mhurhangee/ep-ind-claims huggingface dataset:
Insulator (30, 60, 90) for a pivotable electrical connection (110, 120, 130) between a busbar (12, 52, 82) and at least one lug of an electrical cable, said electrical connection enabling rotation relative to one another substantially in a plane and about an axis substantially perpendicular to this plane, the insulator (30, 60, 90) adapted for being secured rotatably to the busbar (12, 52, 82) so as to enable rotation in said plane and about said axis, the insulator (30, 60, 90) comprising a bottom (31, 61, 91) and a wall (32, 62, 92) extending from said bottom, the insulator (30, 60, 90) comprising an opening (33, 63, 93) near said bottom (31, 61, 91), adapted for receiving a portion of the busbar (12, 52, 82), the insulator (30, 60, 90) adapted for enabling the engagement of a first side of said portion of the busbar (12, 52, 82) substantially facing the direction of said axis, characterised in that the insulator (30, 60, 90) comprises engagement portions (38, 68, 98) adapted for engagement with the busbar (12, 52, 82) in order to prevent the insulator (30, 60, 90) from being separated from the busbar (12, 52, 82), the insulator (30, 60, 90) further comprising a pivoting structure (39, 69, 99) adapted for being aligned with a pivoting structure (10, 50, 80) of the busbar (12, 52, 82) when the insulator (30, 60, 90) and the busbar (12, 52, 82) are engaged together, in order to allow the insulator (30, 60, 90) and to the busbar (12, 52, 82) to be connected on said axis.
A network resource matching method, comprising: generating a network model with network roles and applying one or multiple service units to the network roles in the network model to generate a service template applied to the network model; receiving a service request, searching for a service template providing a service according to type of the service in the service request and searching for a resource zone matching the service template from a resource pool; searching for a network resource from the resource zone matching the service template according to a network model role zone of a service unit in the service template; and wherein the network resource and the service unit belong to the same network model role zone and the network resource matches the service unit. generating a network model with network roles and applying one or multiple service units to the network roles in the network model to generate a service template applied to the network model; receiving a service request, searching for a service template providing a service according to type of the service in the service request and searching for a resource zone matching the service template from a resource pool; searching for a network resource from the resource zone matching the service template according to a network model role zone of a service unit in the service template; and wherein the network resource and the service unit belong to the same network model role zone and the network resource matches the service unit.
A method of accumulating an image of a specimen using a scanning-type microscope, comprising the following steps: - Providing a beam of radiation that is directed from a source through an illuminator so as to irradiate the specimen; - Providing a detector for detecting a flux of radiation emanating from the specimen in response to said irradiation; - Causing said beam to undergo scanning motion relative to a surface of the specimen, and recording an output of the detector as a function of scan position, characterized in that the method additionally comprises the following steps: - In a first sampling session S 1, gathering detector data from a first collection P 1 of sampling points distributed sparsely across the specimen; - Repeating this procedure so as to accumulate a set {P n} of such collections, gathered during an associated set {S n} of sampling sessions, each set with a cardinality N > 1; - Assembling an image of the specimen by using the set {P n} as input to an integrative mathematical reconstruction procedure, wherein, as part of said assembly process, a mathematical registration correction is made to compensate for drift mismatches between different members of the set {P n}, which registration correction comprises the following steps: - Considering a set P 2 as resulting from application of a transformation T to a set P 1, and adopting an initial estimate for T; - Formulating a cost function J ( T ( P 1), P 2) = ∫δ( T ( P 1) ( x, y), P 2 ( x *, y *)) dx dy, in which: ▪ δ is a local set similarity measure; ▪ coordinate x * y * = argmin u, v ‖ u v − x y ‖, with (u, v) ∈ P 2; - Solving a local minimization problem min T J ( T ( P 1), P 2). - Providing a beam of radiation that is directed from a source through an illuminator so as to irradiate the specimen; - Providing a detector for detecting a flux of radiation emanating from the specimen in response to said irradiation; - Causing said beam to undergo scanning motion relative to a surface of the specimen, and recording an output of the detector as a function of scan position, - In a first sampling session S 1, gathering detector data from a first collection P 1 of sampling points distributed sparsely across the specimen; - Repeating this procedure so as to accumulate a set {P n} of such collections, gathered during an associated set {S n} of sampling sessions, each set with a cardinality N > 1; - Assembling an image of the specimen by using the set {P n} as input to an integrative mathematical reconstruction procedure, - Considering a set P 2 as resulting from application of a transformation T to a set P 1, and adopting an initial estimate for T; - Formulating a cost function J ( T ( P 1), P 2) = ∫δ( T ( P 1) ( x, y), P 2 ( x *, y *)) dx dy, in which: ▪ δ is a local set similarity measure; ▪ coordinate x * y * = argmin u, v ‖ u v − x y ‖, with (u, v) ∈ P 2; ▪ δ is a local set similarity measure; ▪ coordinate x * y * = argmin u, v ‖ u v − x y ‖, with (u, v) ∈ P 2; - Solving a local minimization problem min T J ( T ( P 1), P 2).
A method for forming a drug coating layer in which a plurality of elongated bodies which are crystals of a water-insoluble drug and each have a long axis are formed on a surface of a balloon, the method comprising: a step of supplying a coating solution which contains the water-insoluble drug, a water-soluble additive, an organic solvent, and water to the surface of the balloon and evaporating the organic solvent and the water to form an additive layer containing the water-soluble additive and a protruding crystal which is an elongated drug crystal having a tip end protruding from the additive layer; a step of cutting out a surplus portion protruding from the additive layer of the protruding crystal from a part surrounded by the additive layer and forming the part surrounded by the additive layer as the elongated body; and a step of removing the cut-out surplus portion from the drug coating layer. a step of supplying a coating solution which contains the water-insoluble drug, a water-soluble additive, an organic solvent, and water to the surface of the balloon and evaporating the organic solvent and the water to form an additive layer containing the water-soluble additive and a protruding crystal which is an elongated drug crystal having a tip end protruding from the additive layer; a step of cutting out a surplus portion protruding from the additive layer of the protruding crystal from a part surrounded by the additive layer and forming the part surrounded by the additive layer as the elongated body; and a step of removing the cut-out surplus portion from the drug coating layer.
A method comprising: receiving, at a mobile wireless event handling device at a predetermined interval, a first signal via a wireless communication link in a first network from a monitoring device configured to convey information relating to physiological parameters, the first signal including information corresponding to the physiological parameters and an identification of the monitoring device; processing the first signal at the mobile wireless event handling device, the processing comprising determining whether the first signal is received from a valid source; receiving, at the mobile wireless event handling device, a broadcast general emergency signal from the monitoring device; and in response to said receiving the broadcast general emergency signal, determining to transmit, at the mobile wireless event handling device, to a target, a second signal via a second network, the second signal including at least information corresponding to the identification of the monitoring device; wherein determining whether the first signal is received from a valid source comprises determining, from a database of paired devices within the mobile wireless event handling device, whether communication of the mobile wireless event handling device with the monitoring device is valid. receiving, at a mobile wireless event handling device at a predetermined interval, a first signal via a wireless communication link in a first network from a monitoring device configured to convey information relating to physiological parameters, the first signal including information corresponding to the physiological parameters and an identification of the monitoring device; processing the first signal at the mobile wireless event handling device, the processing comprising determining whether the first signal is received from a valid source; receiving, at the mobile wireless event handling device, a broadcast general emergency signal from the monitoring device; and in response to said receiving the broadcast general emergency signal, determining to transmit, at the mobile wireless event handling device, to a target, a second signal via a second network, the second signal including at least information corresponding to the identification of the monitoring device; wherein determining whether the first signal is received from a valid source comprises determining, from a database of paired devices within the mobile wireless event handling device, whether communication of the mobile wireless event handling device with the monitoring device is valid.
A radiation imaging apparatus which includes a plurality of detection apparatuses (501a, 501b) configured to output image data based on radiation, wherein the plurality of detection apparatuses (501a, 501b) output a plurality of image data based on the radiation, and the radiation imaging apparatus generates a combined image by combining the plurality of image data output from the plurality of detection apparatuses, the radiation imaging apparatus comprising: measurement means (205a, 205b) for respectively measuring radiation detection levels in the plurality of detection apparatuses (501a, 501b); and irradiation determination means for determining presence/absence of radiation irradiation based on the detection levels measured by the plurality of detection apparatuses (501a, 501b). measurement means (205a, 205b) for respectively measuring radiation detection levels in the plurality of detection apparatuses (501a, 501b); and irradiation determination means for determining presence/absence of radiation irradiation based on the detection levels measured by the plurality of detection apparatuses (501a, 501b).
A method for wireless communications by a user equipment, comprising: receiving, from a base station, an uplink grant comprising one or more downlink assignment index, DAI, bits; determining a number of bits to use to transmit an acknowledgement, ACK, based on the DAI bits; and transmitting, to the base station, the ACK using the determined number of bits; characterized in that the user equipment and base station are configured with a semi-static HARQ-ACK codebook size, and wherein a number of DAI bits is one and the one DAI bit indicates whether or not to transmit the ACK. receiving, from a base station, an uplink grant comprising one or more downlink assignment index, DAI, bits; determining a number of bits to use to transmit an acknowledgement, ACK, based on the DAI bits; and transmitting, to the base station, the ACK using the determined number of bits; characterized in that the user equipment and base station are configured with a semi-static HARQ-ACK codebook size, and wherein a number of DAI bits is one and the one DAI bit indicates whether or not to transmit the ACK.
A bioactive bone graft substitute comprising a silicate based material which is a silicate network having a porous structure wherein one or more calcium cations are incorporated into the silicate network and wherein the density of the bone graft substitute is less than 1.1 g/cm 3 and the average pore diameter of the bone graft substitute is from about 1 to about 99 nm.
An anoscope kit comprising: an anoscope (40; 140) having a proximal portion, a distal portion, and a plurality of spaced apart fingers (50; 150) having free ends; and a dilator (20; 120) removably positionable within the anoscope (40; 140) to aid insertion of the anoscope (40; 140), the dilator (20; 120) having a proximal region, an intermediate region and a distal region, the intermediate region having an outer surface to contact the fingers (50; 150) of the anoscope (40; 140); characterised in that: the distal region of the dilator (20; 120) including an enlarged distal head (30; 122), the intermediate region having a diameter smaller than the largest diameter of the enlarged distal head (30; 122), and the dilator (20; 120) having a transition surface (28; 128) joining the intermediate region with the enlarged distal head (30; 122), the transition surface (28; 128) being angled toward the intermediate region to form a ramped surface, the distal tips of the fingers (50; 150) having an angled surface corresponding in angle to the ramped surface of transition surface (28; 128). an anoscope (40; 140) having a proximal portion, a distal portion, and a plurality of spaced apart fingers (50; 150) having free ends; and a dilator (20; 120) removably positionable within the anoscope (40; 140) to aid insertion of the anoscope (40; 140), the dilator (20; 120) having a proximal region, an intermediate region and a distal region, the intermediate region having an outer surface to contact the fingers (50; 150) of the anoscope (40; 140); the distal region of the dilator (20; 120) including an enlarged distal head (30; 122), the intermediate region having a diameter smaller than the largest diameter of the enlarged distal head (30; 122), and the dilator (20; 120) having a transition surface (28; 128) joining the intermediate region with the enlarged distal head (30; 122), the transition surface (28; 128) being angled toward the intermediate region to form a ramped surface, the distal tips of the fingers (50; 150) having an angled surface corresponding in angle to the ramped surface of transition surface (28; 128).
A method of designating a first transaction time stamp and a first picture time stamp in a toll system as anomalous, the method comprising: accessing a first toll transaction entry comprising receiving the first toll transaction entry from a lane transaction system, the first toll transaction entry designating a toll transaction between a first vehicle and the toll system and the first toll transaction entry including a first transaction time stamp; accessing a first picture time stamp associated with a toll transaction picture deemed to depict the toll transaction between the first vehicle and the toll system comprising receiving the first picture time stamp from an imaging system that is independent from the lane transaction system; calculating, using at least one computer processor, a time difference between the first transaction time stamp and the first picture time stamp for the toll transaction between the first vehicle and the toll system; comparing the time difference to a predetermined threshold; and conditioned on the time difference exceeding the predetermined threshold, designating the first transaction time stamp and the first picture time stamp as anomalous. accessing a first toll transaction entry comprising receiving the first toll transaction entry from a lane transaction system, the first toll transaction entry designating a toll transaction between a first vehicle and the toll system and the first toll transaction entry including a first transaction time stamp; accessing a first picture time stamp associated with a toll transaction picture deemed to depict the toll transaction between the first vehicle and the toll system comprising receiving the first picture time stamp from an imaging system that is independent from the lane transaction system; calculating, using at least one computer processor, a time difference between the first transaction time stamp and the first picture time stamp for the toll transaction between the first vehicle and the toll system; comparing the time difference to a predetermined threshold; and conditioned on the time difference exceeding the predetermined threshold, designating the first transaction time stamp and the first picture time stamp as anomalous.
A device for producing a bone cement paste from a monomer liquid and a cement powder as parent components of the bone cement paste and for delivering the mixed bone cement paste, the device having a cartridge having a cylindrical interior, wherein the interior of the cartridge is closed on the front side except for a delivery opening for expelling the bone cement paste, wherein a delivery plunger, which is pushable in the direction of the delivery opening, is arranged in the interior of the cartridge and wherein the cement powder is arranged in the interior of the cartridge, between the delivery opening and the delivery plunger, wherein a closure means is arranged on the front side, facing the delivery opening, of the delivery plunger, which closure means closes the delivery opening when the delivery plunger is pressed against the front side of the interior of the cartridge, wherein the closure means is a pin projecting from the front side of the delivery plunger which is slideable into the delivery opening, at least in part, in order to close the delivery opening, wherein the pin blocks a further movement of the delivery plunger in the direction of the front side of the cartridge so that the delivery plunger is spaced from the front side of the interior of the cartridge at least in some areas and a dead volume remains in the interior of the cartridge when the delivery plunger is pressed against the front side of the interior of the cartridge. a cartridge having a cylindrical interior, wherein the interior of the cartridge is closed on the front side except for a delivery opening for expelling the bone cement paste, wherein a delivery plunger, which is pushable in the direction of the delivery opening, is arranged in the interior of the cartridge and wherein the cement powder is arranged in the interior of the cartridge, between the delivery opening and the delivery plunger, wherein a closure means is arranged on the front side, facing the delivery opening, of the delivery plunger, which closure means closes the delivery opening when the delivery plunger is pressed against the front side of the interior of the cartridge, wherein the closure means is a pin projecting from the front side of the delivery plunger which is slideable into the delivery opening, at least in part, in order to close the delivery opening, wherein the pin blocks a further movement of the delivery plunger in the direction of the front side of the cartridge so that the delivery plunger is spaced from the front side of the interior of the cartridge at least in some areas and a dead volume remains in the interior of the cartridge when the delivery plunger is pressed against the front side of the interior of the cartridge.
A compound of the following Formula: wherein R 1 is unsubstituted, branched or unbranched C 1 -C 12 alkyl, alkenyl, or alkynyl; and wherein R 2, R 3, R 4, R 5, R 6, and R 7 are each independently a hydrogen or a hydrocarbyl, heteroalkyl, heteroalkenyl, heteroalkynyl, heterocycloalkyl, heterocycloalkenyl, heteroaryl, and wherein the aforementioned may be substituted or unsubstituted; or an optical isomer, diastereomer or enantiomer for Formula, or a salt thereof.
A coated article, comprising: a substrate; a functional coating deposited over at least a portion of the substrate, wherein the functional coating comprises: a base layer; a first infrared-reflective metal layer over the base layer; a first primer layer over the first infrared-reflective metal layer; a first dielectric layer over the first primer layer; a second infrared-reflective metal layer over the dielectric layer; a second primer layer over the second infrared-reflective metal layer; a second dielectric or an anti-reflective layer over the second primer layer; and a protective layer over the functional coating; one or both of the primer layers (48, 54) being a Ti-Al layer comprising titanium and aluminum, wherein the aluminum is present in the range of 40 to 60 atomic percent aluminum. a substrate; a functional coating deposited over at least a portion of the substrate, wherein the functional coating comprises: a base layer; a first infrared-reflective metal layer over the base layer; a first primer layer over the first infrared-reflective metal layer; a first dielectric layer over the first primer layer; a second infrared-reflective metal layer over the dielectric layer; a second primer layer over the second infrared-reflective metal layer; a second dielectric or an anti-reflective layer over the second primer layer; and a protective layer over the functional coating; one or both of the primer layers (48, 54) being a Ti-Al layer comprising titanium and aluminum, wherein the aluminum is present in the range of 40 to 60 atomic percent aluminum. a base layer; a first infrared-reflective metal layer over the base layer; a first primer layer over the first infrared-reflective metal layer; a first dielectric layer over the first primer layer; a second infrared-reflective metal layer over the dielectric layer; a second primer layer over the second infrared-reflective metal layer; a second dielectric or an anti-reflective layer over the second primer layer; and a protective layer over the functional coating; one or both of the primer layers (48, 54) being a Ti-Al layer comprising titanium and aluminum, wherein the aluminum is present in the range of 40 to 60 atomic percent aluminum.