mhurhangee/ep-ind-claims huggingface dataset:
A life cycle management method, comprising: sending a proxy authorization request to an authorization subject, wherein the proxy authorization request is used to request the authorization subject to authorize all life cycle management operations of the first virtualized network function, VNF, instance; receiving proxy authorization policy information sent by the authorization subject, wherein the proxy authorization policy information is used to indicate types of authorized life cycle management operations; generating a correspondence based on an instance identifier, ID, and the proxy authorization policy information; and receiving a life cycle management operation request for the first VNF instance, wherein the life cycle management operation request comprises the instance ID of the first VNF instance and an operation type; determining, according to the correspondence between an instance ID of a VNF instance and a life cycle management operation type, that the operation type falls within life cycle management operation types corresponding to the instance ID, wherein the life cycle management operation types in the correspondence represents that the life cycle management operation type is authorized by the authorization subject; and initiating a resource operation request to a virtualized infrastructure manager VIM, wherein the resource operation request comprises the instance ID. sending a proxy authorization request to an authorization subject, wherein the proxy authorization request is used to request the authorization subject to authorize all life cycle management operations of the first virtualized network function, VNF, instance; receiving proxy authorization policy information sent by the authorization subject, wherein the proxy authorization policy information is used to indicate types of authorized life cycle management operations; generating a correspondence based on an instance identifier, ID, and the proxy authorization policy information; and receiving a life cycle management operation request for the first VNF instance, wherein the life cycle management operation request comprises the instance ID of the first VNF instance and an operation type; determining, according to the correspondence between an instance ID of a VNF instance and a life cycle management operation type, that the operation type falls within life cycle management operation types corresponding to the instance ID, wherein the life cycle management operation types in the correspondence represents that the life cycle management operation type is authorized by the authorization subject; and initiating a resource operation request to a virtualized infrastructure manager VIM, wherein the resource operation request comprises the instance ID.
An ion chromatography method comprising: (a) flowing an eluent-containing liquid sample stream containing ionic species of one charge, positive or negative, through a first separation medium in a first flowthrough chamber to separate said ionic species, (b) flowing an eluent along with a selected portion of said separated ionic species from said first separation medium through a valve and a second separation medium of the same charge, positive or negative, as said first separation medium in a second flowthrough chamber to further separate said ionic species, the volumetric flow rate through said second separation medium being not more than 0.9 times the volumetric flow rate through said first separation medium, and (c) detecting in a first flowthrough detector the further separated ionic species in the aqueous liquid stream exiting from said second separation medium; and (d) concentrating said ionic species in said sample stream exiting from said first chamber prior to flow into said second chamber, by flowing said sample stream through ionic species concentration medium in a concentrator; wherein said eluent flows continuously through said first chamber during steps (a), (b), (c) and (d), characterised in that the cross-sectional area of the second flowthrough chamber perpendicular to flow is no greater than 0.9 times the cross-sectional area of the first flowthrough chamber so that the linear velocity in said first flowthrough chamber is the same as the linear velocity in said second flowthrough chamber. (a) flowing an eluent-containing liquid sample stream containing ionic species of one charge, positive or negative, through a first separation medium in a first flowthrough chamber to separate said ionic species, (b) flowing an eluent along with a selected portion of said separated ionic species from said first separation medium through a valve and a second separation medium of the same charge, positive or negative, as said first separation medium in a second flowthrough chamber to further separate said ionic species, the volumetric flow rate through said second separation medium being not more than 0.9 times the volumetric flow rate through said first separation medium, and (c) detecting in a first flowthrough detector the further separated ionic species in the aqueous liquid stream exiting from said second separation medium; and (d) concentrating said ionic species in said sample stream exiting from said first chamber prior to flow into said second chamber, by flowing said sample stream through ionic species concentration medium in a concentrator;
An anti-CD39 antibody that is capable of binding and inhibiting the ATPase activity of a soluble extracellular domain human CD39 (NTPDase1) protein, for use in the treatment of cancer in a human individual, the treatment comprising administering: (a) the anti-CD39 antibody that is capable of binding and inhibiting the ATPase activity of a soluble extracellular domain human CD39 (NTPDase1) protein, wherein the antibody comprises a HCDR1 comprising an amino acid sequence DYNMH (SEQ ID NO: 8); a HCDR2 comprising an amino acid sequence YIVPLNGGSTFNQKFKG (SEQ ID NO: 9); a HCDR3 comprising an amino acid sequence GGTRFAY (SEQ ID NO: 10); a LCDR1 comprising an amino acid sequence RASESVDNFGVSFMY (SEQ ID NO: 11); a LCDR2 region comprising an amino acid sequence GASNQGS (SEQ ID NO: 12); and a LCDR3 region comprising an amino acid sequence QQTKEVPYT (SEQ ID NO: 13), and (b) an anti-CD73 antibody that neutralizes the 5'-ectonucleotidase activity of human CD73 wherein the cancer is a leukemia, a glioma or glioblastoma, or a cancer of the bladder, breast, colon, esophagus, kidney, liver, lung, ovary, uterus, prostate, pancreas, stomach, cervix, thyroid, head and neck or skin. (a) the anti-CD39 antibody that is capable of binding and inhibiting the ATPase activity of a soluble extracellular domain human CD39 (NTPDase1) protein, wherein the antibody comprises a HCDR1 comprising an amino acid sequence DYNMH (SEQ ID NO: 8); a HCDR2 comprising an amino acid sequence YIVPLNGGSTFNQKFKG (SEQ ID NO: 9); a HCDR3 comprising an amino acid sequence GGTRFAY (SEQ ID NO: 10); a LCDR1 comprising an amino acid sequence RASESVDNFGVSFMY (SEQ ID NO: 11); a LCDR2 region comprising an amino acid sequence GASNQGS (SEQ ID NO: 12); and a LCDR3 region comprising an amino acid sequence QQTKEVPYT (SEQ ID NO: 13), and (b) an anti-CD73 antibody that neutralizes the 5'-ectonucleotidase activity of human CD73
A depth sensing device, comprising: a depth sensing equipment module to perform depth sensing, the depth sensing equipment module comprising at least an RGB sensor, an infrared, IR, emitter, a first IR sensor positioned apart from the IR emitter, and a second IR sensor, wherein the second IR sensor is repositionable within the depth sensing equipment module; and a control module to: receive at least depth data from the depth sensing equipment module; and configure a mode of operation for the depth sensing equipment module based at least on the depth data, wherein the control module is operable to cause the depth sensing equipment module to position the second IR sensor at a first position that is a first distance from the first IR sensor when configuring the depth sensing equipment module for mid-range depth sensing, and the control module is operable to cause the depth sensing equipment to physically move the second IR sensor to a second position that is a second distance from the first IR sensor, the second distance being greater that the first distance, when said control module configures the depth sensing equipment module for long-range depth sensing. a depth sensing equipment module to perform depth sensing, the depth sensing equipment module comprising at least an RGB sensor, an infrared, IR, emitter, a first IR sensor positioned apart from the IR emitter, and a second IR sensor, wherein the second IR sensor is repositionable within the depth sensing equipment module; and a control module to: receive at least depth data from the depth sensing equipment module; and configure a mode of operation for the depth sensing equipment module based at least on the depth data, wherein the control module is operable to cause the depth sensing equipment module to position the second IR sensor at a first position that is a first distance from the first IR sensor when configuring the depth sensing equipment module for mid-range depth sensing, and the control module is operable to cause the depth sensing equipment to physically move the second IR sensor to a second position that is a second distance from the first IR sensor, the second distance being greater that the first distance, when said control module configures the depth sensing equipment module for long-range depth sensing. receive at least depth data from the depth sensing equipment module; and configure a mode of operation for the depth sensing equipment module based at least on the depth data, wherein
A method for manufacturing a wick, comprising: a step of supplying and smoothing a raw material containing metal powder onto a base; and a step of heating the raw material on the base to obtain a sintered compact; and a step of rolling the sintered compact; wherein the thickness of the raw material supplied to the base is within the range 0.1 to 2.0 mm, the thickness of the sintered compact after rolling is within the range 0.05 to 1.0 mm, and the average void ratio of the sintered compact after rolling is within the range 10 to 70%. a step of supplying and smoothing a raw material containing metal powder onto a base; and a step of heating the raw material on the base to obtain a sintered compact; and a step of rolling the sintered compact; wherein the thickness of the raw material supplied to the base is within the range 0.1 to 2.0 mm, the thickness of the sintered compact after rolling is within the range 0.05 to 1.0 mm, and the average void ratio of the sintered compact after rolling is within the range 10 to 70%.
A method for determination and/or prediction of a characteristic, CAR, of a sample product x by spectral analysis by means of a new spectrometer II; a method which is characterized in that: One obtains spectral analyses from sample products E by means of a first spectrometer I for which there is at least one model which permits, from said sample products E, and optionally from products i described hereinbelow, and from their spectrum obtained by means of said first spectrometer I, the determination and/or prediction of said characteristic, CAR; One obtains and/or records pairs of spectra of products i obtained by means of the first spectrometer I and the new spectrometer II, respectively (SIi, SIIi); One measures, by means of the new spectrometer II, the spectrum of the sample product x (spectrum SIIx); By means of a method of proximity analysis, one determines the function which enables correlation of the spectrum of the sample product x (SIIx) with the spectra SIIi; In the said function, one replaces the values of spectral quantities SIIi by the corresponding values of spectral quantities SIi of the spectral pairs, thereby determining a spectrum SIx; and One applies the model of step above to the spectrum SIx, so as to determine and/or predict the characteristic, CAR, of the sample product x being investigated. One obtains spectral analyses from sample products E by means of a first spectrometer I for which there is at least one model which permits, from said sample products E, and optionally from products i described hereinbelow, and from their spectrum obtained by means of said first spectrometer I, the determination and/or prediction of said characteristic, CAR; One obtains and/or records pairs of spectra of products i obtained by means of the first spectrometer I and the new spectrometer II, respectively (SIi, SIIi); One measures, by means of the new spectrometer II, the spectrum of the sample product x (spectrum SIIx); By means of a method of proximity analysis, one determines the function which enables correlation of the spectrum of the sample product x (SIIx) with the spectra SIIi; In the said function, one replaces the values of spectral quantities SIIi by the corresponding values of spectral quantities SIi of the spectral pairs, thereby determining a spectrum SIx; and One applies the model of step above to the spectrum SIx, so as to determine and/or predict the characteristic, CAR, of the sample product x being investigated.
A vehicular lighting comprising: a light source; and a lens disposed on a front side of the light source, wherein light from the light source enters the lens and the vehicular lighting forms a light distribution having a cut-off line, and wherein an incident surface of the lens includes an upper incident surface above a center of the incident surface, on which a first light diffusion part diffusing the light is arranged, a lower incident surface below the center of the incident surface, on which a second light diffusion part diffusing the light is arranged, and an intermediate incident surface including the center of the incident surface, on which a third light diffusion part and a fourth light diffusion part that diffuse the light are arranged, the intermediate incident surface having a plain part in which the third light diffusion part and the fourth light diffusion part are not arranged, characterized in that a diffusion width of the light of the third light diffusion part is larger than a diffusion width of the light of the fourth light diffusion part. a light source; and a lens disposed on a front side of the light source, wherein light from the light source enters the lens and the vehicular lighting forms a light distribution having a cut-off line, and wherein an incident surface of the lens includes an upper incident surface above a center of the incident surface, on which a first light diffusion part diffusing the light is arranged, a lower incident surface below the center of the incident surface, on which a second light diffusion part diffusing the light is arranged, and an intermediate incident surface including the center of the incident surface, on which a third light diffusion part and a fourth light diffusion part that diffuse the light are arranged, the intermediate incident surface having a plain part in which the third light diffusion part and the fourth light diffusion part are not arranged, characterized in that a diffusion width of the light of the third light diffusion part is larger than a diffusion width of the light of the fourth light diffusion part.
Method for encoding measuring information of the relative positions of moving objects in Gray codes by means of three channels (101, 102, 103), wherein - the first channel of the three channels (101, 102, 103) has first signals, - the second channel of the three channels (101, 102, 103) has second signals, - the third channel of the three channels (101, 102, 103) has third signals, wherein the third signals comprise exclusively signals which at predetermined points in time identically replace the first signals or the second signals, wherein at said predetermined points in time the third signals describe a reference point, wherein the reference point is a benchmark for the relative positions. - the first channel of the three channels (101, 102, 103) has first signals, - the second channel of the three channels (101, 102, 103) has second signals, - the third channel of the three channels (101, 102, 103) has third signals,
A membrane separation unit comprising: a cartridge having an interior, an exterior, and a pair of ends; at least one membrane disposed within the cartridge; at least one seal plate for sealing one end of the cartridge, the seal plate comprising an outer groove; and a sealing ring seated in the outer groove, the sealing ring having a circular shape with a cross-sectional shape comprising: - an inside surface including a rounded bottom portion (52, 54); - a flattened front face maintaining contact with the walls of the seal-retaining outer groove; - a flattened rear face maintaining contact with the walls of the seal-retaining outer groove; and - a top surface having two flat surfaces (62, 64) that meet in a peak along an outer surface of the sealing ring, wherein the two flat surfaces (62, 64) form an angle of between 100° and 160° therebetween along an outer perimeter of the sealing ring, wherein the sealing ring comprises at least one groove (46, 48) in a face (56, 58) thereof providing a venting path past the sealing ring, wherein the at least one seal plate comprises at least one venting hole that forms a passage between the interior of the cartridge and the outer groove, and wherein the sealing ring seated in the outer groove having a cross-sectional shape that forms a circular venting path between the sealing ring and the seal plate. a cartridge having an interior, an exterior, and a pair of ends; at least one membrane disposed within the cartridge; at least one seal plate for sealing one end of the cartridge, the seal plate comprising an outer groove; and a sealing ring seated in the outer groove, the sealing ring having a circular shape with a cross-sectional shape comprising: - an inside surface including a rounded bottom portion (52, 54); - a flattened front face maintaining contact with the walls of the seal-retaining outer groove; - a flattened rear face maintaining contact with the walls of the seal-retaining outer groove; and - a top surface having two flat surfaces (62, 64) that meet in a peak along an outer surface of the sealing ring, - an inside surface including a rounded bottom portion (52, 54); - a flattened front face maintaining contact with the walls of the seal-retaining outer groove; - a flattened rear face maintaining contact with the walls of the seal-retaining outer groove; and - a top surface having two flat surfaces (62, 64) that meet in a peak along an outer surface of the sealing ring, wherein the two flat surfaces (62, 64) form an angle of between 100° and 160° therebetween along an outer perimeter of the sealing ring, wherein the sealing ring comprises at least one groove (46, 48) in a face (56, 58) thereof providing a venting path past the sealing ring, wherein the at least one seal plate comprises at least one venting hole that forms a passage between the interior of the cartridge and the outer groove, and wherein the sealing ring seated in the outer groove having a cross-sectional shape that forms a circular venting path between the sealing ring and the seal plate.
An oral solid preparation comprising an active ingredient, the active ingredient comprises a crystalline form of the compound of formula: preferably, the oral solid preparation further comprises a disintegrant, a disintegrant assistant, an excipient and a lubricant.
A sterilizing method in which a sterilizing composition solution containing peracetic acid, hydrogen peroxide, acetic acid and catalase as prepared in a circulating tank, is heated through a heating unit, fed to a sterilizing unit, and is recovered in the circulating tank after being used for the sterilization, wherein: the sterilizing composition solution in the circulating tank has a peracetic acid concentration of 500 to 10,000 ppm and a hydrogen peroxide concentration of less than 500 ppm; and the catalase is added to the sterilizing composition solution in a circulating passage after being used for the sterilization but before being fed to the heating unit; and characterized in that said catalase has a concentration of 0.1 to 10 μg/mL and is a catalase capable of decomposing hydrogen peroxide by not less than 35% of its initial concentration 10 minutes after it has been added to a peracetic acid-type sterilizer that is a composition comprising peracetic acid at a concentration of 3000 ppm, acetic acid and hydrogen peroxide and that is adjusted at a temperature of 50°C. the sterilizing composition solution in the circulating tank has a peracetic acid concentration of 500 to 10,000 ppm and a hydrogen peroxide concentration of less than 500 ppm; and the catalase is added to the sterilizing composition solution in a circulating passage after being used for the sterilization but before being fed to the heating unit; and characterized in that said catalase has a concentration of 0.1 to 10 μg/mL and is a catalase capable of decomposing hydrogen peroxide by not less than 35% of its initial concentration 10 minutes after it has been added to a peracetic acid-type sterilizer that is a composition comprising peracetic acid at a concentration of 3000 ppm, acetic acid and hydrogen peroxide and that is adjusted at a temperature of 50°C.
A hybrid vehicle (20, 220) comprising: an engine; a fuel tank that stores fuel to be supplied to the engine; a motor (MG2, MG); a hybrid electronic control unit, HVECU,; a battery configured to supply electric power to the motor (MG2, MG); a charger configured to carry out external charging that charges the battery by use of electric power from an external power source; and a notification mechanism configured to notify information on a use index to an outside of the vehicle (20, 220), the use index being an index for indicating a degree of use of external charging in a predetermined time period, characterized in that the notification mechanism is configured to visually notify the outside of the vehicle (20, 220), and the HVECU is configured to calculate the use index as or based on a ratio of the number of times that the external charging has been carried out in charging chances in which the vehicle is in a state where the external charging is able to be carried out to the number of the charging chances. an engine; a fuel tank that stores fuel to be supplied to the engine; a motor (MG2, MG); a hybrid electronic control unit, HVECU,; a battery configured to supply electric power to the motor (MG2, MG); a charger configured to carry out external charging that charges the battery by use of electric power from an external power source; and a notification mechanism configured to notify information on a use index to an outside of the vehicle (20, 220), the use index being an index for indicating a degree of use of external charging in a predetermined time period, characterized in that the notification mechanism is configured to visually notify the outside of the vehicle (20, 220), and the HVECU is configured to calculate the use index as or based on a ratio of the number of times that the external charging has been carried out in charging chances in which the vehicle is in a state where the external charging is able to be carried out to the number of the charging chances.
Method for coiling a slack hawser onto a winch drum, where the hawser is conducted through a braking body that provides a firm and approximately constant tightening of the hawser, in order to prevent the hawser from sinking down between the layers on the storage drum when handling of load, characterised in that the hawser is conducted in loops of a number of hawser guiding discs (21,22,23) of the braking body one or more of said discs (21,22,23) including braking means that give a tightening creating moment on the discs and tightens the hawser, each said hawser guiding disc (21,22,23) having a V- or U-shaped guiding groove geometry with a friction coating of a smooth surface structure and minimum roughness to provide a high friction between the hawser and the guiding grooves of the discs.