mhurhangee/ep-ind-claims huggingface dataset:
A process for treating and packaging fish comprising the steps of: (a) receiving and inspecting fish at a point of intake; (b) chilling the fish by transferring the fish to a chill room with an environment temperature in the range of 0°C to 2°C; (c) fileting and portioning the fish to provide fish portions; (d) holding the portions in bulk production trays in an environment of -1°C to +1°C; (e) packing one or more of the portions to provide a package which is vacuum skin sealed (8, 101), wherein the portions are vacuum skin packed by placing the portions in a retail individual-product tray and covered with a skin film, and sealing with a vacuum pressure of less than 5mBar, and repeating said packing steps for a plurality of packages, wherein the portions are vacuum skin packed within 10 minutes of leaving the chill environment of step (d); (f) in a super-chill stage (9, 200), chilling said packages in order to reach a fish core temperature in the range of -4°C to -2°C during a time duration in the range of 45mins to 180mins, the super-chilling being implemented by delivering air with a temperature in the range of -25°C to -30°C to the packages for said duration; (g) storing the packages in a chill hold environment at a temperature of -6°C to - 1°C; and (h) despatching the packages as fish products for transport to retailers wherein the super-chilled fish packages are transported, after step (h), in a chilled environment with a temperature in the range of approximately 0°C to 2°C. (a) receiving and inspecting fish at a point of intake; (b) chilling the fish by transferring the fish to a chill room with an environment temperature in the range of 0°C to 2°C; (c) fileting and portioning the fish to provide fish portions; (d) holding the portions in bulk production trays in an environment of -1°C to +1°C; (e) packing one or more of the portions to provide a package which is vacuum skin sealed (8, 101), wherein the portions are vacuum skin packed by placing the portions in a retail individual-product tray and covered with a skin film, and sealing with a vacuum pressure of less than 5mBar, and repeating said packing steps for a plurality of packages, wherein the portions are vacuum skin packed within 10 minutes of leaving the chill environment of step (d); (f) in a super-chill stage (9, 200), chilling said packages in order to reach a fish core temperature in the range of -4°C to -2°C during a time duration in the range of 45mins to 180mins, the super-chilling being implemented by delivering air with a temperature in the range of -25°C to -30°C to the packages for said duration; (g) storing the packages in a chill hold environment at a temperature of -6°C to - 1°C; and (h) despatching the packages as fish products for transport to retailers wherein the super-chilled fish packages are transported, after step (h), in a chilled environment with a temperature in the range of approximately 0°C to 2°C.
A studdable tire (1, 101) comprising: a stud; and a tread portion (2, 102) to which the stud is mounted, wherein the tread portion (2, 102) has a designated rotation direction, the tread portion (2, 102) includes a plurality of blocks, the plurality of blocks each include a corner portion that projects forward in the rotation direction, the stud is mounted to at least one of the plurality of blocks, the stud includes a body embedded in the block and a pin portion that projects from the body in a tire radial direction, the body has a top flange formed in an outer side portion in the tire radial direction, the top flange includes a tapered portion in a planar view, and the stud is mounted to the block such that the tapered portion and the corner portion are oriented in the same direction, characterized in that, in a planar view of the tread portion (2, 102), an area centroid of the top flange of the stud is disposed so as to be distant from an end portion of the corner portion by 15 mm or less in a tire circumferential direction. a stud; and a tread portion (2, 102) to which the stud is mounted, wherein the tread portion (2, 102) has a designated rotation direction, the tread portion (2, 102) includes a plurality of blocks, the plurality of blocks each include a corner portion that projects forward in the rotation direction, the stud is mounted to at least one of the plurality of blocks, the stud includes a body embedded in the block and a pin portion that projects from the body in a tire radial direction, the body has a top flange formed in an outer side portion in the tire radial direction, the top flange includes a tapered portion in a planar view, and the stud is mounted to the block such that the tapered portion and the corner portion are oriented in the same direction, characterized in that, in a planar view of the tread portion (2, 102), an area centroid of the top flange of the stud is disposed so as to be distant from an end portion of the corner portion by 15 mm or less in a tire circumferential direction.
A system for constructing buildings comprising: - an apparatus for the 3D printing of buildings, comprising: - an elongate lifting tower extending along a lifting axis oriented in a vertical direction; - an operating unit coupled to the lifting tower; - a boom connected to the operating unit and rotating relative to the lifting tower; - an extruder mounted on the boom and configured to deliver a fluid construction material, wherein the operating unit is slidable along the lifting tower to lift and lower the boom, characterized in that the system further comprises - a supporting structure; wherein the lifting tower of the apparatus has a summit which is fastened to the supporting structure, wherein the lifting tower comprises a base and the supporting structure includes a respective base and a respective base anchoring system, configured to anchor the base of the supporting structure to the ground, wherein the base of the lifting tower rests on the ground at a first supporting point and the base of the supporting structure rests on a second supporting point, different from the first supporting point. - an apparatus for the 3D printing of buildings, comprising: - an elongate lifting tower extending along a lifting axis oriented in a vertical direction; - an operating unit coupled to the lifting tower; - a boom connected to the operating unit and rotating relative to the lifting tower; - an extruder mounted on the boom and configured to deliver a fluid construction material, wherein the operating unit is slidable along the lifting tower to lift and lower the boom, characterized in that the system further comprises - an elongate lifting tower extending along a lifting axis oriented in a vertical direction; - an operating unit coupled to the lifting tower; - a boom connected to the operating unit and rotating relative to the lifting tower; - an extruder mounted on the boom and configured to deliver a fluid construction material, - a supporting structure; wherein the lifting tower of the apparatus has a summit which is fastened to the supporting structure, wherein the lifting tower comprises a base and the supporting structure includes a respective base and a respective base anchoring system, configured to anchor the base of the supporting structure to the ground, wherein the base of the lifting tower rests on the ground at a first supporting point and the base of the supporting structure rests on a second supporting point, different from the first supporting point.
An image processing device (100a, 100b, 100c) comprising: a coding unit that codes an image acquired on a basis of a transfer function related to conversion between light and an image signal for enabling display with a luminance of greater than 100 nits; and a control unit (140, 140c) that controls a coding amount assigned to each partial region of the image in the coding unit by adjusting a quantization step used for each partial region depending on the intensity of a chrominance component of the partial region; wherein the control unit scales the quantization step used for each partial region such that a larger coding amount is assigned to a partial region with higher chrominance. a coding unit that codes an image acquired on a basis of a transfer function related to conversion between light and an image signal for enabling display with a luminance of greater than 100 nits; and a control unit (140, 140c) that controls a coding amount assigned to each partial region of the image in the coding unit by adjusting a quantization step used for each partial region depending on the intensity of a chrominance component of the partial region; wherein the control unit scales the quantization step used for each partial region such that a larger coding amount is assigned to a partial region with higher chrominance.
A method for an Internet Protocol Multimedia Subsystem "IMS" Centralized Services "ICS" capable user equipment "UE", the method comprising: receiving, at the UE, an initial Session Initiation Protocol "SIP" Invite request, the initial SIP Invite request including a session description protocol "SDP" offer allowing selection, by the UE, between an internet protocol "IP" bearer or a circuit-switched "CS" bearer for an audio session, wherein the UE supports Terminating Access Domain Selection, TADS, execution, and if the UE is on LTE and is CS only or CS preferred, the UE, in response to the initial SIP Invite request, sending a SIP response including an indication that the initial SIP Invite request is not acceptable based on an indication, from a network, of an IMS voice over packet-switched "PS" session is not supported and the UE has not performed a successful non-access stratum, NAS, combined attach procedure. receiving, at the UE, an initial Session Initiation Protocol "SIP" Invite request, the initial SIP Invite request including a session description protocol "SDP" offer allowing selection, by the UE, between an internet protocol "IP" bearer or a circuit-switched "CS" bearer for an audio session, wherein the UE supports Terminating Access Domain Selection, TADS, execution, and if the UE is on LTE and is CS only or CS preferred, the UE, in response to the initial SIP Invite request, sending a SIP response including an indication that the initial SIP Invite request is not acceptable based on an indication, from a network, of an IMS voice over packet-switched "PS" session is not supported and the UE has not performed a successful non-access stratum, NAS, combined attach procedure.
A meniscal repair apparatus comprising: a first fixation member (502, 906) and a second fixation member (508, 906); a suture length (514, 922) coupled to the first and second fixation members (502, 508, 906); means (518, 524, 908, 940) associated with the suture length (514, 922) for shortening the suture length (514, 922) between the first fixation member (502, 906) and the second fixation member (508, 906); wherein the first fixation member (502, 906) comprises a first longitudinally extended, preformed knot configuration formed of a braided, crocheted, woven or knotted first portion of the suture length that is reconfigurable for deployment and fixation with respect to tissue into a first longitudinally compressed, anchoring knot (830, 932); wherein the second fixation member (508, 906) comprises a second longitudinally extended, preformed knot configuration formed of a braided, crocheted, woven or knotted second portion of the suture length that is reconfigurable for deployment and fixation with respect to tissue into a second longitudinally compressed, anchoring knot (846, 948); and wherein the minimum transverse diameter of the first anchoring knot (830, 932) is at least three times larger than the maximum transverse diameter of the first preformed knot configuration; and wherein the minimum diameter of the second anchoring knot (846, 948) is at least three times larger than the maximum transverse diameter of the second preformed knot configuration. a first fixation member (502, 906) and a second fixation member (508, 906); a suture length (514, 922) coupled to the first and second fixation members (502, 508, 906); means (518, 524, 908, 940) associated with the suture length (514, 922) for shortening the suture length (514, 922) between the first fixation member (502, 906) and the second fixation member (508, 906); wherein the first fixation member (502, 906) comprises a first longitudinally extended, preformed knot configuration formed of a braided, crocheted, woven or knotted first portion of the suture length that is reconfigurable for deployment and fixation with respect to tissue into a first longitudinally compressed, anchoring knot (830, 932); wherein the second fixation member (508, 906) comprises a second longitudinally extended, preformed knot configuration formed of a braided, crocheted, woven or knotted second portion of the suture length that is reconfigurable for deployment and fixation with respect to tissue into a second longitudinally compressed, anchoring knot (846, 948); and wherein the minimum transverse diameter of the first anchoring knot (830, 932) is at least three times larger than the maximum transverse diameter of the first preformed knot configuration; and wherein the minimum diameter of the second anchoring knot (846, 948) is at least three times larger than the maximum transverse diameter of the second preformed knot configuration.
Shoe comprising an upper, a sole which defines a substantially flat tread surface that makes contact with the ground, and a midsole that can be removably accommodated inside said upper and can be placed on top of said sole, said midsole comprising a plurality of projections (31, 33) at least in a forefoot region, which are received inside corresponding recesses (26, 27) made in said sole, said recesses (26, 27) being blind at a relative bottom surface such that said projections (31, 33) do not project from said tread surface, wherein one end of said plurality of projections (31, 33) is in contact with said bottom surface of said recesses (26, 27) at least in said forefoot region such that said projections (31, 33) are subjected to compression by the foot of the wearer during a walking movement, wherein said projections are accommodated inside said recesses such that a gap remains defined between the projection and a lateral wall of the corresponding recess.
An image forming apparatus comprising: an image forming means arranged to form an image on a sheet; a stacking portion on which the sheet having the image formed thereon by the image forming means is to be stacked; a first roller capable of forward rotation and reverse rotation; a second roller which has a rotation center disposed below a rotation center of the first roller, and which is arranged to rotate with the first roller when the first roller makes the forward rotation when the sheet is to be discharged onto the stacking portion; a third roller which has a rotation center disposed above the rotation center of the first roller, and which is arranged to rotate with the first roller when the first roller makes the reverse rotation and then the forward rotation when a sheet having an image formed on a first side thereof by the image forming means is to be conveyed to the image forming means to form an image on a second side thereof opposite to the first side; characterized by a regulation portion provided so as to be movable between a regulation position where entering of the sheet stacked on the stacking portion into a nip portion between the first roller and the second roller is prevented, and an allowing position where discharge of the sheet by the first roller and the second roller is allowed; and a movement means arranged to cause the regulation portion to be placed in the allowing position while the first roller performs the forward rotation, and to cause the regulation portion to be placed in the regulation position while the first roller performs the reverse rotation. an image forming means arranged to form an image on a sheet; a stacking portion on which the sheet having the image formed thereon by the image forming means is to be stacked; a first roller capable of forward rotation and reverse rotation; a second roller which has a rotation center disposed below a rotation center of the first roller, and which is arranged to rotate with the first roller when the first roller makes the forward rotation when the sheet is to be discharged onto the stacking portion; a third roller which has a rotation center disposed above the rotation center of the first roller, and which is arranged to rotate with the first roller when the first roller makes the reverse rotation and then the forward rotation when a sheet having an image formed on a first side thereof by the image forming means is to be conveyed to the image forming means to form an image on a second side thereof opposite to the first side; a regulation portion provided so as to be movable between a regulation position where entering of the sheet stacked on the stacking portion into a nip portion between the first roller and the second roller is prevented, and an allowing position where discharge of the sheet by the first roller and the second roller is allowed; and a movement means arranged to cause the regulation portion to be placed in the allowing position while the first roller performs the forward rotation, and to cause the regulation portion to be placed in the regulation position while the first roller performs the reverse rotation.
Device for securing a peripheral venous catheter, which includes a body comprising a first fastening extremity (1.1), a second fastening extremity (1.2) and a connecting section (1.3) that interconnects the first fastening extremity (1.1) and the second fastening extremity (1.2), the first and second fastening extremities (1.1, 1.2) are tubular-shaped and comprise a first longitudinal groove (1.11) and a second longitudinal groove (1.21) respectively, such that through said longitudinal grooves (1.11, 1.21) a portion of the catheter may be inserted to be fastened in a folded manner as a safety loop (2.1) between the first and second fastening extremities (1.1, 1.2), wherein the connecting section (1.3) comprises a first portion (1.31) and a second portion (1.32) extending between the first and second longitudinal grooves (1.11, 1.21), in such a way that the first fastening extremity (1.1), the first portion (1.31) of the connecting section (1.3), the second fastening extremity (1.2) and the second portion (1.32) of the connecting section (1.3) form the body with a closed perimeter outline that defines a hollow internal space (1.4) adapted to be set between a first open position and a second closed position, where, through the hollow internal space (1.4), in its first open position, the portion of the catheter may be inserted for attachment thereof to the first and second fastening extremities (1.1, 1.2), and said portion of the catheter being fastened at said fastening extremities (1.1, 1.2) by arranging the hollow internal space (1.4) in its second closed position, wherein anchoring means from the first portion (1.31) to the second portion (1.32) of the connecting section (1.3), adapted to maintain the hollow internal space (1.4) of the body in its second closed position, are a tongue-and-groove joint (1.5), wherein the tongue-and-groove joint (1.5) comprises a first recess-shaped part (1.51) arranged flush between sub-portions (1.311, 1.312) of the first portion (1.31) of the connecting section (1.3), and a second projection-shaped part (1.52) arranged raised from a centre of the second portion (1.32).
A method performed by a User Equipment, in the following also referred to as UE, the method comprising: monitoring a first Physical Downlink Control Channel, in the following also referred to as PDCCH, via a first spatial Quasi-Colocation, in the following also referred to as QCL, assumption associated with a first Transmission Configuration Indicator, in the following also referred to as TCI, state, on a first monitoring occasion of a first Control Resource Set, in the following also referred to as CORESET,; monitoring a second PDCCH, via a second spatial QCL assumption associated with a second TCI state, on a second monitoring occasion of a second CORESET; and determining an interval between a last orthogonal frequency-division multiplexing, in the following also referred to as OFDM, symbol of a reference monitoring occasion and a starting OFDM symbol of a scheduled Physical Downlink Shared Channel, in the following also referred to as PDSCH, wherein the reference monitoring occasion is a last monitoring occasion of the first monitoring occasion and the second monitoring occasion, and wherein the scheduled PDSCH is scheduled by the first PDCCH and the second PDCCH; characterized by based on the interval being larger than or equal to a threshold, receiving the scheduled PDSCH via a third spatial QCL assumption associated with a third TCI state, wherein the third TCI state is determined based on a TCI state for receiving a CORESET with a lowest CORESET identity among the first CORESET identity of the first CORESET and the second CORESET identity of the second CORESET. monitoring a first Physical Downlink Control Channel, in the following also referred to as PDCCH, via a first spatial Quasi-Colocation, in the following also referred to as QCL, assumption associated with a first Transmission Configuration Indicator, in the following also referred to as TCI, state, on a first monitoring occasion of a first Control Resource Set, in the following also referred to as CORESET,; monitoring a second PDCCH, via a second spatial QCL assumption associated with a second TCI state, on a second monitoring occasion of a second CORESET; and determining an interval between a last orthogonal frequency-division multiplexing, in the following also referred to as OFDM, symbol of a reference monitoring occasion and a starting OFDM symbol of a scheduled Physical Downlink Shared Channel, in the following also referred to as PDSCH, wherein the reference monitoring occasion is a last monitoring occasion of the first monitoring occasion and the second monitoring occasion, and wherein the scheduled PDSCH is scheduled by the first PDCCH and the second PDCCH; characterized by based on the interval being larger than or equal to a threshold, receiving the scheduled PDSCH via a third spatial QCL assumption associated with a third TCI state, wherein the third TCI state is determined based on a TCI state for receiving a CORESET with a lowest CORESET identity among the first CORESET identity of the first CORESET and the second CORESET identity of the second CORESET.
Device for obtaining egg liquid from poultry eggs, comprising, - an egg holder (5a, 5b) for fixedly holding and positioning such egg along its main axis substantially vertically, - an egg opening device for decapitating such egg at both ends after having been positioned vertically, thereby having the liquid falling and flowing downwardly into at least one liquid collection reservoir arranged underneath the egg holder (5a, 5b), and - a control device for controlling positioning such egg and driving said opening device and said egg holder (5a, 5b), wherein said egg holder (5a, 5b) comprises a clamping device (5a, 5b, 6) for clamping an egg at both sides substantially parallel to its main axis which clamping device (5a, 5b, 6) is rotatable about a substantial horizontal axis. - an egg holder (5a, 5b) for fixedly holding and positioning such egg along its main axis substantially vertically, - an egg opening device for decapitating such egg at both ends after having been positioned vertically, thereby having the liquid falling and flowing downwardly into at least one liquid collection reservoir arranged underneath the egg holder (5a, 5b), and - a control device for controlling positioning such egg and driving said opening device and said egg holder (5a, 5b), wherein said egg holder (5a, 5b) comprises a clamping device (5a, 5b, 6) for clamping an egg at both sides substantially parallel to its main axis which clamping device (5a, 5b, 6) is rotatable about a substantial horizontal axis.