mhurhangee/ep-ind-claims huggingface dataset:
A method of assembling a large structure such as an aircraft structure, the method comprising: providing a plurality of panel carriers, each panel carrier (1310, 1312, 1314, 1316) comprising a frame (1348, 1354, 1360, 1366) configured to act as a strongback to a panel (1318, 1320, 1322, or 1324) and indexing features configured to interface with at least one other panel carrier of the plurality of panel carriers, attaching each of a plurality of panels to a respective panel carrier (1310, 1312, 1314, or 1316) of the plurality of panel carriers using a respective temporary fitting (1340, 1342, 1344, or 1346) to form a plurality of transportation assemblies; transporting (1326, 1412) the transportation assemblies to a manufacturing environment prior to connecting the plurality of panel carriers; receiving the transportation assemblies comprising the plurality of panel carriers, each holding a panel (1318, 1320, 1322, 1324) of the plurality of panels, in the manufacturing environment; aligning the panel carriers relative to each other using the indexing features; connecting the plurality of panel carriers to form an operational platform around the plurality of panels; and performing at least one manufacturing operation on at least one panel (1318, 1320, 1322, or 1324) of the plurality of panels through the operational platform. providing a plurality of panel carriers, each panel carrier (1310, 1312, 1314, 1316) comprising a frame (1348, 1354, 1360, 1366) configured to act as a strongback to a panel (1318, 1320, 1322, or 1324) and indexing features configured to interface with at least one other panel carrier of the plurality of panel carriers, attaching each of a plurality of panels to a respective panel carrier (1310, 1312, 1314, or 1316) of the plurality of panel carriers using a respective temporary fitting (1340, 1342, 1344, or 1346) to form a plurality of transportation assemblies; transporting (1326, 1412) the transportation assemblies to a manufacturing environment prior to connecting the plurality of panel carriers; receiving the transportation assemblies comprising the plurality of panel carriers, each holding a panel (1318, 1320, 1322, 1324) of the plurality of panels, in the manufacturing environment; aligning the panel carriers relative to each other using the indexing features; connecting the plurality of panel carriers to form an operational platform around the plurality of panels; and performing at least one manufacturing operation on at least one panel (1318, 1320, 1322, or 1324) of the plurality of panels through the operational platform.
Pyrrolo[2,1-c][1,4]benzodiazepine linked imidazo[1,5-a]pyridine conjugates of general formula 7 wherein R represents H, OCH 3, CF 3, CN, F or Cl; and n=3, 4, 5 or 6.
The use of polyalkyleneimines, of which the average molar mass (weight average) is in the range of from 400 g/mol to 50000 g/mol and in which the ratio of primary to secondary amino groups is in the range of from 1:0.5 to 1:1.5, for preventing microbial colonization of textile surfaces or hard household surfaces, wherein the polyalkyleneimine is a polymer comprising an N atom-containing backbone that has primary amino functions at the ends and secondary amino functions internally, such that a linear polyalkyleneimine, and not a branched chain polyalkyleneimine, is produced.
A locator as part of a toolkit for locating an implanted valve, used in concert with an indicator that nests therein, comprising: a lower ring, comprising: a contact surface, for contacting a patient; a key positioning the nested indicator to prevent rotation; and a lower ring joint opposite the contact surface; and an upper ring, comprising: an upper ring joint; a flow direction identifier; and a flow setting identifier; wherein the lower ring is floor-less, characterized in that: the upper ring joint rotatingly interfaces with the lower ring joint, and the upper and the lower rings rotate relative to each other. a lower ring, comprising: a contact surface, for contacting a patient; a key positioning the nested indicator to prevent rotation; and a lower ring joint opposite the contact surface; and a contact surface, for contacting a patient; a key positioning the nested indicator to prevent rotation; and a lower ring joint opposite the contact surface; and an upper ring, comprising: an upper ring joint; a flow direction identifier; and a flow setting identifier; an upper ring joint; a flow direction identifier; and a flow setting identifier; wherein the lower ring is floor-less, characterized in that: the upper ring joint rotatingly interfaces with the lower ring joint, and the upper and the lower rings rotate relative to each other. the upper ring joint rotatingly interfaces with the lower ring joint, and the upper and the lower rings rotate relative to each other.
Machine for testing a sample of cushioning material for packaging comprising: a spindle, a lifting motor for rotating the spindle, a platform for the lifting motor at the upper part of the machine, a support platform for the sample, a plurality of guides joining the support platform and the platform for the lifting motor, an impact platform guided by said plurality of guides, and a seismic mass on the lower part of the machine that reduces the transmission of the impact, characterised in that: the impact platform, comprises a lightweight impact platform, and a heavyweight impact platform positioned above the lightweight impact platform, the lightweight and the heavyweight impact platforms (7A, 7B) each comprising sensors for monitoring the position thereof and for measuring the acceleration during impact, and that the machine comprises a loading arm for holding the lightweight and heavyweight impact platforms (7A, 7B) and for either releasing them together or only releasing the lightweight impact platform, whereby the loading arm is configured to be displaced by the spindle, and the plurality of guides are configured for guiding the loading arm. a spindle, a lifting motor for rotating the spindle, a platform for the lifting motor at the upper part of the machine, a support platform for the sample, a plurality of guides joining the support platform and the platform for the lifting motor, an impact platform guided by said plurality of guides, and a seismic mass on the lower part of the machine that reduces the transmission of the impact, characterised in that: the impact platform, comprises a lightweight impact platform, and a heavyweight impact platform positioned above the lightweight impact platform, the lightweight and the heavyweight impact platforms (7A, 7B) each comprising sensors for monitoring the position thereof and for measuring the acceleration during impact, and that the machine comprises a loading arm for holding the lightweight and heavyweight impact platforms (7A, 7B) and for either releasing them together or only releasing the lightweight impact platform, whereby the loading arm is configured to be displaced by the spindle, and the plurality of guides are configured for guiding the loading arm. the impact platform, comprises a lightweight impact platform, and a heavyweight impact platform positioned above the lightweight impact platform, the lightweight and the heavyweight impact platforms (7A, 7B) each comprising sensors for monitoring the position thereof and for measuring the acceleration during impact, and that the machine comprises a loading arm for holding the lightweight and heavyweight impact platforms (7A, 7B) and for either releasing them together or only releasing the lightweight impact platform, whereby the loading arm is configured to be displaced by the spindle, and the plurality of guides are configured for guiding the loading arm.
A container for an electronic nicotine delivery system, the container comprising a body having a pair of end walls (8, 9) spaced from each other by a base wall, the body including a recess extending between the end walls to receive an electronic nicotine delivery system and a lid pivotally attached to the body for rotation between open and closed positions about an axis parallel to a longitudinal axis of an electronic nicotine delivery system received in said recess, wherein the body includes a compartment between the recess and the lid axis, the body and the lid being configured so that an electronic nicotine delivery system is retained in the recess when the lid is in its closed position with the lid covering the recess and said compartment, the container comprising a biasing member to bias the lid towards an open position, and a hinge mechanism that includes a cam element captured between the body and the lid and constrained to move within a groove formed in the body and a track formed in said lid, said track defining a stable position for the cam element so that the lid is held in a closed position by the cam element when said cam element is in said stable position, and an unstable position in which the lid is free to pivot into its open position when released, said cam element being moveable out of said stable position into said unstable position in response to rotation of the lid in a direction towards the body from its closed position.
A sensor network for monitoring a structure, said network comprising: a stretchable silicon substrate; a plurality of sensors fabricated on said stretchable silicon substrate; at least one communication device fabricated on said stretchable silicon substrate; and characterized by at least one energy harvesting and storage element fabricated on said stretchable silicon substrate, said stretchable silicon substrate comprising a plurality of conductive paths therein that interconnect said plurality of sensors, said at least one communication device, and said at least one energy harvesting and storage element, said network configured for attachment across a structure thus dispersing said sensors, configured in such a way that data from said sensors are communicated to an external device via said at least one communication device; wherein said at least one energy harvesting and storage element comprises zinc oxide nanowires grown on said stretchable silicon substrate. a stretchable silicon substrate; a plurality of sensors fabricated on said stretchable silicon substrate; at least one communication device fabricated on said stretchable silicon substrate; and characterized by at least one energy harvesting and storage element fabricated on said stretchable silicon substrate, said stretchable silicon substrate comprising a plurality of conductive paths therein that interconnect said plurality of sensors, said at least one communication device, and said at least one energy harvesting and storage element, said network configured for attachment across a structure thus dispersing said sensors, configured in such a way that data from said sensors are communicated to an external device via said at least one communication device; wherein said at least one energy harvesting and storage element comprises zinc oxide nanowires grown on said stretchable silicon substrate.
A probe for detecting a gene of infectious disease pathogenic bacterium, Bacteroides (genus), wherein the base sequence is any one of the following base sequences to: TGCGGCTCAACCGTAAAATTGCAGT (SEQ ID NO. 79) or the complementary sequence thereof; TGTGGCTCAACCATAGAATTGCCGT (SEQ ID NO. 80) or the complementary sequence thereof; and a modified sequence of a length of 20 to 30 nucleotides and prepared such that any one of the sequences of SEQ ID NOS. 79 or 80 and the complementary sequences thereof is subjected to base deletion, substitution, or addition as far as 80% or more of the base sequence is consecutively conserved and as far as the modified sequences hybridize with said bacterium under the following stringent conditions: Hybridization Solution: 6 x SSPE/10% formamide/target/0.05 wt% (6 x SSPE: NaCl 900 mM, NaH 2 PO 4 H 2 O 50 mM, EDTA 6 mM, pH, 7.4); Hybridization Conditions: 65°C for 3 min, 55°C for 4 hrs, washing with 2 x SSC/0.1% SDS at 50°C, washing with 2 x SSC/0.1 % SDS at 20°C. TGCGGCTCAACCGTAAAATTGCAGT (SEQ ID NO. 79) or the complementary sequence thereof; TGTGGCTCAACCATAGAATTGCCGT (SEQ ID NO. 80) or the complementary sequence thereof; and a modified sequence of a length of 20 to 30 nucleotides and prepared such that any one of the sequences of SEQ ID NOS. 79 or 80 and the complementary sequences thereof is subjected to base deletion, substitution, or addition as far as 80% or more of the base sequence is consecutively conserved and as far as the modified sequences hybridize with said bacterium under the following stringent conditions: Hybridization Solution: 6 x SSPE/10% formamide/target/0.05 wt% (6 x SSPE: NaCl 900 mM, NaH 2 PO 4 H 2 O 50 mM, EDTA 6 mM, pH, 7.4); Hybridization Conditions: 65°C for 3 min, 55°C for 4 hrs, washing with 2 x SSC/0.1% SDS at 50°C, washing with 2 x SSC/0.1 % SDS at 20°C.
A vibration damper for a torque transmission device of a transmission train of a motor vehicle comprising: - a first element and a second element which are rotatable relative to each other around an axis of rotation X; and - damping means for transmitting a torque and damping the rotational acyclisms between the first element and the second element; said damper being characterized in that the damping means comprise an elastic blade mounted securely on the first element and provided with a cam surface; and in that the damper comprises a cam follower carried by the second element and arranged to cooperate with said cam surface; said cam surface being arranged such that, for an angular travel between the first element and the second element relative to an angular rest position, the cam follower exerts a flexion force on the elastic blade producing a reaction force able to return said first and second elements to said angular rest position. - a first element and a second element which are rotatable relative to each other around an axis of rotation X; and - damping means for transmitting a torque and damping the rotational acyclisms between the first element and the second element;
A side-emitting light emitting device, comprising at least one light emitting diode arranged on a substrate and facing a scattering reflector disposed at a distance from and extending along the extension of said substrate, wherein said reflector comprises a plurality of non-parallel oriented reflective flakes distributed in a transmissive carrier.
A method for increasing the scratch hardness of a body, which has at least in some regions a surface comprising an extrudated or co-extrudated plastic, wherein an organic, fluoro-organic or silico-organic compound that increases the scratch hardness is applied to the surface of the extrudated or co-extrudated plastic, wherein the organic, fluoro-organic or silico-organic compound (11a, 18) increases the scratch hardness and/or scratch resistance of the surface of the the plastic, wherein the organic, fluoro-organic or silico-organic compound (11a, 18) is applied to the surface of the extrudated or co-extrudated plastic by means of a sheet-like transfer medium (6, 11), on which the organic, fluoro-organic or silico-organic compound (11la, 18) is disposed and transferred, characterized in that theorganic, fluoro-organic or silico-organic compound that increases the scratch hardness is applied to the surface of the extrudated or co-extrudated plastic in-line during operation of the extrusion process.
A device for controlling the release of gas from a pressurised container, the device comprising: a plug comprising a passage therethrough; a diaphragm within said passage, wherein said diaphragm is configured to initially prevent flow of gas through said passage, and is rupturable or displaceable to allow gas to flow through said passage once said diaphragm is ruptured or displaced; a screw located within said plug and comprising a lance configured to move towards said diaphragm upon rotation of said screw, wherein said lance is configured to rupture or displace said diaphragm so as to allow flow of gas through said passage and out of said plug, once said screw is rotated a predetermined amount; characterised in that said plug, screw and diaphragm form a single unit and are removeable or replaceable as a single unit and the diaphragm is held in place by an interference, press or snap fit arrangement, or is integral with the body of the plug. a plug comprising a passage therethrough; a diaphragm within said passage, wherein said diaphragm is configured to initially prevent flow of gas through said passage, and is rupturable or displaceable to allow gas to flow through said passage once said diaphragm is ruptured or displaced; a screw located within said plug and comprising a lance configured to move towards said diaphragm upon rotation of said screw, wherein said lance is configured to rupture or displace said diaphragm so as to allow flow of gas through said passage and out of said plug, once said screw is rotated a predetermined amount; characterised in that said plug, screw and diaphragm form a single unit and are removeable or replaceable as a single unit and the diaphragm is held in place by an interference, press or snap fit arrangement, or is integral with the body of the plug.
Controller for a continuous flow heater, - having an interface, a control device and a memory, - wherein the control device is connected to the interface and to the memory, - wherein the memory stores a predefined characteristic, - wherein the interface is connectable to a flow sensor of the continuous flow heater, - wherein the interface is designed to detect a flow signal of the flow sensor and to provide it to the control device, - wherein the control device is designed to ascertain a flow characteristic on the basis of the flow signal over a time (t), and to use a comparison to compare the flow characteristic with the predefined characteristic, - wherein the control device is designed to take a result of the comparison as a basis for providing a control signal for controlling a heating power of the continuous flow heater on the interface, - characterized in that the predefined characteristic has a first temporally limited section, a second temporally limited section and a third temporally limited section, - wherein the second section comes at a time after the first section and the third section comes at a time after the second section, - wherein in the first section a predefined value is substantially constant over the time (t), - wherein in the second section the predefined value substantially falls over the time (t), - in the third section the predefined value is substantially constant over the time (t) and is lower than the first section and wherein the predefined characteristic corresponds to a valve flow characteristic of a tapping station. - having an interface, a control device and a memory, - wherein the control device is connected to the interface and to the memory, - wherein the memory stores a predefined characteristic, - wherein the interface is connectable to a flow sensor of the continuous flow heater, - wherein the interface is designed to detect a flow signal of the flow sensor and to provide it to the control device, - wherein the control device is designed to ascertain a flow characteristic on the basis of the flow signal over a time (t), and to use a comparison to compare the flow characteristic with the predefined characteristic, - wherein the control device is designed to take a result of the comparison as a basis for providing a control signal for controlling a heating power of the continuous flow heater on the interface, - characterized in that the predefined characteristic has a first temporally limited section, a second temporally limited section and a third temporally limited section, - wherein the second section comes at a time after the first section and the third section comes at a time after the second section, - wherein in the first section a predefined value is substantially constant over the time (t), - wherein in the second section the predefined value substantially falls over the time (t), - in the third section the predefined value is substantially constant over the time (t) and is lower than the first section and wherein the predefined characteristic corresponds to a valve flow characteristic of a tapping station.
Deflection optical unit (13; 35; 36; 37, 38; 39; 40) for an illumination system for EUV projection lithography - comprising a plurality of deflection mirrors (D1 to D4; D1 to D5, D1 to D6; D1 to D8) on which EUV radiation impinges in a common deflection incidence plane (xz) with grazing incidence, characterized in that - at least four deflection mirrors (D1 to D4) for grazing incidence are provided which jointly have a deflection effect in the deflection incidence plane (xz) of more than 70°, - at least one of the deflection mirrors (D1 to D8) is embodied as a convex cylindrical mirror and/or at least one of the deflection mirrors (D1 to D8) is embodied as a concave cylindrical mirror. - comprising a plurality of deflection mirrors (D1 to D4; D1 to D5, D1 to D6; D1 to D8) on which EUV radiation impinges in a common deflection incidence plane (xz) with grazing incidence, - at least four deflection mirrors (D1 to D4) for grazing incidence are provided which jointly have a deflection effect in the deflection incidence plane (xz) of more than 70°, - at least one of the deflection mirrors (D1 to D8) is embodied as a convex cylindrical mirror and/or at least one of the deflection mirrors (D1 to D8) is embodied as a concave cylindrical mirror.
A method of detecting whether a portable electronic device is coupled to an audio system, comprising: generating a pulse (Ip) on a ground return line of the electronic device; observing if a response signal (Ir) is received by the electronic device corresponding to the pulse, wherein the response signal (Ir) is an output current observed on a charging ground line of the electronic device; and if the response signal (Ir) is received, then determining that the electronic device is coupled to the audio system. generating a pulse (Ip) on a ground return line of the electronic device; observing if a response signal (Ir) is received by the electronic device corresponding to the pulse, wherein the response signal (Ir) is an output current observed on a charging ground line of the electronic device; and if the response signal (Ir) is received, then determining that the electronic device is coupled to the audio system.
A thermoelectric conversion material comprising a skutterudite-type material represented by the following composition formula I x Ga y M 4 Pn 12..., wherein: x and y satisfy 0.04 ≤ x ≤ 0.11, 0.11 ≤ y ≤ 0.34, and x < y, I represents one or more elements selected from a group of elements including: In, Yb, Eu, Ce, La, Nd, Ba, and Sr, M represents one or more elements selected from a group of elements including: Co, Rh, Ir, Fe, Ni, Pt, Pd, Ru, and Os, and Pn represents one or more elements selected from a group of elements including: Sb, As, P, Te, Sn, Bi, Ge, Se, and Si. x and y satisfy 0.04 ≤ x ≤ 0.11, 0.11 ≤ y ≤ 0.34, and x < y, I represents one or more elements selected from a group of elements including: In, Yb, Eu, Ce, La, Nd, Ba, and Sr, M represents one or more elements selected from a group of elements including: Co, Rh, Ir, Fe, Ni, Pt, Pd, Ru, and Os, and Pn represents one or more elements selected from a group of elements including: Sb, As, P, Te, Sn, Bi, Ge, Se, and Si.