mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a script of ISO 7816 APDU Commands to send to a secure element to remotely provision a profile at the secure element, wherein: the secure element has a local store of file property data corresponding to parameters for a create file command, the method comprising: receiving a first script which comprises a create file command; determining if the create file command corresponds to a file whose file properties are stored in the local store of file property data at the secure element; if the create file command corresponds to the file whose file properties are stored, replacing the create file command with a select file command to generate a modified script; and outputting the modified script. the secure element has a local store of file property data corresponding to parameters for a create file command, the method comprising: receiving a first script which comprises a create file command; determining if the create file command corresponds to a file whose file properties are stored in the local store of file property data at the secure element; if the create file command corresponds to the file whose file properties are stored, replacing the create file command with a select file command to generate a modified script; and outputting the modified script. receiving a first script which comprises a create file command; determining if the create file command corresponds to a file whose file properties are stored in the local store of file property data at the secure element; if the create file command corresponds to the file whose file properties are stored, replacing the create file command with a select file command to generate a modified script; and outputting the modified script.
Polyolefin composition comprising (a) 50 to 90 wt.-%, based on the total of the polyolefin composition, of a heterophasic propylene copolymer (HECO) comprising a polypropylene, and an elastomeric propylene copolymer, wherein the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO) has an intrinsic viscosity of lower than 2.0 dl/g measured according to DIN ISO 1628/1 (in Decalin at 135°C), (b) a high density polyethylene (HDPE) having a density of at least 940 kg/m 3 measured according to ISO 1183-1-method A, (c) a second polyethylene having a density of below 940 kg/m 3 measured according to ISO 1183-1-method A, which is (i) a low density polyethylene (LDPE) preferably having a density of 900 to below 940 kg/m 3 measured according to ISO 1183-1-method A, or (ii) a linear low density polyethylene (LLDPE) preferably having a density of 800 to below 900 kg/m 3 measured according to ISO 1833-1-method A, (d) an inorganic filler, wherein the polyolefin composition has a melt flow rate MFR 2 (230 °C) of at least 20 g/10min measured according to ISO 1133 (230°C, 2.16 kg load). (a) 50 to 90 wt.-%, based on the total of the polyolefin composition, of a heterophasic propylene copolymer (HECO) comprising a polypropylene, and an elastomeric propylene copolymer, wherein the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO) has an intrinsic viscosity of lower than 2.0 dl/g measured according to DIN ISO 1628/1 (in Decalin at 135°C), a polypropylene, and an elastomeric propylene copolymer, (b) a high density polyethylene (HDPE) having a density of at least 940 kg/m 3 measured according to ISO 1183-1-method A, (c) a second polyethylene having a density of below 940 kg/m 3 measured according to ISO 1183-1-method A, which is (i) a low density polyethylene (LDPE) preferably having a density of 900 to below 940 kg/m 3 measured according to ISO 1183-1-method A, or (ii) a linear low density polyethylene (LLDPE) preferably having a density of 800 to below 900 kg/m 3 measured according to ISO 1833-1-method A, (i) a low density polyethylene (LDPE) preferably having a density of 900 to below 940 kg/m 3 measured according to ISO 1183-1-method A, or (ii) a linear low density polyethylene (LLDPE) preferably having a density of 800 to below 900 kg/m 3 measured according to ISO 1833-1-method A, (d) an inorganic filler,
Control unit for personal protection means for a vehicle, with: - at least one printed circuit board (43, 52) for accommodating electronic components, - a cover and a base (42, 51), between which the at least one printed circuit board (43, 52) is arranged, wherein the cover and the base (42, 51) form a housing of the control unit (ABECU), characterized in that the cover and the base are made from plastic, and the housing can be pre-fixed by at least one frictional and/or form-fitting connection for later installation, wherein said connection can be produced without a tool. - at least one printed circuit board (43, 52) for accommodating electronic components, - a cover and a base (42, 51), between which the at least one printed circuit board (43, 52) is arranged, wherein the cover and the base (42, 51) form a housing of the control unit (ABECU), characterized in that the cover and the base are made from plastic, and the housing can be pre-fixed by at least one frictional and/or form-fitting connection for later installation, wherein said connection can be produced without a tool.
A method for removing copper from lithium ion battery scrap containing copper, comprising: a leaching step of adding the lithium ion battery scrap to an acidic solution and leaching the lithium ion battery scrap under a condition that an aluminum solid is present in the acidic solution; and a copper separating step of separating copper contained in the acidic solution as a solid from the acidic solution, after the leaching step, characterized in that the leaching step is terminated before the aluminum solid in the acidic solution completely dissolves and copper contained in the lithium ion battery scrap starts to dissolve. a leaching step of adding the lithium ion battery scrap to an acidic solution and leaching the lithium ion battery scrap under a condition that an aluminum solid is present in the acidic solution; and a copper separating step of separating copper contained in the acidic solution as a solid from the acidic solution, after the leaching step, characterized in that the leaching step is terminated before the aluminum solid in the acidic solution completely dissolves and copper contained in the lithium ion battery scrap starts to dissolve.
Use of a composition comprising • at least one permeabilized nucleus of a first cell, said first cell being an induced pluripotent stem cell, i.e. iPS cell, originating from a non-human multicellular organism, and • an isolated extract of female germinal cells, or eggs, of a multicellular organism, said eggs being blocked in the metaphase II of meiosis, said extract comprising EGTA, for carrying out a method of cloning, provided that said process is not for cloning human beings. possibly, said isolated extract of female germinal cells is an isolated extract of non-human female germinal cells, or said isolated extract of eggs is an isolated extract of non-human eggs. • at least one permeabilized nucleus of a first cell, said first cell being an induced pluripotent stem cell, i.e. iPS cell, originating from a non-human multicellular organism, and • an isolated extract of female germinal cells, or eggs, of a multicellular organism, said eggs being blocked in the metaphase II of meiosis, said extract comprising EGTA,
A rotary shaft assembly for converting linear motion of a driving shaft to rotary motion of a rotatable cam of a clutch assembly, wherein the driving shaft is adapted to linearly move according to pressing or releasing of an accelerator pedal or brake pedal, wherein a first protrusion and a second protrusion are formed in a sleeve of a rotary shaft of the cam, wherein an upper guide slot and a lower guide slot are formed on the driving shaft to receive the first and the second protrusion, respectively, wherein the upper guide slot includes: a first path having a linear shape, and a second path extending to form an inclined angle with the first path, wherein the lower guide slot has the same shape as the upper guide slot rotated 180 degrees, and the lower guide slot includes: a third path having a linear shape, and a fourth path extending to form an inclined angle with the third path, wherein the first protrusion is adapted to rotate in a first rotary direction, by an inclined angle formed between the first and the second path (1006A, 1008A) according to linear movement of the driving shaft in a first linear direction, characterised in that the second protrusion is adapted to rotate in the first rotary direction, by an inclined angle formed between the third and the fourth path (1008B, 1006B) according to linear movement of the driving shaft in the first linear direction, wherein the cam is adapted to rotate according to rotations of the first and the second protrusion (3002A, 3002B). wherein the driving shaft is adapted to linearly move according to pressing or releasing of an accelerator pedal or brake pedal, wherein a first protrusion and a second protrusion are formed in a sleeve of a rotary shaft of the cam, wherein an upper guide slot and a lower guide slot are formed on the driving shaft to receive the first and the second protrusion, respectively, wherein the upper guide slot includes: a first path having a linear shape, and a second path extending to form an inclined angle with the first path, a first path having a linear shape, and a second path extending to form an inclined angle with the first path, wherein the lower guide slot has the same shape as the upper guide slot rotated 180 degrees, and the lower guide slot includes: a third path having a linear shape, and a fourth path extending to form an inclined angle with the third path, a third path having a linear shape, and a fourth path extending to form an inclined angle with the third path, wherein the first protrusion is adapted to rotate in a first rotary direction, by an inclined angle formed between the first and the second path (1006A, 1008A) according to linear movement of the driving shaft in a first linear direction, characterised in that the second protrusion is adapted to rotate in the first rotary direction, by an inclined angle formed between the third and the fourth path (1008B, 1006B) according to linear movement of the driving shaft in the first linear direction, wherein the cam is adapted to rotate according to rotations of the first and the second protrusion (3002A, 3002B).
A method of identifying vacant parking locations, the method comprising: receiving sensor data captured with respect to a parking aisle (step 401); analyzing the received sensor data to detect shadows (112a-112h) cast by parked vehicles (108a-108h) within the parking aisle (step 402) and gaps between the detected shadows; measuring one or more attributes of the detected shadows (112a-112h) (step 403), wherein measuring one or more attributes of detected shadows includes measuring one or more attributes of detected shadows includes measuring one or more of shadow length, shadow width, length-to-width ratio, and angle-of-shadow (step 403); generating a threshold(s) utilized to determine whether a gap between adjacent shadows (112f, 112g) is indicative of a parking spot vacancy based on the one or more measured attributes (step 408); detecting a vacant parking spot based on the detected shadows (112a-112h) and on the detected gaps within the detected shadows, wherein detecting a vacant parking spot based on the detected shadows and on the detected gaps within the detected shadows includes comparing the gap between the adjacent shadows (112f, 112g) to the generated threshold(s) (step 410), wherein vacant parking spots are detected in response to the gap between adjacent shadows being greater than the generated threshold(s); and generating an output indicating whether a parking spot vacancy has been detected within the parking aisle (step 412, 414). receiving sensor data captured with respect to a parking aisle (step 401); analyzing the received sensor data to detect shadows (112a-112h) cast by parked vehicles (108a-108h) within the parking aisle (step 402) and gaps between the detected shadows; measuring one or more attributes of the detected shadows (112a-112h) (step 403), wherein measuring one or more attributes of detected shadows includes measuring one or more attributes of detected shadows includes measuring one or more of shadow length, shadow width, length-to-width ratio, and angle-of-shadow (step 403); generating a threshold(s) utilized to determine whether a gap between adjacent shadows (112f, 112g) is indicative of a parking spot vacancy based on the one or more measured attributes (step 408); detecting a vacant parking spot based on the detected shadows (112a-112h) and on the detected gaps within the detected shadows, wherein detecting a vacant parking spot based on the detected shadows and on the detected gaps within the detected shadows includes comparing the gap between the adjacent shadows (112f, 112g) to the generated threshold(s) (step 410), wherein vacant parking spots are detected in response to the gap between adjacent shadows being greater than the generated threshold(s); and generating an output indicating whether a parking spot vacancy has been detected within the parking aisle (step 412, 414).
A support apparatus, comprising: a support substrate bearing a supported component, the support substrate having a first main surface facing the supported component and a second main surface positioned on a side opposite to the first main surface; and a pressure distribution plate, arranged on the first main surface of the support substrate and positioned between the support substrate and the supported component, wherein the support substrate is provided with a first through hole running from the first main surface to the second main surface in a thickness direction of the support substrate; the support apparatus further comprises a separation device, the separation device including a first protrusion; and the first protrusion is configured to pass through the first through hole and jack up the pressure distribution plate so that the pressure distribution plate moves in a direction away from the support substrate and brings the supported component to be separated from the support substrate; characterized in that: a positioning element and/or a binding element, which corresponds to the first through hole in position, is arranged on a surface of the pressure distribution plate facing the support substrate; wherein the positioning element is designed to position the first protrusion with respect to the pressure distribution plate after the first protrusion passes through the first through hole and the binding element is designed to bind the first protrusion with the pressure distribution plate after the first protrusion passes through the first through hole, the positioning element and/or the binding element thereby preventing relative movement between the first protrusion and the pressure distribution plate. a support substrate bearing a supported component, the support substrate having a first main surface facing the supported component and a second main surface positioned on a side opposite to the first main surface; and a pressure distribution plate, arranged on the first main surface of the support substrate and positioned between the support substrate and the supported component,
A tire, comprising: a pattern region that is formed at an outer surface of a tire and that includes a base; and characterized in that the tire further comprises: a plurality of unit patterns (24, 26) that are formed within the pattern region, each of the unit patterns (24, 26) including a nodal point (O1, O2) and extension portions (24E, 26E) having a projection height from the base of from 0.1 mm to 1.0 mm, the extension portions (24E, 26E) extending in a plurality of directions from the nodal point (O1, O2), in plan view, wherein a spacing between nodal points (O1, O2) of adjacent unit patterns (24, 26) among the plurality of unit patterns (24, 26) is from 0.2 mm to 1.0 mm, wherein each of the unit patterns (24, 26) have an asterisk shape having extension portions (24E, 26E) that extend radially from the nodal point (O1, O2), and wherein three or more of the extension portions (24E, 26E) are present in each of the unit patterns (24, 26), and respective angles formed between the adjacent extension portions (24E, 26E) are the same. a plurality of unit patterns (24, 26) that are formed within the pattern region, each of the unit patterns (24, 26) including a nodal point (O1, O2) and extension portions (24E, 26E) having a projection height from the base of from 0.1 mm to 1.0 mm, the extension portions (24E, 26E) extending in a plurality of directions from the nodal point (O1, O2), in plan view, wherein a spacing between nodal points (O1, O2) of adjacent unit patterns (24, 26) among the plurality of unit patterns (24, 26) is from 0.2 mm to 1.0 mm, wherein each of the unit patterns (24, 26) have an asterisk shape having extension portions (24E, 26E) that extend radially from the nodal point (O1, O2), and wherein three or more of the extension portions (24E, 26E) are present in each of the unit patterns (24, 26), and respective angles formed between the adjacent extension portions (24E, 26E) are the same.
A method of manufacturing a modified article of apparel, the method comprising: providing a fabric having a first surface and an opposite second surface; integrating a plurality of slits (136,138) into the fabric through the first surface and the second surface, the plurality of slits (136, 138) forming columns in parallel configuration, wherein a spacing between two slits in linear alignment in a first column is less than a length of a slit positioned in an adjacent second column, wherein the spacing between the two slits in the first column is aligned at least partially with the slit positioned in the adjacent second column; providing an under layer; and forming the fabric and the under layer into at least part of the article of apparel wherein the under layer includes slits, wherein when the fabric is stretched in a direction perpendicular to a long-axis of the slits (136, 138), the slits (136, 138) open to provide a direct path through the first and second surfaces (104, 106) of the fabric and through the under layer; the method further characterized in that the under layer is of a different colour from the fabric and in that the fabric and the under layer include aligned slits.
A ground anchor comprising a body and a ground piercing means on the body, wherein the ground piercing means comprises a first tapering member, characterised in that the ground piercing means further includes a plurality of second tapering members (44, 46) extending transverse to the first tapering member, each of the first and second tapering members having opposite edges (48, 54) that taper inwardly towards each other from the body, and the ground piercing means further includes a plurality of teeth provided on the body in regions adjacent each tapering member.
A method for presenting procedure information for a vertical profile comprising a plurality of segments between a first navigational reference point and a second navigational reference point on a display device associated with an aircraft, the method comprising: displaying a first segment of the plurality of segments with a vertical scale and a first horizontal scale, the first horizontal scale being based on a first distance associated with the first segment; and displaying a second segment of the plurality of segments with the vertical scale and a second horizontal scale, the second horizontal scale being based on a second distance associated with the second segment, wherein: the first segment and the second segment are displayed on the display device with the same horizontal dimensions; and the first horizontal scale and the second horizontal scale are not equal. displaying a first segment of the plurality of segments with a vertical scale and a first horizontal scale, the first horizontal scale being based on a first distance associated with the first segment; and displaying a second segment of the plurality of segments with the vertical scale and a second horizontal scale, the second horizontal scale being based on a second distance associated with the second segment, wherein: the first segment and the second segment are displayed on the display device with the same horizontal dimensions; and the first horizontal scale and the second horizontal scale are not equal. the first segment and the second segment are displayed on the display device with the same horizontal dimensions; and the first horizontal scale and the second horizontal scale are not equal.
A phase invertible composition produced by combining: (a) a liquid proteinaceous substrate, and (b) a liquid crosslinking composition comprising a macromolecular crosslinking agent; and wherein said macromolecular crosslinking agent is a reaction product of an excess of a crosslinking agent and a physiologically acceptable polymer selected from a glycosaminoglycan; and wherein the composition undergoes a phase transition from a first, liquid state to a second, solid state. (a) a liquid proteinaceous substrate, and (b) a liquid crosslinking composition comprising a macromolecular crosslinking agent; and
A ginning device for ginning the bunches of grapes after the harvest, or other fruits harvested in clusters, i.e. removing the berries from the stems, the device including, on the one hand, two shaking assemblies (2A, 2B), arranged side by side, delimiting a vertical space into which the harvest is intended to be brought by gravity and, on the other hand, means for receiving the berries and stems arranged under said shaking units, wherein each of the shaking assemblies (2A, 2B) comprises a series of vertically oriented, regularly spaced parallel fingers (5A, 5B), hung on a horizontal shaft (6A, 6B), the two horizontal shafts (6A, 6B) of the two shaking assemblies (2A, 2B) are parallel and connected to a motor means, wherein the motor means permits to transmit to the fingers an oscillatory pivoting movement so as to drive said fingers (5A, 5B) in an oscillatory pendulum motion.
A waste combustion furnace system for reducing NOx emission, the system comprising: a) a furnace, said furnace comprising a grate supporting a combusting waste bed; b) a primary air source introducing primary air upstream from the grate; c) at least one secondary nozzle introducing secondary air downstream from the combusting waste bed; characterised by d) at least one tertiary nozzle introducing tertiary air, the at least one tertiary nozzle located at a distance downstream from said at least one secondary nozzle, e) a continuous emissions monitoring system configured to monitor emissions within and from the furnace; f) a controller connected to the continuous emissions monitoring system and to adjust the allocation of the secondary air and the tertiary air; g) a selective non-catalytic reduction (SNCR) system, positioned downstream from the at least one tertiary air nozzle. a) a furnace, said furnace comprising a grate supporting a combusting waste bed; b) a primary air source introducing primary air upstream from the grate; c) at least one secondary nozzle introducing secondary air downstream from the combusting waste bed; d) at least one tertiary nozzle introducing tertiary air, the at least one tertiary nozzle located at a distance downstream from said at least one secondary nozzle, e) a continuous emissions monitoring system configured to monitor emissions within and from the furnace; f) a controller connected to the continuous emissions monitoring system and to adjust the allocation of the secondary air and the tertiary air; g) a selective non-catalytic reduction (SNCR) system, positioned downstream from the at least one tertiary air nozzle.