mhurhangee/patent-ind-claim-en huggingface dataset:
A mounting and dismounting device for a liner of a gas turbine wherein the front end of the liner is to be connected or disconnected to an inlet portion of a combustion gas passageway, comprising two inner rails , arranged essentially parallel one to the other, each one attachable to the turbine housing and each one having a first straight portion , two outer rails , arranged essentially parallel one to the other and attachable to the turbine housing , wherein the adjacent free ends of the inner and outer rails can be positioned in full alignment one to the other, wherein the inner and outer rails are adapted to support the liner to be moveable in its axial direction , characterized in that the inner rails comprise a second straight portion connected to the first straight portion through a curved portion .
A dietary fiber composition comprising a fiber composition comprising from 48% to 90% (w/w) glucomannan, from 5% to 20% (w/w) xanthan gum, and from 5% to 30% (w/w) alginate, and at least one lipid or blend thereof, wherein the lipid or blend thereof comprises at least 20% w/w of the total dietary fiber composition.
A mascara composition, comprising: (a) at least one jojoba butter; (b) at least one alkaline agent comprising at least one primary amino group and at least three hydroxyl groups; (c) at least one wax; and (d) water. (a) at least one jojoba butter; (b) at least one alkaline agent comprising at least one primary amino group and at least three hydroxyl groups; (c) at least one wax; and (d) water.
A high temperature superconductor, HTS, magnet system comprising an HTS field coil and a power supply, wherein: the HTS field coil comprises: a plurality of turns comprising HTS material and a metallic stabiliser; an electrically conductive material connecting the turns, such that current can be shared between turns via the electrically conductive material; characterised in that the power supply is configured to: during ramp-up of the HTS field coil, to provide a first current to the HTS field coil during ramp-down of the HTS field coil, to provide a second current to the HTS field coil opposite in direction to the first current. the HTS field coil comprises: a plurality of turns comprising HTS material and a metallic stabiliser; an electrically conductive material connecting the turns, such that current can be shared between turns via the electrically conductive material; a plurality of turns comprising HTS material and a metallic stabiliser; an electrically conductive material connecting the turns, such that current can be shared between turns via the electrically conductive material; characterised in that the power supply is configured to: during ramp-up of the HTS field coil, to provide a first current to the HTS field coil during ramp-down of the HTS field coil, to provide a second current to the HTS field coil opposite in direction to the first current. during ramp-up of the HTS field coil, to provide a first current to the HTS field coil during ramp-down of the HTS field coil, to provide a second current to the HTS field coil opposite in direction to the first current.
A securing apparatus for securing a valve lever in a set position, comprising a base body ; a sliding piece ; and a screw element , wherein the base body and the sliding piece each have a clamping surface ; wherein the sliding piece is displaceably supported at the base body along a longitudinal axis (L); wherein the screw element is rotatably supported at the base body and has a thread which is in engagement with a mating thread of the sliding piece so that the position of the sliding piece relative to the base body along the longitudinal axis (L) is thereby restricted to a maximum spacing between the clamping surfaces that can be changed by rotating the screw element in order to clamp the valve lever between the clamping surfaces ; wherein, depending on a rotational position of the screw element , one of possibly a plurality of blocking receivers formed at the screw element is aligned with one of possibly a plurality of blocking receivers formed at the base body so that a blocking element, in particular a cable, can engage into both blocking receivers in order to block the screw element in the corresponding rotational position, characterized in that the base body has a rail which extends in the direction of the longitudinal axis (L) and in which a guide section of the sliding piece is received and is displaceable in a guided manner; and in that the axis of rotation (D) about which the screw element is rotatably supported extends through the rail . wherein the base body and the sliding piece each have a clamping surface ; wherein the sliding piece is displaceably supported at the base body along a longitudinal axis (L); wherein the screw element is rotatably supported at the base body and has a thread which is in engagement with a mating thread of the sliding piece so that the position of the sliding piece relative to the base body along the longitudinal axis (L) is thereby restricted to a maximum spacing between the clamping surfaces that can be changed by rotating the screw element in order to clamp the valve lever between the clamping surfaces ; wherein, depending on a rotational position of the screw element , one of possibly a plurality of blocking receivers formed at the screw element is aligned with one of possibly a plurality of blocking receivers formed at the base body so that a blocking element, in particular a cable, can engage into both blocking receivers in order to block the screw element in the corresponding rotational position, characterized in that the base body has a rail which extends in the direction of the longitudinal axis (L) and in which a guide section of the sliding piece is received and is displaceable in a guided manner; and in that the axis of rotation (D) about which the screw element is rotatably supported extends through the rail .
A method performed by a terminal device , the method comprising: storing , in the terminal device , definitions for a first radio frame configuration defining a frame structure of a radio frame comprising at least one sub-frame dedicated only for downlink transmission; storing , in the terminal device , definitions for a second radio frame configuration defining a further frame structure of the radio frame comprising at least one flexible special sub-frame comprising an uplink part and a downlink part , wherein the uplink part carries at least control information, and wherein the at least one flexible special sub-frame is configurable either as a flexible downlink sub-frame comprising a further downlink part or as a flexible uplink sub-frame comprising a further uplink part ; receiving , from a network element of a cellular communication system, a radio signal carrying an information element indicating a radio frame configuration applied in a cell of the cellular communication system; and selecting , on the basis of the received information element, a radio frame configuration amongst a set of radio frame configurations comprising at least the first radio frame configuration and the second radio frame configuration and using the selected radio frame communication in communication with the network element in the cell, wherein the selected radio frame configuration employs at least one sub-carrier spacing that is different from another sub-carrier spacing employed by other radio frame configurations of the set of radio frame configurations. storing , in the terminal device , definitions for a first radio frame configuration defining a frame structure of a radio frame comprising at least one sub-frame dedicated only for downlink transmission; storing , in the terminal device , definitions for a second radio frame configuration defining a further frame structure of the radio frame comprising at least one flexible special sub-frame comprising an uplink part and a downlink part , wherein the uplink part carries at least control information, and wherein the at least one flexible special sub-frame is configurable either as a flexible downlink sub-frame comprising a further downlink part or as a flexible uplink sub-frame comprising a further uplink part ; receiving , from a network element of a cellular communication system, a radio signal carrying an information element indicating a radio frame configuration applied in a cell of the cellular communication system; and selecting , on the basis of the received information element, a radio frame configuration amongst a set of radio frame configurations comprising at least the first radio frame configuration and the second radio frame configuration and using the selected radio frame communication in communication with the network element in the cell, wherein the selected radio frame configuration employs at least one sub-carrier spacing that is different from another sub-carrier spacing employed by other radio frame configurations of the set of radio frame configurations.
A terminal apparatus configured to communicate with a base station apparatus by aggregating a plurality of cells, the terminal apparatus comprising: a control unit configured to: configure an uplink transmission timing group to which the cells belong and which includes a timing reference cell, on the basis of a configuration of a transmission timing group which includes a group identifier that identifies the uplink transmission timing group to which the cells belong and a transmission timing timer which indicates available time of an uplink transmission timing of the cells in the group, the configuration being notified by the base station apparatus , and release the configuration of the transmission timing group corresponding to the group, in a case where the timing reference cell used as a reference of the uplink transmission timing does not exist in the group due to a modification of a cell configuration on the basis of a message, wherein the message is transmitted from the base station apparatus and indicates an instruction of modification of the cells in the group. configure an uplink transmission timing group to which the cells belong and which includes a timing reference cell, on the basis of a configuration of a transmission timing group which includes a group identifier that identifies the uplink transmission timing group to which the cells belong and a transmission timing timer which indicates available time of an uplink transmission timing of the cells in the group, the configuration being notified by the base station apparatus , and release the configuration of the transmission timing group corresponding to the group, in a case where the timing reference cell used as a reference of the uplink transmission timing does not exist in the group due to a modification of a cell configuration on the basis of a message, wherein the message is transmitted from the base station apparatus and indicates an instruction of modification of the cells in the group.
A cross-fader comprising an operation device , the operation device comprising: a second base portion having a slide operation element ; a first base portion holding the second base portion ; and two dampers connecting the first base portion to the second base portion , wherein the second base portion is capable of oscillating, wherein the first base portion includes a first body portion in a form of a rectangular plate extending in a right-left direction and a pair of lateral sides extending upward from both ends of the first body portion , wherein the second base portion is provided in a space defined by the first body portion and the pair of lateral sides . characterized in that the dampers are substantially cylindrically formed of an elastically deformable material, wherein each of the dampers is fitted in a respective damper attachment hole of the first base portion , and in that each of two damper attachment pins of the second base portion is fitted in each of the dampers . a second base portion having a slide operation element ; a first base portion holding the second base portion ; and two dampers connecting the first base portion to the second base portion , wherein the second base portion is capable of oscillating, wherein the first base portion includes a first body portion in a form of a rectangular plate extending in a right-left direction and a pair of lateral sides extending upward from both ends of the first body portion , wherein the second base portion is provided in a space defined by the first body portion and the pair of lateral sides . characterized in that the dampers are substantially cylindrically formed of an elastically deformable material, wherein each of the dampers is fitted in a respective damper attachment hole of the first base portion , and in that each of two damper attachment pins of the second base portion is fitted in each of the dampers .
An isolated Methylobacterium NLS0017 (NRRL B-50931).
A method to produce an iron core comprising a laminate , the method comprising the steps of: - laminating a plurality of amorphous alloy thin strips without using an adhesive; - fastening the laminate on a metal board with a fastener comprising bolt and fastener penetrating the laminate ; - subjecting the laminate to heat treatment to obtain a laminate in which a plurality of nanocrystal thin strips is laminated and in which at least one of upper and lower surfaces of the laminate has a colored oxide film and an uncolored oxide film ; wherein the amorphous thin strips before heat treatment are made of iron alloy having a plate thickness of 10 μm to 60 μm and containing at least one of boron and silicon. - laminating a plurality of amorphous alloy thin strips without using an adhesive; - fastening the laminate on a metal board with a fastener comprising bolt and fastener penetrating the laminate ; - subjecting the laminate to heat treatment to obtain a laminate in which a plurality of nanocrystal thin strips is laminated and in which at least one of upper and lower surfaces of the laminate has a colored oxide film and an uncolored oxide film ;
Anchor device for anchoring loads in a substrate, with at least one first portion and one second portion and at least one pair of locking elements , wherein the first portion at least partially surrounds the second portion , wherein the locking element is connected movably to at least one of the portions such that the locking element is moved into an extended locking position by a first relative movement between the first and second portions and is moved into a retracted release position by a second relative movement between the first and second portions , characterized in that the second portion divides an interior of the first portion into two halves, in each of which a locking element is arranged, wherein each half has a first installation space , which lies in the side half adjacent to an opening assigned to the locking element , and a second installation space , which lies in the side half opposite the opening , and wherein, furthermore, the locking elements are configured such that, in the retracted release position, they extend from a central pivot point firstly into the second installation space and then further into the opposite first installation space as far as the assigned opening.
An apparatus comprising at least one processor and at least one memory including computer instructions, which when executed by the at least one processor, cause the apparatus to: transmit, by a user device to a base station , an initial uplink transmission; receive, by the user device from the base station, feedback indicating a continuing transmission mode to be used by the user device to perform a further transmission to the base station, the indicated continuing transmission mode being at least one of a grant-free uplink transmission mode and a grant-based uplink transmission mode that are both supported by the user device; and transmit, by the user device to the base station, a further transmission via the indicated continuing transmission mode, wherein causing the apparatus to transmit an initial uplink transmission comprises causing the apparatus to transmit an initial grant-free uplink transmission; and wherein the further transmission is at least one of: a re-transmission of a packet; a transmission of one or more remaining transport blocks or code blocks of the packet that started transmission by the initial uplink transmission; and a transmission of a new packet. transmit, by a user device to a base station , an initial uplink transmission; receive, by the user device from the base station, feedback indicating a continuing transmission mode to be used by the user device to perform a further transmission to the base station, the indicated continuing transmission mode being at least one of a grant-free uplink transmission mode and a grant-based uplink transmission mode that are both supported by the user device; and transmit, by the user device to the base station, a further transmission via the indicated continuing transmission mode, wherein causing the apparatus to transmit an initial uplink transmission comprises causing the apparatus to transmit an initial grant-free uplink transmission; and wherein the further transmission is at least one of: a re-transmission of a packet; a transmission of one or more remaining transport blocks or code blocks of the packet that started transmission by the initial uplink transmission; and a transmission of a new packet. a re-transmission of a packet; a transmission of one or more remaining transport blocks or code blocks of the packet that started transmission by the initial uplink transmission; and a transmission of a new packet.
A method for coating metallic surfaces of substrates, comprising or consisting of the steps of: I. supplying a substrate having a cleaned metallic surface optionally precoated with at least one coating of a pretreatment composition, II. contacting and coating the metallic surfaces with an aqueous composition in the form of a dispersion and/or suspension, III. optionally rinsing the organic coating and IV. drying and/or baking the organic coating or V. optionally drying the organic coating and carrying out coating with a similar or additional coating composition before drying and/or baking, wherein in step II the coating takes place with an aqueous composition in the form of a dispersion and/or suspension comprising 2.5 to 45 wt% of at least one nonionically stabilized binder and 0.1 to 2.0 wt% of a gelling agent, where the aqueous composition has a pH in the range from 0.5 to 7 and forms a coating based on an ionogenic gel with the cations dissolved out of the metallic surface in a pretreatment stage and/or during the contacting in step II. I. supplying a substrate having a cleaned metallic surface optionally precoated with at least one coating of a pretreatment composition, II. contacting and coating the metallic surfaces with an aqueous composition in the form of a dispersion and/or suspension, III. optionally rinsing the organic coating and IV. drying and/or baking the organic coating or V. optionally drying the organic coating and carrying out coating with a similar or additional coating composition before drying and/or baking,
An energy unit comprising: a housing ; a power source mounted in or on the housing and configured to provide electricity; a fluid chamber in the housing configured to hold a volume of fluid; an electrolysis element in the housing electrically connected to the power source and in fluid communication with the fluid chamber, the electrolysis chamber configured and operable to break the fluid down and to provide hydrogen gas; a hydrogen storage element in the housing connected to the electrolysis element and configure to store hydrogen in solid form by absorbing the hydrogen in a metal hydride material ; and a fuel cell in the housing, connected to the hydrogen storage element and operable to generate electricity using at least hydrogen supplied from the hydrogen storage element; characterized by a vibrating element configured to reciprocate a ram head at a resonance frequency of the metal hydride material for causing vibration in a crystalline lattice of the metal hydride while the ram head physically pushes the hydrogen into the metal hydride material . a housing ; a power source mounted in or on the housing and configured to provide electricity; a fluid chamber in the housing configured to hold a volume of fluid; an electrolysis element in the housing electrically connected to the power source and in fluid communication with the fluid chamber, the electrolysis chamber configured and operable to break the fluid down and to provide hydrogen gas; a hydrogen storage element in the housing connected to the electrolysis element and configure to store hydrogen in solid form by absorbing the hydrogen in a metal hydride material ; and a fuel cell in the housing, connected to the hydrogen storage element and operable to generate electricity using at least hydrogen supplied from the hydrogen storage element; characterized by a vibrating element configured to reciprocate a ram head at a resonance frequency of the metal hydride material for causing vibration in a crystalline lattice of the metal hydride while the ram head physically pushes the hydrogen into the metal hydride material .
A surgical instrument assembly , comprising: a shaft ; an end effector attached to said shaft; a firing member configured to move through said end effector during a firing stroke; characterised by a stretchable optical waveguide attached to said shaft and said firing member, wherein said stretchable optical waveguide is configured to stretch as said firing member is moved through said firing stroke; a light sensor configured to sense a change in light presence within said stretchable optical waveguide during said firing stroke; and a control circuit configured to monitor signals received from said light sensor to determine at least one parameter of said firing member during said firing stroke. an end effector attached to said shaft; a firing member configured to move through said end effector during a firing stroke; characterised by a stretchable optical waveguide attached to said shaft and said firing member, wherein said stretchable optical waveguide is configured to stretch as said firing member is moved through said firing stroke; a light sensor configured to sense a change in light presence within said stretchable optical waveguide during said firing stroke; and a control circuit configured to monitor signals received from said light sensor to determine at least one parameter of said firing member during said firing stroke.