mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: propelling an electrically driven vehicle that includes a first traction drive system (110, 210, 310) and a second traction drive system (130, 230, 330), the second traction drive system (130, 230, 330) propelling the vehicle at a first, slower speed and high torque by supplying electricity at a first, lower voltage from a first energy storage device (132, 232, 332) to a second electric motor (136, 236, 336); and the first traction drive system (110, 210, 310) propelling the vehicle at a second, faster speed and moderate torque by supplying electricity at a second, higher voltage from an engine-driven generator (114, 214, 314) to a first electric motor (120, 220, 320), characterised in that the first electric motor (120, 220, 320) is not coupled to the first energy storage device (132, 232, 332). propelling an electrically driven vehicle that includes a first traction drive system (110, 210, 310) and a second traction drive system (130, 230, 330), the second traction drive system (130, 230, 330) propelling the vehicle at a first, slower speed and high torque by supplying electricity at a first, lower voltage from a first energy storage device (132, 232, 332) to a second electric motor (136, 236, 336); and the first traction drive system (110, 210, 310) propelling the vehicle at a second, faster speed and moderate torque by supplying electricity at a second, higher voltage from an engine-driven generator (114, 214, 314) to a first electric motor (120, 220, 320), characterised in that the first electric motor (120, 220, 320) is not coupled to the first energy storage device (132, 232, 332).
A reagent loading device, comprising: a plurality of protrusions each comprising a stem having a proximal end and a distal end, and a tip at the distal end of the stem, and a plate comprising a proximal surface and a distal surface, wherein the proximal ends of the plurality of protrusions are attached to the distal surface of the plate, and each tip is a closed tip configured to hold a reagent outside the tip, and characterized in that: the plate further comprises grooves on the proximal surface and legs on the distal surface that extend distally beyond the closed tips and are configured to protect the closed tips. a plurality of protrusions each comprising a stem having a proximal end and a distal end, and a tip at the distal end of the stem, and a plate comprising a proximal surface and a distal surface, wherein the proximal ends of the plurality of protrusions are attached to the distal surface of the plate, and each tip is a closed tip configured to hold a reagent outside the tip, and characterized in that: the plate further comprises grooves on the proximal surface and legs on the distal surface that extend distally beyond the closed tips and are configured to protect the closed tips.
A square baler, comprising a baling chamber, a plunger reciprocable at one end of the baling chamber, a pre-compression chamber within which charges of crop are amassed and pre-compressed by a rotor prior to transfer into the baling chamber, a pickup roller having radially projecting tines for picking up crop from the ground and advancing the crop to the rotor, and a processing circuit operative to estimate the rate of crop flow into the pre-compression chamber by analysing the output signal of a torque sensor, characterised in that the torque sensor is connected to at least one tine bar of the pickup roller to produce an electrical output signal indicative of the torque experienced by the at least one tine bar of the pickup roller, and the processing circuit operative to estimate the rate of crop flow into the pre-compression chamber by analysing the output signal of the torque sensor only at times when the position of the tines of the at least one tine bar lies within a predetermined angular position of the pickup roller.
Cutter bar for a mowing machine, having an elongate severing blade which has a central region and two severing arms adjoining the central region, wherein the severing arms have a leading region with respect to a direction of rotation of the cutter bar, with a leading cutting region, and have a trailing region with a trailing blade, characterized in that the blade is curved upwards and has an upwardly rising transition region adjoining the end region of the severing blade, and a downwardly bent region adjoins the transition region.
A compressively deformable bottle constructed by integrally molding a body and a bottom connected to the body via a heel, the body comprising: a smaller diameter portion which is a lower portion of the body, a larger diameter portion which is an upper portion of the body which is made to have a larger diameter than the smaller diameter portion, a first annular recess formed by recessing a portion of the larger diameter portion radially inward along the circumference of an axis of the body, and a second annular recess formed by recessing a portion of the smaller diameter portion radially inward along the circumference of the axis so as to come into contact with the larger diameter portion, wherein the maximum depth of the second annular recess from the larger diameter portion is larger than the maximum depth of the first annular recess from the larger diameter portion and equal to or smaller than the axial dimension between the first annular recess and the second annular recess. a smaller diameter portion which is a lower portion of the body, a larger diameter portion which is an upper portion of the body which is made to have a larger diameter than the smaller diameter portion, a first annular recess formed by recessing a portion of the larger diameter portion radially inward along the circumference of an axis of the body, and a second annular recess formed by recessing a portion of the smaller diameter portion radially inward along the circumference of the axis so as to come into contact with the larger diameter portion, wherein the maximum depth of the second annular recess from the larger diameter portion is larger than the maximum depth of the first annular recess from the larger diameter portion and equal to or smaller than the axial dimension between the first annular recess and the second annular recess.
Combustion system for a turbine, notably for a turbine having a thermodynamic cycle with a recuperator, for the production of energy, comprising a continuous-flow tubular combustion chamber and a heat exchanger for the exchange of heat between the intake gases for said combustion chamber and the burnt gases coming from said combustion chamber, characterized in that said heat exchanger is an annular counter-current heat exchanger arranged around said combustion chamber.
A process for developing austenitic stainless steel having high resistance to sensitization as measured by degree of sensitization which is reverse of resistance sensitization and having value of 0.02 to 2.72 %, depending upon the types of austenitic stainless steel, wherein said process comprises exposing wrought stainless steel to heat treatment at the temperature range of 1100-1250°C for 30 minutes to two hours and cooling to room temperature, wherein the process does not involve thermo mechanical treatment or chemical modifications.
An isolated peptide selected from the group consisting of the sequences VAFIGKYGQQLNFGVA, IGKYGQQLNFGVARVF, FFLNQKKAKMVLHKTA, GGVKFTVVNNHFPQYV, KFTVVNNHFPQYVSNP, WIADTCKASVLKLAEA, RVLKDNMDVNFMKKVL, KDNMDVNFMKKVLRQR, MDVNFMKKVLRQRYGT, NFMKKVLRQRYGTMTA, LRQRYGTMTAEEWMTQ, RYGTMTAEEWMTQKIT, AEEWMTQKITEIKAAF, AKSGFSPAARTFLQQF, GFSPAARTFLQQFGIN.
An air conditioner comprising: a plurality of compressors (11, 12, 13); a plurality of oil separators (21, 22, 23) connected to respective outlets of the compressors (11, 12, 13) to separate refrigerant and/or oil discharged from the compressors (11, 12, 13); an oil collection unit connected to receive oil separated by the oil separators (21, 22, 23) and to allow the oil to flow to the compressors (11, 12, 13); a common inlet pipe to receive oil separated by the oil separators (21, 22, 23) and the refrigerant, and to allow the oil and the refrigerant to flow to the compressors (11, 12, 13); and a plurality of branch inlet pipes (31, 32, 33) branching off from the common inlet pipe and respectively connected to the compressors (11, 12, 13) and an accumulator connected to the common inlet pipe to separate liquid and gas portions of the refrigerant, characterized in that, the oil collection unit comprises a plurality of oil collection pipes (41, 42, 43) respectively connected to the oil separators to collect oil separated by the oil separators (21, 22, 23), and a common oil collection pipe at which streams of oil of the oil collection pipes (41, 42, 43) gather, in that a connection pipe is connected to the accumulator to supply the refrigerant discharged from an evaporator to the accumulator, in that the common oil collection pipe being connected to the accumulator, in that the oil collection pipes (41, 42, 43) comprise capillaries (44, 45, 46), respectively, to reduce pressure of oil. a plurality of compressors (11, 12, 13); a plurality of oil separators (21, 22, 23) connected to respective outlets of the compressors (11, 12, 13) to separate refrigerant and/or oil discharged from the compressors (11, 12, 13); an oil collection unit connected to receive oil separated by the oil separators (21, 22, 23) and to allow the oil to flow to the compressors (11, 12, 13); a common inlet pipe to receive oil separated by the oil separators (21, 22, 23) and the refrigerant, and to allow the oil and the refrigerant to flow to the compressors (11, 12, 13); and a plurality of branch inlet pipes (31, 32, 33) branching off from the common inlet pipe and respectively connected to the compressors (11, 12, 13) and an accumulator connected to the common inlet pipe to separate liquid and gas portions of the refrigerant, characterized in that, the oil collection unit comprises a plurality of oil collection pipes (41, 42, 43) respectively connected to the oil separators to collect oil separated by the oil separators (21, 22, 23), and a common oil collection pipe at which streams of oil of the oil collection pipes (41, 42, 43) gather, in that a connection pipe is connected to the accumulator to supply the refrigerant discharged from an evaporator to the accumulator, in that the common oil collection pipe being connected to the accumulator, in that the oil collection pipes (41, 42, 43) comprise capillaries (44, 45, 46), respectively, to reduce pressure of oil.
A method of generating a primary effect and a secondary effect in a device comprising, f a panel (20,820,920) which supports vibrations, at least N + M transducers (21,22,23,521,522,523,820,821,823,921,922,923,915,925,926) connected to the panel, where N and M are integers greater than or equal to 1 and where N is greater than M, a signal processing circuitry (27,517) electrically connected to the transducers and configured to provide signals to each transducer, and a control signal generator (26,516,518) electrically connected to the signal processing circuity and configured to generate N electrical signals; the method comprising: obtaining N electrical signals from the control signal generator to be applied respectively to N of the transducers to produce the primary effect; processing by the signal processing circuitry the N electrical signals to produce M additional electrical signal(s), such that when the M signal(s) are applied to respective transducers other than the N transducers, a secondary effect is produced, wherein the primary effect and the secondary effect comprise haptic feedback and audio signals respectively or audio signals and haptic feedback respectively. obtaining N electrical signals from the control signal generator to be applied respectively to N of the transducers to produce the primary effect; processing by the signal processing circuitry the N electrical signals to produce M additional electrical signal(s), such that when the M signal(s) are applied to respective transducers other than the N transducers, a secondary effect is produced, wherein the primary effect and the secondary effect comprise haptic feedback and audio signals respectively or audio signals and haptic feedback respectively.
Power conversion system comprising an electronic power converter with a plurality of controllable switches (1.3); three-phase alternating current terminals (T AC) connectable to an AC load and connected to a three-phase output of the converter; an output filter comprising at least one inductive impedance (L f) and connected between said terminals (T AC) and said output of the converter; detection means for detecting the instantaneous voltage (v ag, v bg, v cg) and the instantaneous current (i ag, i bg, i cg) at each terminal (T AC) of the system; and a control unit communicated with the converter and with the detection means, and configured for generating control signals (S 1...6) to control the state of the switches (1.3) of said converter based on reference signals, characterized in that the control unit comprises a control scheme with an estimation block configured for calculating the instantaneous active power and two stationary flux components ( λ α,λ β) of a virtual flux of the system, based on the measured instantaneous voltages (v ag, v bg, v cg) and instantaneous currents (i ag, i bg, i cg); a control block configured for transforming said stationary flux components ( λ α,λ β) into a direct rotating flux component ( λ d) and a quadrature rotating flux component ( λ q), considering a control angle ( θ); and a synchronization block configured for calculating the control angle ( θ) based on at least a preestablished rated frequency (w o) for the measured instantaneous voltages (v ag, v bg, v cg) and on the calculated active power, the control block further being configured for calculating a direct rotating voltage component (e dg) and a quadrature rotating voltage component (e qg) of an internal voltage of the system, based on the rotating flux components ( λ d, λ q), and for calculating reference instantaneous internal voltages (e ag, e bg, e cg) of the system based on said rotating voltage components (e dg, e qg) and on the control angle ( θ), said reference instantaneous internal voltages (e ag, e bg, e cg) being the reference signals for generating the control signals (S 1...6), the synchronization block comprising a first operator (O 1C) configured for calculating the difference between the measured active power and a reference active power (P*); a first integrator (I 1C), with a pre-determined inertia constant, the input of which is the output of the first operator (O 1C) and the output of which is an internal frequency (ω i) of the system; and a second integrator (I 2C) configured for integrating said internal frequency (ω i) and yielding the control angle ( θ) as a result, said synchronization block being also configured for calculating a difference between the rated frequency (w o) and the internal frequency (ω i), for multiplying the resulting difference with a damping constant, and for subtracting the result of said multiplication, together with the active power, from the reactive power (P*), the total result of said subtraction being the input of the first integrator (I 1C).
An injection machine for a recycled plastic injection molding system used with at least one molding device to produce an end product from plastic, the injection machine comprising: a supplying system having a hopper, a first driver disposed on the hopper, the first driver has a feed screw penetrating the hopper, the first driver is configured to drive the feed screw to rotate; a heating system disposed on a downstream of the supplying system, the heating system having a heating pipe, a second driver disposed on one end of the heating pipe, the second driver has a heating screw penetrating the heating pipe, the second driver configured to drive the heating screw to rotate; a buffer system disposed on a downstream of the heating system, the buffer system having a plunger tube and a plunger rod slidably installed and sealed within the plunger tube; characterized in that: the feed screw of the first driver extends into the heating system, and wherein the feed screw and the heating screw are configured to be at a distance from each other, the distance ranges between 20-40mm. a supplying system having a hopper, a first driver disposed on the hopper, the first driver has a feed screw penetrating the hopper, the first driver is configured to drive the feed screw to rotate; a heating system disposed on a downstream of the supplying system, the heating system having a heating pipe, a second driver disposed on one end of the heating pipe, the second driver has a heating screw penetrating the heating pipe, the second driver configured to drive the heating screw to rotate; a buffer system disposed on a downstream of the heating system, the buffer system having a plunger tube and a plunger rod slidably installed and sealed within the plunger tube; characterized in that: the feed screw of the first driver extends into the heating system, and wherein the feed screw and the heating screw are configured to be at a distance from each other, the distance ranges between 20-40mm. the feed screw of the first driver extends into the heating system, and wherein the feed screw and the heating screw are configured to be at a distance from each other, the distance ranges between 20-40mm.
A sensor package, comprising: an integrated circuit chip which carries at least one sensor element on a first surface and comprises non-solder metal bumps, in particular comprises gold bumps, nickel bumps or gold-nickel bumps; an intermediate carrier having a first surface to which the first surface of the integrated circuit chip is bonded by an adhesive, wherein the intermediate carrier has a set of openings comprising at least one opening beneath the sensor element and wherein the metal bumps are bonded to the first surface of the intermediate carrier by the adhesive; and solder bond pads on a second surface of the intermediate carrier opposite the fist surface, wherein the outer shape defined by the outer edge of the intermediate carrier is within 0.5 mm of the outer edge of the shape of the chip, wherein the intermediate carrier forms a shield to protect the sensor element when soldering the sensor package to a circuit board, and wherein the set of openings has a smaller area than a sensor area of the sensor element. an integrated circuit chip which carries at least one sensor element on a first surface and comprises non-solder metal bumps, in particular comprises gold bumps, nickel bumps or gold-nickel bumps; an intermediate carrier having a first surface to which the first surface of the integrated circuit chip is bonded by an adhesive, wherein the intermediate carrier has a set of openings comprising at least one opening beneath the sensor element and wherein the metal bumps are bonded to the first surface of the intermediate carrier by the adhesive; and solder bond pads on a second surface of the intermediate carrier opposite the fist surface, wherein the outer shape defined by the outer edge of the intermediate carrier is within 0.5 mm of the outer edge of the shape of the chip, wherein the intermediate carrier forms a shield to protect the sensor element when soldering the sensor package to a circuit board, and wherein the set of openings has a smaller area than a sensor area of the sensor element.
An input device, comprising: an input section (110; 210; 310) having a detection surface (18a; 28a) and configured to output a detection signal corresponding to a pressing position and a pressing amount on the detection surface (18a, 28a); a control section (50; 250; 350) configured to determine the pressing position and the pressing amount based on the detection signal; a power supply section (70; 270; 370) configured to supply electricity to the input section (110; 210; 310) and the control section (50; 250; 350); and a support section (20; 220; 320) configured to be wearable and to support the input section (110; 210; 310), the control section (50; 250; 350), and the power supply section (70; 270; 370), wherein the support section (20; 220; 320) is concatenated such that the input device (101; 201; 301) is wearable on a user's arm, characterized in that the detection surface (18a, 28a) is provided on an outer peripheral surface and on an inner peripheral surface of the support section (20; 220; 320). an input section (110; 210; 310) having a detection surface (18a; 28a) and configured to output a detection signal corresponding to a pressing position and a pressing amount on the detection surface (18a, 28a); a control section (50; 250; 350) configured to determine the pressing position and the pressing amount based on the detection signal; a power supply section (70; 270; 370) configured to supply electricity to the input section (110; 210; 310) and the control section (50; 250; 350); and a support section (20; 220; 320) configured to be wearable and to support the input section (110; 210; 310), the control section (50; 250; 350), and the power supply section (70; 270; 370), wherein the support section (20; 220; 320) is concatenated such that the input device (101; 201; 301) is wearable on a user's arm,
An encoding apparatus, comprising: a first encoding unit adapted to encode a speech characteristic signal of an input signal according to a hetero coding scheme different from a Modified Discrete Cosine Transform (MDCT)-based coding scheme; and a second encoding unit adapted to encode an audio characteristic signal of the input signal according to the MDCT-based coding scheme, wherein the second encoding unit is adapted to perform encoding by applying an analysis window based on a folding point, when the folding point where switching occurs between the speech characteristic signal and the audio characteristic signal exists in a current frame of the input signal, wherein the first encoding unit is adapted to encode additional information to restore the audio characteristic signal according to a MDCT-based coding scheme, and wherein the additional information corresponds to an area of a portion of the speech characteristic signal. a first encoding unit adapted to encode a speech characteristic signal of an input signal according to a hetero coding scheme different from a Modified Discrete Cosine Transform (MDCT)-based coding scheme; and a second encoding unit adapted to encode an audio characteristic signal of the input signal according to the MDCT-based coding scheme, wherein the second encoding unit is adapted to perform encoding by applying an analysis window based on a folding point, when the folding point where switching occurs between the speech characteristic signal and the audio characteristic signal exists in a current frame of the input signal, wherein the first encoding unit is adapted to encode additional information to restore the audio characteristic signal according to a MDCT-based coding scheme, and wherein the additional information corresponds to an area of a portion of the speech characteristic signal.