mhurhangee/patent-ind-claim-en huggingface dataset:
A collapsible load carrier including a rolling base and a base pusher mounted on the rolling base for movement relative to the rolling base , wherein the rolling base includes two front wheels and the base pusher includes two rear wheels, characterized in that all four wheels are disengaged from ground underlying the rolling base when the load carrier is in a flat storage mode, wherein all four wheels are arranged to engage and roll on ground underlying the rolling base when the load carrier is configured in the field by a user to assume a front-and-rear wheel cart mode, and wherein only the two front wheels are arranged to engage and roll on the ground underlying the rolling base when the load carrier is configured in the field by the user to assume a 2-wheel hand-truck mode, wherein the load carrier includes a pusher rotator having a forward lock and an aft lock , and wherein the pusher rotator provides means for blocking or allowing movement of the links between a first position, corresponding to an upright cart position of the base pusher , and a second position, corresponding to a laidback hand-truck position of the base pusher .
A method comprising: receiving, by a wireless device from a base station , a first uplink grant, for a first transport block, TB, of a hybrid acknowledgment repeat request, HARQ, process; cancelling an uplink transmission of the first TB of the HARQ process based on receiving a pre-emption indication indicating cancellation of transmission via one or more uplink resources indicated by the first uplink grant; determining, after cancelling the uplink transmission of the first TB of the HARQ process, that a received second uplink grant is used for a new transmission of a second TB associated with the HARQ process; and transmitting, by the wireless device to the base station, the second TB of the HARQ process based on the determining. receiving, by a wireless device from a base station , a first uplink grant, for a first transport block, TB, of a hybrid acknowledgment repeat request, HARQ, process; cancelling an uplink transmission of the first TB of the HARQ process based on receiving a pre-emption indication indicating cancellation of transmission via one or more uplink resources indicated by the first uplink grant; determining, after cancelling the uplink transmission of the first TB of the HARQ process, that a received second uplink grant is used for a new transmission of a second TB associated with the HARQ process; and transmitting, by the wireless device to the base station, the second TB of the HARQ process based on the determining.
A fishing ship comprising fishing equipment, fish processing equipment , and a fish storage arrangement for storage of processed fish, a main engine for propulsion of the fishing ship, and a silage facility configured to receive marine feed and to process it into a fish protein concentrate silage product, wherein the silage facility comprises - a marine feed inlet line ; - a silage tank connected to the marine feed inlet line and comprising a silage tank agitator and a heating arrangement , the silage tank being configured to produce an autolyzed silage of the marine feed; - an acid supply arrangement configured to supply an acid to the marine feed in the silage tank ; - a decanter configured to receive the silage and to separate it into oil and a separated silage, wherein the decanter comprises an oil outlet and a separated silage outlet ; - an evaporation tank comprising an agitator and a heating arrangement , the evaporation tank being configured to receive the separated silage, and wherein the evaporation tank is configured to remove water from the received separated silage, as it is connected to a vacuum unit , and to produce a fish protein concentrate silage product that comprises less water than the separated silage; and wherein the ship comprises a storage tank configured to receive the fish protein concentrate silage product. - a marine feed inlet line ; - a silage tank connected to the marine feed inlet line and comprising a silage tank agitator and a heating arrangement , the silage tank being configured to produce an autolyzed silage of the marine feed; - an acid supply arrangement configured to supply an acid to the marine feed in the silage tank ; - a decanter configured to receive the silage and to separate it into oil and a separated silage, wherein the decanter comprises an oil outlet and a separated silage outlet ; - an evaporation tank comprising an agitator and a heating arrangement , the evaporation tank being configured to receive the separated silage, and wherein the evaporation tank is configured to remove water from the received separated silage, as it is connected to a vacuum unit , and to produce a fish protein concentrate silage product that comprises less water than the separated silage;
A computer-implemented method of debugging delivery of content items, the method comprising: presenting , by a mobile application executing on a mobile device , a first application interface; generating debugging information from content event logs , wherein the content event logs are associated with content item slots in which content items are presented in the mobile application and wherein the debugging information includes status information of the content items based on the content event logs; detecting , by the mobile device, a predetermined user action; in response to detecting the predetermined user action, presenting , by a debugging interface, the debugging information; and remediating, by the debugging interface, a first exception of the debugging information based on modifying a configuration of the delivery of content items. presenting , by a mobile application executing on a mobile device , a first application interface; generating debugging information from content event logs , wherein the content event logs are associated with content item slots in which content items are presented in the mobile application and wherein the debugging information includes status information of the content items based on the content event logs; detecting , by the mobile device, a predetermined user action; in response to detecting the predetermined user action, presenting , by a debugging interface, the debugging information; and remediating, by the debugging interface, a first exception of the debugging information based on modifying a configuration of the delivery of content items.
A secondary intraocular lens, IOL, for improving the near vision of pseudo-phakic patients suffering from age-related macular degeneration, made from a foldable soft material, for surgical implantation in a sulcus ciliaris of a patient's eye in addition to at least one primary IOL that has already been implanted in the posterior chamber of the patient's eye prior to the implantation of said secondary IOL ; wherein - the secondary IOL comprises one or more haptics for fixing and stabilizing it within the sulcus ciliaris of the patient's eye - and an optically active portion designed to project the image through the primary IOL onto the retina ; - the optically active portion of the secondary IOL comprises a central optical portion and a peripheral optical portion extending around the central optical portion , forming two different, but coaxially positioned lenses from one block; - the peripheral optical portion providing a first refractive power and the central optical portion is designed to form a positive lens providing additional refractive power over the first refractive power provided by the peripheral optical portion of the secondary IOL ; - the secondary IOL is configured to be arranged optically coaxial to the primary IOL for focusing a combined image on the retina of the patient's eye additionally magnifying at least a central part of the image of the primary IOL projected onto the macula of the retina . - the secondary IOL comprises one or more haptics for fixing and stabilizing it within the sulcus ciliaris of the patient's eye - and an optically active portion designed to project the image through the primary IOL onto the retina ; - the optically active portion of the secondary IOL comprises a central optical portion and a peripheral optical portion extending around the central optical portion , forming two different, but coaxially positioned lenses from one block; - the peripheral optical portion providing a first refractive power and the central optical portion is designed to form a positive lens providing additional refractive power over the first refractive power provided by the peripheral optical portion of the secondary IOL ; - the secondary IOL is configured to be arranged optically coaxial to the primary IOL for focusing a combined image on the retina of the patient's eye additionally magnifying at least a central part of the image of the primary IOL projected onto the macula of the retina .
A vermin barrier suitable for installation in an associated sewage system , said associated sewage system comprising at least one substantially vertical sewage pipe and at least one substantially horizontal sewage pipe and having limited space in the vertical pipe of the sewage system, said barrier allowing a sewage flow within the horizontal sewage pipe to pass the barrier in a first direction of the horizontal sewage pipe, the first direction being a downstream direction , and for preventing vermin, such as rats, from passing the barrier in a second direction being opposite to the first direction upon installation of the barrier in the horizontal sewage pipe, the second direction being an upstream direction , the barrier comprising; - a mounting part , - a support structure with a first hinge and a second hinge , said first and second hinge being either directly or indirectly positioned in the support structure, - a first shutter pivotably mounted on the first hinge, - a second shutter pivotably mounted on the second hinge, - at least two fastening elements being rotatable mounted on the mounting part above the support structure, said fastening elements each having at least one first protrusion on the upper surface of the fastening elements, and wherein the fastening elements can take a passive and an active position: - in the passive position, being the position of the barrier before mounting in a sewage pipe, wherein the fastening elements are not activated for fastening, and - in the active position, being the position of the barrier after mounting in a sewage pipe, wherein the fastening elements are activated and at least the first protrusions of the fastening elements are engaging with the upper part of the substantially horizontal sewage pipe via repulsive force so as to fasten the barrier securely in the sewage pipe. - a mounting part , - a support structure with a first hinge and a second hinge , said first and second hinge being either directly or indirectly positioned in the support structure, - a first shutter pivotably mounted on the first hinge, - a second shutter pivotably mounted on the second hinge, - at least two fastening elements being rotatable mounted on the mounting part above the support structure, said fastening elements each having at least one first protrusion on the upper surface of the fastening elements, and - in the passive position, being the position of the barrier before mounting in a sewage pipe, wherein the fastening elements are not activated for fastening, and - in the active position, being the position of the barrier after mounting in a sewage pipe, wherein the fastening elements are activated and at least the first protrusions of the fastening elements are engaging with the upper part of the substantially horizontal sewage pipe via repulsive force so as to fasten the barrier securely in the sewage pipe.
A turbine engine comprising: a compressor ; a combustor ; a turbine , a gas flowpath passing consecutively through the compressor , combustor , and turbine ; and an inlet member along the gas flowpath upstream of the compressor , wherein the inlet member comprises a unitarily-formed single piece combination of: a three dimensional lattice portion ; and a nose cap body surrounding the lattice portion , characterised in that : the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm. a compressor ; a combustor ; a turbine , a gas flowpath passing consecutively through the compressor , combustor , and turbine ; and an inlet member along the gas flowpath upstream of the compressor , wherein the inlet member comprises a unitarily-formed single piece combination of: a three dimensional lattice portion ; and a nose cap body surrounding the lattice portion , characterised in that : the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm. a three dimensional lattice portion ; and a nose cap body surrounding the lattice portion , characterised in that : the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm. the lattice has a beam length measured node center to node center of 0.3 mm to 5.0 mm; and/or the lattice has a beam cross-sectional dimension of 0.05 mm to 1.5 mm; and/or the lattice portion has an axial depth at an axial centerline of less than 75% of an axial depth at a location outboard of the centerline; and/or the lattice portion has an axial depth of at least 2.0 mm.
A method for blow-fill-seal packaging of a heat sensitive product that is subject to denaturing and/or precipitation in the event that the product becomes too warm, said method comprising steps of: forming a container to provide a formed container (311/411); cooling the formed container (311/411) to a container temperature between 60°C and 80°C, said cooling step consisting of waiting for more than one second from when the container is formed, filling the formed container (311/411) with the heat sensitive product after the cooling step, and wherein the product employed in the filling step has a temperature between about 0°C to about 20°C, and immediately after filling the formed container (311/411) has a temperature no greater than 40°C; and sealing the container. forming a container to provide a formed container (311/411); cooling the formed container (311/411) to a container temperature between 60°C and 80°C, said cooling step consisting of waiting for more than one second from when the container is formed, filling the formed container (311/411) with the heat sensitive product after the cooling step, and wherein the product employed in the filling step has a temperature between about 0°C to about 20°C, and immediately after filling the formed container (311/411) has a temperature no greater than 40°C; and sealing the container.
A stream regulator for the outlet of a water tap or beverage dispenser, comprising a sleeve as well as an insert seated in the sleeve , wherein an annular channel , which provides the outlet, is located between the insert and the sleeve , and wherein an expansion chamber , which extends around the insert , is arranged between an inlet and the annular channel , characterized in that the cross sectional surface of the annular channel , based on the flow direction, reduces downstream from the expansion chamber towards the outlet to a minimum cross sectional surface, in that the annular channel , which is present between the sleeve and the insert and which initially forms the expansion chamber , reduces in its diameter and in that the insert has a conically formed head piece , which is faced by a conically inclined collar of the sleeve , which forms the end face of the sleeve .
A multispecific antibody molecule comprising at least two binding domains each with a variable heavy region VH and a variable light region VL, wherein each binding domain is specific for an antigen and comprises 6 CDRs, characterised in that at least one binding domain comprises: a. a variable heavy region, VH A , having a framework comprising SEQ ID NO: 1 for FR1, SEQ ID NO: 3 for FR2, SEQ ID NO: 4 for FR3 and SEQ ID NO: 5 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A , having a framework comprising SEQ ID NO: 6 for FR1, SEQ ID NO: 7 for FR2, SEQ ID NO: 8 for FR3, and SEQ ID NO: 10 for FR4; or b. a variable heavy region, VH A , having a framework comprising SEQ ID NO:16 for FR1, SEQ ID NO: 18 for FR2, SEQ ID NO: 19 for FR3 and SEQ ID NO: 20 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A , having a framework comprising SEQ ID NO: 11 for FR1, SEQ ID NO: 12 for FR2, SEQ ID NO: 13 for FR3, and SEQ ID NO: 15 for FR4; and wherein the at least one variable region VH A and the at least one variable region VL A are present in a dsscFv, and wherein the multispecific antibody molecule is a Fab-dsscFv or Fab-(dsscFv) 2 . a. a variable heavy region, VH A , having a framework comprising SEQ ID NO: 1 for FR1, SEQ ID NO: 3 for FR2, SEQ ID NO: 4 for FR3 and SEQ ID NO: 5 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A , having a framework comprising SEQ ID NO: 6 for FR1, SEQ ID NO: 7 for FR2, SEQ ID NO: 8 for FR3, and SEQ ID NO: 10 for FR4; or b. a variable heavy region, VH A , having a framework comprising SEQ ID NO:16 for FR1, SEQ ID NO: 18 for FR2, SEQ ID NO: 19 for FR3 and SEQ ID NO: 20 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A , having a framework comprising SEQ ID NO: 11 for FR1, SEQ ID NO: 12 for FR2, SEQ ID NO: 13 for FR3, and SEQ ID NO: 15 for FR4;
A process of manufacturing a flexible optical circuit having an adhesive face for affixing the flexible optical circuit to a surface during installation and a removable carrier film for protecting said adhesive face until installation of the flexible optical circuit , the process comprising: (a) providing a carrier film comprising an adhesive sufficiently strong to hold optical fibers in place; (b) disposing an adhesive layer in discrete patches on a portion of said carrier film, leaving portions of said carrier film exposed, said adhesive layer having a downward adhesive face and an upward adhesive face, said downward adhesive face and the adhesive of said carrier film being configured such that said carrier film is removable from said downward adhesive face for exposing the downward adhesive face, without disruption of said downward adhesive face, and the exposed downward adhesive face provides said adhesive face for affixing the flexible optical circuit to a surface; (c) routing one or more fibers on said exposed portions of said carrier film and on said upward adhesive face of the adhesive layer , wherein the routed one or more fibers overlay both an exposed portion of said carrier film and a discrete patch of said upward adhesive face of the adhesive layer ; (d) applying a coating over the upward adhesive face, said carrier film and said fibers to define an optical circuit ; and (e) optionally parting said carrier film to separate said optical circuit from other optical circuits on said carrier film; wherein the adhesive force between said carrier film and fiber is less than the adhesive force between adhesive layer and fiber so that removal of said carrier film for installing the flexible optical circuit does not disturb the downward adhesive face nor the one or more fibers . (a) providing a carrier film comprising an adhesive sufficiently strong to hold optical fibers in place; (b) disposing an adhesive layer in discrete patches on a portion of said carrier film, leaving portions of said carrier film exposed, said adhesive layer having a downward adhesive face and an upward adhesive face, said downward adhesive face and the adhesive of said carrier film being configured such that said carrier film is removable from said downward adhesive face for exposing the downward adhesive face, without disruption of said downward adhesive face, and the exposed downward adhesive face provides said adhesive face for affixing the flexible optical circuit to a surface; (c) routing one or more fibers on said exposed portions of said carrier film and on said upward adhesive face of the adhesive layer , wherein the routed one or more fibers overlay both an exposed portion of said carrier film and a discrete patch of said upward adhesive face of the adhesive layer ; (d) applying a coating over the upward adhesive face, said carrier film and said fibers to define an optical circuit ; and (e) optionally parting said carrier film to separate said optical circuit from other optical circuits on said carrier film;
A method for obtaining a population of human Treg cells comprising the steps of: (a) culturing a population of human monocytes in presence of interleukin-34 (IL-34) polypeptide in order to obtain a population of immunosuppressive macrophages; (b) co-culturing a population of human peripheral blood mononuclear cells (PBMCs) and the population of immunosuppressive macrophages obtained at step (a); and (c) isolating the population of human Treg cells obtained at step (b).