mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument comprising: a hollow tubular member having a closed distal working end, a proximal end and an outer surface, with an opening in a side wall at or adjacent the distal working end; a first electrical insulation layer disposed on at least part of the outer surface of the hollow tubular member; a first electrode disposed on an outer surface of the first electrical insulation layer; and a second electrode disposed on the outer surface of the first electrical insulation layer, wherein (i) the first and second electrodes (70, 80) are electrically isolated from each other, (ii) the first electrode includes a first active segment and a first inactive segment, (iii) the second electrode includes a second active segment and a second inactive segment, and (iv) the first and second active segments are disposed respectively on opposing sides of the hollow tubular member within about 3.0 mm of the opening in the side wall of the hollow tubular member, and wherein edges of the first and second electrodes (70, 80) located adjacent to the opening are recessed from an edge of the opening so that a portion of the first electrical insulation layer is exposed between the edge of the opening and the edges of the first and second electrodes (70, 80).. a hollow tubular member having a closed distal working end, a proximal end and an outer surface, with an opening in a side wall at or adjacent the distal working end; a first electrical insulation layer disposed on at least part of the outer surface of the hollow tubular member; a first electrode disposed on an outer surface of the first electrical insulation layer; and a second electrode disposed on the outer surface of the first electrical insulation layer, wherein (i) the first and second electrodes (70, 80) are electrically isolated from each other, (ii) the first electrode includes a first active segment and a first inactive segment, (iii) the second electrode includes a second active segment and a second inactive segment, and (iv) the first and second active segments are disposed respectively on opposing sides of the hollow tubular member within about 3.0 mm of the opening in the side wall of the hollow tubular member, and wherein edges of the first and second electrodes (70, 80) located adjacent to the opening are recessed from an edge of the opening so that a portion of the first electrical insulation layer is exposed between the edge of the opening and the edges of the first and second electrodes (70, 80)..
A mold for manufacturing a turbomachine fan casing made of composite material, comprising: - a main axis (θ) mandrel around which a fibrous preform of a fan casing is intended to be wound; - a plurality of counter-mold angular sectors (3, 3a, 3b) assembled on the outer contour of the mandrel which are intended to close the mold and to compact the fibrous preform wound on the mandrel; characterized in that a flat seal with a main elongation axis (β) directed along the main axis (θ) is arranged between each angular sector (3, 3a, 3b), said flat seal being compressed between two adjacent angular sectors (3, 3a, 3b), a first angular sector comprising a sealing portion passing below a lower face of the flat seal while a second angular sector comprising a sealing portion passing above an upper face of the flat seal. - a main axis (θ) mandrel around which a fibrous preform of a fan casing is intended to be wound; - a plurality of counter-mold angular sectors (3, 3a, 3b) assembled on the outer contour of the mandrel which are intended to close the mold and to compact the fibrous preform wound on the mandrel;
Method for runtime optimisation during packet-oriented mobile radio transmission of data telegrams between rail vehicles and fixed-location lineside devices, between rail vehicles and/or between fixed-location lineside devices for an ETCS - European Train Control System - from Level 2, wherein the data telegrams are time-offset multiple times on the transmit side and are sent as copies over a plurality of transmission channels, the fault behaviour of which has little to no correlation in relation to time and channel, wherein the data telegrams are copied and points in time (t 1, t 2...) are defined, at which the copies are forwarded to the provided transmission channels, and the copies forwarded at a particular point in time (t 1, t 2...) are forwarded to different transmission channels of a plurality of providers for transmission, wherein the different transmission channels are embodied by different providers, mobile radio devices and/or transmission channels with different logical transmission properties, and that the copies are discarded on the receive side and the data telegrams are reorganised in the original order (7, 8), wherein the temporal and/or spatial spread takes place on a provider-dependent basis due to the copies of the data telegrams or fragments thereof being transmitted with multiple time offsets, taking place over a plurality of transmission channels.
Apparatus for forming stacks of bags, preferably of paper bags, which can be fed in individually, comprising: - at least one first transporting device with which individual bags can be transferred, - a collecting point to which the bags can be fed by the transporting device and in which a stack of bags can be produced, - a detaching device with which the bags can be detached from the transporting device and can be dropped onto the collecting point, wherein at least one separating device is provided which can be introduced in or above the stack into the collecting point and divides the stack into a first stack and a second stack, characterized in that a slide having a plurality of bars and contact elements arranged at right angles thereto is provided, with which slide, after the separating device has been introduced, the first stack can be transported out of the collecting point, wherein, during the displacement operation, the new stack can be formed on that surface of the slide which faces the stack. - at least one first transporting device with which individual bags can be transferred, - a collecting point to which the bags can be fed by the transporting device and in which a stack of bags can be produced, - a detaching device with which the bags can be detached from the transporting device and can be dropped onto the collecting point,
Method for making current sensors, the method comprising the following steps executed in the order given below: A) providing a leadframe having chip supporting surfaces and mounting a semiconductor chip having an integrated Hall sensor on each of the chip supporting surfaces of the leadframe, B) connecting electrical connection areas of the semiconductor chips with associated connecting fingers of the leadframe by bonding wires, C) placing the leadframe in an injection mold, D) closing the injection mold with a first mold insert having a molding surface provided with structures, E) injecting plastic material into the injection mold to package each semiconductor chip and associated parts of the leadframe in an associated intermediate housing, wherein the structures of the mold surface of the first mold insert form on each intermediate housing a flat surface having alignment structures, F) opening the injection mold, G) placing a current conductor section on the flat surfaces of the intermediate housings, wherein each current conductor section is formed with counter structures matching the alignment structures, so that the current conductor section is automatically aligned and held, H) closing the injection mold with a second mold insert, I) injecting plastic material into the injection mold to connect the current conductor sections with the associated intermediate housing and form the final housings of the current sensors, J) opening the injection mold and removing the leadframe from the injection mold, and K) singulating the current sensors. A) providing a leadframe having chip supporting surfaces and mounting a semiconductor chip having an integrated Hall sensor on each of the chip supporting surfaces of the leadframe, B) connecting electrical connection areas of the semiconductor chips with associated connecting fingers of the leadframe by bonding wires, C) placing the leadframe in an injection mold, D) closing the injection mold with a first mold insert having a molding surface provided with structures, E) injecting plastic material into the injection mold to package each semiconductor chip and associated parts of the leadframe in an associated intermediate housing, wherein the structures of the mold surface of the first mold insert form on each intermediate housing a flat surface having alignment structures, F) opening the injection mold, G) placing a current conductor section on the flat surfaces of the intermediate housings, wherein each current conductor section is formed with counter structures matching the alignment structures, so that the current conductor section is automatically aligned and held, H) closing the injection mold with a second mold insert, I) injecting plastic material into the injection mold to connect the current conductor sections with the associated intermediate housing and form the final housings of the current sensors, J) opening the injection mold and removing the leadframe from the injection mold, and K) singulating the current sensors.
A device, comprising: one or more processors to: detect a denial-of-service attack; receive a request, for access to a resource, from a client device; determine, based on the request and further based on detecting the denial-of-service attack, a computationally expensive problem to be provided to the client device wherein the one or more processors are further to determine a profile associated with the client device, the profile indicating a probability that the request is associated with the denial-of-service attack; and determine the computationally expensive problem based on the profile; provide the computationally expensive problem to the client device, the computationally expensive problem being provided to cause the client device to solve the computationally expensive problem; receive, from the client device, a solution to the computationally expensive problem; and grant or deny the client device access to the resource based on the solution. one or more processors to: detect a denial-of-service attack; receive a request, for access to a resource, from a client device; determine, based on the request and further based on detecting the denial-of-service attack, a computationally expensive problem to be provided to the client device wherein the one or more processors are further to determine a profile associated with the client device, the profile indicating a probability that the request is associated with the denial-of-service attack; and determine the computationally expensive problem based on the profile; provide the computationally expensive problem to the client device, detect a denial-of-service attack; receive a request, for access to a resource, from a client device; determine, based on the request and further based on detecting the denial-of-service attack, a computationally expensive problem to be provided to the client device wherein the one or more processors are further to determine a profile associated with the client device, the profile indicating a probability that the request is associated with the denial-of-service attack; and determine the computationally expensive problem based on the profile; provide the computationally expensive problem to the client device, determine a profile associated with the client device, the profile indicating a probability that the request is associated with the denial-of-service attack; and determine the computationally expensive problem based on the profile; provide the computationally expensive problem to the client device, the computationally expensive problem being provided to cause the client device to solve the computationally expensive problem; receive, from the client device, a solution to the computationally expensive problem; and grant or deny the client device access to the resource based on the solution. receive, from the client device, a solution to the computationally expensive problem; and grant or deny the client device access to the resource based on the solution.
Tyre having a radial carcass reinforcement, consisting of at least one layer of metal reinforcing elements, the seat diameter of which is strictly greater than 19.5 inches, said tyre comprising a crown reinforcement, itself capped radially with a tread, said tread being joined to two beads via two sidewalls, characterized in that the metal reinforcing elements of said at least one layer of the carcass reinforcement are layered cords consisting of several steel threads having a weight content of carbon C such that 0.01% ≤ C ≤ 0.4%, in that said at least one carcass reinforcement layer having a breaking force per unit width of between 35 daN/mm and 75 daN/mm and in that the diameter of said cords is greater than 0.7mm.
A layered structure comprising at least two collagen layers, wherein the layered structure includes a gradient of densities; and the layered structure is prepared by a method comprising: introducing collagen into a vessel; fibrillating the collagen to provide a collagen gel comprising collagen fibrils; compressing the collagen gel in the presence of at least one distancing element, so as to provide multiple collagen layers with a gradient of densities; crosslinking the collagen gel; and drying the crosslinked collagen. introducing collagen into a vessel; fibrillating the collagen to provide a collagen gel comprising collagen fibrils; compressing the collagen gel in the presence of at least one distancing element, so as to provide multiple collagen layers with a gradient of densities; crosslinking the collagen gel; and drying the crosslinked collagen.
Rotary joint component comprising a rotatable part and a stationary part stationary against the rotatable part, the rotatable part comprising a rotatable base holding at least one rotatable receiver coupler, the stationary part comprising a stationary base holding at least one stationary transmitter coupler, wherein the at least one stationary transmitter coupler is capacitively coupled to the at least one rotatable receiver coupler, characterized in, that the stationary transmitter coupler is mounted to a stationary carrier which comprises circular shaped sheet metal which is further held by the stationary base, wherein the stationary carrier is held within a slot or groove of the stationary base, and the stationary carrier comprises circular shaped sheet metal which has ends connected to each other.
A panel comprising: - a metal facing (12, A); - an insulating foam layer; and at least one fire barrier layer (B, C) between the metal facing (12, A) and the foam layer, the fire barrier layer(s) (B, C) comprising a dispersion of expandable graphite in a polyurethane/polyisocyanurate polymer matrix having isocyanate index 1.8 or more, wherein the fire barrier layer (B, C) is 2 to 20 mm in thickness. - a metal facing (12, A); - an insulating foam layer; and
A display device comprising: a light-emitting element layer; and a light control layer on the light-emitting element layer, wherein the light control layer comprises: a plurality of separated partition wall parts comprising a partition wall part; a color control part (CL, CL-1, CL-3) between the partition wall parts, the color control part comprising quantum dots (QD, QD-R, QD-G) and a first scattering particle (SC-C); and a coating layer (AT, AT-a) covering a side of the partition wall part adjacent to the color control part (CL, CL-1, CL-3), wherein the coating layer (AT, AT-a) comprises at least one selected from a substituted dispersant and a substituted scattering particle (SC-A), the substituted dispersant comprising at least one substituent selected from an amine group and a carboxyl group, the substituted scattering particle (SC-A) comprising at least one substituent selected from an amine group and a carboxyl group, and wherein the amine groups and the carboxyl groups comprised in the coating layer (AT, AT-a) are different in number from each other. a light-emitting element layer; and a light control layer on the light-emitting element layer, wherein the light control layer comprises: a plurality of separated partition wall parts comprising a partition wall part; a color control part (CL, CL-1, CL-3) between the partition wall parts, the color control part comprising quantum dots (QD, QD-R, QD-G) and a first scattering particle (SC-C); and a coating layer (AT, AT-a) covering a side of the partition wall part adjacent to the color control part (CL, CL-1, CL-3), wherein the coating layer (AT, AT-a) comprises at least one selected from a substituted dispersant and a substituted scattering particle (SC-A), the substituted dispersant comprising at least one substituent selected from an amine group and a carboxyl group, the substituted scattering particle (SC-A) comprising at least one substituent selected from an amine group and a carboxyl group, and wherein the amine groups and the carboxyl groups comprised in the coating layer (AT, AT-a) are different in number from each other. a plurality of separated partition wall parts comprising a partition wall part; a color control part (CL, CL-1, CL-3) between the partition wall parts, the color control part comprising quantum dots (QD, QD-R, QD-G) and a first scattering particle (SC-C); and a coating layer (AT, AT-a) covering a side of the partition wall part adjacent to the color control part (CL, CL-1, CL-3), wherein the coating layer (AT, AT-a) comprises at least one selected from a substituted dispersant and a substituted scattering particle (SC-A), the substituted dispersant comprising at least one substituent selected from an amine group and a carboxyl group, the substituted scattering particle (SC-A) comprising at least one substituent selected from an amine group and a carboxyl group, and wherein the amine groups and the carboxyl groups comprised in the coating layer (AT, AT-a) are different in number from each other.
A vehicle having a multiple driven rear axles, comprising: a. a forward axle assembly comprising: i. a forward axle assembly input shaft; ii. an interaxle differential; iii. an interaxle differential input shaft; iv. a first interaxle differential output shaft; v. a second interaxle differential output shaft; and vi. a forward neutralizer between the forward axle assembly input shaft and the interaxle differential, wherein the interaxle differential distributes power from the interaxle differential input shaft between the first and the second interaxle differential output shafts; b. an intermediate drive shaft connected to the second interaxle differential output shaft; c. a rear axle assembly comprising: i. a rear differential; ii. a rear differential input shaft; and wherein the forward neutralizer is movable between a first neutralizer position in which rotation of the forward axle assembly input shaft does not transmit motion to the interaxle differential input shaft, and a second neutralizer position in which rotation of the forward axle assembly input shaft does transmit motion to the interaxle differential input shaft, wherein a clutch is arranged between the interaxle differential input shaft and the interaxle differential, characterized in that the clutch is movable between a first clutch position in which the interaxle differential input shaft is not locked to the first and second interaxle differential output shafts (315, 320) and a second clutch position in which the clutch rotationally locks the interaxle differential input shaft to the first and second interaxle differential output shafts (315, 320). a. a forward axle assembly comprising: i. a forward axle assembly input shaft; ii. an interaxle differential; iii. an interaxle differential input shaft; iv. a first interaxle differential output shaft; v. a second interaxle differential output shaft; and vi. a forward neutralizer between the forward axle assembly input shaft and the interaxle differential, wherein the interaxle differential distributes power from the interaxle differential input shaft between the first and the second interaxle differential output shafts; i. a forward axle assembly input shaft; ii. an interaxle differential; iii. an interaxle differential input shaft; iv. a first interaxle differential output shaft; v. a second interaxle differential output shaft; and vi. a forward neutralizer between the forward axle assembly input shaft and the interaxle differential, b. an intermediate drive shaft connected to the second interaxle differential output shaft; c. a rear axle assembly comprising: i. a rear differential; ii. a rear differential input shaft; and i. a rear differential; ii. a rear differential input shaft; and
A hollow blow-molded article, comprising: a first wall, a second wall, said first and second walls (12, 14) positioned in opposing relationship and defining a space therebetween, a geometric array of protruding structural pillars (18, 18a, 18b) extending from said second wall and spanning said space, each of said structural pillars (18, 18a, 18b) having an end surface integrally bonded with an inside surface of said first wall, characterized in that said geometric array has a variable spacing density of said structural pillars (18, 18a, 18b) to provide the hollow blow-molded article with regions of high structural pillar density arrangement, and regions of low structural pillar density arrangement to achieve the desired structural rigidity of the article. a first wall, a second wall, said first and second walls (12, 14) positioned in opposing relationship and defining a space therebetween, a geometric array of protruding structural pillars (18, 18a, 18b) extending from said second wall and spanning said space, each of said structural pillars (18, 18a, 18b) having an end surface integrally bonded with an inside surface of said first wall, characterized in that said geometric array has a variable spacing density of said structural pillars (18, 18a, 18b) to provide the hollow blow-molded article with regions of high structural pillar density arrangement, and regions of low structural pillar density arrangement to achieve the desired structural rigidity of the article.