mhurhangee/ep-ind-claims huggingface dataset:
A method of managing the switching of a first processor from a first mode of operation to a second mode of operation in a processing device, the processing device comprising at least one other processor (102, 103, 104, 105) and a controller, the other processor being able to be switched in the first mode of operation or in the second mode of operation, the method comprising: - the controller receiving a message, said message comprising a request to switch at least the first processor from a first mode of operation to a second mode of operation according to a type of switching in a set of types of switching; - the controller deciding whether the switching according to said type of switching is appropriate, the decision being a function of at least a current mode of operation of at least the other processor and the requested type of switching; - upon decision of switching made by the controller, - the controller sending a message to at least the first processor to prepare the switching of the first processor from a first mode of operation to a second mode of operation according to the type of switching; and - the controller switching the first processor from a first mode of operation to a second mode of operation according to the type of switching. - the controller receiving a message, said message comprising a request to switch at least the first processor from a first mode of operation to a second mode of operation according to a type of switching in a set of types of switching; - the controller deciding whether the switching according to said type of switching is appropriate, the decision being a function of at least a current mode of operation of at least the other processor and the requested type of switching; - upon decision of switching made by the controller, - the controller sending a message to at least the first processor to prepare the switching of the first processor from a first mode of operation to a second mode of operation according to the type of switching; and - the controller switching the first processor from a first mode of operation to a second mode of operation according to the type of switching. - the controller sending a message to at least the first processor to prepare the switching of the first processor from a first mode of operation to a second mode of operation according to the type of switching; and - the controller switching the first processor from a first mode of operation to a second mode of operation according to the type of switching.
Method for outputting warnings from a driver assistance system in a vehicle, in which: - data pertaining to the movement of the vehicle and data pertaining to risks of accident in the surroundings of a vehicle are captured, - a planned movement of the vehicle is derived from the detected movement of the vehicle, - captured data are evaluated and assigned to a specific accident risk class by virtue of a check being performed to determine whether a collision between the vehicle and another object will occur without alteration of the planned movement of the vehicle, the class assignment for the risks of accident resulting in a distinction being drawn between imminent collisions and risk areas, wherein imminent collisions result in a collision being assumed on the system if the planned movement of the vehicle is not altered, and detected risk areas resulting in it not being safely assumed that a collision will occur, - the period before a position for the risk of accident is reached and/or before a time at which an alteration of the vehicle movement to avoid a collision is necessary is ascertained, - the risk of accident is assigned a time criticality level on the basis of the ascertained period, and - the assigned accident risk class and the time criticality level are taken as a basis for outputting a warning, the type of which is dependent on the result of the collision check and the time criticality level, wherein notification is provided as to whether the warning relates only to a general risk or to an acutely imminent collision. - data pertaining to the movement of the vehicle and data pertaining to risks of accident in the surroundings of a vehicle are captured, - a planned movement of the vehicle is derived from the detected movement of the vehicle, - captured data are evaluated and assigned to a specific accident risk class by virtue of a check being performed to determine whether a collision between the vehicle and another object will occur without alteration of the planned movement of the vehicle, the class assignment for the risks of accident resulting in a distinction being drawn between imminent collisions and risk areas, wherein imminent collisions result in a collision being assumed on the system if the planned movement of the vehicle is not altered, and detected risk areas resulting in it not being safely assumed that a collision will occur, - the period before a position for the risk of accident is reached and/or before a time at which an alteration of the vehicle movement to avoid a collision is necessary is ascertained, - the risk of accident is assigned a time criticality level on the basis of the ascertained period, and - the assigned accident risk class and the time criticality level are taken as a basis for outputting a warning, the type of which is dependent on the result of the collision check and the time criticality level, wherein notification is provided as to whether the warning relates only to a general risk or to an acutely imminent collision.
Use of a compound selected from the group consisting of 2-methyl-2-oleamidopropanoic acid, 2-methyl-2-((9Z, 12Z)-octadeca-9,12-dienamido)propanoic acid, 2-methyl-2-stearamidopropanoic acid, 2-methyl-2-palmitamidopropanoic acid, -2-(dodec-5-enamido)-2-methylpropanoic acid, 2-dodecanamido-2-methylpropanoic acid and 2-hexanamido-2-methylpropanoic acid, or edible salts thereof, as a flavor ingredient in a flavour composition together with at least one flavour co-ingredient selected from the group consisting of sugars, fats, salt, MSG, calcium ions, phosphate ions, organic acids, proteins, purines and mixtures thereof.
A polymer obtained by radical polymerization of a mixture of monomers comprising: - at least one anionic monomer (a) having a polymerizable vinyl group, - at least one nonionic hydrophobic monomer (b) having a polymerizable vinyl group and - one or several cross-linking monomer(s) (c) including at least one compound of formula: in which: - R is a hydrogen atom or a methyl group, - n is equal to 1 and - R 1 is a C 1 -C 20 linear or branched alkyl group, with the exception of a polymer obtained by polymerization of a mixture of monomers comprising 20 parts by weight of methacrylic acid, 10 parts by weight of acrylic acid, 1 part by weight of compound of formula I in which R is a methyl group, n is equal to 1, R 1 is a C 2 linear alkyl group, 20 parts by weight of methyl methacrylate and 39 parts by weight of acrylic acid. - at least one anionic monomer (a) having a polymerizable vinyl group, - at least one nonionic hydrophobic monomer (b) having a polymerizable vinyl group and - one or several cross-linking monomer(s) (c) including at least one compound of formula: in which: - R is a hydrogen atom or a methyl group, - n is equal to 1 and - R 1 is a C 1 -C 20 linear or branched alkyl group, - R is a hydrogen atom or a methyl group, - n is equal to 1 and - R 1 is a C 1 -C 20 linear or branched alkyl group,
A method for controlling a robot, characterized by: a first step of controlling the robot to hold at least one of a pipette and a container containing a liquid and to change a position of the pipette relative to the container so as to make a tip of the pipette contact a sediment in the container; and a second step of controlling the robot to move the pipette in an upward direction from a predetermined position in the container while keeping the tip of the pipette in contact with an inner side surface of the container. a first step of controlling the robot to hold at least one of a pipette and a container containing a liquid and to change a position of the pipette relative to the container so as to make a tip of the pipette contact a sediment in the container; and a second step of controlling the robot to move the pipette in an upward direction from a predetermined position in the container while keeping the tip of the pipette in contact with an inner side surface of the container.
Sole of a snowshoe, comprising a rubber composition based on at least a predominant isoprene elastomer, a reinforcing inorganic filler, a plasticizer and a crosslinking system.
An electrode (3, 14) comprising: an orthorhombic Na-containing niobium titanium composite oxide as a first composite oxide; and a second composite oxide represented by a general formula of Li 2+a Na 2+b Ti 6 O 14, wherein - 0.2 ≤ a ≤ 2 and - 0.2 ≤ b ≤ 0.2. an orthorhombic Na-containing niobium titanium composite oxide as a first composite oxide; and a second composite oxide represented by a general formula of Li 2+a Na 2+b Ti 6 O 14, wherein - 0.2 ≤ a ≤ 2 and - 0.2 ≤ b ≤ 0.2.
An undercarriage for use with a circuit breaker, said undercarriage comprising: a bottom plate; a front beam removably coupled to said bottom plate; a lead screw configured to engage with a threaded support that is coupled to said bottom plate to facilitate racking the circuit breaker in a switchgear; and a keylock assembly configured to enable racking the circuit breaker in the switchgear, said keylock assembly comprising: a lock; and an interlock configured to couple to said lock such that said interlock is movable between a locked position and an unlocked position, wherein engagement of a racking handle with said lead screw is enabled when said interlock is in the unlocked position; and wherein said lock comprises an arm and a gear configured to move said arm between a first position and a second position, and wherein said interlock is in the locked position when said arm is in the first position, and said interlock is in the unlocked position when said arm is in the second position. a bottom plate; a front beam removably coupled to said bottom plate; a lead screw configured to engage with a threaded support that is coupled to said bottom plate to facilitate racking the circuit breaker in a switchgear; and a keylock assembly configured to enable racking the circuit breaker in the switchgear, said keylock assembly comprising: a lock; and an interlock configured to couple to said lock such that said interlock is movable between a locked position and an unlocked position, wherein engagement of a racking handle with said lead screw is enabled when said interlock is in the unlocked position; and wherein said lock comprises an arm and a gear configured to move said arm between a first position and a second position, and wherein said interlock is in the locked position when said arm is in the first position, and said interlock is in the unlocked position when said arm is in the second position. a lock; and an interlock configured to couple to said lock such that said interlock is movable between a locked position and an unlocked position, wherein engagement of a racking handle with said lead screw is enabled when said interlock is in the unlocked position; and wherein said lock comprises an arm and a gear configured to move said arm between a first position and a second position, and wherein said interlock is in the locked position when said arm is in the first position, and said interlock is in the unlocked position when said arm is in the second position.
A semiconductor device comprising: a low thermal stress package having a single pedestal portion and a substrate portion; a semiconductor die mounted on the pedestal portion of the low thermal stress package; and a layer of solder attaching the single pedestal portion to the substrate, wherein the semiconductor die has an area greater than 6.35 mm2, wherein the single pedestal portion supports the semiconductor die away from the substrate portion and forms a gap between the substrate portion and an overhanging portion of the semiconductor die, characterized in that the semiconductor die has an area greater than 6.35 mm 2, and in that the single pedestal portion has a mounting surface that is at least 50% smaller than a mounting surface of the semiconductor die. a low thermal stress package having a single pedestal portion and a substrate portion; a semiconductor die mounted on the pedestal portion of the low thermal stress package; and a layer of solder attaching the single pedestal portion to the substrate, wherein the semiconductor die has an area greater than 6.35 mm2, wherein the single pedestal portion supports the semiconductor die away from the substrate portion and forms a gap between the substrate portion and an overhanging portion of the semiconductor die, characterized in that the semiconductor die has an area greater than 6.35 mm 2, and in that the single pedestal portion has a mounting surface that is at least 50% smaller than a mounting surface of the semiconductor die.
A movable device for injecting oxygen and other technical materials into an electric arc furnace comprising a housing situated above a portion of a step of a 5crucible and equipped with a cooling coil, an injection lance of oxygen and other technical materials, supporting (23, 26) and moving means (21, 22, 24) of said lance between minimum and maximum range points of the liquid bath level contained therein, positioned in said housing, an opening situated in said housing and facing the inside of the crucible in which the lance is transferably guided, scraping means being envisaged between the opening and the lance characterized in that 15said scraping means situated between said opening and said lance, being defined by hermetic sealing lips acting on the body of said lance so as to form an hermetic sealing at said opening between said scraping means and said lance for both sealing the gases 20present in the crucible of the furnace and also cleaning encrustations of slag accumulated on the body of the lance.
An anti-slip fastener driver comprising: a body portion; and a driving portion formed at one terminal end of the body portion and including at least one peripheral face, with two contact faces formed at one distal end of the driving portion opposite to the body portion, with each contact face being at an inner included angle (α1) less than 90 degrees to the peripheral face, with a height difference provided between the two contact faces; characterized in that the driving portion including two driving sections each having three peripheral faces and a proximal face, with the two proximal faces connected to each other, with one end of each driving section opposite to the body portion forming the contact face, with the two contact faces forming an end face of the distal end of the driving portion together, with the two contact faces being beveled and inclined to each other, with each of the two contact faces being at the inner included angle (α1) less than 90 degrees to one of the three peripheral faces of each driving section, with each of the two contact faces including three short sides respectively connecting with the three peripheral faces of each driving section, and a long side connecting with the proximal faces of each driving section, with the two long sides of the two contact faces forming an outer included angle (β) less than 90 degrees together. a body portion; and a driving portion formed at one terminal end of the body portion and including at least one peripheral face, with two contact faces formed at one distal end of the driving portion opposite to the body portion, with each contact face being at an inner included angle (α1) less than 90 degrees to the peripheral face, with a height difference provided between the two contact faces;
An electric fracturing system comprising: a switch gear transport electrically connected to a power generation source, and configured to receive electric power from the power generation source at a first medium voltage level; a first electrical cable connected to the switch gear transport that supplies a first electric power at the first medium voltage level from the switch gear transport; and a fracturing pump transport comprising: at least one first transformer (310, 312), a drive, a pump and an electric prime mover, each being disposed on the fracturing pump transport, wherein the fracturing pump transport is electrically connected to the switch gear transport via only the first electrical cable, the first electric power supplied from the switch gear transport via the first electrical cable being received by the at least one first transformer (310, 312); and, wherein the at least one first transformer (310, 312) is electrically connected to the electric prime mover and the drive, wherein the at least one first transformer (310, 312) is configured to step down the electric power received at the first medium voltage level to a first lower medium voltage level that powers the electric prime mover; and, wherein the at least one first transformer (310, 312) is further configured to step down the first electric power received at the first medium voltage level to a first low voltage level that is lower than the first lower medium voltage level and that powers the drive. a switch gear transport electrically connected to a power generation source, and configured to receive electric power from the power generation source at a first medium voltage level; a first electrical cable connected to the switch gear transport that supplies a first electric power at the first medium voltage level from the switch gear transport; and a fracturing pump transport comprising: at least one first transformer (310, 312), a drive, a pump and an electric prime mover, each being disposed on the fracturing pump transport, wherein the fracturing pump transport is electrically connected to the switch gear transport via only the first electrical cable, the first electric power supplied from the switch gear transport via the first electrical cable being received by the at least one first transformer (310, 312); and, wherein the at least one first transformer (310, 312) is electrically connected to the electric prime mover and the drive, wherein the at least one first transformer (310, 312) is configured to step down the electric power received at the first medium voltage level to a first lower medium voltage level that powers the electric prime mover; and, wherein the at least one first transformer (310, 312) is further configured to step down the first electric power received at the first medium voltage level to a first low voltage level that is lower than the first lower medium voltage level and that powers the drive.
A process to clean a substrate, comprising a step of subjecting the substrate to an air-water spray, generated using a spray nozzle comprising an air passage and a water passage, wherein an outlet port for air and an outlet port for water in the spray nozzle are offset from one another with respect to the substrate; characterised in that a. air is greater than 90% and up to 99.95% by volume of the spray; b. the air velocity is greater than 80 m/s; c. the outlet port for water is positioned away from the surface of the substrate relative to the outlet port for air; d. the offset distance between the outlet port for air and the outlet port for water is in a range of 0.5 to 5 mm; and e. the air pressure at the exit of the spray nozzle is in the range of 0.103-0.310 MPa (15-45 psia). a. air is greater than 90% and up to 99.95% by volume of the spray; b. the air velocity is greater than 80 m/s; c. the outlet port for water is positioned away from the surface of the substrate relative to the outlet port for air; d. the offset distance between the outlet port for air and the outlet port for water is in a range of 0.5 to 5 mm; and e. the air pressure at the exit of the spray nozzle is in the range of 0.103-0.310 MPa (15-45 psia).
A transcutaneous drug delivery system comprising: a. 0.5 to 5 % (w/w) of a transcutaneously administrable photosensitive non-steroid anti-inflammatory drug (NSAID; b. a a non-ionic gelling agent selected from the group of cellulose gelling agents; c. a hydrophilic solvent; d. a cosmetically acceptable particulate titanium dioxide. a. 0.5 to 5 % (w/w) of a transcutaneously administrable photosensitive non-steroid anti-inflammatory drug (NSAID; b. a a non-ionic gelling agent selected from the group of cellulose gelling agents; c. a hydrophilic solvent; d. a cosmetically acceptable particulate titanium dioxide.
A method of making a vacuum insulated window unit, the method comprising: providing first and second glass substrates (2, 3) for the vacuum insulated window unit, with a seal and a cavity located between the glass substrates (2, 3); pumping a cleaning gas mixture comprising ozone into the cavity; maintaining at least part of the cleaning gas mixture comprising ozone in the cavity for a period of time, and removing compounds created by reaction with the cleaning gas mixture, and residual cleaning gas, from the cavity, wherein at least said pumping, maintaining, and removing are performed at substantially ambient temperature. providing first and second glass substrates (2, 3) for the vacuum insulated window unit, with a seal and a cavity located between the glass substrates (2, 3); pumping a cleaning gas mixture comprising ozone into the cavity; maintaining at least part of the cleaning gas mixture comprising ozone in the cavity for a period of time, and removing compounds created by reaction with the cleaning gas mixture, and residual cleaning gas, from the cavity, wherein at least said pumping, maintaining, and removing are performed at substantially ambient temperature.
A method for testing the vision of a subject, the method comprising: providing a near display device at a first distance (310, 311) located visually near to the test subject and a far display device at a second distance (320, 321) located visually far from the test subject; displaying a first visual indicia on the near display device at a first time; receiving a first input indicating that the test subject perceived the first visual indicia; displaying a second visual indicia on the far display device at a second time only after receiving the first input indicating that the test subject perceived the first visual indicia, the second distance (320,312) differing significantly from the first distance (310,311); and receiving a second input indicating that the test subject perceived the second visual indicia, wherein the near and far display devices (120,130) are positioned at differing angles of view relative to the subject, with one (120,130) to the left of the subject's normal line of vision and the other (130,120) to the right of the subject's normal line of vision, and the method further comprises: determining the time elapsed between the first time and the receipt of the first input; and determining the time elapsed between the second time and the receipt of the second input. providing a near display device at a first distance (310, 311) located visually near to the test subject and a far display device at a second distance (320, 321) located visually far from the test subject; displaying a first visual indicia on the near display device at a first time; receiving a first input indicating that the test subject perceived the first visual indicia; displaying a second visual indicia on the far display device at a second time only after receiving the first input indicating that the test subject perceived the first visual indicia, the second distance (320,312) differing significantly from the first distance (310,311); and receiving a second input indicating that the test subject perceived the second visual indicia, determining the time elapsed between the first time and the receipt of the first input; and determining the time elapsed between the second time and the receipt of the second input.