mhurhangee/patent-ind-claim-en huggingface dataset:
Tire building drum comprising a base that is rotatable about a central axis extending in an axial direction, wherein the tire building drum is provided with a crown section and a bead-lock section adjacent to the crown section in the axial direction, wherein the crown section comprises a plurality of crown segments distributed in a circumferential direction about the central axis (X) and movable with respect to the base from a crown-down position into a crown-up position in a crown-up direction with at least a vector-component in a radial direction perpendicular to the central axis, wherein the crown segments together form a crown surface facing outwards in the radial direction, a leading edge facing towards the bead-lock section in the axial direction when the crown segments are in the crown-down position and a shoulder (S) that defines the transition from the crown surface to the leading edge, wherein the leading edge extends in a radial plane perpendicular to the central axis, wherein the shoulder leaves a gap (G) between the plurality of crown segments and the radial plane in the axial direction, characterized in that the tire building drum further comprises a plurality of support members distributed in the circumferential direction and extending in said gap when the crown segments are in the crown-down position, wherein each crown segment comprises a first side and a second side opposite to the first side in the circumferential direction, wherein each crown segment further comprises one or more guide channels , wherein each guide channel is arranged for receiving a respective one of the plurality of support members in the respective crown segment between the first side and the second side.
Method of producing an article, comprising the step of producing the article in an additive manufacturing method from a free-radically crosslinkable build material, characterized in that the build material comprises a polyamine component and a compound obtainable from the reaction of an NCO-terminated polyisocyanurate with a molar excess, based on the free NCO groups, of a hydroxyalkyl (meth)acrylate, in that the article is obtained from a precursor and in that the method comprises the following steps: I) depositing free-radically crosslinked build material on a carrier so as to obtain a layer of a build material bonded to the carrier and corresponding to a first selected cross section of the precursor; II) depositing free-radically crosslinked build material onto a previously applied layer of the build material so as to obtain another layer of the build material corresponding to another selected cross section of the precursor and bonded to the previously applied layer; III) repeating step II) until the precursor is formed; wherein the depositing of free-radically crosslinked build material at least in step II) is effected by exposure and/or irradiation of a selected region of a free-radically crosslinkable build material corresponding to the respectively selected cross section of the precursor and wherein the free-radically crosslinkable build material has a viscosity (23°C, DIN EN ISO 2884-1) of ≥ 5 mPas to ≤ 100 000 mPas, and in that step III) is followed by a further step IV): IV) heating the precursor obtained after step III) to a temperature of ≥ 50°C to obtain the article. I) depositing free-radically crosslinked build material on a carrier so as to obtain a layer of a build material bonded to the carrier and corresponding to a first selected cross section of the precursor; II) depositing free-radically crosslinked build material onto a previously applied layer of the build material so as to obtain another layer of the build material corresponding to another selected cross section of the precursor and bonded to the previously applied layer; III) repeating step II) until the precursor is formed;
A printing method of manufacturing a 3D-structure attached to a base component , comprising: providing a nozzle , wherein the nozzle is disposed on a first side of the base component , the nozzle being configured to extrude material in a first direction; providing a molding component on a second side of the base component ; extruding a first portion of material through the nozzle , such that the first portion of material flows through an opening in the base component and fills a cavity in the molding component , thereby forming a first portion of the structure on the second side of the base component ; moving the nozzle away from the first portion of the structure in the first direction; extruding a second portion of material through the nozzle onto the first portion of the structure , wherein the second portion of material spreads outwardly in the second direction when the second portion of material contacts the first portion of the structure ; forming a second portion of the structure with the extruded second portion of material , the second portion of the structure being disposed on the first side of the base component ; wherein the first portion of the structure has a first cross-sectional area and the second portion of the structure has a second cross-sectional area and wherein the first cross-sectional area is greater than a third cross-sectional area of the opening and wherein the second cross-sectional area is greater than the third cross-sectional area. providing a nozzle , wherein the nozzle is disposed on a first side of the base component , the nozzle being configured to extrude material in a first direction; providing a molding component on a second side of the base component ; extruding a first portion of material through the nozzle , such that the first portion of material flows through an opening in the base component and fills a cavity in the molding component , thereby forming a first portion of the structure on the second side of the base component ; moving the nozzle away from the first portion of the structure in the first direction; extruding a second portion of material through the nozzle onto the first portion of the structure , wherein the second portion of material spreads outwardly in the second direction when the second portion of material contacts the first portion of the structure ; forming a second portion of the structure with the extruded second portion of material , the second portion of the structure being disposed on the first side of the base component ; wherein the first portion of the structure has a first cross-sectional area and the second portion of the structure has a second cross-sectional area and wherein the first cross-sectional area is greater than a third cross-sectional area of the opening and wherein the second cross-sectional area is greater than the third cross-sectional area.
A core holder comprising: an outer body ; an internal sleeve that fits inside the outer body and extends along the length of the outer body ; an end cap coupled to the outer body to create an internal chamber in which a core sample is stored and operable to move from an open position to a closed position; and a plurality of ports (436a and 436b) located on at least one of the outer body or the end cap , characterized by a strain gauge disposed on the internal sleeve and oriented such that the stresses and mechanical deformation of the core sample is recorded in any direction. an outer body ; an internal sleeve that fits inside the outer body and extends along the length of the outer body ; an end cap coupled to the outer body to create an internal chamber in which a core sample is stored and operable to move from an open position to a closed position; and a plurality of ports (436a and 436b) located on at least one of the outer body or the end cap , characterized by a strain gauge disposed on the internal sleeve and oriented such that the stresses and mechanical deformation of the core sample is recorded in any direction.
A compstatin analog comprising: a linear PEG moiety having a molecular weight of 40 kD and coupled to each of two compstatin analog moieties; wherein: i) each compstatin analog moiety is a CA28-AEEAc-Lys moiety; ii) the linear PEG moiety is coupled to the Lys side chain of each CA28-AEEAc-Lys moiety via an amide bond; and iii) each CA28-AEEAc-Lys moiety is Ac-He-Cys*-Val- Trp-Gln-Asp-Trp-Gly-Ala-His-Arg-Cys*-Thr-[NH-CH 2 CH 2 OCH 2 CH 2 OCH 2 -C(=O)]-Lys-NH 2 (SEQ ID NO: 51); wherein the Cys* groups are joined by a disulfide bond. i) each compstatin analog moiety is a CA28-AEEAc-Lys moiety; ii) the linear PEG moiety is coupled to the Lys side chain of each CA28-AEEAc-Lys moiety via an amide bond; and iii) each CA28-AEEAc-Lys moiety is Ac-He-Cys*-Val- Trp-Gln-Asp-Trp-Gly-Ala-His-Arg-Cys*-Thr-[NH-CH 2 CH 2 OCH 2 CH 2 OCH 2 -C(=O)]-Lys-NH 2 (SEQ ID NO: 51); wherein the Cys* groups are joined by a disulfide bond.
A diesel fuel composition comprising as an additive an ester compound which is the reaction product of a polyhydric alcohol of formula H-(OR) n -OH and at least 1.5 molar equivalents of a substituted succinic acid or an anhydride thereof, wherein R is an unsubstituted alkylene group and n is at least 1; wherein the substituted succinic acid or anhydride thereof is of formula (A3) or (A4): wherein R 1 is an unsubstituted hydrocarbyl group having less than 30 carbon atoms; and wherein the diesel fuel composition comprises less than 50 ppm sulphur by weight.
A cosmetic component spraying device that has a mixture having a cosmetic component and a matrix, and an air blower that blows air to the cosmetic component, the cosmetic component spraying device comprising: a laser irradiation unit that irradiates the mixture with a laser light, wherein the laser light having a peak wavelength different from an absorption peak wavelength of the cosmetic component. a laser irradiation unit that irradiates the mixture with a laser light, wherein the laser light having a peak wavelength different from an absorption peak wavelength of the cosmetic component.
A nozzle bar for the treatment of fibres with water jets, including an elongately extending upper part , in which an elongately formed pressure chamber is placed, wherein the pressure chamber includes an end side with an opening for supplying water and an opposite closed end side, and wherein a pressure distribution chamber , which extends parallel to the pressure chamber along a central axis (M), is placed in the upper part , and wherein several throughflow bores are placed distributed along the length of the upper part in the intermediate walling between the pressure chamber and the pressure distribution chamber , through which bores water is guidable from the pressure chamber into the pressure distribution chamber , and including an elongately extending lower part , which is disposed in a liquid-tight manner at the upper part , and wherein a nozzle strip with bores for the water discharge is accommodated in or at the lower part , and wherein a slot , which extends between the pressure distribution chamber and the nozzle strip for charging the nozzle strip with water, is placed in the upper part, characterized in that the distance (A) of the nozzle strip to the central axis (M) of the pressure distribution chamber has a value of 40 mm to 50 mm.
A vertical cable barrier , comprising: a first rail member including a plurality of first openings spaced apart along a length of the first rail member ; a second rail member defining a plurality of second openings spaced apart along a length of the web member; at least one vertical support member mounted to and extending between the first rail member and the second rail member ; a plurality of vertical cables mounted to and extending between the first rail member and the second rail member , wherein a first end of each vertical cable is secured within one of the first openings ; characterized in that the second rail member comprises a U-shaped channel defined by a web member and an opposed pair of leg members, the web member defining the plurality of second openings ; a second end of each vertical cable is secured within one of the second openings ; and the vertical cable barrier further comprises a first swage fitting including a first hollow tubular shank receiving and directly attached to the second end of each vertical cable , each first swage fitting threadedly coupled to a female member larger in size than the second openings and disposed within the opposed pair of leg members, each female member capable of adjusting a tension in the respective vertical cable . a first rail member including a plurality of first openings spaced apart along a length of the first rail member ; a second rail member defining a plurality of second openings spaced apart along a length of the web member; at least one vertical support member mounted to and extending between the first rail member and the second rail member ; a plurality of vertical cables mounted to and extending between the first rail member and the second rail member , wherein a first end of each vertical cable is secured within one of the first openings ; characterized in that the second rail member comprises a U-shaped channel defined by a web member and an opposed pair of leg members, the web member defining the plurality of second openings ; a second end of each vertical cable is secured within one of the second openings ; and the vertical cable barrier further comprises a first swage fitting including a first hollow tubular shank receiving and directly attached to the second end of each vertical cable , each first swage fitting threadedly coupled to a female member larger in size than the second openings and disposed within the opposed pair of leg members, each female member capable of adjusting a tension in the respective vertical cable .
A nebulizer apparatus, comprising: a main body having: an atomizer operable to atomize a fluid stored in the main body in response to a control input; a sensor to read an air pressure of a sensor opening disposed on a casing of the main body; a controller configured to receive the air pressure and, based at least in part on an air pressure change, adjust the control input of the atomizer; and characterized by a multi-piece nozzle assembly mechanically attachable to the main body and having a main conduit portion configured to guide the atomized fluid to a user piece, and an air pressure duct portion configured to connect the sensor opening on the casing of the main body to the user piece, wherein the air pressure duct includes a duct and a separate ring . a main body having: an atomizer operable to atomize a fluid stored in the main body in response to a control input; a sensor to read an air pressure of a sensor opening disposed on a casing of the main body; a controller configured to receive the air pressure and, based at least in part on an air pressure change, adjust the control input of the atomizer; and an atomizer operable to atomize a fluid stored in the main body in response to a control input; a sensor to read an air pressure of a sensor opening disposed on a casing of the main body; a controller configured to receive the air pressure and, based at least in part on an air pressure change, adjust the control input of the atomizer; and characterized by a multi-piece nozzle assembly mechanically attachable to the main body and having a main conduit portion configured to guide the atomized fluid to a user piece, and an air pressure duct portion configured to connect the sensor opening on the casing of the main body to the user piece, wherein the air pressure duct includes a duct and a separate ring .
A fiber-reinforced resin forming material containing at least a bundled aggregate of discontinuous reinforcing fibers and a matrix resin, wherein the bundled aggregate of reinforcing fibers includes both a reinforcing fiber aggregate A formed by cutting a strand of continuous reinforcing fibers after a splitting treatment is performed to completely split the strand into a plurality of bundles, and a reinforcing fiber aggregate B1 having a shape of an unsplit part to which the splitting treatment is performed insufficiently and/or a reinforcing fiber aggregate B2 having a shape to which the splitting treatment is not performed, wherein both a ratio (i) of weight of the reinforcing fiber aggregate B1 with respect to a total weight of reinforcing fibers in the fiber-reinforced resin forming material, and a ratio (ii) of a total weight of the reinforcing fiber aggregate B1 and the reinforcing fiber aggregate B2 with respect to the total weight of reinforcing fibers in the fiber-reinforced resin forming material, are 50 to 95%, characterized in that a ratio of the weight of the reinforcing fiber aggregate B1 with respect to the total weight of the reinforcing fiber aggregate B1 and the reinforcing fiber aggregate B2 is more than 4%.
A method for manufacturing a nitride semiconductor device , comprising the steps of: forming an AlNO buffer layer containing at least aluminum, nitrogen, and oxygen directly on a substrate ; and forming a nitride semiconductor layer on said AlNO buffer layer , wherein, in the step of forming said AlNO buffer layer , said AlNO buffer layer is formed by a reactive sputtering method using aluminum as a target in an atmosphere to and from which nitrogen gas and oxygen gas are continuously introduced and exhausted, and wherein said atmosphere is an atmosphere in which a ratio of a flow rate of said oxygen gas to a sum of a flow rate of said nitrogen gas and the flow rate of said oxygen gas is not more than 0.5%, and said substrate is made of a sapphire (Al 2 O 3 ) single crystal or a silicon carbide (SiC) single crystal. forming an AlNO buffer layer containing at least aluminum, nitrogen, and oxygen directly on a substrate ; and forming a nitride semiconductor layer on said AlNO buffer layer , wherein, in the step of forming said AlNO buffer layer , said AlNO buffer layer is formed by a reactive sputtering method using aluminum as a target in an atmosphere to and from which nitrogen gas and oxygen gas are continuously introduced and exhausted, and wherein said atmosphere is an atmosphere in which a ratio of a flow rate of said oxygen gas to a sum of a flow rate of said nitrogen gas and the flow rate of said oxygen gas is not more than 0.5%, and said substrate is made of a sapphire (Al 2 O 3 ) single crystal or a silicon carbide (SiC) single crystal.
Sending device (100;201) for standardized binary coded radio messages within the scope of a distributed messaging system of AIS (Automatic Identification System) type according to a particular messaging standard for such a distributed messaging system, in which system messages are sent directly between geographically proximate connected devices , as opposed to via a common central unit, which sending device comprises means for assembling and periodically broadcasting such messages of a predetermined type, which messages are readable by a receiving device (201;100) for such messages, which sending device and receiving device both are comprised in a respective connected device of the above specified type, wherein a message of said predetermined type, being a position report AIS message, is intended, according to the said standard, to carry a certain predetermined type of information, wherein the sending device is a type class A or class B AIS device, wherein the sending device further comprises a sensing means (131;231) arranged to detect that a message of the predetermined type is to be sent, wherein the message type comprises fields for that information as well as at least one buffer field which according to the said standard is not intended to carry any information, a message assembly means (132;232) arranged to assemble, digitally store and calculate a checksum for a message of said predetermined type, and a sending means (132;234) arranged to, upon the said detection by the sensing means, transmit the message in the form of a radio signal (120;220), wherein the sending device further comprises a data receiving means (137;237) arranged to receive data representing the value of a status variable, where the status variable is not related to the predetermined type of information, in that the sending device is arranged to insert the value of the status variable in digital form in the digital message stored in said buffer field before the checksum is calculated, and in that the sending device is arranged to insert the value of the state variable in the message in the said buffer field in several consecutive, periodical transmissions of one and the same type of message.
A communication quality enhancement method performed by a source base station , the method comprising: identifying voice over long term evolution, VoLTE, traffic based on a QoS class identifier, QCI, configuration; transmitting downlink packets corresponding to the VoLTE traffic to a terminal in a radio link control unacknowledged mode, RLC UM; storing a preconfigured number of last downlink packets of the packets transmitted to the terminal for retransmission before start of a handover from a source station to a target base station; and transmitting the preconfigured number of last downlink packets to the target base station , when the handover occurs. identifying voice over long term evolution, VoLTE, traffic based on a QoS class identifier, QCI, configuration; transmitting downlink packets corresponding to the VoLTE traffic to a terminal in a radio link control unacknowledged mode, RLC UM; storing a preconfigured number of last downlink packets of the packets transmitted to the terminal for retransmission before start of a handover from a source station to a target base station; and transmitting the preconfigured number of last downlink packets to the target base station , when the handover occurs.
A computer-implemented method for visualizing tissue of a subject, the method comprising: receiving a first series of first imaging modality frames generated by imaging a region of tissue of the subject according to a first imaging modality, and a first series of second imaging modality frames generated by imaging the region of tissue of the subject according to a second imaging modality; displaying the first series of first imaging modality frames in combination with the first series of second imaging modality frames; storing a plurality of first imaging modality frames of the first series of first image modality frames and a plurality of second imaging modality frames of the first series of second imaging modality frames in a memory; receiving a second series of first imaging modality frames generated by imaging the region of tissue of the subject according to the first imaging modality; and displaying the second series of first imaging modality frames in combination with one or more second imaging modality frames that are associated with the first series of second imaging modality frames for visualizing the region of tissue of the subject. receiving a first series of first imaging modality frames generated by imaging a region of tissue of the subject according to a first imaging modality, and a first series of second imaging modality frames generated by imaging the region of tissue of the subject according to a second imaging modality; displaying the first series of first imaging modality frames in combination with the first series of second imaging modality frames; storing a plurality of first imaging modality frames of the first series of first image modality frames and a plurality of second imaging modality frames of the first series of second imaging modality frames in a memory; receiving a second series of first imaging modality frames generated by imaging the region of tissue of the subject according to the first imaging modality; and displaying the second series of first imaging modality frames in combination with one or more second imaging modality frames that are associated with the first series of second imaging modality frames for visualizing the region of tissue of the subject.