mhurhangee/ep-ind-claims huggingface dataset:
An electric field compensation wire configured to improve the performance of digital signal transmission cables and interconnecting cables used between recording and/or playback audio and video components, comprising: a center conductor having a center conductor source end and a center conductor destination end; a layer of center conductor insulation (202a, 202b) axially disposed around said center conductor; a surround conductor axially disposed around said center conductor insulation and having a surround conductor source end and a surround conductor destination end; wire jacket insulation (2004a, 2004b) axially disposed around said surround conductor; and an electric field compensation circuit (EFC-01, EFC-02); wherein each of said center conductor (201a, 201b) and said surround conductor (203a, 203b) carry a signal in parallel from a source component to a destination component, said center conductor (201a, 201b) carrying a predominance of the magnetic field compared to the surround conductor, while said surround conductor (203a, 203b) carries a predominance of the electric field compared to the center conductor. a center conductor having a center conductor source end and a center conductor destination end; a layer of center conductor insulation (202a, 202b) axially disposed around said center conductor; a surround conductor axially disposed around said center conductor insulation and having a surround conductor source end and a surround conductor destination end; wire jacket insulation (2004a, 2004b) axially disposed around said surround conductor; and an electric field compensation circuit (EFC-01, EFC-02); wherein each of said center conductor (201a, 201b) and said surround conductor (203a, 203b) carry a signal in parallel from a source component to a destination component, said center conductor (201a, 201b) carrying a predominance of the magnetic field compared to the surround conductor, while said surround conductor (203a, 203b) carries a predominance of the electric field compared to the center conductor.
Method of preparing a shape memory material, which enables recovery of a previously programmed shape induced by an external stimulus after deformation to a temporary shape, the method comprising - providing a mixture of at least one polymer and at least one shape memory additive, wherein the shape memory additive comprises reactive particles having reactive groups on their surface, - subjecting the mixture to a forming process, - followed by subjecting the formed body obtained to a post processing treatment so that the shape memory additive provides chemical or physical crosslinks between different chains of the polymer and/or between the shape memory additives. - providing a mixture of at least one polymer and at least one shape memory additive, wherein the shape memory additive comprises reactive particles having reactive groups on their surface, - subjecting the mixture to a forming process, - followed by subjecting the formed body obtained to a post processing treatment so that the shape memory additive provides chemical or physical crosslinks between different chains of the polymer and/or between the shape memory additives.
A method for detecting a tampered accumulator or battery cell in which a non-metallic substance is concealed and which has been tampered with such that a resulting transmission-based two-dimensional X-ray image of the tampered accumulator or battery cell looks like that of a corresponding non-tampered accumulator or battery cell, in two-dimensional X-ray data of an inspection object (O1, O2, O3) containing the battery cell, the method being performed by a processing apparatus and comprising the following steps: - determining a region containing a battery cell in the X-ray data; characterized by - providing the attenuation curve (D(r)) for or intensity curve (I(r)) of detected X-rays along a line through the accumulator or battery cell from the X-ray data; - evaluating whether the attenuation curve (D(r)) or the intensity curve (I(r)) shows a characteristic anomaly (P1, P2) at edges (R1, R2) or in edge regions (RB1, RB2) of the accumulator or battery cell; and - if the attenuation curve (D(r)) or the intensity curve (I(r)) at the edges (R1, R2) or in the edge regions (RB1, RB2) shows the characteristic anomaly (P1, P2), triggering an alarm function. - determining a region containing a battery cell in the X-ray data; characterized by - providing the attenuation curve (D(r)) for or intensity curve (I(r)) of detected X-rays along a line through the accumulator or battery cell from the X-ray data; - evaluating whether the attenuation curve (D(r)) or the intensity curve (I(r)) shows a characteristic anomaly (P1, P2) at edges (R1, R2) or in edge regions (RB1, RB2) of the accumulator or battery cell; and - if the attenuation curve (D(r)) or the intensity curve (I(r)) at the edges (R1, R2) or in the edge regions (RB1, RB2) shows the characteristic anomaly (P1, P2), triggering an alarm function.
A program falsification preventing method in a sheet processing apparatus which has an inspecting device including at least one detecting means for detecting a feature of a sheet to be fed, determining means for determining a sheet based on the feature of the sheet detected by the detecting means and execution means (11, 12) for executing a process based on the determination result by the determining means, and a management device connected to the inspecting device via a communication line to manage the inspecting device, characterized by comprising: storing programs of the means of the inspecting device and hash function values calculated based on the programs in the management device, calculating the hash function values based on the programs of the means of the inspecting device in the inspecting device at power-ON time and storing the calculated hash function values in the inspecting device, calculating a new hash function value by use of a date and hour and the stored hash function values in the inspecting device by the inspecting device based on a program inspection request, calculating a new hash function value by use of the date and hour and the stored hash function values in the management device by the management device, and determining whether the program is falsified by comparing the new hash function value calculated by the management device with the new hash function value calculated by the inspecting device. storing programs of the means of the inspecting device and hash function values calculated based on the programs in the management device, calculating the hash function values based on the programs of the means of the inspecting device in the inspecting device at power-ON time and storing the calculated hash function values in the inspecting device, calculating a new hash function value by use of a date and hour and the stored hash function values in the inspecting device by the inspecting device based on a program inspection request, calculating a new hash function value by use of the date and hour and the stored hash function values in the management device by the management device, and determining whether the program is falsified by comparing the new hash function value calculated by the management device with the new hash function value calculated by the inspecting device.
An isolated nucleic molecule comprising: (a) the sanglifehrin A biosynthesis gene cluster nucleic acid comprising SEQ ID No. 1; (b) a nucleic acid having at least 80% sequence identity to the nucleic acid of (a) and which codes for polypeptides having the same enzymatic and regulatory activities for making a polyketide or a polyketide starter unit as those encoded by the nucleic acid of (a); or (c) a nucleic acid encoding one or more polypeptides having at least 80% amino acid sequence identity to one or more polypeptides encoded by the nucleic acid of (a) and which codes for one or more polypeptides having one or more of the necessary enzymatic or regulatory activities for making a polyketide or a polyketide starter unit or precursor, wherein the polypeptides have any one of SEQ ID Nos. 2-25. (a) the sanglifehrin A biosynthesis gene cluster nucleic acid comprising SEQ ID No. 1; (b) a nucleic acid having at least 80% sequence identity to the nucleic acid of (a) and which codes for polypeptides having the same enzymatic and regulatory activities for making a polyketide or a polyketide starter unit as those encoded by the nucleic acid of (a); or (c) a nucleic acid encoding one or more polypeptides having at least 80% amino acid sequence identity to one or more polypeptides encoded by the nucleic acid of (a) and which codes for one or more polypeptides having one or more of the necessary enzymatic or regulatory activities for making a polyketide or a polyketide starter unit or precursor, wherein the polypeptides have any one of SEQ ID Nos. 2-25.
Brake lining holder of a disc brake for a utility vehicle, comprising a lining holder bracket supported on lining holder springs of brake linings arranged on both sides of a brake disc in a brake calliper, such that the lining holder bracket extends across an assembly opening of the brake calliper in the axial direction of the brake disc and is held on at least one side by means of a securing bolt in a fixing eye of the brake calliper, characterised in that the lining holder bracket has only one limb in contact with the lining holder springs, to which the securing bolt is attached, wherein the said limb and the securing bolt are formed integrally as one piece from a bent wire.
A resource management device that manages resources for providing a plurality of types of services, the resource management device storing therein a best practice resource group which is a group of best practice resources which have been optimized so as to exert performance of a level equal to or greater than a predetermined level in provision of a predetermined service between two or more resources, each of the two or more resources being selected from one or more of: a plurality of applications each as a resource arranged in an application layer; a plurality of virtual resources (r2, r3, r5, r6) each as a resource arranged in a virtual layer; and a plurality of physical resources (r4, r7, r8) each as a resource arranged in a physical layer, the resource management device comprising: a selection unit configured to select an application required for providing the predetermined service and then select a group of resources each of which is in the group of best practice resources, and wherein each resource of the selected group of resources is either a resource capable of exchanging data with the selected application or a resource capable of exchanging data with another resource of the selected group of resources, with reference to the best practice resource group, wherein the selection unit is configured to, when there are a plurality of virtual resources or physical resources each of which can be selected as a resource of the selected group of resources, make a selection from the plurality of the virtual resources or physical resources using a predetermined priority order, wherein the predetermined priority order includes at least a service level agreement and a link cost; a design unit configured to generate a blueprint for designing a system using the selected resources; and an orchestrator unit configured to execute orchestration for the designed system in accordance with the generated blueprint. a selection unit configured to select an application required for providing the predetermined service and then select a group of resources each of which is in the group of best practice resources, and wherein each resource of the selected group of resources is either a resource capable of exchanging data with the selected application or a resource capable of exchanging data with another resource of the selected group of resources, with reference to the best practice resource group, wherein the selection unit is configured to, when there are a plurality of virtual resources or physical resources each of which can be selected as a resource of the selected group of resources, make a selection from the plurality of the virtual resources or physical resources using a predetermined priority order, wherein the predetermined priority order includes at least a service level agreement and a link cost; a design unit configured to generate a blueprint for designing a system using the selected resources; and an orchestrator unit configured to execute orchestration for the designed system in accordance with the generated blueprint.
An elevator hoist apparatus comprising a stator including a stator core attached to an internal periphery of a frame, a rotor including a rotor core attached to a shaft supported rotatably, by first and second bearings (7, 8) receiving the shaft on an inner race's side, and receiving first and second brackets (9, 10) provided in the frame on an outer race's side, and a sheave mounted on a projecting end portion of the shaft projecting to an outer side of the first bearing, the first bearing being a sheave's side bearing on a sheave's side of the rotor and the second bearing being an anti-sheave's side bearing on an anti-sheaves side opposite to the sheave's side, wherein the sheave includes a wire rope wind-up surface which is formed on an external peripheral side and which includes a plurality of wire rope grooves arranged in a row, the elevator hoist apparatus characterized in that the sheave further includes a bearing insertion portion which is formed on an internal peripheral side of the wire rope wind-up surface and which receives the first bearing inserted in the bearing insertion portion, and a widthwise middle, in a widthwise direction, of the first bearing inserted in the bearing insertion portion is positioned on an inner side of a sheave shaft load center of the wire rope wind-up surface, the inner side being a rotor's side toward the rotor.
An anti-static chemically-resistant glove comprising: a butyl-rubber outer glove shell having an outer side and an inner side, the butyl-rubber outer glove shell comprising carbon-black filler; an inner glove liner having an outer side and an inner side, the inner glove liner comprising cotton-yarn containing metal electrically conductive fibers for direct electrical contact with a wearer's skin; and a water-based acrylic adhesive joining the outer side of the inner glove liner to the inner side of the butyl-rubber outer glove shell; wherein the anti-static chemically-resistant glove has a vertical resistance of less than 1x10 8 Ohms at 23 degrees Celsius and 25 percent relative humidity. a butyl-rubber outer glove shell having an outer side and an inner side, the butyl-rubber outer glove shell comprising carbon-black filler; an inner glove liner having an outer side and an inner side, the inner glove liner comprising cotton-yarn containing metal electrically conductive fibers for direct electrical contact with a wearer's skin; and a water-based acrylic adhesive joining the outer side of the inner glove liner to the inner side of the butyl-rubber outer glove shell; wherein the anti-static chemically-resistant glove has a vertical resistance of less than 1x10 8 Ohms at 23 degrees Celsius and 25 percent relative humidity.
A steel fibre (600, 700) for reinforcing concrete or mortar, said steel fibre (600, 700) comprising a middle portion (604, 704) having a length L, a first anchorage end (602, 702) at one end of said middle portion (604, 704) and a second anchorage end (602, 702) at the other end of said middle portion (604, 704), said middle portion (604, 704) comprising a first flattened section (601, 701), a second flattened section (601, 701) and a central section (610, 710), said central section (610, 710) being located between said first and said second flattened section (601, 701) and extending from said first flattened section (601, 701) to said second flattened section (601, 701), said first flattened section (601, 701) being located close to but not immediately adjacent to said first anchorage end (602, 702) and said second flattened section (601, 701) being located close to but not immediately adjacent to said second anchorage end (602, 702), said central section (610, 710) having a length l', said steel fibre being characterised in that said central section (610, 710) has the same cross-section over the entire length l' of said central section (610, 710), the ratio of the length of said central section l' divided by the length of the middle portion L (ratio l'/L) is higher than 0.50, said central section (610, 710) has a tensile strength R m of at least 1000 MPa and an elongation at maximum load A g+e of at least 2.5 %
A method of performing, by a first device, channel coding for data to be transmitted to a second device, the method comprising: attaching to a transport block of size N bits a first CRC code of which size is L to produce a CRC-attached transport block; segmenting the CRC-attached transport block into C code blocks, where C is an integer larger than 1, if a size B of the CRC-attached transport block is larger than a predetermined size Z; attaching to each of the C code blocks a second CRC code of which size is L to produce CRC-attached code blocks, and encoding the CRC-attached code blocks by a turbo-encoder, and characterized in that C = ┌ B /( Z - L)┐, with ┌ ┐ representing a ceiling function, and the size N of the transport block is one of following predetermined transport block sizes: 6200, 6456, 6712, 6968, 7224, 7480, 7736, 7992, 8248, 8504, 8760, 9144, 9528, 9912, 10296, 10680, 11064, 11448, 11832, 12216, 12576, 12960, 13536, 14112, 14688, 15264, 15840, 16416, 16992, 17568, 18336, 19080, 19848, 20616, 21384, 22152, 22920, 23688, 24496, 25456, 26416, 27376, 28336, 29296, 30576, 31704, 32856, 34008, 35160, 36696, 37888, 39232, 40576, 42368, 43816, 45352, 46888, 51024, 52752, 57336, 59256, 61664, 63776, 66592, 68808, 71112, 75376. attaching to a transport block of size N bits a first CRC code of which size is L to produce a CRC-attached transport block; segmenting the CRC-attached transport block into C code blocks, where C is an integer larger than 1, if a size B of the CRC-attached transport block is larger than a predetermined size Z; attaching to each of the C code blocks a second CRC code of which size is L to produce CRC-attached code blocks, and encoding the CRC-attached code blocks by a turbo-encoder, and characterized in that C = ┌ B /( Z - L)┐, with ┌ ┐ representing a ceiling function, and the size N of the transport block is one of following predetermined transport block sizes: 6200, 6456, 6712, 6968, 7224, 7480, 7736, 7992, 8248, 8504, 8760, 9144, 9528, 9912, 10296, 10680, 11064, 11448, 11832, 12216, 12576, 12960, 13536, 14112, 14688, 15264, 15840, 16416, 16992, 17568, 18336, 19080, 19848, 20616, 21384, 22152, 22920, 23688, 24496, 25456, 26416, 27376, 28336, 29296, 30576, 31704, 32856, 34008, 35160, 36696, 37888, 39232, 40576, 42368, 43816, 45352, 46888, 51024, 52752, 57336, 59256, 61664, 63776, 66592, 68808, 71112, 75376.
Composite material structure, for chassis of vehicles for transporting freight or passengers, said structure being configured to accept running gear at each of its ends, said structure including at least one central beam forming a platform on which the load of the vehicle rests, said beam including: - a middle box having a central portion and two ends (312, 313), said ends having reinforcements (35, 36) for withstanding the stresses transmitted to the chassis by the articulation elements of the running gear and by the shock absorber elements disposed at the ends of the vehicle, the central portion of the middle box being configured so as to have a reinforced portion increasing the resistance of the beam to bending forces imposed by the transported load; characterized in that said beam includes - two lateral boxes (315, 316) extending over all the length of the middle box, assembled to said middle box, the upper faces of which form with the upper face of the middle box the upper face of the beam, said lateral boxes (315, 316) being configured so as to reinforce the resistance of the beam to longitudinal and transverse bending forces imposed on it; - a covering floor forming a skin, configured so as to cover the upper faces of the middle box and the lateral boxes (315, 316); the various elements constituting the beam being made of composite materials reinforced with glass fibers or carbon fibers or a mixture of glass fibers and carbon fibers. - a middle box having a central portion and two ends (312, 313), said ends having reinforcements (35, 36) for withstanding the stresses transmitted to the chassis by the articulation elements of the running gear and by the shock absorber elements disposed at the ends of the vehicle, the central portion of the middle box being configured so as to have a reinforced portion increasing the resistance of the beam to bending forces imposed by the transported load; - two lateral boxes (315, 316) extending over all the length of the middle box, assembled to said middle box, the upper faces of which form with the upper face of the middle box the upper face of the beam, said lateral boxes (315, 316) being configured so as to reinforce the resistance of the beam to longitudinal and transverse bending forces imposed on it; - a covering floor forming a skin, configured so as to cover the upper faces of the middle box and the lateral boxes (315, 316);
A food composition comprising a cellulose ether, wherein the ether substituents in the cellulose ether are methyl groups, hydroxyalkyl groups, and optionally alkyl groups being different from methyl, the cellulose ether has a DS(methyl) of from 1.65 to 2.20, an MS(hydroxyalkyl) of from 0.10 to 1.00, and hydroxy groups of anhydroglucose units are substituted with methyl groups such that [ s23/s26 - 0.2*MS(hydroxyalkyl)] is 0.35 or less, wherein s23 is the molar fraction of anhydroglucose units wherein only the two hydroxy groups in the 2- and 3-positions of the anhydroglucose unit are substituted with methyl groups and wherein s26 is the molar fraction of anhydroglucose units wherein only the two hydroxy groups in the 2- and 6-positions of the anhydroglucose unit are substituted with methyl groups.
An organometallic complex represented by a general formula: wherein, Ar represents an arylene group; R 1 represents an alkyl group or an aryl group; R 2 represents any one of hydrogen, an alkyl group, or an aryl group; R 3 represents hydrogen or an alkyl group; or R 2 and R 3 are bound to each other to form an alicyclic ring; M is a central metal and represents either an element belonging to Group 9 or an element belonging to Group 10; n is 2 when the M is an element belonging to Group 9, and n is 1 when the M is an element belonging to Group 10; and one of R 21 and R 22 represents an alkyl group having 2 to 10 carbon atoms or a haloalkyl group having 2 to 10 carbon atoms and the other one represents an alkyl group having 1 to 10 carbon atoms or a haloalkyl group having 1 to 10 carbon atoms, wherein one of R 21 and R 22 represents a branched alkyl group having 3 to 4 carbon atoms and the other one represents an alkyl group having 1 to 4 carbon atoms or a haloalkyl group having 1 to 4 carbon atoms.