mhurhangee/ep-ind-claims huggingface dataset:
A polarizing plate comprising: a first phase retardation layer; a second phase retardation layer disposed on the first phase retardation layer; a polarizer layer disposed on the second phase retardation layer; and a first adhesive member (AD1-a) disposed between the first phase retardation layer and the second phase retardation layer characterized in that the first adhesive member (AD1-a) is a pressure sensitive adhesive layer having a thickness in a range from about 2 micrometers to about 10 micrometers, wherein the pressure sensitive adhesive layer has a glass transition temperature in a range from about -45°C to about 0°C, the thickness of the pressure sensitive adhesive layer is larger than the thickness of each of the first and the second phase retardation layers (RC1, RC2), and each of the first and the second phase retardation layers (RC1, RC2) has a thickness in a range from about 0.5 micrometers to about 2 micrometers. a first phase retardation layer; a second phase retardation layer disposed on the first phase retardation layer; a polarizer layer disposed on the second phase retardation layer; and a first adhesive member (AD1-a) disposed between the first phase retardation layer and the second phase retardation layer characterized in that the first adhesive member (AD1-a) is a pressure sensitive adhesive layer having a thickness in a range from about 2 micrometers to about 10 micrometers, wherein the pressure sensitive adhesive layer has a glass transition temperature in a range from about -45°C to about 0°C, the thickness of the pressure sensitive adhesive layer is larger than the thickness of each of the first and the second phase retardation layers (RC1, RC2), and each of the first and the second phase retardation layers (RC1, RC2) has a thickness in a range from about 0.5 micrometers to about 2 micrometers.
A non-peptidyl polymer-coupled fatty acid derivative compound represented by Formula 1 below, a stereoisomer thereof, or a pharmaceutically acceptable salt thereof: wherein, in Formula 1 above, L 1 to L 3 are each independently a linear or branched C 1-6 alkylene, R 1 and R 2 are aldehyde, m1 to m3 are each independently a natural number of 1 to 2400, and n is a natural number of 1 to 40. wherein, in Formula 1 above, L 1 to L 3 are each independently a linear or branched C 1-6 alkylene, R 1 and R 2 are aldehyde, m1 to m3 are each independently a natural number of 1 to 2400, and n is a natural number of 1 to 40.
A long rail pick-up and delivery system comprising: a rail transport portion comprising at least one rail transport subset, the rail transport subset comprising a plurality of rail transport cars wherein each rail transport car has a rail rack system, the rail rack system (318a-b) defining a plurality of aligned rail pockets along the length of the rail transport portion and wherein the rail transport portion has an elevated rail transport track; a work portion comprising a chute car for rail positioning and a rail work car and wherein the work portion comprises an elevated work track; characterised in that the work portion further comprises a rail transition car for transitioning the long rail between the work car and the rail transport subset and the system further comprises an elevated gantry system having a pair of elevated gantries, each gantry (702a-b) comprising a telescoping boom with a gripper assembly for grasping a length of long rail, each elevated gantry traversing the elevated rail transport track and the elevated work track, so as to selectively load and unload long rail from the rail pockets.
A method of developing a flavoured product comprising a platform containing at least two added flavour components (CI=2) comprising the steps of: (a) titrating each flavour component into the platform by adding increasing quantities of that flavour component to the platform and evaluating a human response thereto following each increment in order to identify a first concentration of that flavour component within the platform at which the presence of that component can be detected; and a second concentration of that flavour component within the platform at which that flavour component can be identified; (b) titrating a primary flavour component relative to an adjusted platform containing a concentration of each secondary component, which is present between its first and second concentrations in order to determine shifted first and second concentrations of the primary component relative to the adjusted platform; and then either (c) using a concentration of that primary flavour component in the adjusted platform which is between the shifted first and second concentrations for the case; or, if further secondary flavour components are required, (d) repeating from step (b) for an adjusted platform containing a mixture containing a further flavour component. (a) titrating each flavour component into the platform by adding increasing quantities of that flavour component to the platform and evaluating a human response thereto following each increment in order to identify a first concentration of that flavour component within the platform at which the presence of that component can be detected; and a second concentration of that flavour component within the platform at which that flavour component can be identified; (b) titrating a primary flavour component relative to an adjusted platform containing a concentration of each secondary component, which is present between its first and second concentrations in order to determine shifted first and second concentrations of the primary component relative to the adjusted platform; and then either (c) using a concentration of that primary flavour component in the adjusted platform which is between the shifted first and second concentrations for the case; or, if further secondary flavour components are required, (d) repeating from step (b) for an adjusted platform containing a mixture containing a further flavour component.
An apparatus for generating light for a shadow caster, said apparatus comprising: a slitted tube, said slitted tube comprising: an interior, said interior being painted white, an exterior, said exterior being opaque, and a slit, said slit running the length of said slitted tube and comprising: a width; two light sources, said light sources depending on opposite ends of said slitted tube; two heat sinks, said heat sinks depending from said light sources; two clamps, each said clamp wrapping around said slitted tube and comprising: a screw; wherein said clamps are capable of adjusting said width of said slit. a slitted tube, said slitted tube comprising: an interior, said interior being painted white, an exterior, said exterior being opaque, and a slit, said slit running the length of said slitted tube and comprising: a width; an interior, said interior being painted white, an exterior, said exterior being opaque, and a slit, said slit running the length of said slitted tube and comprising: a width; two light sources, said light sources depending on opposite ends of said slitted tube; two heat sinks, said heat sinks depending from said light sources; two clamps, each said clamp wrapping around said slitted tube and comprising: a screw; wherein said clamps are capable of adjusting said width of said slit.
An apparatus comprising: a distributor unit configured to connect to a plurality of Charging Data Functions, CDFs, for offline charging; the distributor unit comprising a processor configured to receive an interim accounting request from a Charging Trigger Function, CTF, for a session, wherein the interim accounting request includes a tracking parameter populated with at least one CDF identifier, CDF ID, indicating at least one destination CDF that handled accounting requests for the session; the distributor unit is configured to process the tracking parameter in the interim accounting request to identify a first CDF ID for a first destination CDF that handled accounting requests for the session; the distributor unit is configured to transmit the interim accounting request to the first destination CDF when the first destination CDF is available to receive the interim accounting request; the distributor unit is configured to select a second destination CDF for the interim accounting request based on a distribution algorithm when the first destination CDF is not available to receive the interim accounting request, to add a second CDF ID for the second destination CDF in the tracking parameter of the interim accounting request, and to transmit the interim accounting request to the second destination CDF. a distributor unit configured to connect to a plurality of Charging Data Functions, CDFs, for offline charging; the distributor unit comprising a processor configured to receive an interim accounting request from a Charging Trigger Function, CTF, for a session, wherein the interim accounting request includes a tracking parameter populated with at least one CDF identifier, CDF ID, indicating at least one destination CDF that handled accounting requests for the session; the distributor unit is configured to process the tracking parameter in the interim accounting request to identify a first CDF ID for a first destination CDF that handled accounting requests for the session; the distributor unit is configured to transmit the interim accounting request to the first destination CDF when the first destination CDF is available to receive the interim accounting request; the distributor unit is configured to select a second destination CDF for the interim accounting request based on a distribution algorithm when the first destination CDF is not available to receive the interim accounting request, to add a second CDF ID for the second destination CDF in the tracking parameter of the interim accounting request, and to transmit the interim accounting request to the second destination CDF.
A reel for storing and dispensing of winding material wound on the reel, particularly a clip line, the reel comprising a hub having a hub axis and side walls (30, 40) each disposed at the axial end faces of the hub and protruding past the outer circumferential surface of the hub in an approximately radial direction, the storage space defined by the surfaces of the side walls (30, 40) facing toward each other and the outer circumferential surface of the hub and surrounding the hub serving for receiving the winding material, wherein the hub being at least in sections double-walled in design, having a first hub wall (22, 24) and having a second hub wall spaced radially apart from the first hub wall, and wherein the reel is formed from two reel halves (100, 100') which are identical in design, characterized in that each of the reel halves (100, 100') comprises at least one hub segment at least in sections double-walled in design, that the at least one hub segment comprises at least one recess and at least one protrusion corresponding to the recess disposed on the end of hub segment facing away from the side wall (30, 40) in the axial direction, and that the recess is disposed in the first hub wall and the protrusion is formed by a segment of the first hub wall, or that the recess is disposed in the second hub wall and the protrusion is formed by a segment of the second hub wall.
Device for perforating and/or fluting and/or punching for rotary presses and/or rotary printing presses, which has a rotary cylinder with a holding device (11, 12), by means of which a base plate which is made from a flexible and dimensionally stable material is fastened on the rotary cylinder, fastening bars which are spaced apart in the circumferential direction of the rotary cylinder additionally being provided, by means of which a flexible tool plate which carries at least one processing tool is held on the rotary cylinder in such a way that said flexible tool plate rests indirectly or directly on the base plate, characterized in that the fastening bars are formed in each case by at least one multiple-limb hinge bar (17, 18) which has a first hinge limb, by means of which the hinge bar (17, 18) is held on the holding device (11, 12) and/or on the base plate, and in that a second hinge limb is provided which is connected to the first hinge limb in an articulated manner via a hinge axis in such a way that, in the state of the hinge limbs (20, 21) in which they are folded onto one another and/or together, the tool plate is clamped and/or received between said hinge limbs (20, 21).
A tissue-engineering scaffold, comprising: (a) a microporous scaffold comprising a biocompatible material suitable for use in tissue-engineering scaffolds, wherein said biocompatible material is a biocompatible polymer that comprises a biodegradable polymer; and (b) a nanofibrous, nanoporous hydrogel formed from self-assembling peptides, wherein said self-assembling peptide is NH 2 -RADARADARADARADA-COOH (SEQ ID NO: 1) or NH 2 -KLDLKLDLKLDL-COOH (SEQ ID NO: 2). (a) a microporous scaffold comprising a biocompatible material suitable for use in tissue-engineering scaffolds, wherein said biocompatible material is a biocompatible polymer that comprises a biodegradable polymer; and (b) a nanofibrous, nanoporous hydrogel formed from self-assembling peptides, wherein said self-assembling peptide is NH 2 -RADARADARADARADA-COOH (SEQ ID NO: 1) or NH 2 -KLDLKLDLKLDL-COOH (SEQ ID NO: 2).
A measurement system for measuring an angular error introduced by a cover for a radar system or a respective device under test (32, 42), the measurement system comprising: at least one transmit antenna, a receive array, and a processing unit connected to the receive array, wherein the at least one transmit antenna is configured to transmit a radio frequency signal, wherein the receive array is configured to receive the corresponding signal propagated through the cover or the respective device under test (32, 42), and wherein the processing unit is configured to measure the corresponding complex transmission coefficients of the respective received signal over various positions in the receive array and to compare the corresponding measurement results to at least one reference measurement, characterized in that the measurement system further comprises a reflector, the receive array is further configured to receive the corresponding signal propagated through the cover or the respective device under test (32, 42) twice with the aid of the reflector located on the respective opposing site, and the processing unit is further configured to scale the corresponding phase and/or amplitude changes by a scaling factor. at least one transmit antenna, a receive array, and a processing unit connected to the receive array, wherein the at least one transmit antenna is configured to transmit a radio frequency signal, wherein the receive array is configured to receive the corresponding signal propagated through the cover or the respective device under test (32, 42), and wherein the processing unit is configured to measure the corresponding complex transmission coefficients of the respective received signal over various positions in the receive array and to compare the corresponding measurement results to at least one reference measurement, characterized in that the measurement system further comprises a reflector, the receive array is further configured to receive the corresponding signal propagated through the cover or the respective device under test (32, 42) twice with the aid of the reflector located on the respective opposing site, and the processing unit is further configured to scale the corresponding phase and/or amplitude changes by a scaling factor.
An apparatus for performing chip-to-chip communications, comprising: a modulation circuit (22a, 22b, 22n) and a demodulation circuit (31a, 31b, 31n) based on differential current flow, for communicating between a transmitting chip and a receiving chip; said modulation circuit (22a, 22b, 22n) including a digital-to-analog converter (24a, 24b, 24n) and current mode mixer (28a, 28b, 28n) for each of a plurality of data bits and one or more track pulses, each of said plurality of data bits is converted from a digital signal to an analog differential current and mixed in said current mode mixer with analog differential current outputs for other data bits during multi-frequency modulation in which the differential current is modulated in response to applying a frequency carrier at each of multiple frequencies in different current mode mixers in each modulator circuit; and said demodulation circuit (31a, 31b, 31n) including a current mode mixer (32a, 32b, 32n) and analog-to-digital converter (36a, 36b, 36n) for each of a plurality of data bits and one or more track pulses received from said modulation circuit (22a, 22b, 22n), whereby a frequency carrier from said multiple frequencies is applied to each current mode mixer in said demodulation circuit (31a, 31b, 31n) to demodulate the analog differential carrier prior to conversion back to a digital signal through said analog-to-digital converter (36a, 36b, 36n). a modulation circuit (22a, 22b, 22n) and a demodulation circuit (31a, 31b, 31n) based on differential current flow, for communicating between a transmitting chip and a receiving chip; said modulation circuit (22a, 22b, 22n) including a digital-to-analog converter (24a, 24b, 24n) and current mode mixer (28a, 28b, 28n) for each of a plurality of data bits and one or more track pulses, each of said plurality of data bits is converted from a digital signal to an analog differential current and mixed in said current mode mixer with analog differential current outputs for other data bits during multi-frequency modulation in which the differential current is modulated in response to applying a frequency carrier at each of multiple frequencies in different current mode mixers in each modulator circuit; and said demodulation circuit (31a, 31b, 31n) including a current mode mixer (32a, 32b, 32n) and analog-to-digital converter (36a, 36b, 36n) for each of a plurality of data bits and one or more track pulses received from said modulation circuit (22a, 22b, 22n), whereby a frequency carrier from said multiple frequencies is applied to each current mode mixer in said demodulation circuit (31a, 31b, 31n) to demodulate the analog differential carrier prior to conversion back to a digital signal through said analog-to-digital converter (36a, 36b, 36n).
A system for the dynamic locating of a fault observed in a component obtained after a forging operation of a blank, characterized in that it comprises: - processing means adapted for the modelling of said forging operation via the numerical solving of equations modelling working of the component during the said forging operation as a function of forging parameters, the said solving being performed iteratively and leading to a set of time successive models (21a-21f) of the forming of said component during the said forging operation, the said set comprising an initial model corresponding to the said blank, intermediate models (21b-21e) corresponding to intermediate forging steps and a final model corresponding to the said forged component; - input means to provide the said processing means with data relating to a fault observed in said component, a component having a fault being called a defective component; - processing means adapted to add a fault plotter to a first model belonging to the said set of models (21a-21f), in a zone corresponding to the region of the fault in the said defective component to obtain a first plotted model representing the defective component at the time of detection of the fault; and - viewing means linked with the processing means and adapted to track the said fault plotter over time during the said modelling starting from the said first plotted model, retrospectively or prospectively, to diagnose the dynamics of the said fault. - processing means adapted for the modelling of said forging operation via the numerical solving of equations modelling working of the component during the said forging operation as a function of forging parameters, the said solving being performed iteratively and leading to a set of time successive models (21a-21f) of the forming of said component during the said forging operation, the said set comprising an initial model corresponding to the said blank, intermediate models (21b-21e) corresponding to intermediate forging steps and a final model corresponding to the said forged component; - input means to provide the said processing means with data relating to a fault observed in said component, a component having a fault being called a defective component; - processing means adapted to add a fault plotter to a first model belonging to the said set of models (21a-21f), in a zone corresponding to the region of the fault in the said defective component to obtain a first plotted model representing the defective component at the time of detection of the fault; and - viewing means linked with the processing means and adapted to track the said fault plotter over time during the said modelling starting from the said first plotted model, retrospectively or prospectively, to diagnose the dynamics of the said fault.
A test rig for testing blades for a wind turbine, the test rig comprising a fixing structure where a root end of a wind turbine blade can be fixed, characterized in that a loading mass structure extending from the fixing structure, and an actuation structure which can apply a force to the loading mass structure so that a counterbalanced resonance is established.