mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal flow sensor comprising: - a support , - at least one element intended to be vibrated relative to the support , called vibrating element, - suspension and thermal insulation means for insulating said vibrating element relative to the support , - means for heating the vibrating element , - means for exciting the vibrating element so as to vibrate it at its resonance frequency, - means for detecting the resonance frequency variation of the vibrating element caused by the temperature variation of the vibrating element due to the heat exchanges with a surrounding gas, Characterized in that sais means for exciting are electrostatic using an electrostatic force putting the vibrating element into vibration at its resonance frequency, and in such manner that the vibrating element is moved in its entirety along a direction in the plane or in an out-of-plane direction. - a support , - at least one element intended to be vibrated relative to the support , called vibrating element, - suspension and thermal insulation means for insulating said vibrating element relative to the support , - means for heating the vibrating element , - means for exciting the vibrating element so as to vibrate it at its resonance frequency, - means for detecting the resonance frequency variation of the vibrating element caused by the temperature variation of the vibrating element due to the heat exchanges with a surrounding gas,
A container for storing and dispensing at least one component with at least one chamber , which is closed on a first side by a plug , and with an applicator fastened on the first side, wherein the plug can be displaced relative to the chamber out of a storage position, in which a flow connection between the chamber and the applicator is interrupted by the plug , into a dispensing position, in which the chamber is in a flow connection with the applicator , characterised in that a flow connection between the at least one chamber and the side of the applicator facing away from the at least one chamber is opened by a relative rotational movement of the applicator with respect to the container and a subsequent axial relative movement of the plug with respect to the container and the applicator , and that the plug comprises a first stop element and the applicator a second stop element , and that the applicator can be rotated relative to the chamber out of the storage position, in which the stop elements are aligned with respect to one another in such a way that they prevent a displacement of the plug , into a readiness position, in which the stop elements are aligned with respect to one another in such a way that they enable an axial displacement of the plug .
A refinish paint system which comprises at least two paints, wherein each of the paints includes: an unactivated film-forming portion; and an activator portion that when combined with said unactivated film-forming portion, forms a coating composition, said coating composition being capable of forming at least one of a primer filler layer, a sealer layer, a topcoat layer, or a clearcoat layer, wherein the same activator portion is used to crosslink each of the unactivated film-forming portions and each layer uses the same unactivated film-forming portion to activator volumetric mix ratio. an unactivated film-forming portion; and an activator portion that when combined with said unactivated film-forming portion, forms a coating composition, said coating composition being capable of forming at least one of a primer filler layer, a sealer layer, a topcoat layer, or a clearcoat layer, wherein the same activator portion is used to crosslink each of the unactivated film-forming portions and each layer uses the same unactivated film-forming portion to activator volumetric mix ratio.
Lock for a door or flap with a locking mechanism of catch and at least one pawl for latching the catch , wherein catch and pawl are such that the catch is capable of introducing an opening torque (M) into the pawl , wherein the torque (M) depends on the latching position of the pawl , characterized in that the catch is capable of introducing a first opening torque into the pawl , when the pawl is fully in its latching position and the catch is capable of introducing a second larger opening torque into the pawl when the pawl has been partially moved out of its latching position but the pawl prevents the catch from being moved into its open position, wherein the second torque being introduced into the pawl before the pawl has been pivoted by 10 to 15 degrees.
Method for determining the relative temporal position of electromagnetic pulses, having the steps of: - generating a sequence of first electromagnetic pulses ; - generating a sequence of second electromagnetic pulses ; - wherein the duration of the first and second electromagnetic pulses is in the femtosecond range; - superimposing at least some of the first and second pulses in a saturable absorber , wherein the transmission of the saturable absorber rises quickly when a fast pulse is radiated in, with the result that, when the first pulse is radiated in, the transmission of the absorber has a rising edge which at least approximately follows the profile of the rising edge of the first pulse ; - detecting the second pulses which have passed through the saturable absorber by means of a detector in such a manner that the detector is used to capture the second pulses but not the first pulses which have passed through the saturable absorber ; and - determining the temporal position of the first pulses relative to the temporal position of the second pulses with the aid of a signal which is generated by the detector upon receiving the second pulses which have passed through the saturable absorber , wherein the determination of the relative temporal position of the pulses comprises capturing a fast rising edge of the signal from the detector . - generating a sequence of first electromagnetic pulses ; - generating a sequence of second electromagnetic pulses ; - wherein the duration of the first and second electromagnetic pulses is in the femtosecond range; - superimposing at least some of the first and second pulses in a saturable absorber , wherein the transmission of the saturable absorber rises quickly when a fast pulse is radiated in, with the result that, when the first pulse is radiated in, the transmission of the absorber has a rising edge which at least approximately follows the profile of the rising edge of the first pulse ; - detecting the second pulses which have passed through the saturable absorber by means of a detector in such a manner that the detector is used to capture the second pulses but not the first pulses which have passed through the saturable absorber ; and - determining the temporal position of the first pulses relative to the temporal position of the second pulses with the aid of a signal which is generated by the detector upon receiving the second pulses which have passed through the saturable absorber , wherein the determination of the relative temporal position of the pulses comprises capturing a fast rising edge of the signal from the detector .
Hearing aid , in particular behind-the-ear hearing aid, with a rechargeable energy storage, a transmitting and/or receiving unit with an antenna element for wireless signal transmission and for inductive energy transmission for charging of the energy storage - wherein the antenna element is designed as a film structure surrounding the energy storage at least in sections, characterized in - that the film structure of the antenna element is formed of a ferromagnetic or ferrimagnetic material, - wherein the film structure comprises a first and a second film element and a third film element , - wherein the first and second film element are arranged on opposite end faces of the energy storage , - wherein the third film element engages over a peripheral region of the energy storage , - wherein the third film element forms a coil core of the antenna element provided with a wire or coil winding , and - wherein the first and/or second film element covers the respective end face of the energy storage at least partially. - wherein the antenna element is designed as a film structure surrounding the energy storage at least in sections, characterized in - that the film structure of the antenna element is formed of a ferromagnetic or ferrimagnetic material, - wherein the film structure comprises a first and a second film element and a third film element , - wherein the first and second film element are arranged on opposite end faces of the energy storage , - wherein the third film element engages over a peripheral region of the energy storage , - wherein the third film element forms a coil core of the antenna element provided with a wire or coil winding , and - wherein the first and/or second film element covers the respective end face of the energy storage at least partially.
A process for accelerating nutplate adhesive curing with a self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ), comprising the steps of: stretching an elastomeric fixture having an adhesively bondable nutplate fastener assembly coupled thereto to a first length and a first width sufficient for extension through an aperture in a substrate and a channel in the self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ); relaxing the elastomeric fixture to a second relatively shorter length and a second width relatively larger than the channel for friction fit engagement therein; drawing the adhesively bondable nutplate fastener assembly into engagement with the substrate and drawing a heat transfer surface of the self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ) into proximity with the substrate in response to the elastomeric fixture simultaneously relaxing to the second relatively shorter length; and heating the substrate with the self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ) with the heat transfer surface generally positioned proximate an uncured bonding agent sandwiched between the substrate and the adhesively bondable nutplate fastener assembly . stretching an elastomeric fixture having an adhesively bondable nutplate fastener assembly coupled thereto to a first length and a first width sufficient for extension through an aperture in a substrate and a channel in the self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ); relaxing the elastomeric fixture to a second relatively shorter length and a second width relatively larger than the channel for friction fit engagement therein; drawing the adhesively bondable nutplate fastener assembly into engagement with the substrate and drawing a heat transfer surface of the self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ) into proximity with the substrate in response to the elastomeric fixture simultaneously relaxing to the second relatively shorter length; and heating the substrate with the self-fixturing heater (34, 34', 34", 34′′′, 34ʺʺ, 34′′′ʺ) with the heat transfer surface generally positioned proximate an uncured bonding agent sandwiched between the substrate and the adhesively bondable nutplate fastener assembly .
A method for uplink transmission in an unlicensed band, applied to a terminal, comprising: sensing a scheduled resource to obtain a corresponding sensing result; and transmitting a transport block on the scheduled resource based on the sensing result; wherein before the step of sensing a scheduled resource to obtain a corresponding sensing result, the method comprises: receiving first downlink control information, DCI, used to indicate the scheduled resource; characterized in that the step of transmitting a transport block on the scheduled resource based on the sensing result, comprises: separately transmitting a first transport block and a second transport block on the scheduled resource based on the sensing result, the first DCI, and an update time, wherein the update time is associated with the sensing result. sensing a scheduled resource to obtain a corresponding sensing result; and transmitting a transport block on the scheduled resource based on the sensing result; wherein before the step of sensing a scheduled resource to obtain a corresponding sensing result, the method comprises: receiving first downlink control information, DCI, used to indicate the scheduled resource; characterized in that the step of transmitting a transport block on the scheduled resource based on the sensing result, comprises: separately transmitting a first transport block and a second transport block on the scheduled resource based on the sensing result, the first DCI, and an update time, wherein the update time is associated with the sensing result. receiving first downlink control information, DCI, used to indicate the scheduled resource; characterized in that the step of transmitting a transport block on the scheduled resource based on the sensing result, comprises: separately transmitting a first transport block and a second transport block on the scheduled resource based on the sensing result, the first DCI, and an update time, wherein the update time is associated with the sensing result.
A method performed by a wireless device for handling communication of the wireless device in a wireless communication network, wherein the wireless device is served by a radio network node in a serving cell, the method comprising: - performing a beam tracking of the serving cell for tracking one or more beams of the serving cell based on measured signal strength or measured signal quality, wherein the beam tracking comprises collecting in the wireless device a sample of a synchronization signal, SS, Block Burst or Burst Set; - detecting a beam failure process in the serving cell; and in response to detection of the beam failure process - triggering a beam recovery process associated with a downlink, DL, beam for the serving cell, wherein the DL beam is selected based on the beam tracking performed prior to detecting the beam failure process; when a confirmation for the selected DL beam from the radio network node is lacking during a time window, - transmitting a request to access another beam being a second best beam according to the performed beam tracking, wherein the beam recovery process comprises choosing a downlink reference signal in the DL beam, and sending an uplink message to inform the radio network node of the DL beam of the chosen downlink reference signal. - performing a beam tracking of the serving cell for tracking one or more beams of the serving cell based on measured signal strength or measured signal quality, wherein the beam tracking comprises collecting in the wireless device a sample of a synchronization signal, SS, Block Burst or Burst Set; - detecting a beam failure process in the serving cell; and in response to detection of the beam failure process - triggering a beam recovery process associated with a downlink, DL, beam for the serving cell, wherein the DL beam is selected based on the beam tracking performed prior to detecting the beam failure process; - transmitting a request to access another beam being a second best beam according to the performed beam tracking,
A commercial vehicle , preferably a lorry, comprising a compressed-air system and a device for cladding a commercial vehicle , wherein the device comprises: an outer side cladding , preferably a longitudinal outer side cladding; a holder for holding the outer side cladding on the commercial vehicle ; and a pivoting device which connects the outer side cladding to the holder such that it can be pivoted in a substantially horizontally parallel manner, characterized by: a filling connection for introducing compressed air into the compressed-air system of the commercial vehicle , wherein, in a closed position of the outer side cladding , the filling connection is covered by the outer side cladding and, in an open position of the outer side cladding , is accessible from outside. an outer side cladding , preferably a longitudinal outer side cladding; a holder for holding the outer side cladding on the commercial vehicle ; and a pivoting device which connects the outer side cladding to the holder such that it can be pivoted in a substantially horizontally parallel manner,
System for plant protection product management on an agricultural field, comprising: - at least one pollinator sensor configured to collect health-related data of pollinators in the vicinity of the agricultural field and/or on the agricultural field, - a receiving unit - a computing unit ; and - an output unit ; wherein the at least one pollinator sensor is configured to make the health-related data of the pollinators available to the computing unit via the receiving unit, wherein the computing unit is configured to compare the health-related data of the pollinators with reference data and thereby ascertain whether or not a plant protection product can be applied to the agricultural field, wherein the output unit is configured to display, output or store in a data storage medium at least the information from the computing unit relating to the ascertainment of whether or not a plant protection product can be applied to the agricultural field. - at least one pollinator sensor configured to collect health-related data of pollinators in the vicinity of the agricultural field and/or on the agricultural field, - a receiving unit - a computing unit ; and - an output unit ; wherein the at least one pollinator sensor is configured to make the health-related data of the pollinators available to the computing unit via the receiving unit, wherein the computing unit is configured to compare the health-related data of the pollinators with reference data and thereby ascertain whether or not a plant protection product can be applied to the agricultural field, wherein the output unit is configured to display, output or store in a data storage medium at least the information from the computing unit relating to the ascertainment of whether or not a plant protection product can be applied to the agricultural field. wherein the at least one pollinator sensor is configured to make the health-related data of the pollinators available to the computing unit via the receiving unit, wherein the computing unit is configured to compare the health-related data of the pollinators with reference data and thereby ascertain whether or not a plant protection product can be applied to the agricultural field, wherein the output unit is configured to display, output or store in a data storage medium at least the information from the computing unit relating to the ascertainment of whether or not a plant protection product can be applied to the agricultural field.
An ink formulation suitable for inkjet printing, said formulation comprising a plurality of nanosheets dispersed in an aqueous vehicle; wherein: (i) greater than 50% of the nanosheets comprise less than ten layers of an inorganic layered material; (ii) the inorganic material is selected from the group consisting of graphene, hexagonal boron nitride, bismuth strontium calcium copper oxide (BSCCO), transition metal dichalcogenides (TMDCs), Sb 2 Te 3 , Bi 2 Te 3 and MnO 2 ; and (iii) the concentration of nanosheets of inorganic material in the aqueous vehicle is greater than 0.01 mg/ml; (iv) the ink formulation further comprises: a) 1 x 10 -4 mol/L to 200 x 10 -4 mol/L of at least one water soluble polycyclic aromatic compound, (e.g. a salt thereof); wherein the or each polycyclic aromatic compound independently has a ring system which comprises from 2 to 8 fused aromatic benzene rings, the ring system being substituted with from 1 to 4 independently selected hydrophillic groups selected from SO 3 H, SO 2 H, B(OH) 2 , CO 2 H, OH and PO 3 H ; b) at least one viscosity modifier, which is a water miscible co-solvent, in an amount of from 0.1 to 5 wt.%; and c) at least one surface tension modifier in the form of a non-ionic surfactant material in an amount of from 0.01 to 2 wt.%. (i) greater than 50% of the nanosheets comprise less than ten layers of an inorganic layered material; (ii) the inorganic material is selected from the group consisting of graphene, hexagonal boron nitride, bismuth strontium calcium copper oxide (BSCCO), transition metal dichalcogenides (TMDCs), Sb 2 Te 3 , Bi 2 Te 3 and MnO 2 ; and (iii) the concentration of nanosheets of inorganic material in the aqueous vehicle is greater than 0.01 mg/ml; (iv) the ink formulation further comprises: a) 1 x 10 -4 mol/L to 200 x 10 -4 mol/L of at least one water soluble polycyclic aromatic compound, (e.g. a salt thereof); wherein the or each polycyclic aromatic compound independently has a ring system which comprises from 2 to 8 fused aromatic benzene rings, the ring system being substituted with from 1 to 4 independently selected hydrophillic groups selected from SO 3 H, SO 2 H, B(OH) 2 , CO 2 H, OH and PO 3 H ; b) at least one viscosity modifier, which is a water miscible co-solvent, in an amount of from 0.1 to 5 wt.%; and c) at least one surface tension modifier in the form of a non-ionic surfactant material in an amount of from 0.01 to 2 wt.%. a) 1 x 10 -4 mol/L to 200 x 10 -4 mol/L of at least one water soluble polycyclic aromatic compound, (e.g. a salt thereof); wherein the or each polycyclic aromatic compound independently has a ring system which comprises from 2 to 8 fused aromatic benzene rings, the ring system being substituted with from 1 to 4 independently selected hydrophillic groups selected from SO 3 H, SO 2 H, B(OH) 2 , CO 2 H, OH and PO 3 H ; b) at least one viscosity modifier, which is a water miscible co-solvent, in an amount of from 0.1 to 5 wt.%; and c) at least one surface tension modifier in the form of a non-ionic surfactant material in an amount of from 0.01 to 2 wt.%.
A lighting device comprising: a planar array of LEDs comprising a set of parallel LED strips ; an optical sheet extending over and parallel to the plane of the array of LEDs, the optical sheet comprising an interleaved pattern of parallel optical strips configured to perform a beam redirection and pass through strips , wherein the pass through strips have an average width (s) which is at least 0.1 times the average width (w) of the optical strips; a drive arrangement for moving the optical sheet relative to the array of LEDs between at least two configurations: a first configuration in which elongate axes of the LED strips are parallel to elongate axes of the optical strips ; and a second configuration in which the elongate axes of the LED strips are angularly offset by an acute angle from the elongate axes of the optical strips. a planar array of LEDs comprising a set of parallel LED strips ; an optical sheet extending over and parallel to the plane of the array of LEDs, the optical sheet comprising an interleaved pattern of parallel optical strips configured to perform a beam redirection and pass through strips , wherein the pass through strips have an average width (s) which is at least 0.1 times the average width (w) of the optical strips; a drive arrangement for moving the optical sheet relative to the array of LEDs between at least two configurations: a first configuration in which elongate axes of the LED strips are parallel to elongate axes of the optical strips ; and a second configuration in which the elongate axes of the LED strips are angularly offset by an acute angle from the elongate axes of the optical strips. a first configuration in which elongate axes of the LED strips are parallel to elongate axes of the optical strips ; and a second configuration in which the elongate axes of the LED strips are angularly offset by an acute angle from the elongate axes of the optical strips.