mhurhangee/ep-ind-claims huggingface dataset:
A method for processing coherent MIMO radar processing DDMA waveforms and comprising NT X transmitters and NR X receivers, comprising the steps of - a) generating waveforms on at most NT X transmitters, the waveforms, modulo the radar pulse repetition frequency F R, being identical from one transmitter to the next, to within a phase ramp specific to each transmitter; - b) generating, for at least one receiver, a range-Doppler representation of the echoes of the transmitted waveforms, where, for each receiver, the echoes of a transmitter over a plurality of range cells occupy at least one frequency cell in the Doppler spectrum, called signal band, each signal band being specific to one of the transmitters, the placement of the signal bands in the Doppler spectrum being determined as a function of the phase ramp applied to each transmitter, the waveforms being generated so as to leave a portion of the Doppler spectrum between two signal bands unoccupied; - c) identifying the transmitter corresponding to each signal band, on the basis of the Range-Doppler representation of the echoes of the transmitted waveforms. - a) generating waveforms on at most NT X transmitters, the waveforms, modulo the radar pulse repetition frequency F R, being identical from one transmitter to the next, to within a phase ramp specific to each transmitter; - b) generating, for at least one receiver, a range-Doppler representation of the echoes of the transmitted waveforms, where, for each receiver, the echoes of a transmitter over a plurality of range cells occupy at least one frequency cell in the Doppler spectrum, called signal band, each signal band being specific to one of the transmitters, the placement of the signal bands in the Doppler spectrum being determined as a function of the phase ramp applied to each transmitter, the waveforms being generated so as to leave a portion of the Doppler spectrum between two signal bands unoccupied; - c) identifying the transmitter corresponding to each signal band, on the basis of the Range-Doppler representation of the echoes of the transmitted waveforms.
Method for calibration of working depth of an agricultural implement for distributing granular material to the ground over which the agricultural implement is travelling, the agricultural implement having an output unit comprising a ground-engaging tool for forming a furrow, a gauge wheel, and at least one actuator for controlling the position of the gauge wheel relative to the tool, wherein the method comprises: placing the agricultural implement on a ground surface that is level and sufficiently hard for the tool not to penetrate into the ground surface, wherein a load from the output unit bears on one of the tool and the gauge wheel, using the actuator to transfer the load to the other one of the tool and the gauge wheel, recording a first parameter of the actuator while the load is being transferred, which first parameter indicates a force on the actuator, recording a second parameter for the gauge wheel in relation to the tool while the load is being transferred, which second parameter indicates a relative vertical position between the gauge wheel and the tool, identifying a change of the first parameter that occurs when the load is transferred, and assigning the change to a value of the second parameter. the agricultural implement having an output unit comprising a ground-engaging tool for forming a furrow, a gauge wheel, and at least one actuator for controlling the position of the gauge wheel relative to the tool, wherein the method comprises: placing the agricultural implement on a ground surface that is level and sufficiently hard for the tool not to penetrate into the ground surface, wherein a load from the output unit bears on one of the tool and the gauge wheel, using the actuator to transfer the load to the other one of the tool and the gauge wheel, recording a first parameter of the actuator while the load is being transferred, which first parameter indicates a force on the actuator, recording a second parameter for the gauge wheel in relation to the tool while the load is being transferred, which second parameter indicates a relative vertical position between the gauge wheel and the tool, identifying a change of the first parameter that occurs when the load is transferred, and assigning the change to a value of the second parameter. placing the agricultural implement on a ground surface that is level and sufficiently hard for the tool not to penetrate into the ground surface, wherein a load from the output unit bears on one of the tool and the gauge wheel, using the actuator to transfer the load to the other one of the tool and the gauge wheel, recording a first parameter of the actuator while the load is being transferred, which first parameter indicates a force on the actuator, recording a second parameter for the gauge wheel in relation to the tool while the load is being transferred, which second parameter indicates a relative vertical position between the gauge wheel and the tool, identifying a change of the first parameter that occurs when the load is transferred, and assigning the change to a value of the second parameter.
A process for the preparation of an aqueous binder composition comprising the following steps: a) providing a first alkyd as a homogenous liquid, the liquid comprising at least 90 wt% of dissolved or molten first alkyd and the liquid having a viscosity in the range of from 0.5 to 5.0 Pa.s determined according to ISO 3219 at 23 °C and at a shear rate of 100 s -1; b) providing an aqueous dispersion of a second alkyd; and c) emulsifying the first alkyd by adding the liquid provided in step a) to the aqueous dispersion provided in step b) or by adding the aqueous dispersion provided in step b) to the liquid provided in step a) and agitating to obtain the aqueous binder composition, wherein the aqueous binder composition comprises emulsified first alkyd and dispersed second alkyd in a single aqueous phase, and the first alkyd is emulsified in droplets having a volume mean diameter in the range of from 1 to 20 μm. a) providing a first alkyd as a homogenous liquid, the liquid comprising at least 90 wt% of dissolved or molten first alkyd and the liquid having a viscosity in the range of from 0.5 to 5.0 Pa.s determined according to ISO 3219 at 23 °C and at a shear rate of 100 s -1; b) providing an aqueous dispersion of a second alkyd; and c) emulsifying the first alkyd by adding the liquid provided in step a) to the aqueous dispersion provided in step b) or by adding the aqueous dispersion provided in step b) to the liquid provided in step a) and agitating to obtain the aqueous binder composition,
A housing component for a mobile terminal, comprising: an electrically conductive housing provided with at least one slot, the at least one slot being configured to divide the electrically conductive housing into a plurality of regions, the at least one slot being filled with an insulating layer; characterized by: the housing component further comprising at least one electrically conductive component attached to the electrically conductive housing and positioned completely above and across the at least one slot, to electrically connect the plurality of regions together.
Gear assembly comprising a housing having an interconnecting plate, for use with an electric motor comprising a shaft with a rotatable gear (8,9) both on a first end and on a second end, each gear connected to a first clutch member (24,25) fixedly connected to the gear (8,9) and the first clutch members being connectable to a second clutch member (26,27) extending around the shaft and connected to the shaft in a fixed angular position, a force member (33,34, 37,38,46) being axially situated between the clutch members (10,11) for axially moving the second clutch members (26,27) relative to the first clutch members (24,25) in an axial direction such that the first clutch members (24,25) and the second clutch members (26,27) can engage and disengage in a slipping manner at relative circumferential speeds, the force member (33,34, 37,38,46) comprising for each second clutch member (26,27) a hydraulic actuator (33,34,51,52), characterised in that the gear assembly is placed in the housing having a first and a second housing segment (45,47) and the interconnecting plate being situated at an interface between the housing segments (45,47), the interconnecting plate supporting the hydraulic actuators (33,34,51,52).
A mixture b comprising the following components: b1) 75 to 94% by weight of at least one polyether polyol having a hydroxyl value of 10 to 60 mg KOH/g, an OH functionality of more than 2, and ethylene oxide in a proportion of 50 to 100% by weight based on the content of alkylene oxide, b2) 3 to 20% by weight of at least one polyether polyol having a hydroxyl value of 10 to 100 mg KOH/g, an OH functionality of more than 2, ethylene oxide in a proportion of 2 to 30% by weight based on the content of alkylene oxide, and a proportion of primary OH groups of 40 to 100% based on the total number of OH groups in component b2), b3) 3 to 20% by weight of at least one polyether polyol having a hydroxyl value of 10 to 100 mg KOH/g, an OH functionality of more than 2, ethylene oxide in a proportion of 0 to 30% by weight based on the content of alkylene oxide, and a proportion of primary OH groups of 0 to 30% based on the total number of OH groups in component b3), in each case based on the total amount by weight of components b1) to b3), which comes to 100% by weight, and also b4) from 0 to 10 further parts by weight, based on 100 parts by weight of components b1) to b3), of at least one further polyether polyol that differs from components b1) to b3), and b5) from 0 to 30 further parts by weight of fillers, based on 100 parts by weight of components b1) to b3), optionally present as a constituent of a graft polyol based on one or more of components b1) to b3). b1) 75 to 94% by weight of at least one polyether polyol having a hydroxyl value of 10 to 60 mg KOH/g, an OH functionality of more than 2, and ethylene oxide in a proportion of 50 to 100% by weight based on the content of alkylene oxide, b2) 3 to 20% by weight of at least one polyether polyol having a hydroxyl value of 10 to 100 mg KOH/g, an OH functionality of more than 2, ethylene oxide in a proportion of 2 to 30% by weight based on the content of alkylene oxide, and a proportion of primary OH groups of 40 to 100% based on the total number of OH groups in component b2), b3) 3 to 20% by weight of at least one polyether polyol having a hydroxyl value of 10 to 100 mg KOH/g, an OH functionality of more than 2, ethylene oxide in a proportion of 0 to 30% by weight based on the content of alkylene oxide, and a proportion of primary OH groups of 0 to 30% based on the total number of OH groups in component b3), in each case based on the total amount by weight of components b1) to b3), which comes to 100% by weight, and also b4) from 0 to 10 further parts by weight, based on 100 parts by weight of components b1) to b3), of at least one further polyether polyol that differs from components b1) to b3), and b5) from 0 to 30 further parts by weight of fillers, based on 100 parts by weight of components b1) to b3), optionally present as a constituent of a graft polyol based on one or more of components b1) to b3).
A vestibular/cochlear stimulation pad comprising: a flexible sheet of padding having an upper surface; a plurality of bone conduction transducers, located on said upper surface, capable of emitting sound waves with frequencies between 50 and 4,000 Hz to stimulate the vestibular/cochlear apparatus of a human through bone conduction; a wireless receiver electrically connected to said plurality of bone conduction transducers, a cover enclosing the flexible sheet of padding, the plurality of bone conduction transducers, and the wireless receiver, wherein the wireless receiver is located on a surface of the flexible sheet of padding and is configured to receive signals for driving the bone conduction transducers. a flexible sheet of padding having an upper surface; a plurality of bone conduction transducers, located on said upper surface, capable of emitting sound waves with frequencies between 50 and 4,000 Hz to stimulate the vestibular/cochlear apparatus of a human through bone conduction; a wireless receiver electrically connected to said plurality of bone conduction transducers, a cover enclosing the flexible sheet of padding, the plurality of bone conduction transducers, and the wireless receiver, wherein the wireless receiver is located on a surface of the flexible sheet of padding and is configured to receive signals for driving the bone conduction transducers.
A system for using focused light to heat a fluid to ultra-high temperatures, the system comprising: a light concentrator selectively positioned to direct concentrated light onto one or more monocrystalline ceramic oxide elements, wherein the monocrystalline ceramic oxide elements are either naturally white or lightly colored and have been doped to include other atoms that provide for light absorption, wherein each of the one or more monocrystalline ceramic oxide elements is capable of absorbing said concentrated light in order to reach a temperature that thermally decomposes water. a light concentrator selectively positioned to direct concentrated light onto one or more monocrystalline ceramic oxide elements, wherein the monocrystalline ceramic oxide elements are either naturally white or lightly colored and have been doped to include other atoms that provide for light absorption, wherein each of the one or more monocrystalline ceramic oxide elements is capable of absorbing said concentrated light in order to reach a temperature that thermally decomposes water.
A gas turbine engine comprising an outer contour and a slider seal assembly, the slider seal assembly comprising: a housing having an outer surface, an inner surface, and a recessed opening between said inner surface and said outer surface, said inner surface of said housing including a curved portion curved in an outward direction toward said outer surface of said housing and curved to match the outer contour of the gas turbine engine; and a seal plate received within said recessed opening; characterised in that said seal plate is moveable relative to said housing; and in that the slider seal assembly further comprises a retaining ring that retains said seal plate within said recessed opening of said housing, wherein said retaining ring is received within a slot extending about said recessed opening. a housing having an outer surface, an inner surface, and a recessed opening between said inner surface and said outer surface, said inner surface of said housing including a curved portion curved in an outward direction toward said outer surface of said housing and curved to match the outer contour of the gas turbine engine; and a seal plate received within said recessed opening; characterised in that said seal plate is moveable relative to said housing; and in that the slider seal assembly further comprises a retaining ring that retains said seal plate within said recessed opening of said housing, wherein said retaining ring is received within a slot extending about said recessed opening.
A method for operating a relay station, RS, in a wireless relay communication system, the method comprising: receiving data from an upper node; receiving, from a first lower node, first information comprising acknowledgement, ACK, or negative acknowledgement, NACK, for data received by the first lower node; and receiving, from a second lower node via the first lower node, second information comprising ACK or NACK for data received by the second lower node; characterized by transmitting (281, 283, 285), to the upper node, the first information through a first resource region in a frame, the second information through a second resource region in the frame, and third information comprising ACK or NACK for the data received by the RS through a third resource region in the frame, wherein the first resource region, the second resource region and the third resource region are indicated by scheduling information (301, 303, 305) received from the upper node, and wherein the first resource region, the second resource region, and the third resource region are identified by the RS from the scheduling information (301, 303, 305) based on an identifier of the first lower node, an identifier of the second lower node, and an identifier of the RS. receiving data from an upper node; receiving, from a first lower node, first information comprising acknowledgement, ACK, or negative acknowledgement, NACK, for data received by the first lower node; and receiving, from a second lower node via the first lower node, second information comprising ACK or NACK for data received by the second lower node; characterized by transmitting (281, 283, 285), to the upper node, the first information through a first resource region in a frame, the second information through a second resource region in the frame, and third information comprising ACK or NACK for the data received by the RS through a third resource region in the frame, wherein the first resource region, the second resource region and the third resource region are indicated by scheduling information (301, 303, 305) received from the upper node, and wherein the first resource region, the second resource region, and the third resource region are identified by the RS from the scheduling information (301, 303, 305) based on an identifier of the first lower node, an identifier of the second lower node, and an identifier of the RS.
A security inspection system, comprising: at least one baggage cart comprising at least one compartment (115; 125) for containing a baggage and configured to pass through a scanning channel; and a scanning device configured to inspect the baggage cart passing through the scanning channel and containing the baggage, at least based on a traveling speed of the baggage cart; wherein in response to detecting that the baggage is suspicious by the scanning device, the baggage cart is further configured to travel to a manual inspection area, so as to enable performing a manual unpacking inspection on the baggage by an inspector; characterized in that the baggage cart further comprises: a locking device (140; 150) coupled to a door of the compartment and configured to lock the door in response to detecting that the baggage is suspicious by the scanning device. at least one baggage cart comprising at least one compartment (115; 125) for containing a baggage and configured to pass through a scanning channel; and a scanning device configured to inspect the baggage cart passing through the scanning channel and containing the baggage, at least based on a traveling speed of the baggage cart; wherein in response to detecting that the baggage is suspicious by the scanning device, the baggage cart is further configured to travel to a manual inspection area, so as to enable performing a manual unpacking inspection on the baggage by an inspector; characterized in that the baggage cart further comprises: a locking device (140; 150) coupled to a door of the compartment and configured to lock the door in response to detecting that the baggage is suspicious by the scanning device.
A compound having the following Formula: wherein R is an unsubstituted saturated linear aliphatic group comprising 5 to 20 carbon atoms; n is 5, 6 or 7; and X is an anionic counterion.
An apparatus for the thermal treatment of organic materials, said apparatus comprising: a. a tank having a bottom portion and comprising an inner wall made of heat conductive material and an outer wall made of insulating material, said inner wall and said outer wall defining a passage; b. a roof closing said tank and forming, with said inner wall, a treatment chamber adapted to receive organic materials; c. at least one access opening in communication with said chamber through which said organic materials can be introduced into said chamber; d. a burner opening into said passage and sustaining a flame adapted to generate combustion gases, said gases circulating through said passage for heating said organic material via said inner wall; e. a first conduit extending between said chamber and said burner for carrying gases evolving from said organic materials to said flame; f. a second conduit extending between said chamber and the exterior of said apparatus for introducing fresh air into said chamber; g. a mixer located inside said chamber; h. a heat exchanger connected to said passage and to said second conduit for transferring a portion of the heat of said combustion gases to said fresh air and to the ambient air inside said chamber, said heat exchanger being located inside said chamber. a. a tank having a bottom portion and comprising an inner wall made of heat conductive material and an outer wall made of insulating material, said inner wall and said outer wall defining a passage; b. a roof closing said tank and forming, with said inner wall, a treatment chamber adapted to receive organic materials; c. at least one access opening in communication with said chamber through which said organic materials can be introduced into said chamber; d. a burner opening into said passage and sustaining a flame adapted to generate combustion gases, said gases circulating through said passage for heating said organic material via said inner wall; e. a first conduit extending between said chamber and said burner for carrying gases evolving from said organic materials to said flame; f. a second conduit extending between said chamber and the exterior of said apparatus for introducing fresh air into said chamber; g. a mixer located inside said chamber; h. a heat exchanger connected to said passage and to said second conduit for transferring a portion of the heat of said combustion gases to said fresh air and to the ambient air inside said chamber, said heat exchanger being located inside said chamber.
Process for producing a food having a content of protein by opening of avian eggs and separating the egg yolk from the white of egg, characterized by adjusting the pH value of the white of egg to a value between 4 to 7.5, separating of salt from the white of egg up to a residual salt content of at maximum 0.4 % by weight and separating water from the white of egg up to a protein content of at least 18 % by weight, with subsequent pasteurizing by warming to 53 to 60°C for 250 to 450 s under agitation or by high pressure treatment of at least 200 bar under agitation, whereby the fluid in its liquid state is white and has a viscosity determined at 20 °C of 50 to 300 mPas.