mhurhangee/ep-ind-claims huggingface dataset:
An electrode assembly (200, 500) configured to have a rectangular structure comprising two long sides (201, 203, 501, 503) and two short sides (202, 204, 502, 504) when viewed in a plan view, wherein the electrode assembly is configured to have a stacked type structure or a laminated and stacked type structure, wherein the electrode assembly (200, 500) comprises positive electrode tabs (211, 212, 511, 512, 513) protruding from two, three or more regions of a first long side (201, 501) that are spaced apart from each other along the length of the first long side (201, 501) when viewed in a plan view, the first long side (201, 501) being one of the two long sides (201, 203, 501, 503), and negative electrode tabs (221, 222, 521, 522, 523) protruding from two, three or more regions of a second long side (203, 503) that are spaced apart from each other along the length of the second long side (203, 503) when viewed in a plan view, the second long side (203, 503) being the other of the two long sides (201, 203, 501, 503), and wherein the positive electrode tabs (211, 212, 511, 512, 513) are coupled to a positive electrode lead (231, 531), located at the first long side (201, 501), whereas the negative electrode tabs (221, 222, 521, 522, 523) are coupled to a negative electrode lead (232, 532), located at the second long side (203, 503), wherein the length of the positive electrode lead (231, 531) is longer than the maximum distance between the positive electrode tabs (211, 212, 511, 513) and a length of the negative electrode lead (232, 532) is longer than the maximum distance between the negative electrode tabs (221, 222, 521, 523), wherein the length of each of the long sides (201, 203, 501, 503) is 200 % or more of a length of each of the short sides (202, 204, 502, 504), and wherein the positive electrode tabs (211, 212, 511, 512, 513) and the negative electrode tabs (221, 222, 521, 522, 523) protrude respectively from the first long side (201, 501) and the second long side (203, 503) so as to be opposite each other.
A wireless power transmitter (110, 200, 500, 600, 700, 800, 900), comprising: a conductive structure (105, 205, 498, 698, 798, 1310, 1320, 1330) configured to generate a field; characterized in comprising a plurality of electrical circuits (680-683, 780-783, 880-882, 980, 981, 1311-1313, 1321-1324, 1337, 1338) operatively connected to the conductive structure and driven by a plurality of sources (501, 502) to provide the conductive structure with a substantially constant current, each electrical circuit comprising a capacitor (520, 521, 620, 1020) coupled to the conductive structure, an inductor (510, 511, 610), and a transformer to couple an output of the source to the capacitor. a conductive structure (105, 205, 498, 698, 798, 1310, 1320, 1330) configured to generate a field; characterized in comprising a plurality of electrical circuits (680-683, 780-783, 880-882, 980, 981, 1311-1313, 1321-1324, 1337, 1338) operatively connected to the conductive structure and driven by a plurality of sources (501, 502) to provide the conductive structure with a substantially constant current, each electrical circuit comprising a capacitor (520, 521, 620, 1020) coupled to the conductive structure, an inductor (510, 511, 610), and a transformer to couple an output of the source to the capacitor.
An audio signal correction apparatus comprising: a first differential-value acquisition circuit configured to acquire a first differential value between first current input data and first previous input data in an i number (i being a natural number) of sampling periods before the first current input data, both first input data being of a first digital audio signal that has a sound level of a digital stereo audio signal in a left channel; a second differential-value acquisition circuit configured to acquire a second differential value between second current input data and second previous input data in a j number (j being a natural number) of sampling periods before the second current input data, both second input data being of a second digital audio signal that has a sound level of the digital stereo audio signal in a right channel; a correction coefficient acquisition circuit configured to acquire a first correction coefficient by adding the first and second differential values at a first ratio and acquire a second correction coefficient by adding the first and second differential values at a second ratio; and a correction circuit configured to correct the first digital audio signal by multiplying the first digital audio signal by the first correction coefficient and correct the second digital audio signal by multiplying the second digital audio signal by the second correction coefficient. a first differential-value acquisition circuit configured to acquire a first differential value between first current input data and first previous input data in an i number (i being a natural number) of sampling periods before the first current input data, both first input data being of a first digital audio signal that has a sound level of a digital stereo audio signal in a left channel; a second differential-value acquisition circuit configured to acquire a second differential value between second current input data and second previous input data in a j number (j being a natural number) of sampling periods before the second current input data, both second input data being of a second digital audio signal that has a sound level of the digital stereo audio signal in a right channel; a correction coefficient acquisition circuit configured to acquire a first correction coefficient by adding the first and second differential values at a first ratio and acquire a second correction coefficient by adding the first and second differential values at a second ratio; and a correction circuit configured to correct the first digital audio signal by multiplying the first digital audio signal by the first correction coefficient and correct the second digital audio signal by multiplying the second digital audio signal by the second correction coefficient.
A method of fusing and electrically contacting a first insulating substrate having at least one first conductive layer thereon with at least one second insulating substrate having at least one second conductive layer thereon, the method comprising - stacking the first and second substrates such that an interface zone is formed between them, the interface zone comprising - an electrical contacting zone where at least one first conductive layer faces and is at least partially aligned with at least one second conductive layer, and - a substrate fusing zone where the insulating substrates (28A, 28B) directly face each other, - focusing to the interface zone of the substrates (28A, 28B) through one of the substrates a plurality of sequential focused laser pulses from a laser source, the pulse duration, pulse frequency and pulse power of the laser light being chosen to provide local melting of the substrate (28A, 28B) materials and of the conductive layers (29A, 29B), - moving the laser source and the substrate with respect to each other at a predetermined velocity and path so that a structurally modified zone is formed at the interface zone, the structurally modified zone overlapping with said electrical contacting zone and said substrate fusing zone. - stacking the first and second substrates such that an interface zone is formed between them, the interface zone comprising - an electrical contacting zone where at least one first conductive layer faces and is at least partially aligned with at least one second conductive layer, and - a substrate fusing zone where the insulating substrates (28A, 28B) directly face each other, - an electrical contacting zone where at least one first conductive layer faces and is at least partially aligned with at least one second conductive layer, and - a substrate fusing zone where the insulating substrates (28A, 28B) directly face each other, - focusing to the interface zone of the substrates (28A, 28B) through one of the substrates a plurality of sequential focused laser pulses from a laser source, the pulse duration, pulse frequency and pulse power of the laser light being chosen to provide local melting of the substrate (28A, 28B) materials and of the conductive layers (29A, 29B), - moving the laser source and the substrate with respect to each other at a predetermined velocity and path so that a structurally modified zone is formed at the interface zone, the structurally modified zone overlapping with said electrical contacting zone and said substrate fusing zone.
A marker for grinding and cleaning that grinds and cleans a surface of a workpiece and forms a mark on the ground and cleaned portion, the marker for grinding and cleaning comprising: a carriage configured to be movable in a desired direction; a marking member loaded on the carriage for marking on the surface of the workpiece; and a grinding-cleaning member loaded on the carriage for grinding the surface of the workpiece, wherein the marker further comprises a turning member for turning the grinding-cleaning member, wherein the grinding-cleaning member is disposed to be distant from the marking member and configured to be turnable about the marking member as a turning center by the turning member so that the marking member follows the grinding-cleaning member along a predetermined process line, and the marker being characterized in that the marking member has a marking block in which a plurality of holes is disposed on the surface in a matrix shape, wherein a liquid supply unit is connected to each hole, and in that the marker further comprises a primary elevation member (2, 3) elevating the marking member, and a secondary elevation member (12, 13) elevating the grinding-cleaning member, wherein the marker is adapted so that an elevation speed of the secondary elevation member (12, 13) is set to be faster than an elevation speed of the primary elevation member (2, 3). a carriage configured to be movable in a desired direction; a marking member loaded on the carriage for marking on the surface of the workpiece; and a grinding-cleaning member loaded on the carriage for grinding the surface of the workpiece, wherein the marker further comprises a turning member for turning the grinding-cleaning member, wherein the grinding-cleaning member is disposed to be distant from the marking member and configured to be turnable about the marking member as a turning center by the turning member so that the marking member follows the grinding-cleaning member along a predetermined process line, and the marker being characterized in that the marking member has a marking block in which a plurality of holes is disposed on the surface in a matrix shape, wherein a liquid supply unit is connected to each hole, and in that the marker further comprises a primary elevation member (2, 3) elevating the marking member, and a secondary elevation member (12, 13) elevating the grinding-cleaning member, wherein the marker is adapted so that an elevation speed of the secondary elevation member (12, 13) is set to be faster than an elevation speed of the primary elevation member (2, 3).
An optoelectronic device comprising a photoactive region, which photoactive region comprises: an n-type region comprising at least one n-type layer; a p-type region comprising at least one p-type layer; and, disposed between the n-type region and the p-type region: a layer of a perovskite semiconductor without open porosity, wherein said perovskite comprises a three-dimensional crystal structure. an n-type region comprising at least one n-type layer; a p-type region comprising at least one p-type layer; and, disposed between the n-type region and the p-type region: a layer of a perovskite semiconductor without open porosity, wherein said perovskite comprises a three-dimensional crystal structure. a layer of a perovskite semiconductor without open porosity, wherein said perovskite comprises a three-dimensional crystal structure.
A scaffold for the treatment of stress urinary incontinence, wherein the scaffold comprises three layers of polyurethane: a first layer and a third layer in which the polyurethane fibres are randomly orientated and a second layer between said first and third layers in which the fibres are aligned longitudinally, and wherein the first and/or third layers of polyurethane comprise pores of a mean pore size of at least 10μm.
A connector, comprising: a housing including a locking portion and an insertion hole into which an electric wire is inserted; a seal material, formed in an annular shape, inserted into the insertion hole of the housing, and into which the electric wire is inserted; a rear holder, provided integrally on the housing, and including: a through hole through which the electric wire penetrates; and a rear holder locking portion which is brought into engagement with the locking portion of the housing, and locked on the locking portion of the housing so as to prevent the seal material inserted in the insertion hole of the housing from being dislodged from the housing and to support the electric wire which penetrates through the through hole and the insertion hole in the housing; and a shell, including an accommodating portion which accommodates the housing and the rear holder in an interior thereof and a shell locking portion which is brought into engagement with the locking portion of the housing, wherein the accommodating portion accommodates the housing and the rear holder and the shell locking portion is locked on the locking portion of the housing on which the rear holder locking portion is locked so that the shell is provided so as to cover the housing, and wherein the locking portions of the shell cover the locking portions of the rear holder. a housing including a locking portion and an insertion hole into which an electric wire is inserted; a seal material, formed in an annular shape, inserted into the insertion hole of the housing, and into which the electric wire is inserted; a rear holder, provided integrally on the housing, and including: a through hole through which the electric wire penetrates; and a rear holder locking portion which is brought into engagement with the locking portion of the housing, and locked on the locking portion of the housing so as to prevent the seal material inserted in the insertion hole of the housing from being dislodged from the housing and to support the electric wire which penetrates through the through hole and the insertion hole in the housing; and a through hole through which the electric wire penetrates; and a rear holder locking portion which is brought into engagement with the locking portion of the housing, and locked on the locking portion of the housing so as to prevent the seal material inserted in the insertion hole of the housing from being dislodged from the housing and to support the electric wire which penetrates through the through hole and the insertion hole in the housing; and a shell, including an accommodating portion which accommodates the housing and the rear holder in an interior thereof and a shell locking portion which is brought into engagement with the locking portion of the housing, wherein the accommodating portion accommodates the housing and the rear holder and the shell locking portion is locked on the locking portion of the housing on which the rear holder locking portion is locked so that the shell is provided so as to cover the housing, and wherein the locking portions of the shell cover the locking portions of the rear holder.
A device configured to convert a constant suction force to a periodic suction force, the device comprising: a housing configured to receive a portion of a vacuum tube and a portion of a vent tube; a first plunger (48A,86A); a second plunger (48B,86B); and a rotatable cam (46,72,82,92) configured to cause the first plunger (48A,86A) to periodically compress the vacuum tube and to cause the second plunger (48B,86B) to periodically compress the vent tube. a housing configured to receive a portion of a vacuum tube and a portion of a vent tube; a first plunger (48A,86A); a second plunger (48B,86B); and a rotatable cam (46,72,82,92) configured to cause the first plunger (48A,86A) to periodically compress the vacuum tube and to cause the second plunger (48B,86B) to periodically compress the vent tube.
A process for the production of a container surrounding an interior, comprising the steps a. provision of a planar composite comprising i. a carrier layer; ii. a barrier layer of plastic joined to the carrier layer; iii. at least one layer of thermoplastic plastic KSa which is provided on the side of the barrier layer of plastic facing away from the carrier layer; b. folding of the planar composite to form a fold with at least two fold surfaces (9, 10) adjacent to one another; c. joining respectively at least a part region of the at least two fold surfaces (9, 10) to form a base or a top of the container; wherein the at least one layer of thermoplastic plastic KSa in step b. is heated above the melting temperature. a. provision of a planar composite comprising i. a carrier layer; ii. a barrier layer of plastic joined to the carrier layer; iii. at least one layer of thermoplastic plastic KSa which is provided on the side of the barrier layer of plastic facing away from the carrier layer; i. a carrier layer; ii. a barrier layer of plastic joined to the carrier layer; iii. at least one layer of thermoplastic plastic KSa which is provided on the side of the barrier layer of plastic facing away from the carrier layer; b. folding of the planar composite to form a fold with at least two fold surfaces (9, 10) adjacent to one another; c. joining respectively at least a part region of the at least two fold surfaces (9, 10) to form a base or a top of the container;
A system, comprising: a server (18, 70) configured for receiving and processing digital information and wireless signals; a database (22, 34, 62, 66) in communication with said server and configured to store and retrieve said digital information received by said server; a plurality of tags deployed in an environment, a tag (26, 46) of said plurality of tags storing position-related digital information; a plurality of wireless sensors (10, 50) deployed within said environment, said wireless sensors being in wireless communication with said server, a wireless sensor of said plurality of wireless sensors having an identity, said identity being stored on said tag, said wireless sensor being configured to sense a change and to emit a signal containing said identity upon sensing said change, said server receiving said signal and using said identity to respond to said signal; and a machine configured for reading and outputting to said server said position-related digital information and said identity of said wireless sensor on said tag, wherein said server stores said position-related digital information and said identity in said database so that said server associates said wireless sensor with said position-related digital information of said tag and responds to said wireless sensor associated with said tag. a server (18, 70) configured for receiving and processing digital information and wireless signals; a database (22, 34, 62, 66) in communication with said server and configured to store and retrieve said digital information received by said server; a plurality of tags deployed in an environment, a tag (26, 46) of said plurality of tags storing position-related digital information; a plurality of wireless sensors (10, 50) deployed within said environment, said wireless sensors being in wireless communication with said server, a wireless sensor of said plurality of wireless sensors having an identity, said identity being stored on said tag, said wireless sensor being configured to sense a change and to emit a signal containing said identity upon sensing said change, said server receiving said signal and using said identity to respond to said signal; and a machine configured for reading and outputting to said server said position-related digital information and said identity of said wireless sensor on said tag, wherein said server stores said position-related digital information and said identity in said database so that said server associates said wireless sensor with said position-related digital information of said tag and responds to said wireless sensor associated with said tag.
Actuator unit for a vehicle gearbox, with a baseplate, a plurality of actuators which are mounted on the baseplate, a plurality of sensors which are assigned at least to some of the actuators, a flexible printed circuit board on which the sensors are mounted, characterized in that a temperature sensor is arranged on the flexible printed circuit board and in that the temperature sensor is arranged in the vicinity of the sensors with which the position of the actuators is sensed.
A method of suppressing bacterial growth, wherein the bacteria are present on an ex vivo solid surface, said method comprising: providing a C 2 -C 7 alkyl boronic acid and administering the C 2 -C 7 alkyl boronic acid to bacteria, wherein said administering comprises applying the C 2 -C 7 alkyl boronic acid to the ex vivo surface, to suppress growth of the bacteria on the ex vivo solid surface. providing a C 2 -C 7 alkyl boronic acid and administering the C 2 -C 7 alkyl boronic acid to bacteria, wherein said administering comprises applying the C 2 -C 7 alkyl boronic acid to the ex vivo surface, to suppress growth of the bacteria on the ex vivo solid surface.
A negative electrode active material for a secondary battery manufactured by surface modification of natural graphite, wherein, in a particle size distribution of the natural graphite, measured by using a laser diffraction method, D max /D min value is 1.6 to 2.1, and wherein pores having a diameter of 0.5 to 2.0 μm are formed on the surface, the diameter of the pores being obtained from SEM images. wherein, in a particle size distribution of the natural graphite, measured by using a laser diffraction method, D max /D min value is 1.6 to 2.1, and wherein pores having a diameter of 0.5 to 2.0 μm are formed on the surface, the diameter of the pores being obtained from SEM images.
Lower leg support for a vehicle seat, comprising a first fixing element and comprising a second fixing element, which are designed to fix the lower leg support to opposing side regions of the vehicle seat, wherein a first movement element is rotatably connected to the first fixing element and a second movement element is fixedly connected to the second fixing element, wherein a first support element is provided at an end of the first movement element that faces away from the first fixing element in a use position, which support element is rotatably held on said movement element and can be locked by means of a locking device to a second support element which is rotatably arranged on an end of the second movement element that faces away from the second fixing element in the use position, wherein the two support elements (30, 36) are movable from the use position into a non-use position by means of the movement elements (22, 26), and, in the use position, the first support element, which is unlocked from the second support element, is movable into a table position by rotating the first movement element relative to the first fixing element.