mhurhangee/patent-ind-claim-en huggingface dataset:
Bumper assembly for a motor vehicle, having an upper main crossbeam which can be coupled to the motor vehicle via crash boxes and a lower auxiliary crossbeam , wherein main crossbeam and auxiliary crossbeam are coupled together via vertical struts , wherein the bumper assembly extends across at least 70% of the vehicle width and that's the main crossbeam and the auxiliary crossbeam have end portions which project laterally beyond the crash boxes in motor vehicle transverse direction (Y) and main crossbeam and auxiliary crossbeam are manufactured integrally and from a uniform material, characterised in that in an outer portion of the end region is arranged a vertically oriented hollow profile with a closed cross section of a hollow chamber .
Method for managing an electric motor intended to drive rotationally a wheel of an aircraft , the method comprising the step of short-circuiting the phases (Ph) of the electric motor when the aircraft is in a period of deactivation of the motor during which it is envisaged not using the electric motor , the deactivation period comprising a period during which a speed of the aircraft is greater than a predetermined speed threshold, or the deactivation period comprising a take-off phase and/or a landing phase of the aircraft .
A controller of a generator for a vehicle, including a voltage regulator which performs on/off control of a field current by a switching element (Q3), thereby to regulate a generated voltage to a predetermined voltage, and which performs variable control of a regulated voltage with a control signal from an external control unit ; a controller of a generator for a vehicle, characterized by disposing a maximum duty factor limiting circuit which limits a maximum duty factor of the switching element (Q3) for performing the on/off control of the field current, when the control signal is inputted from the external control unit , the maximum duty factor limiting circuit being configured including a first comparator (CP11) which compares the control signal from the external control unit and a preset first reference signal, and a second comparator (CP12) which compares the control signal from the external control unit and a preset second reference signal, wherein a limit starting point of the maximum duty factor is set by said first comparator (CP11), and a magnitude of the maximum duty factor is set by said second comparator (CP12).
Drill drive device for an earth drilling apparatus with a spindle arrangement which has an inner spindle unit and an outer spindle unit that is supported in an axially displaceable manner on the inner spindle unit and floating between two spring means , characterized in that - a first front spring means which is arranged on a drilling tool side comprises a combination of at least a compression coil spring and a first disk spring arrangement and - in that a second rear spring means which faces away from the drilling tool side has a second disk spring arrangement . - a first front spring means which is arranged on a drilling tool side comprises a combination of at least a compression coil spring and a first disk spring arrangement and - in that a second rear spring means which faces away from the drilling tool side has a second disk spring arrangement .
A delivery system for a vascular graft modular assembly comprising an endoprosthetic device which comprises a tubular main body having a length including proximal and distal portions , the tubular main body having a flexible portion between the proximal and distal portions, and at least one adjustable length docking branch extending laterally from the tubular main body , and a tubular branch body having a length including proximal and distal stented portions , the tubular branch body having a flexible portion between the proximal and distal stented portions , and configured to connect with a docking branch of the endoprosthetic device to form the vascular graft modular assembly, the delivery system comprising a sheath for confining the tubular branch body in a compact form for delivery through a lumen, the delivery system being characterised by a retrieval capsule and a press-fit retrieval pin configured to fit within the retrieval capsule , and a retrieval wire having a proximal end and a distal end, wherein one of the retrieval capsule and a press-fit retrieval pin is attached to the sheath and the other is attached to the distal end of the retrieval wire , the proximal end of the retrieval wire being available to a user of the system.
A coating die including a double slit, the coating die comprising: sequentially neighboring first to fourth blocks ; a first slit formed at an interface between the first and second blocks , the first slit being configured to discharge a first coating liquid; a second slit formed at an interface between the third and fourth blocks , the second slit being configured to discharge a second coating liquid; and a position control unit configured to control positions of the first and second blocks , characterized in that said position control unit controls the position of the first and second blocks by moving the first and second blocks in a vertical direction perpendicular to a ground, wherein an interface where the second and third blocks contact each other is vertical, perpendicular to the ground, and the second and third blocks have a form in which a width of a cross section of the second and third blocks gradually narrows upward, and wherein a discharge direction for discharging first and second coating liquids through the first and second slits is directed upward and is directed in a direction that converges toward an extension line of the interface where the second and third blocks contact each other. sequentially neighboring first to fourth blocks ; a first slit formed at an interface between the first and second blocks , the first slit being configured to discharge a first coating liquid; a second slit formed at an interface between the third and fourth blocks , the second slit being configured to discharge a second coating liquid; and a position control unit configured to control positions of the first and second blocks , characterized in that said position control unit controls the position of the first and second blocks by moving the first and second blocks in a vertical direction perpendicular to a ground, wherein an interface where the second and third blocks contact each other is vertical, perpendicular to the ground, and the second and third blocks have a form in which a width of a cross section of the second and third blocks gradually narrows upward, and wherein a discharge direction for discharging first and second coating liquids through the first and second slits is directed upward and is directed in a direction that converges toward an extension line of the interface where the second and third blocks contact each other.
Grill device having an outer shell of conical shape, in which a heating level and a grill are arranged, wherein the vertical distance between the grill and the heating level is adjustable, characterized in that the outer shell is stabilized by an assembly , in particular formed by a shell , guide tube and ring , and arranged in the outer shell to be clamped in the outer shell , in particular via screws .
Method for defrosting an evaporator , serving as an air cooler, of a cooling circuit (K) with refrigerant lines , in particular in items of refrigeration equipment and cold storage rooms, wherein a build-up of frost or ice at the evaporator is defrosted by a heat transfer medium which is guided through a defrosting circuit (A) and heated for defrosting, while the cooling process of the cooling circuit (K) of the evaporator is switched off, characterised in that in defrosting operation, the heat transfer medium of the defrosting circuit (A) is guided through a cylinder guiding the refrigerant and surrounding, at least in sections, the piping of the evaporator along the surface of the outer circumference of the refrigerant lines over its longitudinal dimension in the evaporator .
A high blue-cut performance polycarbonate resin composition for use in clear lenses comprising: a polycarbonate polymer; a UV absorber; an antioxidant; at least one selective blue blocking filter that at least partially blocks blue light in a wavelength range chosen within the 400-460 nm range; a colorant additive; and a hindered amine light stabilizer; wherein the resin blocks >99% of light with a wavelength less than 400 nm at each wavelength in the wavelength range of 315-400 nm, and partially blocks blue light in the 400-500 nm range. a polycarbonate polymer; a UV absorber; an antioxidant; at least one selective blue blocking filter that at least partially blocks blue light in a wavelength range chosen within the 400-460 nm range; a colorant additive; and a hindered amine light stabilizer;
A method implemented on a computer having at least one processor, a storage, and a communication platform for human-like vehicle control for an autonomous vehicle, comprising: receiving information related to a target motion to be achieved by the autonomous vehicle, wherein the information includes a current vehicle state of the autonomous vehicle; generating a first vehicle control signal with respect to the target motion and the current vehicle state in accordance with a vehicle kinematic model ; generating a second vehicle control signal, in accordance with a human-like vehicle control model , with respect to the target motion, the current vehicle state, and the first vehicle control signal, wherein the second vehicle control signal modifies the first vehicle control signal to achieve human-like vehicle control behavior. receiving information related to a target motion to be achieved by the autonomous vehicle, wherein the information includes a current vehicle state of the autonomous vehicle; generating a first vehicle control signal with respect to the target motion and the current vehicle state in accordance with a vehicle kinematic model ; generating a second vehicle control signal, in accordance with a human-like vehicle control model , with respect to the target motion, the current vehicle state, and the first vehicle control signal, wherein the second vehicle control signal modifies the first vehicle control signal to achieve human-like vehicle control behavior.
Device for supplying a particulate input matter through irrigation water , comprising: - a bypass water conduit , - a main water inlet pipe , - an outlet pipe , characterised in that it further comprises: - at least one feed device , suitable for feeding particulate matter, - a first vertical connection pipe , - an inlet opening and closing valve , - a vertically positioned slurry mixing chamber , located under the first vertical connection pipe , - a drainage valve , connected to the mixing chamber , - an outlet opening and closing valve , - a second vertical connection pipe , - a pressurized mixing tank , and wherein - the first vertical connection pipe is in one end connected to the feed device and in the other end to the vertically positioned slurry mixing chamber , - the inlet opening and closing valve is located on the first vertical connection pipe , - the second vertical connection pipe is in one end connected to the to the vertically positioned slurry mixing chamber and in the other end to the bypass water conduit , - the outlet opening and closing valve is located on the second vertical connection pipe , - the bypass water conduit is in one end connected to the main water inlet pipe and in the other end to the pressurised mixing tank , and - the outlet pipe is in one end connected to the pressurised mixing tank and in the other end to the main water inlet pipe in a distance downstream of the connection between the main water inlet pipe and the bypass water conduit . - a bypass water conduit , - a main water inlet pipe , - an outlet pipe , - at least one feed device , suitable for feeding particulate matter, - a first vertical connection pipe , - an inlet opening and closing valve , - a vertically positioned slurry mixing chamber , located under the first vertical connection pipe , - a drainage valve , connected to the mixing chamber , - an outlet opening and closing valve , - a second vertical connection pipe , - a pressurized mixing tank , - the first vertical connection pipe is in one end connected to the feed device and in the other end to the vertically positioned slurry mixing chamber , - the inlet opening and closing valve is located on the first vertical connection pipe , - the second vertical connection pipe is in one end connected to the to the vertically positioned slurry mixing chamber and in the other end to the bypass water conduit , - the outlet opening and closing valve is located on the second vertical connection pipe , - the bypass water conduit is in one end connected to the main water inlet pipe and in the other end to the pressurised mixing tank , and - the outlet pipe is in one end connected to the pressurised mixing tank and in the other end to the main water inlet pipe in a distance downstream of the connection between the main water inlet pipe and the bypass water conduit .
A measurement device for measuring a current calibration coefficient, comprising a host computer and a current source ; wherein the current source configured to output a current with a specified current value to a shunt of a current detection device to be calibrated in response to a current output instruction from the host computer; wherein the host computer is configured to send the current output instruction to the current source , control the current source to output the current with the specified current value to the shunt of the current detection device , and calculate, according to the specified current value and a detected current value received from the current detection device in the case that the shunt of the current detection device is provided with the current with the specified current value, a current calibration coefficient for the current detection device , wherein the current calibration coefficient is used for calibrating a detected current value detected by the current detection device when the current detection device is applied in a circuit for current detection, characterized in that the measurement device further comprises an incubator for placing the current detection device; the host computer is configured to control the current source to output the current with the specified current value when temperature of the incubator is at a reference temperature T 1 according to resistance-temperature characteristics of the shunt , and calculate, according to the specified current value and a detected current value at T 1 , a current calibration coefficient at T 1 ; and the host computer is further configured to determine, according to the current calibration coefficient at T 1 and a resistance-temperature characteristic curve of the shunt , current calibration coefficients at respective temperatures other than T 1 in an operation temperature range of the shunt so as to obtain a mapping relationship between temperatures of the shunt and current calibration coefficients, wherein the host computer is further configured to control the current source to output the current with the specified current value when temperature of the incubator is at a temperature T 2 , calculate a first actual resistance value R 1 of the shunt at T 1 according to the specified current value, the detected current value at T 1 and the nominal resistance value of the shunt , calculate a second actual resistance value R 2 of the shunt at T 2 according to the specified current value, a detected current value at T 2 and the nominal resistance value of the shunt , calculate, a resistance-temperature coefficient of the shunt at T 2 according to the R 1 and R 2 , and determines the resistance-temperature characteristic curve of the shunt based on the resistance-temperature coefficient at T 2 and a resistance-temperature coefficient at T 1 , wherein T 2 is not equal to T 1 .
A method of continuously analyzing samples by an automated sample analysis system , comprising: loading samples into a sample loading area comprising two or more sample loading positions; loading sample preparation (SP) cartridges into a SP cartridge loading area comprising two or more SP cartridge loading positions; transporting, with a robotic SP cartridge handler, the SP cartridges from the SP cartridge loading area to one of two or more positions of a SP cartridge bulk reagent filling station; filling SP cartridges with bulk reagents from the SP cartridge bulk reagent filling station; transporting the SP cartridges from the bulk reagent filling station to one of two or more positions of a SP cartridge sample filling station; pipetting, with a robotic pipettor, samples from the sample loading area into the SP cartridges at the SP cartridge sample filling station; transporting the SP cartridges from the SP cartridge sample filling station to one of two or more positions of a sample preparation station; preparing the samples in the SP cartridges for analysis of an analyte in the samples; combining the analyte with assay reagents to form assay mixtures; and performing, in a sample analysis station comprising two or more sample analysis units, analyte detection assays on the assay mixtures to analyze the samples, wherein, without ceasing operation of the system, an operator of the system has continuous access to the system for replenishment or removal of samples, bulk reagents, commodities, and waste. loading samples into a sample loading area comprising two or more sample loading positions; loading sample preparation (SP) cartridges into a SP cartridge loading area comprising two or more SP cartridge loading positions; transporting, with a robotic SP cartridge handler, the SP cartridges from the SP cartridge loading area to one of two or more positions of a SP cartridge bulk reagent filling station; filling SP cartridges with bulk reagents from the SP cartridge bulk reagent filling station; transporting the SP cartridges from the bulk reagent filling station to one of two or more positions of a SP cartridge sample filling station; pipetting, with a robotic pipettor, samples from the sample loading area into the SP cartridges at the SP cartridge sample filling station; transporting the SP cartridges from the SP cartridge sample filling station to one of two or more positions of a sample preparation station; preparing the samples in the SP cartridges for analysis of an analyte in the samples; combining the analyte with assay reagents to form assay mixtures; and performing, in a sample analysis station comprising two or more sample analysis units, analyte detection assays on the assay mixtures to analyze the samples, wherein, without ceasing operation of the system, an operator of the system has continuous access to the system for replenishment or removal of samples, bulk reagents, commodities, and waste.
A method for digital pre-distortion, DPD, of an input signal to compensate for a non-linear operation of a power amplifier, the method comprising: for each of at least one band of the input signal: determining a signal envelope, a signal envelope being determined for each of a plurality of successive bins, each bin having a knot at each edge of the corresponding bin (S100); computing a spline function assigned to each knot, the spline function having a left spline and a right spline, each of the left spline and the right spline having a value of unity at the knot and a value of zero at left and right neighboring knots, respectively, so that each bin is associated with two overlapping successive spline functions that overlap each other in only one bin, each spline function being computed as a function of one of the signal envelope and a delayed signal envelope in the band (S102); for each bin, delaying one of the signal envelope and a spline function in each of at least one tap delay line to model a pre-selected memory depth (S104); determining a tap weight for each knot (S106); multiplying each spline function at each knot by its respective tap weight (S108); and generating a pre-distorted signal using a sum of tap-weighted products of the spline functions and a delayed input signal (S110). determining a signal envelope, a signal envelope being determined for each of a plurality of successive bins, each bin having a knot at each edge of the corresponding bin (S100); computing a spline function assigned to each knot, the spline function having a left spline and a right spline, each of the left spline and the right spline having a value of unity at the knot and a value of zero at left and right neighboring knots, respectively, so that each bin is associated with two overlapping successive spline functions that overlap each other in only one bin, each spline function being computed as a function of one of the signal envelope and a delayed signal envelope in the band (S102); for each bin, delaying one of the signal envelope and a spline function in each of at least one tap delay line to model a pre-selected memory depth (S104); determining a tap weight for each knot (S106); multiplying each spline function at each knot by its respective tap weight (S108); and generating a pre-distorted signal using a sum of tap-weighted products of the spline functions and a delayed input signal (S110).
Laundry care appliance with a laundry drum for receiving laundry, an outer tub for receiving washing liquor, wherein the laundry drum is arranged in the outer tub and has a shaft , a pulley which is connected to the shaft in a torque-proof manner, wherein on an outer tub rear wall (105-1) facing the pulley the outer tub has a plurality of ridges , and a drum drive which is embodied to rotate the laundry drum , wherein the drum drive has a drive shaft and a drive belt , wherein the pulley has a hub region which is connected to the shaft in a torque-proof manner, wherein the pulley has an outer rim , which encircles the hub region , wherein the drive belt rests against the outer rim and against the drive shaft in order to transfer a rotation of the drive shaft to the pulley and to rotate the laundry drum , and the pulley has a plurality of arms (125, 125-1, 125-2, 125-3, 125-4, 125-5) which extend from the hub region to the outer rim in each case along an extension axis , characterised in that at least one arm angle (131, 131-1, 131-2, 131-3, 131-4, 131-5) between the respective extension axes of two adjacent arms (125, 125-1, 125-2, 125-3, 125-4, 125-5) is different to another arm angle (131, 131-1, 131-2, 131-3, 131-4, 131-5) between the respective extension axes of two adjacent arms (125, 125-1, 125-2, 125-3, 125-4, 125-5). wherein the pulley has a hub region which is connected to the shaft in a torque-proof manner, wherein the pulley has an outer rim , which encircles the hub region , wherein the drive belt rests against the outer rim and against the drive shaft in order to transfer a rotation of the drive shaft to the pulley and to rotate the laundry drum , and the pulley has a plurality of arms (125, 125-1, 125-2, 125-3, 125-4, 125-5) which extend from the hub region to the outer rim in each case along an extension axis , characterised in that at least one arm angle (131, 131-1, 131-2, 131-3, 131-4, 131-5) between the respective extension axes of two adjacent arms (125, 125-1, 125-2, 125-3, 125-4, 125-5) is different to another arm angle (131, 131-1, 131-2, 131-3, 131-4, 131-5) between the respective extension axes of two adjacent arms (125, 125-1, 125-2, 125-3, 125-4, 125-5).