mhurhangee/ep-ind-claims huggingface dataset:
A medium- or high-voltage electric switch provided with a mechanical device comprising: · a control rod; and · a movable resistance-insertion contact that is able to be secured temporarily to the control rod; the switch being characterized in that it has a flexible toroidal helical spring placed in a groove of the control rod and an energy accumulation system pressing against the movable resistance-insertion contact, which system is intended to be loaded until it reaches a certain value at which the flexible toroidal helical spring deforms under the force and enables the movable contact to be withdrawn. · a control rod; and · a movable resistance-insertion contact that is able to be secured temporarily to the control rod; the switch being characterized in that it has a flexible toroidal helical spring placed in a groove of the control rod and an energy accumulation system pressing against the movable resistance-insertion contact, which system is intended to be loaded until it reaches a certain value at which the flexible toroidal helical spring deforms under the force and enables the movable contact to be withdrawn.
A solid and fiber composite material for resisting penetration by a select penetrator, comprising a solids layer comprising a plurality of solid segments bonded by a bonding layer to a flexible fiber layer, characterized in that said solid segments are configured with a critical gap between said segments with a gap width not greater than the width of said select penetrator at a permitted depth of penetration into said composite material, the gap width being not less than 50% of the thickness of the solids layer, said critical gap comprising multiple intersecting gaps, where the intersections divide said gaps into gap segments, the gap segments having intersect angles of at least 60 degrees, each said gap segment being oriented within at least 30 degrees of perpendicular to a common threadline direction in said fiber layer, wherein the bonding layer between the solids layer and the flexible fiber layer is sufficient to assure the integrity of the critical gap during a strike by said select penetrator so that it executes a closing action against further penetration, and the solid and fiber composite takes a strike by said select penetrator on or near said gap in said solids layer in a manner that distributes the force of the strike first along edges of the solid layer abutting the gap segment, and hence across a substantial number of cross-axis fibers within the fiber layer which absorb the distributed force further along their length by their tensile strength.
Aluminium casting alloy, characterized in that said alloy is consisting of: 11.5-12% by weight of silicon, 0.3-0.7% by weight of iron, less than 0.2% by weight of copper, less than 0.45% by weight of manganese, less than 0.3% by weight of zinc, 0.4-0.7% by weight of magnesium, less than 0.25% by weight of titanium, 0.015-0,1 % by weight of chrome, less than 0.2% by weight of nickel, less than 0.025% by weight of strontium, less than 0.1% by weight of lead, less than 0.05% by weight of tin, and aluminium as the remainder. 11.5-12% by weight of silicon, 0.3-0.7% by weight of iron, less than 0.2% by weight of copper, less than 0.45% by weight of manganese, less than 0.3% by weight of zinc, 0.4-0.7% by weight of magnesium, less than 0.25% by weight of titanium, 0.015-0,1 % by weight of chrome, less than 0.2% by weight of nickel, less than 0.025% by weight of strontium, less than 0.1% by weight of lead, less than 0.05% by weight of tin, and aluminium as the remainder.
An assembly (1, 1'), comprising at least one busbar, which forms an interconnection with at least one flexible circuit carrier (3, 3'), wherein the flexible circuit carrier (3, 3') comprises at least one strip conductor and wherein the strip conductor is welded to the busbar, characterised in that the busbar is laminated between two circuit carriers (3, 3').
A deployment system for a stent graft to be deployed into an internal lumen of a patient, the deployment system comprising an introducer with the stent graft retained thereon, said stent graft including a side branch, the introducer having a proximal end intended to be deployed within a patient in use and a distal end intended to remain outside the patient and an auxiliary guide wire extending through the introducer from the distal end of the introducer to adjacent the proximal end of the introducer, the auxiliary guide wire being configured to be operable from outside the patient, for extension from the proximal end of the introducer after deployment of the introducer within the patient, and to be snareable from a side artery to assist with deployment of a portion of the stent graft into the side artery; characterised in that the auxiliary guide wire is retained in an auxiliary catheter extending to the distal end of the introducer and the auxiliary guide wire is movable with respect to the auxiliary catheter, and wherein the auxiliary catheter includes a bulge that may be gripped by diameter reducing ties provided on the side branch of the stent graft.
A separation and purification device comprising a separation device body, the separation and purification device further comprises a purification device for wet-components materials, the purification device comprises a material trough, a screw shaft, a motor and a reduction box; a sieve plate is disposed in the interior of the material trough along a length direction of the material trough, the sieve plate divides the interior of the material trough into an upper chamber and a lower chamber, and the sieve plate is provided therein with a plurality of through holes; the screw shaft is rotatably disposed in the upper chamber, a rotating shaft of the motor is connected to a power input shaft of the reduction box, and a power output shaft of the reduction box is connected to one end of the screw shaft; one end of the material trough is provided with a first discharge port in communication with the upper chamber, and the other end of the material trough is provided with a second discharge port in communication with the lower chamber; and a discharge port of the separation device body is located above a notch of the material trough, characterized in that, the separation and purification device is an extrusion separation and purification device, the separation device body is an extrusion separation device body and comprises a feed pusher assembly, a feed box assembly, an extrusion and discharge assembly, a main extrusion guiding assembly, and an anti-extrusion guiding assembly, wherein the main extrusion guiding assembly, the feed box assembly, the extrusion and discharge assembly, and the anti-extrusion guiding assembly are located on the same horizontal axis and are connected in sequence, the feed pusher assembly is connected to the feed box assembly and is disposed perpendicular to the above horizontal axis, and the feed pusher assembly and the feed box assembly cooperate to form a cylindrical pre-compression chamber; a material passage opening, which serves as a discharge port of the extrusion separation device body, is provided at a lower part of the discharge mechanism, and wet-component materials processed by the extrusion separation device body are conveyed to the purification device for purification.
A method for transmitting a wireless communication signal by a Base Station, BS, the method comprising: transmitting downlink control information including information on User Equipment-, UE-, specific Reference Signals, RSs, and a total number of UE-specific RSs corresponds to a number of layers; and transmitting at least one UE-specific RS using Code Division Multiplexing, CDM, and Frequency Division Multiplexing, FDM, and data on a Physical Downlink Shared Channel, PDSCH, based on the downlink control information, wherein a ratio of PDSCH Energy Per Resource Element, EPRE, to UE-specific RS EPRE within an Orthogonal Frequency Division Multiplexing, OFDM, symbol containing the UE-specific RS is determined to be -3 dB in case of the number of layers being three or four, based on the total number of UE-specific RSs and a spreading length of a code used for CDM. transmitting downlink control information including information on User Equipment-, UE-, specific Reference Signals, RSs, and a total number of UE-specific RSs corresponds to a number of layers; and transmitting at least one UE-specific RS using Code Division Multiplexing, CDM, and Frequency Division Multiplexing, FDM, and data on a Physical Downlink Shared Channel, PDSCH, based on the downlink control information, wherein a ratio of PDSCH Energy Per Resource Element, EPRE, to UE-specific RS EPRE within an Orthogonal Frequency Division Multiplexing, OFDM, symbol containing the UE-specific RS is determined to be -3 dB in case of the number of layers being three or four, based on the total number of UE-specific RSs and a spreading length of a code used for CDM.
A method for making a tubular device (10, 102, 210) sized for introduction into a body lumen, comprising: creating an endless band that includes a coating; cutting or otherwise separating the endless band into a plurality of narrower endless bands (82, 282) comprising a coated surface; folding a narrower endless band (82, 282) from the plurality of narrower endless bands (82, 282) such that the narrower endless band (82, 282) defines first and second ends (84, 284) and the coated surface is disposed inwardly; flattening and positioning the first and second ends (84, 284) of the narrower endless band (82, 282) such that the first and second ends are received over opposite ends of an elongate mandrel such that the coated surface is disposed inwardly towards the mandrel, the narrower endless band having a width being half or slightly less than half the circumference of the mandrel such that the narrower endless band wraps at least partially around the mandrel and such that longitudinal edges of the narrower endless band extend between the opposite ends of the mandrel without the longitudinal edges overlapping; and attaching a tubular structure around the narrower endless band while wrapped around the mandrel. creating an endless band that includes a coating; cutting or otherwise separating the endless band into a plurality of narrower endless bands (82, 282) comprising a coated surface; folding a narrower endless band (82, 282) from the plurality of narrower endless bands (82, 282) such that the narrower endless band (82, 282) defines first and second ends (84, 284) and the coated surface is disposed inwardly; flattening and positioning the first and second ends (84, 284) of the narrower endless band (82, 282) such that the first and second ends are received over opposite ends of an elongate mandrel such that the coated surface is disposed inwardly towards the mandrel, the narrower endless band having a width being half or slightly less than half the circumference of the mandrel such that the narrower endless band wraps at least partially around the mandrel and such that longitudinal edges of the narrower endless band extend between the opposite ends of the mandrel without the longitudinal edges overlapping; and attaching a tubular structure around the narrower endless band while wrapped around the mandrel.
A motion setting method of a standing and sitting motion-supporting robot that supports standing and sitting motions being at least one of a standing motion and a sitting motion of a care receiver, the method comprising: a base tracking path acquisition step of selecting an ideal tracking path of the standing and sitting motions; and a custom tracking path acquisition step of obtaining a custom tracking path by correcting the base tracking path of the standing and sitting motions in accordance with the position of a predetermined body portion of each care receiver. a base tracking path acquisition step of selecting an ideal tracking path of the standing and sitting motions; and a custom tracking path acquisition step of obtaining a custom tracking path by correcting the base tracking path of the standing and sitting motions in accordance with the position of a predetermined body portion of each care receiver.
A method for producing a polymeric composition, preferably dispersion, particularly to be used as or in an adhesive, wherein the method comprises producing, via polymerization, a copolymer obtainable by copolymerizing moieties (monomers) (i), (ii) and optionally (iii) according to the following definition and each being different from one another: (i) at least one first ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (i) determined according to standard DIN EN ISO 11357-2:2014 ranging from -100°C to -10°C, especially from -60 °C to -20 °C, (ii) a mixture comprising a monofunctional monomer represented by the following formula: and a difunctional monomer represented by the following formula: wherein the molar ratio of monofunctional monomer: difunctional monomer is at least 1: 1; (iii) optionally at least one second ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (iii) determined according to standard DIN EN ISO 11357-2:2014 ranging from 30 °C to 200 °C, especially from 40 °C to 150 °C. (i) at least one first ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (i) determined according to standard DIN EN ISO 11357-2:2014 ranging from -100°C to -10°C, especially from -60 °C to -20 °C, (ii) a mixture comprising a monofunctional monomer represented by the following formula: and a difunctional monomer represented by the following formula: wherein the molar ratio of monofunctional monomer: difunctional monomer is at least 1: 1; (iii) optionally at least one second ethylenically unsaturated monomer, the homopolymer of which has a glass transition temperature Tg (iii) determined according to standard DIN EN ISO 11357-2:2014 ranging from 30 °C to 200 °C, especially from 40 °C to 150 °C.
An apparatus for manufacture of tobacco industry products, the apparatus comprising a rolling unit comprising: a rotatable drum having a plurality of recesses formed in an outer surface of the drum to receive tobacco industry product components (5, 6); a roll hand spaced from the outer surface of the drum to define a space between the outer surface of the drum and the roll hand, within which space tobacco industry product components are rollable upon rotation of the drum; and a kicker bar disposed adjacent to the roll hand; wherein the kicker bar is moveable relative to the roll hand and in a direction towards and away from the drum during operation of the apparatus; wherein the kicker bar is biased towards the drum; wherein the kicker bar is moveable between an extended position in which a contact edge of the kicker bar is spaced from the drum by a first distance, and a deflected position in which the kicker bar is spaced from the drum by a second distance greater than the first distance, wherein the kicker bar is biased into the extended position; and wherein the position of the kicker bar relative to the roll hand in the extended position is adjustable. a rotatable drum having a plurality of recesses formed in an outer surface of the drum to receive tobacco industry product components (5, 6); a roll hand spaced from the outer surface of the drum to define a space between the outer surface of the drum and the roll hand, within which space tobacco industry product components are rollable upon rotation of the drum; and a kicker bar disposed adjacent to the roll hand; wherein the kicker bar is moveable relative to the roll hand and in a direction towards and away from the drum during operation of the apparatus; wherein the kicker bar is biased towards the drum; wherein the kicker bar is moveable between an extended position in which a contact edge of the kicker bar is spaced from the drum by a first distance, and a deflected position in which the kicker bar is spaced from the drum by a second distance greater than the first distance, wherein the kicker bar is biased into the extended position; and wherein the position of the kicker bar relative to the roll hand in the extended position is adjustable.
Fluid system for the safe operation of a fluidically controllable actuator, the system comprising a control device for the provision of control signals to a valve control, further comprising a valve control for the control of fluid control valves (6, 7; 106, 107), further comprising fluid control valves (6, 7; 106, 107), which are electrically connected to the valve control and designed for influencing fluid flows to the at least one actuator, further comprising sensor means (19, 20), which are designed for detecting an actuator state, in particular an actuator position, and for outputting sensor signals corresponding to the detected actuator state, and further comprising a monitoring device, which is designed for processing the sensor signals and for providing a monitoring signal to the valve control, characterised in that the control device is designed in accordance with a first safety category of a safety standard, and in that the valve control, the fluid control valves (6, 7; 106, 107), the sensor means (19, 20) and the monitoring device form a safe working system (29; 129) and are designed in accordance with a second safety category of the safety standard, the second safety category being at a higher level than the first safety category within the safety standard.
A carbon fiber composite material comprising carbon fibers coated with amorphous carbon, and a matrix resin, wherein: the matrix resin is polypropylene, and the carbon fibers coated with amorphous carbon is obtained by impregnating carbon fibers with a naphthoxazine resin solution, or by spraying a naphthoxazine resin solution to surfaces of carbon fibers, followed by heating at 200 °C or below, thereby carbonizing the resin in the solution. the matrix resin is polypropylene, and the carbon fibers coated with amorphous carbon is obtained by impregnating carbon fibers with a naphthoxazine resin solution, or by spraying a naphthoxazine resin solution to surfaces of carbon fibers, followed by heating at 200 °C or below, thereby carbonizing the resin in the solution.
Method for the gastight and liquid-tight installation of one or more joining oxygen-consuming electrodes (1, 1a) in an electrochemical half cell, characterized in that creased regions and/or cracked regions of the oxygen-consuming electrodes (1, 1a) and/or abutting edge regions and/or overlap regions of adjacent oxygen-consuming electrodes and occurring when the oxygen-consuming electrodes (1, 1a) are brought into juxtaposition with the frame of the gas compartment of the cell are covered with an additional film which has a composition identical to the oxygen-consuming electrodes (1, 1a) and the same silver-containing catalytically active material as the oxygen-consuming electrode (1, 1a), and is thinner than the layer thickness of the oxygen-consuming electrode (1, 1a), wherein the oxygen-consuming electrodes (1, 1a) and the film are based on a fluorinated polymer, and in that an electrically conductive flexible textile structure is present as an additional support element in the oxygen-consuming electrodes (1, 1a) and in the film.
A method for establishing a transmission of information between a sending mobile terminal (Tki) and at least one receiving mobile terminal (Tki) of a same group of terminals (Gk) belonging to a trunked radio network, the latter operating in direct mode and comprising a plurality of mobile terminals (Tki, Tji) organised into groups (Gk, Gj), comprising the following steps: E1/at least one terminal (Tki) of a given group (Gk) of terminals of said network, known as the first sending terminal, sends a transmission request (Tx) to inform the other terminals (Tki) of said group (Gk) of its intention to transmit information thereto by using resources allocated to its group, or even resources allocated to the other groups; E2/ at least some of the other terminals (Tki) of said group (Gk) monitor the sending of such a transmission request; E3/ each terminal (Tki) of said group (Gk) which received said transmission request (Tx), known as the receiving terminal, determines, from at least one predefined selection strategy, whether it accepts the transmission of information by said first sending terminal (Tki); E4/ in case said transmission is accepted, each receiving terminal (Tki) transmits to the other terminals (Tki) of its group (Gk) a return signal (Rx-A) comprising data relative to said first sending terminal (Tki), in particular its identity; E5/ after receiving said return signal, said first sending terminal (Tki) checks whether it meets the predetermined transmission conditions; and E6/ in the case where said transmission conditions are met, said first sending terminal (Tki) transmits said information to the other terminals (Tki) of its group (Gk) on at least one resource (ΔFk) allocated to said group (Gk). E1/at least one terminal (Tki) of a given group (Gk) of terminals of said network, known as the first sending terminal, sends a transmission request (Tx) to inform the other terminals (Tki) of said group (Gk) of its intention to transmit information thereto by using resources allocated to its group, or even resources allocated to the other groups; E2/ at least some of the other terminals (Tki) of said group (Gk) monitor the sending of such a transmission request; E3/ each terminal (Tki) of said group (Gk) which received said transmission request (Tx), known as the receiving terminal, determines, from at least one predefined selection strategy, whether it accepts the transmission of information by said first sending terminal (Tki); E4/ in case said transmission is accepted, each receiving terminal (Tki) transmits to the other terminals (Tki) of its group (Gk) a return signal (Rx-A) comprising data relative to said first sending terminal (Tki), in particular its identity; E5/ after receiving said return signal, said first sending terminal (Tki) checks whether it meets the predetermined transmission conditions; and E6/ in the case where said transmission conditions are met, said first sending terminal (Tki) transmits said information to the other terminals (Tki) of its group (Gk) on at least one resource (ΔFk) allocated to said group (Gk).