mhurhangee/ep-ind-claims huggingface dataset:
An acid-pickling additive for a surface oxide scale of a stainless steel material, consisting of the following components in weight parts: 1 to 10 parts of an alcohol amine compound, 0.1 to 5 parts of a metal complex ligand, 0 to 10 parts of a nitrogen-containing organic cyclic compound, 0 to 3 parts of an alcohol compound, 0 to 3 parts of a plant extract, and 1 to 2 parts of water, wherein the alcohol amine compound is a mixture of more than one or two of monoethanolamine, diethanolamine, or triethanolamine in any proportion; and the metal complex ligand comprises a mixture of more than one or two of an inorganic metal ligand and an organic metal ligand in any proportion, wherein the inorganic metal ligand is F -, Cl -, Br -, I -, SO 4 2-, CN -, or SCN -, and the organic metal ligand is acetate, oxalate, sulfosalicylate, aminotriacetate, or ethylenediamine tetraacetate, wherein the plant extract is comprised of 1 part of plant and 20 parts of water, wherein the plant is a tobacco leaf or a tea leaf. 1 to 10 parts of an alcohol amine compound, 0.1 to 5 parts of a metal complex ligand, 0 to 10 parts of a nitrogen-containing organic cyclic compound, 0 to 3 parts of an alcohol compound, 0 to 3 parts of a plant extract, and 1 to 2 parts of water, wherein the alcohol amine compound is a mixture of more than one or two of monoethanolamine, diethanolamine, or triethanolamine in any proportion; and the metal complex ligand comprises a mixture of more than one or two of an inorganic metal ligand and an organic metal ligand in any proportion, wherein the inorganic metal ligand is F -, Cl -, Br -, I -, SO 4 2-, CN -, or SCN -, and the organic metal ligand is acetate, oxalate, sulfosalicylate, aminotriacetate, or ethylenediamine tetraacetate, wherein the plant extract is comprised of 1 part of plant and 20 parts of water, wherein the plant is a tobacco leaf or a tea leaf.
A method of coating a substrate for a lithium secondary battery with inorganic particles, comprising: charging the inorganic particles to form charged inorganic particles; transferring the charged inorganic particles on the substrate for a lithium secondary battery to form a coating layer; and fixing the coating layer with heat and pressure, characterized in that the inorganic particles further comprise a surface-modifying layer on the surface thereof. charging the inorganic particles to form charged inorganic particles; transferring the charged inorganic particles on the substrate for a lithium secondary battery to form a coating layer; and fixing the coating layer with heat and pressure, characterized in that the inorganic particles further comprise a surface-modifying layer on the surface thereof.
An information transmission method, comprising: sending, by a first communications device, first indication information to a second communications device, where the first indication information indicates a frequency resource used by the second communications device to send data in a time unit and a frequency resource used by the second communications device to receive data in the time unit, the frequency resource used to send data and the frequency resource used to receive data belong to a same frequency band, the frequency resource used to send data and the frequency resource used to receive data are differentiated based on frequencies in the time unit, and the frequency band is a segment of continuous frequency resources in frequency domain; characterized in that: the method further comprises sending, by the first communications device, second indication information to the second communications device, wherein the second indication information indicates time domain information of the time unit, and the first communications device is a network device and the second communications device is a terminal. sending, by a first communications device, first indication information to a second communications device, where the first indication information indicates a frequency resource used by the second communications device to send data in a time unit and a frequency resource used by the second communications device to receive data in the time unit, the frequency resource used to send data and the frequency resource used to receive data belong to a same frequency band, the frequency resource used to send data and the frequency resource used to receive data are differentiated based on frequencies in the time unit, and the frequency band is a segment of continuous frequency resources in frequency domain; characterized in that: the method further comprises sending, by the first communications device, second indication information to the second communications device, wherein the second indication information indicates time domain information of the time unit, and the first communications device is a network device and the second communications device is a terminal. the method further comprises sending, by the first communications device, second indication information to the second communications device, wherein the second indication information indicates time domain information of the time unit, and the first communications device is a network device and the second communications device is a terminal.
A process for the production of dimethylether, said process comprising the steps of: a. dehydrating a methanol stream in the presence of a catalyst in a DME reactor system to provide a first DME-containing product; b. introducing the first DME-containing product into an olefin stripper column, in which it is separated into i. olefin stripper light fractions, and ii. a second DME-containing product; c. introducing the second DME-containing product into a DME column, in which it is separated into i. DME column light fractions, ii. purified DME and iii. unreacted methanol and water a. dehydrating a methanol stream in the presence of a catalyst in a DME reactor system to provide a first DME-containing product; b. introducing the first DME-containing product into an olefin stripper column, in which it is separated into i. olefin stripper light fractions, and ii. a second DME-containing product; i. olefin stripper light fractions, and ii. a second DME-containing product; c. introducing the second DME-containing product into a DME column, in which it is separated into i. DME column light fractions, ii. purified DME and iii. unreacted methanol and water i. DME column light fractions, ii. purified DME and iii. unreacted methanol and water
A method for supporting differential charging for data usage in licensed and unlicensed frequency bands, the method comprising: receiving, at a base station that provides wireless connectivity on a primary carrier that is anchored in a licensed frequency band and on a secondary carrier in an unlicensed frequency band, a charging policy indicating data usage tariffs for the licensed frequency band and the unlicensed frequency band, wherein the primary carrier is configured to carry control data for the secondary carrier; selectively allocating, at the base station, the secondary carrier in the unlicensed frequency band to user equipment for carrier aggregation with the primary carrier based on the data usage tariffs; characterized in that the method further comprises: handing over, at the base station, best effort data transmission from the primary carrier to the secondary carrier in response to the data usage tariff for the unlicensed frequency band being less than the data usage tariff for the licensed frequency band; and transmitting (335, 340), by the base station, to a network charging system a message including charging parameters, collected by the base station, for data usage in the licensed frequency band and the unlicensed frequency band and a session identifier for a session involving the licensed frequency band and the unlicensed frequency band. receiving, at a base station that provides wireless connectivity on a primary carrier that is anchored in a licensed frequency band and on a secondary carrier in an unlicensed frequency band, a charging policy indicating data usage tariffs for the licensed frequency band and the unlicensed frequency band, wherein the primary carrier is configured to carry control data for the secondary carrier; selectively allocating, at the base station, the secondary carrier in the unlicensed frequency band to user equipment for carrier aggregation with the primary carrier based on the data usage tariffs; characterized in that the method further comprises: handing over, at the base station, best effort data transmission from the primary carrier to the secondary carrier in response to the data usage tariff for the unlicensed frequency band being less than the data usage tariff for the licensed frequency band; and transmitting (335, 340), by the base station, to a network charging system a message including charging parameters, collected by the base station, for data usage in the licensed frequency band and the unlicensed frequency band and a session identifier for a session involving the licensed frequency band and the unlicensed frequency band.
Vessel (1001; 1101; 1201; 1301) comprising a cargo hull (1003; 1103; 1203; 1303) for storing pipes (1002; 1102; 1202; 1302) in a substantial horizontal position, and a pipe handling system (1004; 1104; 1204; 1304) for handling the pipes from the storage, the pipe handling system comprising: - a gantry beam (1005; 1105; 1205; 1305) which spans the cargo hull in a substantial horizontal direction, and - a guide mast assembly comprising an essentially vertical guide mast (1010;1110; 1210; 1310), which guide mast assembly is moveably connected to the gantry beam (1005; 1105; 1205; 1305), allowing movement of the guide mast assembly in a vertical direction between a lowered mast position and a lifted mast position relative to the gantry beam, characterized in that the pipe handling system further comprises: - one or more hoists; and - a lifting part (1014; 1114; 1214; 1314) comprising means for engaging at least one pipe; which lifting part, when said guide mast assembly is in the lowered mast position, is moveable by the one or more hoists (1016; 1116; 1216; 1316) in a vertical direction relative to the guide mast between a lowered lifting part position for picking up the at least one pipe (1002; 1102; 1202; 1302) and a lifted lifting part position in which the lifted lifting part engages on the guide mast assembly, wherein the lifting part engages on the guide mast assembly such that the guide mast assembly causes vertical guidance of the lifting part when the guide mast assembly with the engaged lifting part is moved between the lowered mast position and the lifted mast position. - a gantry beam (1005; 1105; 1205; 1305) which spans the cargo hull in a substantial horizontal direction, and - a guide mast assembly comprising an essentially vertical guide mast (1010;1110; 1210; 1310), which guide mast assembly is moveably connected to the gantry beam (1005; 1105; 1205; 1305), allowing movement of the guide mast assembly in a vertical direction between a lowered mast position and a lifted mast position relative to the gantry beam, - one or more hoists; and - a lifting part (1014; 1114; 1214; 1314) comprising means for engaging at least one pipe; which lifting part, when said guide mast assembly is in the lowered mast position, is moveable by the one or more hoists (1016; 1116; 1216; 1316) in a vertical direction relative to the guide mast between a lowered lifting part position for picking up the at least one pipe (1002; 1102; 1202; 1302) and a lifted lifting part position in which the lifted lifting part engages on the guide mast assembly, wherein the lifting part engages on the guide mast assembly such that the guide mast assembly causes vertical guidance of the lifting part when the guide mast assembly with the engaged lifting part is moved between the lowered mast position and the lifted mast position.
A method to estimate denatured serum proteins in milk having undergone heat treatment, the method comprising the successive steps of: (a) rendering transparent a sample of said milk to be analysed; (b) measuring scattering in said optically cleared sample to deduce a first index, DSP, representing the content of denatured serum proteins. (a) rendering transparent a sample of said milk to be analysed; (b) measuring scattering in said optically cleared sample to deduce a first index, DSP, representing the content of denatured serum proteins.
Bipolar plate for a fuel cell, wherein the bipolar plate has two main sides, and elongate elevations and channels extending therebetween are formed on each of the two main sides, wherein at least one of the elevations has at least one flattened portion, characterized in that the at least one flattened portion is a local depression of the elevation, and the at least one flattened portion is provided in a distribution region of the bipolar plate, wherein the channels of the distribution region lead towards or away from an active region of the bipolar plate.
An information processing apparatus comprising first display means and second display means (4R, 4L) for respectively displaying a first composite image and a second composite image for the two eyes of a user, comprising: moving means (17, 18, 19, 21) for moving positions of said first display means and said second display means (4R, 4L) in opposite directions (B,C); detecting means for detecting moving amounts caused by the moving means (17, 18, 19, 21) of said first display means and said second display means (4R, 4L); first image capturing means and second image capturing means (11R, 11L), wherein the distance between the first image capturing means and second image capturing means (11R, 11L) is fixed and wherein the first image capturing means and the second image capturing means (11R, 11L) respectively obtain a first captured image and a second captured image; extracting means (25R, 25L) for generating a first extracted image and a second extracted image by respectively extracting portions of the first captured image and the second captured image in extraction ranges associated with the moving amounts; and composite image generating means (25R, 25L) for generating the first composite image and the second composite image by respectively compositing a first computer graphics or computer-generated, CG, image and a second CG image with the first extracted image and the second extracted image. moving means (17, 18, 19, 21) for moving positions of said first display means and said second display means (4R, 4L) in opposite directions (B,C); detecting means for detecting moving amounts caused by the moving means (17, 18, 19, 21) of said first display means and said second display means (4R, 4L); first image capturing means and second image capturing means (11R, 11L), wherein the distance between the first image capturing means and second image capturing means (11R, 11L) is fixed and wherein the first image capturing means and the second image capturing means (11R, 11L) respectively obtain a first captured image and a second captured image; extracting means (25R, 25L) for generating a first extracted image and a second extracted image by respectively extracting portions of the first captured image and the second captured image in extraction ranges associated with the moving amounts; and composite image generating means (25R, 25L) for generating the first composite image and the second composite image by respectively compositing a first computer graphics or computer-generated, CG, image and a second CG image with the first extracted image and the second extracted image.
A method of assembling a gas turbine engine front architecture comprising the steps of: positioning an inner shroud and a first shroud portion (72 a) radially relative to one another; arranging multiple vanes circumferentially between the inner shroud and the first shroud portion (72 a); securing a second shroud portion (72 b) to the first shroud portion (72 a) using fasteners that secure to tabs extending axially from the first shroud portion (72 a), the second shroud portion (72 b) being secured to the first shroud portion (72 a) about the vanes, the first and second shroud portions providing an outer shroud; and mechanically isolating the vanes from the inner and outer shrouds (70, 72); wherein the arranging step includes inserting the vanes into first and second slots (82, 92) respectively provided in the outer and inner shrouds (72, 70), and wherein the mechanically isolating step includes applying a liquid sealant around a perimeter of the vanes and at least one of the shrouds, and bonding and supporting the ends of the vanes relative to said one of the shrouds with the liquid sealant. positioning an inner shroud and a first shroud portion (72 a) radially relative to one another; arranging multiple vanes circumferentially between the inner shroud and the first shroud portion (72 a); securing a second shroud portion (72 b) to the first shroud portion (72 a) using fasteners that secure to tabs extending axially from the first shroud portion (72 a), the second shroud portion (72 b) being secured to the first shroud portion (72 a) about the vanes, the first and second shroud portions providing an outer shroud; and mechanically isolating the vanes from the inner and outer shrouds (70, 72); wherein the arranging step includes inserting the vanes into first and second slots (82, 92) respectively provided in the outer and inner shrouds (72, 70), and wherein the mechanically isolating step includes applying a liquid sealant around a perimeter of the vanes and at least one of the shrouds, and bonding and supporting the ends of the vanes relative to said one of the shrouds with the liquid sealant.
A train of railway coaches comprising: a plurality of electric traction chains (16, 18, 20) each comprising a traction converter supplying a traction motor of the train, each electric traction chain having a water cooling loop (180, 182, 184); a first electric traction supply network used to supply the electric traction chains (16, 18, 20); and a second auxiliary electrical supply network, the auxiliary supply network comprising: at least one auxiliary supply wire bus comprising at least two bus sections (122, 124, 126), to each of which there is connected a set of auxiliary loads (70, 72, 74, 76, 82, 84), at least two auxiliary supply converters (102, 104, 106), which can be connected at their inputs, in order to power them, to a high voltage source, each converter being connected exclusively to one auxiliary bus section respectively, each auxiliary converter (102, 104, 106) including, in common with the respective electric traction chain (16, 18, 20) to which it is connected at its input, the coolant cooling loop (180, 182, 184) used to cool the electric traction chain (16, 18, 20). a plurality of electric traction chains (16, 18, 20) each comprising a traction converter supplying a traction motor of the train, each electric traction chain having a water cooling loop (180, 182, 184); a first electric traction supply network used to supply the electric traction chains (16, 18, 20); and a second auxiliary electrical supply network, the auxiliary supply network comprising: at least one auxiliary supply wire bus comprising at least two bus sections (122, 124, 126), to each of which there is connected a set of auxiliary loads (70, 72, 74, 76, 82, 84), at least two auxiliary supply converters (102, 104, 106), which can be connected at their inputs, in order to power them, to a high voltage source, each converter being connected exclusively to one auxiliary bus section respectively, each auxiliary converter (102, 104, 106) including, in common with the respective electric traction chain (16, 18, 20) to which it is connected at its input, the coolant cooling loop (180, 182, 184) used to cool the electric traction chain (16, 18, 20). at least one auxiliary supply wire bus comprising at least two bus sections (122, 124, 126), to each of which there is connected a set of auxiliary loads (70, 72, 74, 76, 82, 84), at least two auxiliary supply converters (102, 104, 106), which can be connected at their inputs, in order to power them, to a high voltage source, each converter being connected exclusively to one auxiliary bus section respectively, each auxiliary converter (102, 104, 106) including, in common with the respective electric traction chain (16, 18, 20) to which it is connected at its input, the coolant cooling loop (180, 182, 184) used to cool the electric traction chain (16, 18, 20).
A system (20; 300), comprising: a mapping device (22; 100; 120; 130; 150) that includes a plurality of electrodes (28; 106; 128; 226) configured to be situated on a baroreceptor region of a patient to map baroreceptors in the baroreceptor region; a stimulator configured to stimulate selected electrodes of the plurality of electrodes (28; 106; 128; 226) to obtain physiological responses from the patient in response to stimulation of the selected electrodes; and a marker (26; 102; 132; 152; 170; 172; 174; 176; 178) configured to be attached to the patient to mark a location of at least one of the selected electrodes based on an analysis of the physiological responses from the patient, the marker configured to maintain its location on the patient as the mapping device is removed from the patient. a mapping device (22; 100; 120; 130; 150) that includes a plurality of electrodes (28; 106; 128; 226) configured to be situated on a baroreceptor region of a patient to map baroreceptors in the baroreceptor region; a stimulator configured to stimulate selected electrodes of the plurality of electrodes (28; 106; 128; 226) to obtain physiological responses from the patient in response to stimulation of the selected electrodes; and a marker (26; 102; 132; 152; 170; 172; 174; 176; 178) configured to be attached to the patient to mark a location of at least one of the selected electrodes based on an analysis of the physiological responses from the patient, the marker configured to maintain its location on the patient as the mapping device is removed from the patient.