mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid reservoir for a vehicle, comprising: a reservoir body , comprising: a sensing chamber portion ; a neck portion connected to the sensing chamber portion; and a reserve chamber portion connected to the sensing chamber portion by the neck portion, wherein the neck portion defines a neck portion volume that is smaller than a volume defined by the sensing chamber to limit slosh in the sensing chamber when a reserve volume of fluid is present within the fluid reservoir; characterized in that the reservoir body further comprises a supply chamber portion connected to the neck portion; wherein the reservoir body further comprises a header portion connecting the sensing chamber portion to the supply chamber portion; and wherein the reservoir body comprises a first neck portion connecting the header portion to the sensing chamber portion and a second neck portion , the second neck portion being located on a side of the sensing chamber portion opposite the first neck portion and connecting the sensing chamber portion to the reserve chamber portion . a reservoir body , comprising: a sensing chamber portion ; a neck portion connected to the sensing chamber portion; and a reserve chamber portion connected to the sensing chamber portion by the neck portion, wherein the neck portion defines a neck portion volume that is smaller than a volume defined by the sensing chamber to limit slosh in the sensing chamber when a reserve volume of fluid is present within the fluid reservoir; characterized in that a sensing chamber portion ; a neck portion connected to the sensing chamber portion; and a reserve chamber portion connected to the sensing chamber portion by the neck portion, wherein the neck portion defines a neck portion volume that is smaller than a volume defined by the sensing chamber to limit slosh in the sensing chamber when a reserve volume of fluid is present within the fluid reservoir; characterized in that the reservoir body further comprises a supply chamber portion connected to the neck portion; wherein the reservoir body further comprises a header portion connecting the sensing chamber portion to the supply chamber portion; and wherein the reservoir body comprises a first neck portion connecting the header portion to the sensing chamber portion and a second neck portion , the second neck portion being located on a side of the sensing chamber portion opposite the first neck portion and connecting the sensing chamber portion to the reserve chamber portion .
A method of melt-stabilizing ultra high molecular weight polyethylene (UHMWPE), the method comprising: coating a solid, consolidated material comprising UHMWPE with an antioxidant, so that the antioxidant does not penetrate past a depth of 0 mm of the surface of application, to provide an antioxidant-coated solid material; pre-irradiatively heating the antioxidant-coated solid material to diffuse the antioxidant therein, to provide an antioxidant-diffused solid material; irradiating the antioxidant-diffused solid material with an electron beam, to provide an irradiated solid material; post-irradiatively heating the irradiated solid material in an oxygen-containing environment to melt at least part of the UHMWPE, to provide a heated material; and solidifying the heated material, to provide a melt-stabilized material. coating a solid, consolidated material comprising UHMWPE with an antioxidant, so that the antioxidant does not penetrate past a depth of 0 mm of the surface of application, to provide an antioxidant-coated solid material; pre-irradiatively heating the antioxidant-coated solid material to diffuse the antioxidant therein, to provide an antioxidant-diffused solid material; irradiating the antioxidant-diffused solid material with an electron beam, to provide an irradiated solid material; post-irradiatively heating the irradiated solid material in an oxygen-containing environment to melt at least part of the UHMWPE, to provide a heated material; and solidifying the heated material, to provide a melt-stabilized material.
A method for characterizing a time-of-flight sensor, wherein the time-of-flight sensor is covered by a cover exhibiting an adjustable transmittance, the method comprising: selectively adjusting the transmittance of the cover such that the cover is opaque for light emittable by the time-of-flight sensor; performing at least one time-of-flight measurement with the time-of-flight sensor while the cover is opaque for obtaining measurement data for light reflected from the cover back to the time-of-flight sensor; and determining characterization data based on the measurement data, wherein the characterization data indicate a quantity related to the time-of-flight sensor. selectively adjusting the transmittance of the cover such that the cover is opaque for light emittable by the time-of-flight sensor; performing at least one time-of-flight measurement with the time-of-flight sensor while the cover is opaque for obtaining measurement data for light reflected from the cover back to the time-of-flight sensor; and determining characterization data based on the measurement data, wherein the characterization data indicate a quantity related to the time-of-flight sensor.
A submersible device arranged to deploy autonomous underwater vehicles (AUVs), the submersible device comprising: two or more platforms arranged in a stack, wherein each platform is configured to carry two or more of the AUVs (1a-c); a deployment port from which the AUVs are deployed; and a transfer mechanism comprising a transfer device arranged to unload the AUVs from the platforms, and an actuator arranged to move the transfer device between the platforms and the deployment port in order to transfer the AUVs from the platforms to the deployment port during deployment of the AUVs. two or more platforms arranged in a stack, wherein each platform is configured to carry two or more of the AUVs (1a-c); a deployment port from which the AUVs are deployed; and a transfer mechanism comprising a transfer device arranged to unload the AUVs from the platforms, and an actuator arranged to move the transfer device between the platforms and the deployment port in order to transfer the AUVs from the platforms to the deployment port during deployment of the AUVs.
Liquid dispenser device including a valve comprising: - a flap-forming portion for blocking and passing liquid out from the device ; and - a fastener edge for permanently fastening the valve relative to a container , characterized in that this fastener edge comprises a tubular fastening wall sandwiched between an inner tubular wall and an outer tubular wall applying a radial compression to the fastener wall , - a rigid part being a bearing surface for a spring , the outer tubular wall being carried by a support attached to the container . - a flap-forming portion for blocking and passing liquid out from the device ; and - a fastener edge for permanently fastening the valve relative to a container , characterized in that this fastener edge comprises a tubular fastening wall sandwiched between an inner tubular wall and an outer tubular wall applying a radial compression to the fastener wall , - a rigid part being a bearing surface for a spring ,
A method for the preparation of a hydroxylated polyolefin by living anionic polymerization comprising the steps of: a) providing a reaction mixture comprising: a diene, a polar solvent which is an aprotic solvent comprising at least one oxygen, sulfur or nitrogen atom, a non-polar solvent, which is a hydrocarbon solvent, and an anionic initiator; b) allowing the reaction mixture to polymerize; and c) terminating the polymerization by addition of an epoxide; characterized in that the polymerization is carried out at a temperature of 50°C or less, the molar ratio of polar solvent to anionic initiator is 3 or less, and the amount of diene in the reaction mixture is 40 wt-% or less, based on the total weight of the reaction mixture, wherein the diene is selected from the group consisting of 1,3-butadiene, 1,3-pentadiene, 2,3-dimethylbutadiene, phenylbutadiene, isoprene, or mixtures thereof. a) providing a reaction mixture comprising: a diene, a polar solvent which is an aprotic solvent comprising at least one oxygen, sulfur or nitrogen atom, a non-polar solvent, which is a hydrocarbon solvent, and an anionic initiator; a diene, a polar solvent which is an aprotic solvent comprising at least one oxygen, sulfur or nitrogen atom, a non-polar solvent, which is a hydrocarbon solvent, and an anionic initiator; b) allowing the reaction mixture to polymerize; and c) terminating the polymerization by addition of an epoxide;
Accessory equipment for a motorized and handheld rotary blade cutting device, comprising a hub to be coupled to a motor body of said device, coaxially to a motor shaft , and a supporting surface suitable for resting on a surface of a material to be cut, wherein said hub is integral with an inner ring of a rotating bearing having a central hole adapted to be fitted coaxially on said motor shaft of said motorized cutting device, and wherein said supporting surface is constituted by a support ring which is integral in rotation to an outer ring of said rotating bearing , characterized in that a clamping flange is also provided, consisting of a cylindrical centring body and a flat head flange (62"), crossed centrally by a threaded hole , an outer diameter of said cylindrical centring body being equal to a central hole of a circular blade to be used with said cutting device, so that said clamping flange acts both as a centring element of said blade , acting from the inside of said hole , and as a clamping element of said blade against said hub . a clamping flange is also provided, consisting of a cylindrical centring body and a flat head flange (62"), crossed centrally by a threaded hole , an outer diameter of said cylindrical centring body being equal to a central hole of a circular blade to be used with said cutting device, so that said clamping flange acts both as a centring element of said blade , acting from the inside of said hole , and as a clamping element of said blade against said hub .
A leadless, implantable microstimulator device for treating chronic inflammation, the device comprising: a hermetically sealed capsule body; at least two electrically conductive capsule regions, wherein each region electrically connects to an electrode for applying stimulation to a vagus nerve; a resonator within the sealed capsule body; a battery within the sealed capsule body; an electronic assembly within the sealed capsule body, wherein the electronic assembly is connected to the capsule body by a suspension configured to absorb mechanical shock and make electrical contact; and a temperature sensor configured to detune the resonator to prevent energy absorption if the temperature exceeds a predetermined value, wherein the electronic assembly comprises power management circuitry configured to receive power from the resonator to charge the battery, and a microcontroller configured to control stimulation of the vagus nerve from the conductive capsule regions. a hermetically sealed capsule body; at least two electrically conductive capsule regions, wherein each region electrically connects to an electrode for applying stimulation to a vagus nerve; a resonator within the sealed capsule body; a battery within the sealed capsule body; an electronic assembly within the sealed capsule body, wherein the electronic assembly is connected to the capsule body by a suspension configured to absorb mechanical shock and make electrical contact; and a temperature sensor configured to detune the resonator to prevent energy absorption if the temperature exceeds a predetermined value, wherein the electronic assembly comprises power management circuitry configured to receive power from the resonator to charge the battery, and a microcontroller configured to control stimulation of the vagus nerve from the conductive capsule regions.
A fiber optic apparatus, comprising: an attachment housing comprising a top , a bottom and at least one side defining an attachment interior chamber configured to support at least a portion of fiber optic equipment, a fiber optic housing comprising a housing interior chamber configured to support fiber optic equipment to couple the attachment interior chamber and the housing interior chamber and expand the capacity of the fiber optic housing , a rear door , the fiber optical housing further comprising a tab disposed on an edge of a bottom of the fiber optic housing , wherein the attachment housing is tool-lessly, and by other than external fasteners, configured to removably attach to a rear of the fiber optic housing with a rear door removed from the fiber optic housing, wherein the rear door is configured to be reinstalled to a rear of the attachment housing , characterized in that the rear door comprises a hinge portion and the tab is configured to receive a channel being disposed on the hinge portion of the rear door to allow the rear door to be easily installed and removed to and from the fiber optic housing . an attachment housing comprising a top , a bottom and at least one side defining an attachment interior chamber configured to support at least a portion of fiber optic equipment, a fiber optic housing comprising a housing interior chamber configured to support fiber optic equipment to couple the attachment interior chamber and the housing interior chamber and expand the capacity of the fiber optic housing , a rear door , the fiber optical housing further comprising a tab disposed on an edge of a bottom of the fiber optic housing , wherein the attachment housing is tool-lessly, and by other than external fasteners, configured to removably attach to a rear of the fiber optic housing with a rear door removed from the fiber optic housing, wherein the rear door is configured to be reinstalled to a rear of the attachment housing , characterized in that the rear door comprises a hinge portion and the tab is configured to receive a channel being disposed on the hinge portion of the rear door to allow the rear door to be easily installed and removed to and from the fiber optic housing .
A method performed by a cellular Internet of Things, CIoT, user equipment, UE, for transmission of data in a communication network comprising a radio access network, RAN, and a core network, CN, the method comprising: sending , to an Access and Mobility Management Function, AMF, a request to establish a small-data user-plane, SDUP, data session; receiving a response indicating that the requested SDUP data session is established, wherein the response comprises: an identifier associated with a user-plane function, UPF, within the CN, that supports the established SDUP data session; and an SDUP security configuration for communication between the UE and the CN during the established SDUP data session; and subsequently communicating user data, associated with the established SDUP data session, with the UPF via a serving node in the RAN. sending , to an Access and Mobility Management Function, AMF, a request to establish a small-data user-plane, SDUP, data session; receiving a response indicating that the requested SDUP data session is established, wherein the response comprises: an identifier associated with a user-plane function, UPF, within the CN, that supports the established SDUP data session; and an SDUP security configuration for communication between the UE and the CN during the established SDUP data session; and an identifier associated with a user-plane function, UPF, within the CN, that supports the established SDUP data session; and an SDUP security configuration for communication between the UE and the CN during the established SDUP data session; and subsequently communicating user data, associated with the established SDUP data session, with the UPF via a serving node in the RAN.
A communication method, wherein the method comprises: sending (S101, S102, S103), by a terminal device, a first message to a network device, wherein the first message comprises one or more listening frequency indexes of one or more first tracking areas, the one or more first tracking areas are tracking areas listened to by the terminal device within a first preset time period before the sending, and the one or more listening frequency indexes are used to indicate a frequency of listening to the one or more first tracking areas by the terminal device within the first preset time period; and receiving (S106, S107), by the terminal device, a second message comprising first registration area information from the network device, wherein the first registration area information (S104) is determined based on the one or more listening frequency indexes. sending (S101, S102, S103), by a terminal device, a first message to a network device, wherein the first message comprises one or more listening frequency indexes of one or more first tracking areas, the one or more first tracking areas are tracking areas listened to by the terminal device within a first preset time period before the sending, and the one or more listening frequency indexes are used to indicate a frequency of listening to the one or more first tracking areas by the terminal device within the first preset time period; and receiving (S106, S107), by the terminal device, a second message comprising first registration area information from the network device, wherein the first registration area information (S104) is determined based on the one or more listening frequency indexes.
A method for thermoforming an article, the method comprising: receiving a compression material having an article positioned inside the compression material ; exposing an area between an inner surface of the compression material and an outer surface of the article to a pressure less than atmospheric pressure so that the compression material applies a compressive force onto the outer surface of the article ; introducing the article to one or more heating stations ; rotating the article within the one or more heating stations ; introducing the article to a cooling station ; and rotating the article within the cooling station . receiving a compression material having an article positioned inside the compression material ; exposing an area between an inner surface of the compression material and an outer surface of the article to a pressure less than atmospheric pressure so that the compression material applies a compressive force onto the outer surface of the article ; introducing the article to one or more heating stations ; rotating the article within the one or more heating stations ; introducing the article to a cooling station ; and rotating the article within the cooling station .
An imaging device , comprising: a display including a wiring layer ; a camera located at a back side of the display , the camera including an optical lens and an imaging sensor to sense the light through the display to create an image; an optical element between the display and the camera , wherein the optical element filters the light through the display and passes the filtered light to the camera , and the optical element reduces a diffraction due to the wiring layer , wherein the optical element includes an optical mask which has a mask region comprising a masking pattern to shield the light from the display to the camera ; characterised in that the masking pattern of the mask region coincides with the wiring pattern of the wires; or the mask region of the masking pattern is provided for a plurality of the wires of the wiring pattern of the wiring layer such that one line of the mask region of the masking pattern is provided for a plurality of wires of the wiring pattern of the wiring layer . a display including a wiring layer ; a camera located at a back side of the display , the camera including an optical lens and an imaging sensor to sense the light through the display to create an image; an optical element between the display and the camera , wherein the optical element filters the light through the display and passes the filtered light to the camera , and the optical element reduces a diffraction due to the wiring layer , wherein the optical element includes an optical mask which has a mask region comprising a masking pattern to shield the light from the display to the camera ; characterised in that the masking pattern of the mask region coincides with the wiring pattern of the wires; or the mask region of the masking pattern is provided for a plurality of the wires of the wiring pattern of the wiring layer such that one line of the mask region of the masking pattern is provided for a plurality of wires of the wiring pattern of the wiring layer .
Clamping device for clamping a workpiece , comprising a housing , a clamping arm that is pivotably held on the housing , and a clamping screw , which is mounted so as to be rotatable about a longitudinal axis of the clamping screw , wherein the clamping screw has a thread and the clamping arm has an engagement portion , which in a working state of the clamping device is in engagement with the thread of the clamping screw , wherein the clamping device further comprises a fastening means for fastening the clamping device to a base and comprises a fastening means receptacle , and wherein the clamping arm has at least one recess (296; 296a, 296b), which is arranged and formed on the clamping arm such that an actuating tool engaging on the fastening means for actuating the fastening means is able to extend through the recess (296; 296a, 296b) up to the fastening means in at least one working position of the clamping arm relative to the housing , characterized in that the clamping arm has at least one first recess and one second recess and is pivotable relative to the housing between a first working position and a second working position, wherein the first recess is configured such that the actuating tool is able to extend through the first recess up to the fastening means in the first working position, and the second recess is configured such that the actuating tool is able to extend through the second recess up to the fastening means in the second working position. comprising a housing , a clamping arm that is pivotably held on the housing , and a clamping screw , which is mounted so as to be rotatable about a longitudinal axis of the clamping screw , wherein the clamping screw has a thread and the clamping arm has an engagement portion , which in a working state of the clamping device is in engagement with the thread of the clamping screw , wherein the clamping device further comprises a fastening means for fastening the clamping device to a base and comprises a fastening means receptacle , and wherein the clamping arm has at least one recess (296; 296a, 296b), which is arranged and formed on the clamping arm such that an actuating tool engaging on the fastening means for actuating the fastening means is able to extend through the recess (296; 296a, 296b) up to the fastening means in at least one working position of the clamping arm relative to the housing , characterized in that the clamping arm has at least one first recess and one second recess and is pivotable relative to the housing between a first working position and a second working position, wherein the first recess is configured such that the actuating tool is able to extend through the first recess up to the fastening means in the first working position, and the second recess is configured such that the actuating tool is able to extend through the second recess up to the fastening means in the second working position.