mhurhangee/ep-ind-claims huggingface dataset:
A head-mounted projection display, comprising: an image source having a circular polarization, wherein the image source is a circularly polarised projector or the image source is a plane polarised projector with a quarter waveplate optical retarder; a polarizing beam splitter to direct output images to a retroreflective screen and transmit returning reflected retroreflective images for viewing by a user; the head-mounted projection display being characterised by further comprising a quarter wave retarding film formed on the surface of said polarizing beam splitter facing said retroreflective screen, to adjust the polarization of the output images to reduce loss of brightness when reflected from said beam splitter to said retroreflective screen and further to reduce loss of brightness of received retroreflected images as said images pass through said beam splitter to be viewed by said user, wherein said image source projects upon said quarter wave retarding film on said surface of said polarizing beam splitter configuring an optical path passing through said quarter wave retarding film three times in total; and the images enter a user's eye as plane polarised light. an image source having a circular polarization, wherein the image source is a circularly polarised projector or the image source is a plane polarised projector with a quarter waveplate optical retarder; a polarizing beam splitter to direct output images to a retroreflective screen and transmit returning reflected retroreflective images for viewing by a user; the head-mounted projection display being characterised by further comprising a quarter wave retarding film formed on the surface of said polarizing beam splitter facing said retroreflective screen, to adjust the polarization of the output images to reduce loss of brightness when reflected from said beam splitter to said retroreflective screen and further to reduce loss of brightness of received retroreflected images as said images pass through said beam splitter to be viewed by said user, wherein said image source projects upon said quarter wave retarding film on said surface of said polarizing beam splitter configuring an optical path passing through said quarter wave retarding film three times in total; and the images enter a user's eye as plane polarised light.
A computer-implemented method, comprising: receiving, from a client device and by a first computing system (MPC 1) of a secure multi-party computation cluster, a first request for user group identifiers that identify user groups to which to add a user, the first request comprising a model identifier for a centroid model, first user profile data for a user profile of the user, and a threshold distance; identifying, by the secure MPC cluster, a set of user groups corresponding to the model identifier; identifying, by the secure MPC cluster, for each user group in the set of user groups, a centroid for the user group determined using a centroid model corresponding to the model identifier; determining, by the first computing system, a user group result based at least on the first user profile data, the centroid for each user group in the set of user groups, and the threshold distance, wherein the user group result is indicative of one or more user groups to which to add the user; and transmitting, by the secure MPC cluster, the user group result to the client device, wherein the first user profile data includes a first portion of the user profile and wherein the centroid for each user group is determined using a secure MPC process between the first computing system (MPC 1) and one or more second computing systems (MPC 2) of the secure MPC cluster. receiving, from a client device and by a first computing system (MPC 1) of a secure multi-party computation cluster, a first request for user group identifiers that identify user groups to which to add a user, the first request comprising a model identifier for a centroid model, first user profile data for a user profile of the user, and a threshold distance; identifying, by the secure MPC cluster, a set of user groups corresponding to the model identifier; identifying, by the secure MPC cluster, for each user group in the set of user groups, a centroid for the user group determined using a centroid model corresponding to the model identifier; determining, by the first computing system, a user group result based at least on the first user profile data, the centroid for each user group in the set of user groups, and the threshold distance, wherein the user group result is indicative of one or more user groups to which to add the user; and transmitting, by the secure MPC cluster, the user group result to the client device, wherein the first user profile data includes a first portion of the user profile and wherein the centroid for each user group is determined using a secure MPC process between the first computing system (MPC 1) and one or more second computing systems (MPC 2) of the secure MPC cluster.
A process for producing an aromatic polycarbonate resin comprising the steps of: reacting an aromatic polycarbonate prepolymer and a dialcohol compound in the presence of a transesterification catalyst to increase a molecular weight to obtain a crude aromatic polycarbonate resin containing an aliphatic cyclic carbonate; and feeding the crude aromatic polycarbonate resin to a kneading extruder equipped with a vent port, a water injection port and a screw, and then, injecting water and carrying out devolatilization at a discharge resin temperature of not lower than 200°C and not higher than 310°C, to remove at least a part of the aliphatic cyclic carbonate, wherein the water injection port is provided upstream the vent port. reacting an aromatic polycarbonate prepolymer and a dialcohol compound in the presence of a transesterification catalyst to increase a molecular weight to obtain a crude aromatic polycarbonate resin containing an aliphatic cyclic carbonate; and feeding the crude aromatic polycarbonate resin to a kneading extruder equipped with a vent port, a water injection port and a screw, and then, injecting water and carrying out devolatilization at a discharge resin temperature of not lower than 200°C and not higher than 310°C, to remove at least a part of the aliphatic cyclic carbonate, wherein the water injection port is provided upstream the vent port.
An intraocular lens assembly configured to be inserted and affixed in an eye with a crystalline lens, comprising: an intraocular lens comprising an optic for producing a preselected optical effect, the optic comprising an outer peripheral edge; a haptic (218A, 218B) extending from the outer peripheral edge of the optic, the haptic (218A, 218B) comprising a proximal end, a distal end, and a riser section (200A, 222A, 220B, 222B) therebetween, the proximal end at the outer peripheral edge of the optic at a different height than the distal end; and characterized in further comprising a helical-shaped coil fastener comprising a wire comprising an end portion with a pointed tip, the helical-shaped coil fastener configured to affix the haptic (218A, 218B) to the eye by insertion through the distal end of the haptic (218A, 218B) and rotatable penetration into an anterior side of an iris to compress a portion of the haptic (218A, 218B) between a top portion of the helical-shaped coil fastener and the anterior side of the iris, wherein the wire forms a helix with a helical pitch defining a central cylindrical aperture. an intraocular lens comprising an optic for producing a preselected optical effect, the optic comprising an outer peripheral edge; a haptic (218A, 218B) extending from the outer peripheral edge of the optic, the haptic (218A, 218B) comprising a proximal end, a distal end, and a riser section (200A, 222A, 220B, 222B) therebetween, the proximal end at the outer peripheral edge of the optic at a different height than the distal end; and characterized in further comprising a helical-shaped coil fastener comprising a wire comprising an end portion with a pointed tip, the helical-shaped coil fastener configured to affix the haptic (218A, 218B) to the eye by insertion through the distal end of the haptic (218A, 218B) and rotatable penetration into an anterior side of an iris to compress a portion of the haptic (218A, 218B) between a top portion of the helical-shaped coil fastener and the anterior side of the iris, wherein the wire forms a helix with a helical pitch defining a central cylindrical aperture.
Server having a detection device for detecting changes which affect at least one transmission parameter for transmission channels (40, 41) between a terminal and at least one access network; a receiving device for receiving selection criteria, created by the terminal, for selecting a group of changes in the transmission parameters from the changes in the transmission parameters; a selection criteria database for storing the transmitted selection criteria; a selection device for selecting the group of detected changes in the transmission parameters from the detected changes in the transmission parameters on the basis of the stored selection criteria; and having an output device for transmitting the selected group of detected changes in transmission parameters to the terminal.
A method for producing a pharmaceutically acceptable Micafungin salt comprising the steps of: a) applying an aqueous solution comprising a dissolved salt of Micafungin to a hydrophobic adsorbent resin support; b) exposing the bound Micafungin to an aqueous solution of a dissolved pharmaceutically acceptable salt; c) eluting the dissolved pharmaceutically acceptable salt of Micafungin with a solution comprising a water miscible organic solvent; provided that at least one of i) the aqueous solution comprising a dissolved salt of Micafungin in step a) or ii) the aqueous solution in step b) comprises a water miscible organic solvent. a) applying an aqueous solution comprising a dissolved salt of Micafungin to a hydrophobic adsorbent resin support; b) exposing the bound Micafungin to an aqueous solution of a dissolved pharmaceutically acceptable salt; c) eluting the dissolved pharmaceutically acceptable salt of Micafungin with a solution comprising a water miscible organic solvent; i) the aqueous solution comprising a dissolved salt of Micafungin in step a) or ii) the aqueous solution in step b)
A monitoring device (1, 1') for monitoring a monitored zone which is adjacent to a safety zone, wherein the monitoring device (1, 1') comprises: a light curtain device for detecting an object touching a boundary section located at a boundary between the monitored zone and the safety zone; a time-of-flight device (3, 3') for detecting a distance (d) to the object and/or a size of the object; an evaluation device for emitting an evaluation result based on the distance (d) to the object and/or on the size of the object determined by the time-of-flight device (3, 3'); and a protection device for performing a predetermined protective measure based on the evaluation result; wherein the evaluation device is configured to determine a velocity of the object based on several consecutive distance measurements performed by the time-of-flight device (3, 3'); and/or the time-of-flight device (3, 3') is configured to determine a velocity of the object based on several consecutive distance measurements performed by the time-of-flight device (3, 3') and/or to transmit the determined velocity of the object to the evaluation device. a light curtain device for detecting an object touching a boundary section located at a boundary between the monitored zone and the safety zone; a time-of-flight device (3, 3') for detecting a distance (d) to the object and/or a size of the object; an evaluation device for emitting an evaluation result based on the distance (d) to the object and/or on the size of the object determined by the time-of-flight device (3, 3'); and a protection device for performing a predetermined protective measure based on the evaluation result; wherein the evaluation device is configured to determine a velocity of the object based on several consecutive distance measurements performed by the time-of-flight device (3, 3'); and/or the time-of-flight device (3, 3') is configured to determine a velocity of the object based on several consecutive distance measurements performed by the time-of-flight device (3, 3') and/or to transmit the determined velocity of the object to the evaluation device.
A composition comprising: a polyamide; hollow glass microspheres having amino groups on at least a portion of their surfaces; and an impact modifier comprising at least one of polyolefin or polydiene units and at least one of carboxylic acid or carboxylic acid anhydride functional groups, wherein the impact modifier is present in an amount of at least about 5 weight percent, based on the total weight of the composition. a polyamide; hollow glass microspheres having amino groups on at least a portion of their surfaces; and an impact modifier comprising at least one of polyolefin or polydiene units and at least one of carboxylic acid or carboxylic acid anhydride functional groups, wherein the impact modifier is present in an amount of at least about 5 weight percent, based on the total weight of the composition.
A method comprising: acquiring, using one or more physical layer information data acquisition technologies, physical layer information related to cabling attached to first managed devices within a first enterprise network, wherein the first enterprise network is configured to be operated by a first enterprise, wherein each managed device comprises physical layer information data acquisition technology for automatically obtaining physical layer information related to cabling attached to the managed device; acquiring, using one or more physical layer information data acquisition technologies, physical layer information related to cabling attached to second managed devices within a second enterprise network, wherein the second enterprise network is distinct from the first enterprise network, wherein the second network is configured to be operated by a second enterprise distinct from the first enterprise; and aggregating, with at least one management application hosted on one or more server computers in a third network distinct from the first enterprise network and the second enterprise network, the physical layer information related to cabling attached to the first managed devices within the first enterprise network and the second managed devices within the second enterprise network by a third party as a hosted service, wherein the third network is configured to be operated by the third party distinct from the first enterprise and the second enterprise. acquiring, using one or more physical layer information data acquisition technologies, physical layer information related to cabling attached to first managed devices within a first enterprise network, wherein the first enterprise network is configured to be operated by a first enterprise, wherein each managed device comprises physical layer information data acquisition technology for automatically obtaining physical layer information related to cabling attached to the managed device; acquiring, using one or more physical layer information data acquisition technologies, physical layer information related to cabling attached to second managed devices within a second enterprise network, wherein the second enterprise network is distinct from the first enterprise network, wherein the second network is configured to be operated by a second enterprise distinct from the first enterprise; and aggregating, with at least one management application hosted on one or more server computers in a third network distinct from the first enterprise network and the second enterprise network, the physical layer information related to cabling attached to the first managed devices within the first enterprise network and the second managed devices within the second enterprise network by a third party as a hosted service, wherein the third network is configured to be operated by the third party distinct from the first enterprise and the second enterprise.
A coating composition comprising: at least one autoxidizable alkyd binder and a drier system, wherein the drier system comprises: a) at least 0.001 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is V; b) at least 0.01 wt% metal, based on binder solids, of at least one Co salt of an organic acid; c) at least 0.01 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is selected from the group consisting of Ca, Zn, Ba, or Li; and wherein said composition is a solvent borne coating composition, and wherein the drier system further comprises at least 0.01 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is selected from Zr or Sr. at least one autoxidizable alkyd binder and a drier system, wherein the drier system comprises: a) at least 0.001 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is V; b) at least 0.01 wt% metal, based on binder solids, of at least one Co salt of an organic acid; c) at least 0.01 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is selected from the group consisting of Ca, Zn, Ba, or Li; a) at least 0.001 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is V; b) at least 0.01 wt% metal, based on binder solids, of at least one Co salt of an organic acid; c) at least 0.01 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is selected from the group consisting of Ca, Zn, Ba, or Li; and wherein said composition is a solvent borne coating composition, and wherein the drier system further comprises at least 0.01 wt% metal, based on binder solids, of at least one metal salt of an organic acid wherein the metal is selected from Zr or Sr.
The use of polyvinyllactam-polyvinyl acetate block copolymers as crystallization inhibitor for agrochemical active ingredients that are sparingly soluble in water.
A method of controlling the early opening of a discharge valve associated with a discharge conduit, said discharge conduit having an upstream end located upstream of a compressor turbocharger equipping a heat engine and a downstream end located downstream of said compressor, said method comprising: - a step of detecting a critical life case likely to cause a pumping phenomenon, - a step of determining an anticipated flow rate (Da), calculated from a reference flow rate (Dc) to which a prediction term (tdp) is added, - a step (104, 106) of positioning, in a compressor field, an operating point corresponding to said anticipated flow rate (Da) determined beforehand, and - a step of early opening of said discharge valve as a function of the position of the operating point in said compressor field following the detection of the critical life case, characterized in that the anticipated flow rate (Da) is expressed as follows: Da n = Dc n + K × Δ D n × T + Δ D n − 1 × T − 1 with n being a computation rank value, n -1 being a value of previous computation rank n, K being a calibration of a prediction horizon, T being a calibration of a barycenter between ΔD(n) et le ΔD ( n - 1), and ΔD(n) being a variation of the set air flow rate observed at the row n and at the row n -1 corresponding to ΔD ( n) = filtrage [ Dc ( n) - Dc ( n - 1)] " filtering" representing a first order filter with a calibratable time constant (Te). - a step of detecting a critical life case likely to cause a pumping phenomenon, - a step of determining an anticipated flow rate (Da), calculated from a reference flow rate (Dc) to which a prediction term (tdp) is added, - a step (104, 106) of positioning, in a compressor field, an operating point corresponding to said anticipated flow rate (Da) determined beforehand, and - a step of early opening of said discharge valve as a function of the position of the operating point in said compressor field following the detection of the critical life case, with n being a computation rank value, n -1 being a value of previous computation rank n, K being a calibration of a prediction horizon, T being a calibration of a barycenter between ΔD(n) et le ΔD ( n - 1), and ΔD(n) being a variation of the set air flow rate observed at the row n and at the row n -1 corresponding to ΔD ( n) = filtrage [ Dc ( n) - Dc ( n - 1)] " filtering" representing a first order filter with a calibratable time constant (Te).
A surgical system having feedback control for pneumatic actuators, comprising: a pneumatic pressure source; a vitrectomy cutter having a cutting mechanism, a first pneumatic input port, and a second pneumatic input port; a pneumatic actuator configured to alternate pneumatic pressure to the first and second pneumatic input ports, based on operating signals received from a controller; a first pressure transducer placed and configured to measure actual pressure at the first pneumatic input port; a second pressure transducer placed and configured to detect actual pressure at the second pneumatic input port; the controller in communication with the first and second pressure transducers (206,208) and the pneumatic actuator, the controller being configured to measure an actual time the measured actual pressure of the first pressure transducer is above a stored minimum pressure threshold, and further configured to change the pneumatic actuator actuation timing based on comparing the actual time the measured actual pressure of the first pressure transducer is above the minimum pressure threshold, to a desired time that the measured actual pressure is desired to be above the minimum pressure threshold. a pneumatic pressure source; a vitrectomy cutter having a cutting mechanism, a first pneumatic input port, and a second pneumatic input port; a pneumatic actuator configured to alternate pneumatic pressure to the first and second pneumatic input ports, based on operating signals received from a controller; a first pressure transducer placed and configured to measure actual pressure at the first pneumatic input port; a second pressure transducer placed and configured to detect actual pressure at the second pneumatic input port; the controller in communication with the first and second pressure transducers (206,208) and the pneumatic actuator, the controller being configured to measure an actual time the measured actual pressure of the first pressure transducer is above a stored minimum pressure threshold, and further configured to change the pneumatic actuator actuation timing based on comparing the actual time the measured actual pressure of the first pressure transducer is above the minimum pressure threshold, to a desired time that the measured actual pressure is desired to be above the minimum pressure threshold.