mhurhangee/ep-ind-claims huggingface dataset:
A battery assembly comprising: a plurality of battery cells (141, 142) and a battery cover configured to support the plurality of battery cells (141, 142), wherein the battery cover comprises a plurality of partition walls (151b, 151d), and each partition wall of the plurality of partition walls (151b, 151d) forms a cell chamber arranged to accommodate a battery cell of the plurality of battery cells (141, 142), respectively, and the partition walls (151b, 151d) are at least partially spaced apart from each other; wherein the plurality of partition walls (151b, 151d) enable the plurality of battery cells (141, 142) to be arranged in a plurality of rows; wherein the plurality of partition walls (151b, 151d) comprises a plurality of first partition walls arranged to accommodate battery cells in a first row, and a plurality of second partition walls arranged to accommodate battery cells in a second row; wherein one or more of the plurality of first partition walls are spaced apart from one or more of the plurality of second partition walls by a first air chamber therebetween; and wherein the battery cover comprises a plurality of first heat radiation holes arranged to discharge heat from cell chambers, and one or more second heat radiation holes arranged to discharge heat from the first air chamber. a plurality of battery cells (141, 142) and a battery cover configured to support the plurality of battery cells (141, 142), wherein the battery cover comprises a plurality of partition walls (151b, 151d), and each partition wall of the plurality of partition walls (151b, 151d) forms a cell chamber arranged to accommodate a battery cell of the plurality of battery cells (141, 142), respectively, and the partition walls (151b, 151d) are at least partially spaced apart from each other; wherein the plurality of partition walls (151b, 151d) enable the plurality of battery cells (141, 142) to be arranged in a plurality of rows; wherein the plurality of partition walls (151b, 151d) comprises a plurality of first partition walls arranged to accommodate battery cells in a first row, and a plurality of second partition walls arranged to accommodate battery cells in a second row; wherein one or more of the plurality of first partition walls are spaced apart from one or more of the plurality of second partition walls by a first air chamber therebetween; and wherein the battery cover comprises a plurality of first heat radiation holes arranged to discharge heat from cell chambers, and one or more second heat radiation holes arranged to discharge heat from the first air chamber.
An X-ray detector (100, 200) comprising: - at least one sensor unit (105, 205) for the conversion of incident X-ray photons into electrical sensor signals (s), wherein the sensor unit (105, 205) comprises a conversion material (101, 201) for converting incident X-ray photons into charge signals (q), and wherein at least one electrode (102, 202) is coupled to the conversion material (101, 201) for sensing the charge signals (q); - at least one flux sensor (104, 204) for generating a flux signal (f) that is related to the flux of incident X-ray photons; - a data processing system (103, 203, 110, 210) for evaluating the electrical sensor signals (s) based on the flux signal (f), wherein the X-ray detector is characterized in that the data processing system comprises a processing circuit (103, 203), that is located adjacent to the sensor unit (105, 205) and bonded to said electrode, for collecting and processing its sensor signals (s); and in that the flux sensor (104, 204) is integrated into the processing circuit or is placed behind the processing circuit with respect to the main direction of X-ray incidence. - at least one sensor unit (105, 205) for the conversion of incident X-ray photons into electrical sensor signals (s), wherein the sensor unit (105, 205) comprises a conversion material (101, 201) for converting incident X-ray photons into charge signals (q), and wherein at least one electrode (102, 202) is coupled to the conversion material (101, 201) for sensing the charge signals (q); - at least one flux sensor (104, 204) for generating a flux signal (f) that is related to the flux of incident X-ray photons; - a data processing system (103, 203, 110, 210) for evaluating the electrical sensor signals (s) based on the flux signal (f), wherein the X-ray detector is characterized in that the data processing system comprises a processing circuit (103, 203), that is located adjacent to the sensor unit (105, 205) and bonded to said electrode, for collecting and processing its sensor signals (s);
An isolator seal comprising: a stator member for location into the stator of rotating equipment; a rotor member for location onto a rotary shaft of rotating equipment; said stator member and said rotor member providing respective, adjacent surfaces (362, 355/356, 358); characterised in further comprising a static shut-off device comprising a resilient annular sealing member and an auxiliary member, movable between a first position, when the rotor member is static, at which said auxiliary member compresses said resilient annular member into engagement with both said surfaces (362,358) and a second position at which the compression on said resilient member is reduced whereby the resilient annular member disengages one or more of said rotor and stator surfaces (362,358) when the rotor is dynamic. a stator member for location into the stator of rotating equipment; a rotor member for location onto a rotary shaft of rotating equipment; said stator member and said rotor member providing respective, adjacent surfaces (362, 355/356, 358); characterised in further comprising a static shut-off device comprising a resilient annular sealing member and an auxiliary member, movable between a first position, when the rotor member is static, at which said auxiliary member compresses said resilient annular member into engagement with both said surfaces (362,358) and a second position at which the compression on said resilient member is reduced whereby the resilient annular member disengages one or more of said rotor and stator surfaces (362,358) when the rotor is dynamic.
Multi-lumen hose connector nipple, preferably for connecting a sanitary multi-lumen hose, comprising - a nipple basic section through which a plurality of separate fluid conduits (4a, 4b) extend in each case between a first and a second nipple connector side (5, 6), - a plurality of hose lumen plug-in sockets (2a, 2b) integral with the nipple basic section, which sockets extend on the first nipple connector side juxtaposed with an intermediate hose lumen wall accommodation space left therebetween, wherein a socket interior space (8a, 8b) of each of the hose lumen plug-in sockets is assigned to a respective one of the fluid conduits and opens out axially, characterized in that - the multi-lumen hose connector nipple comprises a socket strutting structure within the socket interior space of at least one of the hose lumen plug-in sockets. - a nipple basic section through which a plurality of separate fluid conduits (4a, 4b) extend in each case between a first and a second nipple connector side (5, 6), - a plurality of hose lumen plug-in sockets (2a, 2b) integral with the nipple basic section, which sockets extend on the first nipple connector side juxtaposed with an intermediate hose lumen wall accommodation space left therebetween, wherein a socket interior space (8a, 8b) of each of the hose lumen plug-in sockets is assigned to a respective one of the fluid conduits and opens out axially, characterized in that - the multi-lumen hose connector nipple comprises a socket strutting structure within the socket interior space of at least one of the hose lumen plug-in sockets.
A three-dimensional coordinate measurement apparatus configured to bring a measuring probe into contact with a measuring object to measure three-dimensional coordinates of the measuring object, the three-dimensional coordinate measurement apparatus comprising: a surface plate having a measurement region configured to place the measuring object thereon; a movable body having a first support strut and a second support strut which are arranged to interpose the measurement region therebetween in an X-axis direction, the movable body configured to support and move the measuring probe; a guide configured to guide the movable body in a Y-axis direction, the guide including a pair of guide surfaces (42L, 42R) formed along the Y-axis direction; a driving unit provided to the first support strut and configured to move the movable body in the Y-axis direction; and two pairs of support portions (64E, 64F, 66E, 66F) provided at two places to interpose the movable body along the Y-axis direction, the two pairs of support portions (64E, 64F, 66E, 66F) configured to support the first support strut on the guide by holding the pair of guide surfaces (42L, 42R) therebetween, characterized in that the driving unit is arranged between the two pairs of support portions (64E, 64F, 66E, 66F) in the Y-axis direction and is configured to be brought into contact with one of the pair of the guide surfaces (42L, 42R), and a position of the second support strut in the Y-axis direction is arranged between the two pairs of support portions (64E, 64F, 66E, 66F). a surface plate having a measurement region configured to place the measuring object thereon; a movable body having a first support strut and a second support strut which are arranged to interpose the measurement region therebetween in an X-axis direction, the movable body configured to support and move the measuring probe; a guide configured to guide the movable body in a Y-axis direction, the guide including a pair of guide surfaces (42L, 42R) formed along the Y-axis direction; a driving unit provided to the first support strut and configured to move the movable body in the Y-axis direction; and two pairs of support portions (64E, 64F, 66E, 66F) provided at two places to interpose the movable body along the Y-axis direction, the two pairs of support portions (64E, 64F, 66E, 66F) configured to support the first support strut on the guide by holding the pair of guide surfaces (42L, 42R) therebetween, characterized in that the driving unit is arranged between the two pairs of support portions (64E, 64F, 66E, 66F) in the Y-axis direction and is configured to be brought into contact with one of the pair of the guide surfaces (42L, 42R), and a position of the second support strut in the Y-axis direction is arranged between the two pairs of support portions (64E, 64F, 66E, 66F).
A tape feeder holding device comprising: a slide section on which a tape feeder can be slid, the tape feeder supplying electronic components by feeding a tape housing the electronic components in a tape feeding direction; characterized by a sliding device configured to slide the tape feeder held in the slide section in the tape feeding direction, the sliding device is capable of sliding the tape feeder to a supply position on the tape feeder holding device at which the electronic components can be supplied from the tape feeder. a slide section on which a tape feeder can be slid, the tape feeder supplying electronic components by feeding a tape housing the electronic components in a tape feeding direction; characterized by a sliding device configured to slide the tape feeder held in the slide section in the tape feeding direction, the sliding device is capable of sliding the tape feeder to a supply position on the tape feeder holding device at which the electronic components can be supplied from the tape feeder.
A polymer composite comprising: (a) quantum dots; (b) polymerized units of a compound of formula wherein R1 is hydrogen or methyl and R2 is a C6-C20 aliphatic polycyclic substituent; and (c) a light stabilizer compound comprising two 1-alkyloxy-2,2,6,6-tetramethyl-4-piperidinyl substituents. (a) quantum dots; (b) polymerized units of a compound of formula wherein R1 is hydrogen or methyl and R2 is a C6-C20 aliphatic polycyclic substituent; and (c) a light stabilizer compound comprising two 1-alkyloxy-2,2,6,6-tetramethyl-4-piperidinyl substituents.
An audio signal processing device (10, 10A) comprising: a calculator (130, 140, 150, 160) that generates a plurality of audio signals to be supplied respectively to a plurality of loudspeakers on the basis of an audio signal corresponding to a virtual sound source and having position information, an acquirer that acquires, through communication with a portable terminal (20, 20A), speaker position information indicating a position of each of the plurality of loudspeakers taken from and relative to the listening point corresponding to a position of a listener, and position information indicating a position of the virtual sound source (Vm) taken from and relative to the listening point; wherein the calculator (130, 140, 150, 160) calculates, on the basis of the position information indicating a position of the virtual sound source (Vm) and the speaker position information indicating a position of each of the plurality of loudspeakers, a distance between each of the plurality of loudspeakers and the virtual sound source (Vm) with respect to each of the plurality of loudspeakers, and calculates, on the basis of the distance, the audio signal corresponding to the virtual sound source (Vm) to be supplied to each of the plurality of loudspeakers. a calculator (130, 140, 150, 160) that generates a plurality of audio signals to be supplied respectively to a plurality of loudspeakers on the basis of an audio signal corresponding to a virtual sound source and having position information, an acquirer that acquires, through communication with a portable terminal (20, 20A), speaker position information indicating a position of each of the plurality of loudspeakers taken from and relative to the listening point corresponding to a position of a listener, and position information indicating a position of the virtual sound source (Vm) taken from and relative to the listening point; wherein the calculator (130, 140, 150, 160) calculates, on the basis of the position information indicating a position of the virtual sound source (Vm) and the speaker position information indicating a position of each of the plurality of loudspeakers, a distance between each of the plurality of loudspeakers and the virtual sound source (Vm) with respect to each of the plurality of loudspeakers, and calculates, on the basis of the distance, the audio signal corresponding to the virtual sound source (Vm) to be supplied to each of the plurality of loudspeakers.
Freeze-drying apparatus, comprising at least - at least one product chamber with at least two adjustable shelves (70a, 70b, 70c, 70d, 70e) arranged within the product chamber, and - at least one adjustment device for adjusting the distance between at least two shelves, which interacts with the shelves (70a, 70b, 70c, 70d, 70e), and - at least one drive for moving the shelves (70a, 70b, 70c, 70d, 70e), whereby the drive activates the adjustment device for adjusting the distance between at least two shelves (70a, 70b, 70c, 70d, 70e), characterised in that the drive is located outside of the product chamber; and that the adjustment device includes - a pressure plate designed to be moved by at least one drive, and - at least one lever connected to the pressure plate. - at least one product chamber with at least two adjustable shelves (70a, 70b, 70c, 70d, 70e) arranged within the product chamber, and - at least one adjustment device for adjusting the distance between at least two shelves, which interacts with the shelves (70a, 70b, 70c, 70d, 70e), and - at least one drive for moving the shelves (70a, 70b, 70c, 70d, 70e), whereby the drive activates the adjustment device for adjusting the distance between at least two shelves (70a, 70b, 70c, 70d, 70e), characterised in that the drive is located outside of the product chamber; and that the adjustment device includes - a pressure plate designed to be moved by at least one drive, and - at least one lever connected to the pressure plate.
A bumper device for a vehicle, which is arranged on one of a front side and a rear side of a vehicle cabin to extend in a vehicle width direction, the bumper device for a vehicle comprising: a tubular portion, which is made of metal and integrally formed so as to have a tubular shape extending in the vehicle width direction; and a reinforcing member, characterized in that said reinforcing member is formed so as to have a flat-plate-like shape extending in the vehicle width direction along a portion of an inner surface of the tubular portion which is positioned on the vehicle cabin side, wherein a foamed resin charged into the tubular portion is foamed to be increased in volume, to thereby fix the reinforcing member inside the tubular portion, and in that the tubular portion comprises an upper wall portion, a lower wall portion, a front wall portion, and a rear wall portion which is positioned on the vehicle cabin side, the reinforcing member extending perpendicularly to the vehicle for-and-aft direction and being arranged closer to the rear wall portion than to the front wall portion. a tubular portion, which is made of metal and integrally formed so as to have a tubular shape extending in the vehicle width direction; and a reinforcing member, characterized in that said reinforcing member is formed so as to have a flat-plate-like shape extending in the vehicle width direction along a portion of an inner surface of the tubular portion which is positioned on the vehicle cabin side, wherein a foamed resin charged into the tubular portion is foamed to be increased in volume, to thereby fix the reinforcing member inside the tubular portion, and in that the tubular portion comprises an upper wall portion, a lower wall portion, a front wall portion, and a rear wall portion which is positioned on the vehicle cabin side, the reinforcing member extending perpendicularly to the vehicle for-and-aft direction and being arranged closer to the rear wall portion than to the front wall portion.
An imaging system including an image sensor device comprising a two-dimensional array of pixel structures, each pixel structure comprising: a photodetector in a semiconductor material, a first transfer gate between the photodetector and a first diffusion region in the semiconductor material, a second transfer gate between the photodetector and a second diffusion region in the semiconductor material, a capacitor connected between the first diffusion region and the second diffusion region, a first switch connected between the first diffusion region and a first reference voltage (V ref 1), and a second switch connected between the second diffusion region and a second reference voltage (V ref 2), wherein the imaging system further comprises a light source synchronized to the image sensor device, the light source being configured to be active when the signal is acquired on the first diffusion region and not active when the signal is acquired on the second diffusion region, or vice versa, wherein the light source is configured to project a pattern or sequence of patterns on a scene to be imaged. a photodetector in a semiconductor material, a first transfer gate between the photodetector and a first diffusion region in the semiconductor material, a second transfer gate between the photodetector and a second diffusion region in the semiconductor material, a capacitor connected between the first diffusion region and the second diffusion region, a first switch connected between the first diffusion region and a first reference voltage (V ref 1), and a second switch connected between the second diffusion region and a second reference voltage (V ref 2), wherein the imaging system further comprises a light source synchronized to the image sensor device, the light source being configured to be active when the signal is acquired on the first diffusion region and not active when the signal is acquired on the second diffusion region, or vice versa, wherein the light source is configured to project a pattern or sequence of patterns on a scene to be imaged.
A digital predistortion system for linearizing the output of power amplifiers comprising: input signal suitable for wireless communications, at least one power amplifier for outputting an amplified signal, at least one feedback signal derived from the amplified signal including a representation of a noise characteristic of the at least one power amplifier, estimator logic responsive to the at least one feedback signal for generating predistortion coefficients based at least in part on feedback path delay determined from the correlation given by the equation c m = ∑ i = 0 N − 1 sign x i + 1 − x i sign y i + m + 1 − y i + m n delay = Max c m where x(n) represents transmission data, y(n) represents feedback data, c(m) is a correlation function, N is a number of data per block, m is a variable representing time, i is a counter for summation, and wherein a delay n that maximizes the correlation c(m) is the feedback path delay. input signal suitable for wireless communications, at least one power amplifier for outputting an amplified signal, at least one feedback signal derived from the amplified signal including a representation of a noise characteristic of the at least one power amplifier, estimator logic responsive to the at least one feedback signal for generating predistortion coefficients based at least in part on feedback path delay determined from the correlation given by the equation c m = ∑ i = 0 N − 1 sign x i + 1 − x i sign y i + m + 1 − y i + m n delay = Max c m where x(n) represents transmission data, y(n) represents feedback data, c(m) is a correlation function, N is a number of data per block, m is a variable representing time, i is a counter for summation, and wherein a delay n that maximizes the correlation c(m) is the feedback path delay.
Process for decorating portions of the surface of edges of ceramic slabs or tiles, comprising, in the order: - deposition of decorating materials used for the decoration of objects onto individual portions of the surface of edges of ceramic slabs or tiles; - chemical or physical fixation or firing of the decorating materials deposited on said portions of the surface of edges of ceramic slabs tiles, said decorating materials including ceramic dyes or enamels used in decoration techniques; wherein the process is - carried out in a line arrangement of a continuous production line; characterized in that said step of chemical or physical fixation or firing of the decorating materials deposited on said portions is carried out by the action of at least one laser beam directed at the individual portions of the concerned surface; and in that said ceramic slabs or tiles to be decorated are fired. - deposition of decorating materials used for the decoration of objects onto individual portions of the surface of edges of ceramic slabs or tiles; - chemical or physical fixation or firing of the decorating materials deposited on said portions of the surface of edges of ceramic slabs tiles, said decorating materials including ceramic dyes or enamels used in decoration techniques; wherein the process is - carried out in a line arrangement of a continuous production line; characterized in that said step of chemical or physical fixation or firing of the decorating materials deposited on said portions is carried out by the action of at least one laser beam directed at the individual portions of the concerned surface; and in that said ceramic slabs or tiles to be decorated are fired.