherein the port includes an entrance having a cross-sectional area and an exit disposed in the throat and having a cross-sectional area that is less than the cross-sectional area of the port's entrance and wherein the containing device is configured so that the extracted hair follicle travels toward the receptacle - through the throat of the first passage, and - the irrigant enters the first passage through the port in the throat while the extracted hair follicle travels toward the receptacle. - a receptacle operable to hold a hair follicle extracted from skin by a follicle extractor; - a conduit, coupleable with the follicle extractor, and operable to convey the extracted hair follicle toward the receptacle; - a pump - the receptacle is coupled with the pump, the pump operable to move air through the conduit and receptacle to urge the extracted hair follicle to travel toward the receptacle; and - an injector operable to aerosolize and inject an irrigant into the conduit while the extracted hair follicle travels toward the receptacle characterized in that the injector includes: - a first passage having a throat, - a second passage having a port disposed in the throat, and - wherein the port includes an entrance having a cross-sectional area and an exit disposed in the throat and having a cross-sectional area that is less than the cross-sectional area of the port's entrance and wherein the containing device is configured so that the extracted hair follicle travels toward the receptacle - through the throat of the first passage, and - the irrigant enters the first passage through the port in the throat while the extracted hair follicle travels toward the receptacle. - a first passage having a throat, - a second passage having a port disposed in the throat, and - wherein the port includes an entrance having a cross-sectional area and an exit disposed in the throat and having a cross-sectional area that is less than the cross-sectional area of the port's entrance and wherein the containing device is configured so that the extracted hair follicle travels toward the receptacle - through the throat of the first passage, and - the irrigant enters the first passage through the port in the throat while the extracted hair follicle travels toward the receptacle.
A system comprising an image forming apparatus and a sheet processing apparatus that is connectable with the image forming apparatus, wherein the sheet processing apparatus comprises a sheet processing means (42, 43, 44, 45, 46) configured to execute a binding process and/or a folding process, the image forming apparatus comprising: image forming means configured to form images on a plurality of sheets; and control means configured to control the sheet processing apparatus to execute, for the plurality of sheets, the folding process without the binding process, characterized in that: the image forming apparatus comprises setting means configured to set, based on a user instruction, the number of sheets to be executed with the folding process without the binding process at a time, the control means controls the sheet processing apparatus to execute, for the plurality of sheets, the folding process without the binding process in a unit of the number of sheets set by the setting means, wherein the number of sheets settable by the setting means to be executed by the folding process without the binding process at a time is smaller than the number of sheets which are permitted to be subjected to the binding process and the folding process. image forming means configured to form images on a plurality of sheets; and control means configured to control the sheet processing apparatus to execute, for the plurality of sheets, the folding process without the binding process, characterized in that: the image forming apparatus comprises setting means configured to set, based on a user instruction, the number of sheets to be executed with the folding process without the binding process at a time, the control means controls the sheet processing apparatus to execute, for the plurality of sheets, the folding process without the binding process in a unit of the number of sheets set by the setting means, wherein the number of sheets settable by the setting means to be executed by the folding process without the binding process at a time is smaller than the number of sheets which are permitted to be subjected to the binding process and the folding process. the image forming apparatus comprises setting means configured to set, based on a user instruction, the number of sheets to be executed with the folding process without the binding process at a time, the control means controls the sheet processing apparatus to execute, for the plurality of sheets, the folding process without the binding process in a unit of the number of sheets set by the setting means, wherein the number of sheets settable by the setting means to be executed by the folding process without the binding process at a time is smaller than the number of sheets which are permitted to be subjected to the binding process and the folding process.
A liquid supply system for use with an aerosol-generating device, the liquid supply system comprising: a liquid retention material (136, 236); a liquid flow channel extending from the liquid retention material (136, 236); a liquid storage (103, 203) disposed on an upstream side of the liquid retention material (136, 236); and a barrier (125, 225) disposed in the liquid flow channel, the barrier (125, 225) having a degradation temperature between 60 °C and 130 °C, wherein the barrier (125, 225) is disposed between the liquid retention material (136, 236) and the liquid storage (103, 203), the liquid supply system further comprising: a liquid transport material (124, 224) disposed on a downstream side of the liquid retention material (136, 236). a liquid retention material (136, 236); a liquid flow channel extending from the liquid retention material (136, 236); a liquid storage (103, 203) disposed on an upstream side of the liquid retention material (136, 236); and a barrier (125, 225) disposed in the liquid flow channel, the barrier (125, 225) having a degradation temperature between 60 °C and 130 °C, wherein the barrier (125, 225) is disposed between the liquid retention material (136, 236) and the liquid storage (103, 203), the liquid supply system further comprising: a liquid transport material (124, 224) disposed on a downstream side of the liquid retention material (136, 236).
A method of transmitting a downlink control signal by a base station, the method comprising: determining a transmission format of the downlink control signal including scheduling information for an uplink or a downlink data transmission, wherein the scheduling information indicates resources for the uplink or the downlink data transmission by a first time-frequency domain size unit; and transmitting the downlink control signal in accordance with the downlink control signal transmission format to each of user equipments, wherein the downlink control signal transmission format is defined such that the downlink control signal is transmitted by an integer multiple of a second time-frequency domain size unit used for transmitting the downlink control signal, wherein the first time-frequency domain size unit is a resource block, RB, comprising a plurality of subcarriers in a frequency domain over a plurality of Orthogonal Frequency Divisional Multiplexing, OFDM, symbols in a time domain, wherein the second time-frequency domain size unit comprises a plurality of subcarriers arranged in the frequency domain at one OFDM symbol having same OFDM symbol index in the time domain. determining a transmission format of the downlink control signal including scheduling information for an uplink or a downlink data transmission, wherein the scheduling information indicates resources for the uplink or the downlink data transmission by a first time-frequency domain size unit; and transmitting the downlink control signal in accordance with the downlink control signal transmission format to each of user equipments, wherein the downlink control signal transmission format is defined such that the downlink control signal is transmitted by an integer multiple of a second time-frequency domain size unit used for transmitting the downlink control signal, wherein the first time-frequency domain size unit is a resource block, RB, comprising a plurality of subcarriers in a frequency domain over a plurality of Orthogonal Frequency Divisional Multiplexing, OFDM, symbols in a time domain, wherein the second time-frequency domain size unit comprises a plurality of subcarriers arranged in the frequency domain at one OFDM symbol having same OFDM symbol index in the time domain.