mhurhangee/patent-ind-claim-en huggingface dataset:
An MEMS mirror arrangement for detecting an angular range of up to 180°, preferably up to 160°, comprising: a carrier substrate on which a mirror which oscillates about at least one axis is suspended, a transparent cover which is connected to the carrier substrate in a hermetically sealed manner and which comprises a semi-shell dome with an ellipsoidal cross-sectional surface, said dome rising above an essentially circular base surface, wherein the dome is provided with an inner dome shell and an outer dome shell which form boundary surfaces and the ratio of the height F to the diameter D of the inner and/or outer dome shell is between 0.4 and 0.6 and the difference between the ratio of the height F i to the diameter D i of the inner dome shell and the ratio of the height F a of to the diameter D a of the outer dome shell is within ±0.002, and compensation optics which are arranged outside the dome in a predefined beam path for an incident beam bundle, wherein the middle of the mirror coincides with the middle point of the base surface of the dome with a maximum tolerance of ±20% of the diameter of the base surface of the dome and wherein the compensation optics collimate the incident beam bundle in a manner such that a divergence or convergence of the beam bundle, caused by the boundary surfaces of the dome, is at least partly compensated after exit from the dome . a carrier substrate on which a mirror which oscillates about at least one axis is suspended, a transparent cover which is connected to the carrier substrate in a hermetically sealed manner and which comprises a semi-shell dome with an ellipsoidal cross-sectional surface, said dome rising above an essentially circular base surface, wherein the dome is provided with an inner dome shell and an outer dome shell which form boundary surfaces and the ratio of the height F to the diameter D of the inner and/or outer dome shell is between 0.4 and 0.6 and the difference between the ratio of the height F i to the diameter D i of the inner dome shell and the ratio of the height F a of to the diameter D a of the outer dome shell is within ±0.002, and compensation optics which are arranged outside the dome in a predefined beam path for an incident beam bundle, wherein the middle of the mirror coincides with the middle point of the base surface of the dome with a maximum tolerance of ±20% of the diameter of the base surface of the dome and wherein the compensation optics collimate the incident beam bundle in a manner such that a divergence or convergence of the beam bundle, caused by the boundary surfaces of the dome, is at least partly compensated after exit from the dome .
A method for determining the position of a node in a communication network, wherein said network comprises said node and a plurality of anchors, wherein said plurality of anchors comprises a first anchor and one or more other anchors, the method comprising: the node transmits a poll message to the plurality of anchors; in response to the poll message, only the first anchor of said plurality transmits a response message to the node; in response to the poll message, the first anchor transmits said response message to said other anchors; the other anchors receive the poll message transmitted by the node as well as the response message transmitted by the first anchor; a processing unit calculates the position of the node using timing information of the poll message transmission by the node, of the poll message reception by the plurality of anchors, of the response message transmission by the first anchor, and of the response message reception by the node and said other anchors. the node transmits a poll message to the plurality of anchors; in response to the poll message, only the first anchor of said plurality transmits a response message to the node; in response to the poll message, the first anchor transmits said response message to said other anchors; the other anchors receive the poll message transmitted by the node as well as the response message transmitted by the first anchor; a processing unit calculates the position of the node using timing information of the poll message transmission by the node, of the poll message reception by the plurality of anchors, of the response message transmission by the first anchor, and of the response message reception by the node and said other anchors.
An access method, wherein the method comprises: receiving, by a selection function entity, SFE, a non-access stratum, NAS, request message of user equipment, UE, for requesting access from a radio access network node RAN node; obtaining, by the SFE, a usage type of the UE from the NAS request message; and characterized by : selecting, by the SFE for the UE based on the usage type of the UE, a node that is in a network slice and that can serve the UE, wherein the node that is in the network slice and that can serve the UE corresponds to the usage type of the UE; directly sending, by the SFE, the NAS request message to selected node in the network slice. receiving, by a selection function entity, SFE, a non-access stratum, NAS, request message of user equipment, UE, for requesting access from a radio access network node RAN node; obtaining, by the SFE, a usage type of the UE from the NAS request message; and characterized by : selecting, by the SFE for the UE based on the usage type of the UE, a node that is in a network slice and that can serve the UE, wherein the node that is in the network slice and that can serve the UE corresponds to the usage type of the UE; directly sending, by the SFE, the NAS request message to selected node in the network slice. selecting, by the SFE for the UE based on the usage type of the UE, a node that is in a network slice and that can serve the UE, wherein the node that is in the network slice and that can serve the UE corresponds to the usage type of the UE; directly sending, by the SFE, the NAS request message to selected node in the network slice.
A tool shank having a longitudinal axis of rotation (A1) establishing a forward-to-rearward direction (D F , D R ) and comprising: a head receiving pocket at a forward end , and a plurality of chip flutes extending in the rearward direction (D R ) therefrom along the longitudinal axis of rotation (A1), the head receiving pocket having a support surface transverse to the longitudinal axis of rotation (A1), and a central recess , wherein: the central recess is formed in the support surface and extends in the rearward direction (D R ) therefrom, along the longitudinal axis of rotation (A1), the central recess has a plurality of resiliently displaceable abutment portions circumferentially alternating with and spaced apart by a plurality of intermediate portions , each abutment portion has a radially inward facing abutment surface , and each intermediate portion has an intermediate surface intersecting two circumferentially adjacent abutment surfaces , characterised in that the central recess does not intersect any of the plurality of chip flutes . the head receiving pocket having a support surface transverse to the longitudinal axis of rotation (A1), and a central recess , wherein: the central recess is formed in the support surface and extends in the rearward direction (D R ) therefrom, along the longitudinal axis of rotation (A1), the central recess has a plurality of resiliently displaceable abutment portions circumferentially alternating with and spaced apart by a plurality of intermediate portions , each abutment portion has a radially inward facing abutment surface , and each intermediate portion has an intermediate surface intersecting two circumferentially adjacent abutment surfaces , characterised in that the central recess does not intersect any of the plurality of chip flutes . the central recess is formed in the support surface and extends in the rearward direction (D R ) therefrom, along the longitudinal axis of rotation (A1), the central recess has a plurality of resiliently displaceable abutment portions circumferentially alternating with and spaced apart by a plurality of intermediate portions , each abutment portion has a radially inward facing abutment surface , and each intermediate portion has an intermediate surface intersecting two circumferentially adjacent abutment surfaces ,
An arm supporting exoskeleton configured to be coupled to a person , the arm supporting exoskeleton comprising: a shoulder base configured to be coupled to a trunk of the person , an arm link mechanism coupled to the shoulder base , the arm link mechanism comprising a proximal link and a distal link , the distal link configured to rotate relative to the proximal link along a first rotational axis substantially orthogonal to a gravity line when the person is standing upright, an arm coupler configured to couple the distal link of the arm link mechanism to an upper arm of the person , a tensile force generator configured to provide a torque to flex the distal link relative to the proximal link thereby producing a supporting force onto the person's upper arm , -mm wherein the tensile force generator comprises: a spring element , and a line element selected from the group consisting of a wire rope, a rope, a cable, a twine, a strap, a chain, or any combination thereof, characterized in that the exoskeleton further comprises a bracket coupled to one end of the line element and adjustable in location along the proximal link to adjust a distance between the line element and the first rotational axis , thereby adjusting the supporting force onto the person's upper arm . a shoulder base configured to be coupled to a trunk of the person , an arm link mechanism coupled to the shoulder base , the arm link mechanism comprising a proximal link and a distal link , the distal link configured to rotate relative to the proximal link along a first rotational axis substantially orthogonal to a gravity line when the person is standing upright, an arm coupler configured to couple the distal link of the arm link mechanism to an upper arm of the person , a tensile force generator configured to provide a torque to flex the distal link relative to the proximal link thereby producing a supporting force onto the person's upper arm , -mm wherein the tensile force generator comprises: a spring element , and a line element selected from the group consisting of a wire rope, a rope, a cable, a twine, a strap, a chain, or any combination thereof, a spring element , and a line element selected from the group consisting of a wire rope, a rope, a cable, a twine, a strap, a chain, or any combination thereof, characterized in that the exoskeleton further comprises a bracket coupled to one end of the line element and adjustable in location along the proximal link to adjust a distance between the line element and the first rotational axis , thereby adjusting the supporting force onto the person's upper arm .
A compound represented by the following General Formula: [General Formula] X-AQTGTGKT (in General Formula, A is alanine, Q is glutamine, T is threonine, G is glycine, and K is lysine, and the X is one or more selected from the group consisting of (in General Formula, A is alanine, Q is glutamine, T is threonine, G is glycine, and K is lysine, and the X is one or more selected from the group consisting of
A shoe assembly for an aerial cable transportation system comprising at least one supporting cable and at least one transport unit moved on the supporting cable ; wherein the shoe assembly comprises: - an inlet ; - an outlet ; - at least one seat extending from the inlet to the outlet to support the at least one supporting cable ; - at least one safety device to hold the at least one supporting cable at the corresponding at least one seat ; characterized in that each safety device comprises: - a supporting arm pivotable about a substantially vertical axis (A1) and passing at one end thereof at the side of the at least one seat ; and - at least one blocking head coupled to the supporting arm ; in which - in a first configuration, the supporting arm is orthogonal to and above the at least one seat and the at least one blocking head is at the at least one seat to hold the at least one supporting cable ; - in a second configuration the supporting arm is parallel to and at the side of the at least one seat so that the supporting arm and the at least one blocking head do not represent an obstacle to the transit of the at least one transport unit along the shoe assembly . - an inlet ; - an outlet ; - at least one seat extending from the inlet to the outlet to support the at least one supporting cable ; - at least one safety device to hold the at least one supporting cable at the corresponding at least one seat ; - a supporting arm pivotable about a substantially vertical axis (A1) and passing at one end thereof at the side of the at least one seat ; and - at least one blocking head coupled to the supporting arm ; in which - in a first configuration, the supporting arm is orthogonal to and above the at least one seat and the at least one blocking head is at the at least one seat to hold the at least one supporting cable ; - in a second configuration the supporting arm is parallel to and at the side of the at least one seat so that the supporting arm and the at least one blocking head do not represent an obstacle to the transit of the at least one transport unit along the shoe assembly .
A method for controlling an autonomous mobile robot adapted to autonomously navigate a robot mission area using sensors and a map; the method comprising: detecting obstacles and determining the position of detected obstacles based on measurement data obtained from the sensors; controlling the robot so that a collision with a detected obstacle is avoided, wherein the map comprises map data representing at least one virtual blocking area (S) which is taken into account when controlling the robot in the same way as a real detected obstacle, the method further comprising: storing the determined position of detected obstacles in the map; determining the position of the robot by the robot ; and is characterized by applying a path planning algorithm that plans a path to a destination point bypassing an obstacle stored in the map, wherein the virtual blocking area (S) is treated as an obstacle stored in the map. detecting obstacles and determining the position of detected obstacles based on measurement data obtained from the sensors; controlling the robot so that a collision with a detected obstacle is avoided, wherein the map comprises map data representing at least one virtual blocking area (S) which is taken into account when controlling the robot in the same way as a real detected obstacle, the method further comprising: storing the determined position of detected obstacles in the map; determining the position of the robot by the robot ; and is characterized by applying a path planning algorithm that plans a path to a destination point bypassing an obstacle stored in the map, wherein the virtual blocking area (S) is treated as an obstacle stored in the map. storing the determined position of detected obstacles in the map; determining the position of the robot by the robot ; and is characterized by applying a path planning algorithm that plans a path to a destination point bypassing an obstacle stored in the map, wherein the virtual blocking area (S) is treated as an obstacle stored in the map.
Method for sterilising interior surfaces of containers by treating them with a disinfectant agent, wherein the interior surfaces are treated with a sterilising application of energy in the form of UV light and/or in the form of ultrasonics and or with a disinfecting treatment medium which contains a chlorine compound, which is applied by means of nozzles onto the interior surfaces , the disinfectant agent is carbon dioxide (CO2) and is applied in fluid or aqueous form and/or in gaseous or vapour form by means of nozzles onto the interior surfaces , wherein, due to the treatment of the interior surfaces by the sterilising energy application and/or with the disinfecting treatment medium, the cell structure of germs, in particular the outer sheaths or membranes, are broken open and wherein the treatment of the inner surfaces with the disinfecting energy application and/or of the disinfecting treatment medium takes place before the treatment of the inner surfaces with the disinfectant agent.
An annular barrier for being mounted as part of a well tubular metal structure for providing zonal isolation in a small diameter borehole downhole for isolating a first zone from a second zone , the annular barrier having an inner face and comprising: - an expandable metal sleeve having a first end and a second end , an inner face and an outer face facing the borehole, - a first end part having a first end connected to the first end of the expandable metal sleeve and a second end for being mounted as part of the well tubular metal structure, the first end part having an inner face and - a second end part having a first end connected to the second end of the expandable metal sleeve and a second end for being mounted as part of the well tubular metal structure, the second end part having an inner face , wherein the first end of the first end part is connected end to end to the first end of the expandable metal sleeve, and the first end of the second end part is connected end to end to the second end of the expandable metal sleeve, the expandable metal sleeve and the first and second end parts being connected so that the inner face of the expandable metal sleeve and the inner faces of the first and second end parts constitute the inner face of the annular barrier, and wherein the second ends of the end parts are provided with male or female thread connections for being mounted to corresponding male or female thread connections of the well tubular metal structure. - an expandable metal sleeve having a first end and a second end , an inner face and an outer face facing the borehole, - a first end part having a first end connected to the first end of the expandable metal sleeve and a second end for being mounted as part of the well tubular metal structure, the first end part having an inner face and - a second end part having a first end connected to the second end of the expandable metal sleeve and a second end for being mounted as part of the well tubular metal structure, the second end part having an inner face ,
A coiled product dispensing kit comprising: - a coil of a filamentary product; - an enclosure surrounding said coil , and - a payout tube configured to pass a length of said filamentary product through it, the payout tube extending through an opening formed in said enclosure and having an entrance end inside an area surrounded by the coil and an exit end outside said enclosure , characterized in that the coiled product dispensing kit further comprises a connector assembly attached to an end of said filamentary product, the connector assembly being located outside said coil , wherein said enclosure surrounds said connector assembly and said payout tube is configured to be folded open lengthwise to release said length of said filamentary product. - a coil of a filamentary product; - an enclosure surrounding said coil , and - a payout tube configured to pass a length of said filamentary product through it, the payout tube extending through an opening formed in said enclosure and having an entrance end inside an area surrounded by the coil and an exit end outside said enclosure ,
A communication method, comprising: determining (S31) a modulation and coding scheme, MCS, index in a first MCS table, wherein the first MCS table comprises N MCS indexes, a value that is obtained by multiplying a code rate by 1024 and that corresponds to an MCS index X in the N MCS indexes is less than or equal to a first threshold, and the first threshold is 119, wherein X is an integer greater than or equal to 0, N is a positive integer, N is greater than or equal to X; and sending (S32) the MCS index to a terminal device; wherein the value corresponding to the MCS index X comprises: 30 or 40, a modulation scheme corresponding to the MCS index X is quadrature phase shift keying, QPSK, and a modulation order is 2, wherein the values 30 and 40 are comprised in the first MCS table; or the value corresponding to the MCS index X comprises: 60 or 80, a modulation scheme corresponding to the MCS index X is binary phase shift keying, BPSK, and a modulation order is 1, wherein the values 60 and 80 are comprised in the first MCS table. determining (S31) a modulation and coding scheme, MCS, index in a first MCS table, wherein the first MCS table comprises N MCS indexes, a value that is obtained by multiplying a code rate by 1024 and that corresponds to an MCS index X in the N MCS indexes is less than or equal to a first threshold, and the first threshold is 119, wherein X is an integer greater than or equal to 0, N is a positive integer, N is greater than or equal to X; and sending (S32) the MCS index to a terminal device; wherein the value corresponding to the MCS index X comprises: 30 or 40, a modulation scheme corresponding to the MCS index X is quadrature phase shift keying, QPSK, and a modulation order is 2, wherein the values 30 and 40 are comprised in the first MCS table; or the value corresponding to the MCS index X comprises: 60 or 80, a modulation scheme corresponding to the MCS index X is binary phase shift keying, BPSK, and a modulation order is 1, wherein the values 60 and 80 are comprised in the first MCS table.
A method of wireless communication performed by a base station , comprising: configuring an uplink transmission pattern related to an uplink transmission resource on multiple component carriers; and transmitting , to a user equipment, UE , information related to activating the uplink transmission pattern in a single scheduling message, characterized in that the single scheduling message is a downlink control information, DCI, message comprising information related to a limit on a specific absorption rate that is effective until a next scheduling message or a radio resource control, RRC, message and comprises information related to a limit on a specific absorption rate when the UE is in an RRC connected state; and receiving information on the multiple component carriers in one or more uplink symbols based at least in part on the uplink transmission pattern complying with the limit on the specific absorption rate. configuring an uplink transmission pattern related to an uplink transmission resource on multiple component carriers; and transmitting , to a user equipment, UE , information related to activating the uplink transmission pattern in a single scheduling message, characterized in that the single scheduling message is a downlink control information, DCI, message comprising information related to a limit on a specific absorption rate that is effective until a next scheduling message or a radio resource control, RRC, message and comprises information related to a limit on a specific absorption rate when the UE is in an RRC connected state; and receiving information on the multiple component carriers in one or more uplink symbols based at least in part on the uplink transmission pattern complying with the limit on the specific absorption rate.