mhurhangee/patent-ind-claim-en huggingface dataset:
An organ measuring tool assembly comprising: a grasping device having a handle assembly , an elongate body extending distally from the handle assembly , and first and second jaws supported on the elongate body , the first and second jaws being movable in response to actuation of the handle assembly between an open position and a closed position; and a measuring device having a coupling portion and a measuring portion , characterised in that the measuring portion comprises a circular or ring-shaped body that is formed of a resilient material, and the coupling portion being configured to releasably engage the first and second jaws of the grasping device to releasably couple the measuring device to the grasping device , wherein the measuring device defines a predetermined diameter, wherein the coupling portion includes a pair of spaced sleeves positioned on an outer periphery of the circular or ring-shaped body . a grasping device having a handle assembly , an elongate body extending distally from the handle assembly , and first and second jaws supported on the elongate body , the first and second jaws being movable in response to actuation of the handle assembly between an open position and a closed position; and a measuring device having a coupling portion and a measuring portion , characterised in that the measuring portion comprises a circular or ring-shaped body that is formed of a resilient material, and the coupling portion being configured to releasably engage the first and second jaws of the grasping device to releasably couple the measuring device to the grasping device , wherein the measuring device defines a predetermined diameter, wherein the coupling portion includes a pair of spaced sleeves positioned on an outer periphery of the circular or ring-shaped body .
Motor vehicle door handle arrangement with a handle , wherein the handle has at least one antenna chamber with an antenna arranged therein with a ferromagnetic core and a coil wound around the core , wherein the antenna has connection regions for coupling with contact pins to produce electrical contacts, wherein the antenna chamber has at least one recess in a wall for the passage of electroconductive contact pins , characterised in that the motor vehicle door handle arrangement has a connection piece produced by single or repeated plastic overmoulding of pre-fabricated electroconductive contact pins , and the connection piece is arranged in the recess of the wall of the antenna chamber in a form-fitting and/or force-fitting manner, sealing the antenna chamber , wherein the connection piece has an antenna chamber groove on the outer side, which groove forms a form-fit with the recess of the wall of the antenna chamber , and wherein the connection piece has a trough groove on the outer side, which forms a form-fit with a recess of the wall of a trough for receiving an electronic assembly, wherein the antenna chamber groove and the trough groove respectively span three outer sides of the connection piece and are oriented rotated 180° relative to one another.
An access network for communication with a wireless device ; the access network comprising: a plurality of antennas each configured to provide a cell for radio frequency communication with the wireless device a plurality of sets of optical elements configured for optical communication with the wireless device ; wherein the access network comprises a processor and a memory, said memory containing instructions executable by said processor whereby said apparatus is operative to: connect to the wireless device with both the radio frequency communication and optical communication, and connect to the wireless device with the radio frequency communication at least in a downlink direction, and connect to the wireless device with the optical communication at least in an uplink direction, and wherein the access network is configured to handover the wireless device between the radio frequency cells and between the sets of optical elements, wherein the handover of the wireless device between the sets of optical elements is controlled by the radio frequency communication. a plurality of antennas each configured to provide a cell for radio frequency communication with the wireless device a plurality of sets of optical elements configured for optical communication with the wireless device ; wherein the access network comprises a processor and a memory, said memory containing instructions executable by said processor whereby said apparatus is operative to: connect to the wireless device with both the radio frequency communication and optical communication, and connect to the wireless device with the radio frequency communication at least in a downlink direction, and connect to the wireless device with the optical communication at least in an uplink direction, and wherein the access network is configured to handover the wireless device between the radio frequency cells and between the sets of optical elements, wherein the handover of the wireless device between the sets of optical elements is controlled by the radio frequency communication. connect to the wireless device with both the radio frequency communication and optical communication, and connect to the wireless device with the radio frequency communication at least in a downlink direction, and connect to the wireless device with the optical communication at least in an uplink direction, and wherein the access network is configured to handover the wireless device between the radio frequency cells and between the sets of optical elements, wherein the handover of the wireless device between the sets of optical elements is controlled by the radio frequency communication.
A method for oxidizing sulfur in a sulfur containing hydrocarbon, comprising contacting a gaseous hydrocarbon to a catalytic composition in the presence of an oxygen containing gas, said catalytic composition comprising CuO in an amount ranging from 10 weight percent (wt.%) to 50 wt.%, ZnO in an amount ranging from 5 wt.% to less than 20 wt.%, Al 2 O 3 in an amount ranging from 20 wt.% to 70 wt.%, and at least one first promoter selected from the group consisting of a Group VIB metal oxide, wherein said catalytic composition has an X-ray amorphous oxide phase with a formula Cu x Zn 1-x Al 2 O 4 wherein x ranges from 0 to 1, crystalline ZnO and CuO.
A multistage turbomachine comprising: - a set of impellers including at least one impeller comprising an axial through hole and one impeller comprising an axial through hole , having a first portion with a first axial hole having a first cross-section (6B1) and a second portion with a second axial hole having a second cross-section (6B2), characterized by said first cross-section (6B1) being smaller than said second cross-section (6B2), wherein said first and second axial holes constitute said axial through hole ; - at least a first and a second axial tie rods located at least in part inside the axial through holes of the impeller and of the impeller , said first portion with a first cross-section (6B1) being coupled to an end the first axial tie rod and said second portion with a first cross-section (6B2) being coupled to an end of the second axial tie rod ; and - at least one nut ; wherein the at least one impeller is coupled to an end of said first axial tie rod by means of said nut and is directly coupled to an end of said second axial tie rod . - a set of impellers including at least one impeller comprising an axial through hole and one impeller comprising an axial through hole , having a first portion with a first axial hole having a first cross-section (6B1) and a second portion with a second axial hole having a second cross-section (6B2), characterized by said first cross-section (6B1) being smaller than said second cross-section (6B2), wherein said first and second axial holes constitute said axial through hole ; - at least a first and a second axial tie rods located at least in part inside the axial through holes of the impeller and of the impeller , said first portion with a first cross-section (6B1) being coupled to an end the first axial tie rod and said second portion with a first cross-section (6B2) being coupled to an end of the second axial tie rod ; and - at least one nut ; wherein the at least one impeller is coupled to an end of said first axial tie rod by means of said nut and is directly coupled to an end of said second axial tie rod .
A method of illuminating diurnal avians with artificial light sources , the method comprising: generating a first light having a first spectral content (305; 405; 505) between 380 nm (nanometers) and 780 nm; converting the first light to a second light comprising a second spectral content having at least two local maxima in relative intensity; and, supplying the second light comprising the second spectral content to a substantially enclosed habitat for diurnal avians located in a livestock facility ; characterized in that the second spectral content has at least one local maximum in relative intensity at a wavelength within 15 nm of a wavelength at which a predetermined characteristic visual spectral response of the diurnal avian has a local maximum, the at least one local maximum in relative intensity of the second spectral content is at a wavelength below 400 nm. generating a first light having a first spectral content (305; 405; 505) between 380 nm (nanometers) and 780 nm; converting the first light to a second light comprising a second spectral content having at least two local maxima in relative intensity; and, supplying the second light comprising the second spectral content to a substantially enclosed habitat for diurnal avians located in a livestock facility ; characterized in that the second spectral content has at least one local maximum in relative intensity at a wavelength within 15 nm of a wavelength at which a predetermined characteristic visual spectral response of the diurnal avian has a local maximum, the at least one local maximum in relative intensity of the second spectral content is at a wavelength below 400 nm.
Recapper for placing foils on laboratory sample containers , wherein the recapper comprises: - a foil magazine , - a sample container holder being distant from the foil magazine , the sample container holder being adapted to hold a sample container , - a lever arrangement comprising a number of levers , each lever comprising a respective foil transport element , and - a rotating device , - wherein each lever is attached to the rotating device such that with rotation of the rotating device the lever rotates between a first orientation and a second orientation, - wherein in the first orientation the foil transport element of the lever is positioned at the foil magazine for collecting a foil from the foil magazine , and - wherein in the second orientation the foil transport element of the lever is positioned at the sample container holder to place the foil on the sample container , characterized in that - the sample container holder is horizontally distant from the foil magazine , - wherein each foil transport element is embodied as a through-hole extending vertically through a corresponding lever with a landing for holding the foil inside the through-hole, and - wherein each lever is attached to the rotating device such that with rotation of the rotating device the lever rotates horizontally between the first orientation and the second orientation. - a foil magazine , - a sample container holder being distant from the foil magazine , the sample container holder being adapted to hold a sample container , - a lever arrangement comprising a number of levers , each lever comprising a respective foil transport element , and - a rotating device , - wherein each lever is attached to the rotating device such that with rotation of the rotating device the lever rotates between a first orientation and a second orientation, - wherein in the first orientation the foil transport element of the lever is positioned at the foil magazine for collecting a foil from the foil magazine , and - wherein in the second orientation the foil transport element of the lever is positioned at the sample container holder to place the foil on the sample container , characterized in that - the sample container holder is horizontally distant from the foil magazine , - wherein each foil transport element is embodied as a through-hole extending vertically through a corresponding lever with a landing for holding the foil inside the through-hole, and - wherein each lever is attached to the rotating device such that with rotation of the rotating device the lever rotates horizontally between the first orientation and the second orientation.
An expandable spherical structure for deployment in a blood vessel or other body lumen, the expandable spherical structure comprising: an open frame configured to assume a collapsed configuration and an expanded configuration; and a closed face carried by the open frame ; wherein the open frame is configured so as to permit substantially normal flow therethrough when the open frame is in its expanded configuration, and further wherein the closed face is configured so as to obstruct flow therethrough; wherein the open frame and the closed face are formed solely out of a single wire; and wherein the closed face has a higher strut density than the open frame. an open frame configured to assume a collapsed configuration and an expanded configuration; and a closed face carried by the open frame ; wherein the open frame is configured so as to permit substantially normal flow therethrough when the open frame is in its expanded configuration, and further wherein the closed face is configured so as to obstruct flow therethrough; wherein the open frame and the closed face are formed solely out of a single wire; and wherein the closed face has a higher strut density than the open frame.
A method of wireless communication at a user equipment, UE, comprising: receiving reference signals, RSs, from a base station ; determining , based on the RSs, a first channel state information, CSI, indicator indicating a first precoding configuration of the base station, the first precoding configuration optimized to at least one of improve signal power or reduce interference in an elevation dimension, wherein the first CSI indicator includes at least an elevation precoding matrix indicator, E-PMI; determining , based on the RSs, a second CSI indicator indicating a second precoding configuration of the base station, the second precoding configuration optimized to at least one of improve the signal power or reduce interference in an azimuth dimension, wherein the second CSI indicator includes at least a first azimuth precoding matrix indicator, A-PMI; transmitting, to the base station, a rank indicator and precoding type indicator, PTI, in a physical uplink control channel, PUCCH, type 6 CSI report at a first periodicity (P3); following the PUCCH type 6 report and within a period defined by the first periodicity, transmitting , to the base station, a first CSI report , including at least the first CSI indicator and the second CSI indicator in a PUCCH type 2a CSI report at a second periodicity (P2), wherein the first CSI report is transmitted when the PTI is 0; and following the first CSI report and within a period defined by the second periodicity, sending, to the base station, a PMI/CQI report including a second A-PMI and a wideband CQI at a third periodicity (PI). receiving reference signals, RSs, from a base station ; determining , based on the RSs, a first channel state information, CSI, indicator indicating a first precoding configuration of the base station, the first precoding configuration optimized to at least one of improve signal power or reduce interference in an elevation dimension, wherein the first CSI indicator includes at least an elevation precoding matrix indicator, E-PMI; determining , based on the RSs, a second CSI indicator indicating a second precoding configuration of the base station, the second precoding configuration optimized to at least one of improve the signal power or reduce interference in an azimuth dimension, wherein the second CSI indicator includes at least a first azimuth precoding matrix indicator, A-PMI; transmitting, to the base station, a rank indicator and precoding type indicator, PTI, in a physical uplink control channel, PUCCH, type 6 CSI report at a first periodicity (P3); following the PUCCH type 6 report and within a period defined by the first periodicity, transmitting , to the base station, a first CSI report , including at least the first CSI indicator and the second CSI indicator in a PUCCH type 2a CSI report at a second periodicity (P2), wherein the first CSI report is transmitted when the PTI is 0; and following the first CSI report and within a period defined by the second periodicity, sending, to the base station, a PMI/CQI report including a second A-PMI and a wideband CQI at a third periodicity (PI).
Vehicle with a support frame and a crane , which has at least one crane arm and one crane pillar , wherein the crane arm is connected to the crane pillar such that it can pivot about a pivot axis , wherein the crane pillar is connected to a flange plate , characterized in that the flange plate is welded to the support frame .
A spool valve arrangement comprising a spool having a spool end , the spool arranged for linear movement within a bore to regulate flow of fluid through the bore according to the linear position of the spool relative to the bore, the spool end arranged to be engaged, in use, by an eccentric drive member to cause the linear movement, the spool valve arrangement further comprising a sliding block component moveably attached to the spool end and arranged to engage with the eccentric drive member, in use, such that the eccentric drive member engages with the spool end via the sliding block component and the sliding block component moves relative to the spool to compensate for nonlinear movement of the eccentric drive member, characterised in that the sliding block component has a plane to plane contact area with the spool end .
Method of short-range wireless communication over radio waves between a client object and a server object , the method comprising implementation by a gateway acting as proxy between said client object and said server object, of steps of: (a) detection of advertising packets broadcast by said server object ; (b) set-up of a first connection between the gateway and said server object so as to block broadcast by said server object of advertising packets, and retrieval of identification information of said server object ; (c) set-up of a second connection between the gateway and said client object , using as identification information of the gateway said retrieved identification information of said server object , so as to simulate a connection with the server object in the client object , wherein step (c) comprises advertising packets of said server object being broadcast beforehand by the gateway . (a) detection of advertising packets broadcast by said server object ; (b) set-up of a first connection between the gateway and said server object so as to block broadcast by said server object of advertising packets, and retrieval of identification information of said server object ; (c) set-up of a second connection between the gateway and said client object , using as identification information of the gateway said retrieved identification information of said server object , so as to simulate a connection with the server object in the client object ,
A clad material for a negative electrode collector of a secondary battery, comprising: a Ni alloy layer made of a Ni alloy that contains 0.005 mass% or more and 0.50 mass% or less of C, optionally 3.0 mass% or more and 10.0 mass% or less of Nb, 0.50 mass% or less of inevitable impurities including Si, Mn, Al, Fe, Mg, O and N and the balance being Ni; and a pair of Cu layers respectively bonded to opposite surfaces of the Ni alloy layer and that contain 99 mass% or more of Cu. a Ni alloy layer made of a Ni alloy that contains 0.005 mass% or more and 0.50 mass% or less of C, optionally 3.0 mass% or more and 10.0 mass% or less of Nb, 0.50 mass% or less of inevitable impurities including Si, Mn, Al, Fe, Mg, O and N and the balance being Ni; and a pair of Cu layers respectively bonded to opposite surfaces of the Ni alloy layer and that contain 99 mass% or more of Cu.
A film deposition device for performing a PVD treatment, comprising: a vacuum chamber (2; 12) having a plurality of substrates (W, S; S') arranged therein; a substrate support member (3; 13) that is installed in the vacuum chamber (2; 12), supports the substrates (W, S; S'), and is capable of moving the substrates (W, S; S') in the vacuum chamber (2; 12); and a plurality of evaporation sources (4a to 4e; 14a to 14d) that are installed on an inner wall surface of the vacuum chamber (2; 12) and that are arranged in a line, wherein the plurality of evaporation sources (4a to 4e; 14a to 14d) include a first evaporation source (4a; 14a) which is located at one end in the direction in which the plurality of evaporation sources (4a to 4e; 14a to 14d) are arranged and a second evaporation source (4b; 14b) adjacent to the first evaporation source (4a; 14a), and the first evaporation source (4a; 14a) is disposed to further protrude toward the substrates (W, S; S') than the second evaporation source (4b; 14b), characterized in that the plurality of evaporation sources (4a to 4e; 14a to 14d) are arranged in a direction perpendicular to a direction in which the substrate support member (3; 13) is capable of moving the substrates (W, S; S'), and the substrate support member (3; 13) supports sets of the substrates (W, S; S') in a posture in which the sets of the substrates (W, S; S') extend in the direction in which the plurality of evaporation sources (4a to 4e; 14a to 14d) are arranged. a vacuum chamber (2; 12) having a plurality of substrates (W, S; S') arranged therein; a substrate support member (3; 13) that is installed in the vacuum chamber (2; 12), supports the substrates (W, S; S'), and is capable of moving the substrates (W, S; S') in the vacuum chamber (2; 12); and a plurality of evaporation sources (4a to 4e; 14a to 14d) that are installed on an inner wall surface of the vacuum chamber (2; 12) and that are arranged in a line, wherein the plurality of evaporation sources (4a to 4e; 14a to 14d) include a first evaporation source (4a; 14a) which is located at one end in the direction in which the plurality of evaporation sources (4a to 4e; 14a to 14d) are arranged and a second evaporation source (4b; 14b) adjacent to the first evaporation source (4a; 14a), and the first evaporation source (4a; 14a) is disposed to further protrude toward the substrates (W, S; S') than the second evaporation source (4b; 14b), characterized in that the plurality of evaporation sources (4a to 4e; 14a to 14d) are arranged in a direction perpendicular to a direction in which the substrate support member (3; 13) is capable of moving the substrates (W, S; S'), and the substrate support member (3; 13) supports sets of the substrates (W, S; S') in a posture in which the sets of the substrates (W, S; S') extend in the direction in which the plurality of evaporation sources (4a to 4e; 14a to 14d) are arranged.