mhurhangee/ep-ind-claims huggingface dataset:
A locking device comprising a first member removably connected to a second member by connecting means and a fastener device for preventing a motion of said first member with respect to said second member; said fastener device comprising a bolt member (6, 20) that has at least two operating positions: a locking position, in which said bolt member (6, 20) interferes with the movement of said first member with respect to said second member, and a release position, in which said bolt member (6, 20) does not interfere with said movement; said locking device comprising an actuation screw that controls the position of said fastener device, wherein said fastener device comprises a slider that can slide in a slider seat formed in said first member and is actuated by said screw; said screw being arranged in a screw seat formed in said first member, said slider engaging, in said locking position, a seat formed at an edge of said second member; said locking device being characterized by said slider performing a translational motion that is actuated by the rotation of said screw; said screw comprising an actuation pin that acts in a slot of said slider.
Process for growth of graphene on a silicon carbide substrate by sublimation of silicon from the silicon carbide substrate surface, the process comprising positioning a silicon carbide substrate in a crucible and arranging said crucible in a reaction chamber, controlling the pressure and heating to the growth temperature, growing graphene on the surface of the substrate at a temperature above 1400°C and at an inert gas pressure of between 600 and 1100 mbar, wherein said heating is conducted in at least a first heating stage and a second heating stage, the first heating stage being conducted at a first heating rate up to a temperature of at least 1200 °C, and the second heating stage being conducted after the first heating stage and at a second heating rate which is faster than the first heating rate.
In a second root node (112, 314) along a second label switching path, LSP (106, 350), a computer program product comprising computer executable instructions stored on a non-transitory medium that when executed by a processor cause the second root node (112, 314) to perform the following: establish a second data plane based failure detection session having an inactive status along the second LSP (106, 350) with at least one leaf node (121, 122, 123, 310); receive a predetermined number of notification messages from the at least one leaf node (121, 122, 123, 310), wherein the predetermined number of notification messages indicate the failure of a first data plane based failure detection session along a first LSP (105, 340) from a first root node (111, 304) to the at least one leaf node (121, 122, 123, 310); and upon receipt of the predetermined number of notification messages, change the status of the second data plane based failure detection session to active along the second LSP (106, 350), send a first message with an active flag along the second LSP (106, 350) to the at least one leaf node (121, 122, 123, 310) and forward traffic along the second LSP (106, 350) to the at least one leaf node (121, 122, 123, 310), wherein the second data plane based failure detection session comprises the first message. establish a second data plane based failure detection session having an inactive status along the second LSP (106, 350) with at least one leaf node (121, 122, 123, 310); receive a predetermined number of notification messages from the at least one leaf node (121, 122, 123, 310), wherein the predetermined number of notification messages indicate the failure of a first data plane based failure detection session along a first LSP (105, 340) from a first root node (111, 304) to the at least one leaf node (121, 122, 123, 310); and upon receipt of the predetermined number of notification messages, change the status of the second data plane based failure detection session to active along the second LSP (106, 350), send a first message with an active flag along the second LSP (106, 350) to the at least one leaf node (121, 122, 123, 310) and forward traffic along the second LSP (106, 350) to the at least one leaf node (121, 122, 123, 310), wherein the second data plane based failure detection session comprises the first message.
A device (1, 30, 32, 38, 47, 55) for stimulating a given tissue with electrical impulses that is abuttable against body surfaces of organisms, comprising at least one puncturing apparatus (9, 27, 33, 39, 48), which has at least one electrode (16, 31, 36, 42), the puncturing apparatus (9, 27, 33, 39, 48) provided to penetrate into an organism after abutting the device (1, 30, 32, 38, 47, 55) against the body surface of the organism, and to take a final position where the electrode (16, 31, 36, 42) contacts the tissue of the organism; at least one position determination apparatus provided to determine a position of at least one part of the device (1, 30, 32, 38, 47, 55) abutting against the body surface in relation to at least one part of the tissue; and at least one signal output means for outputting signals; characterized in that the position determination apparatus is further configured to check the determined position whether it is suitable for transferring the puncturing apparatus (9, 27, 33, 39, 48) into the final position, wherein the position determination apparatus recognizes the determined position as suitable if a route from an intended injection site for the puncturing apparatus (9, 27, 33, 39, 48) to the tissue is free of obstacles, and wherein the device (1, 30, 32, 38, 47, 55) is configured to output at least one signal in dependence of a result of the check.
Connector device for a catheter, especially for a peripheral venous catheter, comprising a) a main body (1, 101) with a main body infusion channel (2, 102) and through-flow element (7b, 107) having sterilizing effect and forming at least a part of the main body infusion channel (2, 102), wherein the through-flow element (7b, 107) has an inlet opening (20, 120) and a liquid-tight circumferential wall (19, 119), and b) an attachment body (10, 110) having an attachment body infusion channel (16, 116) and being detachably fixed on the main body (1, 101), characterized in that c) the through-flow element (7b, 107) undergoes a sealing press fit with the attachment body infusion channel (16, 116) when the attachment body (10, 110) is fixed to the main body (1, 101), d) the through-flow element (7b, 107) has an end wall (18, 118) opposite to the inlet opening (20, 120) the end wall (18, 118) having at least one outlet opening (8, 21, 121) and e) at least one insert body is arranged inside the through-flow element (7b, 107) the insert body having sterilizing effect and traversing the cross section of the main body infusion channel given in the direction of flow. a) a main body (1, 101) with a main body infusion channel (2, 102) and through-flow element (7b, 107) having sterilizing effect and forming at least a part of the main body infusion channel (2, 102), wherein the through-flow element (7b, 107) has an inlet opening (20, 120) and a liquid-tight circumferential wall (19, 119), and b) an attachment body (10, 110) having an attachment body infusion channel (16, 116) and being detachably fixed on the main body (1, 101), c) the through-flow element (7b, 107) undergoes a sealing press fit with the attachment body infusion channel (16, 116) when the attachment body (10, 110) is fixed to the main body (1, 101), d) the through-flow element (7b, 107) has an end wall (18, 118) opposite to the inlet opening (20, 120) the end wall (18, 118) having at least one outlet opening (8, 21, 121) and e) at least one insert body is arranged inside the through-flow element (7b, 107) the insert body having sterilizing effect and traversing the cross section of the main body infusion channel given in the direction of flow.
Electrical vehicle comprising an energy transfer device configured for electrically connecting the electrical vehicle to a charging station, whereby the energy transfer device comprises a lengthwise link and a crosswise link each having an upper end and lower end, characterised in that the lower ends are arranged on the electrical vehicle slidably in crosswise direction of the electrical vehicle, and in that the upper end of the crosswise link is connected to the lengthwise link between its ends such that by sliding the lower ends of the lengthwise link and the crosswise link towards each other the upper end of the lengthwise link is moved away from the electrical vehicle for connecting to the charging station. the energy transfer device comprises a lengthwise link and a crosswise link each having an upper end and lower end, characterised in that the lower ends are arranged on the electrical vehicle slidably in crosswise direction of the electrical vehicle, and in that the upper end of the crosswise link is connected to the lengthwise link between its ends such that by sliding the lower ends of the lengthwise link and the crosswise link towards each other the upper end of the lengthwise link is moved away from the electrical vehicle for connecting to the charging station.
A millimeter-wave, mmWave, assembly comprising a first mmWave module, a second mmWave module, and a connector configured to releasably interconnect said first mmWave module and said second mmWave module, said first mmWave module comprising a first substrate and a mmWave radiofrequency integrated circuit, RFIC,, said second mmWave module comprising a second substrate and a mmWave antenna array, said connector being configured to transmit at least one signal between said mmWave RFIC and said mmWave antenna array when said first mmWave module and said second mmWave module are interconnected; characterised in that said connector comprising a first connector element connected to said first mmWave module, a second connector element connected to said second mmWave module and a third connector element, wherein at least one of said first connector element, said second connector element and said third connector element comprises a spring structure; said first connector element configured to releasably engage a first section of said third connector element and said second connector element configured to releasably engage a second section of said third connector element. said first mmWave module comprising a first substrate and a mmWave radiofrequency integrated circuit, RFIC,, said second mmWave module comprising a second substrate and a mmWave antenna array, said connector being configured to transmit at least one signal between said mmWave RFIC and said mmWave antenna array when said first mmWave module and said second mmWave module are interconnected; characterised in that said connector comprising a first connector element connected to said first mmWave module, a second connector element connected to said second mmWave module and a third connector element, wherein at least one of said first connector element, said second connector element and said third connector element comprises a spring structure; said first connector element configured to releasably engage a first section of said third connector element and said second connector element configured to releasably engage a second section of said third connector element.
A current collector made from ferritic iron alloy for electrically connecting and mechanically supporting a set of individual, planar SOFC high-temperature fuel cells which comprise an anode, electrolyte and cathode, operate at temperatures of between 700°C and 900°C and are equipped with a solid electrolyte, characterized in that the ferritic iron alloy consists of, besides standard impurities, 22 to 32% by weight of Cr, 1 to 10% by weight of Mo, and 0.01 to 1.5% by weight of yttrium and/or rare earths and/or oxides thereof, optionally 0.1 to 3% by weight of one or more metals of the group consisting of Nb, Ti, Ni and Mn, remainder Fe, wherein the content of Fe is more than 68% by weight.
A method for determining a target nucleotide sequence, the method comprising: a) generating a next-generation sequencing library by: 1) amplifying a target nucleotide sequence using a primer comprising a target specific sequence and a universal sequence A to provide an amplicon, wherein the amplicon may be single stranded or double stranded; and 2) ligating a first adaptor oligonucleotide comprising a universal sequence B to the amplicon to form an adaptor-amplicon; and 3) generating a ladder fragment library comprising a plurality of fragments for use as a next-generation sequencing library, wherein the ladder fragment library is generated using a 3'-O-alkynyl nucleotide analog; and b) determining a nucleotide sequence of a fragment of the ladder fragment library, said nucleotide sequence comprising a nucleotide subsequence of the target nucleotide sequence. a) generating a next-generation sequencing library by: 1) amplifying a target nucleotide sequence using a primer comprising a target specific sequence and a universal sequence A to provide an amplicon, wherein the amplicon may be single stranded or double stranded; and 2) ligating a first adaptor oligonucleotide comprising a universal sequence B to the amplicon to form an adaptor-amplicon; and 3) generating a ladder fragment library comprising a plurality of fragments for use as a next-generation sequencing library, wherein the ladder fragment library is generated using a 3'-O-alkynyl nucleotide analog; and 1) amplifying a target nucleotide sequence using a primer comprising a target specific sequence and a universal sequence A to provide an amplicon, wherein the amplicon may be single stranded or double stranded; and 2) ligating a first adaptor oligonucleotide comprising a universal sequence B to the amplicon to form an adaptor-amplicon; and 3) generating a ladder fragment library comprising a plurality of fragments for use as a next-generation sequencing library, wherein the ladder fragment library is generated using a 3'-O-alkynyl nucleotide analog; and b) determining a nucleotide sequence of a fragment of the ladder fragment library, said nucleotide sequence comprising a nucleotide subsequence of the target nucleotide sequence.
A vehicle body upper structure comprising: left and right side rails disposed at upper parts of lateral sides of a vehicle body and extending longitudinally of the vehicle body; and a front rail extending laterally of the vehicle body and having one end joined to the left side rail by means of a single-sided spot welding on welded portions and an opposite end joined to the right side rail, the front rail having a predetermined width extending longitudinally of the vehicle, characterized in that at least one of the one end and the opposite end of the front rail includes a thick plate portion (61, 62) and a plurality of thin plate portions (63, 64, 65) smaller in thickness than the thick plate portion (61, 62), the thick plate (61, 62) portion and the thin plate portions (63, 64, 65) being arranged longitudinally of the vehicle body, the thin plate portions (63, 64, 65) being coupled to at least one of the side rails, wherein the welded portions are defined by the plurality of thin plate portions (63, 64, 65). left and right side rails disposed at upper parts of lateral sides of a vehicle body and extending longitudinally of the vehicle body; and a front rail extending laterally of the vehicle body and having one end joined to the left side rail by means of a single-sided spot welding on welded portions and an opposite end joined to the right side rail, the front rail having a predetermined width extending longitudinally of the vehicle, characterized in that at least one of the one end and the opposite end of the front rail includes a thick plate portion (61, 62) and a plurality of thin plate portions (63, 64, 65) smaller in thickness than the thick plate portion (61, 62), the thick plate (61, 62) portion and the thin plate portions (63, 64, 65) being arranged longitudinally of the vehicle body, the thin plate portions (63, 64, 65) being coupled to at least one of the side rails, wherein the welded portions are defined by the plurality of thin plate portions (63, 64, 65).
A method of forming a security device, the method comprising a) providing an undeveloped photoresist layer on an electrically conductive layer such as chrome; b) forming a first diffractive pattern in the undeveloped photoresist layer; c) forming a second diffractive pattern in the undeveloped photoresist layer, wherein portions of the second diffractive pattern are formed in spaces between portions of the first diffractive pattern; and d) thereafter developing the photoresist layer, wherein one of steps (b) and (c) is carried out using optical interferometry and the other of steps (b) and (c) is carried out using electron beam lithography, wherein the step of using optical-interferometry comprises illuminating an intermediate transmission hologram with a conjugate of a reference beam used to form the intermediate transmission hologram so as to project or transfer a real holographic image onto the photoresist layer. a) providing an undeveloped photoresist layer on an electrically conductive layer such as chrome; b) forming a first diffractive pattern in the undeveloped photoresist layer; c) forming a second diffractive pattern in the undeveloped photoresist layer, wherein portions of the second diffractive pattern are formed in spaces between portions of the first diffractive pattern; and d) thereafter developing the photoresist layer,
A system for an aircraft, comprising: an aircraft powerplant comprising a heat engine; a powerplant sensor system configured to provide engine data indicative of one or more operating parameters of the heat engine; an environment sensor system configured to provide environment data indicative of one or more environmental parameters of an environment in which the heat engine is operating; and a monitoring system configured to determine formation of a contrail and quantify an impact of the contrail when formed based on the engine data and the environment data, characterised in that the one or more operating parameters comprise an exhaust mass flow of the heat engine. an aircraft powerplant comprising a heat engine; a powerplant sensor system configured to provide engine data indicative of one or more operating parameters of the heat engine; an environment sensor system configured to provide environment data indicative of one or more environmental parameters of an environment in which the heat engine is operating; and a monitoring system configured to determine formation of a contrail and quantify an impact of the contrail when formed based on the engine data and the environment data, characterised in that the one or more operating parameters comprise an exhaust mass flow of the heat engine.
A tire for a construction vehicle having a belt formed by a plurality of layers on the radially outer side of a crown portion of a carcass toroidally extending between a pair of bead portions, wherein an outermost belt layer located on the radially outermost side of the belt has a width of 50% or more of a tread width, a narrow groove is provided such that a distance between an end portion of the outermost belt layer and a bottom portion of the narrow groove is in the range of 15% to 100% of a tread thickness T, where T is a tread thickness at the end portion of the outermost belt layer, and wherein the narrow groove extends in the circumferential direction of a tread and is inclined from the bottom portion of the narrow groove to a tread surface toward the outer side of the vehicle at the time when the tire is assembled to the vehicle; characterised in that the end portion of the outermost belt layer is located nearer to the center in the width direction of a tread than a position spaced away from an end portion of the tread by 25% of a tread half width (TW/2).
Process for producing a glycerol tri-carboxylic acid polyester foam which comprises the steps of combining glycerol and a tri-carboxylic acid in the liquid phase to provide a reaction mixture, and keeping the reaction mixture at a temperature of between 80°C and 130°C from the start of the reaction until a conversion of at least 90% is obtained, calculated from the water loss based on the weight of the product relative to the weight of the starting acid and glycerol, wherein the reaction mixture is seeded with pulverized polymer particles as seed, e.g., in an amount of 1-30 wt.%.
A particulate material comprising silicon (Si) particles or an oxide thereof, the particulate material being obtained by a method comprising: (a) dry grinding particles from an ingot of silicon (Si) or an oxide thereof to obtain micrometer size particles; and (b) wet grinding the micrometer particles dispersed in a solvent carrier to obtain nanometer size particles having a size between 10 to 100 nanometers; (d) mixing the nanometer size particles with a carbon precursor; and (e) pyrolysing the mixture, thereby forming a coat of conductive carbon on at least part of the surface of the particles; wherein the solvent carrier is a C 1 -C 12 alcohol, and wherein the ingot comprises at least 98% of silicon or an oxide thereof. (a) dry grinding particles from an ingot of silicon (Si) or an oxide thereof to obtain micrometer size particles; and (b) wet grinding the micrometer particles dispersed in a solvent carrier to obtain nanometer size particles having a size between 10 to 100 nanometers; (d) mixing the nanometer size particles with a carbon precursor; and (e) pyrolysing the mixture, thereby forming a coat of conductive carbon on at least part of the surface of the particles;
A plug member (20, 32, 40) of a gas valve, having an axial bore located in an axial direction thereof, a first bore, and a second bore, which are located in a radial direction thereof, wherein the first bore and the second bore communicate with the axial bore, respectively; a cross-sectional diameter of the first bore is larger than a cross-sectional diameter of the second bore; a first guiding slot (28, 38, 42) and a second guiding slot (30, 34, 44) are recessed into an outer peripheral surface (20a, 40a) of the plug member (20, 32, 40), wherein the first guiding slot (28, 38, 42) extends from the first bore to the second bore, and has a first end and a second end (284, 382, 422); the first end communicates with the first bore; the second end (284, 382, 422) is near the second bore without physically communicating with the second bore; the second guiding slot (30, 34, 44) has a third end and a fourth end (304a, 342); the third end communicates with the second bore; the fourth end (304a, 342) is located between the first end and the second end (284, 382, 422) of the first guiding slot (28, 38, 42) without physically communicating with the first guiding slot (28, 38, 42); the plug member (20, 32, 40) characterized in that: a width of the second end (284, 382, 422) of the first guiding slot (28, 38, 42) decreases gradually from the first end to the second end (284, 382, 422) to form a tip on the outer peripheral surface (20a, 40a) of the plug member (20, 32, 40); and the first guiding slot (28, 38, 42) has an extension line passing through the first bore and the second bore; the second guiding slot (30, 34, 44) extends from the second bore to the first bore along the outer peripheral surface (20a, 40a), wherein an extending direction of the first guiding slot (28, 38, 42) is parallel to an extending direction of the second guiding slot (30, 34, 44). a width of the second end (284, 382, 422) of the first guiding slot (28, 38, 42) decreases gradually from the first end to the second end (284, 382, 422) to form a tip on the outer peripheral surface (20a, 40a) of the plug member (20, 32, 40); and the first guiding slot (28, 38, 42) has an extension line passing through the first bore and the second bore; the second guiding slot (30, 34, 44) extends from the second bore to the first bore along the outer peripheral surface (20a, 40a), wherein an extending direction of the first guiding slot (28, 38, 42) is parallel to an extending direction of the second guiding slot (30, 34, 44).