mhurhangee/ep-ind-claims huggingface dataset:
Connector for connecting a catheter to a fluid transfer system comprising a main body with a tubular pin adapted to be inserted into an end portion of the catheter such as to provide a fluid connection between the catheter and the tubular pin, wherein a fixing means is movably connected to the main body, wherein the fixing means is adapted to fix the catheter to the connector when the fixing means is in a fixing position by clamping the end portion of the catheter between the tubular pin and the fixing means, wherein the fixing means comprises a first fixing element and a second fixing element that are each independently swiveling mounted to the main body, wherein the first fixing element and the second fixing element are mounted to the main body at two diametrically opposed positions with respect to the tubular pin, and wherein each fixing element (121, 122) in the fixing position encloses the tubular pin along its circumference by substantially 180° and, that the first fixing element and the second fixing element each comprise at least one connecting element (1212a, 1212b, 1222a, 1222b), wherein the at least one connecting element (1212a, 1212b) of the first fixing element is adapted to cooperate with the at least one connecting element (1222a, 1222b) of the second fixing element such as to maintain the fixing means in the fixing position. a fixing means is movably connected to the main body, wherein the fixing means is adapted to fix the catheter to the connector when the fixing means is in a fixing position by clamping the end portion of the catheter between the tubular pin and the fixing means, wherein the fixing means comprises a first fixing element and a second fixing element that are each independently swiveling mounted to the main body, wherein the first fixing element and the second fixing element are mounted to the main body at two diametrically opposed positions with respect to the tubular pin, and wherein each fixing element (121, 122) in the fixing position encloses the tubular pin along its circumference by substantially 180° and, that the first fixing element and the second fixing element each comprise at least one connecting element (1212a, 1212b, 1222a, 1222b), wherein the at least one connecting element (1212a, 1212b) of the first fixing element is adapted to cooperate with the at least one connecting element (1222a, 1222b) of the second fixing element such as to maintain the fixing means in the fixing position.
Machine for forming patterns on a nonwoven that includes a drum mounted so as to rotate, the interior of which communicates with a vacuum source, which drum is provided with slits on the lateral surface and is surrounded by an apertured sleeve made of a bronze, brass or stainless steel cloth forming non-perforating patterns in the form of bumps and hollows, characterized in that the cloth is coated with a coating of nickel.
A method, in a wireless device operating in a wireless communication network, the method comprising: receiving, from a first node serving the wireless device in the wireless communication network, a blacklist comprising one or more random access response identifiers, wherein the one or more random access response identifiers are cell or beam identities that correspond to neighboring nodes that are known to the first node; transmitting a random access preamble, to initiate random access to another node in the wireless communication network; receiving a random access response, in response to the transmitted random access preamble, wherein the random access response comprises a random access response identifier that identifies a node sending the random access response; comparing the random access response identifier included in the received random access response to the one or more random access response identifiers in the blacklist; establishing a connection to a second node in the wireless communication network, wherein the second node corresponds to the received random access response, responsive to determining that the random access response identifier included in the received random access response is not included in the blacklist; and sending, to the second node, an identifier for the first node or an identifier for a beam transmitted by the first node, or both. receiving, from a first node serving the wireless device in the wireless communication network, a blacklist comprising one or more random access response identifiers, wherein the one or more random access response identifiers are cell or beam identities that correspond to neighboring nodes that are known to the first node; transmitting a random access preamble, to initiate random access to another node in the wireless communication network; receiving a random access response, in response to the transmitted random access preamble, wherein the random access response comprises a random access response identifier that identifies a node sending the random access response; comparing the random access response identifier included in the received random access response to the one or more random access response identifiers in the blacklist; establishing a connection to a second node in the wireless communication network, wherein the second node corresponds to the received random access response, responsive to determining that the random access response identifier included in the received random access response is not included in the blacklist; and sending, to the second node, an identifier for the first node or an identifier for a beam transmitted by the first node, or both.
An atherectomy device that includes a handle coupled to a working tip via a plurality of axially disposed tubular members, the handle including: a housing that extends from a first housing end to a second housing end along a housing longitudinal axis, the second housing end being coupled to a first tubular member, the first tubular member surrounding at least a portion of a second tubular member, the second tubular member being coupled to a rotary member proximate the housing and disposed around a portion of a third tubular member, the third tubular member disposed around a portion of an axially moveable fourth tubular member; and a working tip spaced from the handle and extending along a working tip longitudinal axis, the working tip including: a first balloon coupled to the first tubular member, a rotary debulker coupled to the second tubular member, and a second balloon coupled to both the third tubular member and the axially moveable fourth tubular member such that the second balloon is disposed inside the third tubular member. a first balloon coupled to the first tubular member, a rotary debulker coupled to the second tubular member, and a second balloon coupled to both the third tubular member and the axially moveable fourth tubular member such that the second balloon is disposed inside the third tubular member.
Apparatus for moulding plastic preforms into plastic containers including at least one blow moulding station having a cavity, within which the plastic preforms may be expanded into plastic containers, wherein the blow moulding station has a bottom portion which delimits the cavity and wherein the bottom portion is detachably disposed on a carrier by means of a fastening mechanism (12, 14, 16, 18), wherein the fastening mechanism (12, 14, 16, 18) has at least one pin-like body disposed on a first fastening element, which pin-like body engages in a condition in which the bottom portion is fastened to the carrier in a groove which is provided in a second fastening element, wherein the pin-like body is slidable relative to the carrier in the groove for fastening the bottom portion and the groove is designed in such a way that an end section of the pin-like body may pass through the groove in a first region of the groove and cannot pass through the groove in a second region of the groove so that a fastening mechanism (4, 12, 14, 16, 18) is proposed, in which the two fastening elements (4, 18) are rotatable relative to one another between an open and a released state, wherein the pin-like body can be locked with respect to the groove and thus with respect to the second fastening element by this rotation, whereby a closure of the bottom part on its carrier is produced by this locking.
A method for adjusting a power mirror (152, 152a, 152b) supported by a tow vehicle attached to a trailer based on a position of the trailer allowing a driver of the tow vehicle to view an edge of the trailer, the method comprising: receiving, at a data processing hardware, sensor system data from a sensor system positioned on a rear portion of the tow vehicle; receiving, at the data processing hardware, a current mirror angle (α M) associated with the power mirror (152, 152a, 152b); determining, at the data processing hardware, an adjusted mirror angle (α MA) based on the current mirror angle (α M) and the received sensor system data; transmitting, from the data processing hardware to the power mirror (152, 152a, 152b), instructions to adjust the current mirror angle (α M) to the adjusted mirror angle (α MA) causing the power mirror (152, 152a, 152b) to maintain a trailer edge within a field of view of the driver when looking at the power mirror (152, 152a, 152b); and determining an axle length of the trailer comprising a distance between a hitch point between the trailer and the tow vehicle and a trailer axle, wherein the adjusted mirror angle (α MA) is also based on the axle length of the trailer. receiving, at a data processing hardware, sensor system data from a sensor system positioned on a rear portion of the tow vehicle; receiving, at the data processing hardware, a current mirror angle (α M) associated with the power mirror (152, 152a, 152b); determining, at the data processing hardware, an adjusted mirror angle (α MA) based on the current mirror angle (α M) and the received sensor system data; transmitting, from the data processing hardware to the power mirror (152, 152a, 152b), instructions to adjust the current mirror angle (α M) to the adjusted mirror angle (α MA) causing the power mirror (152, 152a, 152b) to maintain a trailer edge within a field of view of the driver when looking at the power mirror (152, 152a, 152b); and determining an axle length of the trailer comprising a distance between a hitch point between the trailer and the tow vehicle and a trailer axle, wherein the adjusted mirror angle (α MA) is also based on the axle length of the trailer.
System for managing at least one comfort parameter of a building, comprising: - several measurement sensors for measuring at least one quantity (G 1, G 2) relative to the comfort parameter and for sending values (V 1, V 2) according to measurements of this quantity, - at least one calculator device for compilation of said values originating from the sensors and for sending setpoints (U opt, C d), - several building system units each of which comprises at least one acting apparatus acting at least on said one comfort parameter and a controller receiving at least one of said setpoints (C d) and commanding the acting apparatus according to this setpoint, characterized in that it comprises operating diagrams of the building system units, the calculator device comprising at least one memory for storing said operating diagrams, means for performing reception and communication of these operating diagrams to said memory, and at least one calculator unit for calculating said setpoints (C d) from values (V 1, V 2) according to these measurements, optimizing on at least one optimization criterion according to said operating diagrams. - several measurement sensors for measuring at least one quantity (G 1, G 2) relative to the comfort parameter and for sending values (V 1, V 2) according to measurements of this quantity, - at least one calculator device for compilation of said values originating from the sensors and for sending setpoints (U opt, C d), - several building system units each of which comprises at least one acting apparatus acting at least on said one comfort parameter and a controller receiving at least one of said setpoints (C d) and commanding the acting apparatus according to this setpoint,
A metal poster comprising a rectangular sheet metal plate having an obverse face, a rear face and a peripheral selvage, image indicia imprinted on the obverse face, the image indicia being surrounded by a relief printed frame (20, 22) imprinted on the obverse face, the relief printed frame (20, 22) being relief printed of a plurality of layers of UV curable ink, the relief printed frame (20, 22) having inner edges (28, 32, 36) separating the image indicia from the relief printed frame (20, 22), characterised in the relief printed frame (20, 22) having a fold line (30, 34, 38) spaced outwardly from each inner edge (28, 32, 36), the relief printed frame (20, 22) being bent along each fold line (30, 34, 38) such that portions of the relief printed frame (20, 22) between the inner edges (28, 32, 36) and the fold lines (30, 34, 38) appear on the obverse face and portions of the relief printed frame (20, 22) extending beyond the fold lines (30, 34, 38) overlie the rear face.
Method for managing a plant for looping annular anchoring structures including: arranging a plurality of annular anchoring structures coupled to respective separation elements; separating each annular anchoring structure from the respective separation element for subjecting it to a looping process and obtaining a plurality of looped annular anchoring structures; coupling each looped annular anchoring structure to a separation element; moving said separation elements inside the plant for looping so that: - along a feeding section, the separation elements are fed, coupled to respective annular anchoring structures, - along a transfer section, the separation elements are transferred from a separation station, arranged along said feeding section, to a coupling station arranged along a moving-apart section, - along said moving-apart section, the separation elements are moved apart, coupled to respective looped annular anchoring structures. arranging a plurality of annular anchoring structures coupled to respective separation elements; separating each annular anchoring structure from the respective separation element for subjecting it to a looping process and obtaining a plurality of looped annular anchoring structures; coupling each looped annular anchoring structure to a separation element; moving said separation elements inside the plant for looping so that: - along a feeding section, the separation elements are fed, coupled to respective annular anchoring structures, - along a transfer section, the separation elements are transferred from a separation station, arranged along said feeding section, to a coupling station arranged along a moving-apart section, - along said moving-apart section, the separation elements are moved apart, coupled to respective looped annular anchoring structures. - along a feeding section, the separation elements are fed, coupled to respective annular anchoring structures, - along a transfer section, the separation elements are transferred from a separation station, arranged along said feeding section, to a coupling station arranged along a moving-apart section, - along said moving-apart section, the separation elements are moved apart, coupled to respective looped annular anchoring structures.
A method comprising: receiving, at a heterogeneous network, mobility data in a virtual layer for a device operating in the heterogeneous network, comprising a plurality of cells having at least a non-cellular cell type and a cellular cell type, wherein the heterogeneous network provides device classification and assignment of cell types; classifying, via the heterogeneous network, the device into a mobility class among a plurality of mobility classes based on the mobility data in the virtual layer defined by boundaries between the plurality of mobility classes, the mobility class having a boundary, for the device to yield a cell classification comprising at least a preferred cell type and an acceptable cell type; assigning, by the heterogeneous network and based on the mobility class, the device to a first cell (204, 206, 208, 210, 212, 214, 220) in the heterogeneous network, wherein the first cell can be a preferred cell type or an acceptable cell type; monitoring, by the heterogeneous network, at least one of a distribution of devices and load levels across a group of cells (204, 206, 208, 210, 212, 214, 220) of the heterogeneous network to yield an analysis; and based on the analysis, adjusting, by the heterogeneous network, the boundary of the mobility class. receiving, at a heterogeneous network, mobility data in a virtual layer for a device operating in the heterogeneous network, comprising a plurality of cells having at least a non-cellular cell type and a cellular cell type, wherein the heterogeneous network provides device classification and assignment of cell types; classifying, via the heterogeneous network, the device into a mobility class among a plurality of mobility classes based on the mobility data in the virtual layer defined by boundaries between the plurality of mobility classes, the mobility class having a boundary, for the device to yield a cell classification comprising at least a preferred cell type and an acceptable cell type; assigning, by the heterogeneous network and based on the mobility class, the device to a first cell (204, 206, 208, 210, 212, 214, 220) in the heterogeneous network, wherein the first cell can be a preferred cell type or an acceptable cell type; monitoring, by the heterogeneous network, at least one of a distribution of devices and load levels across a group of cells (204, 206, 208, 210, 212, 214, 220) of the heterogeneous network to yield an analysis; and based on the analysis, adjusting, by the heterogeneous network, the boundary of the mobility class.
An optical boroaluminate glass article comprising: from greater than or equal to 10.0 mol% to less than or equal to 30.0 mol% Al 2 O 3; from greater than or equal to 10.0 mol% to less than or equal to 55.0 mol% CaO; from greater than or equal to 10.0 mol% to less than or equal to 25.0 mol% B 2 O 3; from greater than or equal to 0.0 mol% to less than or equal to 30.0 mol% SiO 2; and from greater than or equal to 1.0 mol% to less than or equal to 20.0 mol% refractive index raising components selected from the group consisting of La 2 O 3, Nb 2 O 5, TiO 2, ZrO 2, Ta 2 O 5, HfO 2 and combinations thereof, wherein the optical boroaluminate glass article has a refractive index, measured at 589.3 nm, of greater than or equal to 1.62, and the optical boroaluminate glass article has a density of less than or equal to 4.00 g/cm 3. from greater than or equal to 10.0 mol% to less than or equal to 30.0 mol% Al 2 O 3; from greater than or equal to 10.0 mol% to less than or equal to 55.0 mol% CaO; from greater than or equal to 10.0 mol% to less than or equal to 25.0 mol% B 2 O 3; from greater than or equal to 0.0 mol% to less than or equal to 30.0 mol% SiO 2; and from greater than or equal to 1.0 mol% to less than or equal to 20.0 mol% refractive index raising components selected from the group consisting of La 2 O 3, Nb 2 O 5, TiO 2, ZrO 2, Ta 2 O 5, HfO 2 and combinations thereof, wherein the optical boroaluminate glass article has a refractive index, measured at 589.3 nm, of greater than or equal to 1.62, and the optical boroaluminate glass article has a density of less than or equal to 4.00 g/cm 3.
A microorganism identification method comprising steps of: a) obtaining a mass spectrum through mass spectrometry of a sample including microorganisms; b) reading, from the mass spectrum, a mass-to-charge ratio m/z of a peak associated with a marker protein; and c) identifying which bacterial species of the genus Campylobacter are included in the microorganisms in the sample based on the mass-to-charge ratio m/z, wherein the marker protein is at least one of the ribosomal proteins, L23, S14, L36, S11 (Me), and L32. a) obtaining a mass spectrum through mass spectrometry of a sample including microorganisms; b) reading, from the mass spectrum, a mass-to-charge ratio m/z of a peak associated with a marker protein; and c) identifying which bacterial species of the genus Campylobacter are included in the microorganisms in the sample based on the mass-to-charge ratio m/z, wherein
A progenitor cell of mesodermal lineage, wherein the cell (a) expresses detectable levels of CD29, CD44, CD73, CD90, CD105, CD271, CD120a (tumour-necrosis factor -alpha Receptor 1), CD120b (TNF-alpha Receptor 2), CD50 (Intercellular Adhesion Molecule-3, ICAM-3), CD54 (ICAM-1), CD58 (Lymphocyte function-associated antigen-1, LFA-1), CD62E (E-selectin), CD62L (L-selectin), CD62P (P-selectin), CD106 (Vascular cell adhesion protein, VCAM-1), CD102 (ICAM-2), CD166 (Activated leukocyte cell adhesion molecule), CD104 (Beta 4 integrin), CD 123 (Interleukin-3 Receptor), CD 124 (Interleukin-4 Receptor), CD 126 (Interleukin-6 Receptor), CD 127 (Interleukin-7 Receptor) and fibroblast growth factor receptor (FGFR) and (b) does not express detectable levels of CD14, CD34 and CD45.
A method for processing the surface of workpieces in a processing machine, in which various workpieces are presented in at least one storage device provided therefor and in which various processing routines are deposited in at least one control unit provided therefor, comprising at least the steps: - detecting at least one geometric parameter of the presented workpieces in the form of measured data by means of at least one suitable sensor unit provided therefor, - evaluating the measured data respectively detected for the various workpieces in the control unit by using at least one suitable evaluation and control routine provided therefor, - selecting a respectively suitable processing routine for the workpieces depending on the evaluated measured data of the respective workpieces by means of the at least one evaluation and control routine and - performing the processing routine selected for the workpieces in a processing container by means of workpiece receivers provided therefor, wherein for performing the processing routine the workpieces are held by the workpiece receivers, wherein measured data for all of the presented workpieces are initially detected, evaluated and stored in a memory unit provided therefor, by simultaneously detecting one respective position of presentation of the workpieces adopted in the storage device, wherein one respective processing routine is selected for each presented workpiece depending on the associated evaluated measured data and wherein each workpiece is assigned to a workpiece receiver and the selected processing routine is performed in the processing container by means of the respectively assigned workpiece receiver. - detecting at least one geometric parameter of the presented workpieces in the form of measured data by means of at least one suitable sensor unit provided therefor, - evaluating the measured data respectively detected for the various workpieces in the control unit by using at least one suitable evaluation and control routine provided therefor, - selecting a respectively suitable processing routine for the workpieces depending on the evaluated measured data of the respective workpieces by means of the at least one evaluation and control routine and - performing the processing routine selected for the workpieces in a processing container by means of workpiece receivers provided therefor, wherein for performing the processing routine the workpieces are held by the workpiece receivers, wherein measured data for all of the presented workpieces are initially detected, evaluated and stored in a memory unit provided therefor, by simultaneously detecting one respective position of presentation of the workpieces adopted in the storage device, wherein one respective processing routine is selected for each presented workpiece depending on the associated evaluated measured data and wherein each workpiece is assigned to a workpiece receiver and the selected processing routine is performed in the processing container by means of the respectively assigned workpiece receiver.