mhurhangee/ep-ind-claims huggingface dataset:
An ethylene/1-hexene copolymer having the following features: a weight average molecular weight is 90,000 to 300,000; a density (g/cm 3) is 0.950 to 0.965; a molecular weight distribution is 5 to 20; a melt flow rate ratio (MFR 21.6 /MFR 5, measured by ASTM 1238 at 190°C) is 3 to 10; an MFR 2.16 (measured by ASTM 1238 under a load of 2.16 kg at 190°C) is 0.01 to 0.3 g/10 min; and a spiral flow (cm) is 15 to 20, wherein the spiral flow length is evaluated by injecting the copolymer by applying a specific pressure and temperature to a spiral mold, and determining how much the molten and injected copolymer is pushed out, using a mold having a thickness of 1.5 mm, setting the injection temperature to 190°C, the mold temperature to 50°C, and the injection pressure to 90bar. a weight average molecular weight is 90,000 to 300,000; a density (g/cm 3) is 0.950 to 0.965; a molecular weight distribution is 5 to 20; a melt flow rate ratio (MFR 21.6 /MFR 5, measured by ASTM 1238 at 190°C) is 3 to 10; an MFR 2.16 (measured by ASTM 1238 under a load of 2.16 kg at 190°C) is 0.01 to 0.3 g/10 min; and a spiral flow (cm) is 15 to 20, wherein the spiral flow length is evaluated by injecting the copolymer by applying a specific pressure and temperature to a spiral mold, and determining how much the molten and injected copolymer is pushed out, using a mold having a thickness of 1.5 mm, setting the injection temperature to 190°C, the mold temperature to 50°C, and the injection pressure to 90bar.
A composite structure, comprising: a protective structure comprising a plurality of ballistic layers arranged as a stack; and an ancillary structure adjacent to the protective structure adapted to at least partly absorb a force acting on the protective structure, wherein the ancillary structure comprises at least one first layer comprising an aerogel arranged to at least partly absorb a force acting on the protective structure; wherein a part of each ballistic layer is connected to at least one adjacent ballistic layer so as to restrict relative movement of a part of each of the adjacent ballistic layers, characterised in that a part of each ballistic layer is moveable relative to at least one adjacent ballistic layer and; and in that each ballistic layer is connected to at least one adjacent ballistic layer at or adjacent the edges of the ballistic layer so as to constrain movement of a part of each layer around the perimeter of each layer. a protective structure comprising a plurality of ballistic layers arranged as a stack; and an ancillary structure adjacent to the protective structure adapted to at least partly absorb a force acting on the protective structure, wherein the ancillary structure comprises at least one first layer comprising an aerogel arranged to at least partly absorb a force acting on the protective structure; wherein a part of each ballistic layer is connected to at least one adjacent ballistic layer so as to restrict relative movement of a part of each of the adjacent ballistic layers, characterised in that a part of each ballistic layer is moveable relative to at least one adjacent ballistic layer and; and in that each ballistic layer is connected to at least one adjacent ballistic layer at or adjacent the edges of the ballistic layer so as to constrain movement of a part of each layer around the perimeter of each layer.
Method for producing a well in a valve needle of a valve having a valve seat, a sealing ball, and a needle guide, in which a space between the valve seat and the sealing ball forms a valve gap and the needle guide bears the valve needle so that it is axially movable, having the steps that the sealing ball and the valve needle are provided with a needle tip and a well for contacting the sealing ball is generated in the needle tip, wherein the well is at least partially impressed due to an application of force of the sealing ball; wherein the valve needle is secured against a rotation in the needle guide via a positive fit and/or a non-positive fit; wherein the valve seat, the sealing ball, the valve needle, and the needle guide are assembled before the well is at least partially impressed, characterized in that the valve is assembled insofar as that an electromechanical actuator of the valve is operatively connected to the valve needle in order to move the valve needle, and that the application of force is applied by means of the electromechanical actuator, wherein the application of force is applied in that the sealing ball is induced to oscillate between the valve seat and the needle tip of the valve needle, wherein a resonance excitation given a small external application of force is utilized.
A composition comprising: a catalytically effective amount of a catalytically active reaction product of a reaction of ingredients i) and ii), where Ingredient i) is a Fe precursor of general formula Fe-A 3, where each A is independently a monovalent organic group; and Ingredient ii) is one of a ligand of general formulae (xvii) where subscript y is an integer from 0 to 4, subscript z is an integer from 0 to 2, Q 20 is selected from O and S, Q 22 is selected from O and S, Q 21 is selected from N, C, O, and S, A 90 and A 93 are each independently selected from a monovalent organic group and H, A 91 and A 92 are each independently selected from a monovalent organic group, a halogen, and an inorganic group; with the proviso that A 91 may combine with another A 91 to form a ring structure; and a silicon containing base polymer having an average, per molecule, of one or more hydrolyzable substituents. a catalytically effective amount of a catalytically active reaction product of a reaction of ingredients i) and ii), where Ingredient i) is a Fe precursor of general formula Fe-A 3, where each A is independently a monovalent organic group; and Ingredient ii) is one of a ligand of general formulae (xvii) where subscript y is an integer from 0 to 4, subscript z is an integer from 0 to 2, Q 20 is selected from O and S, Q 22 is selected from O and S, Q 21 is selected from N, C, O, and S, A 90 and A 93 are each independently selected from a monovalent organic group and H, A 91 and A 92 are each independently selected from a monovalent organic group, a halogen, and an inorganic group; with the proviso that A 91 may combine with another A 91 to form a ring structure; and a silicon containing base polymer having an average, per molecule, of one or more hydrolyzable substituents.
A circuit board comprising: a substrate; a first power feed line provided on a surface of the substrate and to extend in a first direction; a first connection conductor extending in a second direction orthogonal to the first direction, one end of the first connection conductor being connected to the first power feed line substantially at a central portion of the first power feed line in the first direction; and a second power feed line that has a first line part, the first line part joining to another end of the first connection conductor, and also has a second line part branching from the first line part; characterized in that the first power feed line is disposed so as to be close to a plurality of radiating elements; the first line part extends in a third direction orthogonal to the second direction, the second line part joins to the another end from a third direction side; a line length of the second line part is determined according to an integer multiple of an effective wavelength of an alternate current to be supplied to the first line part; and a thickness of the substrate in the second direction is at least a half of the effective wavelength of the alternate current to be supplied to the first line part. a substrate; a first power feed line provided on a surface of the substrate and to extend in a first direction; a first connection conductor extending in a second direction orthogonal to the first direction, one end of the first connection conductor being connected to the first power feed line substantially at a central portion of the first power feed line in the first direction; and a second power feed line that has a first line part, the first line part joining to another end of the first connection conductor, and also has a second line part branching from the first line part; characterized in that the first power feed line is disposed so as to be close to a plurality of radiating elements; the first line part extends in a third direction orthogonal to the second direction, the second line part joins to the another end from a third direction side; a line length of the second line part is determined according to an integer multiple of an effective wavelength of an alternate current to be supplied to the first line part; and a thickness of the substrate in the second direction is at least a half of the effective wavelength of the alternate current to be supplied to the first line part.
A method of measuring a total radiated power of a device under test by means of a test system having a base station simulator, a measurement antenna assigned to the base station simulator and a control and measurement equipment, wherein the method comprises the steps of: - Establishing a radio resource control connection between the device under test and the base station simulator via the measurement antenna, - Activating an uplink-beam lock function at the device under test, which ensures that an uplink-beam and a downlink-beam of the device under test do not necessarily have to coincidence with each other since the uplink-beam is locked while pointing to a determined fixed position with respect to the orientation of the device under test, - Performing a total radiated power measurement by means of the control and measurement equipment while continuously sending a downlink signal from the base station simulator via the measurement antenna to the device under test, characterized in that the downlink signal continuously sent comprises an acknowledgement signal, and wherein the acknowledgement signal is sent by means of the base station simulator without receiving a signal to be acknowledged, thereby ensuring that a signaling link stays alive between the device under test and the base station simulator. - Establishing a radio resource control connection between the device under test and the base station simulator via the measurement antenna, - Activating an uplink-beam lock function at the device under test, which ensures that an uplink-beam and a downlink-beam of the device under test do not necessarily have to coincidence with each other since the uplink-beam is locked while pointing to a determined fixed position with respect to the orientation of the device under test, - Performing a total radiated power measurement by means of the control and measurement equipment while continuously sending a downlink signal from the base station simulator via the measurement antenna to the device under test,
A submersible power generation plant, comprising 1.1 a water turbine standing freely on a support structure in an ambient flow; 1.2 an electric generator which is driven at least indirectly by the water turbine; 1.3 at least a part of the generator components of the electric generator is enclosed by at least one corrosion protection element which seals against the ambient water, with the cavities within the corrosion protection element being filled with a heat-conductive medium, characterized in that at least one pass-through duct being provided for dissipating waste heat from the generator components, which duct conducts ambient water and leads through the corrosion protection element without entering into any material exchange with the region encapsulated by the corrosion protection element, and 1.4 a growth protection system is arranged on a flow input of the pass-through duct on the upstream side. 1.1 a water turbine standing freely on a support structure in an ambient flow; 1.2 an electric generator which is driven at least indirectly by the water turbine; 1.3 at least a part of the generator components of the electric generator is enclosed by at least one corrosion protection element which seals against the ambient water, with the cavities within the corrosion protection element being filled with a heat-conductive medium, characterized in that at least one pass-through duct being provided for dissipating waste heat from the generator components, which duct conducts ambient water and leads through the corrosion protection element without entering into any material exchange with the region encapsulated by the corrosion protection element, and 1.4 a growth protection system is arranged on a flow input of the pass-through duct on the upstream side.
An anti-skid device for a vehicle wheel comprising: - a first and a second portion (21, 22) of chain, flanked to one another and destined to extend along an extension of a tread of the wheel; - a first support of the first and the second portion (21, 22) of chain, said first support being destined to superpose on a tread; said first support comprising first anti-skid means comprising a plurality of anti-skid teeth being part of a single piece and destined to carry out the action thereof on a road surface; characterised in that it comprises a plurality of spokes (71, 72) which at a radially more inner end connect in a reciprocal joining zone; one of said spokes, in a radially more outer position, being associated to said first support. - a first and a second portion (21, 22) of chain, flanked to one another and destined to extend along an extension of a tread of the wheel; - a first support of the first and the second portion (21, 22) of chain, said first support being destined to superpose on a tread; said first support comprising first anti-skid means comprising a plurality of anti-skid teeth being part of a single piece and destined to carry out the action thereof on a road surface; characterised in that it comprises a plurality of spokes (71, 72) which at a radially more inner end connect in a reciprocal joining zone; one of said spokes, in a radially more outer position, being associated to said first support.
A valve controller for controlling a valve, the valve controller comprising equipment (24, 34, 36, 48, 58) for controlling the function of at least one of an actuator of the valve, which is mechanically coupled to a first disc cooperating with a first valve seat to form part of a flow controlling unit of the valve, and the flow controlling unit, wherein the equipment (24, 34, 36, 48, 58) comprises an electrical input (25, 33, 37, 49, 59) for supplying the equipment (24, 34, 36, 48, 58) with power, wherein the equipment (24, 34, 36, 48, 58) comprises one or more position sensors (34, 58) and the electrical input of the one or more position sensors (34, 58) is a second electrical input (33, 59), the valve controller being configured to: obtaining one or more first parameter values indicative of a functionality of the equipment (24, 34, 36, 48, 58) by measuring (106, 108) a primary electrical quantity at the electrical inputs (25, 33, 37, 49, 59) with the equipment (24, 34, 36, 48, 58) powered off, wherein the one or more first parameter values comprises the measured primary electrical quantity, monitoring the equipment (24, 34, 36, 48, 58) during operation of the valve controller for determining one or more second parameter values indicative of the functionality of the equipment (24, 34, 36, 48, 58) by measuring (214, 218) a secondary electrical quantity at the electrical inputs (25, 33, 37, 49, 59) subsequent to powering off the equipment (24, 34, 36, 48, 58), wherein the one or more second parameter values comprises the measured secondary electrical quantity, and determining if a change in functionality of the equipment (24, 34, 36, 48, 58) has occurred based on a comparison of the one or more second parameter values with the one or more first parameter values. obtaining one or more first parameter values indicative of a functionality of the equipment (24, 34, 36, 48, 58) by measuring (106, 108) a primary electrical quantity at the electrical inputs (25, 33, 37, 49, 59) with the equipment (24, 34, 36, 48, 58) powered off, wherein the one or more first parameter values comprises the measured primary electrical quantity, monitoring the equipment (24, 34, 36, 48, 58) during operation of the valve controller for determining one or more second parameter values indicative of the functionality of the equipment (24, 34, 36, 48, 58) by measuring (214, 218) a secondary electrical quantity at the electrical inputs (25, 33, 37, 49, 59) subsequent to powering off the equipment (24, 34, 36, 48, 58), wherein the one or more second parameter values comprises the measured secondary electrical quantity, and determining if a change in functionality of the equipment (24, 34, 36, 48, 58) has occurred based on a comparison of the one or more second parameter values with the one or more first parameter values.
Method for transmitting data by a device, within a machine type communication, the method comprising the steps of: transmitting to a machine application manager user data in a minimum frame composed of a minimum identifier comprising information for data transmission and a user data area, the minimum frame not comprising address data containing a distinct identification of the device; determining by the application manager if more information needs to be collected from the device than the received minimum frame; and if a determination has been made that more information needs to be collected, receiving from the application manager a signal requesting full frame transmission mode; and transmitting to the machine application manager additional information regarding address data of the device. transmitting to a machine application manager user data in a minimum frame composed of a minimum identifier comprising information for data transmission and a user data area, the minimum frame not comprising address data containing a distinct identification of the device; determining by the application manager if more information needs to be collected from the device than the received minimum frame; and if a determination has been made that more information needs to be collected, receiving from the application manager a signal requesting full frame transmission mode; and transmitting to the machine application manager additional information regarding address data of the device.
An instantaneous driving mechanism for a timepiece movement, including a mobile (2, 102) and a lever (6, 106) adapted to be mounted pivotally on at least one frame element of the timepiece movement, said lever being adapted to cooperate, on the one hand, with said mobile in order to be moved and, on the other hand, with a counter (8, 13) of the timepiece movement, with the aim of incrementing it by means of instantaneous pulses, said mobile (2, 102) comprising a first wheel (4, 104), adapted to be driven from a driving member of the timepiece movement, and adapted to drive rotation of a first cam (28, 128) of said mobile, coaxial with said first wheel (4, 104) and having a periphery of varying radius adapted to cooperate with a nose (61, 161) carried by a first arm (7, 107) of said lever and move it progressively away from the centre of said mobile (2, 102) when the latter turns in a first rotation direction, before allowing it to fall, by virtue of the effect of the action of spring means (22, 122), when said nose (61, 161) moves from a point on said periphery corresponding to the largest radius onto a point on the periphery corresponding to the smallest radius, characterized in that said mobile (2, 102) comprises a safety body (38, 138), coaxial with said first wheel (4, 104) and adapted to cooperate with said lever (6, 106) to move said first arm (7, 107) away from the centre of said mobile when the latter turns in the second rotation direction and to allow said nose (61, 161) to go from said point corresponding to the smallest radius to said point corresponding to the largest radius.
A method for manufacturing a hot press-formed member characterized by subjecting a zinc-based plated steel sheet to heat treatment which includes a first heating step in which the steel sheet is heated in an oxygen-containing atmosphere to a temperature region of at least 600° C to at most 750° C at an average rate of temperature increase up to 600° C of at most 50° C per second and a first cooling step in which the steel sheet which was heated in the first heating step is cooled to 550° C or below, thereby forming a steel blank having on the surface of the steel sheet a zinc oxide layer constituting an uppermost layer and below it a zinc-iron alloy phase having an Fe content of at least 25 mass %, and heating the steel blank in a second heating step to a temperature of at least the Ac 3 point of the steel constituting the sheet, and carrying out a hot press forming step on the heated steel blank by starting press forming when the temperature of the steel blank is at least the Ac 3 point and rapidly cooling the press-formed member, thereby obtaining a hot press-formed member having a surface region which has a zinc oxide layer and an iron-zinc solid solution phase and which does not contain an intermetallic compound phase or a pure zinc phase.
Device for cleaning the core engine of a jet engine, having a nozzle installation which is configured for introducing cleaning medium into the core engine and has means for connecting in a rotationally fixed manner to the shaft of the fan of the jet engine; and having a line connection which for supplying a cleaning medium is connected to the nozzle installation by way of a rotary coupling, wherein the nozzle installation has first contact faces for bearing axially on the fan blades, said first contact faces being configured for positioning the nozzle installation in a defined manner relative to the jet engine, characterized in that the means for the rotationally fixed connection to the shaft of the fan of the jet engine comprise at least two tensioning ropes and fastening means for fastening the tensioning ropes to the fan blades, and in that the fastening means are configured as individual fastening means that are able to be separately locked.
A fluid injection device comprising: a body for coming into contact with an injection site; at least three fluid reservoirs; an injection needle for penetrating into said injection site so as to inject therein the contents of one or more reservoir(s); a respective priming needle associated with each reservoir for penetrating into said reservoir before dispensing the fluid, each reservoir including a tube that is connected at one end to its priming needle, and at the other end to said injection needle; said device comprising reservoir selector means for selecting one or more reservoirs, the contents of which are to be dispensed during the next actuation, said selector means comprising a rotary member (132, 135), characterized in that said rotary member (132, 135) is provided with cam means (1320, 1350) that are adapted to co-operate with the tubes of each reservoir so as to open or close the flow of fluid through each tube, the closing of flow of fluid in a tube and thus the selection of the reservoir(s) to be dispensed during actuation being made by said cam means (1320, 1350) pinching/flattening said tube(s) to close off said tube(s) and prevent the flow of fluid through said tube(s).