mhurhangee/ep-ind-claims huggingface dataset:
Method for assembling a tank, comprising: - providing a plastic first shell, a plastic second shell with an opening, and at least one connecting member with a plastic end part suitable for being arranged in or around said opening, said first and second shell delimiting an internal volume of the tank, and said connecting member being dimensioned for connecting said first and second shell in the internal volume of the tank; - welding a circumference of said first shell to a circumference of said second shell; - arranging said end part in or around said opening; the method being characterized in that it comprises a step of connecting said end part of said connecting member to a wall part of said second shell by heating an external area of the second shell surrounding said opening and by heating said end part of said connecting member. - providing a plastic first shell, a plastic second shell with an opening, and at least one connecting member with a plastic end part suitable for being arranged in or around said opening, said first and second shell delimiting an internal volume of the tank, and said connecting member being dimensioned for connecting said first and second shell in the internal volume of the tank; - welding a circumference of said first shell to a circumference of said second shell; - arranging said end part in or around said opening;
A hydroxy-substituted derivative of 2-carboxy-3a-hydroxy-1,2,3,3a,8,8a-hexahydropyrrolo[2,3-b]indole according to Formula I wherein R1 is selected from alkyl, aryl, heteroaryl, substituted alkyl, substituted aryl, and substituted heteroaryl; P1 is hydrogen or a protecting group; P2 is hydrogen or a protecting group; and R2 is selected from OH, OR1, and a polypeptide chain consisting of 1-7 amino acid residues, wherein the protecting group, when present, is independently selected from Boc, PhCH 2 OCO-, CH 2 =CHCH 2 O-CO-, trityl, an acyl group, and an alkyl group. wherein R1 is selected from alkyl, aryl, heteroaryl, substituted alkyl, substituted aryl, and substituted heteroaryl; P1 is hydrogen or a protecting group; P2 is hydrogen or a protecting group; and R2 is selected from OH, OR1, and a polypeptide chain consisting of 1-7 amino acid residues, wherein the protecting group, when present, is independently selected from Boc, PhCH 2 OCO-, CH 2 =CHCH 2 O-CO-, trityl, an acyl group, and an alkyl group.
A modulating retroreflective multilayer film comprising: retroreflective elements, preferably comprising microprism retroreflectors or holographic retroreflectors; a piezoelectric layer having opposing top and bottom surfaces; a first electrode layer in electrical connection with the top surface of the piezoelectric layer; a second electrode layer in electrical connection with the bottom surface of the piezoelectric layer; a voltage source located within a layer of the multilayer film and being in electrical connection with the first and second electrode layers; a processor located within a layer of the multilayer film and being communicably coupled with the voltage source to apply a voltage across the piezoelectric layer; an energy storage device, preferably a battery or a capacitor, located within a layer of the multilayer film and being configured to store energy used for the applying of the voltage; and a photovoltaic layer communicably in electrical connection with the energy storage device and coupled with the processor to transmit electrical signals to the processor; and wherein the piezoelectric layer and the photovoltaic layer are substantially coextensive with one another such that the surface areas of adjacent or parallel faces of the piezoelectric layer and photovoltaic layer are within 80% of one another. retroreflective elements, preferably comprising microprism retroreflectors or holographic retroreflectors; a piezoelectric layer having opposing top and bottom surfaces; a first electrode layer in electrical connection with the top surface of the piezoelectric layer; a second electrode layer in electrical connection with the bottom surface of the piezoelectric layer; a voltage source located within a layer of the multilayer film and being in electrical connection with the first and second electrode layers; a processor located within a layer of the multilayer film and being communicably coupled with the voltage source to apply a voltage across the piezoelectric layer; an energy storage device, preferably a battery or a capacitor, located within a layer of the multilayer film and being configured to store energy used for the applying of the voltage; and a photovoltaic layer communicably in electrical connection with the energy storage device and coupled with the processor to transmit electrical signals to the processor; and wherein the piezoelectric layer and the photovoltaic layer are substantially coextensive with one another such that the surface areas of adjacent or parallel faces of the piezoelectric layer and photovoltaic layer are within 80% of one another.
A process for preparing surfaces that exhibit hydrophobicity without the addition of a chemical treatment, comprising the step of (a) subjecting a fiber-based substrate to roll-to-roll embossing by introducing the substrate into a nip provided by a pattern roll and a pressure roll, wherein the pattern roll comprises protrusions or grooves having a diameter being smaller than the diameter of fibers included in the substrate; wherein the step (a) is conducted at least two times; the pressure roll is covered with or made of a felt material; and the micro-embossed pattern on the substrate has a pattern roughness of more than 1.5, determined with the method as disclosed in the description. (a) subjecting a fiber-based substrate to roll-to-roll embossing by introducing the substrate into a nip provided by a pattern roll and a pressure roll, wherein the pattern roll comprises protrusions or grooves having a diameter being smaller than the diameter of fibers included in the substrate; wherein the step (a) is conducted at least two times; the pressure roll is covered with or made of a felt material; and the micro-embossed pattern on the substrate has a pattern roughness of more than 1.5, determined with the method as disclosed in the description. wherein the pattern roll comprises protrusions or grooves having a diameter being smaller than the diameter of fibers included in the substrate; wherein the step (a) is conducted at least two times; the pressure roll is covered with or made of a felt material; and the micro-embossed pattern on the substrate has a pattern roughness of more than 1.5, determined with the method as disclosed in the description.
An aircraft engine comprising: a gas generator; a turbine fluidly connected to the gas generator; a fan (150, 250, 350) connected to said turbine via a shaft (140, 240), the fan (150, 250, 350) being positioned aft of the turbine; and the shaft (140, 240) being at least partially disposed in a fan inlet flowpath (162, 262), characterised in that: the gas generator is a compressor generating a compressed gas provided to the turbine. a gas generator; a turbine fluidly connected to the gas generator; a fan (150, 250, 350) connected to said turbine via a shaft (140, 240), the fan (150, 250, 350) being positioned aft of the turbine; and the shaft (140, 240) being at least partially disposed in a fan inlet flowpath (162, 262), characterised in that: the gas generator is a compressor generating a compressed gas provided to the turbine.
A stackable ligation clip comprising: a first beam having a first end, a second end, a first internal clamping surface extending between the first and second ends of the first beam, and an external surface extending between the first and second ends of the first beam, the first beam supporting a first alignment member that extends outwardly of the external surface of the first beam and defines a first concavity; a second beam having a first end, a second end, a second internal clamping surface extending between the first and second ends of the second beam, and an external surface extending between the first and second ends of the second beam, the second beam supporting a second alignment member that extends outwardly of the external surface of the second beam and defines a second concavity; and a hinge portion coupling the first ends of the first and second beams together to facilitate movement of the ligation clip from an open position to a closed position; wherein the first alignment member is configured to receive a portion of the second end of one of the first and second beams of a second ligation clip when the stackable ligation clip is stacked in tip-to-tail fashion with the second ligation clip in a stacked configuration, and the second alignment member is configured to receive a portion of the second end of the other of the first and second beams of the second ligation clip when the stackable ligation clip and the second ligation clip are in the stacked configuration to maintain the stackable ligation clip and the second ligation clip in the stacked configuration. a first beam having a first end, a second end, a first internal clamping surface extending between the first and second ends of the first beam, and an external surface extending between the first and second ends of the first beam, the first beam supporting a first alignment member that extends outwardly of the external surface of the first beam and defines a first concavity; a second beam having a first end, a second end, a second internal clamping surface extending between the first and second ends of the second beam, and an external surface extending between the first and second ends of the second beam, the second beam supporting a second alignment member that extends outwardly of the external surface of the second beam and defines a second concavity; and a hinge portion coupling the first ends of the first and second beams together to facilitate movement of the ligation clip from an open position to a closed position; wherein the first alignment member is configured to receive a portion of the second end of one of the first and second beams of a second ligation clip when the stackable ligation clip is stacked in tip-to-tail fashion with the second ligation clip in a stacked configuration, and the second alignment member is configured to receive a portion of the second end of the other of the first and second beams of the second ligation clip when the stackable ligation clip and the second ligation clip are in the stacked configuration to maintain the stackable ligation clip and the second ligation clip in the stacked configuration.
A gear engagement system with clutching elements equipped with claws, which comprises a housing with a housing wall, a toothed wheel having first claws, a ring having second claws, bearings for the toothed wheel, at least one lever connected with the ring by means of connector, wherein the the toothed wheel, the ring and the bearings are located in the housing, the toothed wheel has internal and/or external teeth, the first claws are notched on the front surface of the toothed wheel, the ring is coaxial with the toothed wheel and located opposite to the toothed wheel, the second claws matches to the first claws, characterised in that it comprises an actuator and two levers in the form of symmetrical cams, first ends of the cams are mounted to the housing by means of two bearing elements in form of a shaft, the ring, on its both sides, is connected with the cams by means of two connectors located in the middle part of each cam, second ends of the cams are connected with a first end of a driving member; the ring has at least three spring mounting elements installed radially on the ring and at least three springs connect the mounting elements with the housing, the cams, the driving member, the springs and the actuator are located outside the housing, the connectors and the spring mounting elements pass through the housing wall while second end of the driving member is connected with the actuator.
A contactless millimetre band transmission-reception system for a high bit-rate data transmission, comprising a common processing circuit feeding modulation signals and a plurality of integrated transmission-reception circuits, all of which are identical with each other, electrically connected to said common processing circuit so as to receive said modulation signals and also all receiving a clock signal coming from a common clock signal feed, said integrated transmission-reception circuits each comprising: - an oscillator locked onto the clock signal so as to produce a multiple carrier frequency (Fp) of the clock signal; - a transmission channel comprising a first controllable phase-shifting circuit (PH1a, PH1b), a first circuit (M1i, M1q) for transposing frequency to the carrier frequency and a power amplifier; - a reception channel comprising a low noise amplifier, a second circuit (M2i, M2q) for transposing frequency from the carrier frequency and a second controllable phase-shifting circuit (PH2a, PH2b), said system further comprising, for each integrated transmission-reception circuit, at least one respective antenna connected to said transmission and reception channels of said circuit. - an oscillator locked onto the clock signal so as to produce a multiple carrier frequency (Fp) of the clock signal; - a transmission channel comprising a first controllable phase-shifting circuit (PH1a, PH1b), a first circuit (M1i, M1q) for transposing frequency to the carrier frequency and a power amplifier; - a reception channel comprising a low noise amplifier, a second circuit (M2i, M2q) for transposing frequency from the carrier frequency and a second controllable phase-shifting circuit (PH2a, PH2b),
Phosphor arrangement for light conversion, in particular for conversion of blue light into white light, comprising: a substrate with a mounting surface, a polymer with a phosphor mixture, wherein the polymer is arranged on the mounting surface, wherein the phosphor mixture comprises yellow phosphor, green phosphor and red phosphor and wherein the generic formula of the phosphors is (YGd)3Al5O12:Ce for the yellow phosphor, Lu3Al5O12:Ce for the green phosphor and CaAISiN3:Eu for the red phosphor, characterised in that the phosphor mixture comprises metallic nanoparticles, wherein the ratio of the metallic nanoparticles to the total weight of the polymer is given by a content of the metallic nanoparticles between 1.5 to 3.0 mmol/kg of the polymer. a substrate with a mounting surface, a polymer with a phosphor mixture, wherein the polymer is arranged on the mounting surface, wherein the phosphor mixture comprises yellow phosphor, green phosphor and red phosphor and wherein the generic formula of the phosphors is (YGd)3Al5O12:Ce for the yellow phosphor, Lu3Al5O12:Ce for the green phosphor and CaAISiN3:Eu for the red phosphor, characterised in that the phosphor mixture comprises metallic nanoparticles, wherein the ratio of the metallic nanoparticles to the total weight of the polymer is given by a content of the metallic nanoparticles between 1.5 to 3.0 mmol/kg of the polymer.
A concentrator photovoltaic device comprising: an optical concentrator for concentrating sunlight; a solar battery cell; a homogenizer which is provided above the solar battery cell such that a bottom surface thereof faces the solar battery cell and which guides sunlight concentrated by the optical concentrator to the solar battery cell; a sealant which covers a side surface of a lower portion of the homogenizer and the solar battery cell; and a light transmission preventing layer provided between the sealant and the homogenizer, wherein the homogenizer has a trapezoidal shape in which a sectional area at the optical concentrator side is larger than a sectional area at the solar battery cell side, a thickness of the light transmission preventing layer is equal to or larger than 0.1 mm and equal to or smaller than 1.2 mm, and a relationship of 0.5 ≤ b/a < 1.0 is satisfied between a height (b) of the light transmission preventing layer and a height (a) of the sealant at a position where the light transmission preventing layer is formed, characterized in that a relationship of nh > nf > nt is satisfied among a refractive index nh of the homogenizer, a refractive index nf of the sealant, and a refractive index nt of the light transmission preventing layer. an optical concentrator for concentrating sunlight; a solar battery cell; a homogenizer which is provided above the solar battery cell such that a bottom surface thereof faces the solar battery cell and which guides sunlight concentrated by the optical concentrator to the solar battery cell; a sealant which covers a side surface of a lower portion of the homogenizer and the solar battery cell; and a light transmission preventing layer provided between the sealant and the homogenizer, wherein the homogenizer has a trapezoidal shape in which a sectional area at the optical concentrator side is larger than a sectional area at the solar battery cell side, a thickness of the light transmission preventing layer is equal to or larger than 0.1 mm and equal to or smaller than 1.2 mm, and a relationship of 0.5 ≤ b/a < 1.0 is satisfied between a height (b) of the light transmission preventing layer and a height (a) of the sealant at a position where the light transmission preventing layer is formed, characterized in that a relationship of nh > nf > nt is satisfied among a refractive index nh of the homogenizer, a refractive index nf of the sealant, and a refractive index nt of the light transmission preventing layer.
A device for generating a synthetic jet comprising: a first flap (16a; 202) wherein the first flap is hinged on one end to allow the flap to rotate about a first hinge as part of a first flapping motion; a first actuator (106; 224a) coupled to the first flap configured to cause the first flapping motion; a second flap (16b; 210) wherein the second flap is hinged one end to allow the second flap to rotate about a second hinge as part of a second flapping motion; a second actuator coupled to the second flap configured to cause the second flapping motion; and a chamber (14; 228) including an aperture (20; 228) where a first portion of the chamber is formed from the first flap and a second portion of the chamber is formed from the second flap wherein, when driven at a sufficient rate, the first flapping motion and the second flapping motion cause a synthetic jet to be emitted from the aperture; characterized by the flapping motion of the first flap (16a; 202) being driven at a first frequency and the flapping motion of the second flap (16b; 210) being driven at a second frequency different from the first frequency, the device further comprising a control system configured to vary each of the first and second frequencies. a first flap (16a; 202) wherein the first flap is hinged on one end to allow the flap to rotate about a first hinge as part of a first flapping motion; a first actuator (106; 224a) coupled to the first flap configured to cause the first flapping motion; a second flap (16b; 210) wherein the second flap is hinged one end to allow the second flap to rotate about a second hinge as part of a second flapping motion; a second actuator coupled to the second flap configured to cause the second flapping motion; and a chamber (14; 228) including an aperture (20; 228) where a first portion of the chamber is formed from the first flap and a second portion of the chamber is formed from the second flap wherein, when driven at a sufficient rate, the first flapping motion and the second flapping motion cause a synthetic jet to be emitted from the aperture; characterized by the flapping motion of the first flap (16a; 202) being driven at a first frequency and the flapping motion of the second flap (16b; 210) being driven at a second frequency different from the first frequency, the device further comprising a control system configured to vary each of the first and second frequencies.
A monoclonal antibody that binds to Clostridium difficile toxin A, wherein said antibody comprises a heavy chain variable domain and a light chain variable domain, and wherein the heavy chain variable domain comprises: a framework region 1 comprising the amino acid sequence SEQ ID NO:5; a complementarity determining region 1 comprising the amino acid sequence of SEQ ID NO:6; an FR2 comprising the amino acid sequence SEQ ID NO:7; a CDR2 comprising the amino acid sequence of SEQ ID NO:8; an FR3 comprising the amino acid sequence SEQ ID NO:9; a CDR3 comprising the amino acid sequence of SEQ ID NO:10; and an FR4 comprising the amino acid sequence SEQ ID NO:11; and wherein the light chain variable domain comprises: an FR1 comprising the amino acid sequence SEQ ID NO:12; a CDR1 comprising the amino acid sequence of SEQ ID NO:13; an FR2 comprising the amino acid sequence SEQ ID NO:14; a CDR2 comprising the amino acid sequence of SEQ ID NO:15; an FR3 comprising the amino acid sequence SEQ ID NO:16; a CDR3 comprising the amino acid sequence of SEQ ID NO:17; and an FR4 comprising the amino acid sequence SEQ ID NO:18.
A hybrid vehicle comprising: a battery which is charged with electricity generated by a generator; a motor which drives a driving shaft of the hybrid vehicle by using at least one of the electricity generated by the generator and the electricity charged in the battery; an engine which drives the generator and the hybrid vehicle; a clutch; and a control unit which selects a smaller one of a first possible battery output acquired from a map of a battery output and a state of charge of the battery and a second possible battery output acquired from a map of a battery output and a temperature of the battery and acquires the selected smaller one as a possible battery output that can be outputted by the battery and which sets a change vehicle velocity depending on the possible battery output, the control unit which changes a engaged state of the clutch in which a motor shaft of the motor and an engine shaft of the engine are engaged with each other to a released state of the clutch in which the motor shaft and the engine shaft are released from each other and changes an engine driving state of the hybrid vehicle in which the hybrid vehicle is driven by the engine to a motor driving state of the hybrid vehicle in which the hybrid vehicle is driven by the motor, when a vehicle velocity of the hybrid vehicle is the change vehicle velocity. a battery which is charged with electricity generated by a generator; a motor which drives a driving shaft of the hybrid vehicle by using at least one of the electricity generated by the generator and the electricity charged in the battery; an engine which drives the generator and the hybrid vehicle; a clutch; and a control unit which selects a smaller one of a first possible battery output acquired from a map of a battery output and a state of charge of the battery and a second possible battery output acquired from a map of a battery output and a temperature of the battery and acquires the selected smaller one as a possible battery output that can be outputted by the battery and which sets a change vehicle velocity depending on the possible battery output, the control unit which changes a engaged state of the clutch in which a motor shaft of the motor and an engine shaft of the engine are engaged with each other to a released state of the clutch in which the motor shaft and the engine shaft are released from each other and changes an engine driving state of the hybrid vehicle in which the hybrid vehicle is driven by the engine to a motor driving state of the hybrid vehicle in which the hybrid vehicle is driven by the motor, when a vehicle velocity of the hybrid vehicle is the change vehicle velocity.