mhurhangee/ep-ind-claims huggingface dataset:
A quantization method for implementing quantization in encoding, comprising: generating bitstream parameters according to the model parameters information corresponding to a parameter model, wherein the parameter model uniquely corresponds to a coefficient matrix, and the parameter model is established by assigning a band parameter for each frequency zone of the coefficient matrix that is divided into different zones, assigning a band distribution parameter corresponding to a distribution configuration of the band parameters in the coefficient matrix, and establishing the parameter model according to the band parameters and the band distribution parameter, wherein the model parameter includes the band parameters and the band distribution parameter; and writing the bitstream parameters into the header of a separable encoding unit. generating bitstream parameters according to the model parameters information corresponding to a parameter model, wherein the parameter model uniquely corresponds to a coefficient matrix, and the parameter model is established by assigning a band parameter for each frequency zone of the coefficient matrix that is divided into different zones, assigning a band distribution parameter corresponding to a distribution configuration of the band parameters in the coefficient matrix, and establishing the parameter model according to the band parameters and the band distribution parameter, wherein the model parameter includes the band parameters and the band distribution parameter; and writing the bitstream parameters into the header of a separable encoding unit.
A saddle for horse riding, comprising a supporting frame, defining a seat which extends along a longitudinal direction of extension of the saddle, and at least one first and one second flap, which are associated with said supporting frame and are arranged on opposite sides with respect to a plane of symmetry which is vertical in use and passes through said longitudinal direction of extension, said saddle for horse riding comprising a double-flap saddle provided with a first and a second underflap configured to be arranged in use between a respective one of said at least one first and one second flap and the back of the horse, said first and said second underflap being provided with a respective padding and a sheet-like leather body which has a lower portion extending below the padding and an upper portion arranged at least partially facing said padding, said padding comprising a first and a second padding (11, 12), said first padding comprising a cushioning structure having at least a first portion with a substantially horizontal extension which extends substantially parallel to said longitudinal direction of extension in a position that is close to the seat, said second padding having a panel structure arranged substantially in a lower region and adjacent to at least one portion of the edge of said cushioning structure that, during use, is a lower portion, said upper portion being arranged at least partially facing the outward face of said panel structure, characterized by said sheet-like leather body having a connecting incision extending at at least part of a lower edge of said panel structure, configured for connecting a sheet-like hide element designed to face the face of said panel structure that is directed toward the horse.
A method for operating a heating system with a condensing boiler, for obtaining heat for heating purposes in a heating circuit with a heat transfer system, and for simultaneously providing hot water in a hot water storage tank, wherein a heat pump is assigned to a return flow of the heating circuit, which heat pump extracts heat energy from at least some of the water in the return flow of the heating circuit, characterised in that, the return flow of the heat transfer system of the heating circuit is fully guided through an evaporator of the heat pump, and in that, the heat obtained in the heat pump is emitted at a higher temperature level to an inflow to the hot water storage tank.
An agricultural implement adapted to be moved by a vehicle in a forward direction of travel, the agricultural implement comprising: a frame (20, 65, 85); a ground-engaging tool (30, 70, 90) coupled to the frame (20, 65, 85); an adjustment device (55, 80, 100) coupled to the frame (20, 65, 85) and configured for raising and lowering the ground-engaging tool (30, 70, 90) between a transport position and a pre-selected operating depth (58, 83, 103) and configured for providing a pre-selected operating pressure (59, 84, 104); characterized in comprising a control system, comprising a position sensor (110, 120, 130) configured for measuring a depth indication of an actual operating depth of a ground-engaging tool (30, 70, 90) of an agricultural implement and configured for generating a corresponding position signal (115, 125, 135); a pressure sensor (117, 127, 137) configured for measuring a pressure indication of an actual operating pressure and configured for generating a corresponding pressure signal (119, 129, 139); and an implement control unit configured for receiving the position signal (115, 125, 135) and the pressure signal (119, 129, 139) and further: being configured for controlling an adjustment device (55, 80, 100) so that the depth indication targets a depth set point that is indicative of a pre-selected operating depth (58, 83, 103) provided that the pressure indication is within a pre-selected pressure range or being configured for controlling an adjustment device (55, 80, 100) so that the pressure indication targets a pressure set point that is indicative of a pre-selected operating pressure (59, 84, 104) provided that the depth indication is within a pre-selected depth range. being configured for controlling an adjustment device (55, 80, 100) so that the depth indication targets a depth set point that is indicative of a pre-selected operating depth (58, 83, 103) provided that the pressure indication is within a pre-selected pressure range or being configured for controlling an adjustment device (55, 80, 100) so that the pressure indication targets a pressure set point that is indicative of a pre-selected operating pressure (59, 84, 104) provided that the depth indication is within a pre-selected depth range.
A fluid tank system, comprising: a fluid container (200; 240) that includes a sensor opening (206; 252) in a fluid container wall defined by a rim; a fluid level sensor (202; 242) comprising a radial flange (212; 254) on a proximate end of a longitudinally extending electronics stem (210; 250) that includes a distal end (216; 248), wherein the radial flange (212; 254) sits on the rim that defines the sensor opening (206; 252); characterised in that the fluid tank system further comprises two longitudinally extending assembly tooling elements (244, 246) that are configured to be inserted into two respective assembly tool bores (258, 260) of the fluid container wall, wherein the fluid tank system is configured in such a way that as the longitudinally extending electronics stem (210; 250) passes through the sensor opening (202; 242) the two assembly tooling elements (244; 246) pass through two respective guide apertures (261; 262) in the radial flange (212; 254) ensuring that the distal end (216; 248) of the electronics stem (210; 250) is co-axially aligned and positioned with respect to a seat located coaxial to the sensor opening (206; 252). a fluid container (200; 240) that includes a sensor opening (206; 252) in a fluid container wall defined by a rim; a fluid level sensor (202; 242) comprising a radial flange (212; 254) on a proximate end of a longitudinally extending electronics stem (210; 250) that includes a distal end (216; 248), wherein the radial flange (212; 254) sits on the rim that defines the sensor opening (206; 252); characterised in that the fluid tank system further comprises two longitudinally extending assembly tooling elements (244, 246) that are configured to be inserted into two respective assembly tool bores (258, 260) of the fluid container wall, wherein the fluid tank system is configured in such a way that as the longitudinally extending electronics stem (210; 250) passes through the sensor opening (202; 242) the two assembly tooling elements (244; 246) pass through two respective guide apertures (261; 262) in the radial flange (212; 254) ensuring that the distal end (216; 248) of the electronics stem (210; 250) is co-axially aligned and positioned with respect to a seat located coaxial to the sensor opening (206; 252).
A heat pump comprising an outdoor unit which houses a receiver, an accumulator, a compressor, an oil separator, and a subcooler in a package, in the outdoor unit, the subcooler provided in a liquid refrigerant path of a refrigerant flow downstream of the receiver, the accumulator provided in an intake path of the compressor, and the oil separator provided in a discharge path of the compressor, wherein the subcooler is a plate type heat exchanger, and two members of the receiver, the accumulator, the oil separator, and the subcooler are arranged on a straight line inclined to one side in a width direction of the outdoor unit with respect to a depth direction of the outdoor unit in a planar view, and the remaining two members of the receiver, the accumulator, the oil separator, and the subcooler are arranged on a straight line inclined to the other side in the width direction of the outdoor unit with respect to the depth direction of the outdoor unit in the planar view, and each of the two members on the straight line inclined to the one side is adjacent to each of the remaining two members in the planar view.
A snow transport system comprising: a frame _comprising a base plate, a pair of opposed side plates (102/103) mounted on opposed sides of the base plate, and a plurality of cross members (104/105/106.107/108/109) extending between the side plates; a pair of convex lower track slides mounted on lower portions of the pair of opposed side plates; a pair of convex upper track slides mounted on upper portions of the pair of opposed side plates; a drive wheel mounted at an upper front portion of the frame; an idler wheel mounted at a lower rear portion of the frame; a continuous track wrapped around the drive wheel, the convex lower track slides, the idler wheel and the convex upper track slides, characterised in that, the convex lower track slides and the convex upper track slides are curved such that the continuous track bears against the convex lower track slides and the convex upper track slides to provide drag on the continuous track; a motor assembly mounted within the frame, and connected to the drive wheel through a transmission assembly; and a push arm assembly mounted to one side of the frame, the push arm assembly extending forwardly from the frame and having a push bar portion and user controls at a forward end thereof. a frame _comprising a base plate, a pair of opposed side plates (102/103) mounted on opposed sides of the base plate, and a plurality of cross members (104/105/106.107/108/109) extending between the side plates; a pair of convex lower track slides mounted on lower portions of the pair of opposed side plates; a pair of convex upper track slides mounted on upper portions of the pair of opposed side plates; a drive wheel mounted at an upper front portion of the frame; an idler wheel mounted at a lower rear portion of the frame; a continuous track wrapped around the drive wheel, the convex lower track slides, the idler wheel and the convex upper track slides, characterised in that, the convex lower track slides and the convex upper track slides are curved such that the continuous track bears against the convex lower track slides and the convex upper track slides to provide drag on the continuous track; a motor assembly mounted within the frame, and connected to the drive wheel through a transmission assembly; and a push arm assembly mounted to one side of the frame, the push arm assembly extending forwardly from the frame and having a push bar portion and user controls at a forward end thereof.
A method of power-efficient communications, comprising: determining an available output power of an electrical power source; transmitting data at a data transmission rate determined, at least in part, by the available output power of the electrical power source, minimizing a ratio of peak-to-average power consumed in transmitting the data to maximize a portion of the available output power of the electrical power source usable to transmit data by one of: selectively controlling operation of a transmitter such that a synthesizer and a transmit signal path of the transmitter do not operate simultaneously during a transmit period of the transmitter, or selectively controlling operation of a microcomputer and the transmitter such that the microcomputer and the transmitter do not operate simultaneously. determining an available output power of an electrical power source; transmitting data at a data transmission rate determined, at least in part, by the available output power of the electrical power source, minimizing a ratio of peak-to-average power consumed in transmitting the data to maximize a portion of the available output power of the electrical power source usable to transmit data by one of: selectively controlling operation of a transmitter such that a synthesizer and a transmit signal path of the transmitter do not operate simultaneously during a transmit period of the transmitter, or selectively controlling operation of a microcomputer and the transmitter such that the microcomputer and the transmitter do not operate simultaneously. selectively controlling operation of a transmitter such that a synthesizer and a transmit signal path of the transmitter do not operate simultaneously during a transmit period of the transmitter, or selectively controlling operation of a microcomputer and the transmitter such that the microcomputer and the transmitter do not operate simultaneously.
A cutting machine for cutting a workpiece (10, 50) having an axis, the machine comprising: spacers attachable against axial ends of the workpiece; a cutting blade mounted for movement perpendicular to the axis and against the workpiece to cut the workpiece; characterised by a motor arranged to rotate the workpiece and the spacers about the axis throughout the cutting process; and a controller for causing the workpiece to rotate through a number of consecutive rotations in one direction through a first angle, for determining when the workpiece has a pre-determined reduced remaining diameter from the cutting, and causing the workpiece to oscillate through a second angle smaller than the first angle once the pre-determined reduced remaining diameter has been reached. spacers attachable against axial ends of the workpiece; a cutting blade mounted for movement perpendicular to the axis and against the workpiece to cut the workpiece; characterised by a motor arranged to rotate the workpiece and the spacers about the axis throughout the cutting process; and a controller for causing the workpiece to rotate through a number of consecutive rotations in one direction through a first angle, for determining when the workpiece has a pre-determined reduced remaining diameter from the cutting, and causing the workpiece to oscillate through a second angle smaller than the first angle once the pre-determined reduced remaining diameter has been reached.
A method of forming an ophthalmic lens, the method comprising: depositing a binder layer onto one of a first mold part and a second mold part; then depositing an energy receptor capable of receiving energy via a radio wave onto the binder layer, thereby binding the energy receptor to the binder layer; and placing a processing chip in electrical communication with the energy receptor wherein the energy received via the radio wave is suitable for powering the processor chip; then depositing a reactive monomer mix into one of: the first mold part and the second mold part;positioning the first mold part proximate to the second mold part thereby forming a lens cavity with the energy receptor and at least some of the reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation. depositing a binder layer onto one of a first mold part and a second mold part; then depositing an energy receptor capable of receiving energy via a radio wave onto the binder layer, thereby binding the energy receptor to the binder layer; and placing a processing chip in electrical communication with the energy receptor wherein the energy received via the radio wave is suitable for powering the processor chip; then depositing a reactive monomer mix into one of: the first mold part and the second mold part;positioning the first mold part proximate to the second mold part thereby forming a lens cavity with the energy receptor and at least some of the reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation.
Optomechanical system to regulate light transmission and electricity production, in particular in the field of agriculture, comprising - an optical arrangement with a plurality of optical layers, wherein each optical layer comprises multiple optical elements configured to focus a direct component of incident light and to transmit a diffuse component of incident light; - a light collection arrangement with a plurality of light collection layers, wherein each light collection layer is at least partially translucent to light and comprises multiple distant elongate photovoltaic cells arranged in rows and substantially spaced by gaps; - at least one guiding element, attached to the optical arrangement and/or the light collection arrangement, capable of providing a relative translation and suppressing any rotation between the optical arrangement and the light collection arrangement; - a centralized tracking system configured to either displace the optical arrangement or the light collection arrangement along at least one axis such that at least part of a direct component of incident light is directable onto the elongate photovoltaic cells of the light collection arrangement and at least a part of a diffuse component of incident light is transmittable through the gaps between the rows of the elongate photovoltaic cells; wherein the centralized tracking system is configured to displace translationally either the optical arrangement or the light collection arrangement such that the amount of the direct component of the incident light focused on the photovoltaic cells and the amount of the direct component of incident light transmitted through the optomechanical system is adjustable; characterized in that the at least one guiding element is configured to guide the movement of the optical arrangement or the light collection arrangement along a circular or a quasi-circular trajectory and suppressing any rotation. - an optical arrangement with a plurality of optical layers, wherein each optical layer comprises multiple optical elements configured to focus a direct component of incident light and to transmit a diffuse component of incident light; - a light collection arrangement with a plurality of light collection layers, wherein each light collection layer is at least partially translucent to light and comprises multiple distant elongate photovoltaic cells arranged in rows and substantially spaced by gaps; - at least one guiding element, attached to the optical arrangement and/or the light collection arrangement, capable of providing a relative translation and suppressing any rotation between the optical arrangement and the light collection arrangement; - a centralized tracking system configured to either displace the optical arrangement or the light collection arrangement along at least one axis such that at least part of a direct component of incident light is directable onto the elongate photovoltaic cells of the light collection arrangement and at least a part of a diffuse component of incident light is transmittable through the gaps between the rows of the elongate photovoltaic cells;
A radio frequency, RF, interconnect (200,300) comprising: a housing having a ridged waveguide portion (214,314) provided therein; an upper cavity (202,302) formed in an upper portion of said housing, the upper cavity having a first cavity that forms a first portion of the ridged waveguide portion; a lower cavity (204,304) formed in a lower portion of said housing, the lower cavity having a second cavity that forms a second portion of the ridged waveguide portion; a first suspended air stripline, SAS, transmission line (207, 306) disposed in the lower cavity such that at least a portion of the first SAS transmission line crosses a slot (216,316) formed by said ridged waveguide; a second SAS transmission line (227,308) disposed in the upper cavity such that at least a portion of the second SAS transmission line crosses the slot formed by said ridged waveguide; and an electromagnetic interference, EMI, gasket (230,330) disposed at an interface established between the first cavity and the second cavity. a housing having a ridged waveguide portion (214,314) provided therein; an upper cavity (202,302) formed in an upper portion of said housing, the upper cavity having a first cavity that forms a first portion of the ridged waveguide portion; a lower cavity (204,304) formed in a lower portion of said housing, the lower cavity having a second cavity that forms a second portion of the ridged waveguide portion; a first suspended air stripline, SAS, transmission line (207, 306) disposed in the lower cavity such that at least a portion of the first SAS transmission line crosses a slot (216,316) formed by said ridged waveguide; a second SAS transmission line (227,308) disposed in the upper cavity such that at least a portion of the second SAS transmission line crosses the slot formed by said ridged waveguide; and an electromagnetic interference, EMI, gasket (230,330) disposed at an interface established between the first cavity and the second cavity.
A low-voltage circuit breaker comprising a casing containing at least one fixed contact and at least one mobile contact, characterized in that each said circuit breaker comprises, inside said casing, a first communication bus designed to interface a plurality of accessories and devices (20, 30, 40, 50) of said circuit breaker, and an interface unit comprising a plurality of ports (11, 12, 13, 14, 15) designed to be connected to said accessories and devices (20, 30, 40, 50) via said first communication bus, each of said ports (11, 12, 13, 14, 15) being usable indifferently and in an interchangeable way by one of said accessories and devices (20, 30, 40, 50).
An optical sensor assembly, said sensor assembly including: a first end (120; 208) comprising a connector; a body portion; and a second end (110; 206), the second end (110; 206) comprising: a flap, a first component, comprising a detector, a neck portion, and a hooked portion forming an emitter window, the hooked portion being adapted for attachment of an emitter. a first end (120; 208) comprising a connector; a body portion; and a second end (110; 206), the second end (110; 206) comprising: a flap, a first component, comprising a detector, a neck portion, and a hooked portion forming an emitter window, the hooked portion being adapted for attachment of an emitter. a flap, a first component, comprising a detector, a neck portion, and a hooked portion forming an emitter window, the hooked portion being adapted for attachment of an emitter.