mhurhangee/ep-ind-claims huggingface dataset:
An optical scanner comprising a scanner housing, a first self-contained optics assembly including a first housing within the scanner housing including a horizontal aperture, wherein the first optics assembly is arranged to generate first scan lines for scanning a bottom side, and further scanning an operator side, a leading side, and a trailing side of an item, and a second self-contained optics assembly including a second housing within the scanner housing including a substantially vertical aperture, wherein the second optics assembly generates second scan lines for scanning a customer side, and further scanning the leading side, the trailing side, and a top side of the item, wherein the first self-contained optics assembly comprises a plurality of primary pattern mirrors for directing first scanning light beams from a laser of the first self-contained optics assembly through the horizontal aperture to create a first group of the first scan lines; and a plurality of secondary pattern mirrors for reflecting second scanning light beams from the primary pattern mirrors through the horizontal aperture to create a second group of the first scan lines, and the second self-contained optics assembly comprises a plurality of primary pattern mirrors for directing first scanning light beams from a laser of the second self-contained optics assembly through the substantially vertical aperture to create a first group of the second scan lines; and a plurality of secondary pattern mirrors for reflecting second scanning light beams from the primary pattern mirrors through the substantially vertical aperture to create a second group of the second scan lines.
A method, performed at a User Equipment, 'UE', of a wireless communications network, the method comprising: detecting that a downlink transmission timing has changed by an amount of time; determining that a time alignment timer, 'TAT', is not running; and while the TAT is not running, adjusting a timing advance for uplink transmissions based on the amount of time that the downlink transmission timing has changed, wherein the timing advance for uplink transmissions was stored in memory at expiration of the TAT. detecting that a downlink transmission timing has changed by an amount of time; determining that a time alignment timer, 'TAT', is not running; and while the TAT is not running, adjusting a timing advance for uplink transmissions based on the amount of time that the downlink transmission timing has changed, wherein the timing advance for uplink transmissions was stored in memory at expiration of the TAT.
An interface intelligent interaction control method, wherein the method comprises: receiving user-input speech information, and obtaining a speech recognition result; determining scenario elements associated with the speech recognition result; generating an entry corresponding to each scenario element and sending the speech recognition result and the entry to a cloud server, each entry includes: an element label and a corresponding self-defined operation behavior information; receiving an entry which is best matched with the speech recognition result, returned by the cloud server and selected from the received entries; performing an interface operation according to the self-defined operation behavior information corresponding to the best-matched entry. receiving user-input speech information, and obtaining a speech recognition result; determining scenario elements associated with the speech recognition result; generating an entry corresponding to each scenario element and sending the speech recognition result and the entry to a cloud server, each entry includes: an element label and a corresponding self-defined operation behavior information; receiving an entry which is best matched with the speech recognition result, returned by the cloud server and selected from the received entries; performing an interface operation according to the self-defined operation behavior information corresponding to the best-matched entry.
A magnesium alloy that comprises when the entirety is taken as 100% by mass, hereinafter being simply referred to as "%": aluminum (Al) in an amount of 2% or more; calcium (Ca) in an amount making a compositional ratio of Ca with respect to the Al (i.e., Ca/Al) that is from 0.5 to 1.5; manganese (Mn) in an amount of from 0.1 to 0.7%; strontium (Sr) in an amount of from 1 to 6%; and the balance being magnesium (Mg) and inevitable impurities, characterized in that said Al is from 2 to 5.5%. aluminum (Al) in an amount of 2% or more; calcium (Ca) in an amount making a compositional ratio of Ca with respect to the Al (i.e., Ca/Al) that is from 0.5 to 1.5; manganese (Mn) in an amount of from 0.1 to 0.7%; strontium (Sr) in an amount of from 1 to 6%; and the balance being magnesium (Mg) and inevitable impurities, characterized in that said Al is from 2 to 5.5%.
A beverage can end having a small diameter and a stay-on-tab, the end having a peripheral curl, a wall structure extending from the curl, and a center panel extending inwardly relative to the wall structure; the peripheral curl capable of being seamed together with a beverage can flange to produce a seam that defines an end size of no more than 200, wherein a 200 size comprises a nominal 5.08 cm (2 inch) end diameter; a discontinuous score formed in the center panel that defines a tear panel, the tear panel being openable to form an opening of at least 2.258 cm 2 (0.35 square inches); a rivet that is offset from a center of the center panel; and a pull tab coupled to the center panel by the rivet, the pull tab having a nose configured to rupture the score upon actuation of the pull tab and a heel opposite the nose, characterised by the pull tab heel being spaced apart from the seam by at least 7.62 mm (0.3 inches) to enhance finger access. a peripheral curl, a wall structure extending from the curl, and a center panel extending inwardly relative to the wall structure; the peripheral curl capable of being seamed together with a beverage can flange to produce a seam that defines an end size of no more than 200, wherein a 200 size comprises a nominal 5.08 cm (2 inch) end diameter; a discontinuous score formed in the center panel that defines a tear panel, the tear panel being openable to form an opening of at least 2.258 cm 2 (0.35 square inches); a rivet that is offset from a center of the center panel; and a pull tab coupled to the center panel by the rivet, the pull tab having a nose configured to rupture the score upon actuation of the pull tab and a heel opposite the nose, characterised by the pull tab heel being spaced apart from the seam by at least 7.62 mm (0.3 inches) to enhance finger access.
A process for the conversion of a feedstock comprising at least 50 wt % related to the total weight of the feedstock of triglycerides, fatty acid esters and/or fatty acids having at least 10 carbon atoms into hydrogen, olefins, dienes, aromatics, gasoline, diesel fuel, jet fuel, naphtha and liquefied petroleum gas comprising: a) introducing of said feedstock in a first reactor to produce linear paraffins in presence of a hydrodesulfurization catalyst and hydrogen, b) separating the effluent of said first reactor in at least three parts to produce at least a first stream comprising part of said linear paraffins and at least a second stream comprising part of said linear paraffins and at least a third stream comprising part of said linear paraffins, c) sending said first stream to a steam cracker to produce hydrogen, olefins, dienes, aromatics and gasoline being further fractionated; d) introducing said second stream into a second reactor in presence of a hydrocracking or hydro-isomerization catalyst to produce a mixture comprising diesel fuel, jet fuel, naphtha and liquefied petroleum gas being further fractionated e) blending said third stream with the diesel fuel obtained at said step d) wherein said feedstock of said first reactor is diluted in order to limit the temperature increase within said first reactor; and wherein before entering the first reactor said dilution is performed with a weight ratio diluent: feedstock being 1:1 or 2:1 or 3:1, and wherein said diluent comprises at least part of said paraffins obtained at step b). a) introducing of said feedstock in a first reactor to produce linear paraffins in presence of a hydrodesulfurization catalyst and hydrogen, b) separating the effluent of said first reactor in at least three parts to produce at least a first stream comprising part of said linear paraffins and at least a second stream comprising part of said linear paraffins and at least a third stream comprising part of said linear paraffins, c) sending said first stream to a steam cracker to produce hydrogen, olefins, dienes, aromatics and gasoline being further fractionated; d) introducing said second stream into a second reactor in presence of a hydrocracking or hydro-isomerization catalyst to produce a mixture comprising diesel fuel, jet fuel, naphtha and liquefied petroleum gas being further fractionated e) blending said third stream with the diesel fuel obtained at said step d)
Vehicle seat with a seat component and a backrest having a backrest structure, wherein the backrest has a shell structure, wherein the shell structure is elastically deformable, is at least partially composed of plastic and is shaped to match the contour of a body, wherein the shell structure is provided on the occupant side with an upholstered element and has at least one depression (17, 19) for accommodating a thickening of the upholstered element, wherein the shell structure comprises a central part and side wings, wherein the side wings are arranged in an elastically resilient manner on the shell structure, wherein the side wings are designed to yield to the contour of a back when an individual sits in the vehicle seat and to provide a perceptible resistance, wherein the side wings are designed to be reshaped again when the individual leaves the vehicle seat, wherein the side wings are designed to be resilient under changing states of load, characterized in that the side wings of the shell structure are separated in regions from the central part of the shell structure via slots which run approximately vertically and extend from the lower edge into the upper third of the shell structure, wherein the slots are provided at their upper end with an arcuate extension, in which means are located for reducing the stress concentration, wherein the means are arcuate rounded portions or other shapes which do not have any points, wherein the side wings and the central part are equipped on the rear side in the region of the lower edge with fastening points (25, 25') for attaching to the frame part and with a transverse tube running between the backrest inclination adjusters.
A system (10, 20) comprising: a current generator configured to: generate a DC of a polarity with an amplitude that is above a block threshold of a nerve for the polarity for a time, wherein the time is two minutes or more; and after the time, generate another DC with an opposite polarity and another amplitude for another time, wherein the other amplitude is below the block threshold of the nerve for the opposite polarity; and an electrode, coupled to the current generator, configured to deliver the DC to the nerve to block conduction in the nerve for the time and then deliver the other DC to the nerve for the other time so the nerve enters a repolarization cycle to accelerate a recovery time for the nerve. a current generator configured to: generate a DC of a polarity with an amplitude that is above a block threshold of a nerve for the polarity for a time, wherein the time is two minutes or more; and after the time, generate another DC with an opposite polarity and another amplitude for another time, wherein the other amplitude is below the block threshold of the nerve for the opposite polarity; and generate a DC of a polarity with an amplitude that is above a block threshold of a nerve for the polarity for a time, wherein the time is two minutes or more; and after the time, generate another DC with an opposite polarity and another amplitude for another time, wherein the other amplitude is below the block threshold of the nerve for the opposite polarity; and an electrode, coupled to the current generator, configured to deliver the DC to the nerve to block conduction in the nerve for the time and then deliver the other DC to the nerve for the other time so the nerve enters a repolarization cycle to accelerate a recovery time for the nerve.
A method for obtaining a texturizing lactic acid bacteria strain, said method comprising: a) providing a lactic acid bacteria mother strain; b) isolating a mutant of said mother strain which is resistant towards (i) D-cycloserine and/or (ii) an antibiotic which has the same mode of action or the same target as D-cycloserine and inhibits D-alanine-racemase, D-alanyl-D-alanine ligase, D-alanylalanine synthase or D-alanine permease; and c) selecting said mutant if it produces more texture as determined by greater shear stress and/or greater gel stiffness when grown in milk than the mother strain when grown in said milk. a) providing a lactic acid bacteria mother strain; b) isolating a mutant of said mother strain which is resistant towards (i) D-cycloserine and/or (ii) an antibiotic which has the same mode of action or the same target as D-cycloserine and inhibits D-alanine-racemase, D-alanyl-D-alanine ligase, D-alanylalanine synthase or D-alanine permease; and c) selecting said mutant if it produces more texture as determined by greater shear stress and/or greater gel stiffness when grown in milk than the mother strain when grown in said milk.
Method for controlling the access of a User Equipment to a public land mobile network (PLMN), wherein the public land mobile network (PLMN) provides at least a service, the public land mobile network (PLMN) comprising at least one network cell, wherein a control channel is broadcast within the network cell, the method comprising the steps of: -- transmitting a barring factor information to the User Equipment on the broadcast control channel within the network cell, -- independently thereof transmitting a barring scaling information to the User Equipment on a dedicated control channel, wherein by means of a combined use of the barring factor information and of the barring scaling information, an access control to the service is realized with regard to the User Equipment by deciding whether a specific access request of the User Equipment to the service is accepted or rejected, wherein the barring scaling information is assigned specifically to the User Equipment to realize an access control on a per User Equipment basis. -- transmitting a barring factor information to the User Equipment on the broadcast control channel within the network cell, -- independently thereof transmitting a barring scaling information to the User Equipment on a dedicated control channel,
A system for attaching a lifting bracket to the suspension bracket of a vehicle, characterised in that it comprises an anchor plate having an essentially oval shape comprising a recess in the form of a step, substantially perpendicular to its larger axis on one side, and a first and second orifice positioned along said larger axis, and wherein the connection end of the lifting bracket has a shape complementary to the shape of the recess of the anchor plate, said anchor plate being installed such that the recess fits with the connection end of the lifting bracket, the first orifice housing a member projecting from the suspension bracket and the second orifice housing a number of anchor bolts for the lifting bracket.
Device for supplying electric current to an electric drive for a vehicle, comprising three DC-to-DC converters (102, 103, 104) for coupling at least two connectable electrical energy sources (105, 106) to the electric drive, wherein the DC-to-DC converters (102, 103, 104) are couplable in such a way that a direct coupling of each individual one of the at least two electrical energy sources (105, 106) to the electric drive is formed via a single one of the three DC-to-DC converters (102, 103, 104), wherein the DC-to-DC converters (102, 103, 104) are electrically connected to one another in the form of a ring, and are coupled in such a way that a direct coupling of the at least two electrical energy sources (105, 106) via a third DC-to-DC converter is formed, so that the energy from a first energy source is transmitted to the electric drive via a first DC-to-DC converter, characterized in that the energy from a second energy source is transmitted likewise to the electric drive by means of a second DC-to-DC converter, and an energy transfer from the first energy source to the second energy source is made possible via the third DC-to-DC converter.
A carton (200; 300) for holding a plurality of containers, the carton (200; 300) comprising: a top retainer (106; 206) comprising a top panel, a first top end flap (115, 117; 215, 217) and a second top end flap (115, 117; 215, 217) each foldably connected to the top panel, the top panel comprises at least one retaining portion (138, 140, 142, 144) having at least one receptacle for retaining at least one container of the plurality of containers, and the at least one retaining portion (138, 140, 142, 144) is removable from the carton (200; 300); and a tray (264; 364) comprising a bottom panel and a first bottom end flap (275, 277; 375 377) and a second bottom end flap (275, 277; 375, 377) each foldably connected to the bottom panel, the first top end flap (115, 117; 215, 217) and the second top end flap (115, 117; 215, 217) are positioned in face-to-face contact with the respective first bottom end flap (275, 277; 375 377) and the second bottom end flap (275, 277; 375, 377) to form a respective first closed end (182a, 182b) and a second closed end (182a, 182b) of the carton (200; 300), the carton (200; 300) comprises a first handle (271a, 271b; 373a, 373b) in the first closed end (182a, 182b) and a second handle (271a, 271b, 373a, 373b) in the second closed end (182a, 182b), characterized in that the first handle (271a, 271b; 373a, 373b) comprises a handle opening (256a, 256b) in the first bottom end flap (275, 277; 375, 377) and the second handle (271a, 271b; 373a, 373b) comprises a handle opening (256a, 256b) in the second bottom end flap (275, 277, 375, 377). a top retainer (106; 206) comprising a top panel, a first top end flap (115, 117; 215, 217) and a second top end flap (115, 117; 215, 217) each foldably connected to the top panel, the top panel comprises at least one retaining portion (138, 140, 142, 144) having at least one receptacle for retaining at least one container of the plurality of containers, and the at least one retaining portion (138, 140, 142, 144) is removable from the carton (200; 300); and a tray (264; 364) comprising a bottom panel and a first bottom end flap (275, 277; 375 377) and a second bottom end flap (275, 277; 375, 377) each foldably connected to the bottom panel, the first top end flap (115, 117; 215, 217) and the second top end flap (115, 117; 215, 217) are positioned in face-to-face contact with the respective first bottom end flap (275, 277; 375 377) and the second bottom end flap (275, 277; 375, 377) to form a respective first closed end (182a, 182b) and a second closed end (182a, 182b) of the carton (200; 300), the carton (200; 300) comprises a first handle (271a, 271b; 373a, 373b) in the first closed end (182a, 182b) and a second handle (271a, 271b, 373a, 373b) in the second closed end (182a, 182b), characterized in that the first handle (271a, 271b; 373a, 373b) comprises a handle opening (256a, 256b) in the first bottom end flap (275, 277; 375, 377) and the second handle (271a, 271b; 373a, 373b) comprises a handle opening (256a, 256b) in the second bottom end flap (275, 277, 375, 377).
A single cell for a fuel cell stack, having a membrane electrode arrangement which is arranged in an active region and is as-signed at least one individual plate which is formed with a flow field for supplying an reaction medium into the active region of the membrane electrode arrangement, which flow field is fluidically connected to a media port (4, 5), characterized in that laterally with respect to the membrane electrode arrangement there is a lamella which at least partially covers the flow cross-section of the media port (4, 5) and which is formed so as to be elastically bendable for changing the usable flow cross-section of the media port (4, 5) by the force of a reaction medium flowing axially through the media port (4, 5).
A microneedle structure integrally formed from a crystalline material so as to project from a surface of a substrate, the substrate surface corresponding substantially to a <100> crystallographic plane, the microneedle structure comprising: (a) at least one wall standing substantially perpendicular to the substrate surface; (b) an inclined surface corresponding to a crystallographic plane and extending from the substrate surface to an intersection with said at least one wall; and (c) a fluid flow channel (20, 24) extending from said inclined surface through to an opposing face of the substrate. (a) at least one wall standing substantially perpendicular to the substrate surface; (b) an inclined surface corresponding to a crystallographic plane and extending from the substrate surface to an intersection with said at least one wall; and (c) a fluid flow channel (20, 24) extending from said inclined surface through to an opposing face of the substrate.
Method for nitrocarburizing metallic workpieces in a furnace space, wherein during at least one treatment phase the workpieces are exposed to a treatment atmosphere at a treatment temperature, wherein nitrogen and carbon to diffuse into the work pieces, characterised in that, the treatment atmosphere is produced from urea (CH 4 N 2 O) and water (H 2 O) and - the urea (CH 4 N 2 O) is dissolved in the water (H 2 O), the urea (CH 4 N 2 O) is fed into the furnace space in the form of an aqueous solution and the treatment atmosphere is generated in the furnace space, or - the urea (CH 4 N 2 O) and the water (H 2 O) are fed into a pre-splitter, which is heated to a temperature of at least 130°C, that the treatment atmosphere is generated in the pre-splitter and is guided from the pre-splitter into the furnace space. - the urea (CH 4 N 2 O) is dissolved in the water (H 2 O), the urea (CH 4 N 2 O) is fed into the furnace space in the form of an aqueous solution and the treatment atmosphere is generated in the furnace space, or - the urea (CH 4 N 2 O) and the water (H 2 O) are fed into a pre-splitter, which is heated to a temperature of at least 130°C, that the treatment atmosphere is generated in the pre-splitter and is guided from the pre-splitter into the furnace space.