mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula as indicated below: R1 is R2 and R3 are, independently, selected from the group consisting of: F, G, H, K and L are independently selected from the group consisting of hydrogen, halogen, C1-4 alkyl, halosubstituted C1-4 alkyl, hydroxysubstituted C1-4 alkyl, and C1-4 alkoxy; R4 and R5 are independently selected from the group consisting of hydrogen, halogen, C1-4 alkyl, aryl, C1-4 alkyl aryl, cyano, nitro, (CR7R7)pORb, (CR7R7)pNRbRb, or R4 and R5 together may form a 5 to 6 membered saturated or unsaturated ring; m is an integer having a value of 1 to 5; p is 0, 1 or 2; t is 0, 1 or 2; R6 is selected from the group consisting of hydrogen, C1-4 alkyl; Rb is selected from the group consisting of hydrogen, C1-4 alkyl, and aryl C1-4 alkyl R7 is selected from the group consisting of hydrogen, and C1-4 alkyl; X- is a physiologically acceptable anion selected from the group consisting of chloride, bromide, iodide, hydroxide, sulfate, nitrate, phosphate, acetate, trifluoroacetate, fumarate, citrate, tartrate, oxalate, succinate, mandelate, methanesulfonate and p-toluenesulfonate. R1 is R2 and R3 are, independently, selected from the group consisting of: F, G, H, K and L are independently selected from the group consisting of hydrogen, halogen, C1-4 alkyl, halosubstituted C1-4 alkyl, hydroxysubstituted C1-4 alkyl, and C1-4 alkoxy; R4 and R5 are independently selected from the group consisting of hydrogen, halogen, C1-4 alkyl, aryl, C1-4 alkyl aryl, cyano, nitro, (CR7R7)pORb, (CR7R7)pNRbRb, or R4 and R5 together may form a 5 to 6 membered saturated or unsaturated ring; m is an integer having a value of 1 to 5; p is 0, 1 or 2; t is 0, 1 or 2; R6 is selected from the group consisting of hydrogen, C1-4 alkyl; Rb is selected from the group consisting of hydrogen, C1-4 alkyl, and aryl C1-4 alkyl R7 is selected from the group consisting of hydrogen, and C1-4 alkyl; X- is a physiologically acceptable anion selected from the group consisting of chloride, bromide, iodide, hydroxide, sulfate, nitrate, phosphate, acetate, trifluoroacetate, fumarate, citrate, tartrate, oxalate, succinate, mandelate, methanesulfonate and p-toluenesulfonate.
A method of establishing a secure group of entities in a computer network, comprising: a) receiving a request from a first entity for the creation of a group; b) creating a group identifier, and a first public/private key pair for the group; c) transmitting the group identifier and first group public key to the entity; d) verifying whether the first entity is authorised to join the group, and if it is transmitting the first group private key to the entity; e) receiving a request from a second entity to join the group specified by the group identifier, the request including an identifier of the second entity signed by the first entity using the first group private key; and f) verifying whether the second entity is authorised to join the group, and if it is, transmitting the first group private key to the second entity, to permit messages signed with the first group private key to be verified as messages from an authentic group member. a) receiving a request from a first entity for the creation of a group; b) creating a group identifier, and a first public/private key pair for the group; c) transmitting the group identifier and first group public key to the entity; d) verifying whether the first entity is authorised to join the group, and if it is transmitting the first group private key to the entity; e) receiving a request from a second entity to join the group specified by the group identifier, the request including an identifier of the second entity signed by the first entity using the first group private key; and f) verifying whether the second entity is authorised to join the group, and if it is, transmitting the first group private key to the second entity, to permit messages signed with the first group private key to be verified as messages from an authentic group member.
A method of operation of a serving node in a communication network for updating subscriber data, comprising: • receiving a modification of subscriber data for a group of subscribers, said group being identified by a Reset-ID; • determining, for each subscriber in the group of subscribers, if updates to the subscriber data for the subscriber are to be done with high priority; • in response to determining that the updates to the subscriber data are needed now, communicating the modification of the subscriber data for the subscriber to one or more additional nodes; and • in response to determining that the updates to the subscriber data are not needed now, postponing the communication of the modification of the subscriber data for the subscriber, wherein determining if the updates to the subscriber data for the subscriber are to be done with high priority comprises determining that a user equipment associated with the subscriber is in an active state and the active state is a CONNECTED state. • receiving a modification of subscriber data for a group of subscribers, said group being identified by a Reset-ID; • determining, for each subscriber in the group of subscribers, if updates to the subscriber data for the subscriber are to be done with high priority; • in response to determining that the updates to the subscriber data are needed now, communicating the modification of the subscriber data for the subscriber to one or more additional nodes; and • in response to determining that the updates to the subscriber data are not needed now, postponing the communication of the modification of the subscriber data for the subscriber, wherein determining if the updates to the subscriber data for the subscriber are to be done with high priority comprises determining that a user equipment associated with the subscriber is in an active state and the active state is a CONNECTED state.
Conversion body (1; 11; 21), comprising - a main body made from wavelength converting phosphor, said main body having an irradiation surface, intended to be irradiated by primary light, wherein the basic body is a phosphor platelet, the irradiation surface of which is centered on a flat side of the main body, and - at least one electrically conductive conduction track (4; 12, 13; 22) mounted on the main body outside the irradiation surface, wherein - at least one edge-side conduction track (4; 12; 22) extends along at least a portion of one edge of the flat side that comprises the irradiation surface, characterized in that the edge-side conduction track extends along at least one mechanical damage site introduced on the edge side and at least one other conduction track extends, a distance apart from and similar in shape to the edge-side conduction track, between the edge-side conduction track and the irradiation surface. - a main body made from wavelength converting phosphor, said main body having an irradiation surface, intended to be irradiated by primary light, wherein the basic body is a phosphor platelet, the irradiation surface of which is centered on a flat side of the main body, and - at least one electrically conductive conduction track (4; 12, 13; 22) mounted on the main body outside the irradiation surface, wherein - at least one edge-side conduction track (4; 12; 22) extends along at least a portion of one edge of the flat side that comprises the irradiation surface, characterized in that the edge-side conduction track extends along at least one mechanical damage site introduced on the edge side and at least one other conduction track extends, a distance apart from and similar in shape to the edge-side conduction track, between the edge-side conduction track and the irradiation surface.
An apparatus for determining a disparity map comprising a plurality of disparity map values, based on at least two images, wherein the apparatus comprises: at least two processing units (110, 120), wherein each of the at least two processing units (110, 120) comprises: a pixel recursion unit (112, 122) for determining a disparity value as a pixel recursion disparity candidate based on a plurality of pixel values of the at least two images, and a selector (114, 124), configured to select a selected disparity candidate to determine at least one of the disparity map values of the disparity map, wherein the selector (114, 124) is adapted to select the selected disparity candidate from a candidate group assigned to the selector (114, 124), wherein the candidate group assigned to the selector (114, 124) comprises the pixel recursion disparity candidate, a second disparity candidate and a third disparity candidate, and wherein the selector is adapted to select the selected disparity candidate independently from a different selector of a different processing unit of the at least two processing units (110, 120). at least two processing units (110, 120), wherein each of the at least two processing units (110, 120) comprises: a pixel recursion unit (112, 122) for determining a disparity value as a pixel recursion disparity candidate based on a plurality of pixel values of the at least two images, and a selector (114, 124), configured to select a selected disparity candidate to determine at least one of the disparity map values of the disparity map, wherein the selector (114, 124) is adapted to select the selected disparity candidate from a candidate group assigned to the selector (114, 124), wherein the candidate group assigned to the selector (114, 124) comprises the pixel recursion disparity candidate, a second disparity candidate and a third disparity candidate, and wherein the selector is adapted to select the selected disparity candidate independently from a different selector of a different processing unit of the at least two processing units (110, 120). a pixel recursion unit (112, 122) for determining a disparity value as a pixel recursion disparity candidate based on a plurality of pixel values of the at least two images, and a selector (114, 124), configured to select a selected disparity candidate to determine at least one of the disparity map values of the disparity map, wherein the selector (114, 124) is adapted to select the selected disparity candidate from a candidate group assigned to the selector (114, 124), wherein the candidate group assigned to the selector (114, 124) comprises the pixel recursion disparity candidate, a second disparity candidate and a third disparity candidate, and wherein the selector is adapted to select the selected disparity candidate independently from a different selector of a different processing unit of the at least two processing units (110, 120).
A polymer composition having a rheological breadth parameter determined at a temperature of 190°C of greater than about 0.15 and a polydispersity index greater than 50, wherein the PDI is determined using gel permeation chromatography and wherein the polymer composition comprises polyethylene or a copolymer of ethylene and 1-hexene.
A computing system (10; 150) comprising: a processor (11; 154); and memory coupled to the processor, the memory storing instructions which, when executed by the processor, cause the computing system to: scan program code, including a library function suitable for acceleration via an accelerator, to detect one or more of a library signature or an accelerator tag of the library function, wherein the library function is recognized by detection of the library signature or the accelerator tag; upon detection of the accelerator tag, substitute, in place of the library function, an accelerator call for the library function tagged with the accelerator tag; and upon detection of the library signature, substitute, in place of the library function, the accelerator call for the library function associated with the library signature, wherein, when the program code is executed, a call to the accelerator is made to perform the library function. a processor (11; 154); and memory coupled to the processor, the memory storing instructions which, when executed by the processor, cause the computing system to: scan program code, including a library function suitable for acceleration via an accelerator, to detect one or more of a library signature or an accelerator tag of the library function, wherein the library function is recognized by detection of the library signature or the accelerator tag; upon detection of the accelerator tag, substitute, in place of the library function, an accelerator call for the library function tagged with the accelerator tag; and upon detection of the library signature, substitute, in place of the library function, the accelerator call for the library function associated with the library signature, wherein, when the program code is executed, a call to the accelerator is made to perform the library function. scan program code, including a library function suitable for acceleration via an accelerator, to detect one or more of a library signature or an accelerator tag of the library function, wherein the library function is recognized by detection of the library signature or the accelerator tag; upon detection of the accelerator tag, substitute, in place of the library function, an accelerator call for the library function tagged with the accelerator tag; and upon detection of the library signature, substitute, in place of the library function, the accelerator call for the library function associated with the library signature, wherein, when the program code is executed, a call to the accelerator is made to perform the library function.
A protective device for a closure system of a leather item, said closure system being provided with a metal plate fastened on a part of the leather item, characterized in that the protection device includes a support and a cover able to be mounted on the support, the support including retaining means arranged so as to partially and reversibly secure the support to the metal plate, the cover including a blocking means arranged so as to cooperate with the support and the metal plate in order to block the support on the metal plate during the mounting of the cover on the support, the device further including locking means of the cover intended to keep the cover mounted on the support, so as to protect the metal plate of the closure system from scratches.
A method of presenting positioning information in a rock drilling rig, which rock drilling rig comprises: a movable carrier; at least one drilling boom movable in relation to the carrier; a drilling unit arranged on the drilling boom and comprising at least one feed beam; a feed device, a rock drilling machine and a tool; and further at least one control unit as well as at least one display device and at least one control member which are connected to it; the method comprising: determining the location and direction of the drilling unit in the control unit; presenting information on holes to be drilled in a display device; positioning the drilling unit in a location and direction in which the selected hole can be drilled; performing the positioning manually by giving control commands to the control unit by means of at least one control member; and presenting the location and direction of the drilling unit to an operator in a display image of the display device relative to a fan plane in which the start point of the selected drill hole is located; characterized by presenting a display image comprising at least a first partial view and a second partial view which are simultaneously active; and presenting in the partial views (31a, 31b) the location of the fan plane and the drilling unit relative to each other by using differing projections. determining the location and direction of the drilling unit in the control unit; presenting information on holes to be drilled in a display device; positioning the drilling unit in a location and direction in which the selected hole can be drilled; performing the positioning manually by giving control commands to the control unit by means of at least one control member; and presenting the location and direction of the drilling unit to an operator in a display image of the display device relative to a fan plane in which the start point of the selected drill hole is located; characterized by presenting a display image comprising at least a first partial view and a second partial view which are simultaneously active; and presenting in the partial views (31a, 31b) the location of the fan plane and the drilling unit relative to each other by using differing projections.
A vehicle air conditioning apparatus comprising: a case having an air channel in an interior thereof, a blower configured to supply blown air to the air channel, wherein the case includes a cylindrical portion and an enlarged portion continued from the cylindrical portion on a downstream side and having a cross-sectional area larger than a cross-sectional area of the cylindrical portion, the enlarged portion includes a projecting wall having a wall surface projecting outward of the air channel, characterized in that: the projecting wall includes at least one projection projecting inward of the air channel, and a top portion of the projection is in contact with a side surface of an virtual cylinder, which is formed by extending an inner wall surface of the cylindrical portion virtually extended toward the downstream, or is provided on the projecting wall side with respect to the side surface of the virtual cylinder, the cylindrical portion having a tapered shape whereof a cross-sectional area is increased gradually toward the downstream side, the shape of the virtual cylinder having a tapered shape which is an extension of the tapered shape of the cylindrical portion. a case having an air channel in an interior thereof, a blower configured to supply blown air to the air channel, wherein the case includes a cylindrical portion and an enlarged portion continued from the cylindrical portion on a downstream side and having a cross-sectional area larger than a cross-sectional area of the cylindrical portion, the enlarged portion includes a projecting wall having a wall surface projecting outward of the air channel, the projecting wall includes at least one projection projecting inward of the air channel, and a top portion of the projection is in contact with a side surface of an virtual cylinder, which is formed by extending an inner wall surface of the cylindrical portion virtually extended toward the downstream, or is provided on the projecting wall side with respect to the side surface of the virtual cylinder, the cylindrical portion having a tapered shape whereof a cross-sectional area is increased gradually toward the downstream side, the shape of the virtual cylinder having a tapered shape which is an extension of the tapered shape of the cylindrical portion.
A device comprising: a microfluidic chip defining a channel including an inlet and an outlet; a capture chamber arranged along the channel between the inlet and the outlet, wherein the capture chamber is configured to capture particles of interest from fluid flowing through the channel, wherein the capture chamber includes surfaces functionalized or coated with binding agents or binding moieties selected to specifically bind to the particles; characterized in that it further comprises a first electrical differential counter arranged to count all types of particles in a fluid flowing into the capture chamber; a second electrical differential counter arranged to count all types of particles remaining in the fluid flowing out of the capture chamber; and a computing mechanism (130, 132) in electronic communication with the first and second electrical differential counters, wherein the computing mechanism calculates a number of particles of interest based on signals from the first and second electrical differential counters. a microfluidic chip defining a channel including an inlet and an outlet; a capture chamber arranged along the channel between the inlet and the outlet, wherein the capture chamber is configured to capture particles of interest from fluid flowing through the channel, wherein the capture chamber includes surfaces functionalized or coated with binding agents or binding moieties selected to specifically bind to the particles; characterized in that it further comprises a first electrical differential counter arranged to count all types of particles in a fluid flowing into the capture chamber; a second electrical differential counter arranged to count all types of particles remaining in the fluid flowing out of the capture chamber; and a computing mechanism (130, 132) in electronic communication with the first and second electrical differential counters, wherein the computing mechanism calculates a number of particles of interest based on signals from the first and second electrical differential counters.
A separator comprising a porous substrate, the porous substrate has two opposite surfaces, a composite layer is provided on only one or both of the two opposite surfaces of the porous substrate, and the composite layer comprising a porous inorganic layer and an organic particle coating layer sequentially disposed on the surface of the porous substrate, wherein when the composite layer is provided on only one of the two opposite surfaces of the porous substrate, the porous inorganic layer or the organic particle coating layer is selectively further provided on the other one of the two opposite surfaces of the porous substrate, wherein the porous inorganic layer comprises an inorganic dielectric material and does not contain a binder, and the organic particle coating layer is an island-like or sheet-like coating discontinuously distributed on a surface of the porous inorganic layer, and wherein mass per unit area of the composite layer is 0.2 g/m 2 to 8.4 g/m 2, the mass per unit area of the composite layer is measured by a method comprising: weighting precisely the mass of each square piece of 50 mm × 50 mm of a porous substrate without composite coating, calculating an average value of mass as the quality of square pieces, denoted as m0; weighting precisely the mass of each square piece of a porous substrate having composite coating and calculating an average value of mass, denoted as m2, the mass per unit area of the composite layer is (m2-m0)/25cm 2. the porous substrate has two opposite surfaces, a composite layer is provided on only one or both of the two opposite surfaces of the porous substrate, and the composite layer comprising a porous inorganic layer and an organic particle coating layer sequentially disposed on the surface of the porous substrate, wherein when the composite layer is provided on only one of the two opposite surfaces of the porous substrate, the porous inorganic layer or the organic particle coating layer is selectively further provided on the other one of the two opposite surfaces of the porous substrate, wherein the porous inorganic layer comprises an inorganic dielectric material and does not contain a binder, and the organic particle coating layer is an island-like or sheet-like coating discontinuously distributed on a surface of the porous inorganic layer, and wherein mass per unit area of the composite layer is 0.2 g/m 2 to 8.4 g/m 2, the mass per unit area of the composite layer is measured by a method comprising: weighting precisely the mass of each square piece of 50 mm × 50 mm of a porous substrate without composite coating, calculating an average value of mass as the quality of square pieces, denoted as m0; weighting precisely the mass of each square piece of a porous substrate having composite coating and calculating an average value of mass, denoted as m2, the mass per unit area of the composite layer is (m2-m0)/25cm 2.