mhurhangee/ep-ind-claims huggingface dataset:
A granule that comprises: a salt of composition + (X i-) 1/i, [H 2 L] 2+ (X -) 2/i, H 3 L] 3+ (X i-) 3/i, [(HL-BG-LH)] 2+ (X -) 2/i, [(HL-BG-LH 2)] 3+ (X i-) 3/i, [(H 2 L-BG-LH 2)] 4+ (X i-) 4/i, [(H 3 L-BG-LH 2)] 5+ (X i-) 5/i, and/or [(H 3 L-BG-LH 3)] 6+ (X i-) 6/i, whereby L is a monocyclic triamine, BG is a divalent organic bridge group, i is 1 or 2, and X i- is a mono- or divalent anion, wherein said granule comprises a coating agent, a polysaccharide absorbent, 0.02-25 wt-% of Mn oxalate, and 0.1-25 wt-% of said salt. a salt of composition + (X i-) 1/i, [H 2 L] 2+ (X -) 2/i, H 3 L] 3+ (X i-) 3/i, [(HL-BG-LH)] 2+ (X -) 2/i, [(HL-BG-LH 2)] 3+ (X i-) 3/i, [(H 2 L-BG-LH 2)] 4+ (X i-) 4/i, [(H 3 L-BG-LH 2)] 5+ (X i-) 5/i, and/or [(H 3 L-BG-LH 3)] 6+ (X i-) 6/i, whereby L is a monocyclic triamine, BG is a divalent organic bridge group, i is 1 or 2, and X i- is a mono- or divalent anion, wherein said granule comprises a coating agent, a polysaccharide absorbent, 0.02-25 wt-% of Mn oxalate, and 0.1-25 wt-% of said salt.
A saddle riding type vehicle, comprising: an engine having a cylinder head; an ignition plug provided at a side surface of the cylinder head; an ignition coil attached to a side surface of the cylinder head that is opposite, in the width direction of the vehicle, to the side surface provided with the ignition plug; and a plug cord arranged to connect the ignition plug and the ignition coil, the plug cord being provided under the cylinder head. an engine having a cylinder head; an ignition plug provided at a side surface of the cylinder head; an ignition coil attached to a side surface of the cylinder head that is opposite, in the width direction of the vehicle, to the side surface provided with the ignition plug; and a plug cord arranged to connect the ignition plug and the ignition coil, the plug cord being provided under the cylinder head.
A mold for use in producing a development blade, which blade is to be formed by adhering an elastic member to an elongated-shaped hard plate along the longitudinal direction thereof, wherein the hard plate has rectangular-recessed portions, as well as blank areas on the widthwise outer sides of the rectangular-recessed portions, on both side portions in the longitudinal direction thereof and the elastic member is molded to skip the rectangular-recessed portions, comprising: a space for accommodating the development blade; a cavity portion having a shape in accordance with the shape of the elastic member and including respective rectangular-recessed portions (11, 31) precisely corresponding to the rectangular-recessed portions of the hard plate such that the cavity portion is divided in the longitudinal direction into a center portion between the two rectangular-recessed portions (11, 31), respective first outer side portions on the outer sides in the longitudinal direction of the center portion, and extending along the rectangular-recessed portions of the hard plate when the hard plate is set in the mold, and second outer side portions on the outer sides in the longitudinal direction of the first outer side portions and extending beyond the rectangular-recessed portions of the hard plate to a border with the blank areas of the hard plate, when the hard plate is set in the mold, the cavity portion having a widthwise dimension of 2 to 10 mm; and a gate portion (15, 35) for injecting a material into the cavity portion, wherein the gate portion (15, 35) is positioned, in the longitudinal direction, either on a border between each rectangular-recessed portion (11, 31) and the center portion of the cavity portion, or on an outer side of the border. a space for accommodating the development blade; a cavity portion having a shape in accordance with the shape of the elastic member and including respective rectangular-recessed portions (11, 31) precisely corresponding to the rectangular-recessed portions of the hard plate such that the cavity portion is divided in the longitudinal direction into a center portion between the two rectangular-recessed portions (11, 31), respective first outer side portions on the outer sides in the longitudinal direction of the center portion, and extending along the rectangular-recessed portions of the hard plate when the hard plate is set in the mold, and second outer side portions on the outer sides in the longitudinal direction of the first outer side portions and extending beyond the rectangular-recessed portions of the hard plate to a border with the blank areas of the hard plate, when the hard plate is set in the mold, the cavity portion having a widthwise dimension of 2 to 10 mm; and a gate portion (15, 35) for injecting a material into the cavity portion, wherein the gate portion (15, 35) is positioned, in the longitudinal direction, either on a border between each rectangular-recessed portion (11, 31) and the center portion of the cavity portion, or on an outer side of the border.
A bogie lateral movement-limiting system for restricting lateral movements of a bogie in case of a derailment of a vehicle traveling on paired rails (60a, 60b) whereby the system comprises a derailment prevention guard device (62a, 62b) to be laid along inside of the paired rails (60a, 60b); - and a lateral movement-limiting device adapted to be attached to a cross beam of a bogie frame; - wherein the lateral movement-limiting device has a stopper which is to be extended downward from a proximate center position between wheels (36a, 36b) of the bogie in width direction and which slidingly contacts with an inner surface of the derailment prevention guard device (62a, 62b) in case of derailment. - and a lateral movement-limiting device adapted to be attached to a cross beam of a bogie frame; - wherein the lateral movement-limiting device has a stopper which is to be extended downward from a proximate center position between wheels (36a, 36b) of the bogie in width direction and which slidingly contacts with an inner surface of the derailment prevention guard device (62a, 62b) in case of derailment.
A device for cosmetic treatment of human skin, comprising: A handpiece comprising an array of needles for inserting into the skin; an electrical unit, comprising a DC power source electrically connected to the array of needles for providing an electrical current to said array of needles, an anode that is electrically connected to the DC power source to receive a current, and that is adapted to be placed in contact with the skin of the person into which the needles are inserted to form a closed electrical circuit; at least one RF transmitter coupled to said array of needles for radiating the area around where the needles are inserted to provide heat while the needles are deployed. A handpiece comprising an array of needles for inserting into the skin; an electrical unit, comprising a DC power source electrically connected to the array of needles for providing an electrical current to said array of needles, an anode that is electrically connected to the DC power source to receive a current, and that is adapted to be placed in contact with the skin of the person into which the needles are inserted to form a closed electrical circuit; at least one RF transmitter coupled to said array of needles for radiating the area around where the needles are inserted to provide heat while the needles are deployed.
A process for the incineration of activated coal-supported PGM catalysts, the process comprising a joint incineration of a multilayer arrangement, wherein the multilayer arrangement comprises (i) a top layer of particulate activated coal-supported PGM catalyst, (ii) a layer of coarse charcoal located beneath said top layer and, optionally, (iii) a layer of particulate coke located beneath the charcoal layer, wherein an upward flow of oxidizing gas is homogeneously passed through said multilayer arrangement during the incineration, and wherein the particulate activated coal-supported PGM catalyst comprises a minimally combustible activated coal-supported PGM catalyst.
A braking device for an elevator system, comprising: a motor (36;236) capable of generating a counter-electromotive force; a braking system (52;252) having a disengaged and an engaged position, wherein the braking system (52;252) moves to the disengaged position upon being energized and moves to the engaged position upon being de-energized; and characterized by first and second switches (248, 250) having an open state, wherein in the open state, the first and second switches (248, 250) electrically couple the motor (36;236) to the braking system (52;252), enabling the counter-electromotive force of the motor (36;236) to energize the braking system (52;252). a motor (36;236) capable of generating a counter-electromotive force; a braking system (52;252) having a disengaged and an engaged position, wherein the braking system (52;252) moves to the disengaged position upon being energized and moves to the engaged position upon being de-energized; and characterized by first and second switches (248, 250) having an open state, wherein in the open state, the first and second switches (248, 250) electrically couple the motor (36;236) to the braking system (52;252), enabling the counter-electromotive force of the motor (36;236) to energize the braking system (52;252).
A terminal comprising: a receiving section configured to receive downlink control information, DCI, by monitoring a plurality of downlink, DL, control channel candidates of different aggregation levels; and a control section configured to, when the DCI is detected in a DL control channel candidate of a specific aggregation level, further characterized by being configured to determine that a DL data channel scheduled by the DCI is mapped to resources other than resources corresponding to a DL control channel candidate of another aggregation level, wherein the receiving section is further configured to receive, based on the determined resources, the DL data channel scheduled by the DCI. a receiving section configured to receive downlink control information, DCI, by monitoring a plurality of downlink, DL, control channel candidates of different aggregation levels; and a control section configured to, when the DCI is detected in a DL control channel candidate of a specific aggregation level, further characterized by being configured to determine that a DL data channel scheduled by the DCI is mapped to resources other than resources corresponding to a DL control channel candidate of another aggregation level, wherein the receiving section is further configured to receive, based on the determined resources, the DL data channel scheduled by the DCI.
A method for producing a composite reactive material, comprising the steps of: - mixing a fluorinated polymer with a metal powder at a temperature at which the fluorinated polymer and the metal powder form a viscous mixture of composite reactive material; - extruding the viscous mixture to produce one or more profiled elements of composite reactive material; characterized in that in said method no solvent is used to form said viscous mixture. - mixing a fluorinated polymer with a metal powder at a temperature at which the fluorinated polymer and the metal powder form a viscous mixture of composite reactive material; - extruding the viscous mixture to produce one or more profiled elements of composite reactive material;
A turbine system for recovering energy of exhaust gases of an internal combustion engine, comprising a first turbine device, a second turbine device, and an exhaust gas pressure regulator forming part of a diffuser for the exhaust gas flowing through the turbine system, said exhaust gas pressure regulator is arranged between the first turbine device and the second turbine device and configured to control the flow of exhaust gas to the second turbine device, wherein the second turbine device is a turbocompound device arranged in series with the first turbine device, characterized in that the exhaust gas pressure regulator is an on/off valve, and in that the turbine system further comprises a flow control valve, which is configured to be positioned in at least one intermediate position between a fully opened and a closed position, in order that exhaust gases bypass the second turbine device.
A cloud network system, comprising a distributed IPSec gateway divided into a control plane and a data plane, wherein the control plane and the data plane are separated and wherein the distributed IPSec gateway comprises: a gateway management node in the control plane; a plurality of gateway processing nodes in the data plane; wherein the gateway management node is configured to generate IPsec SAs of a plurality of IPSec tunnels, and send them to gateway processing nodes for processing data packets of incoming ESP/AH traffic and/or data packets of outgoing IP traffic of corresponding IPSec tunnel, and steer the incoming ESP/AH traffic and/or outgoing IP traffic between the plurality of gateway processing nodes; and wherein the gateway processing nodes are configured to decrypt and decapsulate received data packets of incoming ESP/AH traffic by using the IPSec SAs sent by the gateway management node to generate data packets of incoming IP traffic, and/or encrypt and encapsulate received data packets of outgoing IP traffic to generate data packets of outgoing ESP/AH traffic. a gateway management node in the control plane; a plurality of gateway processing nodes in the data plane; wherein the gateway management node is configured to generate IPsec SAs of a plurality of IPSec tunnels, and send them to gateway processing nodes for processing data packets of incoming ESP/AH traffic and/or data packets of outgoing IP traffic of corresponding IPSec tunnel, and steer the incoming ESP/AH traffic and/or outgoing IP traffic between the plurality of gateway processing nodes; and wherein the gateway processing nodes are configured to decrypt and decapsulate received data packets of incoming ESP/AH traffic by using the IPSec SAs sent by the gateway management node to generate data packets of incoming IP traffic, and/or encrypt and encapsulate received data packets of outgoing IP traffic to generate data packets of outgoing ESP/AH traffic.
A cascade for a turbomachine, comprising a number of blades (11,... 14; 21,... 25; 31,... 37) having manocrystalline material, each blade having a crystal orientation value (|α|), which depends on a crystal orientation of the monocrystalline material of the blade; and wherein the crystal orientation values of the first blades (11,...14) are smaller than a first limit value, and the crystal orientation values of the second blades (21,...25; 31,...37) are at least equal to the first limit value; characterized in that the cascade comprises at least one first sector, having at least three successive first blades (14, 12, 11, 13) and at least one second sector (2+3; 2'+3'; 2"+3"), which has at least three successive second blades (22,21,23,24,25; 31, 34,36,37, 33, 32, 35), wherein the crystal orientation values of the blades of a sector are arranged regularly, namely in a monotonous order.
A compound of Formula: or a pharmaceutically acceptable salt thereof, wherein: L 1 is a bond or C 1 -C 6 alkyl; R 1 is -OR 9, -C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 1 -C 6 haloalkyl, or -C(=O)N(R 9) 2; R 2 is C 1 -C 6 alkyl; R 3 is hydrogen; R 4 is phenyl substituted with at least one R 11; each R 11 is independently -NR 10 SO 2 R 10, -SOR 10, -SO 2 R 10, -SO 2 N(R 10) 2, or C 1 -C 6 alkyl, wherein said C 1 -C 6 alkyl is optionally substituted by 1 hydroxy; provided that at least one R 11 is -NR 10 SO 2 R 10, -SOR 10, -SO 2 R 10, or-SO 2 N(R 10) 2, each R 10 is independently C 1 -C 6 alkyl; and each R 9 is independently hydrogen or C 1 -C 6 haloalkyl; and n is 0. L 1 is a bond or C 1 -C 6 alkyl; R 1 is -OR 9, -C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 1 -C 6 haloalkyl, or -C(=O)N(R 9) 2; R 2 is C 1 -C 6 alkyl; R 3 is hydrogen; R 4 is phenyl substituted with at least one R 11; each R 11 is independently -NR 10 SO 2 R 10, -SOR 10, -SO 2 R 10, -SO 2 N(R 10) 2, or C 1 -C 6 alkyl, wherein said C 1 -C 6 alkyl is optionally substituted by 1 hydroxy; provided that at least one R 11 is -NR 10 SO 2 R 10, -SOR 10, -SO 2 R 10, or-SO 2 N(R 10) 2, each R 10 is independently C 1 -C 6 alkyl; and each R 9 is independently hydrogen or C 1 -C 6 haloalkyl; and n is 0.
Method for displaying a hand of an operator of an operating element of a vehicle on a display device of the vehicle, contact between an operating area of the operating element and the operator's hand being detected and a position of a point of contact being determined, the operator being identified, an orientation of the hand being determined, and an image of an accordingly oriented virtual hand (16, 18) being displayed on the display device in such a manner that a tip of a finger corresponds to the position of the point of contact, characterized in that a sitting position of the operator is captured and the orientation of the hand and/or a hand size is/are determined from the sitting position with the aid of a model of the operator and/or a table.
A method for manufacturing wet snow, comprising the steps of: making ice-slurry in an ice-slurry generator and pumping ice-slurry from a supply to a wet snow making system; operating a wet snow making system, composed of a wet snow making apparatus with at least one conical filter unit, having a conically shaped porous filter housing within a wet snow-making chamber of the wet snow making apparatus; feeding of ice-slurry from the supply through Z at least one inlet into the conical filter unit inside the wet snow-making apparatus; impacting the ice-slurry by air pressure through at least one inlet and filtering the ice-slurry in the conically shaped filter housing inside the snow-making apparatus; discharging wet snow with air pressure from at least one outlet of the wet snow-making apparatus. making ice-slurry in an ice-slurry generator and pumping ice-slurry from a supply to a wet snow making system; operating a wet snow making system, composed of a wet snow making apparatus with at least one conical filter unit, having a conically shaped porous filter housing within a wet snow-making chamber of the wet snow making apparatus; feeding of ice-slurry from the supply through Z at least one inlet into the conical filter unit inside the wet snow-making apparatus; impacting the ice-slurry by air pressure through at least one inlet and filtering the ice-slurry in the conically shaped filter housing inside the snow-making apparatus; discharging wet snow with air pressure from at least one outlet of the wet snow-making apparatus.
A coated abrasive article comprising: a polyurethane foam backing having at least one textured surface and an abrasive layer comprising a make coat and abrasive particles on an opposing surface, the textured surface bearing an array of raised features and land areas, characterised by the textured surface having a Total Surface Area (cm 2) per 1 cm 2 of greater than 1.000 and equal to or less than 1.400 (Total Surface Area (in 2) per 1 in 2 of greater than 1.000 and equal to or less than 1.400), and wherein the polyurethane foam backing has substantially uniform density. a polyurethane foam backing having at least one textured surface and an abrasive layer comprising a make coat and abrasive particles on an opposing surface, the textured surface bearing an array of raised features and land areas, characterised by the textured surface having a Total Surface Area (cm 2) per 1 cm 2 of greater than 1.000 and equal to or less than 1.400 (Total Surface Area (in 2) per 1 in 2 of greater than 1.000 and equal to or less than 1.400), and wherein the polyurethane foam backing has substantially uniform density.
A method comprising: associating a first electrode and a second electrode with a first layer of material, wherein associating the first electrode and the second electrode with the first layer of material comprises: affixing one of the first electrode or the second electrode to the first layer of material; and positioning the other of the first electrode or the second electrode such that the other of the first electrode or the second electrode is free to move relative to the first layer of material; positioning a light source in electrical communication with the first electrode and the second electrode; and processing an assembly comprising the first layer of material, the first electrode, the second electrode, and the light source to form a multilayer panel with an embedded light source, wherein processing the assembly includes curing the first layer of material. associating a first electrode and a second electrode with a first layer of material, wherein associating the first electrode and the second electrode with the first layer of material comprises: affixing one of the first electrode or the second electrode to the first layer of material; and positioning the other of the first electrode or the second electrode such that the other of the first electrode or the second electrode is free to move relative to the first layer of material; positioning a light source in electrical communication with the first electrode and the second electrode; and processing an assembly comprising the first layer of material, the first electrode, the second electrode, and the light source to form a multilayer panel with an embedded light source, wherein processing the assembly includes curing the first layer of material.