mhurhangee/ep-ind-claims huggingface dataset:
Heat-treatment hardening steel consisting of:, by wt%, C: 0.12 ∼ 0.8%; Cr: 0.01 ∼ 2%; Mo: 0.2% or less (not including 0%);; B: 0.0005 ∼ 0.08%; Ca: 0.01 or less; Sb: 1.0% or less (not including 0%);; at least one of Ti and Nb: 0.2% or less; components satisfying any one of the following compositions i) to iii); and the balance of Fe and unavoidable impurities. By wt%, i) Si: 0.5 ∼ 3%; Mn: 1 ∼ 10%; and Al: 0.05 ∼ 2% ii) Si: 1% or less; Mn: 0.5 ∼ 5%; Al: 0.1 ∼ 2.5%; and Ni: 0.01 ∼ 8% iii) Si: 0.5 ∼ 3%; Mn: 1 ∼ 10%; Al: 0.1 ∼ 2.5%; and Ni: 0.01 ∼ 8%. i) Si: 0.5 ∼ 3%; Mn: 1 ∼ 10%; and Al: 0.05 ∼ 2% ii) Si: 1% or less; Mn: 0.5 ∼ 5%; Al: 0.1 ∼ 2.5%; and Ni: 0.01 ∼ 8% iii) Si: 0.5 ∼ 3%; Mn: 1 ∼ 10%; Al: 0.1 ∼ 2.5%; and Ni: 0.01 ∼ 8%.
An isolated microorganism selected from the list including the microorganism deposited under ATCC Accession No. PTA-11615, the microorganism deposited under ATCC Accession No. PTA-11616 and the microorganism deposited under ATCC Accession No. PTA-11617.
An inkjet ink composition comprising a liquid vehicle, a colorant system and polyurethane vinyl hybrid latexes, wherein the latexes comprise polyurethane vinyl hybrid polymer particles dispersed in the liquid vehicle, wherein the polyurethane vinyl hybrid latexes are an intimate blend of polyurethane and vinyl polymer, whereby the vinyl polymer is polymerized in-situ and crosslinked via an interpenetrated network of the vinyl and polyurethane polymers, and wherein polyurethane vinyl hybrid latexes have an acid number comprised between 20 and 80.
An image forming apparatus comprising: an image former to change a transfer condition while printing a calibration chart (400, 500, 610, 620, 900) in which patches of different colors (411, 412, 413, 414) are repeatedly arranged in a sub-scanning direction; a scanner to scan the printed calibration chart (400, 500, 610, 620, 900); and a processor to: determine an image defect under each transfer condition using the scanned calibration chart (400, 500, 610, 620, 900), and set a transfer condition of the image former based on the determined image defect under each transfer condition, wherein the processor determines at least one image defect from among a blur defect, a white spot defect, a poor transfer defect, or a retransfer defect using color patches (411, 412, 413, 414) in the scanned calibration chart (400, 500, 610, 620, 900), wherein the image former is configured to change the transfer condition by changing a voltage or current used during a transfer process while printing the calibration chart (400, 500, 610, 620, 900). an image former to change a transfer condition while printing a calibration chart (400, 500, 610, 620, 900) in which patches of different colors (411, 412, 413, 414) are repeatedly arranged in a sub-scanning direction; a scanner to scan the printed calibration chart (400, 500, 610, 620, 900); and a processor to: determine an image defect under each transfer condition using the scanned calibration chart (400, 500, 610, 620, 900), and set a transfer condition of the image former based on the determined image defect under each transfer condition, wherein the processor determines at least one image defect from among a blur defect, a white spot defect, a poor transfer defect, or a retransfer defect using color patches (411, 412, 413, 414) in the scanned calibration chart (400, 500, 610, 620, 900), wherein the image former is configured to change the transfer condition by changing a voltage or current used during a transfer process while printing the calibration chart (400, 500, 610, 620, 900). determine an image defect under each transfer condition using the scanned calibration chart (400, 500, 610, 620, 900), and set a transfer condition of the image former based on the determined image defect under each transfer condition, wherein the processor determines at least one image defect from among a blur defect, a white spot defect, a poor transfer defect, or a retransfer defect using color patches (411, 412, 413, 414) in the scanned calibration chart (400, 500, 610, 620, 900), wherein the image former is configured to change the transfer condition by changing a voltage or current used during a transfer process while printing the calibration chart (400, 500, 610, 620, 900).
A composite hinge sheet (1, C) for a laser-markable multilayer laminate for electronic passport (11, 11A, 11B, 11C), the composite hinge sheet (1, C) comprising a woven-fabric like sheet including a large number of openings, on both faces of the woven-fabric like sheet thermoplastic resin layers being disposed, wherein the woven-fabric like sheet includes woven fabric or non-woven fabric including at least one type selected from thermoplastic polyester, thermoplastic polyamide and thermoplastic polypropylene, and a part of the thermoplastic resin is provided in the openings of the woven-fabric like sheet to block all of the openings and to integrate the thermoplastic resin layers with the woven-fabric like sheet, wherein the composite hinge sheet (1, C) is characterized in that the thermoplastic resin layers are formed by filling openings of the woven-fabric like sheet with a molten thermoplastic resin as a raw material having flexibility as surface hardness Shore A of 85 or greater and Shore D less than 70 to block the openings. the woven-fabric like sheet includes woven fabric or non-woven fabric including at least one type selected from thermoplastic polyester, thermoplastic polyamide and thermoplastic polypropylene, and a part of the thermoplastic resin is provided in the openings of the woven-fabric like sheet to block all of the openings and to integrate the thermoplastic resin layers with the woven-fabric like sheet, wherein the composite hinge sheet (1, C) is characterized in that the thermoplastic resin layers are formed by filling openings of the woven-fabric like sheet with a molten thermoplastic resin as a raw material having flexibility as surface hardness Shore A of 85 or greater and Shore D less than 70 to block the openings.
A method of generating spectral data comprising the steps of deriving a temporally separated sample of ions from a temporal separation device, subjecting the temporally separated sample of ions to an analysis, and scanning at least one spectrally significant parameter including a fragmentation energy or collision energy applied to the sample of ions, characterised in that the scanning is performed so that at least two scans in succession are in opposite directions.
A ground engaging tip (14, 160, 190) of a tooth assembly for a cutting edge of a ground engaging implement, wherein the tooth assembly includes an adapter configured for attachment to a base edge of the ground engaging implement and having a forwardly extending adapter nose, the ground engaging tip (14, 160, 190) comprising: a rear edge (70, 162, 192); a top outer surface (72, 164, 194); a bottom outer surface (74, 166, 196), wherein the top outer surface (72, 164, 194) and the bottom outer surface (74, 166, 196) extend forward from the rear edge (70, 162, 192) and converge at a front edge (76, 168, 198); oppositely disposed lateral outer surfaces (90, 92, 170, 172, 200, 202) extending upwardly from the bottom outer surface (74, 166, 196) to the top outer surface (72, 164, 194); an inner surface (122, 124, 126, 128) extending inwardly into the ground engaging tip (14, 160, 190) from the rear edge (70, 162, 192) and defining a nose cavity within the ground engaging tip (14, 160, 190) having a complementary shape to the adapter nose of the adapter for receiving the adapter nose therein; and a pair of reliefs (102, 104, 174, 176, 204, 206), each relief (102, 104, 174, 176, 204, 206) extending inwardly into the ground engaging tip (14, 160, 190) from a corresponding one of the lateral outer surfaces (90, 92, 170, 172, 200, 202) and between the top outer surface (72, 164, 194) and the bottom outer surface (74, 166, 196), and wherein each relief (102, 104, 174, 176, 204, 206) is disposed proximate the front edge (76, 168, 198); characterized in that the reliefs (102, 104, 174, 176, 204, 206) are disposed forward of the nose cavity. a rear edge (70, 162, 192); a top outer surface (72, 164, 194); a bottom outer surface (74, 166, 196), wherein the top outer surface (72, 164, 194) and the bottom outer surface (74, 166, 196) extend forward from the rear edge (70, 162, 192) and converge at a front edge (76, 168, 198); oppositely disposed lateral outer surfaces (90, 92, 170, 172, 200, 202) extending upwardly from the bottom outer surface (74, 166, 196) to the top outer surface (72, 164, 194); an inner surface (122, 124, 126, 128) extending inwardly into the ground engaging tip (14, 160, 190) from the rear edge (70, 162, 192) and defining a nose cavity within the ground engaging tip (14, 160, 190) having a complementary shape to the adapter nose of the adapter for receiving the adapter nose therein; and a pair of reliefs (102, 104, 174, 176, 204, 206), each relief (102, 104, 174, 176, 204, 206) extending inwardly into the ground engaging tip (14, 160, 190) from a corresponding one of the lateral outer surfaces (90, 92, 170, 172, 200, 202) and between the top outer surface (72, 164, 194) and the bottom outer surface (74, 166, 196), and wherein each relief (102, 104, 174, 176, 204, 206) is disposed proximate the front edge (76, 168, 198); characterized in that the reliefs (102, 104, 174, 176, 204, 206) are disposed forward of the nose cavity.
A bicycle saddle comprising a saddle shell, a saddle cushion connected with the top surface of the saddle shell, a saddle frame whose front end is connected with the saddle shell in the region of a saddle tip, a holding element connected with a rear end of the saddle frame, and a damper element arranged between the holding element and the saddle shell, wherein the damper element is in surface connection with a lower side of the saddle shell, characterized in that the damper element is made of a particle foam which preferably comprises an E-TPU, EPP, EPS and/or EPE as base material.
Method for balancing intermediate circuit voltages ( u d 1 to u dn) in a self-guided multilevel reactive current compensator having a plurality of series-connected multi-quadrant actuators (2a to 2n), in which each multi-quadrant actuator (2a to 2n) has to apply a pulse width-modulated voltage consisting of an identical part ( u v 1 to u vn) of a compensator voltage ( u k) impressed on the reactive current ( i k) and an additional grid-frequency balancing voltage ( u b) with a selectable amplitude, wherein a reference variable is generated by way of a reference variable generator and the balancing voltages are generated by way of a balancing block provided for this purpose using the reference variable for each multi-quadrant actuator, wherein the balancing voltages are provided at outputs of the balancing block, the number of which outputs corresponds to the number of multi-quadrant actuators, wherein the balancing voltages provided at the outputs of the balancing block are summed by way of a summer in each case with the identical part ( u v1 to u vn) of the compensator voltage in order to obtain summed voltages in order to drive the multi-quadrant actuators, wherein - the sum of all of the balancing voltages ( u b) is zero and - each balancing voltage ( u b) is in phase or counterphase with a fundamental oscillation of the reactive current ( i k) depending on whether the measured intermediate circuit voltage ( u d1) to ( u dn) of the multi-quadrant actuator (2a to 2n) is less than or greater than the reference variable ( u d) formed from the intermediate circuit voltages ( u d1) to ( u dn), wherein components of double the grid frequency in the intermediate circuit voltages ( u d1 to u dn) are suppressed by way of filters (9a to 9n), wherein the reference variable generator is arranged downstream of the filters and determines the reference variable from the filtered intermediate circuit voltages. - the sum of all of the balancing voltages ( u b) is zero and - each balancing voltage ( u b) is in phase or counterphase with a fundamental oscillation of the reactive current ( i k) depending on whether the measured intermediate circuit voltage ( u d1) to ( u dn) of the multi-quadrant actuator (2a to 2n) is less than or greater than the reference variable ( u d) formed from the intermediate circuit voltages ( u d1) to ( u dn), wherein
A method for securing a transaction between a transaction device (2, 3) and an external device, the transaction device comprising a communication controller, an application processor, and an input device, the communication controller being an NFC controller configured to transmit data to the external device via a contactless data link, the transaction comprising: - steps of transmitting transaction application data between the application processor and the external device, through the communication controller - a step of sending transaction data from the transaction device to the external device or from the external device to the transaction device, and - a step of requiring (S25, S25', S32) the user to enter transaction data via the input device, characterized in that it comprises the steps performed by the communication controller, consisting of: - capturing and memorizing the transaction data entered by the user, - monitoring (L04, L40) the transaction data to be sent to the external device or received from the external device; and - refusing to send the transaction data to the external device if they are different from the transaction data entered by the user, or rejecting the received transaction data if they are different from the transaction data entered by the user. - steps of transmitting transaction application data between the application processor and the external device, through the communication controller - a step of sending transaction data from the transaction device to the external device or from the external device to the transaction device, and - a step of requiring (S25, S25', S32) the user to enter transaction data via the input device, - capturing and memorizing the transaction data entered by the user, - monitoring (L04, L40) the transaction data to be sent to the external device or received from the external device; and - refusing to send the transaction data to the external device if they are different from the transaction data entered by the user, or rejecting the received transaction data if they are different from the transaction data entered by the user. - monitoring (L04, L40) the transaction data to be sent to the external device or received from the external device; and - refusing to send the transaction data to the external device if they are different from the transaction data entered by the user, or rejecting the received transaction data if they are different from the transaction data entered by the user.
Method of testing an electronic unit by comparing resulting signal shapes from the unit to be tested and a known functioning unit, the signal shapes from both units being compared by means of the frequency response of the electronic unit, comprising the following steps: a) powering off the units (3a, 3b) for testing, b) feeding one or more predefined signal shapes of two or more different frequencies as input signals to the known functioning unit and to the unit to be tested at corresponding test points (10a, 10b), c) measuring the resulting signal shapes from both units (3a, 3b) at corresponding measurement points (8d, 8e, 8f and 8g, 8h, 8i), d) comparing at least one resulting signal shape from the known functioning unit with the corresponding resulting signal shape from the unit to be tested, and e) detecting a fault in the unit to be tested on the basis of an existing signal shape distortion in time axis of the resulting signal shape received from the unit to be tested. a) powering off the units (3a, 3b) for testing, b) feeding one or more predefined signal shapes of two or more different frequencies as input signals to the known functioning unit and to the unit to be tested at corresponding test points (10a, 10b), c) measuring the resulting signal shapes from both units (3a, 3b) at corresponding measurement points (8d, 8e, 8f and 8g, 8h, 8i), d) comparing at least one resulting signal shape from the known functioning unit with the corresponding resulting signal shape from the unit to be tested, and e) detecting a fault in the unit to be tested on the basis of an existing signal shape distortion in time axis of the resulting signal shape received from the unit to be tested.
A composite material characterized in that a compound having a polymerization initiation site containing a halogen group is incorporated in a crosslinked structure comprising a catechol derivative or a phenol derivative represented by the following formula, wherein in the formula, R is in the 3- position or 4-position, may be interrupted by an oxygen molecule, and represents a hydrocarbon group with 2 to 20 carbons that has at least one double bond site, and A represents a hydrogen atom, a hydroxyl group, or an alkoxy group with 1 to 20 carbons; wherein the compound having the polymerization initiation site containing the halogen group is represented by the following formula:
Torsional vibration damping arrangement, in particular for the drive train of a vehicle, comprising an input region, which is to be driven for rotation about a rotational axis, and an output region, a first torque transmission path being provided between the input region and the output region, characterized in that a second torque transmission path is provided parallel to the first torque transmission path, the torque which is transmitted between the input region and the output region being split for transmission via the first torque transmission path and the second torque transmission path, in that a coupling arrangement is provided for superimposing the torques which are conducted via the torque transmission paths (20, 22) and for forwarding the superimposed torques to the output region, and in that a first phase shifter arrangement is provided in the first torque transmission path for generating a phase shift of rotational non-uniformities which are conducted via the first torque transmission path with regard to rotational non-uniformities which are conducted via the second torque transmission path.
A high-chromium heat-resistant steel, consisting of in mass %, C: 0.08% to 0.13%; Si: 0.15% to 0.45%; Mn: 0.1% to 1.0%;; Ni: 0.01% to 0.5%; Cr: 10.0% to 11.5%; Mo: 0.3% to 0.6%; V: 0.10% to 0.25%; Nb: 0.01 % to 0.06%; N: 0.015% to 0.07%, optionally B: ≤ 0.005%, and Al:≤ 0.04%, wherein the balance is Fe and inevitable impurity elements, wherein the mass % of the inevitable impurity elements is lower than 0.4 %, and wherein within the impurities P: ≤ 0.030, S: ≤ 0.010, Sn: ≤ 0.0200, Pb: ≤ 0.0030, As: ≤ 0.0120, Sb: ≤ 0.0040, Cu: ≤ 0.25 and Co: ≤ 0.020.
A materials handling vehicle comprising: a power unit; a work assembly (200, 300, 400) coupled to said power unit comprising a first auxiliary device; and a fluid supply system (500; 1500) comprising: pump structure (501, 502) for supplying a fluid; a first manifold apparatus located on said power unit and receiving fluid from said pump structure; a second manifold apparatus (540; 1560) located on said work assembly; and fluid supply line structure (574A, 574B) coupled between said first and second manifolds; and characterised in that said first manifold apparatus comprises valve structure for maintaining fluid pressure at an output port of said first manifold apparatus at a commanded pressure substantially equal to or greater than an operating pressure of said first auxiliary device, wherein said valve structure comprises an electronically controlled proportional pressure reducing and relieving valve; and said fluid supply system further comprises an electronic controller coupled to said valve structure for generating a control signal to said valve structure causing said valve structure to maintain fluid pressure at said output port at said commanded pressure, said control signal being generated by said controller in response to receiving an operator-generated command to actuate said first auxiliary device. a power unit; a work assembly (200, 300, 400) coupled to said power unit comprising a first auxiliary device; and a fluid supply system (500; 1500) comprising: pump structure (501, 502) for supplying a fluid; a first manifold apparatus located on said power unit and receiving fluid from said pump structure; a second manifold apparatus (540; 1560) located on said work assembly; and fluid supply line structure (574A, 574B) coupled between said first and second manifolds; and characterised in that pump structure (501, 502) for supplying a fluid; a first manifold apparatus located on said power unit and receiving fluid from said pump structure; a second manifold apparatus (540; 1560) located on said work assembly; and fluid supply line structure (574A, 574B) coupled between said first and second manifolds; and characterised in that said first manifold apparatus comprises valve structure for maintaining fluid pressure at an output port of said first manifold apparatus at a commanded pressure substantially equal to or greater than an operating pressure of said first auxiliary device, wherein said valve structure comprises an electronically controlled proportional pressure reducing and relieving valve; and said fluid supply system further comprises an electronic controller coupled to said valve structure for generating a control signal to said valve structure causing said valve structure to maintain fluid pressure at said output port at said commanded pressure, said control signal being generated by said controller in response to receiving an operator-generated command to actuate said first auxiliary device.
An apparatus for separating solid particles from a hydrocarbon-containing fluid produced from an oil and/or gas production facility, the apparatus comprising a primary production conduit having an upstream portion and a downstream portion, at least one valve connected to the upstream portion, the valve having a first outlet in fluid communication with the primary production conduit, a second outlet in fluid communication with a solid particle separation unit and an inlet connectable to an oil and/or gas production well, wherein the first and second outlets of the valve are selectively connectable to the upstream portion or the solid particle separation unit, and the valve being actuatable to select between the respective first and second outlets, the solid particle separation unit comprising at least one solid separator and having a first output for solids and a second output for fluids, the second output being in fluid communication with an input of a fluid separator having a liquid output and a gas output, the liquid output being in fluid communication with the downstream portion by a return conduit, a controller for controlling liquid flow from the fluid separator to the downstream portion along the return conduit and a pressure boosting pump in the return conduit for pressurising liquid in the return conduit and pumping the pressurised liquid in the return conduit in a direction from the fluid separator to the downstream portion, the controller being adapted to control any one or more, in any combination, of any of an output pressure of the pump; a flow rate of the pump; and an on/off function of the pump.
An arthroplasty device comprising on one side a bearing region adapted to articulate with another bearing surface, wherein the bearing region is made from an interpenetrating polymer network hydrogel, wherein on an adjacent side, the arthroplasty device comprises a bone-interfacing region adapted to interact with underlying bone, and wherein the bone-interfacing region is made from another polymer integrated with the interpenetrating polymer network to form a transition zone between the bearing region and the bone-interfacing region.