mhurhangee/patent-ind-claim-en huggingface dataset:
Device for aiding the placement, laying and adjustment of the orientation of tubular section with turned-in sides, said device for aiding the placement, laying, fixing and adjustment of the orientation of sections being a portable, self-contained and movable one-piece assembly , with a hollow or solid elastic body , comprising in combination: - means of gripping the device for aiding the laying and adjustment of the orientation of tubular sections , - means of holding one or a plurality of spirit level and/or measuring devices , characterised in that said device comprises: - elastic means of referencing , centering and holding the device for aiding the laying and adjustment of the orientation of tubular sections in and on the section , - and elastic means of introducing the device for aiding the laying and adjustment of the orientation of tubular sections between the edges of the turned-in sides and into the chamber of the tubular section ; the elastic means of introducing the aid device into the chamber of the tubular section forming a wedge or truncated wedge at its end which combines two concave slopes whose apical parts are substantially parallel to facilitate introduction between the two edges of the turned in-sides of the tubular section , followed by concave sloping parts to guide the introduction of the one-piece body into the chamber of the tubular section and accumulate enough elastic energy to hold the one-piece body in and on the tubular section after the edges of the turned-in sides have gone past the end parts of the sloping surfaces adjoining the reference bearing surface . - means of gripping the device for aiding the laying and adjustment of the orientation of tubular sections , - means of holding one or a plurality of spirit level and/or measuring devices , - elastic means of referencing , centering and holding the device for aiding the laying and adjustment of the orientation of tubular sections in and on the section , - and elastic means of introducing the device for aiding the laying and adjustment of the orientation of tubular sections between the edges of the turned-in sides and into the chamber of the tubular section ; the elastic means of introducing the aid device into the chamber of the tubular section forming a wedge or truncated wedge at its end which combines two concave slopes whose apical parts are substantially parallel to facilitate introduction between the two edges of the turned in-sides of the tubular section , followed by concave sloping parts to guide the introduction of the one-piece body into the chamber of the tubular section and accumulate enough elastic energy to hold the one-piece body in and on the tubular section after the edges of the turned-in sides have gone past the end parts of the sloping surfaces adjoining the reference bearing surface .
Method for detecting an anomaly in the operation of a battery (BAT) using a battery management system (BAT), said system comprising an acoustic emitter (EA) configured to be attached to a wall of the battery (BAT), an acoustic receiver (RA) configured to be attached to a wall of the battery (BAT), said acoustic receiver being attached to a wall of the battery during the implementation of the method, and a calculating means (MC) connected to the acoustic emitter (EA) and to the acoustic receiver (RA), a mapping (CG) defining a first operating region termed the normal operating region (ZN), a second operating region termed the at-risk operating region (ZR) and a third operating region termed the dangerous operating region (ZD), said cartography being determined from the acoustic signals received according to the different operating conditions of the battery, said method comprising at least a first measurement cycle, each measurement cycle being separated from the preceding measurement cycle by a period termed the measurement period, each measurement cycle comprising: - a step of emitting an acoustic signal by the acoustic emitter (EA) on instruction from the calculating means (MC); - a step of receiving an acoustic signal by the acoustic receiver (RA), the received signal being transmitted to the calculating means (MC) so as to obtain a measurement point in the mapping (CG); - a step of determining the operating region in which the measurement point is located; - when the measurement point is located in the at-risk operating region (ZR) or in the dangerous operating region (ZD), a step of detecting an anomaly. - a step of emitting an acoustic signal by the acoustic emitter (EA) on instruction from the calculating means (MC); - a step of receiving an acoustic signal by the acoustic receiver (RA), the received signal being transmitted to the calculating means (MC) so as to obtain a measurement point in the mapping (CG); - a step of determining the operating region in which the measurement point is located; - when the measurement point is located in the at-risk operating region (ZR) or in the dangerous operating region (ZD), a step of detecting an anomaly.
A volatile liquid dispensing system comprising a refill unit , the refill unit having a fragrance reservoir and a collection device enclosed therein, the collection device positioned adjacent to the fragrance reservoir for collecting and emanating pumped volatile liquid from the fragrance reservoir into an atmosphere, the fragrance reservoir being adapted to deliver the volatile liquid to the collection device through a predefined discharging mode, wherein the discharging mode is one of gas and gravity, the collection device is positioned adjacent to the fragrance reservoir thereby maintaining a predefined gap therebetween, the refill unit having a refill cover , the refill cover having the fragrance reservoir and the collection device enclosed therein, characterized in that , the collection device enclosed in the refill cover thereby maintaining a predefined gap therebetween allowing evaporation of the volatile liquid from all sides of the collection device , and wherein the predefined gap between the collection device and the refill cover is minimum of 2mm, the predefined gap between the collection device and the fragrance reservoir is minimum of 5mm, to allow unhindered air flow, and wherein the geometric arrangement of fragrance reservoir and the collection device allows air flow to all sides of the collection device to take part in the evaporation of the liquid thus ensuring maximum volatile liquid to be delivered to the surroundings. the fragrance reservoir being adapted to deliver the volatile liquid to the collection device through a predefined discharging mode, wherein the discharging mode is one of gas and gravity, the collection device is positioned adjacent to the fragrance reservoir thereby maintaining a predefined gap therebetween, the refill unit having a refill cover , the refill cover having the fragrance reservoir and the collection device enclosed therein, characterized in that , the collection device enclosed in the refill cover thereby maintaining a predefined gap therebetween allowing evaporation of the volatile liquid from all sides of the collection device , and wherein the predefined gap between the collection device and the refill cover is minimum of 2mm, the predefined gap between the collection device and the fragrance reservoir is minimum of 5mm, to allow unhindered air flow, and wherein the geometric arrangement of fragrance reservoir and the collection device allows air flow to all sides of the collection device to take part in the evaporation of the liquid thus ensuring maximum volatile liquid to be delivered to the surroundings.
Power cable comprising a metallic element made of aluminium, wherein a corrosion inhibitor is provided in direct contact with the metallic element, the corrosion inhibitor having the following general formula (I): R1-Ar-R2 (I) wherein R1 is a 1-hydroxy-tetrazol-5-yl group a 2-hydroxy-tetrazol-5-yl group, 1-acryloxy-tetrazol-5-yl group or 1-(2-carboxyethenyl)-tetrazol-5-yl group; Ar is a monocyclic or bicyclic aromatic moiety; and R2 is a hydrogen atom (H) or a 1-hydroxy-tetrazol-5-yl group, a 2-hydroxy-tetrazol-5-yl group, a hydroxyl group (OH), a vinyl group, an allyl group or a -O-CO-R4 group, where R4 is an alkenyl group having from 2 to 6 carbon atoms, wherein the corrosion inhibitor of formula (I) is in an average amount of from 1x10 -3 g/cm 2 to 100x10 -3 g/cm 2 with respect to the surface of the metallic element. wherein R1 is a 1-hydroxy-tetrazol-5-yl group a 2-hydroxy-tetrazol-5-yl group, 1-acryloxy-tetrazol-5-yl group or 1-(2-carboxyethenyl)-tetrazol-5-yl group; Ar is a monocyclic or bicyclic aromatic moiety; and R2 is a hydrogen atom (H) or a 1-hydroxy-tetrazol-5-yl group, a 2-hydroxy-tetrazol-5-yl group, a hydroxyl group (OH), a vinyl group, an allyl group or a -O-CO-R4 group, where R4 is an alkenyl group having from 2 to 6 carbon atoms, wherein the corrosion inhibitor of formula (I) is in an average amount of from 1x10 -3 g/cm 2 to 100x10 -3 g/cm 2 with respect to the surface of the metallic element.
A controller (4a; 4b) for an electromechanical actuator having a motor that is driven in response to a motor drive signal generated by the controller comprising: a first current limiter for limiting a current command (I_CMD_IN) to a maximum current limit in response to detecting that the current command at least one of exceeds a maximum current limit setpoint (I_MAX) or is less than a minimum current limit setpoint (I_MIN); and characterized by further comprising a second current limiter configured to limit the current command (I_CMD_IN) to a limited current command in response to detecting that the current command exceeds a topper detection limit for a specified time duration, the limited current command comprising a topper current limit, and wherein the current command is input to the first current limiter that limits the current command to the maximum current limit that is within a boundary between the maximum current limit setpoint and the minimum current limit setpoint, and further comprising an intermediate current limiter between the first current limiter and the second current limiter and wherein the second current limiter further limits the current command from the first current limiter or from the intermediate current limiter . a first current limiter for limiting a current command (I_CMD_IN) to a maximum current limit in response to detecting that the current command at least one of exceeds a maximum current limit setpoint (I_MAX) or is less than a minimum current limit setpoint (I_MIN); and characterized by further comprising a second current limiter configured to limit the current command (I_CMD_IN) to a limited current command in response to detecting that the current command exceeds a topper detection limit for a specified time duration, the limited current command comprising a topper current limit, and wherein the current command is input to the first current limiter that limits the current command to the maximum current limit that is within a boundary between the maximum current limit setpoint and the minimum current limit setpoint, and further comprising an intermediate current limiter between the first current limiter and the second current limiter and wherein the second current limiter further limits the current command from the first current limiter or from the intermediate current limiter .
Use of at least one, preferably two, three, four or more compounds according to Formula (I) wherein R1 = H or OH R2 = H or Apiose R3 = H or Rhamnose as sweetener and/or sweetness enhancer and/or masking agent for the unpleasant taste of another sweetener. R1 = H or OH R2 = H or Apiose R3 = H or Rhamnose as sweetener and/or sweetness enhancer and/or masking agent for the unpleasant taste of another sweetener.
A method of accessing services, implemented by a wireless transmit/receive unit, WTRU (220; 325; 615; 805; 1010; 1125; 1225), the method comprising: receiving a network address of a domain name system, DNS, server ; receiving a fully qualified domain name, FQDN, for a host with an available service capability layer, SCL; transmitting a DNS lookup request to the DNS server using the FQDN and the network address of the DNS server ; receiving a response from the DNS server that includes a network address of an SCL host server; transmitting an SCL resource discovery request to the SCL host server, wherein the SCL resource discovery request is directed to a known resource of the SCL host server and the SCL resource discovery request includes query strings related to attributes of the known resource; receiving SCL resource discovery information from the SCL host server in response to the SCL resource discovery request, wherein the SCL resource discovery information includes at least one SCL resource and a uniform resource identifier, URI, of each SLC resource; and selecting an SCL resource from the SCL resource discovery information. receiving a network address of a domain name system, DNS, server ; receiving a fully qualified domain name, FQDN, for a host with an available service capability layer, SCL; transmitting a DNS lookup request to the DNS server using the FQDN and the network address of the DNS server ; receiving a response from the DNS server that includes a network address of an SCL host server; transmitting an SCL resource discovery request to the SCL host server, wherein the SCL resource discovery request is directed to a known resource of the SCL host server and the SCL resource discovery request includes query strings related to attributes of the known resource; receiving SCL resource discovery information from the SCL host server in response to the SCL resource discovery request, wherein the SCL resource discovery information includes at least one SCL resource and a uniform resource identifier, URI, of each SLC resource; and selecting an SCL resource from the SCL resource discovery information.
Electric motor system comprising: - an electric motor arranged at a first location, the electric motor comprising a rotor and a plurality of windings wherein the plurality of windings have different resonant frequencies; - a power transmitter arranged at a second location, this second location being at a distance from the first location, the power transmitter comprising a plurality of transmission coils , wherein the transmission coils have different resonant frequencies; wherein the power transmitter is configured to transmit power from the transmission coils of the power transmitter to the windings of the electric motor by resonant inductive coupling between windings of the electric motor and transmission coils of the power transmitter having the same resonant frequencies as the windings. - an electric motor arranged at a first location, the electric motor comprising a rotor and a plurality of windings wherein the plurality of windings have different resonant frequencies; - a power transmitter arranged at a second location, this second location being at a distance from the first location, the power transmitter comprising a plurality of transmission coils , wherein the transmission coils have different resonant frequencies;
A pharmaceutical composition comprising a compound of Formula or or a pharmaceutically acceptable salt thereof, together with a pharmaceutically acceptable excipient, wherein the composition is a solution containing 0.05 mg/ml to 0.5 mg/ml of the compound or salt thereof.
A throttle control lever suitable for controlling the magnitude and direction of thrust of one or more aircraft engines, in which the throttle control lever comprises a frame , a trigger mechanism , a connection element , a cam engagement mechanism , a biasing means , a cam , and a grip suitable for gripping by a user when the throttle control lever is in use, in which the cam comprises a slot having first and second slot portions and a stop portion , in which the stop portion extends between and connects the first and second slot portions ; the cam engagement mechanism comprises a cam lever and a slot engagement element , the cam lever is pivotally attached to the frame via a cam lever pivot , and the slot engagement element is attached to the cam lever ; the trigger mechanism comprises a trigger lever and a trigger , the trigger lever is pivotally attached to the frame via a trigger pivot ; the trigger extends through the grip ; the connection element is attached to the trigger lever and the cam lever ; and the biasing means biases the cam lever to rotate in a first direction around the cam lever pivot . the cam comprises a slot having first and second slot portions and a stop portion , in which the stop portion extends between and connects the first and second slot portions ; the cam engagement mechanism comprises a cam lever and a slot engagement element , the cam lever is pivotally attached to the frame via a cam lever pivot , and the slot engagement element is attached to the cam lever ; the trigger mechanism comprises a trigger lever and a trigger , the trigger lever is pivotally attached to the frame via a trigger pivot ; the trigger extends through the grip ; the connection element is attached to the trigger lever and the cam lever ; and the biasing means biases the cam lever to rotate in a first direction around the cam lever pivot .
An ablation device, comprising an ablation applicator for applying ablation energy to an ablation region, the ablation applicator having a first applicator end portion , a second applicator end portion , and an elongate portion extending between the first and second applicator end portions, a first catheter having a first distal end portion and a first proximate end portion , the first distal end portion being coupled to the first applicator end portion , and a second catheter having a second distal end portion and a second proximate end portion, the second distal end portion being coupled to the second applicator end portion to supply an ablation medium to the ablation applicator , wherein the ablation applicator is adapted to form an applicator shape having an applicator size (D) in a plane perpendicular to a longitudinal axis of the first catheter , and wherein the coupling between the first distal end portion and the first applicator end portion is adapted to transfer a rotational force applied to the first proximate end portion to the ablation applicator and thereby cause the applicator size (D) to change, the ablation device further comprising a handle housing the first proximate end portion and the second proximate end portion, the handle comprising a rotational member for applying the rotational force to the first proximate portion. an ablation applicator for applying ablation energy to an ablation region, the ablation applicator having a first applicator end portion , a second applicator end portion , and an elongate portion extending between the first and second applicator end portions, a first catheter having a first distal end portion and a first proximate end portion , the first distal end portion being coupled to the first applicator end portion , and a second catheter having a second distal end portion and a second proximate end portion, the second distal end portion being coupled to the second applicator end portion to supply an ablation medium to the ablation applicator , wherein the ablation applicator is adapted to form an applicator shape having an applicator size (D) in a plane perpendicular to a longitudinal axis of the first catheter , and wherein the coupling between the first distal end portion and the first applicator end portion is adapted to transfer a rotational force applied to the first proximate end portion to the ablation applicator and thereby cause the applicator size (D) to change, the ablation device further comprising a handle housing the first proximate end portion and the second proximate end portion, the handle comprising a rotational member for applying the rotational force to the first proximate portion.
A method of transmitting an ACK/NAK from a User Equipment, UE, comprising: determining the number of ACK/NAK bits of each Component Carrier, CC, based on a transmission mode configured for each CC; determining the total number of ACK/NAK bits of total CCs by summing the number of the ACK/NAK bits of each CC; generating the ACK/NAK based on the total number of the ACK/NAK bits; and transmitting the ACK/NAK to a base station, wherein the transmission mode comprises a Multiple Input Multiple Output, MIMO, mode capable of transmitting maximum two transport blocks and a non-MIMO mode capable of transmitting maximum a single transport block, and wherein the number of ACK/NAK bits of a CC, among the total CCs, is 2 at all times for both the MIMO transmission mode and the non-MIMO transmission mode. determining the number of ACK/NAK bits of each Component Carrier, CC, based on a transmission mode configured for each CC; determining the total number of ACK/NAK bits of total CCs by summing the number of the ACK/NAK bits of each CC; generating the ACK/NAK based on the total number of the ACK/NAK bits; and transmitting the ACK/NAK to a base station, wherein the transmission mode comprises a Multiple Input Multiple Output, MIMO, mode capable of transmitting maximum two transport blocks and a non-MIMO mode capable of transmitting maximum a single transport block, and wherein the number of ACK/NAK bits of a CC, among the total CCs, is 2 at all times for both the MIMO transmission mode and the non-MIMO transmission mode.
An oil compound for use in a defoamer, comprising: (A) 100 parts by weight of inherently hydrophobic organopolysiloxane having a viscosity at 25°C of from 10 to 100,000 mm 2 /s, (B) from 1 to 30 parts by weight of fine silica powder having a specific surface area of at least 50 m 2 /g, and (C) from 0.001 to 5 parts by weight of organopolysiloxane serving as surface treatment agent for component (B), being organopolysiloxane of general formula (I) and/or (II) below: wherein in formula (I), R 1 and R 2 are CH 3 , X is Y-O-, Y is - Si(OR 2 ) 3 , and m is 10; or R 1 and R 2 are CH 3 , X is R 1 , Y is -Si(OR 2 ) 3 , and m is 30; wherein the organopolysiloxane of formula (II) is selected from the following formulae: and wherein j ≥ 2, k ≥ 0 and m ≥ 1. (A) 100 parts by weight of inherently hydrophobic organopolysiloxane having a viscosity at 25°C of from 10 to 100,000 mm 2 /s, (B) from 1 to 30 parts by weight of fine silica powder having a specific surface area of at least 50 m 2 /g, and (C) from 0.001 to 5 parts by weight of organopolysiloxane serving as surface treatment agent for component (B), being organopolysiloxane of general formula (I) and/or (II) below: wherein in formula (I), R 1 and R 2 are CH 3 , X is Y-O-, Y is - Si(OR 2 ) 3 , and m is 10; or R 1 and R 2 are CH 3 , X is R 1 , Y is -Si(OR 2 ) 3 , and m is 30; wherein the organopolysiloxane of formula (II) is selected from the following formulae: and wherein j ≥ 2, k ≥ 0 and m ≥ 1. in formula (I), R 1 and R 2 are CH 3 , X is Y-O-, Y is - Si(OR 2 ) 3 , and m is 10; or R 1 and R 2 are CH 3 , X is R 1 , Y is -Si(OR 2 ) 3 , and m is 30;
A tyrosine kinase inhibitor (TKI) and at least one antibody specifically binding EGFR, HER2 and HER3 for use in treating cancer resistance to a TKI, wherein said TKI is a small molecule which is capable of inhibiting an ErbB family member and wherein cells of the cancer express said ErbB family member and wherein said TKI is an additional TKI different from said TKI to which said cancer is resistant.