mhurhangee/ep-ind-claims huggingface dataset:
A virtual reality audio player, comprising: a left-ear speaker and a right-ear speaker for playing a left-ear sound, Sl (S1, S2...Sn), and a right-ear sound, Sr (S1, S2...Sn), respectively; a motion detection module, collecting motion information about a listener of the left-ear speaker and the right-ear speaker; and a processor, converting multiple sound tracks into the left-ear sound and the right-ear sound based on the motion information detected by the motion detection module and a microphone array structure, wherein the multiple sound tracks are provided by multiple microphones (M1, M2...Mn) forming the microphone array structure, the virtual reality audio player being characterised by the processor generating the left-ear sound and the right-ear sound to simulate a Doppler effect by the processor gradually enhancing frequencies of the left-ear sound and the right-ear sound when the motion information detected by the motion detection module shows that the listener is approaching an audio source in a virtual reality environment; and the processor gradually depressing the frequencies of the left-ear sound and the right-ear sound when the motion information detected by the motion detection module shows that the listener is moving away from the audio source in the virtual reality environment. a left-ear speaker and a right-ear speaker for playing a left-ear sound, Sl (S1, S2...Sn), and a right-ear sound, Sr (S1, S2...Sn), respectively; a motion detection module, collecting motion information about a listener of the left-ear speaker and the right-ear speaker; and a processor, converting multiple sound tracks into the left-ear sound and the right-ear sound based on the motion information detected by the motion detection module and a microphone array structure, wherein the multiple sound tracks are provided by multiple microphones (M1, M2...Mn) forming the microphone array structure, the virtual reality audio player being characterised by the processor generating the left-ear sound and the right-ear sound to simulate a Doppler effect by the processor gradually enhancing frequencies of the left-ear sound and the right-ear sound when the motion information detected by the motion detection module shows that the listener is approaching an audio source in a virtual reality environment; and the processor gradually depressing the frequencies of the left-ear sound and the right-ear sound when the motion information detected by the motion detection module shows that the listener is moving away from the audio source in the virtual reality environment.
A vehicle comprising a carriage and a pusher device for pushing feed along the ground, the pusher device comprising a support and a pusher member supported by the support, the pusher member being provided to push feed along the ground on the side of the vehicle following a transverse direction of the vehicle due to the movement of the vehicle along a longitudinal direction of the vehicle perpendicular to the transverse direction, characterized in that the pusher member is translatable relative to the support along the transverse direction between a retracted position, in which the pusher member is situated between the lateral edges of the carriage, and at least one deployed position, in which the pusher member protrudes laterally relative to the carriage.
A control apparatus of a vehicle lamp comprising: a reception section (228L1, 228R1) configured to receive acceleration vector information of a vehicle from an acceleration sensor; characterized by a control section (228, 228L, 228R) configured to obtain a tilt angle of the vehicle relative to a horizontal plane based on the received acceleration vector information and correct the obtained tilt angle of the vehicle based on correction information obtained from a pre-recorded first reference tilt angle vector (S 1) of the vehicle in a first state and a pre-recorded second reference tilt angle vector (S 2) of the vehicle in a second state different from the first state only in a pitch angle, and to determine an optical axis position of the vehicle lamp based on the corrected tilt angle; and a transmission section (228L3, 228R3) configured to transmit the determined optical axis position to an optical axis adjustment section of the vehicle lamp, wherein the first state is a state where the vehicle is stationary on the horizontal plane, and the second state is a state where the vehicle is stationary and a load is applied to a front portion or a rear portion of the vehicle. a reception section (228L1, 228R1) configured to receive acceleration vector information of a vehicle from an acceleration sensor; characterized by a control section (228, 228L, 228R) configured to obtain a tilt angle of the vehicle relative to a horizontal plane based on the received acceleration vector information and correct the obtained tilt angle of the vehicle based on correction information obtained from a pre-recorded first reference tilt angle vector (S 1) of the vehicle in a first state and a pre-recorded second reference tilt angle vector (S 2) of the vehicle in a second state different from the first state only in a pitch angle, and to determine an optical axis position of the vehicle lamp based on the corrected tilt angle; and a transmission section (228L3, 228R3) configured to transmit the determined optical axis position to an optical axis adjustment section of the vehicle lamp, wherein the first state is a state where the vehicle is stationary on the horizontal plane, and the second state is a state where the vehicle is stationary and a load is applied to a front portion or a rear portion of the vehicle.
An injection control method for controlling an injection mechanism that injects injection material into a cavity of a mold, comprising: a detection step for detecting that the injection material reaches a predetermined position in the cavity away from an injection position, and a determination step for determining an injection termination time, characterized in that, in the determination step, the injection termination time is determined by using a relationship expression representing the relationship between the time period from the injection start of the injection material to the detection in the detection step and the time until a predetermined amount of the injection material is injected into the cavity. a detection step for detecting that the injection material reaches a predetermined position in the cavity away from an injection position, and a determination step for determining an injection termination time, characterized in that, in the determination step, the injection termination time is determined by using a relationship expression representing the relationship between the time period from the injection start of the injection material to the detection in the detection step and the time until a predetermined amount of the injection material is injected into the cavity.
A method providing a human-over-the-loop interface on a client computing device, wherein the client computing device comprises a graphical user interface and is configured to receive filters, qualifiers and blurbs that are applied to a meteorological forecast, the method comprising: presenting a home region that is correlated to a geographic location where the client computing device is located; presenting a list of the filters, the qualifiers and the blurbs for the home region; presenting a time bar to set a temporal period to which the filters, the qualifiers and the blurbs apply; plotting weather information layers that provide a visualization of forecast guidance and observations; characterised in that receiving inputs to place the filters, the qualifiers and the blurbs on the geographic location in order to limit the forecast into acceptable or smart thresholds from unacceptable or un-wise thresholds and setting manual constraints on the forecast guidance based on said filters, qualifiers and blurbs. presenting a home region that is correlated to a geographic location where the client computing device is located; presenting a list of the filters, the qualifiers and the blurbs for the home region; presenting a time bar to set a temporal period to which the filters, the qualifiers and the blurbs apply; plotting weather information layers that provide a visualization of forecast guidance and observations; characterised in that receiving inputs to place the filters, the qualifiers and the blurbs on the geographic location in order to limit the forecast into acceptable or smart thresholds from unacceptable or un-wise thresholds and setting manual constraints on the forecast guidance based on said filters, qualifiers and blurbs.
A vehicle exterior observation device comprising: an imaging device (1L, 1R) comprising: an imaging element having an imaging surface; a first image-producing optical system configured to form, on the imaging surface, a first image of a first imaging area of the vehicle exterior at a first imaging magnification, and a second image-producing optical system configured to form, on the imaging surface, a second image of a second imaging area of the vehicle exterior at a second imaging magnification different from the first imaging magnification, and an image control unit; characterized in that the image control unit is configured: to detect the first imaging area and the second imaging area, to synthesize the first image and the second image on the basis of the detected first imaging area and second imaging area so that the first image and the second image are displayed in succession, and to display the synthesized image on a monitor (3L, 3R). an imaging device (1L, 1R) comprising: an imaging element having an imaging surface; a first image-producing optical system configured to form, on the imaging surface, a first image of a first imaging area of the vehicle exterior at a first imaging magnification, and a second image-producing optical system configured to form, on the imaging surface, a second image of a second imaging area of the vehicle exterior at a second imaging magnification different from the first imaging magnification, and an imaging element having an imaging surface; a first image-producing optical system configured to form, on the imaging surface, a first image of a first imaging area of the vehicle exterior at a first imaging magnification, and a second image-producing optical system configured to form, on the imaging surface, a second image of a second imaging area of the vehicle exterior at a second imaging magnification different from the first imaging magnification, and an image control unit; characterized in that the image control unit is configured: to detect the first imaging area and the second imaging area, to synthesize the first image and the second image on the basis of the detected first imaging area and second imaging area so that the first image and the second image are displayed in succession, and to display the synthesized image on a monitor (3L, 3R). to detect the first imaging area and the second imaging area, to synthesize the first image and the second image on the basis of the detected first imaging area and second imaging area so that the first image and the second image are displayed in succession, and to display the synthesized image on a monitor (3L, 3R).
Exhaust manifold for an internal combustion engine, having an exhaust gas conducting inner tube, an outer jacket and an insulation, wherein the insulation is embodied as an insulating molded part pressed into shape and arranged between the jacket and the inner tube and includes an insulating fibrous tissue and a binder; wherein the insulating fibrous tissue includes a fiber mat of mineral fibers, such as a woven glass and/or silicate and/or ceramic fiber mat; and wherein the insulating molded part is separated from the inner tube by an air gap; wherein the side of the insulating molded part which includes the fiber mat abuts the air gap and the opposite side of the insulating molded part abuts the jacket; wherein the outer jacket surrounds the inner tube at a distance A; characterized in that the insulating molded part covers the entire inner surface of the outer jacket, yet being thinner than the distance A, such that between the insulating molded part and the inner tube a resulting air gap remains, wherein the insulating molded part is thinner than the insulating air gap.
A (meth)acrylic composition MC1 comprising, a) 100 parts of a liquid (meth)acrylic syrup comprising a1) between 10wt% and 50wt% of a (meth)acrylic polymer, and a2) between 50wt% and 90wt% of a (meth)acrylic monomer comprising only one (meth)acrylic function, and b) between 0.01 and 10phr by weight of a (meth)acrylic monomer comprising at least two (meth)acrylic functions; c) between 0.01 and 10phr of a (meth)acrylic monomer comprising only one (meth)acrylic function and the (meth)acrylic monomer is different from (meth)acrylic monomer; d) from 0phr to 10phr by weight of a metal containing compound; e) from 0phr to 10phr by weight of a reducing agent f) from 0ppm and 20 000ppm of a tertiary amine; g) from 0phr and 5phr of a initiator to start the polymerization of the (meth)acrylic monomers, and; h) from 0ppm to 10 000ppm of a transfer agent; i) from 0ppm to 10 000ppm of an antioxidant; j) from 0ppm to 1 000ppm a radical scavenger; k) from 0ppm to 10 000ppm of a thermal stabilizing agent and l) from 0ppm to 10 000ppm of a light stabilizer; m)optionally an inorganic filler; characterized in that the (meth)acrylic monomer is chosen from methacrylic acid. a) 100 parts of a liquid (meth)acrylic syrup comprising a1) between 10wt% and 50wt% of a (meth)acrylic polymer, and a2) between 50wt% and 90wt% of a (meth)acrylic monomer comprising only one (meth)acrylic function, and a1) between 10wt% and 50wt% of a (meth)acrylic polymer, and a2) between 50wt% and 90wt% of a (meth)acrylic monomer comprising only one (meth)acrylic function, and b) between 0.01 and 10phr by weight of a (meth)acrylic monomer comprising at least two (meth)acrylic functions; c) between 0.01 and 10phr of a (meth)acrylic monomer comprising only one (meth)acrylic function and the (meth)acrylic monomer is different from (meth)acrylic monomer; d) from 0phr to 10phr by weight of a metal containing compound; e) from 0phr to 10phr by weight of a reducing agent f) from 0ppm and 20 000ppm of a tertiary amine; g) from 0phr and 5phr of a initiator to start the polymerization of the (meth)acrylic monomers, and; h) from 0ppm to 10 000ppm of a transfer agent; i) from 0ppm to 10 000ppm of an antioxidant; j) from 0ppm to 1 000ppm a radical scavenger; k) from 0ppm to 10 000ppm of a thermal stabilizing agent and l) from 0ppm to 10 000ppm of a light stabilizer; m)optionally an inorganic filler;
Method for producing hoselines and pipelines with RFID chips, characterized in that a linear structure composed of an electrically conductive material is applied to the outer surface of a hoseline or pipeline blank and RFID chips are mounted on this linear structure at predetermined distances, wherein the RFID chips come into electrically conductive connection with the linear structure, and the applied linear structure and the mounted RFID chips are fixed on the hoseline or pipeline blank and are completed together with the hoseline or pipeline blank and then the completed hoseline or pipeline is split into sections of predetermined length.
A friction damper, suitable for a bogie suspension system, suitable to be placed in a guide of the bogie suspension system, containing a guide cylinder suitable to be mounted between a fifth wheel coupling of the bogie suspension system and said guide, which guide cylinder is closed from one side through a bottom, and has a spring element inside, said guide cylinder comprising a slidable friction element, characterised in that the guide cylinder is closed from one side opposite from said bottom by a closing sleeve with an inner flange, whereas the spring element placed inside the guide cylinder is adjacent to said slidable friction element in the shape of a cylinder fitted with a flange, the diameter of which corresponds to the inner diameter of the guide cylinder, whereas the flange is located inside the guide cylinder, while the remaining part of a friction element protrudes outside via the sleeve; wherein, when the spring element is most stretched, the flange of the friction element rests on the flange of the sleeve.
A rubber composition for studless winter tires, comprising: a rubber component that comprises natural rubber and butadiene rubber; an aromatic oil; silica; and carbon black, wherein a combined amount of the natural rubber and the butadiene rubber is 30 mass% or more based on 100 mass% of the rubber component; an amount of the aromatic oil is 12 to 85 parts by mass relative to 100 parts by mass of the rubber component; a silica content is 45 mass% or more based on 100 mass% in total of the silica and the carbon black; the silica comprises one or more kinds of silica with a nitrogen adsorption specific surface area of 100 m 2 /g or less and one or more kinds of silica with a nitrogen adsorption specific surface area of 180 m 2 /g or more; a combined amount of the silica and the silica is 30 to 150 parts by mass relative to 100 parts by mass of the rubber component; and an amount of the silica and an amount of the silica satisfy the following relation: Amount of silica 1 × 0.2 ≤ Amount of silica 2 ≤ Amount of silica 1 × 6.5. a rubber component that comprises natural rubber and butadiene rubber; an aromatic oil; silica; and carbon black, wherein a combined amount of the natural rubber and the butadiene rubber is 30 mass% or more based on 100 mass% of the rubber component; an amount of the aromatic oil is 12 to 85 parts by mass relative to 100 parts by mass of the rubber component; a silica content is 45 mass% or more based on 100 mass% in total of the silica and the carbon black; the silica comprises one or more kinds of silica with a nitrogen adsorption specific surface area of 100 m 2 /g or less and one or more kinds of silica with a nitrogen adsorption specific surface area of 180 m 2 /g or more; a combined amount of the silica and the silica is 30 to 150 parts by mass relative to 100 parts by mass of the rubber component; and an amount of the silica and an amount of the silica satisfy the following relation: Amount of silica 1 × 0.2 ≤ Amount of silica 2 ≤ Amount of silica 1 × 6.5.
Channel filter for a communication device, comprising: a first resonator; a coupling element with a first longitudinal portion and a second longitudinal portion, wherein the first longitudinal portion and the second longitudinal portion extend in a longitudinal direction of the channel filter, wherein the longitudinal direction corresponds to a direction of the signal path from an input to an output of the channel filter; and a first tuning element, which comprises a cylindrical tuning screw; wherein the first longitudinal portion is a coupling iris; wherein the second longitudinal portion is a waveguide and is connected to the first longitudinal portion; wherein the coupling element is designed to couple the first resonator at least indirectly to the input or the output of the channel filter; wherein the first longitudinal portion has a smaller width in a first direction than the second longitudinal portion, wherein the first direction runs transversely in relation to the longitudinal direction; wherein the first tuning element is at least partially in the first longitudinal portion and at least partially in the second longitudinal portion; wherein the first tuning element is movable in a second direction transverse to the first direction and transverse to the longitudinal direction towards and away from the centre point of the coupling element, in order thereby to carry out a tuning movement; characterized in that the tuning screw protrudes in the first direction transverse to the longitudinal direction of the coupling element beyond a side surface of the first longitudinal portion. a first resonator; a coupling element with a first longitudinal portion and a second longitudinal portion, wherein the first longitudinal portion and the second longitudinal portion extend in a longitudinal direction of the channel filter, wherein the longitudinal direction corresponds to a direction of the signal path from an input to an output of the channel filter; and a first tuning element, which comprises a cylindrical tuning screw; wherein the first longitudinal portion is a coupling iris; wherein the second longitudinal portion is a waveguide and is connected to the first longitudinal portion; wherein the coupling element is designed to couple the first resonator at least indirectly to the input or the output of the channel filter; wherein the first longitudinal portion has a smaller width in a first direction than the second longitudinal portion, wherein the first direction runs transversely in relation to the longitudinal direction; wherein the first tuning element is at least partially in the first longitudinal portion and at least partially in the second longitudinal portion; wherein the first tuning element is movable in a second direction transverse to the first direction and transverse to the longitudinal direction towards and away from the centre point of the coupling element, in order thereby to carry out a tuning movement; characterized in that the tuning screw protrudes in the first direction transverse to the longitudinal direction of the coupling element beyond a side surface of the first longitudinal portion.
Method for the optimised control of at least one temperature control device comprising a heat pump, the method comprising the deactivation of the heat pump during a deactivation period (τ dés), at least partially included in a period during which a first billing level is applied, and the activation of the heat pump during at least one activation period (τ act), at least partially included in a period during which a second billing level is applied, said second billing level being less than the first billing level, characterised by: the estimation of the value, for a reference time (t 1) chosen between said periods, of an operating temperature setpoint (T cons (t 1)) of the heat pump; the determination of an optimised operating temperature (T opt), said optimised operating temperature differing from said estimated value (T cons) of the operating temperature setpoint at the reference time (t 1) by at least a predetermined deviation (ΔT opt) to offset during the activation period, a curtailment taking place during the deactivation period; and the determination of the duration (Δτ 1) of the first of said periods from a chronological point of view (τ 1) according to said optimised operating temperature (T opt), said duration (Δτ 1) being calculated such that the operating temperature (T fonc) measured to assess the operation of the heat pump, evolves during said first period to reach, at said reference time (t 1), said optimised operating temperature (T opt). the estimation of the value, for a reference time (t 1) chosen between said periods, of an operating temperature setpoint (T cons (t 1)) of the heat pump; the determination of an optimised operating temperature (T opt), said optimised operating temperature differing from said estimated value (T cons) of the operating temperature setpoint at the reference time (t 1) by at least a predetermined deviation (ΔT opt) to offset during the activation period, a curtailment taking place during the deactivation period; and the determination of the duration (Δτ 1) of the first of said periods from a chronological point of view (τ 1) according to said optimised operating temperature (T opt), said duration (Δτ 1) being calculated such that the operating temperature (T fonc) measured to assess the operation of the heat pump, evolves during said first period to reach, at said reference time (t 1), said optimised operating temperature (T opt).