mhurhangee/ep-ind-claims huggingface dataset:
An elevator system, comprising: an elevator car; a first governor sheave supported on the elevator car for movement with the elevator car and for rotational movement relative to the elevator car responsive to movement of the elevator car; a first governor tripping mechanism supported on the first governor sheave that provides an indication to perform a first governor function to control movement of the elevator car responsive to the elevator car moving at a speed above a first threshold speed; a second governor sheave supported on the elevator car for movement with the elevator and for rotational movement relative to the elevator car responsive to movement of the elevator car; a second governor tripping mechanism supported on the second governor sheave that provides an indication to perform a second governor function to control movement of the elevator car responsive to the elevator car moving at a speed above a second threshold speed; characterised in that: the second threshold speed is different to the first threshold speed. an elevator car; a first governor sheave supported on the elevator car for movement with the elevator car and for rotational movement relative to the elevator car responsive to movement of the elevator car; a first governor tripping mechanism supported on the first governor sheave that provides an indication to perform a first governor function to control movement of the elevator car responsive to the elevator car moving at a speed above a first threshold speed; a second governor sheave supported on the elevator car for movement with the elevator and for rotational movement relative to the elevator car responsive to movement of the elevator car; a second governor tripping mechanism supported on the second governor sheave that provides an indication to perform a second governor function to control movement of the elevator car responsive to the elevator car moving at a speed above a second threshold speed; characterised in that: the second threshold speed is different to the first threshold speed.
Use in vitro of a protein having the amino acid sequence of SEQ ID NO: 1 for: (i) inhibiting aggregation of a target protein; (ii) refolding a denatured target protein; (iii) preventing denaturation of a target protein; (iv) detecting an unfolded or denatured target protein for quality control; or (v) stabilizing a target protein. (i) inhibiting aggregation of a target protein; (ii) refolding a denatured target protein; (iii) preventing denaturation of a target protein; (iv) detecting an unfolded or denatured target protein for quality control; or (v) stabilizing a target protein.
A process for preparing a compound of formula Ia, or a pharmaceutically acceptable salt thereof:, wherein the process comprises reacting a compound of formula IX: with a base and a peroxide, and then reacting the resulting mixture with an acidic solution.
A vehicle side airbag device adapted to be installed to a door-side side section of a seatback in a vehicle seat, said vehicle side airbag device comprising: a side airbag (20; 70) in which a bag shaped airbag main body section is formed by double folding a panel (32; 72) and stitching together outer peripheral edge portions of the panel (32; 72), and in which the interior of the airbag main body section is sectioned into a plurality of chambers (26, 28) including an upper chamber and a lower chamber by one tether section or a plurality of tether sections; and an inflator that supplies gas into the plurality of chambers (26, 28) when a vehicle is involved in a side-on collision, characterized in that the double folded panel (32; 72) is a single-sheet panel the interior of which is sectioned into the plurality of chambers (26, 28) by partially folding over, superimposing and stitching the panel (32, 72). a side airbag (20; 70) in which a bag shaped airbag main body section is formed by double folding a panel (32; 72) and stitching together outer peripheral edge portions of the panel (32; 72), and in which the interior of the airbag main body section is sectioned into a plurality of chambers (26, 28) including an upper chamber and a lower chamber by one tether section or a plurality of tether sections; and an inflator that supplies gas into the plurality of chambers (26, 28) when a vehicle is involved in a side-on collision, characterized in that the double folded panel (32; 72) is a single-sheet panel the interior of which is sectioned into the plurality of chambers (26, 28) by partially folding over, superimposing and stitching the panel (32, 72).
A surgical implant comprising: a metallic substrate; a tantalum interlayer disposed adjacent to the metallic substrate and comprising α-tantalum and β-tantalum; at least one diamond like carbon ("DLC") layer disposed adjacent the tantalum interlayer; wherein the tantalum interlayer has a phase gradient from β-tantalum to α-tantalum between a metallic substrate side and a DLC side; wherein the DLC layer has a hardness value and an elastic modulus value; and wherein the hardness value has a gradient increasing away from the tantalum side; and wherein the elastic modulus value has a gradient increasing away from the tantalum side. a metallic substrate; a tantalum interlayer disposed adjacent to the metallic substrate and comprising α-tantalum and β-tantalum; at least one diamond like carbon ("DLC") layer disposed adjacent the tantalum interlayer; wherein the tantalum interlayer has a phase gradient from β-tantalum to α-tantalum between a metallic substrate side and a DLC side; wherein the DLC layer has a hardness value and an elastic modulus value; and wherein the hardness value has a gradient increasing away from the tantalum side; and wherein the elastic modulus value has a gradient increasing away from the tantalum side.
A heterocycle-containing amino acid compound represented by a general formula: wherein R 1 and R 2 each represent a hydrogen atom; R 3 represents a carboxyl group or a hydroxyl group; and n is 1, or a salt thereof. wherein R 1 and R 2 each represent a hydrogen atom; R 3 represents a carboxyl group or a hydroxyl group; and n is 1, or a salt thereof.
An Electro-Static Discharge, ESD, protection circuit, comprising a p-type substrate; a p-type well formed on the p-type substrate; a first Negative channel Metal Oxide Semiconductor, NMOS, transistor and a second NMOS transistor formed in the p-type well, wherein a drain of the first NMOS transistor is connected to a source of the second NMOS transistor; and a Lightly Doped Drain region, characterized in that the Lightly Doped Drain region is formed only in proximity to a source of the first NMOS transistor. a p-type substrate; a p-type well formed on the p-type substrate; a first Negative channel Metal Oxide Semiconductor, NMOS, transistor and a second NMOS transistor formed in the p-type well, wherein a drain of the first NMOS transistor is connected to a source of the second NMOS transistor; and a Lightly Doped Drain region, characterized in that the Lightly Doped Drain region is formed only in proximity to a source of the first NMOS transistor.
Cementitious mixture comprising beta clinker in an amount in the range 25 to 65 % by weight, sulfoaluminate clinker in an amount in the range 65 to 25 % by weight, and calcium sulfate in an amount in the range 10 to 20 % by weight, said beta clinker having a β-C2S content > 65% by weight, an SO 3 content > 4% by weight, a C3S content < 10% by weight and the said sulfoaluminate clinker having a C4A3$ content > 45% by weight.
A method for controlling a driven automatic or manual gearbox with a speed regulator equipping a vehicle travelling uphill, characterized in that it consists in: - regulating the speed to a set-point fixed by the driver of the vehicle, - acquiring the immediate values of the speed and of the engine torque, - estimating resistant forces from speed values and from the engine rev counter, - calculating from the estimation of the resistant forces and the maximum torque of the heat engine the maximum possible vehicle acceleration in the gear box ratio above the one which is engaged, - activating a vehicle speed limiting function at a speed set-point corresponding to the maximum possible speed for the heat engine when the maximum possible acceleration on the higher ratio is negative, - not activating the vehicle speed limiting function when the maximum possible acceleration on the higher ratio is positive. - regulating the speed to a set-point fixed by the driver of the vehicle, - acquiring the immediate values of the speed and of the engine torque, - estimating resistant forces from speed values and from the engine rev counter, - calculating from the estimation of the resistant forces and the maximum torque of the heat engine the maximum possible vehicle acceleration in the gear box ratio above the one which is engaged, - activating a vehicle speed limiting function at a speed set-point corresponding to the maximum possible speed for the heat engine when the maximum possible acceleration on the higher ratio is negative, - not activating the vehicle speed limiting function when the maximum possible acceleration on the higher ratio is positive.
Method for producing an electrical connection by ultrasonic welding between an electrical conductor and a contact element, the method comprising the steps of: - generating a surface structure on the contact element, which is so adapted to a surface structure (26, 27) on an anvil of an ultrasonic welding machine that the anvil and the contact element each comprises a surface structure (26, 27, 33) that is complementary to the other; - placing the contact element on the anvil of the ultrasonic welding system, so that the surface structure of the contact element engages with the surface structure (26, 27) of the anvil; and - welding of the electrical conductor to the contact element. - generating a surface structure on the contact element, which is so adapted to a surface structure (26, 27) on an anvil of an ultrasonic welding machine that the anvil and the contact element each comprises a surface structure (26, 27, 33) that is complementary to the other; - placing the contact element on the anvil of the ultrasonic welding system, so that the surface structure of the contact element engages with the surface structure (26, 27) of the anvil; and - welding of the electrical conductor to the contact element.
A process for treating a purge feed stream comprising oxidation byproducts and one or more catalyst components, wherein said oxidation byproducts include benzoic acid and non-BA byproducts, wherein said oxidation byproducts are produced in a terephthalic acid production process; wherein said non-BA byproducts comprise IPA, PA, trimellitic acid, 2,5,4'-tricarboxybiphenyl 2,5,4'- tricarboxybenzophenone, para-toluic acid (p-TAc), 4-carboxybenzaldehyde (4-CBA), naphthalene dicarboxylic acid, monocarboxy-fluorenones, monocarboxyfluorenes, and/or dicarboxyfluorenones; said process comprising: (a) separating at least a portion of said purge feed stream into a non-BA byproduct rich stream and a catalyst and BA rich stream; and (b) separating at least a portion of said catalyst and BA rich stream into a catalyst rich stream and a BA rich stream, characterized in that the concentration of said non-BA byproducts in said non-BA byproduct rich stream is at least 1.5 times the concentration of said non-BA byproducts in said purge feed stream on a weight basis; and that the cumulative concentration of all of said catalyst components in said catalyst rich stream is at least 1.5 times the cumulative concentration of all of said catalyst components in said purge feed stream on a weight basis; and that the concentration of BA in said BA rich stream is at least 1.5 times the concentration of BA in said purge feed stream on a weight basis; and that the cumulative concentration of all of said catalyst components in said catalyst and BA rich stream is at least 1.5 times the cumulative concentration of all of said catalyst components in said purge feed stream on a weight basis, and wherein the concentration of BA in said catalyst and BA rich stream is at least 1.5 times the concentration of BA in said purge feed stream on a weight basis. (a) separating at least a portion of said purge feed stream into a non-BA byproduct rich stream and a catalyst and BA rich stream; and (b) separating at least a portion of said catalyst and BA rich stream into a catalyst rich stream and a BA rich stream,
An indoor unit of an air conditioner which is attachable to a wall surface, comprising: a casing provided with an outlet through which air blown out to a room passes; a design panel that covers the outlet in the front view during shutdown; and a driving machine that moves the design panel, further comprising a horizontal flap provided at the outlet, the horizontal flap being configured for guiding the air that is blown out from the outlet and being configured for moving so as to be parallel to a horizontal plane for configuring the base of the indoor unit with the base being parallel to the horizontal plane, wherein the design panel moves with respect to the outlet and thereby the outlet opens during operation, and wherein the design panel covers the outlet and the horizontal flap in the front view during shutdown. a casing provided with an outlet through which air blown out to a room passes; a design panel that covers the outlet in the front view during shutdown; and a driving machine that moves the design panel, further comprising a horizontal flap provided at the outlet, the horizontal flap being configured for guiding the air that is blown out from the outlet and being configured for moving so as to be parallel to a horizontal plane for configuring the base of the indoor unit with the base being parallel to the horizontal plane, wherein the design panel moves with respect to the outlet and thereby the outlet opens during operation, and wherein the design panel covers the outlet and the horizontal flap in the front view during shutdown.
Control system for controlling at least one propeller (10, 15) of a compound rotorcraft, said control system generating a control order for controlling, collectively, a pitch of the blades (11, 16) of said at least one propeller (10, 15), said control system comprising: • a first piloting control making it possible for a first control setpoint to be generated; • a second piloting control making it possible for at least one second control setpoint different from said first control setpoint to be generated, and • a control unit configured to generate said control order depending on said first control setpoint and said second control setpoint, said control unit implementing a control law generating said control order as a function of said first control setpoint and said second control setpoint, characterised in that, in said control law, said first control setpoint is representative of a first control parameter and said second control setpoint is representative of a second control parameter corresponding to a primitive of said first control parameter. said control system comprising: • a first piloting control making it possible for a first control setpoint to be generated; • a second piloting control making it possible for at least one second control setpoint different from said first control setpoint to be generated, and • a control unit configured to generate said control order depending on said first control setpoint and said second control setpoint, said control unit implementing a control law generating said control order as a function of said first control setpoint and said second control setpoint, • a first piloting control making it possible for a first control setpoint to be generated; • a second piloting control making it possible for at least one second control setpoint different from said first control setpoint to be generated, and • a control unit configured to generate said control order depending on said first control setpoint and said second control setpoint, said control unit implementing a control law generating said control order as a function of said first control setpoint and said second control setpoint, characterised in that, in said control law, said first control setpoint is representative of a first control parameter and said second control setpoint is representative of a second control parameter corresponding to a primitive of said first control parameter.
A water-entanglement system comprising: a first rotatable surface (250, 310), wherein the first rotatable surface comprises a first water jet configured to water entangle a preform in situ; and a second rotatable surface (260, 340) disposed proximate the first rotatable surface, wherein the second rotatable surface comprises a second water jet configured to water entangle the preform in situ, wherein the first rotatable surface (250, 310) is oriented substantially parallel to the second rotatable surface (260, 340), wherein the first water jet is oriented towards the second rotatable surface (260, 340) and wherein the second water jet is oriented towards the first rotatable surface (250, 310), wherein the first rotatable surface (250, 310) and the second rotatable surface (260, 340) bound a gap, wherein the preform is an annular preform comprising of a plurality of layers, wherein the first rotatable surface and the second rotatable surface are configured to rotate about a common axis substantially in unison, the water-entanglement system further comprising a first fabric source and a second fabric source. a first rotatable surface (250, 310), wherein the first rotatable surface comprises a first water jet configured to water entangle a preform in situ; and a second rotatable surface (260, 340) disposed proximate the first rotatable surface, wherein the second rotatable surface comprises a second water jet configured to water entangle the preform in situ, wherein the first rotatable surface (250, 310) is oriented substantially parallel to the second rotatable surface (260, 340), wherein the first water jet is oriented towards the second rotatable surface (260, 340) and wherein the second water jet is oriented towards the first rotatable surface (250, 310), wherein the first rotatable surface (250, 310) and the second rotatable surface (260, 340) bound a gap, wherein the preform is an annular preform comprising of a plurality of layers, wherein the first rotatable surface and the second rotatable surface are configured to rotate about a common axis substantially in unison, the water-entanglement system further comprising a first fabric source and a second fabric source.
A method of forming a mechanical joint between a Nitinol tube and a corresponding tubular component of a metallic material other than Nitinol comprising: providing a first Nitinol tube wherein said tube includes a first end portion and a plurality of first protruding lobes extending from said first end portion; providing a second tubular component of a metallic material other than Nitinol having a second end portion and a plurality of second protruding lobes extending from said second end portion, wherein said second protruding lobes are complimentary in size and geometry with the first protruding lobes; mechanically engaging said first end portion having said first plurality of lobes with said second end portion having said second plurality of lobes wherein said lobes engage and form a mechanical joint; wherein said plurality of lobes are in a first position on said first Nitinol tube characterised in that, said Nitinol lobes are cooled and said cooled lobes are expanded to a second position and said expanded lobes are aligned with said end portion of said second tubular component and said expanded lobes are then heated and return to said first position and form said mechanical joint. providing a first Nitinol tube wherein said tube includes a first end portion and a plurality of first protruding lobes extending from said first end portion; providing a second tubular component of a metallic material other than Nitinol having a second end portion and a plurality of second protruding lobes extending from said second end portion, wherein said second protruding lobes are complimentary in size and geometry with the first protruding lobes; mechanically engaging said first end portion having said first plurality of lobes with said second end portion having said second plurality of lobes wherein said lobes engage and form a mechanical joint; wherein said plurality of lobes are in a first position on said first Nitinol tube characterised in that, said Nitinol lobes are cooled and said cooled lobes are expanded to a second position and said expanded lobes are aligned with said end portion of said second tubular component and said expanded lobes are then heated and return to said first position and form said mechanical joint.
A cap remover, comprising: an outer member (102, 202); an inner member (106; 208), and an activation member (104, 204) at least partially received within the outer member characterized in that the activation member is configured to move relative to the outer member; and the inner member (106, 208) is positioned within the outer member and configured to radially compress and to exert a radial force on a cap under an axial pressure force asserted by the activation member that moves the activation member from a first axial position to a second axial position, such that the inner member compresses from a first position to a second position. an outer member (102, 202); an inner member (106; 208), and an activation member (104, 204) at least partially received within the outer member characterized in that the activation member is configured to move relative to the outer member; and the inner member (106, 208) is positioned within the outer member and configured to radially compress and to exert a radial force on a cap under an axial pressure force asserted by the activation member that moves the activation member from a first axial position to a second axial position, such that the inner member compresses from a first position to a second position.
An electrical connector for connecting a cable having a metal braid layer with an electrical apparatus having an apparatus housing, the electrical connector comprising: a body; a metal shielding member fitted on the body a terminal module arranged within the body, wherein the terminal module at least comprises a grounding terminal for a grounding connection via the electrical apparatus and a plurality of signal terminals for supplying electrical current from the cable to the electrical apparatus, and the metal shielding member comprises an elastic terminal electrically contacting the grounding terminal, characterized in that the body is adapted to be mounted on the apparatus housing; the electrical connector further comprises a cover fitted on the body, the metal shielding member is partially covered by the cover, and the metal shielding member further comprises a clamping portion adapted to clamp and electrically contact the metal braid layer. a body; a metal shielding member fitted on the body a terminal module arranged within the body, wherein the terminal module at least comprises a grounding terminal for a grounding connection via the electrical apparatus and a plurality of signal terminals for supplying electrical current from the cable to the electrical apparatus, and the metal shielding member comprises an elastic terminal electrically contacting the grounding terminal, characterized in that the body is adapted to be mounted on the apparatus housing; the electrical connector further comprises a cover fitted on the body, the metal shielding member is partially covered by the cover, and the metal shielding member further comprises a clamping portion adapted to clamp and electrically contact the metal braid layer.