mhurhangee/ep-ind-claims huggingface dataset:
Robot arm having at least two limbs, which are connected to one another at one of their ends via an articulated joint so that they can be pivoted relative to one another about a common rotation axis, wherein at least one of the limbs extends in a longitudinal direction and comprises a joint portion and a transition region adjoined thereto, which runs from the joint portion of the limb in the direction of the joint portion of the other limb, wherein • the transition region of at least one of the limbs (2, 2a) has a peripheral edge which, when considered from a direction running transverse to the rotation axis and transverse to the longitudinal direction, crosses a parting line present between the two joint portions; • the peripheral edge runs at a distance of less than 25mm outside the surface of the underlying joint portion of the other limb with respect to the rotation axis; characterised in that • a portion of the peripheral edge, when considered from the direction running transversely to the rotation axis and transversely to the longitudinal direction, extends obliquely to the rotation axis at the position where the peripheral edge crosses the parting line. • the transition region of at least one of the limbs (2, 2a) has a peripheral edge which, when considered from a direction running transverse to the rotation axis and transverse to the longitudinal direction, crosses a parting line present between the two joint portions; • the peripheral edge runs at a distance of less than 25mm outside the surface of the underlying joint portion of the other limb with respect to the rotation axis; characterised in that • a portion of the peripheral edge, when considered from the direction running transversely to the rotation axis and transversely to the longitudinal direction, extends obliquely to the rotation axis at the position where the peripheral edge crosses the parting line.
A method for producing a non-oriented silicon steel, comprising the following steps in sequence: a) steel making, b) hot rolling, c) normalizing, d) cold rolling, and e) annealing, wherein, said steel making step a) is used for obtaining a casting slab having the following components by weight: C≤0.005%, 0.1%≤Si≤2.5%, Al≤1.5%, 0.10%≤Mn≤2.0%, P≤0.2%, S≤0.005%, N≤0.005%, Nb+V+Ti≤0.006%, Sn≤0.1%, Sb≤0.1% and the balance being Fe and inevitable impurities; said steel making step a) includes RH refining, wherein decarbonization treatment and deoxidation treatment are proceeded in RH refining; the input amount of the deoxidizer Y satisfies the following formula: Y = K×m×([○]-50), wherein [○] represents the content of free oxygen in unit of ppm upon the completion of decarbonization; K represents a coefficient indicating deoxidation capacity of the deoxidizer, and is in the range from 0.35×10 -3 to 1.75×10 -3, wherein said deoxidizer in said RH refining is aluminum, silicon iron, or calcium, K is 0.88×10 -3 when said deoxidizer in said RH refining is aluminum, K is 1.23×10 -3 when said deoxidizer in said RH refining is silicon iron and K is 0.70×10 -3 when said deoxidizer in said RH refining is calcium; m represents the weight of molten steel contained in the steel ladle, in the unit of ton; and in said normalizing step c), the hot-rolled steel strip after hot rolling is heated to a temperature of phase transformation point temperature Aclor above and 1,100°C or below and is held for a time period t of 10∼90s.
An electronic device comprising: an image transformation unit configured to divide a panoramic image generated by combining a plurality of pickup images to generate a plurality of images; calculate, on the basis of characteristic information of an image pickup unit by which the plurality of pickup images are generated, a center position in the panoramic image, an orientation associated with the center position, center positions in the respective images after the division, and orientations corresponding to the center positions in the respective images after the division; and rotate the respective images after the division on the basis of the calculated orientations; the electronic device further comprising a display control unit configured to arrange and display the respective images after the division on a map on the basis of an image pickup position at a time of the generation of the panoramic image; wherein the image transformation unit is configured to rotate the respective images after the division so that the orientation at the center position in the respective images after the division is substantially matched with an orientation on the map. an image transformation unit configured to divide a panoramic image generated by combining a plurality of pickup images to generate a plurality of images; calculate, on the basis of characteristic information of an image pickup unit by which the plurality of pickup images are generated, a center position in the panoramic image, an orientation associated with the center position, center positions in the respective images after the division, and orientations corresponding to the center positions in the respective images after the division; and rotate the respective images after the division on the basis of the calculated orientations; the electronic device further comprising a display control unit configured to arrange and display the respective images after the division on a map on the basis of an image pickup position at a time of the generation of the panoramic image; wherein the image transformation unit is configured to rotate the respective images after the division so that the orientation at the center position in the respective images after the division is substantially matched with an orientation on the map.
A method comprising: initiating transfer of media content from a first device (100, 300) to a second device, responsive to a transfer request from the second device, while the first device is operating in a high power mode; characterized by disabling access by the second device to a gateway at the first device (100, 300), responsive to the transfer request from the second device; and entering a low power mode in the first device, responsive to completion of the transfer of the media content from the first device to the second device. initiating transfer of media content from a first device (100, 300) to a second device, responsive to a transfer request from the second device, while the first device is operating in a high power mode; characterized by disabling access by the second device to a gateway at the first device (100, 300), responsive to the transfer request from the second device; and entering a low power mode in the first device, responsive to completion of the transfer of the media content from the first device to the second device.
A method for producing a cellulosic molded body, comprising the steps of: - molding a cellulose-containing solution - precipitating the molded solution - washing the molded body thus obtained, and - drying the molded body, characterized in that a functional substance is introduced into the never-dried cellulosic molded body during its production, after the molding step, while the chemical structure of the functional substance is maintained, the functional substance having an impregnating efficiency K', as defined in the description, of less than 10, preferably less than 5. - molding a cellulose-containing solution - precipitating the molded solution - washing the molded body thus obtained, and - drying the molded body,
A personal care composition comprising: (a) one or more polymer comprising, as polymerized units, (i) 75% to 35% by weight, based on the weight of said polymer, one or more (meth)acrylate monomer selected from at least one of C1-C4 (meth)acrylate, (meth)acrylic acid, styrene, or substituted styrene, and (ii) 25% to 65% by weight, based on the weight of said polymer, one or more hydrophobic monomer, selected from at least one ofhydrophobically substituted (meth)acrylate monomers, with alkyl chain length from C8 to C22 and, (iii) optionally crosslinker, and, (b) at least one personal care active other than a suncare active, wherein said one or more hydrophobic monomer (ii) comprises at least ethylhexyl acrylate. (a) one or more polymer comprising, as polymerized units, (i) 75% to 35% by weight, based on the weight of said polymer, one or more (meth)acrylate monomer selected from at least one of C1-C4 (meth)acrylate, (meth)acrylic acid, styrene, or substituted styrene, and (ii) 25% to 65% by weight, based on the weight of said polymer, one or more hydrophobic monomer, selected from at least one ofhydrophobically substituted (meth)acrylate monomers, with alkyl chain length from C8 to C22 and, (iii) optionally crosslinker, and, (i) 75% to 35% by weight, based on the weight of said polymer, one or more (meth)acrylate monomer selected from at least one of C1-C4 (meth)acrylate, (meth)acrylic acid, styrene, or substituted styrene, and (ii) 25% to 65% by weight, based on the weight of said polymer, one or more hydrophobic monomer, selected from at least one ofhydrophobically substituted (meth)acrylate monomers, with alkyl chain length from C8 to C22 and, (iii) optionally crosslinker, and, (b) at least one personal care active other than a suncare active,
A method for manufacturing hollow shafts from an input object for use in the gearboxes of wind-energy applications characterised in that said method comprises the steps of optimisation of the near net shape through forging followed by proof machining and stress relieving, said input object is a concast bloom or an ingot, said concast bloom or said ingot being round or polygonal in cross section, wherein said step of optimising the near net shape comprises the steps of: a. heating said bloom or ingot in a furnace b. first upsetting said bloom or ingot to an intermediate height c. drawing the upset bloom or ingot to an intermediate diameter d. providing booster heating to the drawn bloom or ingot e. second upsetting the booster-heated bloom or ingot in a hollow die to the final height of the preform f. punching the second upset bloom or ingot in a hollow die g. Providing heat treatment to the punched bloom or ingot to carry out normalising, hardening and double tempering so as to produce a near net shaped hollow shaft. a. heating said bloom or ingot in a furnace b. first upsetting said bloom or ingot to an intermediate height c. drawing the upset bloom or ingot to an intermediate diameter d. providing booster heating to the drawn bloom or ingot e. second upsetting the booster-heated bloom or ingot in a hollow die to the final height of the preform f. punching the second upset bloom or ingot in a hollow die g. Providing heat treatment to the punched bloom or ingot to carry out normalising, hardening and double tempering so as to produce a near net shaped hollow shaft.
A gas turbine engine comprising: a variable geometry combustor (206, 206', 206") having pilot fuel injectors and main fuel injectors; a fuel metering system configured to control fuel flow to the pilot fuel injectors and the main fuel injectors; a variable geometry airflow arrangement for the variable geometry combustor, which is configured to vary the airflow through the pilot fuel injectors and/or the main fuel injectors; a control system configured to control the variable geometry airflow arrangement in dependence upon airflow delivered to the combustor, the fuel flow to the pilot fuel injectors and the main fuel injectors, and a target index of soot emissions, thereby controlling airflow through the pilot fuel injectors and/or the main fuel injectors and hence the quantity of soot produced by combustion, wherein the control system is configured to derive the target index of soot emissions in dependence upon an atmospheric condition which is causative of a condensation trail; wherein the control system is configured to respond to a decrease in the target index of soot emissions by controlling the variable geometry airflow arrangement to decrease the airflow through the main fuel injectors relative to the airflow through the pilot fuel injectors. a variable geometry combustor (206, 206', 206") having pilot fuel injectors and main fuel injectors; a fuel metering system configured to control fuel flow to the pilot fuel injectors and the main fuel injectors; a variable geometry airflow arrangement for the variable geometry combustor, which is configured to vary the airflow through the pilot fuel injectors and/or the main fuel injectors; a control system configured to control the variable geometry airflow arrangement in dependence upon airflow delivered to the combustor, the fuel flow to the pilot fuel injectors and the main fuel injectors, and a target index of soot emissions, thereby controlling airflow through the pilot fuel injectors and/or the main fuel injectors and hence the quantity of soot produced by combustion, wherein the control system is configured to derive the target index of soot emissions in dependence upon an atmospheric condition which is causative of a condensation trail; wherein the control system is configured to respond to a decrease in the target index of soot emissions by controlling the variable geometry airflow arrangement to decrease the airflow through the main fuel injectors relative to the airflow through the pilot fuel injectors.
A vehicle comprising: a frame; at least two non-driving wheels coupled to the frame; at least two drive wheels coupled to the frame; a transmission system capable of driving the two drive wheels at different speeds and in different directions, the transmission system including two independent drive units, one coupled to each driving wheel; a steering assembly configured to cause the non-driving wheels to turn the vehicle; and a speed control assembly that includes a speed input device configured to be manipulated by an operator and two speed cams (112, 112A) movable in response to movement of the speed input device; an integration device that includes an assembly which includes two followers coupled, respectively, to the two drive units, each follower responsive to movement of the steering assembly and to movement of a respective one of the two speed cams, and which integrates a steering input from the steering assembly with a speed control input from the speed control assembly and controls the drive units through the two followers moving in response to the speed control input, controlling the magnitude and direction of rotation of the drive wheels to produce a first vehicle turning radius; and the steering assembly including two pairs of gears (52, 70, 80, 81A, 52A, 70A), each having a toothed portion with a non-circular pitch line (P s, P w), to turn the non-driving wheels to produce a second vehicle turning radius, the gears' configuration being such that the second vehicle turning radius is able to equal the first vehicle turning radius during operation of the vehicle. a frame; at least two non-driving wheels coupled to the frame; at least two drive wheels coupled to the frame; a transmission system capable of driving the two drive wheels at different speeds and in different directions, the transmission system including two independent drive units, one coupled to each driving wheel; a steering assembly configured to cause the non-driving wheels to turn the vehicle; and a speed control assembly that includes a speed input device configured to be manipulated by an operator and two speed cams (112, 112A) movable in response to movement of the speed input device; an integration device that includes an assembly which includes two followers coupled, respectively, to the two drive units, each follower responsive to movement of the steering assembly and to movement of a respective one of the two speed cams, and which integrates a steering input from the steering assembly with a speed control input from the speed control assembly and controls the drive units through the two followers moving in response to the speed control input, controlling the magnitude and direction of rotation of the drive wheels to produce a first vehicle turning radius; and the steering assembly including two pairs of gears (52, 70, 80, 81A, 52A, 70A), each having a toothed portion with a non-circular pitch line (P s, P w), to turn the non-driving wheels to produce a second vehicle turning radius, the gears' configuration being such that the second vehicle turning radius is able to equal the first vehicle turning radius during operation of the vehicle.
A method for processing a signal formed from a sequence of pulses, including at least one repeating pattern formed from at least one pulse, said pattern being repeated in the signal with a pattern repetition period, characterized in that it includes the following steps: - estimating the pattern repetition period of said signal, - calculating a sequence of phases as a function of an arrival date of each pulse relative to a chosen reference arrival date and the estimated pattern repetition period, - from said calculated sequence of phases, estimating (60, 70) at least one phase value and an associated standard deviation, said phase value being associated with a phase moment representative of the repetitive pattern; - obtaining and exploiting characterization parameters of the signal by using the estimated phase values. - estimating the pattern repetition period of said signal, - calculating a sequence of phases as a function of an arrival date of each pulse relative to a chosen reference arrival date and the estimated pattern repetition period, - from said calculated sequence of phases, estimating (60, 70) at least one phase value and an associated standard deviation, said phase value being associated with a phase moment representative of the repetitive pattern; - obtaining and exploiting characterization parameters of the signal by using the estimated phase values.
An automatic working centre for frame pieces, comprised of a work table formed by a group of mobile cross bars, wherein each bar is equipped with locking means for the pieces to be worked, the locking means including at least two pressers, said pressers comprising sections of surfaces interpenetratingly shaped, so as to complement one another on the upper surface of the pieces, allowing two pressers to act on the same piece to be worked at the same time, said working centre being characterized in that it comprises a movement device for the pressers, able to transmit a roto-translating movement, allowing them to pass from a standstill position, in which they do not interact with the pieces, to a working position, in which they clamp the pieces during machining, and vice versa, and mobile strike plates, separate from the pressers, passing during machining from an extended position, in which they form an extended lower support for the pieces, to a retracted position, in which they do not interact with the pieces, and vice versa.
A hard lubrication film with which a surface of a base material is coated, the hard lubrication film having two or more alternately laminated layers that are one or more A-layers made of (Cr a Mo b W c V d B e) 1-x-y C x N y and one or more B-layers made of (CraMo b W c V d B e) 1-x-y-z C x N y O z, characterized in that atom ratios a, b, c, d, e=1-a-b-c-d, x+y, and y related to the A-layers satisfy 0.2≤a≤0.7, 0.05≤b≤0.6, 0≤c≤0.3, 0≤d≤0.05, 0≤e≤0.05, 0.3≤x+y≤0.6, and 0≤y≤0.6, respectively, atom ratios a, b, c, d, e=1-a-b-c-d, x, y, z, and x+y+z related to the B-layers satisfy 0.2≤a≤0.7, 0.05≤b≤0.6, 0≤c≤0.3, 0≤d≤0.05, 0≤e≤0.05, 0≤x≤0.6, 0≤y≤0.6, 0≤z≤0.6, and 0.3≤x+y+z≤0.6, respectively, and each of the A-layers has a film thickness within a range of 2 nm or more to 1000 nm or less, wherein each of the B-layers has a film thickness within a range of 2 nm or more to 500 nm or less, and wherein the hard lubrication film has a total film thickness within a range of 0.1 μm or more to 10.0 μm or less.
A current collector comprising: a conductive base material; and a resin layer formed on at least one surface of the conductive base material, wherein the resin layer contains an organic resin and conductive particles, a deposition amount of the resin layer on the conductive base material is 0.5 to 20 g/m 2, an average of resistance of the resin layer measured by the two-terminal method is 0.5 to 50 Ω, and the resin layer is a PTC layer, characterised in that the ten point average roughness (Rz) of the surface of the resin layer is 0.4 to 10 μm, and the average spacing of ruggedness (Sm) of the surface of the resin layer is 5 to 200 μm. a conductive base material; and a resin layer formed on at least one surface of the conductive base material,
Head for a massage apparatus, comprising - a frame, - a first massage roller and a second massage roller intended to come into contact with the skin of a user, said first massage roller extending longitudinally along a first axis (A-A') about which the first roller is rotatably mounted with respect to the frame, said second massage roller extending longitudinally along a second axis (B-B') which is parallel to the first axis (A-A') and about which the second roller is rotatably mounted with respect to the frame, - a drive system designed to rotate said first and second roller (4, 5) counter-rotatingly, characterised in that the massage head comprises a system for adjusting the relative position of said first and second roller (4, 5) in response to external forces against at least said second roller by the skin of a user during the rotation of said second roller, said adjustment system being designed and configured to keep the first axis (A-A') stationary relative to said frame, while allowing said second axis (B-B') to move, in response to the external forces exerted on the skin of the user against at least the second roller during the rotation of the latter, between a first position defining a minimum spacing (E min) between said first and second rollers (4, 5) and a second position defining a maximum spacing (E max) between said first and second rollers (4, 5). - a frame, - a first massage roller and a second massage roller intended to come into contact with the skin of a user, said first massage roller extending longitudinally along a first axis (A-A') about which the first roller is rotatably mounted with respect to the frame, said second massage roller extending longitudinally along a second axis (B-B') which is parallel to the first axis (A-A') and about which the second roller is rotatably mounted with respect to the frame, - a drive system designed to rotate said first and second roller (4, 5) counter-rotatingly,