mhurhangee/ep-ind-claims huggingface dataset:
A degassing hole formation process for a secondary battery manufacturing method, the secondary battery manufacturing method comprising: a first sealing process in which outer peripheral edges of overlapped films are joined to form a casing having a joint portion formed on an outer peripheral edge thereof and a storage element is housed in an interior of the casing; a degassing process in which gas in the interior of the casing is discharged to an exterior of the casing through the degassing hole; and a second sealing process in which the degassing hole is sealed, the degassing hole formation process comprising: forming a degassing hole in a site located between the joint portion on the outer peripheral edge of the casing and the storage element such that the degassing process is performed through the degassing hole, characterised in that the degassing hole is formed by pressing a region including the site of the casing in which the degassing hole is formed from respective sides of the casing so that the overlapped films are pressed tightly together gradually in a direction approaching the storage element from a position distant from the storage element while reducing a pressing force gradually toward the storage element, and forming the degassing hole in the pressed region. a first sealing process in which outer peripheral edges of overlapped films are joined to form a casing having a joint portion formed on an outer peripheral edge thereof and a storage element is housed in an interior of the casing; a degassing process in which gas in the interior of the casing is discharged to an exterior of the casing through the degassing hole; and a second sealing process in which the degassing hole is sealed, the degassing hole formation process comprising: forming a degassing hole in a site located between the joint portion on the outer peripheral edge of the casing and the storage element such that the degassing process is performed through the degassing hole, characterised in that the degassing hole is formed by pressing a region including the site of the casing in which the degassing hole is formed from respective sides of the casing so that the overlapped films are pressed tightly together gradually in a direction approaching the storage element from a position distant from the storage element while reducing a pressing force gradually toward the storage element, and forming the degassing hole in the pressed region.
A method of taking auxiliary power from an airplane turbojet comprising, from upstream to downstream, a high pressure turbine and a low pressure turbine, the method being of the type consisting in taking off said power via a shaft driven by the high pressure turbine, and being characterized, within an idling operating range, by controlling degradation of the efficiency of said low pressure turbine to enable said high pressure turbine so as to operate at a speed that is sufficient for supplying the required auxiliary power.
A random access method, comprising: sending, by a terminal device, a first message of a 2-step random access procedure in the 2-step random access procedure; and switching, by the terminal device, to a 4-step random access procedure, if sending times of the first message of the 2-step random access procedure reach a first threshold and a second message of the 2-step random access procedure is still not received;, characterised in that, after the terminal device switches to the 4-step random access procedure, determining, by the terminal device, a first power, wherein the first power equals to a sending power of the last transmission of the first message in the 2-step random access procedure increased by △P; wherein the △P = preambleReceivedTargetPower _2stepRACH - preambleReceivedTargetPower_ 4stepRACH, the preambleReceivedTargetPower_ 2stepRACH is a target expected received power of a preamble in the first message in the 2-step random access procedure; the preambleReceivedTargetPower_ 4stepRACH is a target expected received power of a preamble in the first message in the 4-step random access procedure; using, by the terminal device, the first power to send a first message in the 4-step random access procedure. sending, by a terminal device, a first message of a 2-step random access procedure in the 2-step random access procedure; and switching, by the terminal device, to a 4-step random access procedure, if sending times of the first message of the 2-step random access procedure reach a first threshold and a second message of the 2-step random access procedure is still not received;, characterised in that, after the terminal device switches to the 4-step random access procedure, determining, by the terminal device, a first power, wherein the first power equals to a sending power of the last transmission of the first message in the 2-step random access procedure increased by △P; wherein the △P = preambleReceivedTargetPower _2stepRACH - preambleReceivedTargetPower_ 4stepRACH, the preambleReceivedTargetPower_ 2stepRACH is a target expected received power of a preamble in the first message in the 2-step random access procedure; the preambleReceivedTargetPower_ 4stepRACH is a target expected received power of a preamble in the first message in the 4-step random access procedure; using, by the terminal device, the first power to send a first message in the 4-step random access procedure.
A method for enabling Segment Routing in a multi-domain network comprising a client network domain and a server network domain, wherein the client network domain is a packet network domain and the server network domain is a connection-oriented network domain, the method comprising: assigning a network segment identifier to each of one or more potential paths through the server network domain between a pair of overlay network nodes in the client network domain, wherein the one or more potential paths are not pre-configured; wherein the or each network segment identifier is suitable for inclusion in one or more data packets to indicate to at least one of the pair of overlay network nodes a preselected network segment routing for the one or more data packets. assigning a network segment identifier to each of one or more potential paths through the server network domain between a pair of overlay network nodes in the client network domain, wherein the one or more potential paths are not pre-configured; wherein the or each network segment identifier is suitable for inclusion in one or more data packets to indicate to at least one of the pair of overlay network nodes a preselected network segment routing for the one or more data packets.
A method for estimating effort of breathing of a patient, comprising: receiving respiratory parameters of the patient from non-invasive airway flow and pressure sensors; calculating respiratory data from the respiratory parameters received from the sensors; inputting the respiratory data into a neural network created using clinical data, wherein the neural network produces a non-invasive estimate of the quantified patient effort; and providing at least one output variable from the neural network estimating effort of breathing. receiving respiratory parameters of the patient from non-invasive airway flow and pressure sensors; calculating respiratory data from the respiratory parameters received from the sensors; inputting the respiratory data into a neural network created using clinical data, wherein the neural network produces a non-invasive estimate of the quantified patient effort; and providing at least one output variable from the neural network estimating effort of breathing.
A method of selecting a pepper plant for red, yellow, orange and red-orange fruit color genotype comprising: (a) detecting the presence or absence of a polymorphism in the Zeaxanthin epoxidase ( Ze) gene conferring said fruit color; and (b) selecting the plant based on the presence or absence of said polymorphism. (a) detecting the presence or absence of a polymorphism in the Zeaxanthin epoxidase ( Ze) gene conferring said fruit color; and (b) selecting the plant based on the presence or absence of said polymorphism.
A liquid ejection head, comprising: a plurality of head units arranged in a first direction; a plurality of first individual heat dissipators each corresponding to one of the plurality of head units as a first corresponding head unit and disposed on a first side of the first corresponding head unit in a second direction orthogonal to the first direction; and a first common heat dissipator disposed on the first side of the plurality of head units in the second direction, the first common heat dissipator extending in the first direction, the first common heat dissipator being shared among the plurality of head units, the plurality of head units each comprising: a unit body comprising an actuator configured to cause ejection of liquid from a plurality of nozzles; and a first driver integrated circuit disposed on the first side of the unit body in the second direction and configured to drive the actuator, the plurality of first individual heat dissipators each being disposed between the first driver integrated circuit and the first common heat dissipator of the first corresponding head unit so as to be in thermal contact with the first driver integrated circuit and the first common heat dissipator, characterized in that each of the plurality of first individual heat dissipators is disposed rotatably about the first driver integrated circuit of the first corresponding head unit as an axis. a plurality of head units arranged in a first direction; a plurality of first individual heat dissipators each corresponding to one of the plurality of head units as a first corresponding head unit and disposed on a first side of the first corresponding head unit in a second direction orthogonal to the first direction; and a first common heat dissipator disposed on the first side of the plurality of head units in the second direction, the first common heat dissipator extending in the first direction, the first common heat dissipator being shared among the plurality of head units, the plurality of head units each comprising: a unit body comprising an actuator configured to cause ejection of liquid from a plurality of nozzles; and a first driver integrated circuit disposed on the first side of the unit body in the second direction and configured to drive the actuator, a unit body comprising an actuator configured to cause ejection of liquid from a plurality of nozzles; and a first driver integrated circuit disposed on the first side of the unit body in the second direction and configured to drive the actuator, the plurality of first individual heat dissipators each being disposed between the first driver integrated circuit and the first common heat dissipator of the first corresponding head unit so as to be in thermal contact with the first driver integrated circuit and the first common heat dissipator, characterized in that each of the plurality of first individual heat dissipators is disposed rotatably about the first driver integrated circuit of the first corresponding head unit as an axis.
A touch sensing electrode, comprising a plurality of first sensing lines, wherein each first sensing line includes a first main trace and a plurality of first trace patterns and at least a first cross point is disposed between the first main trace and each first trace pattern;. wherein the first sensing lines are parallel to each other and are stretching along a first direction; a plurality of second sensing lines parallel to each other and stretching along a second direction, wherein the first sensing lines and the second sensing lines are insulated from each other characterized in that the first sensing lines are made of non-transparent material with low-reflectivity and high conductivity and the second sensing lines are made of transparent conductive material.
An additive for concrete, characterized in that it contains (a) a butadiene-styrene copolymer; (b) a styrene-acrylic ester copolymer; (c) water; (d) an alkali silicate; and (e) a fumed or colloidal silica. (a) a butadiene-styrene copolymer; (b) a styrene-acrylic ester copolymer; (c) water; (d) an alkali silicate; and (e) a fumed or colloidal silica.
A screwing device for applying a torque to a screwing partner, the screwing device comprising: an angular gear comprising a driving shaft, which is configured to have a driving torque applied to it manually or mechanically, and a driven shaft for making severable contact with the screwing partner, the driven shaft being connected to the driving shaft in a torque-transferring manner and being offset at an angle; and detection means for providing measurement values for determining and/or monitoring an output torque acting on the screwing partner on the output side, the detection means being disposed in a housing of the angular gear, the detection means being assigned to a bearing point of the driven shaft and being configured in such a manner that they can detect a bearing reaction force of the driven shaft in a radial and/or tangential direction (R, T) and make it available for electronic signal evaluation, and the angular gear having a first bevel gear, which is connected to the driving shaft, and a second bevel gear, which meshes with the first bevel gear and is connected to the driven shaft, the second bevel gear being disposed between an axis of rotation of the first bevel gear and an output side of the screwing device, and the device having two bearing points (4a, 4b) for the driven shaft, the detection means comprising a force transducer (5a, 5a') assigned to a first bearing point on the driving side. an angular gear comprising a driving shaft, which is configured to have a driving torque applied to it manually or mechanically, and a driven shaft for making severable contact with the screwing partner, the driven shaft being connected to the driving shaft in a torque-transferring manner and being offset at an angle; and detection means for providing measurement values for determining and/or monitoring an output torque acting on the screwing partner on the output side, the detection means being disposed in a housing of the angular gear, the detection means being assigned to a bearing point of the driven shaft and being configured in such a manner that they can detect a bearing reaction force of the driven shaft in a radial and/or tangential direction (R, T) and make it available for electronic signal evaluation, and the angular gear having a first bevel gear, which is connected to the driving shaft, and a second bevel gear, which meshes with the first bevel gear and is connected to the driven shaft, the second bevel gear being disposed between an axis of rotation of the first bevel gear and an output side of the screwing device, and the device having two bearing points (4a, 4b) for the driven shaft, the detection means comprising a force transducer (5a, 5a') assigned to a first bearing point on the driving side.
Shuttle for transporting pallets in a shelving structure, wherein the shuttle is displaceable along a first direction and along a second direction which is virtually at right angles to the first direction, wherein the first and the second direction are intended to extend virtually horizontally during use, wherein the shuttle comprises a frame, first wheels which are arranged so as to be rotatable about first rotation axles which extend through the centre of the respective first wheels and virtually along the second direction in order to move the shuttle along the first direction, and second wheels which are arranged so as to be rotatable about second rotation axles which extend through the centre of the respective second wheels and virtually along the first direction in order to move the shuttle along the second direction, wherein the shuttle comprises a displacement device (4, 5, 6, 7) for upwardly and downwardly displacing the first wheels during use of the shuttle, so that the first wheels are displaceable between at least a first position in which the shuttle is configured to be supported on the first wheels and is displaceable along the first direction, and a second position in which the shuttle is configured to be supported on the second wheels and is displaceable along the second direction, wherein the shuttle comprises one or several support elements which together form at least one supporting surface for supporting pallets, these one or several support elements being connected to the frame in such a way that the supporting surface extends on the top side of the frame, characterized in that the one or several support elements are upwardly and downwardly displaceable with respect to the frame between a lowest position, in which the distance between the supporting surface and the frame is minimal and the one or several support elements rest on the frame, and a highest position, in which the distance between the supporting surface and the frame is maximal, wherein the upward and downward displacement of the one or several support elements is coupled to the upward and downward displacement of the first wheels.
A method for producing an organic device that includes, in sequence: at least one lower electrode; an organic compound layer; an upper electrode; a first protective layer; and a second protective layer, the method comprising the steps of: providing at least one substrate including the at least one lower electrode; forming an organic compound layer on the lower electrode; forming the upper electrode on the organic compound layer; forming the first protective layer on the upper electrode by a sputtering method or a chemical vapor deposition method; forming the second protective layer on the first protective layer by an atomic layer deposition method after forming the first protective layer; and forming a third protective layer by the atomic layer deposition method on a side of the substrate opposite to a side on which the at least one lower electrode is formed after forming the first protective layer. at least one lower electrode; an organic compound layer; an upper electrode; a first protective layer; and a second protective layer, the method comprising the steps of: providing at least one substrate including the at least one lower electrode; forming an organic compound layer on the lower electrode; forming the upper electrode on the organic compound layer; forming the first protective layer on the upper electrode by a sputtering method or a chemical vapor deposition method; forming the second protective layer on the first protective layer by an atomic layer deposition method after forming the first protective layer; and forming a third protective layer by the atomic layer deposition method on a side of the substrate opposite to a side on which the at least one lower electrode is formed after forming the first protective layer. providing at least one substrate including the at least one lower electrode; forming an organic compound layer on the lower electrode; forming the upper electrode on the organic compound layer; forming the first protective layer on the upper electrode by a sputtering method or a chemical vapor deposition method; forming the second protective layer on the first protective layer by an atomic layer deposition method after forming the first protective layer; and forming a third protective layer by the atomic layer deposition method on a side of the substrate opposite to a side on which the at least one lower electrode is formed after forming the first protective layer.
An arrangement utilizing recirculation for high temperature fuel cell system, each fuel cell in the fuel cell system comprising an anode side, a cathode side, and an electrolyte between the anode side and the cathode side, and the fuel cell system comprises means for performing anode side recirculation flow of reactants, characterized by, that the arrangement comprises means for accomplishing recycle ratio 70 % or more for the recirculation flow volume, means for feeding to the recirculation a feed-in flow, which comprises substantially high oxygen content, the feed-in flow being 30 % or less of entire flow volume, means for performing heat exchanging to provide substantially low temperature conditions in the recirculation flow, means for performing catalytic partial oxidation in the recirculation flow to produce a substantially high amount of hydrogen for the recirculation flow in fuel cell system start-up or shutdown situations, and means for exhausting 30 % or less of the entire flow volume from the anode side recirculation the means and being arranged to provide inlet temperature of 350 °C - 500 °C to the means while outlet temperature of said means not exceeding 800 °C.
Tapentadol for use in the treatment of depression and/or of anxiety in a subject suffering from neuropathic low back pain, with the proviso that tapentadol is not administered in combination with an antiepileptic.
A forming jig forming a laminate into a three-dimensional shape that extends in a longitudinal direction, that has a cross-sectional shape including curved portions in a cross-section cut along a plane orthogonal to the longitudinal direction, and that includes a bent portion in the longitudinal direction, the laminate being obtained by laminating reinforced fiber sheets, the forming jig comprising: a female die that includes a female-side forming surface for forming the bent portion; a male die that is fitted to the female die with the laminate interposed therebetween and that includes a male-side forming surface for forming the bent portion; and a support member having extensibility that is provided between the female die and the laminate at a time of forming and that supports the laminate in a state where the laminate is separated from the female die, wherein the laminate abuts the male die on both sides of the bent portion to be formed in the longitudinal direction at the time of the forming, the support member is provided over a range including the female-side forming surface in the longitudinal direction, characterized in that the support member includes a plurality of support member segments (15a, 15b, 15c) into which the support member is divided in the longitudinal direction. a female die that includes a female-side forming surface for forming the bent portion; a male die that is fitted to the female die with the laminate interposed therebetween and that includes a male-side forming surface for forming the bent portion; and a support member having extensibility that is provided between the female die and the laminate at a time of forming and that supports the laminate in a state where the laminate is separated from the female die, wherein the laminate abuts the male die on both sides of the bent portion to be formed in the longitudinal direction at the time of the forming, the support member is provided over a range including the female-side forming surface in the longitudinal direction, characterized in that the support member includes a plurality of support member segments (15a, 15b, 15c) into which the support member is divided in the longitudinal direction.
A system for identifying medical instruments in a sterilization case comprising: (a) at least one radio frequency identification tag (7, 8); (b) at least one medical instrument contained in a case and attached to the radio frequency identification tag; (c) a reader adapted to obtain information, via radio frequency, from said radio frequency identification tag; wherein the case and the RFID tags are adapted to permit the reader to obtain information, via radio frequency, when the medical instrument is container in the case, characterised in that the case is a sterilization case surrounded by a sealed wrap, and in that at least one surface of the sterilization case has at least one opening adapted in size or shape to allow radio frequency signals to enter and leave the case.