mhurhangee/ep-ind-claims huggingface dataset:
A process for making a silica-based glass composition, which includes the steps of: (a) providing input raw materials including a glass network former and gas releasing glass network modifiers to form a glass precursor melt; (b) providing additional raw materials including an additional non-gas releasing glass network former and non-gas releasing glass network modifiers; (c) melting and reacting said input raw materials to form said glass precursor melt having a temperature in the range of 900 °C to 1700 °C and having a viscosity of not more than 30 Pa·s, (d) refining said glass precursor melt; and then (e) adding said additional raw materials to said refined glass precursor melt to form a final silica-based glass composition, wherein all gas releasing glass network modifiers required to form said final silica-based glass composition in step (e) are provided in step (a). (a) providing input raw materials including a glass network former and gas releasing glass network modifiers to form a glass precursor melt; (b) providing additional raw materials including an additional non-gas releasing glass network former and non-gas releasing glass network modifiers; (c) melting and reacting said input raw materials to form said glass precursor melt having a temperature in the range of 900 °C to 1700 °C and having a viscosity of not more than 30 Pa·s, (d) refining said glass precursor melt; and then (e) adding said additional raw materials to said refined glass precursor melt to form a final silica-based glass composition,
An insole for insertion into footwear, comprising: a) a mid-foot portion and a heel portion, said mid-foot portion and heel portion being formed by a cushioning layer of a resilient material being a viscoelastic gel material having a first hardness and which provides a cushioning function, b) an upper surface comprising a substantially planar center portion and side portions (14,16) which form walls curving up from the center portion, side portion representing a lower wall on the edge of insole that comes in contact with the outside of the foot and the heel of the foot and side portion representing a higher wall on the edge of insole that comes in contact with the instep or arch of the foot, and c) a cushioning insert comprised within a recess in said cushioning layer and extending down from said cushioning layer; said cushioning insert comprising a resilient material being a viscoelastic gel material having a second hardness that is less than the hardness of said cushioning layer, wherein said cushioning insert extends from the heel portion to a portion of mid-foot portion to be positioned below the arch when the insole comes in contact with a foot wherein said cushioning insert comprises a plurality of spaced apart spring walls formed from said resilient material, said spring walls extending from a lower surface of said cushioning layer wherein said spring walls each have a height which is greatest at a center of said pillow and which tapers in height toward edges of said pillow wherein each of said spring walls is formed in a generally sinusoidal wave shape and wherein said insole is a 3/4 length insole formed from said heel portion and said mid-foot portion connecting together. a) a mid-foot portion and a heel portion, said mid-foot portion and heel portion being formed by a cushioning layer of a resilient material being a viscoelastic gel material having a first hardness and which provides a cushioning function, b) an upper surface comprising a substantially planar center portion and side portions (14,16) which form walls curving up from the center portion, side portion representing a lower wall on the edge of insole that comes in contact with the outside of the foot and the heel of the foot and side portion representing a higher wall on the edge of insole that comes in contact with the instep or arch of the foot, and c) a cushioning insert comprised within a recess in said cushioning layer and extending down from said cushioning layer; said cushioning insert comprising a resilient material being a viscoelastic gel material having a second hardness that is less than the hardness of said cushioning layer,
Method for interferometric determination of geometric and/or optical parameters of a cavity (40, 45), which on one side is limited by a reflective object movable in longitudinal direction, including the method steps: - Cyclical tuning the frequency f of a coherent light source over a frequency range Δf in both directions, - Deriving a target beam and a reference beam from the coherent light source, where the target beam traverses the cavity at least once, - Generating an interference signal 1(f) that depends on the frequency f of the light source by superimposing the reference beam on the target beam, selecting of the frequency range Δf and the rate of change w of the frequency f such that, taking into account the velocity v of the object, a periodic interference signal 1(f) is obtained over at least one period P thereof, - Acquiring an interference spectrum of the periodic interference signal I(f) over the selected frequency range Δf of the frequency f of the coherent light source, - Analysing a large number of measurement points of the acquired interference spectrum over the selected frequency range Δf through numerical fit of the measurement points to a generated mathematical function, and - Determining the geometric and/or optical parameters of the cavity (40, 45) by ascertaining the parameters of the generated mathematical function, wherein the generated mathematical function of the interference signal I(f) is a periodic function whose amplitude and phase are determined and the phase of this periodic function at a fixed reference frequency f R is determined as result. - Cyclical tuning the frequency f of a coherent light source over a frequency range Δf in both directions, - Deriving a target beam and a reference beam from the coherent light source, where the target beam traverses the cavity at least once, - Generating an interference signal 1(f) that depends on the frequency f of the light source by superimposing the reference beam on the target beam, selecting of the frequency range Δf and the rate of change w of the frequency f such that, taking into account the velocity v of the object, a periodic interference signal 1(f) is obtained over at least one period P thereof, - Acquiring an interference spectrum of the periodic interference signal I(f) over the selected frequency range Δf of the frequency f of the coherent light source, - Analysing a large number of measurement points of the acquired interference spectrum over the selected frequency range Δf through numerical fit of the measurement points to a generated mathematical function, and - Determining the geometric and/or optical parameters of the cavity (40, 45) by ascertaining the parameters of the generated mathematical function, wherein the generated mathematical function of the interference signal I(f) is a periodic function whose amplitude and phase are determined and the phase of this periodic function at a fixed reference frequency f R is determined as result.
A motorcycle which comprises: a combustion engine having a cylinder block protruding upwardly from a crankcase; an air cleaner unit for substantially purifying an air; and a supercharger for taking a substantially purified air from the air cleaner unit thereinto and supplying the air towards the combustion engine, wherein the supercharger and the air cleaner unit are disposed rearwardly of the cylinder block, the air cleaner unit is disposed rearwardly of the supercharger, characterized in that the air cleaner unit has an intake opening, which opens towards one lateral side of a motorcycle body, and the supercharger has a suction port that is directed towards the opposite lateral side of the motorcycle body, and the air cleaner unit has an outlet opening positioned on the opposite lateral side of the motorcycle body and opening forwards of the motorcycle body. a combustion engine having a cylinder block protruding upwardly from a crankcase; an air cleaner unit for substantially purifying an air; and a supercharger for taking a substantially purified air from the air cleaner unit thereinto and supplying the air towards the combustion engine, wherein the supercharger and the air cleaner unit are disposed rearwardly of the cylinder block, the air cleaner unit is disposed rearwardly of the supercharger, characterized in that the air cleaner unit has an intake opening, which opens towards one lateral side of a motorcycle body, and the supercharger has a suction port that is directed towards the opposite lateral side of the motorcycle body, and the air cleaner unit has an outlet opening positioned on the opposite lateral side of the motorcycle body and opening forwards of the motorcycle body.
A deposition condition control device for controlling a deposition condition of a machine tool that moves a laser irradiation position while supplying a metal material onto a portion to be machined of a base material to perform additive manufacturing, the deposition condition control device comprising: a machining program analyzing unit to obtain a scan rate of a laser beam at the laser irradiation position on the basis of a machining program; a data acquiring unit to acquire an output value of the laser beam, a supply amount of the metal material, and a temperature of the portion to be machined in a molten state; a welding state determination unit to determine whether or not a welding state of the metal material is a stable welding amount state on the basis of the scan rate, the output value, the supply amount, and the temperature; a deposition condition adjusting unit to adjust the output value and the supply amount so that a result of determination by the welding state determination unit will be the stable welding amount state; and a deposition condition outputting unit to output a command value of the output value and a command value of the supply amount adjusted by the deposition condition adjusting unit to the machine tool. a machining program analyzing unit to obtain a scan rate of a laser beam at the laser irradiation position on the basis of a machining program; a data acquiring unit to acquire an output value of the laser beam, a supply amount of the metal material, and a temperature of the portion to be machined in a molten state; a welding state determination unit to determine whether or not a welding state of the metal material is a stable welding amount state on the basis of the scan rate, the output value, the supply amount, and the temperature; a deposition condition adjusting unit to adjust the output value and the supply amount so that a result of determination by the welding state determination unit will be the stable welding amount state; and a deposition condition outputting unit to output a command value of the output value and a command value of the supply amount adjusted by the deposition condition adjusting unit to the machine tool.
A method for administering supplement feed materials to a horse comprising: (a) providing a multiple-sectioned unitary flexible thermoplastic package, the thermoplastic package comprising a plurality of package sections; (b) adding to each package section of the multiple-sectioned unitary package supplement materials that have been previously selected for a specified horse; (c) administering the supplement feed materials from the package to the horse. (a) providing a multiple-sectioned unitary flexible thermoplastic package, the thermoplastic package comprising a plurality of package sections; (b) adding to each package section of the multiple-sectioned unitary package supplement materials that have been previously selected for a specified horse; (c) administering the supplement feed materials from the package to the horse.
An operating method for an anion-exchange membrane-type fuel cell including an anion-exchange membrane-electrode assembly in which an anode is joined to one surface of an anion-exchange membrane; a cathode is joined to the other surface; and air is supplied to the cathode, wherein: counterion in the anion-exchange membrane at the start of operation is HCO3-, CO32- or mixture thereof; characterised in that the air supplied to the cathode is reduced in concentration of carbon dioxide.
A method of performing a random access procedure by a user equipment, UE, in a wireless communication system, the method comprising: obtaining at least one random access channel, RACH, configuration; selecting an initial uplink, UL, bandwidth part, BWP, from among UL BWPs; and transmitting a random access preamble on the initial UL BWP selected from among UL BWPs based on at least one the RACH configuration, wherein the UL BWPs include at least one of a first UL BWP dedicated to a first type UE having a reduced capability than a second type UE, and a second UL BWP in which the second type UE operates, characterized in that wherein the UE is the first type UE, wherein the second UL BWP is selected as the UL BWP of the UE based on that the first UL BWP is unavailable, and wherein an availability of the first UL BWP is determined based on a system information block 1, SIB1. obtaining at least one random access channel, RACH, configuration; selecting an initial uplink, UL, bandwidth part, BWP, from among UL BWPs; and transmitting a random access preamble on the initial UL BWP selected from among UL BWPs based on at least one the RACH configuration, wherein the UL BWPs include at least one of a first UL BWP dedicated to a first type UE having a reduced capability than a second type UE, and a second UL BWP in which the second type UE operates, characterized in that wherein the UE is the first type UE, wherein the second UL BWP is selected as the UL BWP of the UE based on that the first UL BWP is unavailable, and wherein an availability of the first UL BWP is determined based on a system information block 1, SIB1.
A paint baking method for a vehicle body, the vehicle body - having a main shell body to which a lid part is attached via a hinge, and - including a body exterior part and a coated surface of the main shell body and the lid part adjacent to the hinge, the paint baking method comprising: - opening the lid part before moving a heat source toward the coated surface, the heat source giving heat energy to the coated surface of the vehicle body being conveyed in a state of opening the lid part; - moving the heat source toward the coated surface to bake a wet coating film applied to the coated surface, the wet coating film being formed by a thermoset paint; - thereby locally heating and thus baking a wet coating film applied to the coated surface around said hinge; - moving away the heat source from the coated surface; - closing the lid part after having moved the heat source away from the coated surface; and - thereafter baking a coating film applied to the vehicle body using hot air with the lid part being closed. - having a main shell body to which a lid part is attached via a hinge, and - including a body exterior part and a coated surface of the main shell body and the lid part adjacent to the hinge, - opening the lid part before moving a heat source toward the coated surface, the heat source giving heat energy to the coated surface of the vehicle body being conveyed in a state of opening the lid part; - moving the heat source toward the coated surface to bake a wet coating film applied to the coated surface, the wet coating film being formed by a thermoset paint; - thereby locally heating and thus baking a wet coating film applied to the coated surface around said hinge; - moving away the heat source from the coated surface; - closing the lid part after having moved the heat source away from the coated surface; and - thereafter baking a coating film applied to the vehicle body using hot air with the lid part being closed.
A compound of the following general formula or its pharmaceutically acceptable salt, [wherein, A is a 3 to 8 membered ring and contains 1 to 4 heteroatoms selected from O, S, and N; R 1 is a C 1 -C 6 alkyl group, or a C 1 -C 6 haloalkyl group; R 2 is a unsaturated bicyclic group, which may be substituted by R 4; R 3 is a hydrogen or halogen atom; R 4 is a C 1 -C 6 alkyl group, a C 1 -C 6 haloalkyl group, OH, OR 1A, halogen, -(CH 2)aOH, CO 2 H, CONH 2, CONHR 1A, CONR 1A R 1A, CN, COR 1A, NH 2, NHR 1A, NR 1A R 1A, NHCOR 1A, SR 1A, SOR 1A, SO 2 R 1A, SO 2 NH 2, SO 2 NHR 1A, SO 2 NR 1A R 1A, or NHSO 2 R 1A; when R 4 has two R 1A, they may be same or different, or R 1A may combine with the other R 1A; R 5 is a C 1 -C 6 alkyl group, -(CH 2)aOH, -(CH 2)aOR 1B, halogen, CONH 2, CONR 1B R 1B, COR 1B, SO 2 R 1B, -OCH 2 CH 2 NR 1B R 1B or a C 1 -C 6 haloalkyl group; when p is plural, R 5 may be same or different, or R 5 may combine with the other R 5; R 1A and R 1B are each independently a C 1 -C 6 alkyl group or a C 1 -C 6 haloalkyl group; a is 0, 1, or 2; n is 1, or 2; and p is 0, 1, 2, 3, 4, or 5]. A is a 3 to 8 membered ring and contains 1 to 4 heteroatoms selected from O, S, and N; R 1 is a C 1 -C 6 alkyl group, or a C 1 -C 6 haloalkyl group; R 2 is a unsaturated bicyclic group, which may be substituted by R 4; R 3 is a hydrogen or halogen atom; R 4 is a C 1 -C 6 alkyl group, a C 1 -C 6 haloalkyl group, OH, OR 1A, halogen, -(CH 2)aOH, CO 2 H, CONH 2, CONHR 1A, CONR 1A R 1A, CN, COR 1A, NH 2, NHR 1A, NR 1A R 1A, NHCOR 1A, SR 1A, SOR 1A, SO 2 R 1A, SO 2 NH 2, SO 2 NHR 1A, SO 2 NR 1A R 1A, or NHSO 2 R 1A; when R 4 has two R 1A, they may be same or different, or R 1A may combine with the other R 1A; R 5 is a C 1 -C 6 alkyl group, -(CH 2)aOH, -(CH 2)aOR 1B, halogen, CONH 2, CONR 1B R 1B, COR 1B, SO 2 R 1B, -OCH 2 CH 2 NR 1B R 1B or a C 1 -C 6 haloalkyl group; when p is plural, R 5 may be same or different, or R 5 may combine with the other R 5; R 1A and R 1B are each independently a C 1 -C 6 alkyl group or a C 1 -C 6 haloalkyl group; a is 0, 1, or 2; n is 1, or 2; and p is 0, 1, 2, 3, 4, or 5].
Planet carrier for a speed-reducing unit with an epicyclic gear train for a turbine engine, said planet carrier comprising a cage defining an internal space for mounting a central sun gear of rotation axis A and an annular row of planet gears arranged around the axis A and meshed with said sun gear, said sun gear comprising means for coupling to a first shaft, said cage comprising two parallel annular walls (136, 138) centred on said axis A and a cylindrical wall connecting said annular walls at their external periphery, a first of said annular walls being connected to a cylindrical body comprising means for coupling to a second shaft, characterised in that a second of said annular walls is formed of a single part with lubrication means (158, 160, 162) which comprise an annular groove for receiving oil formed in said second wall and extending to the periphery of a central opening centred on the axis A of the second wall, said annular groove opening out radially inwards.
Single movement stabilisation system comprising the head of a vehicle for housing at least two stabiliser arms arranged in a symmetric manner with respect to the symmetry plane of the head of a vehicle, perpendicular to the ground surface further comprising the fact that: • said stabiliser arm comprises an extractable element inside a sliding guide element, at whose end an arm with a support foot is bound with hinge, as well as at least one actuator means of the movement of the arm such as a hydraulic cylinder, at least one actuator element of the movement of the extractable element such as a tie rod element; • said arm movement actuator means (8,11) are obliquely positioned with respect to the ground surface in order to utilise the maximum useful stroke; • said movement actuator means (8,11) are controlled by stopping means, and characterized in that said stabiliser arms are bound, along the symmetry plane of the vehicle head, to each other by means of two pins (7,13), being a first pin, which is placed in the upper portion of the head, and a second pin in intermediate position, of which pin, connects the ends of the extractable element motion actuator means and pin connects the ends of the actuator means of the movement of the arm. • said stabiliser arm comprises an extractable element inside a sliding guide element, at whose end an arm with a support foot is bound with hinge, as well as at least one actuator means of the movement of the arm such as a hydraulic cylinder, at least one actuator element of the movement of the extractable element such as a tie rod element; • said arm movement actuator means (8,11) are obliquely positioned with respect to the ground surface in order to utilise the maximum useful stroke; • said movement actuator means (8,11) are controlled by stopping means, and characterized in that said stabiliser arms are bound, along the symmetry plane of the vehicle head, to each other by means of two pins (7,13), being a first pin, which is placed in the upper portion of the head, and a second pin in intermediate position, of which pin, connects the ends of the extractable element motion actuator means and pin connects the ends of the actuator means of the movement of the arm.
A method of cladding and fusion welding of superalloys comprises the steps of: a. application of a composite filler powder that comprises 5-50% by weight brazing powder which includes melting point depressants which includes boron in the amount of 0.2 to 4 wt%, and 50-95% by weight high temperature welding powder, to a superalloy base material; b. simultaneous heating of the base material and the composite filler powder by a welding heat source that is movable relative to the base material, to a temperature that fully melts the brazing powder and at least partially melts the high temperature welding powder and also melts a surface layer of the base material, thereby forming a welding pool; c. cooling of the welding pool such that upon solidification and cooling, a heterogeneous weld bead is formed which is a composite structure that comprises an interconnected framework of high melting temperature columnar dendrites produced by the high temperature welding powder and an interdendritic eutectic matrix in the weld bead is formed by the brazing powder and the welding powder and the base material, and d. post weld heat treatment at a temperature exceeding a solidus temperature of the brazing powder and below the solidus temperature of the high temperature welding powder, that results in at least a partial re-melting of the eutectic that is adapted to self healing by filling of cracks up to 0.8 mm in width and up to 20 mm in length, in the weld bead and the base material by capillary action followed by cooling and consolidation of the weld bead. a. application of a composite filler powder that comprises 5-50% by weight brazing powder which includes melting point depressants which includes boron in the amount of 0.2 to 4 wt%, and 50-95% by weight high temperature welding powder, to a superalloy base material; b. simultaneous heating of the base material and the composite filler powder by a welding heat source that is movable relative to the base material, to a temperature that fully melts the brazing powder and at least partially melts the high temperature welding powder and also melts a surface layer of the base material, thereby forming a welding pool; c. cooling of the welding pool such that upon solidification and cooling, a heterogeneous weld bead is formed which is a composite structure that comprises an interconnected framework of high melting temperature columnar dendrites produced by the high temperature welding powder and an interdendritic eutectic matrix in the weld bead is formed by the brazing powder and the welding powder and the base material, and d. post weld heat treatment at a temperature exceeding a solidus temperature of the brazing powder and below the solidus temperature of the high temperature welding powder, that results in at least a partial re-melting of the eutectic that is adapted to self healing by filling of cracks up to 0.8 mm in width and up to 20 mm in length, in the weld bead and the base material by capillary action followed by cooling and consolidation of the weld bead.