mhurhangee/ep-ind-claims huggingface dataset:
Security element for producing valuable documents such as bank notes, cheques or the like, said security element having an upper side providing a micro-image, wherein - the security element has a multi-layer body with the upper side and a rear side, said body having: -- a transparent, embossed layer, into the surface of which a micro-cavity structure has been impressed, -- a metallization which is applied at least to parts of the surface of the embossed layer, - the micro-cavity structure has a multiplicity of micro-cavities lying next to one another in a regular pattern, wherein the pattern of the micro-cavities has the form of a non-orthogonal two-dimensional lattice type in a top view of the upper side and the micro-cavities each have an aperture dimension of 0.5 μm to 3 μm, as seen in the spatial direction lying parallel to the upper side, characterized in that - a transparent capping layer which levels the micro-cavity structure is applied on the surface and over the metallization, - a coating that produces a colour effect, in the form of a first liquid crystal layer (19.1) that has been applied over the capping layer, is provided over the micro-cavity structure and - the micro-cavity structure is embodied in such a way that it is light absorbing, at least in sections, from the front side. - the security element has a multi-layer body with the upper side and a rear side, said body having: -- a transparent, embossed layer, into the surface of which a micro-cavity structure has been impressed, -- a metallization which is applied at least to parts of the surface of the embossed layer, -- a transparent, embossed layer, into the surface of which a micro-cavity structure has been impressed, -- a metallization which is applied at least to parts of the surface of the embossed layer, - the micro-cavity structure has a multiplicity of micro-cavities lying next to one another in a regular pattern, wherein the pattern of the micro-cavities has the form of a non-orthogonal two-dimensional lattice type in a top view of the upper side and the micro-cavities each have an aperture dimension of 0.5 μm to 3 μm, as seen in the spatial direction lying parallel to the upper side, - a transparent capping layer which levels the micro-cavity structure is applied on the surface and over the metallization, - a coating that produces a colour effect, in the form of a first liquid crystal layer (19.1) that has been applied over the capping layer, is provided over the micro-cavity structure and - the micro-cavity structure is embodied in such a way that it is light absorbing, at least in sections, from the front side.
Rotary encoder for detecting an angle of rotation of an encoder shaft, with - a waveguide made of magnetostrictive material, - a transducer at a first end of the waveguide for coupling a current pulse into the waveguide and for detecting a mechanical pulse guided by the waveguide toward the transducer, - a damping element at a second end of the waveguide for damping a mechanical pulse propagating in the direction of the second end, and - at least two position magnets (4a, 4b) spaced at a predetermined angle from each other and attachable to the encoder shaft so that they can rotate with the encoder shaft, wherein the waveguide is bent into a circular shape and can be arranged around the encoder shaft in such a way that a circle with an overlapping area is formed between the first and the second end of the waveguide, characterized in that the at least two position magnets (4a, 4b) move at a fixed distance and on a path to the circularly curved waveguide, the path being located in a plane. - a waveguide made of magnetostrictive material, - a transducer at a first end of the waveguide for coupling a current pulse into the waveguide and for detecting a mechanical pulse guided by the waveguide toward the transducer, - a damping element at a second end of the waveguide for damping a mechanical pulse propagating in the direction of the second end, and - at least two position magnets (4a, 4b) spaced at a predetermined angle from each other and attachable to the encoder shaft so that they can rotate with the encoder shaft,
Laminating pouch for lamination of sheet material having two laminating foils lying on top of each other, being interconnected on at least one of their side edges, (i) the laminating pouch having a heat-activatable hot-melt adhesive layer on the inside comprising a hot-melt adhesive composition, and (ii) the laminating foils containing a composition comprising biodegradable polymers as at least one component, characterised in that the laminating foils have a heat deflection temperature of at least 100 °C and the biodegradable polymers contain at least one bio-based polymer, the bio-based polymer having a degree of crystallisation (ΔH), measured as heat of fusion of greater than or equal to 30 J/g to less than or equal to 90 J/g. (i) the laminating pouch having a heat-activatable hot-melt adhesive layer on the inside comprising a hot-melt adhesive composition, and (ii) the laminating foils containing a composition comprising biodegradable polymers as at least one component,
Charging plug connector kit comprising a socket, which has a socket housing, and a plug, which has a plug housing, wherein the socket has main contacts which are arranged in pairs for the purpose of transmitting electric current, and the plug has corresponding mating contacts, wherein an imaginary central plane runs in the longitudinal direction between the main contacts, and the plug and the socket at least each have a fluid channel, wherein the fluid channel is at a greater distance from the central plane than an adjacent main contact, characterized in that a coding pin is arranged in the plug and the socket in each case, the spacing of said coding pin from at least one of the fluid channels being greater than the spacing from one of the main contacts or one of the mating contacts.
An air intake having at least one inlet port area (22, 23) and one outlet port area (21, 24), in which there is arranged at least one structure (13, 14) which may be flowed through and around, comprising an opening and modifying the clear cross-section only slightly wherein the structure (13, 14) comprises a substantially annular wall defining the opening, at least two inlet port areas (22, 23) being provided, in particular with an intermediate inlet port area control means, said air intake taking the form of a fresh air/recirculated air housing for a motor vehicle air-conditioning system characterized in that the structure (13, 14), especially the wall, exhibits a span in the flow direction of between 0.35 times and 0.50 times the corresponding span of the inlet port area (22, 23).
A wireless communication method performed by a network device, comprising: sending uplink transmission resource indication information to user equipment, wherein the uplink transmission resource indication information indicates an uplink transmission resource comprises a part of a remaining resource, excluding a resource occupied by a PDCCH, in each subframe of M consecutive subframes, wherein M is an integer greater than or equal to 2; wherein the uplink transmission resource comprises at least two sub transmission resources which do not overlap in time domain, and a granularity, in a time domain, of each of the at least two sub transmission resources is a preset symbol quantity; and receiving data packets from the user equipment on the at least two sub transmission resources, wherein the data packets are different retransmission redundancy versions, RVs, of a same data packet, or the data packet are same copies of a same data packet. sending uplink transmission resource indication information to user equipment, wherein the uplink transmission resource indication information indicates an uplink transmission resource comprises a part of a remaining resource, excluding a resource occupied by a PDCCH, in each subframe of M consecutive subframes, wherein M is an integer greater than or equal to 2; wherein the uplink transmission resource comprises at least two sub transmission resources which do not overlap in time domain, and a granularity, in a time domain, of each of the at least two sub transmission resources is a preset symbol quantity; and receiving data packets from the user equipment on the at least two sub transmission resources, wherein the data packets are different retransmission redundancy versions, RVs, of a same data packet, or the data packet are same copies of a same data packet.
An integrated combined cycle gasification (IGCC) powerplant system comprising: a gas turbine comprising: a compressor, a combustion chamber, and a turbine section drivingly coupled to the compressor; a source of bleed air from the compressor coupled in flow communication with an inlet of a variable guide vane booster; an external power source; an air separation unit coupled in flow communication with an outlet of the variable guide vane booster, the variable guide vane booster being configured to generate a flow of compressed air at a substantially constant pressure to the air separation unit and being integrated with the external power source, wherein the external power source powers the variable guide vane booster to operate. a gas turbine comprising: a compressor, a combustion chamber, and a turbine section drivingly coupled to the compressor; a source of bleed air from the compressor coupled in flow communication with an inlet of a variable guide vane booster; an external power source; an air separation unit coupled in flow communication with an outlet of the variable guide vane booster, the variable guide vane booster being configured to generate a flow of compressed air at a substantially constant pressure to the air separation unit and being integrated with the external power source, wherein the external power source powers the variable guide vane booster to operate.
A surgical cap having a cover having a head-receiving cavity and the surgical cap also having a resilient member connected to the cover and extending around less than the entire head-receiving cavity characterized by: a plurality of layers of the cover including a pair of inner layers (50, 64) inward from the resilient member and adapted to separate the resilient member from a head received in the head-receiving cavity, and four outer layers (66, 68, 70, 72) outward from the resilient member, the resilient member being secured to the three innermost of the four outer layers (66, 68, 70).
A system comprising: processing circuitry configured to: control delivery of a first train of electrical stimulation pulses at a first frequency to a first target tissue; control delivery of a second train of electrical stimulation pulses at a second frequency to a second target tissue different from the first target tissue, wherein at least some electrical stimulation pulses of the first train of electrical stimulation pulses are interleaved with at least some electrical stimulation pulses of the second train of electrical stimulation pulses, and wherein the first frequency is greater than the second frequency; receive an evoked compound action potential (ECAP) signal elicited by a pulse of the second train of electrical stimulation pulses; adjust, based on the ECAP signal, a first value of a parameter that at least partially defines the first train of electrical stimulation pulses to a second value; and responsive to adjusting the first value of the parameter to the second value, control delivery of subsequent pulses of the first train of electrical stimulation pulses according to the second value of the parameter. control delivery of a first train of electrical stimulation pulses at a first frequency to a first target tissue; control delivery of a second train of electrical stimulation pulses at a second frequency to a second target tissue different from the first target tissue, wherein at least some electrical stimulation pulses of the first train of electrical stimulation pulses are interleaved with at least some electrical stimulation pulses of the second train of electrical stimulation pulses, and wherein the first frequency is greater than the second frequency; receive an evoked compound action potential (ECAP) signal elicited by a pulse of the second train of electrical stimulation pulses; adjust, based on the ECAP signal, a first value of a parameter that at least partially defines the first train of electrical stimulation pulses to a second value; and responsive to adjusting the first value of the parameter to the second value, control delivery of subsequent pulses of the first train of electrical stimulation pulses according to the second value of the parameter.
A modular system with separable sub-modules, which are configured to be re-arranged in various configurations, for financial services and transactions comprising: • at least one component; • an enclosure including exterior walls defining an interior space and including a door for passage of a financial customer; • a spine disposed within the interior space and dividing the interior space into at least a first and second zones, wherein the spine is oriented transverse to a lengthwise extent of the exterior walls, • wherein the spine defines an internal spine space delimited by its walls, wherein the internal spine space houses the at least one component; and • an Automated Transaction Machine disposed in the first zone and operatively connected to the at least one component housed in the internal spine space, the Automated Transaction Machine operable to interact with a financial customer when the financial customer is within the interior space, where the door is configured to be selectively secured by interaction of the financial customer with the Automated Transaction Machine; • wherein the at least one component is a networking component or a computer processing component in communication with the Automated Transaction Machine, • a sub-system in communication with the at least one component in the internal spine space and having a user interface upon an exterior of the modular system. • at least one component; • an enclosure including exterior walls defining an interior space and including a door for passage of a financial customer; • a spine disposed within the interior space and dividing the interior space into at least a first and second zones, wherein the spine is oriented transverse to a lengthwise extent of the exterior walls, • wherein the spine defines an internal spine space delimited by its walls, wherein the internal spine space houses the at least one component; and • an Automated Transaction Machine disposed in the first zone and operatively connected to the at least one component housed in the internal spine space, the Automated Transaction Machine operable to interact with a financial customer when the financial customer is within the interior space, where the door is configured to be selectively secured by interaction of the financial customer with the Automated Transaction Machine; • wherein the at least one component is a networking component or a computer processing component in communication with the Automated Transaction Machine, • a sub-system in communication with the at least one component in the internal spine space and having a user interface upon an exterior of the modular system.
A powered working machine configured to operate a working tool in a direction along a first axis with a power of a motor, characterised in that: the powered working machine comprising: a control board configured to control the motor; a board case configured to accommodate the control board; a housing (20, 14) configured to support the board case; and an elastic body (152, 153, 154, 165, 166) interposed between the board case and the housing (20, 14), wherein the housing (20, 14) comprises: a first housing that accommodates the motor; and a second housing that fixes to the first housing and accommodates the board case, wherein the board case comprises: a plate section extending parallel to a second axis which extends perpendicular to the first axis and disposed between the first housing and the control board; and a side wall formed at an outer circumferential edge of the plate section, wherein the elastic body (152, 153, 154, 165, 166) comprises: a first elastic body interposed between the plate section of the board case and the first housing; and a second elastic body interposed between a tip of the sidewall of the board case and the second housing in the direction along the first axis. a control board configured to control the motor; a board case configured to accommodate the control board; a housing (20, 14) configured to support the board case; and an elastic body (152, 153, 154, 165, 166) interposed between the board case and the housing (20, 14), wherein the housing (20, 14) comprises: a first housing that accommodates the motor; and a second housing that fixes to the first housing and accommodates the board case, wherein the board case comprises: a plate section extending parallel to a second axis which extends perpendicular to the first axis and disposed between the first housing and the control board; and a side wall formed at an outer circumferential edge of the plate section, a first housing that accommodates the motor; and a second housing that fixes to the first housing and accommodates the board case, wherein the board case comprises: a plate section extending parallel to a second axis which extends perpendicular to the first axis and disposed between the first housing and the control board; and a side wall formed at an outer circumferential edge of the plate section, a plate section extending parallel to a second axis which extends perpendicular to the first axis and disposed between the first housing and the control board; and a side wall formed at an outer circumferential edge of the plate section, wherein the elastic body (152, 153, 154, 165, 166) comprises: a first elastic body interposed between the plate section of the board case and the first housing; and a second elastic body interposed between a tip of the sidewall of the board case and the second housing in the direction along the first axis. a first elastic body interposed between the plate section of the board case and the first housing; and a second elastic body interposed between a tip of the sidewall of the board case and the second housing in the direction along the first axis.
Co-mixture for the production of rapidly disintegrating tablets in a direct tableting process, consisting of 90 - 98 parts by weight of a sprayed mannitol and 10 - 2 parts by weight of a crosslinked sodium carboxymethylcellulose, characterised in that the co-mixture has a BET surface area of greater than 1.5 m 2 /g with an average particle diameter (laser) in the range between 60 and 200 μm, can be compressed to give tablets, and, after compression at a compression force of 20 kN, tablets having hardnesses > 250N, a friability ≤ 0.14% and a disintegration time ≤ 70 seconds are obtained.
An apparatus, comprising: at least one processing core configured to compile a message; the at least one processing core being configured to perform a first determination, that a second user equipment is in an idle mode with respect to a cellular communication network and is engaged in a device-to-device session with a first user equipment; the at least one processing core being configured to, responsive to the first determination, include in the message information concerning the second user equipment, and a transmitter configured to cause the message to be transmitted toward a network node, characterized in that the message comprises a radio resource usage report comprising information concerning radio resources that have been used in the device-to-device session in the cellular communication network. at least one processing core configured to compile a message; the at least one processing core being configured to perform a first determination, that a second user equipment is in an idle mode with respect to a cellular communication network and is engaged in a device-to-device session with a first user equipment; the at least one processing core being configured to, responsive to the first determination, include in the message information concerning the second user equipment, and a transmitter configured to cause the message to be transmitted toward a network node,
A subcritical physics testing method for confirming that a core of a nuclear reactor will operate as designed, wherein the core has a radial and axial dimension and a plurality of fuel assemblies comprising a number of fissile fuel elements, with at least some of the fuel assemblies having guide thimbles for the insertion of control rods that are moveable into and out of the core in banks, and at least one instrument thimble in which an incore instrumentation is housed for monitoring the neutron flux in the core at a radial location about the incore instrumentation, and over a plurality of axial zones substantially along an active length of the fissile fuel elements, the method comprising: analytically predicting a power distribution in the core; initially maintaining the core in a shutdown subcritical condition with K eff less than one by the insertion of at least some of the control rods into the core and/or an addition of a chemical neutron absorber into the core; withdrawing the control rods from the core in a pre-established sequence to raise the power level of the core within a subcritical power range wherein the withdrawing step continuously withdraws the control rods from the core; monitoring a power level at the axial and radial core locations monitored by the incore instrumentation using vanadium fixed incore detectors (86, 88, 90, 92, 94) to obtain a monitored power distribution from one or more outputs of the incore instrumentation while the power level is being raised within the subcritical power range; and comparing the analytically predicted power distribution to the monitored power distribution and, if the monitored and predicted power distributions are within a preselected deviation, continue normal reactor startup to bring the reactor up to power without interruption, so long as the monitored power remains within specifications. analytically predicting a power distribution in the core; initially maintaining the core in a shutdown subcritical condition with K eff less than one by the insertion of at least some of the control rods into the core and/or an addition of a chemical neutron absorber into the core; withdrawing the control rods from the core in a pre-established sequence to raise the power level of the core within a subcritical power range wherein the withdrawing step continuously withdraws the control rods from the core; monitoring a power level at the axial and radial core locations monitored by the incore instrumentation using vanadium fixed incore detectors (86, 88, 90, 92, 94) to obtain a monitored power distribution from one or more outputs of the incore instrumentation while the power level is being raised within the subcritical power range; and comparing the analytically predicted power distribution to the monitored power distribution and, if the monitored and predicted power distributions are within a preselected deviation, continue normal reactor startup to bring the reactor up to power without interruption, so long as the monitored power remains within specifications.