mhurhangee/ep-ind-claims huggingface dataset:
A film composite for manufacturing a package for planar carriers of pharmaceutical active substances, encompassing, in a direction from the outer side of the film composite toward its inner side: a metal layer; an acrylic-acid-containing joining layer; a polyethylene layer; and a COC layer made of cycloolefin copolymer, a side of the COC layer which faces away from the metal layer being an exposed surface of the film composite, characterized in that the polyethylene layer encompasses metallocene polyethylene C8.
An incrementally activated laminate comprising: an incrementally activated fibrous web having an activation pitch, wherein the activation pitch is the distance between the midpoints of two adjacent areas of higher deformation in the fibrous web; and a film comprising alternating first and second regions laminated to the incrementally activated fibrous web, wherein the first regions comprise a first polymeric composition, wherein the second regions comprise an elastic polymeric composition that is more elastic than the first polymeric composition, wherein a distance between midpoints of two first regions separated by one second region is smaller than the activation pitch, and wherein the first regions are not plastically deformed. an incrementally activated fibrous web having an activation pitch, wherein the activation pitch is the distance between the midpoints of two adjacent areas of higher deformation in the fibrous web; and a film comprising alternating first and second regions laminated to the incrementally activated fibrous web, wherein the first regions comprise a first polymeric composition, wherein the second regions comprise an elastic polymeric composition that is more elastic than the first polymeric composition, wherein a distance between midpoints of two first regions separated by one second region is smaller than the activation pitch, and wherein the first regions are not plastically deformed.
A method comprising: comparing, by a network device (12, 40) to a pre-defined threshold, traffic flow statistics indicating an amount of network traffic forwarded on a non-resource reservation protocol label switched path, LSP, over an interface of an ingress network device to the non-resource reservation protocol LSP; and in response to determining the amount of network traffic has met the pre-defined threshold for the interface, automatically adjusting, by the network device, a percentage of reservable bandwidth available for resource reservation protocol LSP reservations for the interface of the ingress network device. comparing, by a network device (12, 40) to a pre-defined threshold, traffic flow statistics indicating an amount of network traffic forwarded on a non-resource reservation protocol label switched path, LSP, over an interface of an ingress network device to the non-resource reservation protocol LSP; and in response to determining the amount of network traffic has met the pre-defined threshold for the interface, automatically adjusting, by the network device, a percentage of reservable bandwidth available for resource reservation protocol LSP reservations for the interface of the ingress network device.
A sustained release pharmaceutical composition for oral administration comprising Tapentadol or pharmaceutically acceptable salt thereof in a matrix core comprising a hydrophilic and a hydrophobic polymer at polymer ratio 1: 1, wherein the hydrophilic polymer is polyethylene oxide of high molecular weight and the hydrophobic polymer is a blend of polyvinyl acetate and povidone in the ratio 8:2.
A configurable imaging system, comprising: an image source (7, 9) for generating signals defining an image; and first and second adjacent block microtile units (1 C, 1F, 21, 1100) for generating and displaying respective portions of said image, each block microtile unit (1C, 1F, 21, 1100) including: a front surface comprising a screen (24, 1120) for displaying a respective portion of the image; a rear projector for projecting an image portion on said screen (24, 1120); and characterised in that each microtile unit (1 C, 1F, 21, 1100) has at least one side wall having a pinhole therein; said rear projector is operable to over-scan said screen so that a part of an edge of said image portion projected in said first microtile unit (1C, 21) is projected through the pinhole and is detected by a sensor disposed in a small opening 65 in the screen of said second microtile unit (1 F, 21), and the imaging system comprises control circuitry for adjusting said first image portion projected in said first microtile unit (1C, 21) in response to detection of said light by the photodetector (63, 1160) of the second microtile unit (1 F, 21), so as to at least one of align, colour match and brightness match said projected image portions of said first and second microtile units (1C, 1F, 21). an image source (7, 9) for generating signals defining an image; and first and second adjacent block microtile units (1 C, 1F, 21, 1100) for generating and displaying respective portions of said image, each block microtile unit (1C, 1F, 21, 1100) including: a front surface comprising a screen (24, 1120) for displaying a respective portion of the image; a rear projector for projecting an image portion on said screen (24, 1120); a front surface comprising a screen (24, 1120) for displaying a respective portion of the image; a rear projector for projecting an image portion on said screen (24, 1120); and characterised in that each microtile unit (1 C, 1F, 21, 1100) has at least one side wall having a pinhole therein; said rear projector is operable to over-scan said screen so that a part of an edge of said image portion projected in said first microtile unit (1C, 21) is projected through the pinhole and is detected by a sensor disposed in a small opening 65 in the screen of said second microtile unit (1 F, 21), and the imaging system comprises control circuitry for adjusting said first image portion projected in said first microtile unit (1C, 21) in response to detection of said light by the photodetector (63, 1160) of the second microtile unit (1 F, 21), so as to at least one of align, colour match and brightness match said projected image portions of said first and second microtile units (1C, 1F, 21).
A method of controlling a process on a computer system for backing-up files stored in a primary storage medium, to a secondary storage medium, the method being characterised by: monitoring a file system implemented on the computer system in order to detect ongoing write operations made by the file system to said primary storage medium; upon detection of an ongoing write operation, verifying the integrity of a file being written and/or identifying changes in the file with respect to a version of the file currently stored in the primary storage medium and which is being replaced; and in the event that the integrity of a file being written by the file system is compromised, and/or any identified changes in the file are suspicious, then identifying to the back-up process that automatic back-up of the file is to be inhibited. monitoring a file system implemented on the computer system in order to detect ongoing write operations made by the file system to said primary storage medium; upon detection of an ongoing write operation, verifying the integrity of a file being written and/or identifying changes in the file with respect to a version of the file currently stored in the primary storage medium and which is being replaced; and in the event that the integrity of a file being written by the file system is compromised, and/or any identified changes in the file are suspicious, then identifying to the back-up process that automatic back-up of the file is to be inhibited.
A frame construction, in particular for a rack system, comprising: - two in particular vertical columns each in the form of an in particular rectangular hollow profiled column element having a longitudinal groove, the two groove legs of which lying opposite each other each have on the inside two longitudinal ribs, between which a hole pattern strip is inserted into the hollow profiled column element, and - a plurality of in particular horizontal crossbeams (3 1, 3 2, 3 3), which are fastened to the two columns, each in the form of an in particular rectangular hollow profiled crossbeam element, crossbeam connectors being fastened to each end face of the hollow profiled crossbeam element, wherein the crossbeam connectors are each formed in two parts by an inner and an outer connector part (31, 32), wherein the inner connector part is fastened to the end face of the hollow profiled crossbeam element and is plugged, in particular hung, into the outer connector part and the outer connector part engages, with at least one pin, in one of the holes of the hole pattern strips, and wherein the two groove legs of the hollow profiled column element and the outer connector part each have a mutually interacting clip contour (15, 46, 47) for clipping of the outer connector part into the longitudinal groove and/or for displacement of the outer connector part along the longitudinal groove. - two in particular vertical columns each in the form of an in particular rectangular hollow profiled column element having a longitudinal groove, the two groove legs of which lying opposite each other each have on the inside two longitudinal ribs, between which a hole pattern strip is inserted into the hollow profiled column element, and - a plurality of in particular horizontal crossbeams (3 1, 3 2, 3 3), which are fastened to the two columns, each in the form of an in particular rectangular hollow profiled crossbeam element, crossbeam connectors being fastened to each end face of the hollow profiled crossbeam element,
A cable guide comprising: a mounting; a base section located on the mounting having a hemicylindrical inner surface to support a cable thereon; and an upper section having a hemicylindrical inner surface to form, when fastened to the base section, a cylindrical guide section having an internal diameter which is greater than a diameter of a cable to provide a clearance for a cable supported on the base section to be passed through the guide for installation, whereby the cable guide further comprises an insert having an outer surface corresponding with the inner surface of the upper section and an inner surface which is less than hemicylindrical to correspondingly engage with a cable, such that when the insert is located between and engaged with the upper section and a cable installed in a final position on the base section, the clearance therebetween is closed and the cable is clamped in the final position between the base section and the insert, characterised in that the mounting comprises a pivot mounting arrangement configured to allow movement of the base and upper sections (10,20) in both pitch and yaw directions. a mounting; a base section located on the mounting having a hemicylindrical inner surface to support a cable thereon; and an upper section having a hemicylindrical inner surface to form, when fastened to the base section, a cylindrical guide section having an internal diameter which is greater than a diameter of a cable to provide a clearance for a cable supported on the base section to be passed through the guide for installation, whereby the cable guide further comprises an insert having an outer surface corresponding with the inner surface of the upper section and an inner surface which is less than hemicylindrical to correspondingly engage with a cable, such that when the insert is located between and engaged with the upper section and a cable installed in a final position on the base section, the clearance therebetween is closed and the cable is clamped in the final position between the base section and the insert, characterised in that the mounting comprises a pivot mounting arrangement configured to allow movement of the base and upper sections (10,20) in both pitch and yaw directions.
A Multipath Transmission Control Protocol, MPTCP, client device (102; 700; 800) for transporting User Datagram Protocol, UDP, packets over an MPTCP connection (112, 113), the MPTCP client device being operative to: receive, from a UDP client, a request (301, 302) for establishing an MPTCP connection for transporting UDP packets between the MPTCP client device and an MPTCP server device (103; 700; 800), establish (311-313, 341-344; 411-413) the MPTCP connection, wherein information identifying one or more selected transport control functions comprising ordered delivery, retransmission of lost packets, flow control, and congestion control, is transmitted to the MPTCP server during the establishment of the MPTCP connection, which selected transport control functions are to be applied to UDP packets which are transported over the MPTCP connection, and apply the one or more selected transport control functions to UDP packets which are transported (331-335, 351-355, 361-365; 431-435, 451-455, 461-465) over the MPTCP connection. receive, from a UDP client, a request (301, 302) for establishing an MPTCP connection for transporting UDP packets between the MPTCP client device and an MPTCP server device (103; 700; 800), establish (311-313, 341-344; 411-413) the MPTCP connection, wherein information identifying one or more selected transport control functions comprising ordered delivery, retransmission of lost packets, flow control, and congestion control, is transmitted to the MPTCP server during the establishment of the MPTCP connection, which selected transport control functions are to be applied to UDP packets which are transported over the MPTCP connection, and apply the one or more selected transport control functions to UDP packets which are transported (331-335, 351-355, 361-365; 431-435, 451-455, 461-465) over the MPTCP connection.
A superconducting magnet arrangement comprising - a field coil assembly having (i) coil windings with field coil windings that when in operation are electrically superconducting and (ii) connection ports for a voltage supply, - the field coil assembly's coil windings being circuited between the connection ports - and a switching module to switch a sub-section of the field coil assembly's coil windings between its electrical superconducting and electrical resistive states, said sub-section forming a switching coil circuited between the connection ports in parallel to the field coil windings, characterised in that the field coil windings and the switching coil are geometrically aligned coaxially along a common longitudinal axis while the field coil windings as well as the switching coil are azimuthally around the longitudinal axis. - a field coil assembly having (i) coil windings with field coil windings that when in operation are electrically superconducting and (ii) connection ports for a voltage supply, - the field coil assembly's coil windings being circuited between the connection ports - and a switching module to switch a sub-section of the field coil assembly's coil windings between its electrical superconducting and electrical resistive states, said sub-section forming a switching coil circuited between the connection ports in parallel to the field coil windings, characterised in that the field coil windings and the switching coil are geometrically aligned coaxially along a common longitudinal axis while the field coil windings as well as the switching coil are azimuthally around the longitudinal axis.
A method of forming a semiconductor device comprising: providing a silicon substrate having a gate electrode, and a spacer (420,440) formed on the sidewall (421,441) of the gate electrode; etching the silicon substrate to form a recessed interface; forming an epitaxial region (531, 532) over the recessed interface by alternatingly exposing the silicon substrate to a first precursor comprising a silicon-containing compound, a carbon-containing compound and a dopant, and a second precursor comprising an etchant gas, wherein alternatingly exposing the silicon substrate to the first precursor and the second precursor comprises: exposing the silicon substrate to the first precursor to deposit an epitaxial film (511,512) over the recessed interface, and deposit an amorphous layer on the sidewall and bottom surface (422,442) of the spacer; and exposing the silicon substrate to the second precursor to remove the amorphous layer from the sidewall and bottom surface of the spacer; and selectively depositing a cap layer (541,542) over the epitaxial region by exposing the silicon substrate to a third precursor comprising the same silicon-containing compound and dopant of the first precursor, and the same etchant gas of the second precursor. providing a silicon substrate having a gate electrode, and a spacer (420,440) formed on the sidewall (421,441) of the gate electrode; etching the silicon substrate to form a recessed interface; forming an epitaxial region (531, 532) over the recessed interface by alternatingly exposing the silicon substrate to a first precursor comprising a silicon-containing compound, a carbon-containing compound and a dopant, and a second precursor comprising an etchant gas, wherein alternatingly exposing the silicon substrate to the first precursor and the second precursor comprises: exposing the silicon substrate to the first precursor to deposit an epitaxial film (511,512) over the recessed interface, and deposit an amorphous layer on the sidewall and bottom surface (422,442) of the spacer; and exposing the silicon substrate to the second precursor to remove the amorphous layer from the sidewall and bottom surface of the spacer; and exposing the silicon substrate to the first precursor to deposit an epitaxial film (511,512) over the recessed interface, and deposit an amorphous layer on the sidewall and bottom surface (422,442) of the spacer; and exposing the silicon substrate to the second precursor to remove the amorphous layer from the sidewall and bottom surface of the spacer; and selectively depositing a cap layer (541,542) over the epitaxial region by exposing the silicon substrate to a third precursor comprising the same silicon-containing compound and dopant of the first precursor, and the same etchant gas of the second precursor.
A method for producing an ultra-high-molecular-weight polyethylene porous membrane, comprising: a step of molding a film using an ultra-high-molecular-weight polyethylene raw material having a viscosity average molecular weight determined according to the description of from 1,000,000 to 12,000,000; a step of biaxially stretching the film obtained in the above step, in X-axis and Y-axis directions in a temperature range of from a melting point of the film to 180°C; a step of shrinking the biaxially stretched film obtained in the above step, along at least one axis of the X-axis or Y-axis; and a pore-forming step of stretching the shrunk film obtained in the above step, along at least one axis of the X-axis or Y-axis in a temperature range of from 142°C to 170°C. a step of molding a film using an ultra-high-molecular-weight polyethylene raw material having a viscosity average molecular weight determined according to the description of from 1,000,000 to 12,000,000; a step of biaxially stretching the film obtained in the above step, in X-axis and Y-axis directions in a temperature range of from a melting point of the film to 180°C; a step of shrinking the biaxially stretched film obtained in the above step, along at least one axis of the X-axis or Y-axis; and a pore-forming step of stretching the shrunk film obtained in the above step, along at least one axis of the X-axis or Y-axis in a temperature range of from 142°C to 170°C.
A biological fluid constituent sampling and concentration measurement device, said device comprising: (a) at least one skin-piercing member comprising a biological fluid access opening; (b) an electrochemical cell for measuring the concentration of analyte within the biological fluid, wherein the electrochemical cell comprises two spaced-apart electrodes defining a reaction chamber, wherein a first of the electrodes is porous and on the same side of the reaction chamber as the skin-piercing member and the second of the electrodes is a porous electrode on the other side of the reaction chamber; and (c) a constituent transfer medium comprising a hydrophilic material in fluid communication with the at least one skin-piercing member and with the reaction chamber, wherein the pores in the second electrode run through the majority of the electrode, are much smaller than those in the first electrode, and are sufficiently small to create a capillary force on fluid. (a) at least one skin-piercing member comprising a biological fluid access opening; (b) an electrochemical cell for measuring the concentration of analyte within the biological fluid, wherein the electrochemical cell comprises two spaced-apart electrodes defining a reaction chamber, wherein a first of the electrodes is porous and on the same side of the reaction chamber as the skin-piercing member and the second of the electrodes is a porous electrode on the other side of the reaction chamber; and (c) a constituent transfer medium comprising a hydrophilic material in fluid communication with the at least one skin-piercing member and with the reaction chamber, wherein the pores in the second electrode run through the majority of the electrode, are much smaller than those in the first electrode, and are sufficiently small to create a capillary force on fluid.
An antibody comprising a first Fc-region polypeptide and a second Fc-region polypeptide, wherein the first and the second Fc-region polypeptide are both of human IgG1 or human IgG4 subclass and comprise one of the mutations selected from the group I253A, H310A and H435A (numbering according to Kabat EU index numbering system) in the first Fc-region polypeptide and two of the mutations selected from the group comprising the mutations I253A, H310A, H435A (numbering according to Kabat EU index numbering system) in the second Fc-region polypeptide so that all of the mutations in the first and the second Fc-region polypeptide when taken together result in that the mutations I253A, H310A and H435A are comprised in the Fc-region.
A method for manufacturing a photo cured material having a predetermined patterned shape, comprising the steps of: placing a photo-curable composition on the substrate; bringing a mold into contact with the photo-curable composition; irradiating the photo-curable composition with light; and releasing the mold from the photo-curable composition, wherein the contact is performed in a condensable gas atmosphere, the condensable gas condenses under a temperature condition at the contact and under a pressure condition that the condensable gas receives when the photo-curable composition intrudes gaps between the substrate and the mold or concavities provided on the mold, and the photo-curable composition includes a gas dissolution inhibitor for preventing the photo-curable composition or the photo cured material from being penetrated or dissolved by the condensable gas, wherein a weight change of the gas dissolution inhibitor when the gas dissolution inhibitor is exposed to the condensable gas atmosphere is -1.0% to 3.0%. placing a photo-curable composition on the substrate; bringing a mold into contact with the photo-curable composition; irradiating the photo-curable composition with light; and releasing the mold from the photo-curable composition, wherein the contact is performed in a condensable gas atmosphere, the condensable gas condenses under a temperature condition at the contact and under a pressure condition that the condensable gas receives when the photo-curable composition intrudes gaps between the substrate and the mold or concavities provided on the mold, and the photo-curable composition includes a gas dissolution inhibitor for preventing the photo-curable composition or the photo cured material from being penetrated or dissolved by the condensable gas, wherein a weight change of the gas dissolution inhibitor when the gas dissolution inhibitor is exposed to the condensable gas atmosphere is -1.0% to 3.0%.