mhurhangee/ep-ind-claims huggingface dataset:
Compound according to Formula or Formula wherein R 1 is OR 1' or NR 1" R 1''' wherein R 1' is hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms, or wherein R1 " and R 1''' independently are hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms, and R 2 is OR 2' or NR 2" R 2''' wherein R 2' is hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms, or wherein R 2" and R 2''' independently are hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms or wherein R 1 and R 2 together are NR 12 forming a cyclic imide, wherein R 12 is hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms; or wherein R 3 and R 4 are each independently -(CH 2) n' -OR 5 or -(CH 2) n" -CO-R 6, wherein n' and n" are each independently 1, 2 or 3, R 5 is hydrogen or trans -CO-CH=CH-COOCH 3, R 6 is OR 7 wherein R 6 is hydrogen or alkyl with 1 to 4 carbon atoms, or NR 8 R 9, wherein R 8 and R 9 are each independently hydrogen or alkyl with 1 to 4 carbon atoms, and wherein one of R 3 and R 4 in Formula is trans -(CH 2) 2 -O CO-CH=CH-COOCH 3 and with the proviso that R 3 and R 4 are not both trans -(CH 2) 2 -O CO-CH=CH-COOCH 3. wherein R 1 is OR 1' or NR 1" R 1''' wherein R 1' is hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms, or wherein R1 " and R 1''' independently are hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms, and R 2 is OR 2' or NR 2" R 2''' wherein R 2' is hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms, or wherein R 2" and R 2''' independently are hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms or wherein R 1 and R 2 together are NR 12 forming a cyclic imide, wherein R 12 is hydrogen, alkyl with 1 to 6 carbon atoms or cyclic alkyl with 3 to 6 carbon atoms; or wherein R 3 and R 4 are each independently -(CH 2) n' -OR 5 or -(CH 2) n" -CO-R 6, wherein n' and n" are each independently 1, 2 or 3, R 5 is hydrogen or trans -CO-CH=CH-COOCH 3, R 6 is OR 7 wherein R 6 is hydrogen or alkyl with 1 to 4 carbon atoms, or NR 8 R 9, wherein R 8 and R 9 are each independently hydrogen or alkyl with 1 to 4 carbon atoms, and wherein one of R 3 and R 4 in Formula is trans -(CH 2) 2 -O CO-CH=CH-COOCH 3 and with the proviso that R 3 and R 4 are not both trans -(CH 2) 2 -O CO-CH=CH-COOCH 3. R 3 and R 4 are each independently -(CH 2) n' -OR 5 or -(CH 2) n" -CO-R 6, wherein n' and n" are each independently 1, 2 or 3, R 5 is hydrogen or trans -CO-CH=CH-COOCH 3, R 6 is OR 7 wherein R 6 is hydrogen or alkyl with 1 to 4 carbon atoms, or NR 8 R 9, wherein R 8 and R 9 are each independently hydrogen or alkyl with 1 to 4 carbon atoms, and wherein one of R 3 and R 4 in Formula is trans -(CH 2) 2 -O CO-CH=CH-COOCH 3 and with the proviso that R 3 and R 4 are not both trans -(CH 2) 2 -O CO-CH=CH-COOCH 3.
An aqueous based drilling fluid composition comprising: i) an aqueous based continuous phase; ii) a reactive clay or shale material; and iii) a shale hydration inhibition agent having the formula: wherein R is an alkyl group having 1 to 6 carbons, R 1 is an alkyl group having 2 to 10 carbons, and X is an anion. wherein the shale hydration inhibition agent is present in sufficient concentration to reduce the reactivity of the clay or shale. i) an aqueous based continuous phase; ii) a reactive clay or shale material; and iii) a shale hydration inhibition agent having the formula: wherein R is an alkyl group having 1 to 6 carbons, R 1 is an alkyl group having 2 to 10 carbons, and X is an anion. wherein the shale hydration inhibition agent is present in sufficient concentration to reduce the reactivity of the clay or shale. R is an alkyl group having 1 to 6 carbons, R 1 is an alkyl group having 2 to 10 carbons, and X is an anion.
Asynchronous circuit comprising a fork having at least two branches (B0, B1), each branch being connected to a logic gate (G0, G1) so that the logic gate receives as input a branch-ending signal (X0, X1), characterized in that it comprises: - a circuit (2a, 2b) for branching the branch-ending signal (X0, X1) at the level of each logic gate to form a branched signal (X0', X1'), and - a blocking circuit comprising a Muller gate (C, C', C", G0, G1) and receiving as input at least one branched signal (X0', X1'), the blocking circuit being configured to prevent the propagation of an output signal (Eack, E0ack, E1ack, S0, S1) when the branch-ending signals (X0, X1) are in different logic states. - a circuit (2a, 2b) for branching the branch-ending signal (X0, X1) at the level of each logic gate to form a branched signal (X0', X1'), and - a blocking circuit comprising a Muller gate (C, C', C", G0, G1) and receiving as input at least one branched signal (X0', X1'), the blocking circuit being configured to prevent the propagation of an output signal (Eack, E0ack, E1ack, S0, S1) when the branch-ending signals (X0, X1) are in different logic states.
System for attaching an element capable of vibrating on an aircraft structure, comprising at least one pair of scoops able to be fixed, on the one hand, to the element capable of vibrating and, on the other hand, to the structure, and of which each scoop (10a, 10b) of the pair of scoops comprises: - an external rigid element able to be fixed to the structure, - an internal rigid element mounted inside the external rigid element and able to be secured to the element capable of vibrating, and - a flexible element placed along each flank of the external rigid element, between the external rigid element and the internal rigid element. - an external rigid element able to be fixed to the structure, - an internal rigid element mounted inside the external rigid element and able to be secured to the element capable of vibrating, and - a flexible element placed along each flank of the external rigid element, between the external rigid element and the internal rigid element.
A wind turbine rotor blade load emulator arrangement comprising - a support unit constructed to support a rotor blade during a fatigue test procedure when the root end of the rotor blade is mounted to the support unit; - an exciter configured to effect cyclic deflection of the rotor blade during a fatigue test procedure; - a number of load emulator fittings, wherein a load emulator fitting is realised for attaching to the rotor blade; which load emulator arrangement is characterized by - a stiffness augmentation assembly for mounting to the rotor blade over a mounting length, which stiffness augmentation assembly is realised to increase the stiffness of the rotor blade in the mounting length, and wherein the stiffness augmentation assembly comprises a first end fitting mounted at a first position on the rotor blade; a second end fitting mounted at a second position on the rotor blade, wherein the distance between the end fittings comprises 2% - 30% of the rotor blade length; and a tensile element extending between the end fittings. - a support unit constructed to support a rotor blade during a fatigue test procedure when the root end of the rotor blade is mounted to the support unit; - an exciter configured to effect cyclic deflection of the rotor blade during a fatigue test procedure; - a number of load emulator fittings, wherein a load emulator fitting is realised for attaching to the rotor blade; - a stiffness augmentation assembly for mounting to the rotor blade over a mounting length, which stiffness augmentation assembly is realised to increase the stiffness of the rotor blade in the mounting length, and wherein the stiffness augmentation assembly comprises a first end fitting mounted at a first position on the rotor blade; a second end fitting mounted at a second position on the rotor blade, wherein the distance between the end fittings comprises 2% - 30% of the rotor blade length; and a tensile element extending between the end fittings.
A core for an electrical machine, comprising: a core body with circumferentially offset winding slots; a winding seated in one or more of the winding slots and having an endturn proximate an end of the core body; and a heat sink embedded in the winding endturn; and characterised in that the heat sink includes an anchor fixed within the winding endturn, the anchor including a shank having a barb defined on an end of the shank, and wherein the winding includes a plurality of conductive wires and further comprising a resin encapsulating the conductive wires and the shank, and wherein the resin has a thermal conductivity lower than that of the winding and of the heat sink. a core body with circumferentially offset winding slots; a winding seated in one or more of the winding slots and having an endturn proximate an end of the core body; and
A peptide, comprising an amino acid sequence not less than 95% identical to the amino acid sequence of SEQ ID NO: 3, or a peptide comprising an amino acid sequence not less than 95% identical to the amino acid sequence of SEQ ID NO: 1.
A production line for the production of medicinal products comprising at least one active ingredient, the production line comprising an extruder, for producing an extrudate from the active ingredient and at least one excipient intended to form an encapsulating matrix of the active ingredient, and a cooling member for cooling the extrudate at the outlet of the extruder, the extruder comprising a barrel and at least two parallel screws housed in the barrel and interpenetrating with one another to mix the or each active ingredient with the or each excipient, characterized in that the barrel is oriented substantially vertically.
A hydrostatic drive as an overall system, with two fluidic displacement units (1, 3), which can be adjusted at least in respect of the volumetric flow, one of which displacement units is coupled to a power unit and the other is coupled to an output drive and which can be connected to each other in the manner of a closed fluidic circuit, connected to which is an accumulator circuit which comprises at least one accumulator device and which is subdivided into a low-pressure side and a high-pressure side, and with a valve control device for controlling the overall system, wherein, upon formation of the closed fluidic circuit, the two displacement units (1, 3) are connected to each other on their respective input and output side, each with a control line (13, 15), and wherein the valve control device is placed in the circuit substantially between the two control lines (13,15), characterised in that a second valve device each (59, 60) with non-return function is placed in the circuit between each of the two control lines (13, 15) and the low-pressure side accumulator circuit.
A battery module, comprising a heat dissipation mechanical part, wherein the heat dissipation mechanical part is located between a first battery cell layer and a second battery cell layer, two surfaces of the heat dissipation mechanical part are respectively bonded to the first battery cell layer and the second battery cell layer, and the first battery cell layer and the second battery cell layer are two adjacent battery cell layers in a battery cell group; the heat dissipation mechanical part comprises a first heat dissipation region and a second heat dissipation region; the first heat dissipation region comprises M heat dissipation pipes, and an average distance between the M heat dissipation pipes and a cooling medium outflow region located on a housing is A, wherein M is a positive integer greater than or equal to 1, and A is greater than 0; the second heat dissipation region comprises N heat dissipation pipes, and an average distance between the N heat dissipation pipes and the cooling medium outflow region located on the housing is B, wherein N is a positive integer greater than or equal to 1, and B is greater than 0; and when A is greater than B, a ratio of M to an area of the first heat dissipation region is greater than a ratio of N to an area of the second heat dissipation region, wherein a density of heat dissipation pipes in the first heat dissipation region is greater than a density of heat dissipation pipes in the second heat dissipation region. the heat dissipation mechanical part is located between a first battery cell layer and a second battery cell layer, two surfaces of the heat dissipation mechanical part are respectively bonded to the first battery cell layer and the second battery cell layer, and the first battery cell layer and the second battery cell layer are two adjacent battery cell layers in a battery cell group; the heat dissipation mechanical part comprises a first heat dissipation region and a second heat dissipation region; the first heat dissipation region comprises M heat dissipation pipes, and an average distance between the M heat dissipation pipes and a cooling medium outflow region located on a housing is A, wherein M is a positive integer greater than or equal to 1, and A is greater than 0; the second heat dissipation region comprises N heat dissipation pipes, and an average distance between the N heat dissipation pipes and the cooling medium outflow region located on the housing is B, wherein N is a positive integer greater than or equal to 1, and B is greater than 0; and when A is greater than B, a ratio of M to an area of the first heat dissipation region is greater than a ratio of N to an area of the second heat dissipation region, wherein a density of heat dissipation pipes in the first heat dissipation region is greater than a density of heat dissipation pipes in the second heat dissipation region.
Remote control device with retractable key, particularly for a motor vehicle, comprising a remote control unit comprising two shells, a lower one and an upper one, an insert forming a key bit mounted so that it can pivot between a deployed position of use and a retracted position stowed inside the unit and an elastic return mechanism for returning the insert towards the deployed position comprising a push-button situated on the so-called upper shell, said insert turning directly about said button which is secured in terms of rotation to the upper shell and comprising means of indexing rotation with said insert which means can be disengaged by pressing said button, in which said button is secured in terms of rotation to the upper shell by means of several first radial tenons which nest in corresponding first cavities of the upper shell and in which said indexing means consist of at least one second radial tenon nesting in a corresponding second cavity of the insert in the retracted stowed position and which is disengaged through a translational movement as the insert is deployed.
A sprue system, preferably a hot runner sprue system, for a diecasting die, comprising - at least one runner channel (6, 6'), which extends from an entry-side sprue mouth opening to an exit-side sprue opening (7, 7'), which opens into a die cavity of the diecasting die that is formed between a fixed die half (1, 1') and a movable die half (3, 3') or into a gate region (8, 8') arranged upstream thereof and comprises a geometrically and/or thermally defined parting region (9, 9') upstream of the sprue opening (7, 7') and downstream of the sprue mouth opening, - wherein the runner channel has a bend or kink in the parting region and/or - wherein a heating device is assigned to a runner channel portion (6'b) between the parting region and the exit-side sprue opening, and/or - wherein a region (17, 17') of the movable die half opposite the sprue opening has a cooling channel structure. - at least one runner channel (6, 6'), which extends from an entry-side sprue mouth opening to an exit-side sprue opening (7, 7'), which opens into a die cavity of the diecasting die that is formed between a fixed die half (1, 1') and a movable die half (3, 3') or into a gate region (8, 8') arranged upstream thereof and comprises a geometrically and/or thermally defined parting region (9, 9') upstream of the sprue opening (7, 7') and downstream of the sprue mouth opening, - wherein the runner channel has a bend or kink in the parting region and/or - wherein a heating device is assigned to a runner channel portion (6'b) between the parting region and the exit-side sprue opening, and/or - wherein a region (17, 17') of the movable die half opposite the sprue opening has a cooling channel structure.
A heavy duty pneumatic tire having a nominal aspect ratio of 65 % or less and comprising a tread that comes into contact with a road surface and a reinforcing layer located inward of the tread in a radial direction, wherein at least three circumferential grooves are formed on the tread, whereby at least four land portions aligned in an axial direction are formed in the tread, among the at least three circumferential grooves, a circumferential groove located on each outer side in the axial direction is a shoulder circumferential groove, a land portion located outward of the shoulder circumferential groove in the axial direction is a shoulder land portion, the reinforcing layer includes a belt including a large number of belt cords aligned with each other, and a band including a spirally wound band cord, the belt includes a plurality of belt plies aligned in the radial direction, the band includes a full band having ends opposed to each other across an equator plane, and a pair of edge bands located outward of the ends of the full band in the radial direction, and each end of the full band is located outward of the shoulder circumferential groove in the axial direction, characterized in that a ratio of a distance in the axial direction from the shoulder circumferential groove to the end of the full band to a width in the axial direction of the shoulder land portion is not less than 10 % and not greater than 50 %, and in that the plurality of belt plies includes two belt plies having a width larger than a width of the full band, and the full band is interposed between the two belt plies. at least three circumferential grooves are formed on the tread, whereby at least four land portions aligned in an axial direction are formed in the tread, among the at least three circumferential grooves, a circumferential groove located on each outer side in the axial direction is a shoulder circumferential groove, a land portion located outward of the shoulder circumferential groove in the axial direction is a shoulder land portion, the reinforcing layer includes a belt including a large number of belt cords aligned with each other, and a band including a spirally wound band cord, the belt includes a plurality of belt plies aligned in the radial direction, the band includes a full band having ends opposed to each other across an equator plane, and a pair of edge bands located outward of the ends of the full band in the radial direction, and each end of the full band is located outward of the shoulder circumferential groove in the axial direction, characterized in that a ratio of a distance in the axial direction from the shoulder circumferential groove to the end of the full band to a width in the axial direction of the shoulder land portion is not less than 10 % and not greater than 50 %, and in that the plurality of belt plies includes two belt plies having a width larger than a width of the full band, and the full band is interposed between the two belt plies.
A testing apparatus for testing tubular products used in oil and gas exploration, well drilling and mineral production, the testing apparatus comprising: an elongated chamber for securing a sample, the chamber being sealable to capture a fluid environment therein; a framework coupled to the elongated chamber and configured to secure the elongated chamber during testing, a plurality of subsystems, including: a pressurizing system that, in operation, creates a desired pressure in the fluid environment; a thermal system that, in operation, creates a desired temperature in the fluid environment; a first loading system supported by the framework and configured to impose a tensile or compressive load on the sample; and a second loading system supported by the framework and configured to imposes a bending load on the sample; and a control system configured to test the sample by operating a combination or all of the plurality of subsystems to apply the desired pressure in the fluid environment, temperature in the fluid environment, bending load on the sample, and/or tensile or compressive load on the sample, characterized in that the framework comprises rails and a thrust plate configured to slide along the rails upon mechanical engagement with a hydraulic cylinder of the second loading system, thereby supporting bending of the sample during bending operation. an elongated chamber for securing a sample, the chamber being sealable to capture a fluid environment therein; a framework coupled to the elongated chamber and configured to secure the elongated chamber during testing, a plurality of subsystems, including: a pressurizing system that, in operation, creates a desired pressure in the fluid environment; a thermal system that, in operation, creates a desired temperature in the fluid environment; a first loading system supported by the framework and configured to impose a tensile or compressive load on the sample; and a second loading system supported by the framework and configured to imposes a bending load on the sample; and a pressurizing system that, in operation, creates a desired pressure in the fluid environment; a thermal system that, in operation, creates a desired temperature in the fluid environment; a first loading system supported by the framework and configured to impose a tensile or compressive load on the sample; and a second loading system supported by the framework and configured to imposes a bending load on the sample; and a control system configured to test the sample by operating a combination or all of the plurality of subsystems to apply the desired pressure in the fluid environment, temperature in the fluid environment, bending load on the sample, and/or tensile or compressive load on the sample, characterized in that the framework comprises rails and a thrust plate configured to slide along the rails upon mechanical engagement with a hydraulic cylinder of the second loading system, thereby supporting bending of the sample during bending operation.