mhurhangee/ep-ind-claims huggingface dataset:
A antigen for use in the treatment of a type 1 hypersensitivity immune response in an individual in need thereof, wherein i) the type 1 hypersensitivity immune response is triggered by an allergen upon the individual's exposure to an environmental or dietary source material comprising said allergen; ii) the proteinaceous antigen is obtainable from said environmental or dietary source material; iii) the proteinaceous antigen is unrelated to the allergen(s) triggering the hypersensitivity immune response in the sense that it 1) does not bind IgE antibodies derived from said individual in detectable levels in a RAST test and/or 2) does not induce a hypersensitivity immune reaction in said individual; iv) the proteinaceous antigen is administered in a therapeutically effective amount to a mucosa of the oral cavity of said individual, and v) the proteinaceous antigen is not co-administered together with said allergen. i) the type 1 hypersensitivity immune response is triggered by an allergen upon the individual's exposure to an environmental or dietary source material comprising said allergen; ii) the proteinaceous antigen is obtainable from said environmental or dietary source material; iii) the proteinaceous antigen is unrelated to the allergen(s) triggering the hypersensitivity immune response in the sense that it 1) does not bind IgE antibodies derived from said individual in detectable levels in a RAST test and/or 2) does not induce a hypersensitivity immune reaction in said individual; iv) the proteinaceous antigen is administered in a therapeutically effective amount to a mucosa of the oral cavity of said individual, and v) the proteinaceous antigen is not co-administered together with said allergen.
A method of isolating an insoluble target silk protein from a suspension of intact or disrupted host cells comprising the steps of: a) providing a suspension of intact or disrupted host cells comprising an insoluble target silk protein and insoluble host cell parts, b) adding an aqueous solution of at least one base to said suspension, wherein the base is in an amount which is sufficient to disrupt said host cells and/or to solubilize said insoluble host cell parts, and c) separating the insoluble target silk protein from the solubilized insoluble host cell parts, wherein in step b) the target silk protein remains insoluble, and wherein at least 80% of the insoluble host cell parts are solubilized. a) providing a suspension of intact or disrupted host cells comprising an insoluble target silk protein and insoluble host cell parts, b) adding an aqueous solution of at least one base to said suspension, wherein the base is in an amount which is sufficient to disrupt said host cells and/or to solubilize said insoluble host cell parts, and c) separating the insoluble target silk protein from the solubilized insoluble host cell parts,
A connector (100; 100') having an insulator and at least one female contact, wherein - the female contact has a metal plate, - the plate is connected to a cabling region of the female contact with a cable joined to the connector, - the plate on a receiving region of the female contact has a hollow space for receiving a male contact, and - a segment of the plate is configured as a closure which separates the hollow space of the receiving region from the cabling region, characterized in that the connector has a screw ring, by means of which the connector (100; 100') can be screwed to a male connector (200; 200'), wherein the screw ring is impeded from turning in the unscrewing direction by an open impeding ring of the connector (100; 100'), and wherein the impeding ring has a latching nose which engages in the grating of the insulator, and a fastening lug which engages in a fastening engagement of the screw ring. - the female contact has a metal plate, - the plate is connected to a cabling region of the female contact with a cable joined to the connector, - the plate on a receiving region of the female contact has a hollow space for receiving a male contact, and - a segment of the plate is configured as a closure which separates the hollow space of the receiving region from the cabling region,
A paint container which comprises at least one bottom element forming a bottom surface and at least one side wall, characterized in that the bottom element and the side wall in the state lying on the bottom surface form at least two trough-like regions which are configured to be leak-proof in relation to the paint, that at least one handle-type element is provided which is connected integrally at least to the bottom element, wherein the handle-like element is arranged between the two trough-like regions and the handle-like elements is provided with a wipe-off grid.
A tool for differentially compressing a powder material, comprising: a differential compression piston comprising a first part (40, 42) and a second part (43, 47), and a support for the powder material, for being located opposite to the differential compression piston with respect to the powder material, the differential compression piston and the support being configured so that the first part (40, 42) exerts a first pressure on a first region of an external surface which delimits the powder material, the second part (43, 47) including a recess laterally spaced from the first part (40, 42) and configured to face a second region of the external surface of the powder material, a membrane which is deformable by an action of the differential compression piston, the deformable membrane being configured to control movements of powder material between the first region and second region, by being between the powder material and the differential compression piston, and by mechanically deforming during the compression exerted by the first part (40, 42) and by reaction of the powder material on the membrane facing the recess, the recess between the second part (43, 47) with respect to the first part (40, 42) remains constant in dimension, to make a piece with an external surface comprising a first region having a specific density greater than that of a second region of the external surface of the piece. a differential compression piston comprising a first part (40, 42) and a second part (43, 47), and a support for the powder material, for being located opposite to the differential compression piston with respect to the powder material, the differential compression piston and the support being configured so that the first part (40, 42) exerts a first pressure on a first region of an external surface which delimits the powder material, the second part (43, 47) including a recess laterally spaced from the first part (40, 42) and configured to face a second region of the external surface of the powder material, a membrane which is deformable by an action of the differential compression piston, the deformable membrane being configured to control movements of powder material between the first region and second region, by being between the powder material and the differential compression piston, and by mechanically deforming during the compression exerted by the first part (40, 42) and by reaction of the powder material on the membrane facing the recess, the recess between the second part (43, 47) with respect to the first part (40, 42) remains constant in dimension, to make a piece with an external surface comprising a first region having a specific density greater than that of a second region of the external surface of the piece.
A latch assembly for retaining a battery within a battery compartment, comprising: a housing having a first end and a second end, the housing defining four sides of a battery pack configured for insertion into a battery compartment, the housing also having a slot formed in one of the sides at the first end of the housing; characterised in that; a latch having a projection formed on a first end of the latch and configured to moveably extend through the slot in the housing, the projection having a first, angled, side and a second, flat, side, the latch also having a second end opposite the first end of the latch, and a front face and a rear face, the front face having a slot disposed therein; a compression spring disposed between the second end of the latch and a side of the housing opposite the slot, the spring for biasing the latch upwards extending the projection through the slot into a position for engaging a latch receiver disposed in a device to be powered by the battery pack; a latch lever pivotally mounted at the first end of the housing, the latch lever having a wing and a toggle disposed about the pivot perpendicular to each other, the wing configured to engage the slot disposed in the front face of the latch such that movement of the toggle causes the wing to impart movement to the latch within the housing to withdraw the projection into the slot of the housing. a housing having a first end and a second end, the housing defining four sides of a battery pack configured for insertion into a battery compartment, the housing also having a slot formed in one of the sides at the first end of the housing; characterised in that; a latch having a projection formed on a first end of the latch and configured to moveably extend through the slot in the housing, the projection having a first, angled, side and a second, flat, side, the latch also having a second end opposite the first end of the latch, and a front face and a rear face, the front face having a slot disposed therein; a compression spring disposed between the second end of the latch and a side of the housing opposite the slot, the spring for biasing the latch upwards extending the projection through the slot into a position for engaging a latch receiver disposed in a device to be powered by the battery pack; a latch lever pivotally mounted at the first end of the housing, the latch lever having a wing and a toggle disposed about the pivot perpendicular to each other, the wing configured to engage the slot disposed in the front face of the latch such that movement of the toggle causes the wing to impart movement to the latch within the housing to withdraw the projection into the slot of the housing.
A method for replacing wind turbine components, characterised in that it comprises: a) Moving the components to be replaced and a telescopic structure, made up of two segments (3.1 and 3.2), closer to the tower, b) Placing around the base of the tower a series of collars which are horizontal, adjustable, able to be fastened and moved on the tower, in a number greater than or equal to that of the mobile segments (3.1,3.2) of the telescopic structure, each of the collars of which is connected to a mobile segmeni (3.1,3.2) of the telescopic structure. c) Situating the telescopic structure in the vertical position, together with the tower, and fastening it to said tower, at least through the lower segment (3.1), by means of webbings mounted around the tower and adjustable tension rods connecting the webbings to the lower segment (3.1). d) Lifting the telescopic structure, by means of rolling the collars connected to the segments of said telescopic structure on the tower, until it reaches the tower head; e) then proceeding to lower the component to be replaced and raise the new component, through said telescopic structure wherein the raising or lowering of the telescopic structure is carried out by means of fastening, releasing and alternating movements on the tower of the two segments (3.1 and 3.2) which make up the telescopic structure. a) Moving the components to be replaced and a telescopic structure, made up of two segments (3.1 and 3.2), closer to the tower, b) Placing around the base of the tower a series of collars which are horizontal, adjustable, able to be fastened and moved on the tower, in a number greater than or equal to that of the mobile segments (3.1,3.2) of the telescopic structure, each of the collars of which is connected to a mobile segmeni (3.1,3.2) of the telescopic structure. c) Situating the telescopic structure in the vertical position, together with the tower, and fastening it to said tower, at least through the lower segment (3.1), by means of webbings mounted around the tower and adjustable tension rods connecting the webbings to the lower segment (3.1). d) Lifting the telescopic structure, by means of rolling the collars connected to the segments of said telescopic structure on the tower, until it reaches the tower head; e) then proceeding to lower the component to be replaced and raise the new component, through said telescopic structure wherein the raising or lowering of the telescopic structure is carried out by means of fastening, releasing and alternating movements on the tower of the two segments (3.1 and 3.2) which make up the telescopic structure.
A method of manufacturing a lash adjuster assembly (10b; 10c), the method comprising: forming a lash adjuster body (20b; 20c) to an as-formed condition including an outer cylindrical surface (32b; 32c) and an inner cylindrical surface (33b; 33c) having a leak down portion (34b; 34c) and a blind bore (40b; 40c); imparting a wear resistant surface layer to at least the leak down portion of the inner cylindrical surface and to a select portion of the lash adjuster body with a sub-critical temperature process; and preserving the leak down portion in the as-formed condition during imparting of the wear resistant surface layer; and subsequent to imparting the wear resistant surface layer, removing the wear resistant surface layer at a select portion of the lash adjuster body (20b; 20c); crimping the select portion of the lash adjuster body (20b; 20c) to create a hook portion (98b; 98c) configured to retain a leak down and ball plunger (22b; 22c) of the lash adjuster assembly (10b; 10c). forming a lash adjuster body (20b; 20c) to an as-formed condition including an outer cylindrical surface (32b; 32c) and an inner cylindrical surface (33b; 33c) having a leak down portion (34b; 34c) and a blind bore (40b; 40c); imparting a wear resistant surface layer to at least the leak down portion of the inner cylindrical surface and to a select portion of the lash adjuster body with a sub-critical temperature process; and preserving the leak down portion in the as-formed condition during imparting of the wear resistant surface layer; and subsequent to imparting the wear resistant surface layer, removing the wear resistant surface layer at a select portion of the lash adjuster body (20b; 20c); crimping the select portion of the lash adjuster body (20b; 20c) to create a hook portion (98b; 98c) configured to retain a leak down and ball plunger (22b; 22c) of the lash adjuster assembly (10b; 10c).
A lightweight support structure comprising: - a composite sandwich panel comprising: - a first face sheet; - a lightweight core attached to the first face sheet; - an optional second face sheet attached to the lightweight core opposite the first face sheet; and - an essentially rotationally symmetric cut-out extending through the first face sheet and into said lightweight core; and - a rotationally symmetric insert fitted into said cut-out for load application and/or anchorage of various components into, respectively onto the composite sandwich panel, characterized in that: - the cut-out comprises an essentially rotationally symmetric inner cut-out and an essentially rotationally symmetric outer cut-out arranged essentially concentric with respect to each other, providing for a support in between; - said support comprises a core support cut from said lightweight core and a support face sheet disc on top, cut from of said first face sheet; and - the core support is preferably compressed so as to allow said insert to lie flatly inside the composite sandwich panel. - a composite sandwich panel comprising: - a first face sheet; - a lightweight core attached to the first face sheet; - an optional second face sheet attached to the lightweight core opposite the first face sheet; and - an essentially rotationally symmetric cut-out extending through the first face sheet and into said lightweight core; and - a first face sheet; - a lightweight core attached to the first face sheet; - an optional second face sheet attached to the lightweight core opposite the first face sheet; and - an essentially rotationally symmetric cut-out extending through the first face sheet and into said lightweight core; and - a rotationally symmetric insert fitted into said cut-out for load application and/or anchorage of various components into, respectively onto the composite sandwich panel, - the cut-out comprises an essentially rotationally symmetric inner cut-out and an essentially rotationally symmetric outer cut-out arranged essentially concentric with respect to each other, providing for a support in between; - said support comprises a core support cut from said lightweight core and a support face sheet disc on top, cut from of said first face sheet; and - the core support is preferably compressed so as to allow said insert to lie flatly inside the composite sandwich panel.
A composition comprising a modified cellulose derivative having a molecular weight from 20 000 to 500 000 kDaltons or mixtures thereof and a cellulase enzyme characterised in that the weight ratio of the modified cellulose derivative to the active cellulase enzyme protein is from 20:1 to 10000:1 and wherein the composition does not contain 0.7 to 0.9 % by weight of the total composition, of sodium nonanoyl oxybenzene sulfonate, and does not contain 10 % by weight based of the total composition, of sodium perborate monohydrate, in which the enzyme is a bacterial alkaline enzyme exhibiting endo-beta-1,4-glucanase activity (E.C. 3.2.1.4).
Device for harvesting stalk-like stem crops, with a number of picking units, which are arranged side by side on the frame of the device and each has at least one picking rotor, picking plates that laterally delimit a picking gap, and conveying units that are assigned to said picking plates and are designed as continuous conveyors driven in circulation, said device also having a series gearbox driving the elements of each picking unit, longitudinal beams arranged between the picking gaps for supporting elements of the picking units, a transverse beam to which the picking units are attached, a transverse conveying device arranged downstream of the conveying units, the picking units are connected to the transverse beam at their rear sides via the series gearbox and via a longitudinal beam or only via a longitudinal beam and the transverse beam is arranged in a horizontal plane in which the series gearboxes of the picking units are arranged, wherein each of the longitudinal beams is suspended on the transverse beam via at least one hook-like bracket and at the rear end of the longitudinal beam, one hook-like bracket is formed in the upper region of the longitudinal beam and an additional hook-like bracket and/or a clamping element is formed in the lower region of the longitudinal beam, and the two hook-like brackets and/or the bracket of the longitudinal beam and the clamping element connected to the longitudinal beam encompass the transverse beam in a positive connection, characterised in that the transverse beam, as part of the frame, connects longitudinal braces to one another in the transverse direction at their forward-facing ends, said longitudinal braces extending from a rear transverse tube underneath the transverse conveying device and through to the front.
Vulcanization mould for pneumatic vehicle tyres, having mould parts, such as profile-ring segments and side shells, which respectively have an inner side towards the mould cavity and are provided with at least one through-bore for a mould pin, into which, instead of a mould pin, a metallic insert is inserted in an exchangeable manner and from the inner side and so as to be secured against twisting, characterized in that the insert has a three-dimensionally structured element protruding by 0.3 mm to 2.0 mm beyond the mould inner side.
A method performed by a wireless device in a wireless communication system, the method comprising: transmitting a first codeword and a second codeword through a physical uplink shared channel, PUSCH; and determining a first physical hybrid automatic repeat request indicator channel, PHICH, resource and a second PHICH resource respectively corresponding to the first codeword and the second codeword, wherein the first PHICH resource and the second PHICH resource are determined based on the equations below: n PHICH group = I PRB _ RA lowest _ index + β + n DMRS mod N PHICH group + I PHICH N PHICH group, and n PHICH seq = ⌊ I PRB _ RA lowest _ index + β / N PHICH group ⌋ + n DMRS mod 2 N SF PHICH where n PHICH group is an index of a PHICH group, n PHICH seq is an orthogonal sequence index in the PHICH group, n DMRS is a cyclic shift field for a demodulation reference signal, DMRS, I PRB _ RA lowest _ index is a lowest physical resource block, PRB, index among PRBs in a first slot to which the PUSCH is mapped, β is an offset, N PHICH group is a number of PHICH groups, I PHICH has a value of 0 or 1, and N SF PHICH is a spreading factor, and wherein an offset β for the first PHICH resource is a first value, and wherein an offset β for the second PHICH resource is a second value different from the first value. transmitting a first codeword and a second codeword through a physical uplink shared channel, PUSCH; and determining a first physical hybrid automatic repeat request indicator channel, PHICH, resource and a second PHICH resource respectively corresponding to the first codeword and the second codeword, wherein the first PHICH resource and the second PHICH resource are determined based on the equations below: n PHICH group = I PRB _ RA lowest _ index + β + n DMRS mod N PHICH group + I PHICH N PHICH group, and n PHICH seq = ⌊ I PRB _ RA lowest _ index + β / N PHICH group ⌋ + n DMRS mod 2 N SF PHICH where n PHICH group is an index of a PHICH group, n PHICH seq is an orthogonal sequence index in the PHICH group, n DMRS is a cyclic shift field for a demodulation reference signal, DMRS, I PRB _ RA lowest _ index is a lowest physical resource block, PRB, index among PRBs in a first slot to which the PUSCH is mapped, β is an offset, N PHICH group is a number of PHICH groups, I PHICH has a value of 0 or 1, and N SF PHICH is a spreading factor, and wherein an offset β for the first PHICH resource is a first value, and wherein an offset β for the second PHICH resource is a second value different from the first value.
A method of capturing and storing CO 2 on a vehicle, comprising: contacting a vehicle exhaust gas with one or more of a first metal organic framework composition, sufficient to separate CO 2 from the exhaust gas; contacting the separated CO 2 with one or more of a second MOF composition, sufficient to store the CO 2; and wherein the one or more first MOF composition comprises one or more SIFSIX-n-M MOF and wherein M is a metal and n is 2 or 3, and wherein the one or more second MOF composition comprises a soc-MOF analogue. contacting a vehicle exhaust gas with one or more of a first metal organic framework composition, sufficient to separate CO 2 from the exhaust gas; contacting the separated CO 2 with one or more of a second MOF composition, sufficient to store the CO 2; and wherein the one or more first MOF composition comprises one or more SIFSIX-n-M MOF and wherein M is a metal and n is 2 or 3, and wherein the one or more second MOF composition comprises a soc-MOF analogue.