mhurhangee/ep-ind-claims huggingface dataset:
Bidirectional measuring head for dimensional and/or geometric checking of a mechanical piece, the measuring head includes: - a stationary frame; - a feeler adapted to contact the mechanical piece; - a kinematic motion assembly which is supported by the stationary frame and carries the feeler to enable the feeler to move along two measuring directions (D1, D2) which are perpendicular to each other; and - at least one sensor (3a, 3b) which is mounted on the kinematic motion assembly and is configured to detect the position of the feeler along at least one measuring direction (D1; D2); the measuring head is characterized in that the kinematic motion assembly comprises: - a first column, rigidly connected to the stationary frame, a second column, opposite to the first column, which carries the feeler and is configured to move along both the measuring directions (D1, D2) together with the feeler, and a third column and a fourth column each of which displaces almost exclusively along one of said first measuring direction and second measuring direction, said columns running substantially perpendicular to said two measuring directions (D1, D2); and - linking elements which link said columns by guiding their displacements. - a stationary frame; - a feeler adapted to contact the mechanical piece; - a kinematic motion assembly which is supported by the stationary frame and carries the feeler to enable the feeler to move along two measuring directions (D1, D2) which are perpendicular to each other; and - at least one sensor (3a, 3b) which is mounted on the kinematic motion assembly and is configured to detect the position of the feeler along at least one measuring direction (D1; D2); - a first column, rigidly connected to the stationary frame, a second column, opposite to the first column, which carries the feeler and is configured to move along both the measuring directions (D1, - linking elements which link said columns by guiding their displacements.
A control unit for a station-side optical line terminating apparatus that communicates with a plurality of user-side optical line terminating apparatuses (10-1, 10-2, 10-3) via a common optical fiber, wherein the control unit receives capability information concerning a power saving function from the user-side optical line terminating apparatus, detects the power saving function of the user-side optical line terminating apparatus, and supplies allowance information representing allowance concerning use of the power saving function in the user-side optical line terminating apparatus to a transceiver.
A uplink, UL, multi-user, MU, orthogonal frequency division multiple access, OFDMA transmission method of a Station, STA, in a wireless local area network, WLAN, system, the UL MU OFDMA transmission method comprising: receiving, by the STA, a downlink, DL, MU physical protocol data unit, PPDU, including a physical preamble and a data field from an Access Point, AP; and transmitting, by the STA, the ACK frame in response to the DL MU PPDU to the AP, wherein the data field includes at least one medium access control, MAC, protocol data unit, MPDU, the at least one MPDU includes a MAC header and a MAC frame body, wherein the MAC header includes acknowledge, ACK, indication information, wherein the ACK indication information includes frequency resource allocation information for the UL MU OFDMA, and wherein the ACK frame is transmitted on a frequency resource different from frequency resource in which ACK frames of other stations in response to the DL MU PPDU are transmitted. receiving, by the STA, a downlink, DL, MU physical protocol data unit, PPDU, including a physical preamble and a data field from an Access Point, AP; and transmitting, by the STA, the ACK frame in response to the DL MU PPDU to the AP, wherein the data field includes at least one medium access control, MAC, protocol data unit, MPDU, the at least one MPDU includes a MAC header and a MAC frame body, wherein the MAC header includes acknowledge, ACK, indication information, wherein the ACK indication information includes frequency resource allocation information for the UL MU OFDMA, and wherein the ACK frame is transmitted on a frequency resource different from frequency resource in which ACK frames of other stations in response to the DL MU PPDU are transmitted.
A semiconductor package comprising: a semiconductor substrate; a functional element that is disposed on one surface of the semiconductor substrate; a protection substrate, that is disposed above the functional element with a predetermined gap from a surface of the semiconductor substrate; a junction member that is disposed to surround the functional element and bonds the semiconductor substrate and the protection substrate together, the junction member being made of a resin material; an electrode pad formed on the one surface of the semiconductor substrate; and a through electrode electrically interconnecting an other surface of the semiconductor substrate with the electrode pad, wherein the functional element has a shape different from a shape of a plane A surrounded by the junction member in the surface of the semiconductor substrate, or is disposed in a region deviated from a central region of the plane A surrounded by the junction member in the surface of the semiconductor substrate, the junction member physically covers a surface of the electrode pad, and a is a minimum width of the junction member and b is a maximum width of the junction member, and b/a is in a range of 1 to 5. a semiconductor substrate; a functional element that is disposed on one surface of the semiconductor substrate; a protection substrate, that is disposed above the functional element with a predetermined gap from a surface of the semiconductor substrate; a junction member that is disposed to surround the functional element and bonds the semiconductor substrate and the protection substrate together, the junction member being made of a resin material; an electrode pad formed on the one surface of the semiconductor substrate; and a through electrode electrically interconnecting an other surface of the semiconductor substrate with the electrode pad, wherein the functional element has a shape different from a shape of a plane A surrounded by the junction member in the surface of the semiconductor substrate, or is disposed in a region deviated from a central region of the plane A surrounded by the junction member in the surface of the semiconductor substrate, the junction member physically covers a surface of the electrode pad, and a is a minimum width of the junction member and b is a maximum width of the junction member, and b/a is in a range of 1 to 5.
A deflector unit for use with a printing blade in printing a print medium through a printing screen, the deflector unit comprising: a body which is disposable adjacent a respective one of the ends of a printing blade; a deflector which is movably disposed to the body for a range of travel along a first axis and acts in use to contain print medium within a lateral extent of the printing blade; and a biasing element which acts to bias the deflector from the body along the first axis; characterised in that the biasing element is wholly enclosed within the body throughout the range of travel of the deflector; and wherein the deflector includes a guide member having a cross-sectional shape and dimension, and the body includes a guide recess in which the guide member is slidingly disposed, such that the deflector is constrained to move along the first axis in relation to the body, the guide channel having a cross-sectional shape and dimension which conforms to that of the guide member to prevent contamination of the biasing element by the print medium in use. a body which is disposable adjacent a respective one of the ends of a printing blade; a deflector which is movably disposed to the body for a range of travel along a first axis and acts in use to contain print medium within a lateral extent of the printing blade; and a biasing element which acts to bias the deflector from the body along the first axis; characterised in that the biasing element is wholly enclosed within the body throughout the range of travel of the deflector; and wherein the deflector includes a guide member having a cross-sectional shape and dimension, and the body includes a guide recess in which the guide member is slidingly disposed, such that the deflector is constrained to move along the first axis in relation to the body, the guide channel having a cross-sectional shape and dimension which conforms to that of the guide member to prevent contamination of the biasing element by the print medium in use.
A medical instrument comprising a tool, a catheter assembly, and a handle, by means of which the tool can be actuated, and which is a wire formation comprising at least two wire sections (11', 11", 12', 12", 13', 13"), and which is arranged at a distal end of the catheter assembly, which is formed from an outer tube and an inner tube, which is arranged coaxially thereto, wherein the outer tube and the inner tube are movable relative to one another, and wherein the medical instrument further has an optical waveguide, which extends through the inner tube and the exit end of which opens coaxially into a space, which is limited by the tool, and wherein the medical instrument does not have a guide wire for actuating the tool, characterised in that at least a first wire section (11', 12', 13') is fastened with a proximal end (11a, 12a, 13a) to the distal end of the inner tube, and at least a second wire section (11", 12", 13") is fastened with a proximal end (11b, 12b, 13b) to the distal end of the outer tube, and that the tool can be actuated to open and close by means of the relative movement between the outer tube and the inner tube.
A method performed by a terminal for enabling access to a radio communications network, wherein the terminal is served in a cell of the radio communications network, comprising - receiving (1501,1903) an indicator from a network node (12, 13), which indicator indicates a set of settings to use in the cell when being in connected mode and which are also applicable to idle mode operation, wherein the indicator indicates which policy set should be used within the cell, and wherein the settings relate to access of the radio communications network, and - configuring or using (1503,1905) the set of settings indicated by the received indicator when being different than a presently used set of settings. - receiving (1501,1903) an indicator from a network node (12, 13), which indicator indicates a set of settings to use in the cell when being in connected mode and which are also applicable to idle mode operation, wherein the indicator indicates which policy set should be used within the cell, and wherein the settings relate to access of the radio communications network, and - configuring or using (1503,1905) the set of settings indicated by the received indicator when being different than a presently used set of settings.
An electromagnetic wave beam splitter, comprising a functional layer made of at least one metamaterial sheet, wherein the metamaterial sheet comprises a sheet-like substrate and a plurality of artificial microstructures attached on the substrate; each of the metamaterial sheets has the same refractive index distribution; characterized in that the metamaterial sheet comprises a circular region and an annular region concentric to the circular region; a refractive index increases continuously as a radius increases and refractive indices at the same radius are the same within the circular region; and a refractive index decreases continuously as a radius increases and refractive indices are the same at the same radius within the annular region, wherein the artificial microstructures have the same geometric shape; sizes of the artificial microstructures increase continuously as the radius increases and sizes of the artificial microstructures at the same radius are the same within the circular region; and the sizes of the artificial microstructures decrease continuously as the radius increases and sizes of the artificial microstructures at the same radius are the same within the annular region, wherein the artificial microstructure is an axially symmetric structure.
A method of operating a communication device, comprising: - receiving, from a base station of a wireless network, a control message indicative of at least one retransmission parameter for a random access message which comprises a random access preamble, - transmitting, on a plurality of beams selected in accordance with the at least one retransmission parameter, a plurality of retransmissions of the random access message, wherein said transmitting of a successive one of the plurality of retransmissions is conditional on unsuccessful reception of a preceding one of the plurality of retransmissions, wherein the plurality of retransmissions of the random access message are transmitted at a plurality of transmission power levels, wherein the method further comprises: - selecting the plurality of transmission power levels based on a count of the plurality of beams, and wherein at least one of a count of the plurality of transmission power levels and a step size of the plurality of transmission power levels is determined based on the count of the plurality of beams. - receiving, from a base station of a wireless network, a control message indicative of at least one retransmission parameter for a random access message which comprises a random access preamble, - transmitting, on a plurality of beams selected in accordance with the at least one retransmission parameter, a plurality of retransmissions of the random access message, wherein said transmitting of a successive one of the plurality of retransmissions is conditional on unsuccessful reception of a preceding one of the plurality of retransmissions, wherein the plurality of retransmissions of the random access message are transmitted at a plurality of transmission power levels, wherein the method further comprises: - selecting the plurality of transmission power levels based on a count of the plurality of beams, and wherein at least one of a count of the plurality of transmission power levels and a step size of the plurality of transmission power levels is determined based on the count of the plurality of beams. wherein said transmitting of a successive one of the plurality of retransmissions is conditional on unsuccessful reception of a preceding one of the plurality of retransmissions, wherein the plurality of retransmissions of the random access message are transmitted at a plurality of transmission power levels, wherein the method further comprises: - selecting the plurality of transmission power levels based on a count of the plurality of beams, and - selecting the plurality of transmission power levels based on a count of the plurality of beams, and wherein at least one of a count of the plurality of transmission power levels and a step size of the plurality of transmission power levels is determined based on the count of the plurality of beams.
Chassis arrangement with potential equalisation for a motor vehicle, comprising a bridge element which connects at least two chassis elements (1, 2), arranged adjacent to each other, of different potential in an electrically conductive manner wherein the bridge element comprises a basic element and a retaining device for attaching a vehicle component wherein the basic element carries the retaining device and engages with the corresponding chassis element (1, 2) by way of at least one first and one second connection means from which the electrically conductive connection between the chassis elements (1, 2) results and characterised in that the first and second connection means (6, 7) are designed as terminal sections of the basic element which come to rest flat on the corresponding chassis element (1, 2) and are connected to said chassis element by a screw-nut connection.
An industrial fabric, comprising: a plurality of machine direction yarns, the MD yarns forming seam loops (24, 26) at first and second ends of the fabric; a first flap attached adjacent the first end and underlying a first portion of the fabric, the first flap including a first zipper track on an edge portion thereof; and a second flap attached adjacent the second end and underlying a second portion of the fabric, the second flap including a second zipper track on an edge portion thereof, characterized in that the second flap is able to stretch elastically such that the distance between its attachment to the second portion of the fabric and the second zipper track can increase when a load is applied to the second zipper track. a plurality of machine direction yarns, the MD yarns forming seam loops (24, 26) at first and second ends of the fabric; a first flap attached adjacent the first end and underlying a first portion of the fabric, the first flap including a first zipper track on an edge portion thereof; and a second flap attached adjacent the second end and underlying a second portion of the fabric, the second flap including a second zipper track on an edge portion thereof, characterized in that the second flap is able to stretch elastically such that the distance between its attachment to the second portion of the fabric and the second zipper track can increase when a load is applied to the second zipper track.
A security element for a security document, such as a bank note, identification card or the like, consisting of a translucent plastic layer having an opaque layer with gaps recognizable in transmission in the form of characters, patterns or the like, as well as a magnetic layer, characterized in that the magnetic layer is present in the form of mutually spaced apart magnetic regions which form a coding, and that the security element is subdivided at least into two partial regions (I, II, III) wherein in each partial region (I, II, III), the coding and the gaps are arranged parallel to each other, and that the partial regions (I, II, III) are arranged in different orientation to each other.
Method for controlling a total transmission power of a subscriber terminal of a UMTS radio communication system, in which (a) a first channel (E-DCH) is defined as an E-DCH channel and a second channel is defined as a DCH channel, (b) the subscriber terminal performs scaling of a transmission power of the first channel (E-DPDCH) independently of scaling of a transmission power of the at least one second channel (DPDCH) only (c) if an outer transmission control loop for the total transmission power is not oriented to the first channel (E-DCH). (a) a first channel (E-DCH) is defined as an E-DCH channel and a second channel is defined as a DCH channel, (b) the subscriber terminal performs scaling of a transmission power of the first channel (E-DPDCH) independently of scaling of a transmission power of the at least one second channel (DPDCH) only (c) if an outer transmission control loop for the total transmission power is not oriented to the first channel (E-DCH).
A method of seamlessly migrating an application at one stream control transmission protocol, SCTP, endpoint of an association to another SCTP endpoint (140', 140"), the method comprising: determining that the application is to be migrated from a first SCTP endpoint associated with a second SCTP endpoint to a third SCTP endpoint; and migrating the application from the first SCTP endpoint to the third SCTP endpoint at the SCTP layer without packet loss occurring as a result of the migration, the migrating comprising: - sending an SCTP migration request message from the first SCTP endpoint to the second SCTP endpoint which identifies the third SCTP endpoint; - receiving an SCTP response message at the first SCTP endpoint which indicates whether the second-end point successfully established an SCTP association with the third SCTP endpoint in response to the SCTP migration request message; and - terminating the SCTP association between the first and second SCTP endpoints if the second and third SCTP endpoints successfully established an SCTP association. determining that the application is to be migrated from a first SCTP endpoint associated with a second SCTP endpoint to a third SCTP endpoint; and migrating the application from the first SCTP endpoint to the third SCTP endpoint at the SCTP layer without packet loss occurring as a result of the migration, the migrating comprising: - sending an SCTP migration request message from the first SCTP endpoint to the second SCTP endpoint which identifies the third SCTP endpoint; - receiving an SCTP response message at the first SCTP endpoint which indicates whether the second-end point successfully established an SCTP association with the third SCTP endpoint in response to the SCTP migration request message; and - terminating the SCTP association between the first and second SCTP endpoints if the second and third SCTP endpoints successfully established an SCTP association. - sending an SCTP migration request message from the first SCTP endpoint to the second SCTP endpoint which identifies the third SCTP endpoint; - receiving an SCTP response message at the first SCTP endpoint which indicates whether the second-end point successfully established an SCTP association with the third SCTP endpoint in response to the SCTP migration request message; and - terminating the SCTP association between the first and second SCTP endpoints if the second and third SCTP endpoints successfully established an SCTP association.
A system for the treatment of targets under the skin of a patient, comprising: a laser device for emitting a first series of laser pulses towards an area of the skin of a patient, where a target to be reached by said laser pulses is located under said skin; a cooling system of said area of the skin by means of a cooling fluid; a first temperature sensor configured to measure a first temperature of said area of skin; a second temperature sensor configured to measure the temperature of said cooling fluid; wherein the system is configured to receive the signals from said first and second temperature sensors; wherein the system is configured to control the laser device to emit a first series of laser pulses having predetermined power, duration and spacing; wherein said first temperature sensor is configured to measure the temperature of said area of skin, following said first series of laser pulses; and wherein the system is configured to calculate a the- predicted temperature reached in said area of the skin following subsequent the- emission of a second series of pulses having said predetermined power, duration and spacing. a laser device for emitting a first series of laser pulses towards an area of the skin of a patient, where a target to be reached by said laser pulses is located under said skin; a cooling system of said area of the skin by means of a cooling fluid; a first temperature sensor configured to measure a first temperature of said area of skin; a second temperature sensor configured to measure the temperature of said cooling fluid; wherein the system is configured to receive the signals from said first and second temperature sensors; wherein the system is configured to control the laser device to emit a first series of laser pulses having predetermined power, duration and spacing; wherein said first temperature sensor is configured to measure the temperature of said area of skin, following said first series of laser pulses; and wherein the system is configured to calculate a the- predicted temperature reached in said area of the skin following subsequent the- emission of a second series of pulses having said predetermined power, duration and spacing.