mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an electrical plug, in which a cable with an EMC shielding braid and at least one line strand is mounted in a plug housing with a cable end piece, wherein the EMC shielding braid surrounded by a cable jacket is bent at a cable jacket border over a partial length in axial direction of the cable and is laid in axial direction outside of the cable jacket, wherein the partial length of the EMC shielding braid laid outside of the cable jacket is again at least once bent in itself after bending around the cable jacket border such that the EMC shielding braid is formed at least double-layered in radial direction outside of the cable jacket, wherein after bending the EMC shielding braid around the cable jacket border, a single-layered area of the EMC shielding braid is generated outside of the cable jacket, to which a clamping sleeve of the plug surrounding the area is applied before generating the double-layer, characterized in that the clamping sleeve is provided with an axial length, which is less than half of the partial length, wherein the clamping sleeve is arranged covering the free ends of braid filaments of the EMC shielding braid axially abutting on an abutment edge of a clamping socket of the plug separate from the clamping sleeve and is positioned axially recessed to the cable jacket border.
A cDNA comprising a polynucleotide sequence which encodes a heavy chain and a light chain of an antibody, or a functional fragment thereof, which specifically recognizes one or more polypeptides comprising an amino acid sequence described in any one of the following (a) to (i) and inhibits osteoclast formation and/or osteoclastic bone resorption: (a) an amino acid sequence represented by SEQ. ID NO: 2 in the sequence listing; (b) an amino acid sequence consisting of amino acid residues 21 to 328 of the amino acid sequence represented by SEQ. ID NO: 2 in the sequence listing; (c) an amino acid sequence consisting of amino acid residues 1 to 260 of the amino acid sequence represented by SEQ. ID NO. 2 in the sequence listing; (d) an amino acid sequence consisting of amino acid residues 21 to 260 of the amino acid sequence represented by SEQ. ID NO. 2 in the sequence listing; (e) an amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; (f) an amino acid sequence consisting of amino acid residues 21 to 341 of the amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; (g) an amino acid sequence consisting of amino acid residues 1 to 258 of the amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; (h) an amino acid sequence consisting of amino acid residues 21 to 258 of the amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; and (i) an amino acid sequence including substitution, deletion or addition of only one amino acid residue in the amino acid sequence described in (a) to (h). (a) an amino acid sequence represented by SEQ. ID NO: 2 in the sequence listing; (b) an amino acid sequence consisting of amino acid residues 21 to 328 of the amino acid sequence represented by SEQ. ID NO: 2 in the sequence listing; (c) an amino acid sequence consisting of amino acid residues 1 to 260 of the amino acid sequence represented by SEQ. ID NO. 2 in the sequence listing; (d) an amino acid sequence consisting of amino acid residues 21 to 260 of the amino acid sequence represented by SEQ. ID NO. 2 in the sequence listing; (e) an amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; (f) an amino acid sequence consisting of amino acid residues 21 to 341 of the amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; (g) an amino acid sequence consisting of amino acid residues 1 to 258 of the amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; (h) an amino acid sequence consisting of amino acid residues 21 to 258 of the amino acid sequence represented by SEQ. ID NO. 4 in the sequence listing; and (i) an amino acid sequence including substitution, deletion or addition of only one amino acid residue in the amino acid sequence described in (a) to (h).
A one-way container for a flowable material, such as blended concrete, plaster or color, comprising: a container structure with a material receiving room, an inner lining arranged inside of the material receiving room for receiving the material, an outlet nozzle, that is connected material-tight with the inner lining, and a passage through the container structure for removing material from the material receiving room, wherein the outlet nozzle protrudes through the passage, wherein the outlet nozzle is fastened to the container structure adjacent to the passage, characterized in that the outlet nozzle is also fastened to a wall- or bottom-plate of the container structure by means of a bonding agent, such as adhesive.
Compound of formula I, or a pharmaceutically acceptable salt thereof: wherein R is selected from linear or branched 4-(C 1 -C 6)alkyl, 4-trifluoromethanesulfonyloxy and 3-benzoyl and R 1 is (C 1 -C 6) alkyl for use in the prevention of diabetes or in delaying the onset and the progression of diabetes.
Method for designing a stage for an axial turbomachine having a guide blade ring and a rotor blade ring arranged downstream of the guide blade ring, having the steps of: - profiling a guide blade ring with guide blades arranged regularly around the circumference of the guide blade ring in accordance with aerodynamic and mechanical boundary conditions; - shifting at least one profile section of at least one of the guide blades in the circumferential direction such that the dividing angle for at least one guide blade and a guide blade arranged adjacent thereto varies over the blade height such that, when the axial turbomachine is in operation, the form of the wake formed downstream of the guide blade ring is irregular over the circumference of the axial turbomachine such that the vibration excitation of the rotor blades of the rotor blade ring is low. - profiling a guide blade ring with guide blades arranged regularly around the circumference of the guide blade ring in accordance with aerodynamic and mechanical boundary conditions; - shifting at least one profile section of at least one of the guide blades in the circumferential direction such that the dividing angle for at least one guide blade and a guide blade arranged adjacent thereto varies over the blade height such that, when the axial turbomachine is in operation, the form of the wake formed downstream of the guide blade ring is irregular over the circumference of the axial turbomachine such that the vibration excitation of the rotor blades of the rotor blade ring is low.
A temporarily reusable, or disposable, or single use, self-supporting flexible container (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000, 1100), comprising a product volume (150, 950, 1050, 1150), a dispenser (160, 260, 360, 460 560, 660, 760, 860, 960, 1060, 1260a-e, 1360a-d, 1460a-c) for a fluent product, in fluid communication with the product volume, and characterized in that the container further comprises: a structural support frame (140, 240, 340, 440, 540, 640, 740, 840, 940), configured to support the product volume, said structural support frame being a rigid structure formed of at least one or more structural support members; wherein each of the one or more structural support members is a rigid physical structure comprising one or more expanded structural support volumes, a structural support volume being a fillable space made from one or more flexible materials, wherein the space is configured to be at least partially filled with one or more expansion materials, which create tension in the one or more flexible materials; and a squeezable actuation panel, configured to deform the product volume, to dispense a fluent product through the dispenser. wherein the one or more structural support volumes of the structural support frame extend continuously around a periphery of the squeezable actuation panel. a structural support frame (140, 240, 340, 440, 540, 640, 740, 840, 940), configured to support the product volume, said structural support frame being a rigid structure formed of at least one or more structural support members; wherein each of the one or more structural support members is a rigid physical structure comprising one or more expanded structural support volumes, a structural support volume being a fillable space made from one or more flexible materials, wherein the space is configured to be at least partially filled with one or more expansion materials, which create tension in the one or more flexible materials; and a squeezable actuation panel, configured to deform the product volume, to dispense a fluent product through the dispenser. wherein the one or more structural support volumes of the structural support frame extend continuously around a periphery of the squeezable actuation panel.
A data processor for processing three-dimensional radiographic imaging data, the data processor comprising: an input for receiving said three-dimensional radiographic imaging data and for providing a motion signal indicative of a motion of an imaged subject during said imaging; an image segmenter for segmenting a body part of interest in a first image included in or derived from the three-dimensional radiographic imaging data; a gating function calculator for calculating a first set of temporal gating functions for voxels that belong to said body part of interest, as determined by said segmenter, taking the motion signal into account, and an image reconstructor for reconstructing said three-dimensional radiographic imaging data into a plurality of second reconstructed three-dimensional images, by taking said first set of temporal gating functions into account such as to associate each of the second reconstructed three-dimensional images with a corresponding phase of said motion, characterized in that said gating function calculator is adapted for calculating a second set of temporal gating functions for the voxels that do not belong to said body part of interest as determined by said image segmenter, taking said motion signal into account, and wherein said image reconstructor is adapted for reconstructing said three-dimensional radiographic imaging data into a plurality of third reconstructed three-dimensional images by taking said second set of temporal gating functions into account. an input for receiving said three-dimensional radiographic imaging data and for providing a motion signal indicative of a motion of an imaged subject during said imaging; an image segmenter for segmenting a body part of interest in a first image included in or derived from the three-dimensional radiographic imaging data; a gating function calculator for calculating a first set of temporal gating functions for voxels that belong to said body part of interest, as determined by said segmenter, taking the motion signal into account, and an image reconstructor for reconstructing said three-dimensional radiographic imaging data into a plurality of second reconstructed three-dimensional images, by taking said first set of temporal gating functions into account such as to associate each of the second reconstructed three-dimensional images with a corresponding phase of said motion, characterized in that said gating function calculator is adapted for calculating a second set of temporal gating functions for the voxels that do not belong to said body part of interest as determined by said image segmenter, taking said motion signal into account, and wherein said image reconstructor is adapted for reconstructing said three-dimensional radiographic imaging data into a plurality of third reconstructed three-dimensional images by taking said second set of temporal gating functions into account.
A battery cell assembly and battery circuitry, the battery cell assembly, comprising: a battery cell; a pouch enclosing the battery cell, the pouch comprising: an inner insulative jacket; an outer insulative jacket; and a conductive foil disposed between the inner and outer insulative jackets; a conductive lead electrically coupled to the conductive foil and extending through the outer insulative jacket, the conductive lead configured to electrically couple to the battery circuitry, the battery circuitry for monitoring a voltage on the conductive foil to determine a fault condition, the battery cell assembly further comprising a pair of electrode terminals (147, 149) coupled to the battery cell and extending from the pouch, and wherein the battery circuitry is coupled to the electrode terminals and is configured to monitor characteristics of the battery cell and to regulate charging and discharging of the battery cell based on the monitored characteristics of the battery cell. a battery cell; a pouch enclosing the battery cell, the pouch comprising: an inner insulative jacket; an outer insulative jacket; and a conductive foil disposed between the inner and outer insulative jackets; an inner insulative jacket; an outer insulative jacket; and a conductive foil disposed between the inner and outer insulative jackets; a conductive lead electrically coupled to the conductive foil and extending through the outer insulative jacket, the conductive lead configured to electrically couple to the battery circuitry, the battery circuitry for monitoring a voltage on the conductive foil to determine a fault condition, the battery cell assembly further comprising a pair of electrode terminals (147, 149) coupled to the battery cell and extending from the pouch, and wherein the battery circuitry is coupled to the electrode terminals and is configured to monitor characteristics of the battery cell and to regulate charging and discharging of the battery cell based on the monitored characteristics of the battery cell.
Rotary electric machine, in particular for a motor vehicle, having: - a stator having a body and a coil, the coil being provided with a plurality of phase windings formed by at least one conductor covered with an insulating layer, - an interconnector establishing an electrical link for at least two winding ends belonging to two distinct phase windings, wherein the interconnector has a body and at least one lower strut and one upper strut, said struts (51, 52) protruding axially relative to an axis of the electric machine, on either side of the body of the interconnector, the lower strut coming to bear against an axial end face of the stator body, the upper strut coming to bear against a bearing of the electric machine, in order to ensure the interconnector is fitted tightly into the electric machine, the lower strut and the upper strut each having a free first end and a second end connected to the body. - a stator having a body and a coil, the coil being provided with a plurality of phase windings formed by at least one conductor covered with an insulating layer, - an interconnector establishing an electrical link for at least two winding ends belonging to two distinct phase windings,
Method for setting a feedback power of a fundamental frequency clocked converter on the power supply side comprising a bridge circuit equipped with controllable semiconductor switches (T1, T2, T3, T4, T5, T6), - wherein the fundamental frequency clocking of the semiconductor switches (T1-T6) is effected depending on a desired direction of a power flow via the bridge circuit, and - wherein drive signals for semiconductor switches (T1-T6) are derived from the fundamental frequency clocking and a switch-on delay dependent on a system variable of the converter, characterized in that the switch-on delay is determined on the basis of a predetermined or predeterminable characteristic curve ( φ 1) depending on the respective system variable. - wherein the fundamental frequency clocking of the semiconductor switches (T1-T6) is effected depending on a desired direction of a power flow via the bridge circuit, and - wherein drive signals for semiconductor switches (T1-T6) are derived from the fundamental frequency clocking and a switch-on delay dependent on a system variable of the converter,
A medical fluid injection manifold comprising: a manifold housing having a first inlet port configured to receive a first pressurized medical fluid, a second inlet port configured to receive a second pressurized medical fluid, a first outlet port configured to discharge the first pressurized medical fluid, a second outlet port configured to discharge the second pressurized medical fluid and a bridge portion; a pressure sensor configured to measure a hemodynamic pressure of a patient; characterized in that it further comprises: a first valve configured to control fluid flow between the first inlet port, the first outlet port, and the pressure sensor; and a second valve configured to control fluid flow between the second inlet port and the second outlet port, wherein the bridge portion extends between the first valve and the second valve and the pressure sensor is positioned within the bridge portion of the manifold housing (80; and wherein the first valve and the second valve have a first operational position in which the first pressurized medical fluid is allowed to flow through the manifold housing, a second operational position in which the second pressurized medical fluid is allowed to flow through the manifold housing but the second pressurized medical fluid is blocked from communicating with the pressure sensor, and a third operational position in which fluid communication is open between the pressure sensor and the first outlet port. a manifold housing having a first inlet port configured to receive a first pressurized medical fluid, a second inlet port configured to receive a second pressurized medical fluid, a first outlet port configured to discharge the first pressurized medical fluid, a second outlet port configured to discharge the second pressurized medical fluid and a bridge portion; a pressure sensor configured to measure a hemodynamic pressure of a patient; characterized in that it further comprises: a first valve configured to control fluid flow between the first inlet port, the first outlet port, and the pressure sensor; and a second valve configured to control fluid flow between the second inlet port and the second outlet port, wherein the bridge portion extends between the first valve and the second valve and the pressure sensor is positioned within the bridge portion of the manifold housing (80; and wherein the first valve and the second valve have a first operational position in which the first pressurized medical fluid is allowed to flow through the manifold housing, a second operational position in which the second pressurized medical fluid is allowed to flow through the manifold housing but the second pressurized medical fluid is blocked from communicating with the pressure sensor, and a third operational position in which fluid communication is open between the pressure sensor and the first outlet port.
An acoustic panel assembly comprising a parent panel, an insert panel mounted to the parent panel, the insert panel having a sound absorbing insert main body, a rim body surrounding the insert body, wherein a sound transmitting insert skin is bonded to at least a portion of an outer surface of the main and rim bodies (30, 32) and a sound reflecting skin is bonded to a portion of an outer surface of the parent panel and bonded to a portion of an outer surface of the insert panel, characterized in that the parent panel includes an opening surrounded by a border portion, the border portion engaging an outer edge of the insert panel, the border portion and the edge forming an interlocking joint, wherein the border portion defines an annular groove which receives the outer edge of the insert panel and wherein the sound reflecting skin is bonded to a portion of the insert skin.
A contrast media injector system comprising: an injector module comprising: a drive source; and a first tablet docking station; an injector system control module in communication with said drive source; and a tablet computer connectable to said first tablet docking station and comprising at least one user input device in communication with said injector system control module, wherein said tablet computer is both dockable to and removable from said first tablet docking station, wherein said tablet computer becomes part of said injector module only when connected to said first tablet docking station, and wherein said injector system is configured to require a communication link between said tablet computer and said injector system control module to be active in order for said contrast media injector system to execute an injection protocol, wherein said injector module further comprises a powerhead, wherein said injector module further comprises a support, wherein said powerhead is movably interconnected with said support, wherein said powerhead comprises said injector system control module and a second user input device (306/52) in communication with said injector system control module and in addition to said tablet computer, and wherein said tablet computer blocks access to said second user input device (306/52) when connected to said first tablet docking station. an injector module comprising: a drive source; and a first tablet docking station; a drive source; and a first tablet docking station; an injector system control module in communication with said drive source; and a tablet computer connectable to said first tablet docking station and comprising at least one user input device in communication with said injector system control module, wherein said tablet computer is both dockable to and removable from said first tablet docking station, wherein said tablet computer becomes part of said injector module only when connected to said first tablet docking station, and wherein said injector system is configured to require a communication link between said tablet computer and said injector system control module to be active in order for said contrast media injector system to execute an injection protocol, wherein said injector module further comprises a powerhead, wherein said injector module further comprises a support, wherein said powerhead is movably interconnected with said support, wherein said powerhead comprises said injector system control module and a second user input device (306/52) in communication with said injector system control module and in addition to said tablet computer, and wherein said tablet computer blocks access to said second user input device (306/52) when connected to said first tablet docking station.