mhurhangee/ep-ind-claims huggingface dataset:
Method for mounting a safety device and for mounting the safety device on a syringe body before the syringe body is filled, comprising the steps of: a. providing a sleeve (3; 22), a spring element and a mounting element, b. inserting the spring element into the interior of the sleeve (3; 22) along a mounting direction, c. inserting the mounting element into the interior of the sleeve (3; 22) along the mounting direction, d. obtaining the safety device, e. mounting the safety device on the syringe body before the syringe body is filled by connecting the mounting element to the syringe body; f. mounting the syringe body together with the safety device mounted thereon in a syringe nest for subsequent filling of the syringe body; at least one guide pin being arranged on the mounting element and the sleeve comprising at least one recess, which forms a guide slot for guiding the guide pin, and comprises at least one slanting portion at a proximal end, which constitutes a depression in the inner wall of the sleeve and is designed complementarily to the at least one guide pin, and, in step c., the mounting element being connected to the sleeve (3; 22) by means of the at least one guide pin, the guide pin being guided by the slanting portion and by the guide slot, the guide pin being guided in a movement of the syringe body relative to the safety device, the mounting element, for this purpose, rotating about an axis of the syringe body and not moving in the axial direction of the syringe body, characterised in that the safety device is first assembled and then mounted on the syringe body in a single step as a unit. a. providing a sleeve (3; 22), a spring element and a mounting element, b. inserting the spring element into the interior of the sleeve (3; 22) along a mounting direction, c. inserting the mounting element into the interior of the sleeve (3; 22) along the mounting direction, d. obtaining the safety device, e. mounting the safety device on the syringe body before the syringe body is filled by connecting the mounting element to the syringe body; f. mounting the syringe body together with the safety device mounted thereon in a syringe nest for subsequent filling of the syringe body; at least one guide pin being arranged on the mounting element and the sleeve comprising at least one recess, which forms a guide slot for guiding the guide pin, and comprises at least one slanting portion at a proximal end, which constitutes a depression in the inner wall of the sleeve and is designed complementarily to the at least one guide pin, and, in step c., the mounting element being connected to the sleeve (3; 22) by means of the at least one guide pin, the guide pin being guided by the slanting portion and by the guide slot, the guide pin being guided in a movement of the syringe body relative to the safety device, the mounting element, for this purpose, rotating about an axis of the syringe body and not moving in the axial direction of the syringe body, characterised in that the safety device is first assembled and then mounted on the syringe body in a single step as a unit.
A cap suitable for use in enteral feeding from a container, the cap comprising: a base having a top surface, a bottom surface, and an outer ring, the top surface having a protruding port suitable for insertion of a spike connector and the outer ring configured for attachment to a container having a mouth, wherein the protruding port defines a spike insertion chamber extending from a spike connector insert aperture to a spike connector outlet aperture; characterised in that the cap further comprises an insert cutter having a first end portion attached to the bottom surface of the base and about an edge of the spike connector outlet aperture and a second end portion extending over at least a portion of the spike connector outlet aperture, wherein the insert cutter is capable of flexing at a hinge in an insertion direction (D 1) of a spike connector inserted through the spike insertion chamber. a base having a top surface, a bottom surface, and an outer ring, the top surface having a protruding port suitable for insertion of a spike connector and the outer ring configured for attachment to a container having a mouth, wherein the protruding port defines a spike insertion chamber extending from a spike connector insert aperture to a spike connector outlet aperture; characterised in that the cap further comprises an insert cutter having a first end portion attached to the bottom surface of the base and about an edge of the spike connector outlet aperture and a second end portion extending over at least a portion of the spike connector outlet aperture, wherein the insert cutter is capable of flexing at a hinge in an insertion direction (D 1) of a spike connector inserted through the spike insertion chamber.
An x-ray sensor system comprising: - a scintillator configured for absorbing x-ray photons and emitting photons in the visible range to thus generate a light image; - an image sensor arranged in combination with said scintillator and configured for capturing said light image, wherein said image sensor includes a pixel based on a doped substrate on which a lightly doped epitaxial layer is provided, wherein an isolating reversely biased well is defined in said epitaxial layer, said reversely biased well being smaller than said epitaxial layer and a photosensitive structure is encapsulated in said reversely biased well, said photosensitive structure being smaller than said reversely biased well, wherein said photosensitive structure functions as a depletion region in which light from said scintillator is converted to electrical carriers that constitute a signal, and said photosensitive structure is contained in its entirety within said reversely biased well, wherein said photosensitive structure is designed with a depth and thickness that is smaller than 4 μm, and wherein: said substrate is a P+ substrate, said epitaxial layer is a P- layer, said reversely biased well is an N well, and an anode of the photosensitive structure of the pixel is a P+ implant; or said substrate is a N+ substrate, said epitaxial layer is a N- layer, said reversely biased well is a P well, and a cathode of the photosensitive structure of the pixel is a N+ implant, characterized in that said photosensitive structure is designed with a depth and thickness that is larger than 0.5 μm. - a scintillator configured for absorbing x-ray photons and emitting photons in the visible range to thus generate a light image; - an image sensor arranged in combination with said scintillator and configured for capturing said light image, said substrate is a P+ substrate, said epitaxial layer is a P- layer, said reversely biased well is an N well, and an anode of the photosensitive structure of the pixel is a P+ implant; or said substrate is a N+ substrate, said epitaxial layer is a N- layer, said reversely biased well is a P well, and a cathode of the photosensitive structure of the pixel is a N+ implant, characterized in that said photosensitive structure is designed with a depth and thickness that is larger than 0.5 μm.
A stereostructure (11, 91) containing a conductive material, comprising: a core portion (12, 92) and a porous portion (13, 93) located around the core portion (12, 92), wherein: the porous portion 1 (13, 93) located inside a position which is inside from an outer edge of the porous portion (13, 93) by 3/20 of a diameter of the stereostructure (11, 91) in an arbitrary cross section of the stereostructure has a void ratio per unit area of less than or equal to 80%; an inner edge of the porous portion (13, 93) has minute radial irregularities along the entire periphery; the porous portion (13, 93) is provided by removing a portion of a base material (11, 91) by etching or the like; the shape of the base material (11, 91) is a wire-like shape or a block-like shape not including a shape having a thickness of less than or equal to 1 mm; and the base material is constituted of aluminum. a core portion (12, 92) and a porous portion (13, 93) located around the core portion (12, 92), wherein: the porous portion 1 (13, 93) located inside a position which is inside from an outer edge of the porous portion (13, 93) by 3/20 of a diameter of the stereostructure (11, 91) in an arbitrary cross section of the stereostructure has a void ratio per unit area of less than or equal to 80%; an inner edge of the porous portion (13, 93) has minute radial irregularities along the entire periphery; the porous portion (13, 93) is provided by removing a portion of a base material (11, 91) by etching or the like; the shape of the base material (11, 91) is a wire-like shape or a block-like shape not including a shape having a thickness of less than or equal to 1 mm; and the base material is constituted of aluminum. the porous portion 1 (13, 93) located inside a position which is inside from an outer edge of the porous portion (13, 93) by 3/20 of a diameter of the stereostructure (11, 91) in an arbitrary cross section of the stereostructure has a void ratio per unit area of less than or equal to 80%; an inner edge of the porous portion (13, 93) has minute radial irregularities along the entire periphery; the porous portion (13, 93) is provided by removing a portion of a base material (11, 91) by etching or the like; the shape of the base material (11, 91) is a wire-like shape or a block-like shape not including a shape having a thickness of less than or equal to 1 mm; and the base material is constituted of aluminum.
A method of transmitting Acknowledgment/Negative-Acknowledgment, ACK/NACK, information in Fast ACK/NACK reporting, FANR, mode in a wireless communication system, the method comprising: receiving a command from a network to operate in the FANR mode, wherein the FANR mode is a mode wherein ACK/NACK information for a downlink data block is to be included in an uplink data block and transmitted; determining an ACK/NACK state for the uplink data block to be transmitted; and characterized by: transmitting the ACK/NACK information for the downlink data block in an uplink control message instead of a transmission of the uplink data block including the ACK/NACK information for the downlink data block even if a polling message from the network requesting the ACK/NACK information is not received, if the ACK/NACK state is the tentative ACK state for the uplink data block to be transmitted and if an error in the downlink data block is detected. receiving a command from a network to operate in the FANR mode, wherein the FANR mode is a mode wherein ACK/NACK information for a downlink data block is to be included in an uplink data block and transmitted; determining an ACK/NACK state for the uplink data block to be transmitted; and characterized by: transmitting the ACK/NACK information for the downlink data block in an uplink control message instead of a transmission of the uplink data block including the ACK/NACK information for the downlink data block even if a polling message from the network requesting the ACK/NACK information is not received, if the ACK/NACK state is the tentative ACK state for the uplink data block to be transmitted and if an error in the downlink data block is detected.
A method for wireless communication, comprising: generating (1512, 1514), at a base station, a wideband synchronization signal comprising a primary synchronization signal and a secondary synchronization signal to facilitate an initial cell search by a user equipment, UE, wherein the primary synchronization signal is generated based on a code sequence common to each cell in a set of cells, and the secondary synchronization signal is based on a code sequence of the base station; generating a narrowband beacon signal based on a beacon hopping pattern of the base station; wherein the beacon hopping pattern is such that for any two consecutive beacon symbols a cell identifier, ID, corresponding to the base station is associated with a unique pair of beacon subcarriers; and sending (1518, 1520) the wideband synchronization signal and the narrowband beacon signal. generating (1512, 1514), at a base station, a wideband synchronization signal comprising a primary synchronization signal and a secondary synchronization signal to facilitate an initial cell search by a user equipment, UE, wherein the primary synchronization signal is generated based on a code sequence common to each cell in a set of cells, and the secondary synchronization signal is based on a code sequence of the base station; generating a narrowband beacon signal based on a beacon hopping pattern of the base station; wherein the beacon hopping pattern is such that for any two consecutive beacon symbols a cell identifier, ID, corresponding to the base station is associated with a unique pair of beacon subcarriers; and sending (1518, 1520) the wideband synchronization signal and the narrowband beacon signal.
A fuel cell system, comprising: a fuel cell stack; a heavy hydrocarbon fuel source; a fractionator configured to separate light ends from heavy ends of a heavy hydrocarbon fuel provided from the heavy hydrocarbon fuel source; a reformer which is thermally integrated with the fuel cell stack, the reformer comprising a leading segment and a trailing segment, wherein the leading segment comprises less reactive catalyst than the trailing segment; and a conduit for providing water to a bottom of the fractionator, and wherein the fuel cell system is configured to provide steam for steam-methane reformation in the reformer by providing water to said conduit. a fuel cell stack; a heavy hydrocarbon fuel source; a fractionator configured to separate light ends from heavy ends of a heavy hydrocarbon fuel provided from the heavy hydrocarbon fuel source; a reformer which is thermally integrated with the fuel cell stack, the reformer comprising a leading segment and a trailing segment, wherein the leading segment comprises less reactive catalyst than the trailing segment; and a conduit for providing water to a bottom of the fractionator, and wherein the fuel cell system is configured to provide steam for steam-methane reformation in the reformer by providing water to said conduit.
A method for producing dipropylene glycol and/or tripropylene glycol, the method comprising steps,,, and defined below, step: the step of reacting a raw material liquid comprising propylene oxide and water to obtain a reaction liquid comprising unreacted water, propylene glycol, dipropylene glycol and/or tripropylene glycol, and an alcohol compound excluding propylene glycol, dipropylene glycol, and tripropylene glycol, step: the step of separating, from the reaction liquid, a seventh liquid comprising the water, the alcohol compound, and the propylene glycol each contained in the reaction liquid, and an eighth liquid comprising the dipropylene glycol and/or tripropylene glycol contained in the reaction liquid and optionally comprising the alcohol compound contained in the reaction liquid, step: the step of removing at least a part of the alcohol compound contained in the seventh liquid from the seventh liquid to obtain a ninth liquid comprising the propylene glycol contained in the seventh liquid, optionally comprising the whole or a part of the water contained in the seventh liquid, and optionally comprising a part of the alcohol compound contained in the seventh liquid, step: the step of recycling at least a part of the ninth liquid to step as a component of the raw material liquid. step: the step of reacting a raw material liquid comprising propylene oxide and water to obtain a reaction liquid comprising unreacted water, propylene glycol, dipropylene glycol and/or tripropylene glycol, and an alcohol compound excluding propylene glycol, dipropylene glycol, and tripropylene glycol, step: the step of separating, from the reaction liquid, a seventh liquid comprising the water, the alcohol compound, and the propylene glycol each contained in the reaction liquid, and an eighth liquid comprising the dipropylene glycol and/or tripropylene glycol contained in the reaction liquid and optionally comprising the alcohol compound contained in the reaction liquid, step: the step of removing at least a part of the alcohol compound contained in the seventh liquid from the seventh liquid to obtain a ninth liquid comprising the propylene glycol contained in the seventh liquid, optionally comprising the whole or a part of the water contained in the seventh liquid, and optionally comprising a part of the alcohol compound contained in the seventh liquid, step: the step of recycling at least a part of the ninth liquid to step as a component of the raw material liquid.
A wheel mounting axle sleeve for a gauge-changing wheelset, wherein an outer circumference of a first end of the axle sleeve is provided with a wheel mounting base, and an outer circumference of a second end of the axle sleeve is provided with a section of an outer spline extending along an axial direction of the axle sleeve, characterized in that an inner circumference of the second end of the axle sleeve is provided with a section of a first non-self-locking thread.
Coupling unit, in particular for a bolt coupling, preferably automatically operable, in particular for mounting at an agricultural towing vehicle, comprising: - a jaw section adapted and intended as guiding support for a coupling element of a drawbar of a towed vehicle to be coupled with the towing vehicle, and - a bearing bolt section adapted and intended for reception in an attachment bearing of the towing vehicle, and - a housing section adapted and intended for receiving an actuation mechanism, wherein the coupling unit is assembled with at least two coupling subunits (10A, 10B), each of which comprises a part (12A or 12B) of the jaw section, a part (16A or 16B) of the bearing bolt section and a part (14a or 14B) of the housing section, wherein the parts (12A, 14A, 16A or 12B, 14B, 16B) associated to a coupling subunit are formed as one single piece and wherein at least one of the parts (16A, 16B) of the bearing bolt section associated to the coupling subunits (10A, 10B) is hollow. - a jaw section adapted and intended as guiding support for a coupling element of a drawbar of a towed vehicle to be coupled with the towing vehicle, and - a bearing bolt section adapted and intended for reception in an attachment bearing of the towing vehicle, and - a housing section adapted and intended for receiving an actuation mechanism,
A cyclic peptide analog of galanin, wherein the galanin analog comprises a (methyl)lanthionine bridge and wherein the analog has the general formula "X1-X2-X3-X4-X5-X6-X7-X8-X9-X10-X11 -X12-X13-X14-X15-X16-X17-X18-X19-X20-X21-X22, or a truncated variant thereof lacking X1 and/or up to 6 of the C-terminal residues, wherein two residues selected from the group consisting of X13-X19 together form a Lanthionine bridge of the structure Ala-S-Ala, or a methylLanthionine bridge of the structure Abu-S-Ala or Ala-S-Abu, wherein: X1 is pE or G X2 is WN X3 is L X4 is N X5 is A X6 is A X7 is G X8 is Y X9 is L X10 is L X11 is G or A X12 is P or A X13 is H, (me)lan, V, Q, P, Q, E, K, A X14 is A, (me)lan, L, Q, P, H, K, I X15 is V, (me)lan, P, F, G, K, A X16 is (me)lan, P, F, L, N or G X17 is N, (me)lan, P, G, S, A or H X18 is H, (me)lan, A, L, P, A or R X19 is R, (me)lan, L, M, F, A X20 is R, A, X21 is L, and X22 is A, in which pE means pyroglutamate; (me)lan means Lan or meLan, wherein Lan denotes the N- or C-terminal half of a Lanthionine (Ala-S-Ala) and meLan denotes the N- or C-terminal half of a methylLanthionine (Abu-S-Ala or Ala-S-Abu); with the proviso that not more than two of X13-X19 are (me)lan which together form a (methyl)Lanthionine bridge and wherein said (methyl)Lanthionine bridge is of the size i, i+3 or i, i+4 or i, i+5. X1 is pE or G X2 is WN X3 is L X4 is N X5 is A X6 is A X7 is G X8 is Y X9 is L X10 is L X11 is G or A X12 is P or A X13 is H, (me)lan, V, Q, P, Q, E, K, A X14 is A, (me)lan, L, Q, P, H, K, I X15 is V, (me)lan, P, F, G, K, A X16 is (me)lan, P, F, L, N or G X17 is N, (me)lan, P, G, S, A or H X18 is H, (me)lan, A, L, P, A or R X19 is R, (me)lan, L, M, F, A X20 is R, A, X21 is L, and X22 is A, pE means pyroglutamate; (me)lan means Lan or meLan, wherein Lan denotes the N- or C-terminal half of a Lanthionine (Ala-S-Ala) and meLan denotes the N- or C-terminal half of a methylLanthionine (Abu-S-Ala or Ala-S-Abu);
A dendrimer conjugate comprising a G2 to G10 polylysine dendrimer conjugated with a nitroimidazole ligand/metal complex having the following structure: wherein n is an integer from 0 to 8 inclusive; R1, R2 and R3 independently represent H, NO 2 or methyl; R'1 and R'2 independently represent H, OH, methyl, ethyl or propyl; X1, X2 and X3 independently represent ø, CO or H 2 O as allowed by the valence of metal M; and M represents a radioactive or non radioactive cold isotope of a transition metal selected from Y, Zr, Nb, Mo, Tc, Ru, Rh, Pd, Ag, Cd, Re, In or Sn. n is an integer from 0 to 8 inclusive; R1, R2 and R3 independently represent H, NO 2 or methyl; R'1 and R'2 independently represent H, OH, methyl, ethyl or propyl; X1, X2 and X3 independently represent ø, CO or H 2 O as allowed by the valence of metal M; and M represents a radioactive or non radioactive cold isotope of a transition metal selected from Y, Zr, Nb, Mo, Tc, Ru, Rh, Pd, Ag, Cd, Re, In or Sn.
A method for monitoring performance of a service delivered to user equipment devices via a communications network as perceived by a user; the method comprising: - collecting Resource Service Key Performance Indicators, R-KPIs, from network resources; - collecting System Service Key Performance Indicators, S-KPIs, from a representative sample of reporting user equipment devices using the service; - determining, for each user equipment device from the representative sample, a relationship between the collected values of R- KPIs and S-KPIs; - clustering the user equipment devices from the representative sample based on the relationships between the R-KPIs and S-KPIs; - calculating, for every cluster, a generic relationship between R-KPIs and S-KPIs - assigning non-reporting user equipment devices to the clusters; - collecting R-KPIs from network resources; and - estimating S-KPIs values based on the generic relationship and the R-KPIs collected after the generic relationship is calculated. - collecting Resource Service Key Performance Indicators, R-KPIs, from network resources; - collecting System Service Key Performance Indicators, S-KPIs, from a representative sample of reporting user equipment devices using the service; - determining, for each user equipment device from the representative sample, a relationship between the collected values of R- KPIs and S-KPIs; - clustering the user equipment devices from the representative sample based on the relationships between the R-KPIs and S-KPIs; - calculating, for every cluster, a generic relationship between R-KPIs and S-KPIs - assigning non-reporting user equipment devices to the clusters; - collecting R-KPIs from network resources; and - estimating S-KPIs values based on the generic relationship and the R-KPIs collected after the generic relationship is calculated.