mhurhangee/patent-ind-claim-en huggingface dataset:
An accessory for fitting to a portable object, wherein the accessory has: a radio signal transmission device for transmitting at least one radio signal for operating a motor vehicle , especially for opening, closing and/or starting, at least one base body , a storage means for storing the radio signal to be transmitted, and an antenna arrangement for transmitting and/or receiving radio signals, wherein the storage means and the antenna arrangement are integrated in the base body , and wherein the antenna arrangement is formed such that it can send and/or receive a radio signal to the motor vehicle in all spatial directions, wherein the accessory is designed as a case or housing, especially for a mobile telephone or a clock, wherein the antenna arrangement has a first antenna , especially for frequencies in the kilohertz range, with at least three antenna elements , wherein each of the antenna elements is provided for one of the spatial directions, wherein all the antenna elements are integrated in a single peripheral side of the case or the housing, or wherein one of the antenna elements is integrated in circumambient manner in the case or the housing and the other antenna elements are integrated in one of the peripheral sides of the case or of the housing or in each case one of the other two antenna elements is integrated in two peripheral sides of the case or the housing which are perpendicularto each other. a radio signal transmission device for transmitting at least one radio signal for operating a motor vehicle , especially for opening, closing and/or starting, at least one base body , a storage means for storing the radio signal to be transmitted, and an antenna arrangement for transmitting and/or receiving radio signals, wherein the storage means and the antenna arrangement are integrated in the base body , and wherein the antenna arrangement is formed such that it can send and/or receive a radio signal to the motor vehicle in all spatial directions, wherein the accessory is designed as a case or housing, especially for a mobile telephone or a clock, wherein the antenna arrangement has a first antenna , especially for frequencies in the kilohertz range, with at least three antenna elements , wherein each of the antenna elements is provided for one of the spatial directions, wherein all the antenna elements are integrated in a single peripheral side of the case or the housing, or wherein one of the antenna elements is integrated in circumambient manner in the case or the housing and the other antenna elements are integrated in one of the peripheral sides of the case or of the housing or in each case one of the other two antenna elements is integrated in two peripheral sides of the case or the housing which are perpendicularto each other.
A foamable skin and hand cleansing composition comprising the following components, in each case based on the total composition of the cleaning composition: a) 0.1 to 5% by weight of at least one emulsifier selected from PEG-18 castor dioleate, polyglycerine 4-caproate, hydrogenated castor oil, PEG-10 glyceryl dioleate, glycereth-7 caprylate/caprate, gemini surfactants and mixtures thereof; b) 0.5 to 7% by weight of at least one oil, especially an alkyl fatty acid ester; c) 0 to 10% by weight of at least one hydrophobic emollient; selected from polyol esters, and typically selected from PEG 7 glyceryl cocoate, polyglycerine 4 caprate, glycereth 2-cocoate, PEG-6 caprylic/capric glycerides, polyglyceryl 3 caprate, polyglyceryl 4-caprate and mixtures thereof; d) 5 to 20% by weight of at least one surfactant used as a soiling remover; e) 0.5 to 12% by weight of at least one fatty acid glucamide; f) 1 to 8% by weight of at least one surfactant used as a foamer; g) 0 to 1% by weight of at least one preservative; h) 0 to 1% by weight of a pH modifier; i) 0 to 10% by weight of one or more auxiliaries or additives; j) water to make up 100% by weight. a) 0.1 to 5% by weight of at least one emulsifier selected from PEG-18 castor dioleate, polyglycerine 4-caproate, hydrogenated castor oil, PEG-10 glyceryl dioleate, glycereth-7 caprylate/caprate, gemini surfactants and mixtures thereof; b) 0.5 to 7% by weight of at least one oil, especially an alkyl fatty acid ester; c) 0 to 10% by weight of at least one hydrophobic emollient; selected from polyol esters, and typically selected from PEG 7 glyceryl cocoate, polyglycerine 4 caprate, glycereth 2-cocoate, PEG-6 caprylic/capric glycerides, polyglyceryl 3 caprate, polyglyceryl 4-caprate and mixtures thereof; d) 5 to 20% by weight of at least one surfactant used as a soiling remover; e) 0.5 to 12% by weight of at least one fatty acid glucamide; f) 1 to 8% by weight of at least one surfactant used as a foamer; g) 0 to 1% by weight of at least one preservative; h) 0 to 1% by weight of a pH modifier; i) 0 to 10% by weight of one or more auxiliaries or additives; j) water to make up 100% by weight.
A precession fluid turbine comprising a fluid reservoir with an inlet fluid opening and with an outlet fluid opening and in the fluid reservoir , between the inlet fluid opening and the outlet fluid opening , a stator nozzle is arranged and in the stator nozzle , a bladeless rolling rotor is arranged comprising of a body of a rotational shape with a shaft , the rolling rotor being mounted on a holding device enabling gyratory rolling of the rotor on the inner wall of the stator nozzle , the rolling rotor being interconnected with an electric current generator by means of a mechanism , characterized in that in the fluid reservoir , over the rotor , an air chamber is arranged that is open at its bottom end, the rotor shaft reaching into the said air chamber , the electric current generator , which is interconnected with the rotor shaft by means of the mechanism , being arranged in the air chamber .
Method for starting an electronically commutated, brushless drive motor of an auxiliary assembly of a motor vehicle, which drive motor has a motor stator comprising at least one stator coil and a permanent-magnet motor rotor , wherein power is supplied to the stator coil with a predefined coil voltage and a predefined constant start-up rotation frequency by means of a control electronics system and a power electronics system for generating a rotating field in order to drive the motor rotor , said method comprising the following steps: - supplying power to the stator coil with a coil voltage which corresponds to a start value , - increasing the coil voltage in steps, and - monitoring an electric current flowing through the power electronics system , wherein - when a voltage drop by a minimum value is detected , the following procedure is followed: - the operation of increasing in steps is terminated, and - a start-up voltage value , which is applied to the stator coil during the termination operation, is increased once for safety reasons by a predefined safety value to a first operating voltage value at which the motor rotor can be driven in an unregulated mode. - supplying power to the stator coil with a coil voltage which corresponds to a start value , - increasing the coil voltage in steps, and - monitoring an electric current flowing through the power electronics system , wherein - when a voltage drop by a minimum value is detected , the following procedure is followed: - the operation of increasing in steps is terminated, and - a start-up voltage value , which is applied to the stator coil during the termination operation, is increased once for safety reasons by a predefined safety value to a first operating voltage value at which the motor rotor can be driven in an unregulated mode. - the operation of increasing in steps is terminated, and - a start-up voltage value , which is applied to the stator coil during the termination operation, is increased once for safety reasons by a predefined safety value to a first operating voltage value at which the motor rotor can be driven in an unregulated mode.
A weeping balloon device comprising: a catheter shaft defining a lumen ; an inflatable balloon attached to the catheter shaft, the balloon comprising a balloon wall defining an interior space in fluid communication with the lumen, the balloon wall defining a plurality of openings in fluid communication with the interior space; and a multi-layer construction around each opening of the plurality of openings, the multi-layer construction comprising a first balloon wall layer , a reinforcement material , and a second balloon wall layer , said second balloon wall layer including a thicker area surrounding the opening and the opening defined by the second balloon wall layer is conical or tapered. a catheter shaft defining a lumen ; an inflatable balloon attached to the catheter shaft, the balloon comprising a balloon wall defining an interior space in fluid communication with the lumen, the balloon wall defining a plurality of openings in fluid communication with the interior space; and a multi-layer construction around each opening of the plurality of openings, the multi-layer construction comprising a first balloon wall layer , a reinforcement material , and a second balloon wall layer , said second balloon wall layer including a thicker area surrounding the opening and the opening defined by the second balloon wall layer is conical or tapered.
A dissipator for interfacing between the ground and supporting structures , which comprises a supporting base that can be fixed to the ground and able to support a contact base that can be associated, by way of kinematic connection means, with a supporting structure , interface means being provided between said contact base and said supporting base and being adapted to allow the movement of said contact base with respect to said supporting base at least along two directions that are parallel to the ground , control means being further provided which act between said supporting base and said contact base and are adapted to control the relative movement between said supporting base and said contact base , further comprising at least one rod-like dissipation body for acting between the ground and said supporting structure , said rod-like dissipation body being configured to dissipate the energy generated by an event by allowing the movement, on a plane that is parallel to the ground , of the supporting structures with respect to the supporting base and so having at least partially a behavior of the dissipative type characterized in that it-said rod-like dissipation body is interfaced with the supporting structure by way of a plate with a slot which is adapted to allow the sliding of the end of said rod-like dissipation body during seismic event within said slot and wherein said rod-like dissipation body comprises a resisting portion and a dissipative portion .
An enhanced food comprising: a food or a beverage contacted with a substantially surfactant-free submicron dispersion of particles of edible hydrophobic agent(s) in an aqueous fluid, wherein the average particle size of the dispersion is 100 to 999 nm, and wherein the edible hydrophobic agent(s) of the dispersion comprise about 0.1% wt to about 70% wt of the dispersion, wherein 90% or more by volume of the edible hydrophobic agent particles by volume have a size within 200nm of the average particle size, wherein the dispersion readily dilutes in the aqueous fluid without upsetting the stability of the hydrophobic agent particles, and wherein the dispersion is substantially surfactant free such that any amount of amphiphilic compounds with CMC greater than 10 ∧ -8 mol/L present in the dispersion is not an amount sufficient to materially lower the surface tension of the aqueous-solvent fluid and any amphiphilic compounds present in the dispersion that have a CMC of 10 ∧ -8 mol/L or lower are present in an amount of 5 parts weight of other hydrophobic agents, or less. a food or a beverage contacted with a substantially surfactant-free submicron dispersion of particles of edible hydrophobic agent(s) in an aqueous fluid, wherein the average particle size of the dispersion is 100 to 999 nm, and wherein the edible hydrophobic agent(s) of the dispersion comprise about 0.1% wt to about 70% wt of the dispersion, wherein 90% or more by volume of the edible hydrophobic agent particles by volume have a size within 200nm of the average particle size, wherein the dispersion readily dilutes in the aqueous fluid without upsetting the stability of the hydrophobic agent particles, and wherein the dispersion is substantially surfactant free such that any amount of amphiphilic compounds with CMC greater than 10 ∧ -8 mol/L present in the dispersion is not an amount sufficient to materially lower the surface tension of the aqueous-solvent fluid and any amphiphilic compounds present in the dispersion that have a CMC of 10 ∧ -8 mol/L or lower are present in an amount of 5 parts weight of other hydrophobic agents, or less.
A sliding clamp , comprising: a first arm ; a first jaw attached to the first arm , the first jaw including at least one first clamping ball freely rotatable relative to the first arm ; a second arm mechanically connected to the first arm ; and a second jaw attached to the second arm , the second jaw including at least one second clamping ball freely rotatable relative to the second arm ; wherein the second arm is configured to move relative to the first arm to adjust a jaw opening between the at least one second clamping ball of the second jaw and the at least one first clamping ball of the first jaw ; and characterized in that a first set of ball bearings is positioned between the first arm and the at least one first clamping ball ; a second set of ball bearings is positioned between the second arm and the at least one second clamping ball ; and when the sliding clamp is in a clamped orientation, the sliding clamp is configured to: constrain translation of a workpiece in one translational direction by clamping pressure applied to the workpiece by the at least one first clamping ball and the at least one second clamping ball ; and permit translation of the workpiece in two translational directions by rotation of the at least one first clamping ball and the at least one second clamping ball . a first arm ; a first jaw attached to the first arm , the first jaw including at least one first clamping ball freely rotatable relative to the first arm ; a second arm mechanically connected to the first arm ; and a second jaw attached to the second arm , the second jaw including at least one second clamping ball freely rotatable relative to the second arm ; wherein the second arm is configured to move relative to the first arm to adjust a jaw opening between the at least one second clamping ball of the second jaw and the at least one first clamping ball of the first jaw ; and characterized in that a first set of ball bearings is positioned between the first arm and the at least one first clamping ball ; a second set of ball bearings is positioned between the second arm and the at least one second clamping ball ; and when the sliding clamp is in a clamped orientation, the sliding clamp is configured to: constrain translation of a workpiece in one translational direction by clamping pressure applied to the workpiece by the at least one first clamping ball and the at least one second clamping ball ; and permit translation of the workpiece in two translational directions by rotation of the at least one first clamping ball and the at least one second clamping ball . constrain translation of a workpiece in one translational direction by clamping pressure applied to the workpiece by the at least one first clamping ball and the at least one second clamping ball ; and permit translation of the workpiece in two translational directions by rotation of the at least one first clamping ball and the at least one second clamping ball .
A method for uplink feedback for operating with a plurality of carriers in a wireless transmit/receive unit, WTRU, the method comprising: receiving, by the WTRU, a plurality of transport blocks over a plurality of configured carriers; generating, by the WTRU, hybrid automatic repeat request, HARQ, acknowledgment, ACK, feedback for the plurality of transport blocks and channel state information, CSI, feedback for at least one of the plurality of configured carriers; generating, by the WTRU, a feedback message that includes a number of HARQ-ACK feedback bits to use for the HARQ-ACK feedback and a number of CSI feedback bits to use for the CSI feedback; selecting, by the WTRU, a Physical Uplink Control Channel, PUCCH, format based on the number of HARQ-ACK feedback bits and the number of CSI feedback bits; and transmitting, by the WTRU, the feedback message using the selected PUCCH format. receiving, by the WTRU, a plurality of transport blocks over a plurality of configured carriers; generating, by the WTRU, hybrid automatic repeat request, HARQ, acknowledgment, ACK, feedback for the plurality of transport blocks and channel state information, CSI, feedback for at least one of the plurality of configured carriers; generating, by the WTRU, a feedback message that includes a number of HARQ-ACK feedback bits to use for the HARQ-ACK feedback and a number of CSI feedback bits to use for the CSI feedback; selecting, by the WTRU, a Physical Uplink Control Channel, PUCCH, format based on the number of HARQ-ACK feedback bits and the number of CSI feedback bits; and transmitting, by the WTRU, the feedback message using the selected PUCCH format.
Method to obtain a treated food product, characterized in that it provides at least: - to place at least one quick-frozen or frozen food product, contained and packaged in a respective vacuum-packed wrapping, in a hyperbaric chamber that defines a positive temperature environment; - to defrost said food product placed in said hyperbaric chamber defining said positive temperature environment, subjecting said food product to a hydrostatic pressure comprised between 1000bar and 7000bar until said food product is brought to a suitable positive temperature, thereby defrosting it; - to cook said defrosted food product contained and packaged in said vacuum-packed wrapping. - to place at least one quick-frozen or frozen food product, contained and packaged in a respective vacuum-packed wrapping, in a hyperbaric chamber that defines a positive temperature environment; - to defrost said food product placed in said hyperbaric chamber defining said positive temperature environment, subjecting said food product to a hydrostatic pressure comprised between 1000bar and 7000bar until said food product is brought to a suitable positive temperature, thereby defrosting it; - to cook said defrosted food product contained and packaged in said vacuum-packed wrapping.
A method of testing for sickle cell disease in an individual, characterized in that it comprises the following successive steps, it being possible for steps a/ and b/ to be carried out successively or simultaneously, said method comprising no step of bringing said blood sample into contact with a cell lysis agent: a/ bringing a blood sample from said individual into contact with an agent for inducing sickling of sickle red blood cells capable of placing the red blood cells contained in the blood sample in a hypoxic condition, b/ filtering said blood sample containing red blood cells through a porous membrane of which the pore size is determined so as to be capable of retaining the red blood cells having undergone said sickling , and of allowing the red blood cells which have not undergone sickling to pass through, c/ and detecting the possible presence of a residue on said membrane , during and/or at the end of the filtering step, said presence being associated with the fact that the individual has a sickle cell disease characteristic. a/ bringing a blood sample from said individual into contact with an agent for inducing sickling of sickle red blood cells capable of placing the red blood cells contained in the blood sample in a hypoxic condition, b/ filtering said blood sample containing red blood cells through a porous membrane of which the pore size is determined so as to be capable of retaining the red blood cells having undergone said sickling , and of allowing the red blood cells which have not undergone sickling to pass through, c/ and detecting the possible presence of a residue on said membrane , during and/or at the end of the filtering step, said presence being associated with the fact that the individual has a sickle cell disease characteristic.
Method for determining the rigidity of a geological layer in terms of propagation velocity of the elastic waves within a geological system delimited by a free surface and comprising at least one first geological layer having a first rigidity and a thickness (s) and a second geological layer having a second rigidity and being arranged below the first geological layer, wherein the first layer is delimited by the free surface and comprises the foundations of a building structure and has a first rigidity value and the second layer has a second rigidity value, the first rigidity value being larger than the second rigidity value and said first and second layer being separated from each other by an interface , the method comprising the steps of: - positioning a source within the second geological layer , whose rigidity is intended to be measured, the source being apt to generate seismic waves and being located at a depth (t), comprised between 0.1 m and 2 m from the interface ; - activating said source of seismic waves; - detecting at least one seismic signal by means of an array of sensors arranged coupled with the free surface and positioned on the free surface, wherein the array of sensors comprises a plurality of sensors (8a, ...,8j), wherein the at least one signal is a plurality of seismic signals and each sensor of the plurality is apt to detect a seismic signal of the plurality of seismic signals; - determining from the at least one seismic signal a shear velocity of the elastic waves in the second layer and thus indicative of the rigidity of the second layer, and - calculating the rigidity from the shear velocity of the elastic waves in the second layer. - positioning a source within the second geological layer , whose rigidity is intended to be measured, the source being apt to generate seismic waves and being located at a depth (t), comprised between 0.1 m and 2 m from the interface ; - activating said source of seismic waves; - detecting at least one seismic signal by means of an array of sensors arranged coupled with the free surface and positioned on the free surface, wherein the array of sensors comprises a plurality of sensors (8a, ...,8j), wherein the at least one signal is a plurality of seismic signals and each sensor of the plurality is apt to detect a seismic signal of the plurality of seismic signals; - determining from the at least one seismic signal a shear velocity of the elastic waves in the second layer and thus indicative of the rigidity of the second layer, and - calculating the rigidity from the shear velocity of the elastic waves in the second layer.