mhurhangee/patent-ind-claim-en huggingface dataset:
A fabrication method of a battery (B), comprising steps of: providing (S01) an electrode group , a first sealing film and a second sealing film ; bonding (S02) a part of a first surface of the first sealing film and a part of a first surface of the second sealing film by thermocompression to form a sealed chamber (S), wherein both of the first sealing film and the second sealing film have redundant parts located outside the sealed chamber (S) and without being bound by thermo-compression, and a part of the electrode group is disposed in the sealed chamber (S); injecting (S03) an electrolyte into the sealed chamber (S); folding (S41) the redundant part of the first sealing film with an angle of 180 degrees; folding (S42) the redundant part of the second sealing film with an angle of 180 degrees; providing (S43) a fixing member (F) being constituted by a frame or a casing of the battery; aligning (S44) the first surface of the redundant part of the first sealing film to be opposite to the first surface of the redundant part of the second sealing film ; and covering (S45) the first sealing film and the second sealing film by the fixing member (F) and then bonding the redundant part of the first sealing film , the redundant part of the second sealing film and the fixing member (F) by thermo-compression, such that the battery (B) is fixed or assembled on the fixing member (F). providing (S01) an electrode group , a first sealing film and a second sealing film ; bonding (S02) a part of a first surface of the first sealing film and a part of a first surface of the second sealing film by thermocompression to form a sealed chamber (S), wherein both of the first sealing film and the second sealing film have redundant parts located outside the sealed chamber (S) and without being bound by thermo-compression, and a part of the electrode group is disposed in the sealed chamber (S); injecting (S03) an electrolyte into the sealed chamber (S); folding (S41) the redundant part of the first sealing film with an angle of 180 degrees; folding (S42) the redundant part of the second sealing film with an angle of 180 degrees; providing (S43) a fixing member (F) being constituted by a frame or a casing of the battery; aligning (S44) the first surface of the redundant part of the first sealing film to be opposite to the first surface of the redundant part of the second sealing film ; and covering (S45) the first sealing film and the second sealing film by the fixing member (F) and then bonding the redundant part of the first sealing film , the redundant part of the second sealing film and the fixing member (F) by thermo-compression, such that the battery (B) is fixed or assembled on the fixing member (F).
A secondary battery state detection device for detecting a state of a secondary battery , comprising: a measurement unit for measuring or estimating an open-circuit voltage of the secondary battery ; a determination unit for determining a state of charge by applying the open-circuit voltage measured or estimated by the measurement unit to a correlation equation expressing the relationship between the open-circuit voltage and the state of charge; a calculation unit for calculating the state of charge on the basis of an internal resistance of the secondary battery ; a correction unit for correcting the correlation equation of the determination unit if the values of the state of charge determined by the determination unit and the state of charge calculated by the calculation unit differ; characterised in that it further comprises a learning unit for discharging the secondary battery and learning an element value of an equivalent circuit of the secondary battery on the basis of a voltage and a current in discharging; and a measuring unit for charging the secondary battery and measuring a resistance value of the secondary battery on the basis of a voltage and a current in charging, wherein the calculating unit being configured to calculate the state of charge on the basis of a ratio of the element value learned by the learning unit to the internal resistance measured by the measuring unit . a measurement unit for measuring or estimating an open-circuit voltage of the secondary battery ; a determination unit for determining a state of charge by applying the open-circuit voltage measured or estimated by the measurement unit to a correlation equation expressing the relationship between the open-circuit voltage and the state of charge; a calculation unit for calculating the state of charge on the basis of an internal resistance of the secondary battery ; a correction unit for correcting the correlation equation of the determination unit if the values of the state of charge determined by the determination unit and the state of charge calculated by the calculation unit differ; characterised in that it further comprises a learning unit for discharging the secondary battery and learning an element value of an equivalent circuit of the secondary battery on the basis of a voltage and a current in discharging; and a measuring unit for charging the secondary battery and measuring a resistance value of the secondary battery on the basis of a voltage and a current in charging, wherein the calculating unit being configured to calculate the state of charge on the basis of a ratio of the element value learned by the learning unit to the internal resistance measured by the measuring unit .
A determination method for locking of a drum of washing appliance, the washing appliance comprising a drum motor for driving a drum to rotate and a locking structure , comprising, driving the drum to rotate at a set power output by the drum motor , taking a locking action for locking the drum by the locking structure , and determining that the drum is locked by the locking structure when an output current of the drum motor is greater than a rated current, characterized in that the locking structure takes the locking action for locking the drum, the drum motor drives the drum to continuously rotate at the set power output, and the output current of the drum motor is detected to obtain the output current I 1 of the drum motor after the drum rotates for a certain time t; and if I 1 >I 0 , the drum is locked by the locking structure ; and if I 1 <I 0 , the locking structure fails to lock the drum, wherein I 0 is a rated current value. driving the drum to rotate at a set power output by the drum motor , taking a locking action for locking the drum by the locking structure , and determining that the drum is locked by the locking structure when an output current of the drum motor is greater than a rated current, characterized in that the locking structure takes the locking action for locking the drum, the drum motor drives the drum to continuously rotate at the set power output, and the output current of the drum motor is detected to obtain the output current I 1 of the drum motor after the drum rotates for a certain time t; and if I 1 >I 0 , the drum is locked by the locking structure ; and if I 1 <I 0 , the locking structure fails to lock the drum, wherein I 0 is a rated current value.
A light source device , comprising: an exciting light source for generating exciting light; a light condensing device ; and a fluorescent cavity , wherein the fluorescent cavity comprises a chamber and a fluorescent layer , the chamber having a light window allowing light to enter and exit and a bottom wall opposite to the light window , and the fluorescent layer being provided on a surface of the bottom wall ; and wherein the exciting light is converged by the light condensing device , then incident to a surface of the fluorescent layer from the light window to form a light spot which excites the fluorescent layer to generate excited light, wherein an area of the light window is smaller than an area of the light spot, and the excited light is emitted from the light window , characterized in that light source device further comprises: a light homogenizing element , wherein the exciting light emitted from the exciting light source is homogenized by the light homogenizing element , and a light splitting element , wherein the light splitting element receives the exciting light homogenized by the light homogenizing element , and is configured to reflect a part of the exciting light and transmit the excited light, wherein the exciting light source and the chamber are disposed in a same side of the light splitting element . an exciting light source for generating exciting light; a light condensing device ; and a fluorescent cavity , wherein the fluorescent cavity comprises a chamber and a fluorescent layer , the chamber having a light window allowing light to enter and exit and a bottom wall opposite to the light window , and the fluorescent layer being provided on a surface of the bottom wall ; and wherein the exciting light is converged by the light condensing device , then incident to a surface of the fluorescent layer from the light window to form a light spot which excites the fluorescent layer to generate excited light, wherein an area of the light window is smaller than an area of the light spot, and the excited light is emitted from the light window , characterized in that light source device further comprises: a light homogenizing element , wherein the exciting light emitted from the exciting light source is homogenized by the light homogenizing element , and a light splitting element , wherein the light splitting element receives the exciting light homogenized by the light homogenizing element , and is configured to reflect a part of the exciting light and transmit the excited light, wherein the exciting light source and the chamber are disposed in a same side of the light splitting element . a light homogenizing element , wherein the exciting light emitted from the exciting light source is homogenized by the light homogenizing element , and a light splitting element , wherein the light splitting element receives the exciting light homogenized by the light homogenizing element , and is configured to reflect a part of the exciting light and transmit the excited light, wherein the exciting light source and the chamber are disposed in a same side of the light splitting element .
A vortex generator device for a wind turbine blade , the vortex generator device comprising: - a base with an inner side and an outer side ; and - a first fin protruding from the outer side and extending along a first fin axis (X1), wherein the vortex generator device is a single-fin vortex generator device, and the base has a first edge part and a second edge part , the first edge part and the second edge part being straight, the first edge part and the second edge part forming a primary angle (V1) in the range from 5 degrees to 60 degrees, and the base having a first leading corner edge part between the first edge part and the second edge part, characterised in that the first leading corner edge part is curved. - a base with an inner side and an outer side ; and - a first fin protruding from the outer side and extending along a first fin axis (X1),
A shaving cartridge comprising: a housing having a top surface , a bottom surface , a front edge , a rear edge , and a pair of side edges extending between the front edge and the rear edge , the housing having a main blade disposed between the front edge and the rear edge , the main blade having a main cutting edge extending toward the top surface , the main blade being movable in the housing, wherein the shaving cartridge comprises a masking foil comprising a front portion located forward of the main cutting edge and a back portion located rearward the main cutting edge , the masking foil further comprising at least one ribbon which partially covers the main cutting edge , wherein the at least one ribbon comprises a front bent portion connected to the front portion and a back bent portion connected to the back portion of the masking foil , the front and the back bent portion being directed toward the bottom surface , wherein the masking foil is inserted in the housing of the cartridge , and wherein the at least one ribbon comprises protruding features/portions facing toward the top surface of the housing. a housing having a top surface , a bottom surface , a front edge , a rear edge , and a pair of side edges extending between the front edge and the rear edge , the housing having a main blade disposed between the front edge and the rear edge , the main blade having a main cutting edge extending toward the top surface , the main blade being movable in the housing, wherein the shaving cartridge comprises a masking foil comprising a front portion located forward of the main cutting edge and a back portion located rearward the main cutting edge , the masking foil further comprising at least one ribbon which partially covers the main cutting edge , wherein the at least one ribbon comprises a front bent portion connected to the front portion and a back bent portion connected to the back portion of the masking foil , the front and the back bent portion being directed toward the bottom surface , wherein the masking foil is inserted in the housing of the cartridge , and wherein the at least one ribbon comprises protruding features/portions facing toward the top surface of the housing.
An image processing apparatus (100; 800) comprising: cross section information acquisition means configured to acquire a position and orientation of a cross section image obtained by capturing an object; three-dimensional image acquisition means (110; 810) configured to acquire a three-dimensional image obtained by capturing the object; and correspondence cross section calculation means configured to calculate a correspondence cross section of the cross section image in the three-dimensional image based on the position and orientation, characterized by generation means (150; 850) configured to generate a plurality of images of cross sections in the three-dimensional image; display means (160; 860) configured to display the plurality of images of cross sections; and error acquisition means configured to acquire an estimation value of an error occurring when calculating the correspondence cross section, wherein said generation means (150; 850) is configured to generate the plurality of images of the cross sections within a range based on the estimation value of the error. cross section information acquisition means configured to acquire a position and orientation of a cross section image obtained by capturing an object; three-dimensional image acquisition means (110; 810) configured to acquire a three-dimensional image obtained by capturing the object; and correspondence cross section calculation means configured to calculate a correspondence cross section of the cross section image in the three-dimensional image based on the position and orientation, characterized by generation means (150; 850) configured to generate a plurality of images of cross sections in the three-dimensional image; display means (160; 860) configured to display the plurality of images of cross sections; and error acquisition means configured to acquire an estimation value of an error occurring when calculating the correspondence cross section, wherein said generation means (150; 850) is configured to generate the plurality of images of the cross sections within a range based on the estimation value of the error.
A weapons training assembly (WTA) for use with a weapon, comprising: a) a magazine ; and b) a small arms transmitter (SAT), wherein the small arms transmitter (SAT) comprises small arms transmitter (SAT) optical detectors (210-1 ... 210-5), characterised in that , the magazine comprises magazine optical detectors (312-1, 312-,2 and 312-3) configured for detecting that a laser virtual shot of another weapon has hit the weapon. a) a magazine ; and b) a small arms transmitter (SAT), wherein the small arms transmitter (SAT) comprises small arms transmitter (SAT) optical detectors (210-1 ... 210-5),
A card shuffler , comprising: a card input area for receiving a stack of playing cards; a card input mechanism for inputting the playing cards from the card input area into the card shuffler ; a card storage device for receiving the playing cards from the card input mechanism and temporarily storing the playing cards within the card shuffler , the card storage device comprising a movable wheel configured to rotate within the card shuffler , the movable wheel comprising a plurality of card storage compartments ; a card output mechanism for outputting the playing cards from the card shuffler ; and a card output compartment or area for receiving the playing cards from the card output mechanism , characterized in that the card output mechanism is configured to eject the playing cards out from the card storage compartments and into the card output compartment or area such that the playing cards are oriented at a downward angle of between 2° and 15° relative to a horizontal plane at all times as the playing cards move from each card storage compartment and into the card output compartment or area . a card input area for receiving a stack of playing cards; a card input mechanism for inputting the playing cards from the card input area into the card shuffler ; a card storage device for receiving the playing cards from the card input mechanism and temporarily storing the playing cards within the card shuffler , the card storage device comprising a movable wheel configured to rotate within the card shuffler , the movable wheel comprising a plurality of card storage compartments ; a card output mechanism for outputting the playing cards from the card shuffler ; and a card output compartment or area for receiving the playing cards from the card output mechanism , characterized in that the card output mechanism is configured to eject the playing cards out from the card storage compartments and into the card output compartment or area such that the playing cards are oriented at a downward angle of between 2° and 15° relative to a horizontal plane at all times as the playing cards move from each card storage compartment and into the card output compartment or area .
A load handling device that is installed between a supply position (G) where a load (W) is fed and a loading position (H) where the load (W) is loaded, and configured to load at the loading position (H) the load (W) that has been fed from the supply position (G), the load handling device comprising: a base platform ; a lifting unit that is movable up and down relative to the base platform ; a pair of forks that is disposed on the lifting unit and configured to support a bottom surface of the load (W) that has been fed from the supply position (G); a fork distance adjusting mechanism that is configured to adjust a distance between the pair of forks in accordance with a size of the load (W); and a fork advancing/retracting mechanism that is configured to cause the pair of forks to advance to or retract from the loading position (H), characterized by a load positioning mechanism that is configured to restrict the load (W) from moving back when the pair of forks retracts from the loading position (H), and configured to position the load (W) at the loading position (H), wherein the load positioning mechanism includes a stopper member that is inclined to stand up or lie down relative to a supporting surface of each of the pair of forks , the stopper member is disposed at a position in which the stopper member is inclined to lie down by the load (W) running onto and getting across the stopper member when the load (W) moves in the direction where the load (W) is fed, and the stopper member stands upright after the load (W) has passed across the stopper member . a base platform ; a lifting unit that is movable up and down relative to the base platform ; a pair of forks that is disposed on the lifting unit and configured to support a bottom surface of the load (W) that has been fed from the supply position (G); a fork distance adjusting mechanism that is configured to adjust a distance between the pair of forks in accordance with a size of the load (W); and a fork advancing/retracting mechanism that is configured to cause the pair of forks to advance to or retract from the loading position (H), characterized by a load positioning mechanism that is configured to restrict the load (W) from moving back when the pair of forks retracts from the loading position (H), and configured to position the load (W) at the loading position (H), wherein the load positioning mechanism includes a stopper member that is inclined to stand up or lie down relative to a supporting surface of each of the pair of forks , the stopper member is disposed at a position in which the stopper member is inclined to lie down by the load (W) running onto and getting across the stopper member when the load (W) moves in the direction where the load (W) is fed, and the stopper member stands upright after the load (W) has passed across the stopper member .
An insulator based field effect topological transistor structure (TCSHTS) comprising: a topological insulator layer forming a substrate with a drain area and a source area , a gate dielectric layer , a gate contact separated from the substrate by the gate dielectric layer , a drain contact arranged next to the drain area and a source contact arranged next to the source area , wherein the topological insulator layer is a quantum spin Hall insulator layer, the drain contact is connected to the quantum spin Hall insulator layer, characterised in that the insulator based field effect topological transistor structure has a ferromagnetic insulator island placed in proximity of the edge of the quantum spin Hall insulator layer, and the insulator based field effect topological transistor structure has a grounded superconducting contact placed in proximity of the edge of the quantum spin Hall insulator layer and adjacent to the said ferromagnetic insulator layer. the topological insulator layer is a quantum spin Hall insulator layer, the drain contact is connected to the quantum spin Hall insulator layer, characterised in that the insulator based field effect topological transistor structure has a ferromagnetic insulator island placed in proximity of the edge of the quantum spin Hall insulator layer, and the insulator based field effect topological transistor structure has a grounded superconducting contact placed in proximity of the edge of the quantum spin Hall insulator layer and adjacent to the said ferromagnetic insulator layer.
Mould unit for the continuous casting of metal products, in particular for the continuous casting of blooms, comprising a mould tube which has a polygonal outer cross-sectional shape and a plurality of corner regions , and a plurality of separate reinforcing plates which are fastened to the outside of the mould tube and together enclose the mould tube , wherein a respective coolant guide gap for guiding a coolant is configured between each of the reinforcing plates and the mould tube , characterized in that the reinforcing plates at the corner regions of the mould tube are not connected to one another by screw connections.