mhurhangee/ep-ind-claims huggingface dataset:
Use of a reagent for permanently inactivating nucleases wherein the reagent comprises an oxidizing agent, a protein denaturant and optionally a pH adjustor, wherein said oxidizing agent is selected from the group consisting of peroxides, alkaliperoxides peroxosulfates, peroxophosphates, peracids, preferably peracetic acid or ozone, oxoanions preferably permanganate or dichlorate, hypochlorite, chlorate and corresponding compounds of other halogens and combinations thereof and said protein denaturant is selected from the group comprising surfactants, preferably denaturing detergents, more preferred anionic, cationic, amphoteric and/or non-ionic detergents and combinations thereof.
Installation pack of a flexible member, such as a rope, belt or cable, of an elevator, which installation pack comprises a packing case, inside which is a reel, onto which a flexible member of an elevator is wound, which installation pack comprises means (3, 7) for supporting the reel in its position in a manner that allows rotation inside the packing case, whereby the means (3, 7) for supporting the reel in its position in a manner that allows rotation inside the packing case comprise at least a rotating shaft and a rotational support, being an edge of an aperture in both side walls of the packing case, on which rotational support the rotating shaft is disposed to rest, characterized in that the aperture is arranged to point obliquely downwards in two directions such that a first end of the aperture points obliquely downwards towards the front wall of the packing case and a second end of the aperture points obliquely downwards towards the rear wall of the packing case, and in that the second end of the aperture is closer to the inside base of the packing case than the first end of the aperture.
A stacking-type header, comprising: a first plate-shaped unit having a plurality of first outlet flow passages formed therein; and a second plate-shaped unit being stacked on the first plate-shaped unit and having a first inlet flow passage formed therein and a distribution flow passage formed therein, the distribution flow passage being configured to distribute refrigerant, which passes through the first inlet flow passage to flow into the second plate-shaped unit, to the plurality of first outlet flow passages to cause the refrigerant to flow out from the second plate-shaped unit, wherein the distribution flow passage comprises a branching flow passage comprising: an opening port configured to allow the refrigerant to flow thereinto; a first flow passage communicating between the opening port and an end portion (23a, 23o) positioned on an upper side relative to the opening port; and a second flow passage communicating between the opening port and an end portion (23b, 23p) positioned on a lower side relative to the opening port, wherein a flow-passage resistance in the second flow passage is larger than a flow-passage resistance in the first flow passage, and characterized in that a width of the second flow passage is smaller than a width of the first flow passage. a first plate-shaped unit having a plurality of first outlet flow passages formed therein; and a second plate-shaped unit being stacked on the first plate-shaped unit and having a first inlet flow passage formed therein and a distribution flow passage formed therein, the distribution flow passage being configured to distribute refrigerant, which passes through the first inlet flow passage to flow into the second plate-shaped unit, to the plurality of first outlet flow passages to cause the refrigerant to flow out from the second plate-shaped unit, wherein the distribution flow passage comprises a branching flow passage comprising: an opening port configured to allow the refrigerant to flow thereinto; a first flow passage communicating between the opening port and an end portion (23a, 23o) positioned on an upper side relative to the opening port; and a second flow passage communicating between the opening port and an end portion (23b, 23p) positioned on a lower side relative to the opening port, an opening port configured to allow the refrigerant to flow thereinto; a first flow passage communicating between the opening port and an end portion (23a, 23o) positioned on an upper side relative to the opening port; and a second flow passage communicating between the opening port and an end portion (23b, 23p) positioned on a lower side relative to the opening port, wherein a flow-passage resistance in the second flow passage is larger than a flow-passage resistance in the first flow passage, and characterized in that a width of the second flow passage is smaller than a width of the first flow passage.
A cooler arrangement for a vehicle which is powered by a supercharged combustion engine and which comprises an inlet line leading compressed air to the combustion engine, a first charge air cooler and a second charge air cooler for cooling the compressed air before it is led into the combustion engine, and an energy recovery system comprising a line circuit with a circulating medium, at least one heat exchanger (9, 14, 15, 34, 35) in which the circulating medium is intended to absorb heat so that it becomes vaporised, a turbine in which the vaporised medium is intended to expand, and at least one condenser in which the medium is intended to be cooled to a temperature at which it condenses, which cooler arrangement comprises a first cooling circuit with a first cooler adapted to cooling a circulating coolant, and a second cooling circuit with a second cooler adapted to cooling a circulating coolant to a lower temperature than the temperature to which the coolant is cooled in the first cooler, characterised in that the cooler arrangement comprises a third cooling circuit with a third cooler adapted to cooling a circulating coolant to a lower temperature than the temperature to which the coolant is cooled in the second cooler, which coolant cooled in the third cooling circuit is used to cool the compressed air in the second charge air cooler and the medium in the condenser and wherein the energy-absorbing system is intended to absorb thermal energy from the compressed air in the first charge air cooler.
A data transmission method, comprising: determining, by a terminal device, a target position according to repetition positions of a Configured Grant, CG, resource configured with a repetition, wherein the CG resource is a periodic resource, and the CG resource of each period includes repetitions of which the count equals to a repetition count; and starting transmitting, by the terminal device, data based on the target position, wherein the target position is a position of a repetition corresponding to a first RV number 0 in the CG resource and characterised in that it is explicitly indicated by a network device to the terminal device, wherein the CG resource comprises multiple repetition positions corresponding to a RV number 0. determining, by a terminal device, a target position according to repetition positions of a Configured Grant, CG, resource configured with a repetition, wherein the CG resource is a periodic resource, and the CG resource of each period includes repetitions of which the count equals to a repetition count; and starting transmitting, by the terminal device, data based on the target position, wherein the target position is a position of a repetition corresponding to a first RV number 0 in the CG resource and characterised in that it is explicitly indicated by a network device to the terminal device, wherein the CG resource comprises multiple repetition positions corresponding to a RV number 0.
An elongate device, comprising: an elongate member configured to be inserted into a body of a patient, the elongate member comprising a proximal portion and a distal portion; and a stiffening mechanism coupled to the elongate member and configured to change the stiffness of the elongate member during a medical procedure while substantially preserving the shape of the elongate member; wherein the stiffening mechanism comprises: a tensioning member extending along the elongate member; and a stiffness modulator fixedly coupled to the tensioning member and disposed at the proximal portion of the elongate member. an elongate member configured to be inserted into a body of a patient, the elongate member comprising a proximal portion and a distal portion; and a stiffening mechanism coupled to the elongate member and configured to change the stiffness of the elongate member during a medical procedure while substantially preserving the shape of the elongate member; a tensioning member extending along the elongate member; and a stiffness modulator fixedly coupled to the tensioning member and disposed at the proximal portion of the elongate member.
A molecular sensing device, comprising: a substrate; a well i) formed in a material that is positioned on a surface (S 12) of the substrate or ii) formed in a surface (S 12) of the substrate; a signal amplifying structure positioned in the well the signal amplifying structure to amplify a signal for one of: surface enhanced Raman spectroscopy; enhanced fluorescence; and enhanced chemiluminescence; and a molecular selective device removably positioned in operative contact with the well the molecular selective device configured to allow molecules of interest to pass to the well and to filter out background molecules. a substrate; a well i) formed in a material that is positioned on a surface (S 12) of the substrate or ii) formed in a surface (S 12) of the substrate; a signal amplifying structure positioned in the well the signal amplifying structure to amplify a signal for one of: surface enhanced Raman spectroscopy; enhanced fluorescence; and enhanced chemiluminescence; and a molecular selective device removably positioned in operative contact with the well the molecular selective device configured to allow molecules of interest to pass to the well and to filter out background molecules.
A computer implemented method of program compilation to improve parallelism during the linking of the program by a compiler, the method comprising: • converting statements of the program to a canonical form, removing syntax and similar aspects of the code of the program; and • constructing an abstract system tree, AST, for each procedure in the program; the method being characterized by comprising: • traversing the program AST to construct a functional dataflow graph, so that: - an assignment statement or function call is represented as an node with a single output edge, - a control flow decision is represented by a set of special node types, - an array or set operations are represented as a first set of nodes, and - arcs connecting nodes represent data items or sets, such that in the functional dataflow graph, nodes represent computation while arcs represent data, and • extracting data parallelism by traversing the functional dataflow graph to identify each loop in the graph that can be executed in parallel, • transforming each loop in the graph that can be executed in parallel to a set operation by: - converting arcs connecting nodes from representations of single items to representation of indexed collections of like data items in the functional dataflow graph, and - removing the loop logic. • converting statements of the program to a canonical form, removing syntax and similar aspects of the code of the program; and • constructing an abstract system tree, AST, for each procedure in the program; • traversing the program AST to construct a functional dataflow graph, so that: - an assignment statement or function call is represented as an node with a single output edge, - a control flow decision is represented by a set of special node types, - an array or set operations are represented as a first set of nodes, and - arcs connecting nodes represent data items or sets, such that in the functional dataflow graph, nodes represent computation while arcs represent data, and - an assignment statement or function call is represented as an node with a single output edge, - a control flow decision is represented by a set of special node types, - an array or set operations are represented as a first set of nodes, and - arcs connecting nodes represent data items or sets, such that in the functional dataflow graph, nodes represent computation while arcs represent data, and • extracting data parallelism by traversing the functional dataflow graph to identify each loop in the graph that can be executed in parallel, • transforming each loop in the graph that can be executed in parallel to a set operation by: - converting arcs connecting nodes from representations of single items to representation of indexed collections of like data items in the functional dataflow graph, and - removing the loop logic. - converting arcs connecting nodes from representations of single items to representation of indexed collections of like data items in the functional dataflow graph, and - removing the loop logic.
A coated cemented carbide comprising a cemented carbide and a coating layer formed on a surface of the cemented carbide, wherein the cemented carbide comprises 85% by mass or more and 97% by mass or less of a hard phase, and 3% by mass or more and 15% by mass or less of a binder phase, wherein a total amount of the hard phase and the binder phase is 100% by mass, and wherein the hard phase (i) is tungsten carbide or (ii) has tungsten carbide as a main component and further contains a balance amount of a compound comprising at least one kind of a metal element selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr and Mo, and at least one kind of an element selected from C and N, the binder phase contains Co, and at least one kind of a platinum group element selected from the group consisting of Ru, Rh, Pd, Os, Ir and Pt, in peaks of the Co obtained by an X-ray diffraction analysis, an intensity I Coc at a plane of cubic Co and an intensity I Coh at a plane of hexagonal Co satisfy a relation of the following formula, 0.1 ≦ I Coh / I Coh + I Coc ≦ 0.6 wherein an amount of the Co contained in the binder phase is 2.5% by mass or more and 14.5% by mass or less, and an amount of the platinum group element contained in the binder phase is 0.5% by mass or more and 4% by mass or less; wherein an average grain diameter of the hard phase is 0.5 μm or more and 5 μm or less, wherein the average grain diameter of the hard phase is obtained by applying Fullman's equation d=(4/π)·(NL/NS) to an image of a polished cross-section of the cemented carbide in which a cross-sectional structure of the cemented carbide is enlarged by Scanning Electron Microscopy, SEM, to 2,000 to 10,000-fold, wherein d is the average grain size, π is the circular constant, NL is a number of the hard phase per a unit length hit by a straight line on the cross-sectional structure, and NS is a number of the hard phase contained in a unit area; wherein the coating layer contains at least one layer of an adhesive layer(s), the adhesive layer is formed on a surface of the cemented carbide, the adhesive layer has a composition represented by the formula: Al x Ti y M z N, wherein M represents at least one kind of an element selected from the group consisting of Zr, Hf, V, Nb, Ta, Cr, Mo, W, Y, B and Si, and x, y and z represent atomic ratio of Al, Ti and M element respectively based on the total amount of Al, Ti and M elements, and 0.65≦x≦0.9, 0.1≦y≦0.35, 0≦z≦0.2, and x+y+z=1, in peaks of the adhesive layer obtained by an X-ray diffraction analysis, an intensity I c at a plane of cubic structure and an intensity I h at a plane of hexagonal structure satisfy a relation of the following formula. 0.05 ≦ I h / I h + I c ≦ 0.3 wherein the condition of X-ray for both binder phase and adhesive layer are specified in the description. (i) is tungsten carbide or (ii) has tungsten carbide as a main component and further contains a balance amount of a compound comprising at least one kind of a metal element selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr and Mo, and at least one kind of an element selected from C and N,
A material processing apparatus comprising: - a chassis; - track elements for the propulsion of the chassis; - a conveyor, that is rotatable in vertical direction around a horizontal axis; - an element that carries the horizontal axis of the conveyor wherein the carrying element is articulated to the chassis at a main point of articulation formed by a vertical pivot joint allowing the pivotal movement of the carrying element relative to the chassis in a horizontal plane; - an actuator connected at one end to the chassis and at the other end to the carrying element causing the horizontal rotational movement of the carrying element together with the conveyor; - a telescopic element articulated to the carrying element at a second point of articulation formed by a vertical pivot joint allowing the pivotal movement of the carrying element relative to the telescopic element in a horizontal plane, the second point of articulation being remote from the main point of articulation; characterized in that the telescopic element is articulated to the frame of one of the track elements at a third point of articulation formed by a vertical pivot joint allowing the pivotal movement of the telescopic element relative to the frame of the track element in a horizontal plane. - a chassis; - track elements for the propulsion of the chassis; - a conveyor, that is rotatable in vertical direction around a horizontal axis; - an element that carries the horizontal axis of the conveyor wherein the carrying element is articulated to the chassis at a main point of articulation formed by a vertical pivot joint allowing the pivotal movement of the carrying element relative to the chassis in a horizontal plane; - an actuator connected at one end to the chassis and at the other end to the carrying element causing the horizontal rotational movement of the carrying element together with the conveyor; - a telescopic element articulated to the carrying element at a second point of articulation formed by a vertical pivot joint allowing the pivotal movement of the carrying element relative to the telescopic element in a horizontal plane, the second point of articulation being remote from the main point of articulation; characterized in that the telescopic element is articulated to the frame of one of the track elements at a third point of articulation formed by a vertical pivot joint allowing the pivotal movement of the telescopic element relative to the frame of the track element in a horizontal plane.
Method for regulating the speed of an autonomous vehicle, called an ego-vehicle, comprising an adaptive cruise control, said method comprising the steps of: • Activation of said adaptive cruise control, said adaptive cruise control being based on a set acceleration calculated from a predetermined set inter-vehicular time, said inter-vehicular time defining a distance between said ego-vehicle and a target vehicle in front of said autonomous vehicle; • Receipt of information relating to said target vehicle, called target information, said target information characterizing a distance of said target vehicle relative to said ego-vehicle, called target distance, and an acceleration of said target vehicle, called target acceleration; • Receipt of information relating to said ego-vehicle, called ego-vehicle information, said ego-vehicle information characterizing a speed of said ego-vehicle, called ego-speed; • Determination of an inter-vehicular time calculated from said target information and said ego-vehicle information; • Determination of an alert signal from said target information and said ego-vehicle information, said alert signal being in an active state when said calculated inter-vehicular time is less than a predetermined percentage of said inter-vehicular time -predetermined vehicle instruction; said method being characterized in that • If said alert signal is in the active state and if said target acceleration is less than said calculated setpoint acceleration, then said method further comprises a step of substituting said calculated setpoint acceleration of said speed regulator. speed by said target acceleration. • Activation of said adaptive cruise control, said adaptive cruise control being based on a set acceleration calculated from a predetermined set inter-vehicular time, said inter-vehicular time defining a distance between said ego-vehicle and a target vehicle in front of said autonomous vehicle; • Receipt of information relating to said target vehicle, called target information, said target information characterizing a distance of said target vehicle relative to said ego-vehicle, called target distance, and an acceleration of said target vehicle, called target acceleration; • Receipt of information relating to said ego-vehicle, called ego-vehicle information, said ego-vehicle information characterizing a speed of said ego-vehicle, called ego-speed; • Determination of an inter-vehicular time calculated from said target information and said ego-vehicle information; • Determination of an alert signal from said target information and said ego-vehicle information, said alert signal being in an active state when said calculated inter-vehicular time is less than a predetermined percentage of said inter-vehicular time -predetermined vehicle instruction; said method being characterized in that • If said alert signal is in the active state and if said target acceleration is less than said calculated setpoint acceleration, then said method further comprises a step of substituting said calculated setpoint acceleration of said speed regulator. speed by said target acceleration.