mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining distances for wheel alignment measurement of a stationary motor vehicle , in particular for determining a height level (H) or a rim diameter, comprising: a) capturing a respective image of a wheel rim and at least an area adjacent the wheel rim by at least two measuring cameras (42 - 49) of a measuring device ; b) determining at least one first spatial point in the two captured images; c) determining at least one second spatial point in the two captured images; and d) determining the distance between the at least two spatial points, characterized in that at least one of the spatial points determined in step b) or c) is located on a rim edge or is the rim centre; and/or that at least one of the spatial points (P2, P4) determined in step b) or c) is located on a wheelhouse edge or in the wheelhouse; and/or that one of the spatial points (P5) determined in step b) or c) is located on the rotary plate of a wheel alignment measuring device or a motor vehicle test track. a) capturing a respective image of a wheel rim and at least an area adjacent the wheel rim by at least two measuring cameras (42 - 49) of a measuring device ; b) determining at least one first spatial point in the two captured images; c) determining at least one second spatial point in the two captured images; and d) determining the distance between the at least two spatial points,
Pressure control element for a fluid regulating valve comprising: - a resistor , which is a stationary element that has a plurality of cavities having a plurality of fixed coupling surfaces , - a shutter which is a movable element that has a plurality of projecting walls having a plurality of movable coupling surfaces , wherein the movable coupling surfaces couple with corresponding fixed coupling surfaces defining at least one tortuous path of the fluid; wherein - the number of the at least one tortuous path of the fluid is fixed while its cross section is continuously modified as the position of the shutter varies, wherein the pressure control element further comprises a plurality of labyrinth grooves formed on the fixed coupling surfaces of the tortuous path of the resistor and/or on the movable coupling surfaces of the projecting walls of the shutter said plurality of labyrinth grooves being perpendicular to the flow direction, the pressure control element being characterized in that said plurality of labyrinth grooves are made from rectilinear grooves obtained in the fixed coupling surfaces of the resistor and/or in the movable coupling surfaces (21 a) of the shutter . - a resistor , which is a stationary element that has a plurality of cavities having a plurality of fixed coupling surfaces , - a shutter which is a movable element that has a plurality of projecting walls having a plurality of movable coupling surfaces , wherein the movable coupling surfaces couple with corresponding fixed coupling surfaces defining at least one tortuous path of the fluid; - the number of the at least one tortuous path of the fluid is fixed while its cross section is continuously modified as the position of the shutter varies,
A system for transmitting information comprising: a plurality of transmitter units each configured to transmit a respective ultrasound signal comprising i) a first pattern which is PSK-encoded on a first carrier and a second pattern which is PSK-encoded on a second carrier, wherein the first and second carriers have the same frequency but wherein the second carrier is out of phase with first carrier, and ii) a PSK-encoded message-bearing portion ; a receiver unit configured to receive an ultrasound signal, of the ultrasound signals , from a transmitter unit of the transmitter units; and processing means (14; 26), characterised in that : for each of the ultrasound signals , the second pattern is offset from the first pattern in time by a transmitter-specific offset, whereby each ultrasound signal comprises a transmitter-specific signature ; and the processing means are configured to: use the transmitter-specific offset in the received ultrasound signal to identify the transmitter unit that transmitted the ultrasound signal; use the first and second patterns in the received signal to characterise a motion-induced phase distortion in the received signal; use said characterisation to compensate for motion-induced phase distortion in the message-bearing portion of the received signal; and decode the message from the compensated signal. a plurality of transmitter units each configured to transmit a respective ultrasound signal comprising i) a first pattern which is PSK-encoded on a first carrier and a second pattern which is PSK-encoded on a second carrier, wherein the first and second carriers have the same frequency but wherein the second carrier is out of phase with first carrier, and ii) a PSK-encoded message-bearing portion ; a receiver unit configured to receive an ultrasound signal, of the ultrasound signals , from a transmitter unit of the transmitter units; and processing means (14; 26), for each of the ultrasound signals , the second pattern is offset from the first pattern in time by a transmitter-specific offset, whereby each ultrasound signal comprises a transmitter-specific signature ; and the processing means are configured to: use the transmitter-specific offset in the received ultrasound signal to identify the transmitter unit that transmitted the ultrasound signal; use the first and second patterns in the received signal to characterise a motion-induced phase distortion in the received signal; use said characterisation to compensate for motion-induced phase distortion in the message-bearing portion of the received signal; and decode the message from the compensated signal. use the transmitter-specific offset in the received ultrasound signal to identify the transmitter unit that transmitted the ultrasound signal; use the first and second patterns in the received signal to characterise a motion-induced phase distortion in the received signal; use said characterisation to compensate for motion-induced phase distortion in the message-bearing portion of the received signal; and decode the message from the compensated signal.
Friction material for disc brakes consisting of between 1% and 8% by weight of at least one preceramic resin and between 2% and 10% by weight of an organic resin, wherein said organic resin is selected from a phenolic resin, an acrylic resin and an epoxy resin and wherein said preceramic resin is a silicone resin, and at least one from catalyst, abrasive agent, lubricant, metal and damping agent.
A state detection method for an automatic working system , the automatic working system including: a mobile station , configured to determine position information of one or more positions inside or outside a working region of a self-moving device , the mobile station including a first antenna configured to receive a satellite signal and a first indication module ; a charging station ; and a base station configured to send differential information to the mobile station to enable the mobile station to perform positioning according to the differential information; wherein the state detection method includes: determining, by the mobile station , quality of a signal received by the first antenna ; determining, by the mobile station , an indication manner of the first indication module according to the quality of the signal received by the first antenna ; and when the mobile station determines that the quality of the signal on the first antenna satisfies a preset condition at any position, determining that the any position is suitable for fixing the charging station or the base station . a mobile station , configured to determine position information of one or more positions inside or outside a working region of a self-moving device , the mobile station including a first antenna configured to receive a satellite signal and a first indication module ; a charging station ; and a base station configured to send differential information to the mobile station to enable the mobile station to perform positioning according to the differential information; wherein the state detection method includes: determining, by the mobile station , quality of a signal received by the first antenna ; determining, by the mobile station , an indication manner of the first indication module according to the quality of the signal received by the first antenna ; and when the mobile station determines that the quality of the signal on the first antenna satisfies a preset condition at any position, determining that the any position is suitable for fixing the charging station or the base station . determining, by the mobile station , quality of a signal received by the first antenna ; determining, by the mobile station , an indication manner of the first indication module according to the quality of the signal received by the first antenna ; and when the mobile station determines that the quality of the signal on the first antenna satisfies a preset condition at any position, determining that the any position is suitable for fixing the charging station or the base station .
Method for disinfecting water, wherein ultrasonic pressure waves are induced into a flow of water, wherein the method is carried out in a disinfection device comprising a substantially tubular channel , wherein said ultrasonic waves are induced by impact surfaces of pressure waves inducing blades arranged in the tubular channel and aligned along the direction of the flow of water, each of said surfaces partially obstructing the passage of said flow of water, the pressure waves have a carrier frequency Fc which is equal to v / p wherein v is the speed of water and p is a constant pitch distance between the said impact surfaces , said carrier frequency is about 160 Hz, said pressure waves inducing blades are shaped as rods or bars, preferably rectangular bars, and have a fundamental frequency of vibration or a frequency of a higher mode of vibration equal to said carrier frequency, wherein the blades are aligned in an axial direction of the tubular channel and a front surface of each blade , facing the incoming flow of water, provides the respective impact surface for the flow of water, wherein the frequency f n of a selected mode of transversal vibration of said blades is equal to said carrier frequency Fc, and said selected mode of vibration being the first mode or a higher n-th mode according to the inner diameter of said tubular passage , and according to the following table: n Inner diameter (mm) 1 up to 15.8 2 15.9 - 26.6 3 26.7 - 40.9 4 41 - 62.7 5 62.8 - 95.3 6 > 95.3
A nutritional product comprising a diluent and a thickening powder, for use in treating a swallowing disorder or mitigating a risk of aspiration during swallowing in an individual having the swallowing disorder, the use comprising orally administering to the individual a nutritional product in which at least a portion thereof is made by diluting in a diluent a thickening powder comprising a beta-glucan and at least one carrier ingredient to form an aqueous solution, wherein the thickening powder comprises the beta-glucan and the at least one carrier ingredient in a weight ratio of about 10:1 to about 300: 1, wherein the at least one carrier ingredient is selected from the group consisting of maltodextrin, isomaltulose, sucrose, lactose, and combinations thereof, wherein the diluting of the thickening powder comprises diluting the thickening powder at a diluent : powder weight ratio of 50:1 to 100:1, and the nutritional product comprises an amount of the aqueous solution that is neutral toward or enhances extensional properties of the nutritional product and provides to the nutritional product a shear viscosity greater than 200 mPas and up to about 2,000 mPas at a shear rate of 50s -1 at 20° C, and wherein the diluent is one or more of water, milk, a beverage comprising water and further comprising at least one component additional to the water, a liquid oral nutritional supplement (ONS), or a food product, and the dilution of the thickening powder in the diluent directly forms the nutritional product such that the nutritional product consists of the diluent, the beta-glucan, and the at least one carrier ingredient. wherein the thickening powder comprises the beta-glucan and the at least one carrier ingredient in a weight ratio of about 10:1 to about 300: 1, wherein the at least one carrier ingredient is selected from the group consisting of maltodextrin, isomaltulose, sucrose, lactose, and combinations thereof, wherein the diluting of the thickening powder comprises diluting the thickening powder at a diluent : powder weight ratio of 50:1 to 100:1, and the nutritional product comprises an amount of the aqueous solution that is neutral toward or enhances extensional properties of the nutritional product and provides to the nutritional product a shear viscosity greater than 200 mPas and up to about 2,000 mPas at a shear rate of 50s -1 at 20° C, and wherein the diluent is one or more of water, milk, a beverage comprising water and further comprising at least one component additional to the water, a liquid oral nutritional supplement (ONS), or a food product, and the dilution of the thickening powder in the diluent directly forms the nutritional product such that the nutritional product consists of the diluent, the beta-glucan, and the at least one carrier ingredient.
A windscreen wiper device, particularly for automobiles, comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade is of the flat blade type and includes at least one groove , in which groove a longitudinal strip of the carrier element is disposed, and wherein said windscreen wiper device comprises a connecting device for detachably connecting said wiper blade to an oscillating arm near one end thereof around a pivot axis, wherein said connecting device is fixated to said flexible material of said wiper blade by plastic deformation of said connecting device in order to block any lateral movement between said longitudinal strip and said wiper blade at the location of their interconnection and between said connecting device and said wiper blade at the location of their interconnection, wherein said connecting device has an at least substantially U-shaped cross-section having legs and a base , wherein said legs have inwardly bent edges at their outer ends, wherein opposite sides of said wiper blade rest in respective slits formed by said inwardly bent edges and outwardly bent parts of said legs , characterized in that said connecting device is deformed by a pinching operation and by a melting operation at the location of said inwardly bent edges and outwardly bent parts of said legs .
A system for synthesizing microstructures comprising: a light source; a mask having or generating at least one mask feature and being positioned to convey light from the light source ; an array of optical elements positioned such that each optical element corresponds to a mask feature projected from the light source via the mask; and, a cylinder having a surface with wells formed therein to align with the optical elements, the surface configured to carry precursor material in which microstructures are formed based on light projected from the light source onto the precursor material. a light source; a mask having or generating at least one mask feature and being positioned to convey light from the light source ; an array of optical elements positioned such that each optical element corresponds to a mask feature projected from the light source via the mask; and, a cylinder having a surface with wells formed therein to align with the optical elements, the surface configured to carry precursor material in which microstructures are formed based on light projected from the light source onto the precursor material.
A cooking appliance, comprising: an oven cavity having a cavity top , a cavity back , and cavity side walls , an interior side wall extending parallel to each of the cavity side walls defining a passage therebetween, and a plurality of side rails extending along the interior side walls , wherein further the rails are rotatable between a rest position in which no oven rack is installed and airflow is blocked, and an active position in which the oven rack is installed and airflow is provided, wherein each of the side walls define a set of air passages corresponding to each side rail and configured to provide convection air to the rack arranged on the respective side rail, wherein the appliance further comprises a lever in fixed to at least one of the rails and configured to be actuated upon rotation of the respective rail , wherein the appliance further comprises an air grate associated with at least one of the plurality of side rails and arranged within the passage between the interior side wall and the respective cavity side wall and wherein the air grate defines at least one grate openings , and configured to rest on the lever where the air grate is movable with the lever between a first position when the respective side rail is in a rest position, and a second position when the respective side rail is in the active position. an oven cavity having a cavity top , a cavity back , and cavity side walls , an interior side wall extending parallel to each of the cavity side walls defining a passage therebetween, and a plurality of side rails extending along the interior side walls , wherein further the rails are rotatable between a rest position in which no oven rack is installed and airflow is blocked, and an active position in which the oven rack is installed and airflow is provided, wherein each of the side walls define a set of air passages corresponding to each side rail and configured to provide convection air to the rack arranged on the respective side rail, wherein the appliance further comprises a lever in fixed to at least one of the rails and configured to be actuated upon rotation of the respective rail , wherein the appliance further comprises an air grate associated with at least one of the plurality of side rails and arranged within the passage between the interior side wall and the respective cavity side wall and wherein the air grate defines at least one grate openings , and configured to rest on the lever where the air grate is movable with the lever between a first position when the respective side rail is in a rest position, and a second position when the respective side rail is in the active position.
Method of combustion of at least one fuel using at least one oxygen containing gas and one mainly inert gas, in which: - the said oxygen containing gas comprises at least 80% of oxygen in volume, - the said mainly inert gas comprises at least 50 mole % of at least one of the compounds CO 2 , H 2 O, Ar, whereby - the said fuel and the said oxygen containing gas are injected in such a way as to create a flame, - the said mainly inert gas is injected in a single jet which is contiguous to and surrounds the flame created by the said fuel and the said oxygen containing gas and has a divergent swirl with regard to the flame. - the said oxygen containing gas comprises at least 80% of oxygen in volume, - the said mainly inert gas comprises at least 50 mole % of at least one of the compounds CO 2 , H 2 O, Ar, - the said fuel and the said oxygen containing gas are injected in such a way as to create a flame, - the said mainly inert gas is injected in a single jet which is contiguous to and surrounds the flame created by the said fuel and the said oxygen containing gas and has a divergent swirl with regard to the flame.
An agent that inhibits proteolysis of latent TGFβ binding protein 4 (LTBP4) for use in treating a patient who suffers from a disease selected from the group consisting of Duchenne muscular dystrophy, limb girdle muscular dystrophy, Becker muscular dystrophy, myopathy, cystic fibrosis, pulmonary fibrosis, cardiomyopathy, acute lung injury, acute muscle injury, and acute myocardial injury, wherein the agent is an isolated antibody that specifically binds to a peptide consisting of the sequence set forth in SEQ ID NO: 6.
A method, performed by a user equipment, UE, receiving control information in a wireless communication system, the method comprising: obtaining, via UE-specific radio resource control, RRC, signaling, a Radio Network Temporary Identifier, RNTI, for downlink control information, DCI, comprising a preemption indicator; performing monitoring on a physical downlink control channel, PDCCH, conveying the DCI comprising the preemption indicator, based on the RNTI for the DCI comprising the preemption indicator; and when the DCI comprising the preemption indicator is detected as a result of the performing of the monitoring, determining that transmission for the UE does not exist in a resource block, RB, and a symbol, which are indicated by the DCI comprising the preemption indicator, wherein the DCI comprising the preemption indicator is not applied to reception of at least one of a synchronization signal, SS, and a physical broadcast channel, PBCH. obtaining, via UE-specific radio resource control, RRC, signaling, a Radio Network Temporary Identifier, RNTI, for downlink control information, DCI, comprising a preemption indicator; performing monitoring on a physical downlink control channel, PDCCH, conveying the DCI comprising the preemption indicator, based on the RNTI for the DCI comprising the preemption indicator; and when the DCI comprising the preemption indicator is detected as a result of the performing of the monitoring, determining that transmission for the UE does not exist in a resource block, RB, and a symbol, which are indicated by the DCI comprising the preemption indicator, wherein the DCI comprising the preemption indicator is not applied to reception of at least one of a synchronization signal, SS, and a physical broadcast channel, PBCH.
An elevator safety system, comprising: a rotary body which is rotated along with raising and lowering of a car ; a rotary-body stopping mechanism for mechanically stopping rotation of the rotary body ; emergency stop means for bringing the car to an emergency stop by stop of the rotation of the rotary body ; an engagement disc provided coaxially with the rotary body , the engagement disc being rotatable relative to the rotary body , having a smaller diameter than that of the rotary body , and being rotated integrally with the rotary body under normal conditions; an engagement-disc stop mechanism for mechanically stopping rotation of the engagement disc ; an actuator for operating the engagement-disc stopping mechanism to stop the rotation of the engagement disc ; and an interlocking mechanism for operating the rotary-body stopping mechanism interlockingly with the rotation of the rotary body relative to the engagement disc so as to stop the rotary body when the rotation of the engagement disc is stopped by the engagement-disc stopping mechanism. a rotary body which is rotated along with raising and lowering of a car ; a rotary-body stopping mechanism for mechanically stopping rotation of the rotary body ; emergency stop means for bringing the car to an emergency stop by stop of the rotation of the rotary body ; an engagement disc provided coaxially with the rotary body , the engagement disc being rotatable relative to the rotary body , having a smaller diameter than that of the rotary body , and being rotated integrally with the rotary body under normal conditions; an engagement-disc stop mechanism for mechanically stopping rotation of the engagement disc ; an actuator for operating the engagement-disc stopping mechanism to stop the rotation of the engagement disc ; and an interlocking mechanism for operating the rotary-body stopping mechanism interlockingly with the rotation of the rotary body relative to the engagement disc so as to stop the rotary body when the rotation of the engagement disc is stopped by the engagement-disc stopping mechanism.