mhurhangee/ep-ind-claims huggingface dataset:
A Shack Hartmann ("SH") wavefront sensor comprising: a) an optical wave front dissector for dissecting an incoming optical wave; b) an optical system for detecting the dissected incoming optical wave; and c) a removable kinematic mount for repeatable precision mounting of the optical wave front dissector to the optical system; wherein the removable kinematic mount further comprises a base member mounted to the optical system, a mating member mounted to the optical wave front dissector, a plurality of balls on one of the base member and the mating member, and a plurality of ball seats on the other member; wherein each ball seat further comprises a plurality of spaced-apart, radially-extending dowel pins that form a dowel pin pair; wherein each dowel pin pair is partially recessed within an outer surface of one of the base member and the mating member, and each ball is partially recessed within the other member; wherein the sensor further comprises: a recessed ball pocket disposed between each dowel pin pair; a plurality of magnets (9, 10) disposed on each of the base and mating members that attract the base and mating members together; a pair of magnets disposed around each dowel pin pair; wherein at least two magnets on the base member have opposite polarities. a) an optical wave front dissector for dissecting an incoming optical wave; b) an optical system for detecting the dissected incoming optical wave; and c) a removable kinematic mount for repeatable precision mounting of the optical wave front dissector to the optical system; a recessed ball pocket disposed between each dowel pin pair; a plurality of magnets (9, 10) disposed on each of the base and mating members that attract the base and mating members together; a pair of magnets disposed around each dowel pin pair;
Method for producing a printed panel, comprising the process steps: a) providing a plate-shaped carrier; b) optionally applying a resin layer onto the plate-shaped carrier; c) optionally applying a paper or fleece layer onto the plate-shaped carrier; d) optionally calendering the resulting layer structure, in particular at a temperature between ≥ 40°C and ≤ 250°C; e) optionally applying a printing subsurface onto the plate-shaped carrier; f) printing the carrier with an application amount of a radiation curable printing ink; and g) curing the previously applied printing ink by treating the printing ink with radiation, wherein h) at least one parameter of the radiation used in process step g) is adapted to the application amount of radiation curable printing ink, wherein process step h) is based on an application amount of the radiation curable printing ink determined by a sensor during the printing process, wherein at least one parameter of the radiation used in process step g) is adjusted during the printing of the carrier according to process step f). a) providing a plate-shaped carrier; b) optionally applying a resin layer onto the plate-shaped carrier; c) optionally applying a paper or fleece layer onto the plate-shaped carrier; d) optionally calendering the resulting layer structure, in particular at a temperature between ≥ 40°C and ≤ 250°C; e) optionally applying a printing subsurface onto the plate-shaped carrier; f) printing the carrier with an application amount of a radiation curable printing ink; and g) curing the previously applied printing ink by treating the printing ink with radiation, wherein h) at least one parameter of the radiation used in process step g) is adapted to the application amount of radiation curable printing ink, wherein process step h) is based on an application amount of the radiation curable printing ink determined by a sensor during the printing process, wherein at least one parameter of the radiation used in process step g) is adjusted during the printing of the carrier according to process step f).
Fuel cell including a stack of elementary cells separated by bipolar plates, each elementary cell including an anode, a cathode and an electrolyte between the anode and the cathode, and defining with a bipolar plate on the anode side an anode compartment and on the cathode side a cathode compartment, a first manifold for supplying the anode compartments with a first reactant, a second manifold for supplying the cathode compartments with a second reactant, and at least one manifold for evacuating the reaction by-products, wherein said first supply manifold includes two ends (10.1, 10.2) configured to be connected to a source of the first reactant, wherein said first supply manifold is divided into two portions (P1, P2) by a first wall impermeable to the first reactant, each portion (P1, P2) being fluidly connected to anode compartments by fluid connections, said first wall including a first film inserted between a cell and a bipolar plate or being formed by a peripheral part of an elementary cell, and/or wherein the second supply manifold includes two ends configured to be connected to a source of the second reactant, wherein said second supply manifold is divided into two portions by a wall impermeable to the second reactant, each portion being fluidly connected to cathode compartments by fluid connections, said second wall including a second film inserted between a cell and a bipolar plate or being formed by a peripheral part of an elementary cell, and wherein said fuel cell includes control means configured to separately control the supply of the first and second ends of the first and/or second supply manifold.
A joint assembly, comprising: an outer shroud having an inner surface defining an interior of the joint assembly, a bellows disposed within the interior and configured to couple with first and second ducts (82, 84) to be joined by the joint assembly; an annular flared tube having a flared portion located within the interior between the inner surface and the bellows and having a longitudinal portion extending beyond the outer shroud; a kinematic ring disposed between the flared tube and the outer shroud, adjacent the flared portion of the annular flared tube and the interior surface of the outer shroud; and a backing ring retaining the kinematic ring within the interior; characterized in that the flared tube includes a set of slits defining a set of flexures, the slits extending through at least a portion of the flared portion. an outer shroud having an inner surface defining an interior of the joint assembly, a bellows disposed within the interior and configured to couple with first and second ducts (82, 84) to be joined by the joint assembly; an annular flared tube having a flared portion located within the interior between the inner surface and the bellows and having a longitudinal portion extending beyond the outer shroud; a kinematic ring disposed between the flared tube and the outer shroud, adjacent the flared portion of the annular flared tube and the interior surface of the outer shroud; and a backing ring retaining the kinematic ring within the interior; characterized in that the flared tube includes a set of slits defining a set of flexures, the slits extending through at least a portion of the flared portion.
A method of transmitting packet data at a base station in a communication system, the method comprising: transmitting a code list indicating a set of codes to be used for packet data control channel transmission to a mobile station; transmitting a control message for a packet data channel over a packet data control channel using a code of the set of codes to the mobile station, the control message comprising a start code number and an end code number, which define a range of codes allocated to the mobile station for packet data transmission among predefined codes, and packet size information indicating an amount of information being transmitted on the packet data channel; and transmitting the packet data over the packet data channel based on the control message to the mobile station. transmitting a code list indicating a set of codes to be used for packet data control channel transmission to a mobile station; transmitting a control message for a packet data channel over a packet data control channel using a code of the set of codes to the mobile station, the control message comprising a start code number and an end code number, which define a range of codes allocated to the mobile station for packet data transmission among predefined codes, and packet size information indicating an amount of information being transmitted on the packet data channel; and transmitting the packet data over the packet data channel based on the control message to the mobile station.
A method comprising: receiving a glyph to be displayed at a size on a raster output device; receiving a grid ratio, the grid ratio specifying an integer number of fine pixels of a high resolution grid that correspond to a device pixel of a raster of the output device; rendering the glyph at the size on the high resolution grid, the high resolution grid including fine pixels marked to represent the glyph and fine pixels that are unmarked; determining for each line of pixels of the high resolution grid, a line-specific, per-transition adjustment number, the adjustment number determined from a scaled stem width for the glyph; and in each line of pixels of the high resolution grid, marking or erasing the line-specific, per-transition adjustment number of fine pixels in the high resolution grid at each transition from a marked fine pixel to an unmarked fine pixel in a particular direction of the line of pixels. receiving a glyph to be displayed at a size on a raster output device; receiving a grid ratio, the grid ratio specifying an integer number of fine pixels of a high resolution grid that correspond to a device pixel of a raster of the output device; rendering the glyph at the size on the high resolution grid, the high resolution grid including fine pixels marked to represent the glyph and fine pixels that are unmarked; determining for each line of pixels of the high resolution grid, a line-specific, per-transition adjustment number, the adjustment number determined from a scaled stem width for the glyph; and in each line of pixels of the high resolution grid, marking or erasing the line-specific, per-transition adjustment number of fine pixels in the high resolution grid at each transition from a marked fine pixel to an unmarked fine pixel in a particular direction of the line of pixels.
Goggles having an outer surface defined by a pair of eye pieces, each having a lens portion and each having an upper and a lower peripheral wall (4, 6) extending from the lens portion to an upper and a lower peripheral edge (5, 7) respectively, each lens portion comprising an outer surface and an inner surface, and each of the upper and lower peripheral walls (4, 6) having an outer surface and an inner surface, wherein, in use, said upper and lower peripheral edges (5, 7) are configured to be in contact with a wearer's face, wherein each eye piece further comprises an inner peripheral wall extending substantially perpendicularly inwardly from its respective lens portion and terminating at a respective inner peripheral edge, which is configured to form a seal against the wearer's face, each inner peripheral wall having an outer surface and an inner surface, and wherein a space is formed between the outer surface of each inner peripheral wall and the inner surfaces of each of the upper and lower peripheral walls (4, 6), and wherein the outer surfaces of the upper and lower peripheral walls (4, 6) are convex, characterized in that the outer surface of each of the lens portions is curved and the outer surface of each eye piece from the upper peripheral edge to the lower peripheral edge through the upper peripheral wall, through the lens portion and through the lower peripheral wall is a smooth continuous convex curve.
A whispering gallery mode, WGM, coupler comprising: a corrugated waveguide having an entrance; a cylindrical waveguide for propagation of RF energy, the cylindrical waveguide having a plurality of deformations (404a, 404b, 404c) on an inner surface, each said deformation causing a focusing and guiding of incident RF energy to a subsequent deformation which also performs a focusing and guiding of incident RF energy to a subsequent deformation; said cylindrical waveguide having a launch edge for directing RF energy in a quasi-optical mode to a mirror; said mirror having a first order surface profile for forming said quasi-optical mode RF energy into a circularly symmetric beam having a minimum diameter at the entrance of said corrugated waveguide; an enclosure with an evacuated chamber containing the cylindrical waveguide and the mirror, the entrance of the corrugated waveguide being located inside said evacuated chamber; said mirror also having a second order surface profile for providing a substantially uniform phase front of said circularly symmetric beam at said entrance of said corrugated waveguide; said corrugated waveguide arranged to support a propagation of HE11 mode RF energy. a corrugated waveguide having an entrance; a cylindrical waveguide for propagation of RF energy, the cylindrical waveguide having a plurality of deformations (404a, 404b, 404c) on an inner surface, each said deformation causing a focusing and guiding of incident RF energy to a subsequent deformation which also performs a focusing and guiding of incident RF energy to a subsequent deformation; said cylindrical waveguide having a launch edge for directing RF energy in a quasi-optical mode to a mirror; said mirror having a first order surface profile for forming said quasi-optical mode RF energy into a circularly symmetric beam having a minimum diameter at the entrance of said corrugated waveguide; an enclosure with an evacuated chamber containing the cylindrical waveguide and the mirror, the entrance of the corrugated waveguide being located inside said evacuated chamber; said mirror also having a second order surface profile for providing a substantially uniform phase front of said circularly symmetric beam at said entrance of said corrugated waveguide; said corrugated waveguide arranged to support a propagation of HE11 mode RF energy.
A system adapted to conducting the identification and quantification of micro-organisms in fluid samples, comprising: a plurality of disposable cartridges configured to hold a plurality of disposable components including a centrifuge tube for an unprocessed fluid sample, a removable pipette tip, and an optical sample cup or cuvette; a sample processor adapted to receive the plurality of disposable cartridges and configured to prepare the fluid samples and to transfer the fluid samples into the respective optical sample cup or cuvette of each of the disposable cartridges; and an optical analyzer adapted to receive the plurality of the disposable cartridges and to analyze the type and quantity of micro-organisms contained in the fluid samples. a plurality of disposable cartridges configured to hold a plurality of disposable components including a centrifuge tube for an unprocessed fluid sample, a removable pipette tip, and an optical sample cup or cuvette; a sample processor adapted to receive the plurality of disposable cartridges and configured to prepare the fluid samples and to transfer the fluid samples into the respective optical sample cup or cuvette of each of the disposable cartridges; and an optical analyzer adapted to receive the plurality of the disposable cartridges and to analyze the type and quantity of micro-organisms contained in the fluid samples.
Moisture sensor arrangement comprising - an integrated signal processing module, - at least one capacitive moisture sensor arranged on the signal processing module, - an encapsulation, which partly surrounds the signal processing module and has a recess in the region of the moisture sensor, characterized in that at least one low-impedance, electrically conductive diverting element is arranged in the region of the recess, by means of which diverting element the discharge current resulting in the event of an electrostatic discharge can be diverted, wherein the diverting element is formed as a metal layer, covers only a part of the recess projection and tapers in the direction of the centre of the recess projection. - an integrated signal processing module, - at least one capacitive moisture sensor arranged on the signal processing module, - an encapsulation, which partly surrounds the signal processing module and has a recess in the region of the moisture sensor,
A method of operating a first communications device supporting peer to peer communications, comprising: transmitting a transmission request; monitoring to receive transmission request responses during a monitoring period; determining if a response to the transmission request from the first communications device was received; determining whether a response to a transmission request from a second communications device was received; and when it is determined that a response to a transmission request from the first communications device was received and it is also determined that a response to a transmission request from the second communications device was received, making a decision whether or not to transmit as a function of the received power of the response to the transmission request from the second communications device. transmitting a transmission request; monitoring to receive transmission request responses during a monitoring period; determining if a response to the transmission request from the first communications device was received; determining whether a response to a transmission request from a second communications device was received; and when it is determined that a response to a transmission request from the first communications device was received and it is also determined that a response to a transmission request from the second communications device was received, making a decision whether or not to transmit as a function of the received power of the response to the transmission request from the second communications device.
A conjugate comprising a polymeric dendrimer-like structure including four branches of monomethoxypolyethylene glycol, that can be represented like: and a nucleophilic group which is comprised in interferon alpha 2-b.
A developer accommodating unit for accommodating a developer for image formation, comprising: a developer accommodating container including a flexible container provided with openings for permitting discharge of the accommodated developer and including a sealing member for sealing the openings by a bonding portion and for exposing the openings by being moved; an unsealing member, mounted on said sealing member, for moving said sealing member; and a frame (17, 18) which accommodates said developer accommodating container and said unsealing member and which includes a fixing portion for fixing said flexible container, wherein a portion between the openings of the flexible container is a connecting portion, and wherein with respect to an unsealing direction of said sealing member, said fixing portion and said connecting portion are provided so as to overlap with each other along the unsealing direction. a developer accommodating container including a flexible container provided with openings for permitting discharge of the accommodated developer and including a sealing member for sealing the openings by a bonding portion and for exposing the openings by being moved; an unsealing member, mounted on said sealing member, for moving said sealing member; and a frame (17, 18) which accommodates said developer accommodating container and said unsealing member and which includes a fixing portion for fixing said flexible container, wherein a portion between the openings of the flexible container is a connecting portion, and wherein with respect to an unsealing direction of said sealing member, said fixing portion and said connecting portion are provided so as to overlap with each other along the unsealing direction.
A protective layer transfer sheet comprising: a substrate and a transfer layer peelably provided on a surface of the substrate; the transfer layer including a protective layer, the protective layer including an acrylic polyol resin having a glass transition temperature (Tg) of more than 80°C and having a hydroxyl value in a range of not less than 10 mg KOH / g and not more than 100 mg KOH / g or a polyester polyurethane resin having a glass transition temperature (Tg) of not less than 50 °C. a substrate and a transfer layer peelably provided on a surface of the substrate; the transfer layer including a protective layer, the protective layer including an acrylic polyol resin having a glass transition temperature (Tg) of more than 80°C and having a hydroxyl value in a range of not less than 10 mg KOH / g and not more than 100 mg KOH / g or a polyester polyurethane resin having a glass transition temperature (Tg) of not less than 50 °C.
A device for generating energy comprising at least one fluid supply means and at least one fluid discharge means, a turbine having at least one turbine blade arranged in a pressure vessel of a turbine housing, at least one fluid flow accelerator element, by means of which the propelling of a flow of fluid from the fluid supply means to the at least one turbine blade can be directed, at least one gas supply means, by means of which gas can be supplied to the pressure vessel of the turbine housing, and at least one pulsation means which can be activated independently of the turbine, by means of which the supplied gas and the supplied fluid can be set into a resonant oscillation.
A method for indicating data re-transmission during cell handover in a Long Term Evolution, LTE, system, comprising: sending, by a Source Evolved Node B, S_eNB, a Handover Command message to a User Equipment, UE, buffering, by the Source Evolved Node B, S_eNB, disordered Packet Data Convergence Protocol-Service Data Units, PDCP-SDUs, received from the User Equipment, UE in a buffer and sending, by the S_eNB, the PDCP-SDUs to a Target Evolved Node B, T_eNB, sending, by the S_eNB, a Packet Data Convergence Protocol-Service Data Unit Sequence Number, PDCP-SDU SN, report to the T_eNB, for informing of the PDCP-SDUs that have been received by the S_eNB from the UE; sending, by the UE, a Synchronization message to the T_eNB, sending, by the T_eNB a Synchronization Reply message back to the UE, informing, by the T_eNB, the UE of the PDCP-SDUs that have been received by the S_eNB; discarding, by the UE, the PDCP-SDUs that have been received by the S_eNB from a re-transmission queue according to the received PDCP-SDU SNs, and re-transmitting only the rest of PDCP-SDUs in the queue to the T_eNB, wherein the re-transmission queue comprises the PDCP-SDUs of which Acknowledgements, ACKs, are not received by the UE from the S_eNB, and characterized in that the T_eNB informs the UE of the PDCP-SDUs received by the S_eNB through the Synchronization Reply message. sending, by a Source Evolved Node B, S_eNB, a Handover Command message to a User Equipment, UE, buffering, by the Source Evolved Node B, S_eNB, disordered Packet Data Convergence Protocol-Service Data Units, PDCP-SDUs, received from the User Equipment, UE in a buffer and sending, by the S_eNB, the PDCP-SDUs to a Target Evolved Node B, T_eNB, sending, by the S_eNB, a Packet Data Convergence Protocol-Service Data Unit Sequence Number, PDCP-SDU SN, report to the T_eNB, for informing of the PDCP-SDUs that have been received by the S_eNB from the UE; sending, by the UE, a Synchronization message to the T_eNB, sending, by the T_eNB a Synchronization Reply message back to the UE, informing, by the T_eNB, the UE of the PDCP-SDUs that have been received by the S_eNB; discarding, by the UE, the PDCP-SDUs that have been received by the S_eNB from a re-transmission queue according to the received PDCP-SDU SNs, and re-transmitting only the rest of PDCP-SDUs in the queue to the T_eNB, wherein the re-transmission queue comprises the PDCP-SDUs of which Acknowledgements, ACKs, are not received by the UE from the S_eNB, and characterized in that the T_eNB informs the UE of the PDCP-SDUs received by the S_eNB through the Synchronization Reply message.