mhurhangee/ep-ind-claims huggingface dataset:
A solid electrolyte fuel cell stack comprising: a plurality of solid electrolyte fuel cells stacked therein, each of the plurality of solid electrolyte fuel cells including a solid electrolyte having a fuel electrode, which contacts with fuel gas, and an air electrode, which contacts with oxidant gas; a stacked body (5, 113, 133) formed of the plurality of solid electrolyte fuel cells; a separator that is connected to the plurality of solid electrolyte fuel cells and blocks a passage of gas between a fuel gas flow path and an air flow path; a plurality of through holes (57, 115, 131, 149, 175) penetrating an outer peripheral portion of the separator in a stacking direction; and a plurality of press-fixing portions each of which includes a fixing member (7, 9, 11, 13, 101, 121, 141, 161) inserted in one of the plurality of through holes (57, 115, 131, 149, 175), and each of which presses the stacked body (5, 113, 133) in the stacking direction so as to secure the stacked body (5, 113, 133); characterized in that a gas flow path (60, 117) is provided inside of the plurality of through holes (57, 115, 131, 149, 175), in each of which the fixing member (7, 9, 11, 13, 101, 121, 141, 161) is disposed, the gas flow path (60, 117) being configured to either supply gas toward the plurality of solid electrolyte fuel cells, or discharge gas from the plurality of solid electrolyte fuel cells. a plurality of solid electrolyte fuel cells stacked therein, each of the plurality of solid electrolyte fuel cells including a solid electrolyte having a fuel electrode, which contacts with fuel gas, and an air electrode, which contacts with oxidant gas; a stacked body (5, 113, 133) formed of the plurality of solid electrolyte fuel cells; a separator that is connected to the plurality of solid electrolyte fuel cells and blocks a passage of gas between a fuel gas flow path and an air flow path; a plurality of through holes (57, 115, 131, 149, 175) penetrating an outer peripheral portion of the separator in a stacking direction; and a plurality of press-fixing portions each of which includes a fixing member (7, 9, 11, 13, 101, 121, 141, 161) inserted in one of the plurality of through holes (57, 115, 131, 149, 175), and each of which presses the stacked body (5, 113, 133) in the stacking direction so as to secure the stacked body (5, 113, 133); characterized in that a gas flow path (60, 117) is provided inside of the plurality of through holes (57, 115, 131, 149, 175), in each of which the fixing member (7, 9, 11, 13, 101, 121, 141, 161) is disposed, the gas flow path (60, 117) being configured to either supply gas toward the plurality of solid electrolyte fuel cells, or discharge gas from the plurality of solid electrolyte fuel cells.
A device for generating electrical power, comprising: an electrical power generator configured to generate an electrical output current using charge induction; and a load capacitor for storing charge in response to the electrical output current, characterized in that the load capacitor has a capacitance which increases with the voltage across the load capacitor. an electrical power generator configured to generate an electrical output current using charge induction; and a load capacitor for storing charge in response to the electrical output current, characterized in that the load capacitor has a capacitance which increases with the voltage across the load capacitor.
A combination, as part of a valve, comprising - a valve body element and - a sensor, wherein - the valve body element is designed as one piece, - the valve body element has been built up in a layered manner at least partly by way of a generative manufacturing method, - the valve body element comprises a wall, and - the sensor is embedded into the wall and wherein the valve comprises - a valve seat, - a valve closure and - two or more channels, characterised in that - a first embedded sensor is arranged on a first channel and - a second embedded sensor is arranged on a second channel, wherein the first channel and the second channel are arranged on different sides of the valve seat, and wherein both sensors are configured for detecting a temperature. - a valve body element and - a sensor, - the valve body element is designed as one piece, - the valve body element has been built up in a layered manner at least partly by way of a generative manufacturing method, - the valve body element comprises a wall, and - the sensor is embedded into the wall - a valve seat, - a valve closure and - two or more channels, - a first embedded sensor is arranged on a first channel and - a second embedded sensor is arranged on a second channel,
Electrical bridging device, having - at least one first and one second electrical conductor which are electrically isolated from each other and arranged such that at least one first surface region of the first conductor orientated in a spatial direction is separated by a gap from at least one second surface region of the second conductor orientated in the same spatial direction, wherein the first and the second surface regions are each identifiable as a surface region from this spatial direction, - the first and second surface regions are each covered with a layer (3, 4) consisting of an electrically conductive material, which has a lower melting point than the electrical conductors (1, 2), and - a reactive layer in which an exothermic reaction can be triggered is arranged above the two layers (3, 4) of electrically conductive material, - wherein the gap between the two surface regions is selected and the reactive layer is dimensioned and arranged in such manner that the two layers (3, 4) composed of the electrically conductive material fuse at the gap due to the thermal energy emitted during the exothermic reaction of reactive layer, and as a result an electrical connection is established between the electrical conductors (1, 2). - at least one first and one second electrical conductor which are electrically isolated from each other and arranged such that at least one first surface region of the first conductor orientated in a spatial direction is separated by a gap from at least one second surface region of the second conductor orientated in the same spatial direction, wherein the first and the second surface regions are each identifiable as a surface region from this spatial direction, - the first and second surface regions are each covered with a layer (3, 4) consisting of an electrically conductive material, which has a lower melting point than the electrical conductors (1, 2), and - a reactive layer in which an exothermic reaction can be triggered is arranged above the two layers (3, 4) of electrically conductive material, - wherein the gap between the two surface regions is selected and the reactive layer is dimensioned and arranged in such manner that the two layers (3, 4) composed of the electrically conductive material fuse at the gap due to the thermal energy emitted during the exothermic reaction of reactive layer, and as a result an electrical connection is established between the electrical conductors (1, 2).
A motor vehicle comprising an apparatus for providing window-washing water, wherein the apparatus comprises: a) a washing-water container for storage and provision of window-washing water; and b) a pressure-regulating device which is configured for charging the washing-water container with compressed air in a regulable manner, wherein the motor vehicle comprises at least one compressed-air system S n, and the apparatus for providing window-washing water comprises a connection for external application of pressure, via which connection the washing-water container is coupled pneumatically to the at least one compressed-air system S n, characterized in that the washing-water container can be or is indirectly or directly charged at least partially with waste air which accumulates during emptying of a pneumatic actuator of the at least one compressed-air system S n. a) a washing-water container for storage and provision of window-washing water; and b) a pressure-regulating device which is configured for charging the washing-water container with compressed air in a regulable manner, wherein the motor vehicle comprises at least one compressed-air system S n, and the apparatus for providing window-washing water comprises a connection for external application of pressure, via which connection the washing-water container is coupled pneumatically to the at least one compressed-air system S n, characterized in that
A nonaqueous electrolytic solution for use in a nonaqueous electrolytic solution battery that comprises a negative electrode and a positive electrode capable of occluding and releasing lithium ion, wherein: the nonaqueous electrolytic solution contains lithium fluorosulfonate, a lithium salt except lithium fluorosulfonate, and a nonaqueous solvent, the molar content of the lithium fluorosulfonate in the nonaqueous electrolytic solution is from 0.0005 mol/L to 0.5 mol/L, and the molar content of sulfate ion in the nonaqueous electrolytic solution is from 1.0 × 10 -7 mol/L to 1.0 × 10 -2 mol/L. the nonaqueous electrolytic solution contains lithium fluorosulfonate, a lithium salt except lithium fluorosulfonate, and a nonaqueous solvent, the molar content of the lithium fluorosulfonate in the nonaqueous electrolytic solution is from 0.0005 mol/L to 0.5 mol/L, and the molar content of sulfate ion in the nonaqueous electrolytic solution is from 1.0 × 10 -7 mol/L to 1.0 × 10 -2 mol/L.
An orthopedic brace for correctly blocking and anatomically supporting the vertebral column, comprising a semirigid slat enclosed in a casing and having an elongated vertical development, shaped in accordance with the vertebral column and configured to follow and support the column, the lower part of said slat being attached to a respective pair of waist straps which are fixed at the front to an abdominal plate, and the upper part of said slat being attached to a respective pair of shoulder straps which are also fixed to the same abdominal plate, passing through loops positioned at the sides of said slat, characterised in that the upper part of said casing and the initial part of the shoulder straps are provided with a pair of respective pockets, each pocket accommodating a removable stiffening element that is adapted to be introduced into said pocket through a corresponding slit in the pocket, whereby said stiffening element has an arcuated shape configured for keeping said shoulder straps in shape when the brace is not worn, thereby enhancing the wearability of said orthopedic brace by a patient.
A method for dynamically changing content displayed in a head unit of a vehicle by a mobile terminal, the method comprising: receiving state information indicating a current state of the vehicle equipped with the head unit from the head unit; determining the content to be displayed in the head unit based on the state information; the method being characterised by comprising the further steps: displaying the determined content on a display of the mobile terminal; and transmitting the displayed content to the head unit; wherein the transmitted content is displayed on a display of the head unit by mirroring the display of the mobile terminal. receiving state information indicating a current state of the vehicle equipped with the head unit from the head unit; determining the content to be displayed in the head unit based on the state information; the method being characterised by comprising the further steps: displaying the determined content on a display of the mobile terminal; and transmitting the displayed content to the head unit; wherein the transmitted content is displayed on a display of the head unit by mirroring the display of the mobile terminal. displaying the determined content on a display of the mobile terminal; and transmitting the displayed content to the head unit; wherein the transmitted content is displayed on a display of the head unit by mirroring the display of the mobile terminal.
A photoelectric conversion apparatus comprising: a diode of avalanche amplification type; a pulse shaping circuit configured to shape an output of the diode into a pulse signal; a pulse conversion circuit configured to convert the pulse signal having a first amplitude into a pulse signal having a second amplitude that is smaller than the first amplitude; and a signal processing circuit configured to process the pulse signal having the second amplitude output from the pulse conversion circuit, wherein the diode is supplied with a first power supply voltage and a second power supply voltage, wherein the signal processing circuit is supplied with a third power supply voltage and a fourth power supply voltage, and wherein a difference between the first power supply voltage and the second power supply voltage is greater than a difference between the third power supply voltage and the fourth power supply voltage. a diode of avalanche amplification type; a pulse shaping circuit configured to shape an output of the diode into a pulse signal; a pulse conversion circuit configured to convert the pulse signal having a first amplitude into a pulse signal having a second amplitude that is smaller than the first amplitude; and a signal processing circuit configured to process the pulse signal having the second amplitude output from the pulse conversion circuit, wherein the diode is supplied with a first power supply voltage and a second power supply voltage, wherein the signal processing circuit is supplied with a third power supply voltage and a fourth power supply voltage, and wherein a difference between the first power supply voltage and the second power supply voltage is greater than a difference between the third power supply voltage and the fourth power supply voltage.
A testing device, comprising: a flow path in which an analyte is flowed, wherein a composition that comprises a reagent reactive with the analyte and a lyophilic resin is placed by melting and transferring the composition by thermal compression bonding with a serial thermal head or a line thermal head at one position or a plurality of positions of the flow path to provide reaction fields in the porous portion of a flow path member, wherein the lyophilic resin is a thermoplastic hydrophilic resin, and wherein the composition is fixed in the flow path. a flow path in which an analyte is flowed, wherein a composition that comprises a reagent reactive with the analyte and a lyophilic resin is placed by melting and transferring the composition by thermal compression bonding with a serial thermal head or a line thermal head at one position or a plurality of positions of the flow path to provide reaction fields in the porous portion of a flow path member, wherein the lyophilic resin is a thermoplastic hydrophilic resin, and wherein the composition is fixed in the flow path.
Lunchbox comprising a container for food and a closure lid for closing the container in a leak-tight manner, the closure lid comprising electrical heating means, characterized in that the closure lid comprises switching means which are closed to allow the passage of an electric current toward the heating means when the food in the container is supported on the closure lid, so that the lunchbox has to be turned upside down in order to heat the food included in the lunchbox.
An installation box for the electrical installation, consisting of a pot-shaped box having an inner insert, - the dimensions of the inner insert being adapted for a form-fitting insert into the interior of the pot-shaped box, - the inner insert consisting at least partially of an intumescent material, characterized in that a form-fitting locking snap connection having at least one resiliently mounted locking means is arranged on the inner insert or the pot-shaped box, the locking means interacting with a counter-locking means on the pot-shaped box or the inner insert. - the dimensions of the inner insert being adapted for a form-fitting insert into the interior of the pot-shaped box, - the inner insert consisting at least partially of an intumescent material,
Drain device, which is provided for installation in an opening of a floor panel, preferably a shower floor panel, and wherein the drain device comprises: - a receptacle for installation in the floor panel with an upper inlet opening, - parts pre-mounted in the floor area, which are fluidically connected to the receptacle and can be further connected to a drain pipe, so that waste water passing through the inlet opening can enter the drain pipe, - an adapter comprising: - a base part with an internal thread for forming a first coupling point to the drain pipe and a second coupling point to the receptacle, wherein the base part couples the receptacle to the drain pipe in the assembled state, - a sealing ring built into the base part for sealing the adapter with respect to the drain pipe, characterised in that - the adapter further comprises a press ring with an external thread compatible with the internal thread of the base part for exerting a compressive force on the sealing ring, so that the sealing ring can be pressed against the drain pipe by means of the press ring, and the first coupling point comprises a press connection, - the internal thread of the first coupling point for connecting the adapter to the drain pipe and the second coupling point for connecting the adapter to the receptacle each comprise a thread orientated in opposite directions, so that when one coupling point (41, 42) is tightened, the other coupling point (41, 42) is also tightened. - a receptacle for installation in the floor panel with an upper inlet opening, - parts pre-mounted in the floor area, which are fluidically connected to the receptacle and can be further connected to a drain pipe, so that waste water passing through the inlet opening can enter the drain pipe, - an adapter comprising: - a base part with an internal thread for forming a first coupling point to the drain pipe and a second coupling point to the receptacle, wherein the base part couples the receptacle to the drain pipe in the assembled state, - a sealing ring built into the base part for sealing the adapter with respect to the drain pipe, - a base part with an internal thread for forming a first coupling point to the drain pipe and a second coupling point to the receptacle, wherein the base part couples the receptacle to the drain pipe in the assembled state, - a sealing ring built into the base part for sealing the adapter with respect to the drain pipe, - the adapter further comprises a press ring with an external thread compatible with the internal thread of the base part for exerting a compressive force on the sealing ring, so that the sealing ring can be pressed against the drain pipe by means of the press ring, and the first coupling point comprises a press connection, - the internal thread of the first coupling point for connecting the adapter to the drain pipe and the second coupling point for connecting the adapter to the receptacle each comprise a thread orientated in opposite directions, so that when one coupling point (41, 42) is tightened, the other coupling point (41, 42) is also tightened.
Modified red mud containing the following components: - haematite - corundum - rutile and/or anatase - quartz - optionally CaTi03 perovskite, and - optionally (Fe3+,Fe2+)2(Ti,Fe3+)O5 pseudobrookite, (Na,K)[AlSiO4] nepheline and/or (Na,Ca)4-8[Al6Si6O24] hauynite, wherein the modified red mud containing less than 0.5% by weight of Na20 and less than 0.5% by weight of glass. - haematite - corundum - rutile and/or anatase - quartz - optionally CaTi03 perovskite, and - optionally (Fe3+,Fe2+)2(Ti,Fe3+)O5 pseudobrookite, (Na,K)[AlSiO4] nepheline and/or (Na,Ca)4-8[Al6Si6O24] hauynite,
A method of determining respiratory phase of a living body from a sequence of digitized fluoroscopic images of a living-body region exhibiting respiratory displacement, the method employing programmable computing apparatus and comprising the steps of: • in each living-body-region image in the sequence, defining two or more zones with each image having identical image-to-image zone locations, sizes, and shapes; • for each image, computing an average pixel intensity for each zone to form a sequence thereof for each zone; • for each zone, modifying the average pixel intensities by: • computing a mean value of the sequence of average pixel intensities for the zone; • subtracting the mean value from each average pixel intensity in the zone and • summing absolute values of the modified average pixel intensities to form a zone-sequence sum A; • for each zone, computing absolute-value first differences for each consecutive pair of average pixel intensities and summing the first differences to form a zone-sequence first-difference sum B; • selecting the zone having the highest ratio A/B; • using the sequence of modified average pixel intensities of the selected zone to determine respiratory phase. • in each living-body-region image in the sequence, defining two or more zones with each image having identical image-to-image zone locations, sizes, and shapes; • for each image, computing an average pixel intensity for each zone to form a sequence thereof for each zone; • for each zone, modifying the average pixel intensities by: • computing a mean value of the sequence of average pixel intensities for the zone; • subtracting the mean value from each average pixel intensity in the zone and • summing absolute values of the modified average pixel intensities to form a zone-sequence sum A; • for each zone, computing absolute-value first differences for each consecutive pair of average pixel intensities and summing the first differences to form a zone-sequence first-difference sum B; • selecting the zone having the highest ratio A/B; • using the sequence of modified average pixel intensities of the selected zone to determine respiratory phase. • computing a mean value of the sequence of average pixel intensities for the zone; • subtracting the mean value from each average pixel intensity in the zone and • summing absolute values of the modified average pixel intensities to form a zone-sequence sum A; • for each zone, computing absolute-value first differences for each consecutive pair of average pixel intensities and summing the first differences to form a zone-sequence first-difference sum B; • selecting the zone having the highest ratio A/B; • using the sequence of modified average pixel intensities of the selected zone to determine respiratory phase.