mhurhangee/patent-ind-claim-en huggingface dataset:
Internal casing for a tank for storing pressurized fluid for a motor vehicle, comprising: - a hollow body comprising at least one layer made of a first polymer material, - a neck arranged on the hollow body and delimiting an opening of the hollow body , the neck being designed to receive an interface part mounted on the neck in a sealed manner by means of a gasket arranged between the neck and the interface part , the neck being made of a composite material comprising a second polymer material, the neck being joined to the hollow body by molecular entanglement of polymer chains of the first polymer material and polymer chains of the second polymer material, the internal casing being characterized in that the composite material is composed of the second polymer material loaded with reinforcing fibers, and in that the composite material has a resistance to deformation that is greater than the resistance to deformation of the first polymer material. - a hollow body comprising at least one layer made of a first polymer material, - a neck arranged on the hollow body and delimiting an opening of the hollow body , the neck being designed to receive an interface part mounted on the neck in a sealed manner by means of a gasket arranged between the neck and the interface part , the neck being made of a composite material comprising a second polymer material, the neck being joined to the hollow body by molecular entanglement of polymer chains of the first polymer material and polymer chains of the second polymer material, the internal casing being characterized in that the composite material is composed of the second polymer material loaded with reinforcing fibers, and in that the composite material has a resistance to deformation that is greater than the resistance to deformation of the first polymer material. the neck being joined to the hollow body by molecular entanglement of polymer chains of the first polymer material and polymer chains of the second polymer material, the internal casing being characterized in that the composite material is composed of the second polymer material loaded with reinforcing fibers, and in that the composite material has a resistance to deformation that is greater than the resistance to deformation of the first polymer material.
A reinforcing bar binding machine which is configured to detachably mount a wire reel thereto, to feed a wire from the mounted wire reel, to feed the wire to a guide part provided at a tip portion of a binding machine main body, to curl the wire at the guide part which includes a bent part which is bent into an arc shape, to feed the wire around reinforcing bars positioned at an inner side of the guide part so that the wire is wound around the reinforcing bars, to cut the wire and to twist the wire to thus bind the reinforcing bars, wherein the guide part comprises: a guiding part that is configured to guide feeding of the wire from the wire reel; a cutting part that is configured to cut the wire after a predetermined length of the wire is fed from the guiding part; a wire feeding passage path that includes the guiding part and the cutting part ; a first guide member that is configured to guide an outer surface which is an outer side of the wire to be bent; a second guide member that is configured to guide an inner surface which is an inner side of the wire to be bent; and a third guide member that is configured to guide an outer surface which is an outer side of the wire to be bent, wherein the first guide member , the second guide member and the third guide member are arranged in order from the guiding part on the wire feeding passage path, and wherein the cutting part is independently arranged outside an area between the first and third guide members on the wire feeding passage path, characterized in that the guide part further comprises a curl guide that is fixed to the bent part and configured to guide the wire fed from the guiding part or the cutting part so as to curl the fed wire; wherein the third guide member is arranged inside the tip portion of the curl guide to protrude more inwardly than an arc-shaped guide surface of the curl guide , and wherein a tip portion of the wire is guided by the first guide member and the second guide member , is fed with sliding along the guide surface and is contacted to the third guide member . a guiding part that is configured to guide feeding of the wire from the wire reel; a cutting part that is configured to cut the wire after a predetermined length of the wire is fed from the guiding part; a wire feeding passage path that includes the guiding part and the cutting part ; a first guide member that is configured to guide an outer surface which is an outer side of the wire to be bent; a second guide member that is configured to guide an inner surface which is an inner side of the wire to be bent; and a third guide member that is configured to guide an outer surface which is an outer side of the wire to be bent, wherein the first guide member , the second guide member and the third guide member are arranged in order from the guiding part on the wire feeding passage path, and
An arrangement for determining the temperature of a foodstuff, having a wireless transmission device with a temperature sensor and having a receiving and evaluating device provided exterior to the transmission device , wherein the transmission device with the temperature sensor is in the form of a mobile unit for direct temperature measurement in or on the foodstuff and the receiving and evaluating device is configured to be arranged exterior to the foodstuff, wherein the mobile unit comprises a floating body , characterised in that the transmission device comprises an RFID tag and the receiving and evaluating device comprises an RFID reading and evaluating device with integrated current supply.
A thermal energy storage system in the form of a reverse-cycle defrosting vapour compression system suitable for use with systems adapted to transfer heat from at least one heat source to at least one heat sink (heat transfer system), wherein said thermal energy storage system comprises: at least two thermal energy storage units comprising a thermal store comprising a heat exchanger with phase change material; a primary coil of the heat exchanger dedicated for use with refrigerant fluids and adapted for inter-connection to both a condenser and a pressure-lowering device for use with a heat transfer system; a secondary coil of the heat exchanger dedicated for use with heat transfer fluids and adapted to exchange heat with the phase change material, wherein said primary coil and secondary coil are surrounded by the phase change material; one or more evaporators ; a condenser ; at least one of the at least two thermal energy storage units is positioned between the condenser and an expansion valve ; a divertor valve which can be used to by-pass the condenser , allowing, during a defrosting stage, energy to be only taken from the thermal storage unit ; wherein said thermal energy storage unit(s) includes means for connection to one-another, and/or to one or more components of a heat transfer system, wherein the thermal energy storage system provides detection for a detection and management of frosting conditions and the detection is provided by a plurality of sensors for the measurement of temperature, pressure, and power at points within said system. at least two thermal energy storage units comprising a thermal store comprising a heat exchanger with phase change material; a primary coil of the heat exchanger dedicated for use with refrigerant fluids and adapted for inter-connection to both a condenser and a pressure-lowering device for use with a heat transfer system; a secondary coil of the heat exchanger dedicated for use with heat transfer fluids and adapted to exchange heat with the phase change material, wherein said primary coil and secondary coil are surrounded by the phase change material; one or more evaporators ; a condenser ; at least one of the at least two thermal energy storage units is positioned between the condenser and an expansion valve ; a divertor valve which can be used to by-pass the condenser , allowing, during a defrosting stage, energy to be only taken from the thermal storage unit ; wherein said thermal energy storage unit(s) includes means for connection to one-another, and/or to one or more components of a heat transfer system, wherein the thermal energy storage system provides detection for a detection and management of frosting conditions and the detection is provided by a plurality of sensors for the measurement of temperature, pressure, and power at points within said system.
A system for use in a vehicle for correlating a route of the vehicle with network connectivity of a WiFi network external to the vehicle in order to transfer data over said external WiFi network, the system comprising: a data store comprising a non-transitory computer readable medium storing a program of instructions for the correlating of the route with said network connectivity; a processor that executes the program of instructions, the instructions comprising the following steps for making said correlation: in response to the vehicle travelling the route, at at least one of a plurality of points , a measurement of said network connectivity is made; and said network connectivity is stored for each of the plurality of points in which said measurement is made, characterized in that said travelled route is demarcated into a plurality of geographic regions , and based on said measured network connectivity, each of the plurality of geographic regions is associated with a corresponding data size limit for data transfer over said external WiFi network during traversing of said geographic region by the vehicle, wherein the corresponding data size limit is determined as a maximum file size that could be transferred based on a length of time the network will be available and a data rate of the network in said geographic region, and the instructions comprise the step of determining whether to perform said data transfer in said geographic region based on whether the corresponding data size limit will support the amount of data required to perform said data transfer. a data store comprising a non-transitory computer readable medium storing a program of instructions for the correlating of the route with said network connectivity; a processor that executes the program of instructions, the instructions comprising the following steps for making said correlation: in response to the vehicle travelling the route, at at least one of a plurality of points , a measurement of said network connectivity is made; and said network connectivity is stored for each of the plurality of points in which said measurement is made, in response to the vehicle travelling the route, at at least one of a plurality of points , a measurement of said network connectivity is made; and said network connectivity is stored for each of the plurality of points in which said measurement is made,
A control unit for a vapour provision system , wherein the control unit comprises: an inhalation sensor ; an input button ; and control circuitry configured to provide power for the vapour provision system to generate vapour in response to determining from signalling received from the inhalation sensor that a user is inhaling on the vapour provision system and to provide power for the vapour provision system to generate vapour in response to determining from signalling received from the input button that a user has activated the input button for at least a threshold amount of time, wherein the control circuitry is configured to provide power for the vapour provision system to generate vapour in response to either one of determining that a user is inhaling on the vapour provision system or determining that a user has activated the input button for at least a threshold amount of time, wherein the control circuitry is configured to disregard signalling received from the inhalation sensor and / or disable an operating aspect of the inhalation sensor when providing power for the vapour provision system to generate vapour in response to determining from signalling received from the input button that the user has activated the input button for at least the threshold amount of time. an inhalation sensor ; an input button ; and control circuitry configured to provide power for the vapour provision system to generate vapour in response to determining from signalling received from the inhalation sensor that a user is inhaling on the vapour provision system and to provide power for the vapour provision system to generate vapour in response to determining from signalling received from the input button that a user has activated the input button for at least a threshold amount of time, wherein the control circuitry is configured to provide power for the vapour provision system to generate vapour in response to either one of determining that a user is inhaling on the vapour provision system or determining that a user has activated the input button for at least a threshold amount of time, wherein the control circuitry is configured to disregard signalling received from the inhalation sensor and / or disable an operating aspect of the inhalation sensor when providing power for the vapour provision system to generate vapour in response to determining from signalling received from the input button that the user has activated the input button for at least the threshold amount of time.
A secure system core for use in sending a secure electronic message from a sender device to a receiver device in a secure electronic message system, the secure system core comprising: means for receiving information about an electronic message from the sender device ; means for generating an identifier of the electronic message; means for sending the identifier to the sender device ; means for receiving the identifier from the receiver device ; means for releasing to the receiver device information allowing retrieval of an encrypted electronic message body from a storage environment accessible by third parties on receipt of the identifier from the receiver device , wherein the information released to the receiver device comprises a storage location of an encrypted information file , and an information file decryption key; a storage means which stores a record of a user's participation in the secure electronic message system; a security metric module arranged to derive a security metric associated with the user based on the record of the user's participation in the secure electronic message system; means for receiving a request for a security metric from a sender device , the request including an identifier of a user; and means for communicating to the sender device a security metric associated with the identifier in response to the request. means for receiving information about an electronic message from the sender device ; means for generating an identifier of the electronic message; means for sending the identifier to the sender device ; means for receiving the identifier from the receiver device ; means for releasing to the receiver device information allowing retrieval of an encrypted electronic message body from a storage environment accessible by third parties on receipt of the identifier from the receiver device , wherein the information released to the receiver device comprises a storage location of an encrypted information file , and an information file decryption key; a storage means which stores a record of a user's participation in the secure electronic message system; a security metric module arranged to derive a security metric associated with the user based on the record of the user's participation in the secure electronic message system; means for receiving a request for a security metric from a sender device , the request including an identifier of a user; and means for communicating to the sender device a security metric associated with the identifier in response to the request.
A method for controlling clutch pressure in an electronically controlled limited slip differential, comprising: receiving a target clutch pressure command indicative of a desired differential torque transfer setting; processing the target clutch pressure command in a processing device comprising a processor, a memory, and processor-executable programming, characterised in that the processing comprises: estimating one of a motor current or a motor speed; calculating an integrated error of a target motor current or an integrated error of a target motor speed; processing the estimated motor current or the estimated motor speed and processing the integrated error of the target motor current or the integrated error of the target motor speed to calculate gains; applying the calculated gains to the target motor current or to the target motor speed thereby forming a closed loop feedback; and calculating an oscillation about the target motor current or about the target motor speed; and applying the target motor current or the target motor speed to a motor connected to a clutch in the differential according to the calculated oscillation to control the clutch pressure of the differential. receiving a target clutch pressure command indicative of a desired differential torque transfer setting; processing the target clutch pressure command in a processing device comprising a processor, a memory, and processor-executable programming, characterised in that the processing comprises: estimating one of a motor current or a motor speed; calculating an integrated error of a target motor current or an integrated error of a target motor speed; processing the estimated motor current or the estimated motor speed and processing the integrated error of the target motor current or the integrated error of the target motor speed to calculate gains; applying the calculated gains to the target motor current or to the target motor speed thereby forming a closed loop feedback; and calculating an oscillation about the target motor current or about the target motor speed; and estimating one of a motor current or a motor speed; calculating an integrated error of a target motor current or an integrated error of a target motor speed; processing the estimated motor current or the estimated motor speed and processing the integrated error of the target motor current or the integrated error of the target motor speed to calculate gains; applying the calculated gains to the target motor current or to the target motor speed thereby forming a closed loop feedback; and calculating an oscillation about the target motor current or about the target motor speed; and applying the target motor current or the target motor speed to a motor connected to a clutch in the differential according to the calculated oscillation to control the clutch pressure of the differential.
A dry cement mortar with prolonged open time comprising (i) a hydraulic cement component in an amount of 10 to 85 wt.-%, based on the total weight of the dry cement mortar, and (ii) at least one cement retarder selected from the group consisting of sodium polyphosphate, calcium polyphosphate, magnesium polyphosphate, ammonium polyphosphate, aluminum polyphosphate, manganese polyphosphate, lithium polyphosphate, and combinations thereof, wherein the cement retarder is in a range of 0.001 to 0.5 wt.-% based on the total weight of the dry cement mortar, and (iii) at least one accelerator selected from the group consisting of calcium chloride, potassium chloride, sodium nitrite, calcium nitrite, calcium sulfate, sodium sulfate, alumina, sodium thiocyanate, calcium thiocyanate, sodium hydroxide, potassium hydroxide, calcium carbonate, sodium carbonate, lithium carbonate, water glass, aluminum hydroxide, diethanolamine, triethanolamine, calcium formate, calcium acetate, maleic anhydride, and combinations thereof, wherein the accelerator is in a range of 0.01 to 1 wt.-% based on the total weight of the dry cement mortar, and (iv) an aggregate material. (i) a hydraulic cement component in an amount of 10 to 85 wt.-%, based on the total weight of the dry cement mortar, and (ii) at least one cement retarder selected from the group consisting of sodium polyphosphate, calcium polyphosphate, magnesium polyphosphate, ammonium polyphosphate, aluminum polyphosphate, manganese polyphosphate, lithium polyphosphate, and combinations thereof, wherein the cement retarder is in a range of 0.001 to 0.5 wt.-% based on the total weight of the dry cement mortar, and (iii) at least one accelerator selected from the group consisting of calcium chloride, potassium chloride, sodium nitrite, calcium nitrite, calcium sulfate, sodium sulfate, alumina, sodium thiocyanate, calcium thiocyanate, sodium hydroxide, potassium hydroxide, calcium carbonate, sodium carbonate, lithium carbonate, water glass, aluminum hydroxide, diethanolamine, triethanolamine, calcium formate, calcium acetate, maleic anhydride, and combinations thereof, wherein the accelerator is in a range of 0.01 to 1 wt.-% based on the total weight of the dry cement mortar, and (iv) an aggregate material.
A method for decorating a drinking or eating vessel, the method comprising: a. providing: i. a drinking or eating vessel , wherein the vessel comprises an inner surface that defines a volume for receiving a liquid or a solid food and an outer surface comprising a polymeric coating; and ii. a transfer sheet, wherein the transfer sheet is a formable plastic transfer sheet and comprises a printed decoration; and iii. a supporting means comprising a recess for receiving the vessel; and b. arranging the vessel within the recess of the supporting means thereby defining a lower portion of the outer surface of the vessel occluded from contact with the transfer sheet and an upper portion of the outer surface of the vessel for contacting the transfer sheet; and c. contacting the upper portion of the outer surface of the vessel and the supporting means with the transfer sheet under at least a partial vacuum, wherein the printed decoration is transferred from the transfer sheet to the upper portion of the outer surface of the vessel, and wherein the supporting means reduces stretching of the transfer sheet from the upper portion of the outer surface of the vessel to the lower portion of the outer surface of the vessel. a. providing: i. a drinking or eating vessel , wherein the vessel comprises an inner surface that defines a volume for receiving a liquid or a solid food and an outer surface comprising a polymeric coating; and ii. a transfer sheet, wherein the transfer sheet is a formable plastic transfer sheet and comprises a printed decoration; and iii. a supporting means comprising a recess for receiving the vessel; and i. a drinking or eating vessel , wherein the vessel comprises an inner surface that defines a volume for receiving a liquid or a solid food and an outer surface comprising a polymeric coating; and ii. a transfer sheet, wherein the transfer sheet is a formable plastic transfer sheet and comprises a printed decoration; and iii. a supporting means comprising a recess for receiving the vessel; and b. arranging the vessel within the recess of the supporting means thereby defining a lower portion of the outer surface of the vessel occluded from contact with the transfer sheet and an upper portion of the outer surface of the vessel for contacting the transfer sheet; and c. contacting the upper portion of the outer surface of the vessel and the supporting means with the transfer sheet under at least a partial vacuum, wherein the printed decoration is transferred from the transfer sheet to the upper portion of the outer surface of the vessel, and wherein the supporting means reduces stretching of the transfer sheet from the upper portion of the outer surface of the vessel to the lower portion of the outer surface of the vessel.