mhurhangee/ep-ind-claims huggingface dataset:
A high numerical aperture, broad spectral region catadioptric optical system characterized in that it comprises: a tube lens section which can zoom or change magnification without changing its higher-order lateral color aberration over a plurality of wavelengths, including at least one wavelength in the UV range; and a non-zooming high numerical aperture catadioptric objective lens section which compensates for uncorrected, but stationary during zooming or magnification change, residual chromatic aberrations of the tube lens section. a tube lens section which can zoom or change magnification without changing its higher-order lateral color aberration over a plurality of wavelengths, including at least one wavelength in the UV range; and a non-zooming high numerical aperture catadioptric objective lens section which compensates for uncorrected, but stationary during zooming or magnification change, residual chromatic aberrations of the tube lens section.
A structure for antenna arrays comprising: a dielectric material (104; 204) having two planar sides (102-1, 102-2; 202-1, 202-2); a first set of antenna array elements (106; 206) arranged on one side of the dielectric material; and a second set of antenna array elements (108; 208) arranged on the other side of the dielectric material opposing the elements of the first set of antenna array elements, wherein the first set of antenna array elements is controlled by a transmit chain; the second set of antenna array elements is controlled by a receive chain; characterized in that the first set and second set of antenna array elements each consist of N elements; and each of the second set of antenna array elements is offset from a respective antenna array element of the first set of antenna array elements. a dielectric material (104; 204) having two planar sides (102-1, 102-2; 202-1, 202-2); a first set of antenna array elements (106; 206) arranged on one side of the dielectric material; and a second set of antenna array elements (108; 208) arranged on the other side of the dielectric material opposing the elements of the first set of antenna array elements, wherein the first set of antenna array elements is controlled by a transmit chain; the second set of antenna array elements is controlled by a receive chain; characterized in that the first set and second set of antenna array elements each consist of N elements; and each of the second set of antenna array elements is offset from a respective antenna array element of the first set of antenna array elements.
A method for operating a plurality of surgical apparatus from a first input device, said method comprising: providing an interface that has an input channel coupled to the first input device (20, 70, 72), a plurality of output channels (46, 48, 50, 52) respectively coupled to the plurality of surgical apparatus (12, 14, 16, 18), a multiplexing unit and a select channel for selecting one of the plurality of output channels (46, 48, 50, 52) to be connected to the input channel; receiving at the multiplexing unit a first input from the first input device (20, 70, 72), the first input indicating which one of the plurality of output channels (46, 48, 50, 52) is being requested by the first input device to be connected to the input channel; receiving at the multiplexing unit a second input from a second input device (20, 70, 72), the second input indicating which one of the plurality of output channels (46, 48, 50, 52) is being requested by the second input device to be connected to the input channel; generating a switching signal at the multiplexing unit so that the switching signal is one of the first and second inputs as determined by a prioritization scheme; and providing the switching signal to the select channel of the interface so that the interface connects the input channel to one of the plurality of output channels (46, 48, 50, 52) as indicated by the switching signal. providing an interface that has an input channel coupled to the first input device (20, 70, 72), a plurality of output channels (46, 48, 50, 52) respectively coupled to the plurality of surgical apparatus (12, 14, 16, 18), a multiplexing unit and a select channel for selecting one of the plurality of output channels (46, 48, 50, 52) to be connected to the input channel; receiving at the multiplexing unit a first input from the first input device (20, 70, 72), the first input indicating which one of the plurality of output channels (46, 48, 50, 52) is being requested by the first input device to be connected to the input channel; receiving at the multiplexing unit a second input from a second input device (20, 70, 72), the second input indicating which one of the plurality of output channels (46, 48, 50, 52) is being requested by the second input device to be connected to the input channel; generating a switching signal at the multiplexing unit so that the switching signal is one of the first and second inputs as determined by a prioritization scheme; and providing the switching signal to the select channel of the interface so that the interface connects the input channel to one of the plurality of output channels (46, 48, 50, 52) as indicated by the switching signal.
A method of improving position determination of a cellular device, the method comprising: executing, performed by at least one hardware processor located in the cellular device and outside of a Global Navigation Satellite System, GNSS, chipset embedded in the cellular device, a first process and a second process concurrently; extracting raw pseudorange information from the GNSS receiver; obtaining locally measured movement information that reflects measurements of movement of the cellular device, wherein the measurements are obtained using at least one hardware sensor that is in a known physical relationship with the cellular device; determining, performed by the first process, a first set of one or more position fixes based on the extracted raw pseudorange information; determining, performed by the second process, carrier phase smoothed pseudoranges by smoothing the extracted raw pseudorange information based on carrier phase information; determining, performed by the second process, a second set of one or more position fixes based on the carrier phase smoothed pseudoranges; while a predetermined amount of carrier phase information is not available for performing carrier phase smoothing, providing to a user one or more of the first set of position fixes; and while a predetermined amount of carrier phase information is available for performing carrier phase smoothing, providing to the user one or more of the second set of position fixes. executing, performed by at least one hardware processor located in the cellular device and outside of a Global Navigation Satellite System, GNSS, chipset embedded in the cellular device, a first process and a second process concurrently; extracting raw pseudorange information from the GNSS receiver; obtaining locally measured movement information that reflects measurements of movement of the cellular device, wherein the measurements are obtained using at least one hardware sensor that is in a known physical relationship with the cellular device; determining, performed by the first process, a first set of one or more position fixes based on the extracted raw pseudorange information; determining, performed by the second process, carrier phase smoothed pseudoranges by smoothing the extracted raw pseudorange information based on carrier phase information; determining, performed by the second process, a second set of one or more position fixes based on the carrier phase smoothed pseudoranges; while a predetermined amount of carrier phase information is not available for performing carrier phase smoothing, providing to a user one or more of the first set of position fixes; and while a predetermined amount of carrier phase information is available for performing carrier phase smoothing, providing to the user one or more of the second set of position fixes.
A tank of generally prismatic shape, suitable for containing a gas under pressure, and comprising a composite envelope (210, 610) with continuous fibrous and matrix reinforcements extending over all the faces of the prism and delimiting a sealed internal cavity (290, 690) comprising a plurality of open cells, comprising continuous fibrous reinforcements (201, 202, 203, 204, 604) extending into and bonded to the composite shell (210, 610) and further extending across the internal cavity between two sides of the tank, characterised in that it comprises a sealed liner (220, 620) between the composite shell (210, 610) and the internal cavity (290, 690), and spacers (291, 691) extending between two sides of said cavity.
A keypad assembly comprising: (a) at least one key; (b) at least one light emitting source configured to emit light; (c) a light guide assembly configured to receive the emitted light and direct the light toward the at least one key; and (d) wherein the light guide assembly comprises: (i) a light guide film comprising a plurality of location pin holes, and (ii) a light guide frame comprising location pins slotted through the location pin holes. (a) at least one key; (b) at least one light emitting source configured to emit light; (c) a light guide assembly configured to receive the emitted light and direct the light toward the at least one key; and (d) wherein the light guide assembly comprises: (i) a light guide film comprising a plurality of location pin holes, and (ii) a light guide frame comprising location pins slotted through the location pin holes. (i) a light guide film comprising a plurality of location pin holes, and (ii) a light guide frame comprising location pins slotted through the location pin holes.
An accumulator comprising: a tank which is provided with an inflow port and an outflow port; an outflow pipe of which one end side is connected to the outflow port and the other end side is opened inside the tank; and a cap-shaped or inverted thin bowl shaped gas-liquid separator which is fixed and disposed below the inflow port to cover the other end side opening, characterised in that a rear surface of the gas-liquid separator is provided with a shock absorbing member formed of a porous body or an elastic body in order to reduce a shock applied to the gas-liquid separator in the event of bumping. a tank which is provided with an inflow port and an outflow port; an outflow pipe of which one end side is connected to the outflow port and the other end side is opened inside the tank; and a cap-shaped or inverted thin bowl shaped gas-liquid separator which is fixed and disposed below the inflow port to cover the other end side opening, characterised in that a rear surface of the gas-liquid separator is provided with a shock absorbing member formed of a porous body or an elastic body in order to reduce a shock applied to the gas-liquid separator in the event of bumping.
A battery module comprising: a battery stack including a plurality of stacked battery cells; a pair of end plates disposed at both end parts in a stacking direction of the battery stack; a bind bar coupling the pair of the end plates to each other; and an electronic circuit block mounted with a voltage detection circuit that detects a voltage of each of the plurality of stacked battery cells, wherein the electronic circuit block is disposed on a surface of one of the pair of end plates, characterized in that the electronic circuit block is fixed to an outer side of the surface of the one of the pair of end plates in a thermally coupled state and in that the electronic circuit block includes an equalizing circuit of the plurality of stacked battery cells. a battery stack including a plurality of stacked battery cells; a pair of end plates disposed at both end parts in a stacking direction of the battery stack; a bind bar coupling the pair of the end plates to each other; and an electronic circuit block mounted with a voltage detection circuit that detects a voltage of each of the plurality of stacked battery cells, wherein the electronic circuit block is disposed on a surface of one of the pair of end plates, characterized in that the electronic circuit block is fixed to an outer side of the surface of the one of the pair of end plates in a thermally coupled state and in that the electronic circuit block includes an equalizing circuit of the plurality of stacked battery cells.
Method, in a video decoder, for decoding a stream of coded data to reconstruct a current block of a sequence of images comprising: - decoding data of said stream of coded data and reconstructing for said current block a first item of motion data (MVc) from said decoded data; - identifying a first prediction block with said first item of motion data (MVc); - determining a second item of motion data by template matching; - identifying a second prediction block with said second item of motion data; - reconstructing said current block from said first and second prediction blocks; said method being characterized in that the determination of said second item of motion data comprises minimizing a linear combination of first and second distortions, said first distortion being calculated between said first prediction block and said second prediction block and said second distortion being calculated between a current template (Lc) in the neighbourhood of said current block and a reference template. - decoding data of said stream of coded data and reconstructing for said current block a first item of motion data (MVc) from said decoded data; - identifying a first prediction block with said first item of motion data (MVc); - determining a second item of motion data by template matching; - identifying a second prediction block with said second item of motion data; - reconstructing said current block from said first and second prediction blocks;
A heat exchanger comprising a resin case forming a first flow path through which first fluid flows, and a pipe forming a second flow path through which second fluid flows, the pipe being placed in the first flow path, wherein the first flow path is separated into a plurality of rows in the resin case, the pipe is composed of a one-directional pipe portion through which the second fluid flows in a one direction, an other-directional pipe portion through which the second fluid flows in an other direction, and a bent portion connecting the one-directional pipe portion and the other-directional pipe portion to each other, the heat exchanger also includes a flow path forming portion which separates the first flow path of the one row into a one-directional flowing portion formed around the other-directional pipe portion and an other-directional flowing portion formed around the one-directional pipe portion, characterised in that a flow path cross-sectional area of the one-directional flowing portion is made smaller toward a downstream side, and a flow path cross-sectional area of the other-directional flowing portion is made greater toward the downstream side.
An image capturing apparatus, comprising: a screen; a plurality of mirrors (104_1 - 104_n); and a plurality of cameras (106_1 - 106_n); wherein the plurality of mirrors (104_1 - 104_n) and the plurality of cameras (106_1 - 106_n) are arranged such that a first camera (106_1) of the plurality of cameras (106_1 - 106_n) captures a first portion (110_1) of the screen via a first mirror (104_1) of the plurality of mirrors (104_1 - 104_n), a second camera (106_2) of the plurality of cameras (106_1 - 106_n) captures a second portion (110_2) of the screen via a second mirror (104_2) of the plurality of mirrors (104_1 -104_n), and a third camera (106_3) of the plurality of cameras (106_1 - 106_n) captures a third portion (110_3) of the screen via a third mirror (104_3) of the plurality of mirrors (104_1 - 104_n); wherein the plurality of cameras (106_1 - 106_n) is obliquely arranged with respect to the screen; wherein the plurality of cameras (106_1 - 106_n) is arranged with respect to the screen such that angles between capturing directions (108_1 - 108_n) of the plurality of cameras (106_1 - 106_n) and a screen plane are between 5° and 85°. a screen; a plurality of mirrors (104_1 - 104_n); and a plurality of cameras (106_1 - 106_n); wherein the plurality of mirrors (104_1 - 104_n) and the plurality of cameras (106_1 - 106_n) are arranged such that a first camera (106_1) of the plurality of cameras (106_1 - 106_n) captures a first portion (110_1) of the screen via a first mirror (104_1) of the plurality of mirrors (104_1 - 104_n), a second camera (106_2) of the plurality of cameras (106_1 - 106_n) captures a second portion (110_2) of the screen via a second mirror (104_2) of the plurality of mirrors (104_1 -104_n), and a third camera (106_3) of the plurality of cameras (106_1 - 106_n) captures a third portion (110_3) of the screen via a third mirror (104_3) of the plurality of mirrors (104_1 - 104_n); wherein the plurality of cameras (106_1 - 106_n) is obliquely arranged with respect to the screen; wherein the plurality of cameras (106_1 - 106_n) is arranged with respect to the screen such that angles between capturing directions (108_1 - 108_n) of the plurality of cameras (106_1 - 106_n) and a screen plane are between 5° and 85°.
An electrochemical element comprising: a metal substrate; and a plurality of electrochemical reaction portions arranged on/over an upper side of the metal substrate, wherein the electrochemical reaction portion has at least an electrode layer, an electrolyte layer, and a counter electrode layer, wherein the metal substrate has a gas flow allowing region that allows flowing of a gas between the upper side and a lower side of the metal substrate to the electrode layer, wherein the electrolyte layer is arranged at least between the electrode layer and the counter electrode layer, and wherein the plurality of electrochemical reaction portions are electrically connected in parallel. a metal substrate; and a plurality of electrochemical reaction portions arranged on/over an upper side of the metal substrate, wherein the electrochemical reaction portion has at least an electrode layer, an electrolyte layer, and a counter electrode layer, wherein the metal substrate has a gas flow allowing region that allows flowing of a gas between the upper side and a lower side of the metal substrate to the electrode layer, wherein the electrolyte layer is arranged at least between the electrode layer and the counter electrode layer, and wherein the plurality of electrochemical reaction portions are electrically connected in parallel.
A method, comprising: coating a photoresist layer onto a top surface of a silicon nitride substrate; after coating the photoresist layer, scanning the photoresist layer with an electron beam in a predefined pattern; developing the scanned photoresist to expose portions of the top surface of the silicon nitride substrate in the predefined pattern; depositing calcite in the predefined pattern using atomic layer deposition using a calcite precursor gas; and removing, using a solvent, a remaining portion of the photoresist layer to expose the deposited calcite in the predefined pattern and on the top surface of the silicon nitride substrate, wherein a width of the deposited calcite is in range from 50 to 100 nanometers. coating a photoresist layer onto a top surface of a silicon nitride substrate; after coating the photoresist layer, scanning the photoresist layer with an electron beam in a predefined pattern; developing the scanned photoresist to expose portions of the top surface of the silicon nitride substrate in the predefined pattern; depositing calcite in the predefined pattern using atomic layer deposition using a calcite precursor gas; and removing, using a solvent, a remaining portion of the photoresist layer to expose the deposited calcite in the predefined pattern and on the top surface of the silicon nitride substrate, wherein a width of the deposited calcite is in range from 50 to 100 nanometers.
A delivery sheath, comprising: a tubular insertion body comprising a tubular stent-like frame extending lengthwise along the tubular insertion body, wherein the stent-like frame is adapted to locally radially expand in a section thereof proportional to local lengthwise surface lengthening of the section thereof; and a hub. a tubular insertion body comprising a tubular stent-like frame extending lengthwise along the tubular insertion body, wherein the stent-like frame is adapted to locally radially expand in a section thereof proportional to local lengthwise surface lengthening of the section thereof; and a hub.
Evaporator for a two-phase thermal transfer system with capillary pumping, comprising: - a base plate with a peripheral edge and an outer surface for thermal reception intended to receive heat from a dissipative element, where the outer surface generally extends along an interface plane P adjacent to the dissipative element, - a body with a back, lateral portions and a border adjacent to the peripheral edge of the base plate in order to delimit an inner space for the evaporator in that way, - a porous mass forming a capillary structure layer, interposed between the base plate and the back, which defines a first chamber delimited by the base plate, the lateral portions and said porous mass and a second chamber delimited by the back, the lateral portions and said porous mass, where the first chamber is intended to house the working fluid in essentially gaseous phase, and includes an evaporator outlet for a tubular gas conduit, where the second chamber is intended to house the working fluid in essentially liquid phase, and includes an evaporator inlet for a tubular liquid conduit, characterized in that the body is assembled on the base plate by a crimping operation during which, a hermetic seal between the base plate and the body is formed by material flowing/creeping, in such a way that it is avoided a bonding, screwing, riveting or welding operation to obtain a sealed assembly of the evaporator. - a base plate with a peripheral edge and an outer surface for thermal reception intended to receive heat from a dissipative element, where the outer surface generally extends along an interface plane P adjacent to the dissipative element, - a body with a back, lateral portions and a border adjacent to the peripheral edge of the base plate in order to delimit an inner space for the evaporator in that way, - a porous mass forming a capillary structure layer, interposed between the base plate and the back, which defines a first chamber delimited by the base plate, the lateral portions and said porous mass and a second chamber delimited by the back, the lateral portions and said porous mass,