mhurhangee/ep-ind-claims huggingface dataset:
A neural inference chip comprising a neural core, the neural core comprising: a vector-matrix multiplier adapted to: receive a weight matrix having a weight matrix precision; receive an input activation vector having an input activation vector precision; wherein the vector-matrix multiplier is further adapted to vary the weight matrix precision and dimension and/or the input activation vector precision and dimension while maintaining constant bandwidth; and compute a partial sum vector by multiplying the input activation vector by the weight matrix, the partial sum vector having a partial sum vector precision, the partial sum vector comprising an output of the vector-matrix multiplier; a vector processor adapted to: receive one or more partial sum vectors from one or more vector sources, the one or more vector sources including the vector-matrix multiplier; and perform one or more vector functions on the one or more partial sum vectors to yield a vector processor output vector, the vector processor output vector having a precision equal to the partial sum vector precision; responsive to a required output activation precision, the weight matrix precision and the input activation vector precision, an activation unit operatively coupled to the vector processor and adapted to apply an activation function to the vector processor output vector, yielding an output activation vector having an output activation precision; and wherein each of the vector-matrix multiplier, vector processor, and/or activation unit are adapted to operate at variable precisions. a vector-matrix multiplier adapted to: receive a weight matrix having a weight matrix precision; receive an input activation vector having an input activation vector precision; wherein the vector-matrix multiplier is further adapted to vary the weight matrix precision and dimension and/or the input activation vector precision and dimension while maintaining constant bandwidth; and compute a partial sum vector by multiplying the input activation vector by the weight matrix, the partial sum vector having a partial sum vector precision, the partial sum vector comprising an output of the vector-matrix multiplier; a vector processor adapted to: receive one or more partial sum vectors from one or more vector sources, the one or more vector sources including the vector-matrix multiplier; and perform one or more vector functions on the one or more partial sum vectors to yield a vector processor output vector, the vector processor output vector having a precision equal to the partial sum vector precision; responsive to a required output activation precision, the weight matrix precision and the input activation vector precision, an activation unit operatively coupled to the vector processor and adapted to apply an activation function to the vector processor output vector, yielding an output activation vector having an output activation precision; and wherein each of the vector-matrix multiplier, vector processor, and/or activation unit are adapted to operate at variable precisions.
A composition for use in a method of treating sensitive teeth or occluding dentinal tubules, the method comprising the steps of applying to the teeth, for at least two consecutive applications, a composition comprising: a) at least one compound of Formula I M 1 -A-M 2 -B-M 3 wherein: M 1 and M 3 are, independently, a monovalent or divalent metal; M 2 is selected from the group consisting of Ti or an oxide of Ti; and A and B are, independently, selected from the group consisting of C 2 -C 6 diacids, triacids, and tetraacids; and at least one orally acceptable solvent, wherein i) the applications are spaced no more than 12 hours apart; or ii) contacting the teeth with the composition for at least 20 seconds; or iii) contacting the teeth with the composition in the presence of calcium for at least 10 seconds wherein the compound forms a precipitate with the calcium on the teeth. a) at least one compound of Formula I M 1 -A-M 2 -B-M 3 wherein: M 1 and M 3 are, independently, a monovalent or divalent metal; M 2 is selected from the group consisting of Ti or an oxide of Ti; and A and B are, independently, selected from the group consisting of C 2 -C 6 diacids, triacids, and tetraacids; and at least one orally acceptable solvent, wherein i) the applications are spaced no more than 12 hours apart; or ii) contacting the teeth with the composition for at least 20 seconds; or iii) contacting the teeth with the composition in the presence of calcium for at least 10 seconds wherein the compound forms a precipitate with the calcium on the teeth. i) the applications are spaced no more than 12 hours apart; or ii) contacting the teeth with the composition for at least 20 seconds; or iii) contacting the teeth with the composition in the presence of calcium for at least 10 seconds wherein the compound forms a precipitate with the calcium on the teeth.
A device for alternately processing at least two flexible, band-shaped substrates (1a, 1b), the device having at least one processing facility for processing the substrates (1a, 1b) and mobile guiding means (3a, 3b) for guiding the substrates (1a, 1b) to a processing position, characterized in that in the processing position the processing facility can alternately act on one of the substrates (1a, 1b), wherein a pair of mobile guiding means (3a, 3b) is provided for each flexible substrate (1a, 1b) and the pairs of mobile guiding means (3a, 3b) are arranged on an adjustable carrier, so that alternately one substrate (1a, 1b) is in the processing position.
A tetravalent antigen binding complex having agonist activity for OX40, the complex comprising four antigen binding domains that bind OX40, wherein each of the four antigen binding domains comprises an antibody heavy chain variable domain and an antibody light chain variable domain, wherein (a) the complex comprises one or more antigen binding domains that bind a first epitope of OX40 and one or more antigen binding domains that bind a second epitope of OX40, and wherein the first and second epitopes of OX40 are different and/or (b) the antigen binding domains that bind the first epitope do not cross-compete for binding OX40 with the antigen binding domains that bind the second epitope; wherein the complex comprises two antibody heavy chain polypeptides and two antibody light chain polypeptides; wherein each of the antibody heavy chain polypeptides comprises: VH 1 -L 1 -VH 2 -L 2 -CH 1 -hinge-CH 2 -CH 3; wherein each of the antibody light chain polypeptides comprises: VL 1 -L 3 -VL 2 -L 4 -CL; wherein each of the antibody heavy chain polypeptides associates with one antibody light chain polypeptide such that VH 1 and VL 1 form an antigen binding domain that binds the first epitope of OX40 and VH 2 and VL 2 form an antigen binding domain that binds the second epitope of OX40; and wherein VH 1 is a first antibody heavy chain variable domain, VH 2 is a second antibody heavy chain variable domain, VL 1 is a first antibody light chain variable domain, VL 2 is a second antibody light chain variable domain, CL is an antibody light chain constant domain, CH 1 is an antibody first heavy chain constant domain, hinge is an antibody hinge region, CH 2 is an antibody second heavy chain constant domain, CH 3 is an antibody third heavy chain constant domain, and L 1, L 2, L 3, and L 4 are amino acid linkers.
A package comprising a container and a cellulose resin composition that includes a thermoplastic resin and cellulose, housed in the container, wherein: the container comprises a high-lignin-content member with a lignin content of 10 mass% or greater and a low-lignin-content member with a lignin content of 1 mass% or lower, and the whole of the surface of the container to be in contact with the cellulose resin composition is constituted of the low-lignin-content member. the container comprises a high-lignin-content member with a lignin content of 10 mass% or greater and a low-lignin-content member with a lignin content of 1 mass% or lower, and the whole of the surface of the container to be in contact with the cellulose resin composition is constituted of the low-lignin-content member.
Plastic double tray system made of PP, PS or PET raw material trough a thermoforming process consisting of one flexible top tray for sowing or transplantation, which top tray comprises a matrix of N x M cells for receiving a substrate, N being the number of cells along the length of the top tray and M being the number of cells along the width of the top tray, in which each cell includes a cell space which is defined by a circumferential cell wall and a cell bottom; and one flexible bottom tray for support, which bottom tray comprises a base plate which has a bottom side and a top side, which base plate comprises a matrix of (N - 1) x (M - 1) supporting elements for supporting the top tray, said supporting elements project at the top side away from the base plate, in which each supporting element has a shape of a truncated rectangular pyramid having pyramid corner edges which are recessed along their entire height for receiving a corner edge of a cell in which in a combination of the top and bottom tray the result is one unified and rigid object provided in that each supporting element fills up an intermediate space in between two neighbouring cells of the top tray to prevent a relative movement of neighbouring cells away from each other.
Photon detector comprising: - a direct conversion detector configured to detect gamma radiation and generate direct conversion signals responsive to impingement of photons, - a single photon avalanche diode, SPAD, detector array comprising a plurality of SPAD detectors configured to detect Cherenkov radiation generated in the direct conversion detector in response to impingement of photons and generate SPAD detection signals, wherein the SPAD detector array substantially covers a surface on one side of the direct conversion detector; characterized in that the photon detector further comprises: - an electrode array comprising a plurality of electrodes on top of the direct conversion detector and between the direct conversion detector and the SPAD detector array and configured to read out the direct conversion signals. - a direct conversion detector configured to detect gamma radiation and generate direct conversion signals responsive to impingement of photons, - a single photon avalanche diode, SPAD, detector array comprising a plurality of SPAD detectors configured to detect Cherenkov radiation generated in the direct conversion detector in response to impingement of photons and generate SPAD detection signals, wherein the SPAD detector array substantially covers a surface on one side of the direct conversion detector; characterized in that the photon detector further comprises: - an electrode array comprising a plurality of electrodes on top of the direct conversion detector and between the direct conversion detector and the SPAD detector array and configured to read out the direct conversion signals. - an electrode array comprising a plurality of electrodes on top of the direct conversion detector and between the direct conversion detector and the SPAD detector array and configured to read out the direct conversion signals.
A method of radio resource control, RRC, signalling in a wireless network comprising a User Equipment, UE, a macro eNB, and a small cell eNB, wherein the UE communicates with each of the macro eNB and the small cell eNB; the method comprising: delivering downlink and uplink RRC messages transmitted between the UE and the small cell eNB over a single predefined path either directly between the UE and the small cell eNB or via the macro eNB serving as a first relay that relays the RRC messages transmitted between the UE and the small cell eNB; characterised in that the single predefined path over which the downlink and uplink RRC messages are transmitted between the UE and the small cell eNB is selected according to a type of the RRC message being delivered. delivering downlink and uplink RRC messages transmitted between the UE and the small cell eNB over a single predefined path either directly between the UE and the small cell eNB or via the macro eNB serving as a first relay that relays the RRC messages transmitted between the UE and the small cell eNB; characterised in that the single predefined path over which the downlink and uplink RRC messages are transmitted between the UE and the small cell eNB is selected according to a type of the RRC message being delivered.
A mechanical pressure application system for applying a tailored pressure distribution to a plurality of structural components, wherein each of the plurality of structural components has a first surface and a second surface disposed generally opposite the first surface, each first surface is configured to interface with the first surface of another of the plurality of structural components at a contact area, said system comprising: a base, said base is complementary to the second surface of at least one of the plurality of structural components; at least one tooling block, wherein said base and said at least one tooling block are configured to removably couple to the plurality of structural components, each said at least one tooling block comprises a first surface and a generally opposite second surface, each said tooling block first surface is configured to be positioned proximate the second surface of at least one of the plurality of structural components when said base and said at least one tooling block are coupled to the plurality of structural components; at least one forcing member, wherein each said tooling block second surface is configured to receive said at least one forcing member; and at least one biasing mechanism configured to apply a predetermined load to said at least one forcing member, such that a force is transmitted from said at least one forcing member through said tooling block to a corresponding portion of the contact area, wherein said at least one forcing member comprises at least one strap, each said at least one strap is configured to be received by a corresponding said tooling block second surface. a base, said base is complementary to the second surface of at least one of the plurality of structural components; at least one tooling block, wherein said base and said at least one tooling block are configured to removably couple to the plurality of structural components, each said at least one tooling block comprises a first surface and a generally opposite second surface, each said tooling block first surface is configured to be positioned proximate the second surface of at least one of the plurality of structural components when said base and said at least one tooling block are coupled to the plurality of structural components; at least one forcing member, wherein each said tooling block second surface is configured to receive said at least one forcing member; and at least one biasing mechanism configured to apply a predetermined load to said at least one forcing member, such that a force is transmitted from said at least one forcing member through said tooling block to a corresponding portion of the contact area, wherein said at least one forcing member comprises at least one strap, each said at least one strap is configured to be received by a corresponding said tooling block second surface.
A transport system without wheels or other rolling elements, comprising: A. a guideway including a plurality of coreless propulsion coils (62, 64) disposed along a region in which one or more vehicles (13, 21) are to be propelled and a running surface (63, 63A) supporting the one or more vehicles (13, 21) in close proximity to the coreless propulsion coils (62, 64); B. one or more wheel-less vehicles (13, 21) disposed on the running surface (63, 63A) of the guideway, each of the vehicles containing a magnetic flux source (33, 34, 44), the one or more vehicles (13, 21) being slidingly disposed on the running surface (63, 63A) of the guideway, the one or more vehicles (13, 21) having a low coefficient of friction with the running surface, the coefficient of friction being less than 0.2, wherein the one or more vehicles comprise low friction components disposed on a lower surface of the one or more vehicles, the low friction components having sliding surfaces that slide on the running surface of the guideway; and C. electronic power and control circuitry that excites the propulsion coils (62, 64) independently so as to propel the one or more vehicles (13, 21) along the guideway. A. a guideway including a plurality of coreless propulsion coils (62, 64) disposed along a region in which one or more vehicles (13, 21) are to be propelled and a running surface (63, 63A) supporting the one or more vehicles (13, 21) in close proximity to the coreless propulsion coils (62, 64); B. one or more wheel-less vehicles (13, 21) disposed on the running surface (63, 63A) of the guideway, each of the vehicles containing a magnetic flux source (33, 34, 44), the one or more vehicles (13, 21) being slidingly disposed on the running surface (63, 63A) of the guideway, the one or more vehicles (13, 21) having a low coefficient of friction with the running surface, the coefficient of friction being less than 0.2, wherein the one or more vehicles comprise low friction components disposed on a lower surface of the one or more vehicles, the low friction components having sliding surfaces that slide on the running surface of the guideway; and C. electronic power and control circuitry that excites the propulsion coils (62, 64) independently so as to propel the one or more vehicles (13, 21) along the guideway.
Grinding machine device with a grinding spindle unit (10, 27, 55), which has a motor-driven drive shaft mounted therein and a grinding wheel (11, 31, 62) fastened to one end thereof, and with a pivotable mounting of the grinding spindle unit (10, 27, 55) on a receiving part of the grinding machine, wherein, due to the pivotable mounting, different inclinations of the drive shaft with respect to a reference line are set, characterized by the following features: a) the grinding spindle unit (10, 27, 55) is connected via zones of selective elastic material deformation to the receiving part and is supported thereby; b) the zones of selective elastic material deformation are located in the first end region of the drive shaft facing toward the grinding wheel (11, 31, 62); c) an adjusting unit (33, 64), which, upon activation, exerts an actuating force acting on the grinding spindle unit (10, 27, 55), which is directed transverse to the longitudinal axis (30a, 63) of the drive shaft and which controls the inclination is controlled via the zones of selected elastic material deformation, is located in the second end region of the drive shaft opposite the grinding wheel (11, 31, 62). a) the grinding spindle unit (10, 27, 55) is connected via zones of selective elastic material deformation to the receiving part and is supported thereby; b) the zones of selective elastic material deformation are located in the first end region of the drive shaft facing toward the grinding wheel (11, 31, 62); c) an adjusting unit (33, 64), which, upon activation, exerts an actuating force acting on the grinding spindle unit (10, 27, 55), which is directed transverse to the longitudinal axis (30a, 63) of the drive shaft and which controls the inclination is controlled via the zones of selected elastic material deformation, is located in the second end region of the drive shaft opposite the grinding wheel (11, 31, 62).
A non-transitory computer readable storage medium having stored thereon processor-executable software instructions configured to cause a processor to perform operations comprising: receiving airborne navigation data, airborne gravity data, and airborne LiDAR data; generating position information based on the navigation data; generating gravity field information based on a combination of the airborne gravity data and the generated position information; generating orthometric height information based on a combination of the airborne LiDAR data and the generated position information; and computing a geoid using a combination of the generated orthometric height information and the generated gravity field information. receiving airborne navigation data, airborne gravity data, and airborne LiDAR data; generating position information based on the navigation data; generating gravity field information based on a combination of the airborne gravity data and the generated position information; generating orthometric height information based on a combination of the airborne LiDAR data and the generated position information; and computing a geoid using a combination of the generated orthometric height information and the generated gravity field information.
A composition consisting of trigonelline and 4-hydroxyisoleucine, optionally along with pharmaceutical excipient, for use in managing urolithiasis or a related urological disease selected from hyperoxaluria, hypocitraturia, hyperuricosuria, accumulation of calcium crystals in renal tubule, low creatinine clearance rate, low urinary pH, recurrence of calculi and other kidney disorder or any combination thereof.
Method for making electrical contact with wires, in which method electrical contact is made with wires in a connection region, wherein an electrically conductive contact element (15c, 15d) is provided, the said electrically conductive contact element being arranged in a contact region (16; 25) with the wires in operative connection with the wires, wherein, at least in the contact region (16; 25), an electromagnetic pulse is introduced into the wires and, respectively, the contact element (15c, 15d), the said electromagnetic pulse generating a non-positive or cohesive connection between the wires and the contact element (15c, 15d), wherein at least one sleeve-like contact element (15c, 15d) is used, and wherein the wires are arranged in the connection region within the at least one contact element (15c, 15d), characterized in that the at least one sleeve-like contact element (15c, 15d) has, at least in regions, a structured surface (18; 18a; 18b) in the connection region with the wires on the side which faces the wires, raised portions (19; 22) projecting from the said structured surface, the said raised portions at least establishing a non-positive and electrically conductive connection with the wires when the connection with the wires is formed, in that the raised portions (19; 22) are in the form of sharp-edged raised portions (19; 22), in particular in the form of points, edges or the like, in that the wires in the connection region have an insulation layer, in particular a coating layer, in that the insulation layer is destroyed at least in regions when the electrical connection of the structured surface (18; 18a; 18b) is formed, in that a plurality of sleeve-like contact elements (15c, 15d) with different diameters are used, the said sleeve-like contact elements being arranged concentrically in relation to one another, wherein the wires are each arranged in the intermediate space between two contact elements (15c, 15d), and in that the sleeve-like contact elements (15c, 15d) each have a structured surface (18; 18a) in the form of sharp-edged raised portions (19, 22) on those sides which face the wires.