mhurhangee/ep-ind-claims huggingface dataset:
An aerosol can body having a surface pattern on a trunk portion, comprising: a lower opening (Ob) to which a bottom lid is attached, and which is formed on one end of the seamless cylindrical trunk portion formed of a steel sheet; a domed shoulder portion having an arcuate cross-section, that is formed on the other end of the trunk portion continuously from the trunk portion; and an opening curled portion that is diametrically smaller than the lower opening (Ob) and that is formed on a center of a leading end of the shoulder portion, wherein the surface pattern is formed on the trunk portion between an upper end of the shoulder portion side and a lower end of the lower opening (Ob) side by embossing or debossing the trunk portion in a thickness direction, characterized in that: an upper end level of the surface pattern is set lower than a boundary between the trunk portion and the shoulder portion; an upper region of the trunk portion that has a predetermined width in a height direction of the trunk portion includes the upper end level of the surface pattern; and Vickers hardness of at least the upper region of the trunk portion is greater than 200Hv but less than 250Hv. a lower opening (Ob) to which a bottom lid is attached, and which is formed on one end of the seamless cylindrical trunk portion formed of a steel sheet; a domed shoulder portion having an arcuate cross-section, that is formed on the other end of the trunk portion continuously from the trunk portion; and an opening curled portion that is diametrically smaller than the lower opening (Ob) and that is formed on a center of a leading end of the shoulder portion, wherein the surface pattern is formed on the trunk portion between an upper end of the shoulder portion side and a lower end of the lower opening (Ob) side by embossing or debossing the trunk portion in a thickness direction, characterized in that: an upper end level of the surface pattern is set lower than a boundary between the trunk portion and the shoulder portion; an upper region of the trunk portion that has a predetermined width in a height direction of the trunk portion includes the upper end level of the surface pattern; and Vickers hardness of at least the upper region of the trunk portion is greater than 200Hv but less than 250Hv. an upper end level of the surface pattern is set lower than a boundary between the trunk portion and the shoulder portion; an upper region of the trunk portion that has a predetermined width in a height direction of the trunk portion includes the upper end level of the surface pattern; and Vickers hardness of at least the upper region of the trunk portion is greater than 200Hv but less than 250Hv.
Process for obtaining a biofuel from an aqueous mixture of carbonised biomass obtained in a process for hydrothermal carbonisation of the biomass, characterised in that it comprises: (a) grinding the aqueous mixture of carbonised biomass until a maximum size of particles of less than 500 micrometers contained in the mixture is obtained; (b) applying a process for the physical separation of inorganic substances; (c) reducing the moisture content until a water content of between 25 and 55 wt.% is reached; and (d) adding an additional percentage of water or at least one liquid fuel; wherein the aqueous mixture of carbonised biomass has the following features, "daf" being dry and ash-free: Higher Heating Value, (daf) > 24 MJ/kg HHV with 80% moisture 4-5 MJ/kg Carbon (daf, according to CEN/TS 15104) > 60% (daf) Hydrogen (daf, according to CEN/TS 15104) 5.5-6.5% (daf) Nitrogen (daf, according to CEN/TS 15104) 0.5-2.5% (daf) Sulphur (daf, according to CEN/TS 15289) < 0.3% (daf) Chlorine (daf according to CEN/TS 15289) < 0.3% (daf) Ash melting point (according to CEN/TS 15289) > 1200 °C Ash content, dry base (EN 14775) 4 - 25% Particle size (according to EN149) < 5 cm Volatile substances (daf, according to EN 15148) 50-70% (daf) Water content (according to EN 14774) 70-90% (a) grinding the aqueous mixture of carbonised biomass until a maximum size of particles of less than 500 micrometers contained in the mixture is obtained; (b) applying a process for the physical separation of inorganic substances; (c) reducing the moisture content until a water content of between 25 and 55 wt.% is reached; and (d) adding an additional percentage of water or at least one liquid fuel; wherein the aqueous mixture of carbonised biomass has the following features, "daf" being dry and ash-free: Higher Heating Value, (daf) > 24 MJ/kg HHV with 80% moisture 4-5 MJ/kg Carbon (daf, according to CEN/TS 15104) > 60% (daf) Hydrogen (daf, according to CEN/TS 15104) 5.5-6.5% (daf) Nitrogen (daf, according to CEN/TS 15104) 0.5-2.5% (daf) Sulphur (daf, according to CEN/TS 15289) < 0.3% (daf) Chlorine (daf according to CEN/TS 15289) < 0.3% (daf) Ash melting point (according to CEN/TS 15289) > 1200 °C Ash content, dry base (EN 14775) 4 - 25% Particle size (according to EN149) < 5 cm Volatile substances (daf, according to EN 15148) 50-70% (daf) Water content (according to EN 14774) 70-90%
Use, for cooling and lubricating a propulsion system of an electric or hybrid vehicle, of a composition comprising at least: (i) at least one base oil; and (ii) at least one diester of formula, distinct from the base oil (i): R a -C -O-([C 2] n -O) s -C -R b in which: - R represent, independently of one another, a hydrogen atom or a linear or branched (C 1 -C 5) alkyl group, especially a methyl, ethyl or propyl, in particular methyl, group; - s has the value 1 or 2; - n has the value 1, 2 or 3; it being understood that, when s is other than 1, n can be identical or different; and - R a and R b, which are identical or different, represent, independently of each other, saturated or unsaturated and linear or branched hydrocarbon groups exhibiting a linear sequence of 2 to 11 carbon atoms, preferably of 3 to 8 carbon atoms; with the proviso that, when s has the value 2 and n, which are identical, have the value 2, at least one of the R groups represents a linear or branched (C 1 -C 5)alkyl group; and with the proviso that, when s has the value 1 and n has the value 3, at least one of the R groups bonded to the carbon in the beta position with respect to the oxygen atoms of the ester functions represents a hydrogen atom; the diester(s) of formula being present in a content of between 1% and 25% by weight, with respect to the total weight of the composition. (i) at least one base oil; and (ii) at least one diester of formula, distinct from the base oil (i): R a -C -O-([C 2] n -O) s -C -R b - R represent, independently of one another, a hydrogen atom or a linear or branched (C 1 -C 5) alkyl group, especially a methyl, ethyl or propyl, in particular methyl, group; - s has the value 1 or 2; - n has the value 1, 2 or 3; it being understood that, when s is other than 1, n can be identical or different; and - R a and R b, which are identical or different, represent, independently of each other, saturated or unsaturated and linear or branched hydrocarbon groups exhibiting a linear sequence of 2 to 11 carbon atoms, preferably of 3 to 8 carbon atoms; with the proviso that, when s has the value 2 and n, which are identical, have the value 2, at least one of the R groups represents a linear or branched (C 1 -C 5)alkyl group; and with the proviso that, when s has the value 1 and n has the value 3, at least one of the R groups bonded to the carbon in the beta position with respect to the oxygen atoms of the ester functions represents a hydrogen atom; the diester(s) of formula being present in a content of between 1% and 25% by weight, with respect to the total weight of the composition.
An array substrate, comprising: a base substrate; an active layer, disposed on the base substrate; a first polarization structure, disposed on a side of the active layer facing the base substrate, and an orthographic projection of the first polarization structure on the base substrate being at least partially overlapped with an orthographic projection of the active layer on the base substrate, characterized in that the array substrate further comprises: a second polarization structure, laminated on the base substrate, and disposed on the side of the active layer facing the base substrate, wherein a polarization direction of the first polarization structure is substantially perpendicular to a polarization direction of the second polarization structure, and both of the orthographic projections of the active layer and the first polarization structure on the base substrate fall within an orthographic projection of the second polarization structure on the base substrate. a base substrate; an active layer, disposed on the base substrate; a first polarization structure, disposed on a side of the active layer facing the base substrate, and an orthographic projection of the first polarization structure on the base substrate being at least partially overlapped with an orthographic projection of the active layer on the base substrate, characterized in that the array substrate further comprises: a second polarization structure, laminated on the base substrate, and disposed on the side of the active layer facing the base substrate, wherein a polarization direction of the first polarization structure is substantially perpendicular to a polarization direction of the second polarization structure, and both of the orthographic projections of the active layer and the first polarization structure on the base substrate fall within an orthographic projection of the second polarization structure on the base substrate. a second polarization structure, laminated on the base substrate, and disposed on the side of the active layer facing the base substrate, wherein a polarization direction of the first polarization structure is substantially perpendicular to a polarization direction of the second polarization structure, and both of the orthographic projections of the active layer and the first polarization structure on the base substrate fall within an orthographic projection of the second polarization structure on the base substrate.
A device (200, 220) for applying tension to a body surface, comprising: a flexible frame (202, 222) comprising a central opening, at least three side sections (204, 224) joined by spring corners to form a closed frame, and at least three corresponding skin contact members, each skin contact member on each of the at least three side sections and each having at least one skin grasper, wherein each of the spring corners includes a first beam and a second beam joined by an arcuate bridge; the flexible frame configured to move between a compressed configuration and a relaxed configuration due to inherent flexibility of the frame, such that compression of two of the at least three side sections causes the at least three side sections to converge towards and reduce the size of the central opening, wherein the flexible frame is biased in the relaxed configuration, and in the relaxed configuration, when the at least one skin grasper of the at least three skin contact members is engaged in the body surface, the flexible frame is configured to provide tension in the body surface within the central opening. a flexible frame (202, 222) comprising a central opening, at least three side sections (204, 224) joined by spring corners to form a closed frame, and at least three corresponding skin contact members, each skin contact member on each of the at least three side sections and each having at least one skin grasper, wherein each of the spring corners includes a first beam and a second beam joined by an arcuate bridge; the flexible frame configured to move between a compressed configuration and a relaxed configuration due to inherent flexibility of the frame, such that compression of two of the at least three side sections causes the at least three side sections to converge towards and reduce the size of the central opening, wherein the flexible frame is biased in the relaxed configuration, and in the relaxed configuration, when the at least one skin grasper of the at least three skin contact members is engaged in the body surface, the flexible frame is configured to provide tension in the body surface within the central opening.
A method for performing autonomous driving operation, comprising: receiving, from a first set of sensors coupled to axles of a vehicle, a first set of values that indicate weights or pressures applied on axles of the vehicle; receiving, from a second set of sensors coupled to tires or tire wheels of the vehicle, a second set of values that indicate pressures in tires of the vehicle; generating a first set of filtered values from the first set of values and a second set of filtered values from the second set of values by performing an error detection and removal operation on the first set of values and the second set of values, respectively; determining, for each axle of the vehicle, one or more values that describe weight or pressure applied on a corresponding axle to obtain a weight distribution of the vehicle, wherein the one or more values for each axle are based on at least one value from the first set of filtered values for an axle or at least two values from the second set of filtered values for at least two tires coupled to the axle; and determining a driving related operation of the vehicle based on the determined one or more values for each axle that describe the weight distribution of the vehicle. receiving, from a first set of sensors coupled to axles of a vehicle, a first set of values that indicate weights or pressures applied on axles of the vehicle; receiving, from a second set of sensors coupled to tires or tire wheels of the vehicle, a second set of values that indicate pressures in tires of the vehicle; generating a first set of filtered values from the first set of values and a second set of filtered values from the second set of values by performing an error detection and removal operation on the first set of values and the second set of values, respectively; determining, for each axle of the vehicle, one or more values that describe weight or pressure applied on a corresponding axle to obtain a weight distribution of the vehicle, wherein the one or more values for each axle are based on at least one value from the first set of filtered values for an axle or at least two values from the second set of filtered values for at least two tires coupled to the axle; and determining a driving related operation of the vehicle based on the determined one or more values for each axle that describe the weight distribution of the vehicle.
Method for diagnosing malfunction of an apparatus for delivering goods or services against payment, of the automatic terminal type, the apparatus comprising means of payment, characterized in that it consists of: recording in a memory area, for each mean of payment, the time instant of occurrence of a transaction for a given mean of payment, calculating, for each mean of payment, the value of the difference between the present time instant and the time instant at which the last transaction occurred for the given mean of payment, comparing each calculated value with a respective predetermined reference value (Tmax) and deducing the occurrence of a malfunction in the event in the event of a predetermined deviation between these values. recording in a memory area, for each mean of payment, the time instant of occurrence of a transaction for a given mean of payment, calculating, for each mean of payment, the value of the difference between the present time instant and the time instant at which the last transaction occurred for the given mean of payment, comparing each calculated value with a respective predetermined reference value (Tmax) and deducing the occurrence of a malfunction in the event in the event of a predetermined deviation between these values.
Strip processing device for a rolling mill, preferably a hot strip rolling mill, comprising a strip processing cassette supported on a frame, wherein the strip processing cassette is attached to a support area and the strip processing device has a fixing mechanism for fixing the strip processing cassette to the support area, characterized in that the support area is open for inserting or for removing of the strip processing cassette into or from the frame to the side and/or to the top, the strip processing cassette is supported between a pair of swing arms (5a, 5b) connected to the frame, the strip processing cassette is attached to a support area of the swing arms, and the support area is open for insertion or for removal of the strip processing cassette to the side and/or to the top when the swing arms are put into the operating position.
Roof window frame comprising a deadbolt socket assembly immersed in the roof window frame, comprising a deadbolt socket, made essentially of plastic, immersed in the frame, the socket having at least one deadbolt recess formed from the inner side, in which a deadbolt of a handle fixed rotationally in the window sash, is located, in a closed position, the deadbolt socket being reinforced with a brace (3, 3', 3") seated and fixed in the recess made in the frame, and the deadbolt socket is seated immovably in relation to the brace (3, 3', 3"), the assembly characterised in that the brace (3, 3', 3") comprising at least one connecting element defining brace (3, 3', 3") mounting point located in the axis of brace (3, 3', 3") rotation, where said axis passing through the mounting point of the brace (3, 3', 3).
A method of performing power headroom reporting, hereafter called PHR, for a communication device configured with a plurality of uplink component carriers or parallel PUCCH and PUSCH transmission in a wireless communication system, the method comprising: reporting power headroom information of at least one of the communication device, at least an uplink component carrier, and at least a power amplifier configured to the communication device, to a network of the wireless communication system with a medium access control protocol data unit, hereafter called MAC PDU, when the PHR is triggered; wherein the MAC PDU includes a bitmap for indicating absence of the power headroom information of the power amplifier, the component carrier, and/or the communication device. reporting power headroom information of at least one of the communication device, at least an uplink component carrier, and at least a power amplifier configured to the communication device, to a network of the wireless communication system with a medium access control protocol data unit, hereafter called MAC PDU, when the PHR is triggered; wherein the MAC PDU includes a bitmap for indicating absence of the power headroom information of the power amplifier, the component carrier, and/or the communication device.
An oven for cooking of bakery products such as in particular pizzas, said oven comprising a cooking chamber in which is placed the product to be cooked and a burner housed within a chamber distinct from said cooking chamber, said oven further comprising: - a combustion chamber separate from said cooking chamber, said combustion chamber being connected to said chamber of said burner so that the flame and fumes produced by said burner develop in it, said combustion chamber further providing a funnel for the output of said fumes; - a semi-transparent wall which divides said combustion chamber from said cooking chamber to allow the radiation from said combustion chamber into said cooking chamber, said radiation contributing to the cooking of the bakery product resting on a cooking surface of said cooking chamber; - means of control and interface such as to control at least the working of said burner, characterized in that said oven further comprises: - valve means to intercept said funnel and adjust the amount of exhaust fumes; - the means of control and interface are also configured such as to control said valve means. - a combustion chamber separate from said cooking chamber, said combustion chamber being connected to said chamber of said burner so that the flame and fumes produced by said burner develop in it, said combustion chamber further providing a funnel for the output of said fumes; - a semi-transparent wall which divides said combustion chamber from said cooking chamber to allow the radiation from said combustion chamber into said cooking chamber, said radiation contributing to the cooking of the bakery product resting on a cooking surface of said cooking chamber; - means of control and interface such as to control at least the working of said burner, characterized in that said oven further comprises: - valve means to intercept said funnel and adjust the amount of exhaust fumes; - the means of control and interface are also configured such as to control said valve means. - valve means to intercept said funnel and adjust the amount of exhaust fumes; - the means of control and interface are also configured such as to control said valve means.
Agricultural vehicle having a combustion engine for all-wheel drive of a front axle and a rear axle, wherein the vehicle has an arrangement for the dynamic adaptation of the leading of an axle (12, 14), wherein the arrangement comprises an electric machine and a summing gear mechanism that totals the drive force of the combustion engine and of the electric machine, characterized in that the summing gear mechanism has at least two gear elements (36, 38, 40) that are coupled magnetically, wherein the vehicle has a device that is set up to control and/or regulate the transmission ratio of the summing gear mechanism depending on at least one factor influencing the driving behaviour.
A supply and disposal system for an autonomous floor cleaner, comprising: a docking station (10, 210, 310, 410, 510, 610, 810, 1110, 1210) for docking an autonomous floor cleaner, the docking station comprising: a liquid supply system (8, 308) configured to fill a supply tank onboard the autonomous floor cleaner and comprising a supply conduit (56, 256, 356) and a supply coupling (16, 216, 316) configured to couple with a corresponding receiver coupling on the autonomous floor cleaner; and a disposal system (409, 509) configured to empty a recovery tank onboard the autonomous floor cleaner and comprising a waste receiver coupling (415, 515) configured to couple with a corresponding waste disposal coupling on the autonomous floor cleaner; wherein the docking station (10, 210, 310, 410, 510, 610, 810, 1110, 1210) is configured to be fluidly coupled to a household plumbing infrastructure, and to fill the supply tank and to empty the recovery tank via the household plumbing infrastructure. a docking station (10, 210, 310, 410, 510, 610, 810, 1110, 1210) for docking an autonomous floor cleaner, the docking station comprising: a liquid supply system (8, 308) configured to fill a supply tank onboard the autonomous floor cleaner and comprising a supply conduit (56, 256, 356) and a supply coupling (16, 216, 316) configured to couple with a corresponding receiver coupling on the autonomous floor cleaner; and a disposal system (409, 509) configured to empty a recovery tank onboard the autonomous floor cleaner and comprising a waste receiver coupling (415, 515) configured to couple with a corresponding waste disposal coupling on the autonomous floor cleaner; a liquid supply system (8, 308) configured to fill a supply tank onboard the autonomous floor cleaner and comprising a supply conduit (56, 256, 356) and a supply coupling (16, 216, 316) configured to couple with a corresponding receiver coupling on the autonomous floor cleaner; and a disposal system (409, 509) configured to empty a recovery tank onboard the autonomous floor cleaner and comprising a waste receiver coupling (415, 515) configured to couple with a corresponding waste disposal coupling on the autonomous floor cleaner; wherein the docking station (10, 210, 310, 410, 510, 610, 810, 1110, 1210) is configured to be fluidly coupled to a household plumbing infrastructure, and to fill the supply tank and to empty the recovery tank via the household plumbing infrastructure.