mhurhangee/ep-ind-claims huggingface dataset:
A shaft supporting structure comprising: a shaft; and a bearing (41, 42) that supports the shaft; wherein the bearing (41, 42) has an inner ring (41A, 42A) that is externally fitted to the shaft, wherein the shaft includes a large diameter portion (13, 15) where the bearing (41, 42) is placed, and a small diameter portion that is disposed to be adj acent to the large diameter portion (13, 15) and has an outer diameter smaller than that (d13, dl5) of the large diameter portion (13, 15), wherein the large diameter portion (13, 15) includes a retaining ring groove or a screw portion, wherein an axial-direction movement of the inner ring (41A, 42A) of the bearing (41, 42) is regulated by a retaining ring fitted in the retaining ring groove or a bearing nut screwed to the screw portion, characterised in that a collar is fitted into the small diameter portion through interference fitting. a shaft; and a bearing (41, 42) that supports the shaft; wherein the bearing (41, 42) has an inner ring (41A, 42A) that is externally fitted to the shaft, wherein the shaft includes a large diameter portion (13, 15) where the bearing (41, 42) is placed, and a small diameter portion that is disposed to be adj acent to the large diameter portion (13, 15) and has an outer diameter smaller than that (d13, dl5) of the large diameter portion (13, 15), wherein the large diameter portion (13, 15) includes a retaining ring groove or a screw portion, wherein an axial-direction movement of the inner ring (41A, 42A) of the bearing (41, 42) is regulated by a retaining ring fitted in the retaining ring groove or a bearing nut screwed to the screw portion, characterised in that
Device for indicating the status of a gas burner when operated with a gas control apparatus with liquid-filled temperature controller characterised in that the device connected to an outlet of the gas control apparatus for the gas burner consists of a housing which has at least two interconnected chambers, which are separated gas-tight by a membrane connected on one side to an electrically conductive component, wherein the chamber A is connected to the gas outlet of the gas control apparatus, the membrane to which the gas pressure of the gas burner is applied through an opening in the chamber A when the gas valve is open, produces a stroke, by means of which the chamber B in which the side of the membrane having the connected electrically conductive component is positioned, closes a circuit via contact elements led outwards and suitably indicates the operating status, whereas when the gas valve is closed, the stroke of the membrane goes back to the starting position at its own spring constant, the circuit is opened and no operating status is indicated.
A method for temporarily reducing the viscosity of a product by applying highly propagating ultrasonic energy to said product, the method comprising contacting at least a portion of said product with a highly propagating ultrasonic energy emitting assembly; and emitting highly propagating ultrasonic energy from the assembly into the product thereby reducing the viscosity of the product; and wherein the highly propagating ultrasonic energy: - is emitted substantially orthogonal to the axial direction of a sonotrode(s) emitting said energy; - has a frequency of between about 16kHz to about 24kHz; - has an energy density of between about 0.0001 W/cm 3 to about 30W/cm 3; - has an amplitude of between about 0.1 micron to about 30 microns; and - propagates substantially uniformly across the volume of product treated; and wherein the viscosity of said product is reduced for a period of from about 1 second to about 24 hours or about 1 day to about a week or about 1 week to about 1 month or about 1 month to about 6 months. - is emitted substantially orthogonal to the axial direction of a sonotrode(s) emitting said energy; - has a frequency of between about 16kHz to about 24kHz; - has an energy density of between about 0.0001 W/cm 3 to about 30W/cm 3; - has an amplitude of between about 0.1 micron to about 30 microns; and - propagates substantially uniformly across the volume of product treated; and
An electrolyte for a lithium-ion battery comprising: a lithium salt, and a non-aqueous organic solvent which includes a carbonate-based solvent, a flame retardant, a film former and a stabilizing medium, wherein the flame retardant comprises PYR 1R PF 6 (N-Methyl- N- alkylpyrrolidinium hexafluorophosphate salt) at the amount of 1 to 15 wt. % of the electrolyte, wherein in PYR 1R PF 6, PYR represents pyrrolidinium, subscript 1 indicates the methyl group, and subscript R indicates the number of carbon atoms in the alkyl side chain, in which R is selected from any one of 2 to 10, wherein the stabilizing medium includes first and second stabilizers, which are different from each other and wherein the first stabilizer comprises an ionic liquid with PYR 1R + cation and a boron-based anion other than BF 4 -, wherein the second stabilizer comprises an ionic liquid with PYR 1R + cation and/or with an anion selected from a group consisting of TFSI - and FSI -. a lithium salt, and a non-aqueous organic solvent which includes a carbonate-based solvent, a flame retardant, a film former and a stabilizing medium, wherein the flame retardant comprises PYR 1R PF 6 (N-Methyl- N- alkylpyrrolidinium hexafluorophosphate salt) at the amount of 1 to 15 wt. % of the electrolyte, wherein in PYR 1R PF 6, PYR represents pyrrolidinium, subscript 1 indicates the methyl group, and subscript R indicates the number of carbon atoms in the alkyl side chain, in which R is selected from any one of 2 to 10, wherein the stabilizing medium includes first and second stabilizers, which are different from each other and wherein the first stabilizer comprises an ionic liquid with PYR 1R + cation and a boron-based anion other than BF 4 -, wherein the second stabilizer comprises an ionic liquid with PYR 1R + cation and/or with an anion selected from a group consisting of TFSI - and FSI -. wherein the flame retardant comprises PYR 1R PF 6 (N-Methyl- N- alkylpyrrolidinium hexafluorophosphate salt) at the amount of 1 to 15 wt. % of the electrolyte, wherein in PYR 1R PF 6, PYR represents pyrrolidinium, subscript 1 indicates the methyl group, and subscript R indicates the number of carbon atoms in the alkyl side chain, in which R is selected from any one of 2 to 10, wherein the stabilizing medium includes first and second stabilizers, which are different from each other and wherein the first stabilizer comprises an ionic liquid with PYR 1R + cation and a boron-based anion other than BF 4 -, wherein the second stabilizer comprises an ionic liquid with PYR 1R + cation and/or with an anion selected from a group consisting of TFSI - and FSI -.
Roll stand for rolling metal strip, comprising: a small work roll and an oppositely arranged large work roll, which together bound a rolling gap for rolling the metal strip; an additional roll by way of which the small work roll is supported, wherein the small work roll has a diameter which is smaller with respect to the additional roll; a support device, which acts on at least one side in horizontal direction, for the small work roll; and an adjusting device for horizontal adjustment of the support device relative to the small work roll; characterised in that the additional roll has a diameter which is smaller with respect to the large work roll. a small work roll and an oppositely arranged large work roll, which together bound a rolling gap for rolling the metal strip; an additional roll by way of which the small work roll is supported, wherein the small work roll has a diameter which is smaller with respect to the additional roll; a support device, which acts on at least one side in horizontal direction, for the small work roll; and an adjusting device for horizontal adjustment of the support device relative to the small work roll; characterised in that the additional roll has a diameter which is smaller with respect to the large work roll.
A process for producing resol beads, the process comprising; a) reacting a phenol with an aldehyde, in the presence of a base as catalyst, and in an agitated aqueous medium provided with a colloidal stabilizer, optionally a surfactant, for a period of time and at a temperature sufficient to produce an aqueous dispersion of resol beads; b) recovering the water-insoluble resol beads from the aqueous dispersion; c) separating beads below a minimum particle size to give previously formed beads below said minimum size; d) recycling said previously formed beads below said minimum size into a further aqueous medium of step a) to give a further aqueous dispersion of resol beads; e) recovering the water-insoluble resol beads from the further aqueous dispersion; wherein said previously formed resol beads are not further cured prior to recycling. a) reacting a phenol with an aldehyde, in the presence of a base as catalyst, and in an agitated aqueous medium provided with a colloidal stabilizer, optionally a surfactant, for a period of time and at a temperature sufficient to produce an aqueous dispersion of resol beads; b) recovering the water-insoluble resol beads from the aqueous dispersion; c) separating beads below a minimum particle size to give previously formed beads below said minimum size; d) recycling said previously formed beads below said minimum size into a further aqueous medium of step a) to give a further aqueous dispersion of resol beads; e) recovering the water-insoluble resol beads from the further aqueous dispersion;
A method of manufacturing footwear comprising: providing a substantially flat sheet (42, 142, 242, 342) of material having an upper surface and a lower surface; injection molding a first polymeric material (50a, 350a), at a molding pressure within a mold (100, 207, 307), on the flat sheet so that the first polymeric material bonds to and at least partially embeds within the upper surface of sheet, the first polymeric material thereby forming an exoskeleton (50, 150, 250) that extends above the upper surface for a predetermined thickness, the exoskeleton defining a plurality of holes (51, 351) through which the upper surface of the sheet is visible so that the upper surface forms a plurality of aesthetic regions (52, 352); conforming the flat sheet and exoskeleton to a three-dimensional contour of a last (109, 209, 309) to form a three-dimensional upper (20, 220, 320), the exoskeleton and the flat sheet forming substantially all of the three-dimensional upper; closing the three-dimensional upper by substantially only joining first and second ends (21, 121) of the three-dimensional upper along a single seam, and at least one of: Stroebel stitching a sock liner to a peripheral allowance (29, 229) of the three-dimensional upper and joining the three-dimensional upper with a sole (30, 230, 330), and molding a sole (30, 230, 330) directly to a peripheral allowance (29, 229) of the three-dimensional upper. providing a substantially flat sheet (42, 142, 242, 342) of material having an upper surface and a lower surface; injection molding a first polymeric material (50a, 350a), at a molding pressure within a mold (100, 207, 307), on the flat sheet so that the first polymeric material bonds to and at least partially embeds within the upper surface of sheet, the first polymeric material thereby forming an exoskeleton (50, 150, 250) that extends above the upper surface for a predetermined thickness, the exoskeleton defining a plurality of holes (51, 351) through which the upper surface of the sheet is visible so that the upper surface forms a plurality of aesthetic regions (52, 352); conforming the flat sheet and exoskeleton to a three-dimensional contour of a last (109, 209, 309) to form a three-dimensional upper (20, 220, 320), the exoskeleton and the flat sheet forming substantially all of the three-dimensional upper; closing the three-dimensional upper by substantially only joining first and second ends (21, 121) of the three-dimensional upper along a single seam, and at least one of: Stroebel stitching a sock liner to a peripheral allowance (29, 229) of the three-dimensional upper and joining the three-dimensional upper with a sole (30, 230, 330), and molding a sole (30, 230, 330) directly to a peripheral allowance (29, 229) of the three-dimensional upper. Stroebel stitching a sock liner to a peripheral allowance (29, 229) of the three-dimensional upper and joining the three-dimensional upper with a sole (30, 230, 330), and molding a sole (30, 230, 330) directly to a peripheral allowance (29, 229) of the three-dimensional upper.
A slitting tool comprising a slitting tool basic body and at least one cutting insert, the slitting tool basic body having opposing first and second side surfaces (22, 24) connected by a peripheral edge, and further comprising: a body portion; at least one cutting portion extending from the body portion and connected thereto by a neck section thereof; a groove separating the body portion from the cutting portion, the groove having a first groove surface formed on the body portion and a second groove surface formed on the cutting portion, the groove further having a front end portion remote from the neck section, a rear end portion proximate to the neck section and a central portion extending therebetween; a biasing bore formed in the cutting portion and opening out to the second groove surface, the biasing bore having a biasing axis (A B) extending through a center thereof; and a biasing surface formed on the first groove surface and located within a plan view of the biasing bore, the biasing surface being obliquely oriented relative to the biasing axis (A B); wherein the cutting portion is flexibly and elastically connected to the body portion; wherein the cutting portion is configured for fine-tuning in a single direction only, characterised in that, the body portion is disc-shaped and the single direction is a radial direction; wherein the at least one cutting insert is held in an insert pocket of the cutting portion, and wherein a cutting edge of the cutting insert has a cutting width (W E) greater than a thickness (Wc) of a remainder of the cutting portion. a body portion; at least one cutting portion extending from the body portion and connected thereto by a neck section thereof; a groove separating the body portion from the cutting portion, the groove having a first groove surface formed on the body portion and a second groove surface formed on the cutting portion, the groove further having a front end portion remote from the neck section, a rear end portion proximate to the neck section and a central portion extending therebetween; a biasing bore formed in the cutting portion and opening out to the second groove surface, the biasing bore having a biasing axis (A B) extending through a center thereof; and a biasing surface formed on the first groove surface and located within a plan view of the biasing bore, the biasing surface being obliquely oriented relative to the biasing axis (A B); wherein the cutting portion is flexibly and elastically connected to the body portion; wherein the cutting portion is configured for fine-tuning in a single direction only, characterised in that, the body portion is disc-shaped and the single direction is a radial direction; wherein the at least one cutting insert is held in an insert pocket of the cutting portion, and wherein a cutting edge of the cutting insert has a cutting width (W E) greater than a thickness (Wc) of a remainder of the cutting portion.
Appliance for the mechanical processing of a workpiece - in particular a metallic one - with a turning device and a holding adapter - equipped with a collet chuck in particular - whereby the turning device and holding adapter are mechanically coupled together so that the turning device can rotate the holding adapter around a rotational axis, whereby the holding adapter holds a clamping part for the mechanical processing of the workpiece to enable the rotational axis and a longitudinal axis of the clamping part to form an angle greater than zero degrees, and whereby a balancing device is available to offset the imbalance caused by the clamping part, characterized by the fact that the holding adapter has a circular cylindrical design, an end face of the holding adapter is cut angularly below a predeterminable angle, a diameter of one of the described holding adapter circles and that of one of the described balancing device circles are essentially the same, the holding adapter features a flange bushing and clamping bushing, that the flange bushing encloses the clamping bushing, in a clamped state, the clamping bushing exerts a radial force on the clamping part, an end face of the flange bushing is chamfered in its function as an end face of the holding adapter, and the holding adapter has a larger axial extension along the rotational axis than the balancing device. workpiece - in particular a metallic one - with a turning device and a holding adapter - equipped with a collet chuck in particular - whereby the turning device and holding adapter are mechanically coupled together so that the turning device can rotate the holding adapter around a rotational axis, whereby the holding adapter holds a clamping part for the mechanical processing of the workpiece to enable the rotational axis and a longitudinal axis of the clamping part to form an angle greater than zero degrees, and whereby a balancing device is available to offset the imbalance caused by the clamping part, characterized by the fact that the holding adapter has a circular cylindrical design, an end face of the holding adapter is cut angularly below a predeterminable angle, a diameter of one of the described holding adapter circles and that of one of the described balancing device circles are essentially the same, the holding adapter features a flange bushing and clamping bushing, that the flange bushing encloses the clamping bushing, in a clamped state, the clamping bushing exerts a radial force on the clamping part, an end face of the flange bushing is chamfered in its function as an end face of the holding adapter, and the holding adapter has a larger axial extension along the rotational axis than the balancing device.
A structural material comprising a nanocomposite material, the nanocomposite material comprising: a substrate; and a graphene component distributed in the substrate; wherein the graphene component is graphene or functionalised graphene and is in the form of flakes at least 10 μm in length. a substrate; and a graphene component distributed in the substrate;
An electronic apparatus comprising: a display unit having a displayable region that includes display optical systems disposed in an array in a first direction and a second direction intersecting the first direction; a plurality of imaging optical systems that is disposed on a side opposite to a display surface of the display unit and overlapped with the displayable region in a third direction intersecting the first direction and the second direction, and that includes at least a first imaging optical system and a second imaging optical system having coordinates different from coordinates of the first imaging optical system in at least one of the first direction and the second direction; and an image acquisition unit configured to acquire image data on a basis of information acquired by the first imaging optical system and the second imaging optical system, wherein openings through which light having entered the display unit from the display surface propagates are formed, and light having entered from the display surface propagates to the imaging optical systems via the openings, characterized in that a layout of the opening through which light propagates to the first imaging optical system is different from a layout of the opening through which light propagates to the second imaging optical system, the layout of the opening including a shape or an orientation of the opening. a display unit having a displayable region that includes display optical systems disposed in an array in a first direction and a second direction intersecting the first direction; a plurality of imaging optical systems that is disposed on a side opposite to a display surface of the display unit and overlapped with the displayable region in a third direction intersecting the first direction and the second direction, and that includes at least a first imaging optical system and a second imaging optical system having coordinates different from coordinates of the first imaging optical system in at least one of the first direction and the second direction; and an image acquisition unit configured to acquire image data on a basis of information acquired by the first imaging optical system and the second imaging optical system, wherein openings through which light having entered the display unit from the display surface propagates are formed, and light having entered from the display surface propagates to the imaging optical systems via the openings, characterized in that a layout of the opening through which light propagates to the first imaging optical system is different from a layout of the opening through which light propagates to the second imaging optical system, the layout of the opening including a shape or an orientation of the opening.
A composition for preparing a porous insulating layer for a non-aqueous electrolyte rechargeable battery on an active material layer disposed on a current collector and comprising an active material capable of electrochemically intercalating and deintercalating lithium ions, wherein the composition for preparing the porous insulating layer comprises a polyolefin-based polymer particle; a binder; an insulating inorganic particle; and a solvent comprising water and an organic solvent, the binder comprises a polymer, characterized in that the polymer comprises at least one monomer unit represented by Chemical Formula 1 and at least one monomer unit represented by Chemical Formula 2, and in the polymer, a weight ratio / of the monomer unit and the monomer unit ranges from 40/60 to 80/20, wherein, R 1, R 2, and R 3 are independently a hydrogen atom or a C1 to C3 alkyl group, wherein, R 4 and R 5 are independently a hydrogen atom or a C1 to C3 alkyl group, and X is a heterocyclic group including a nitrogen atom or a heterocyclic group including a nitrogen atom and an oxygen atom; at least one hydrogen in the ring constituting the ring X may be replaced by a C1 to C3 alkyl group. on an active material layer disposed on a current collector and comprising an active material capable of electrochemically intercalating and deintercalating lithium ions, wherein the composition for preparing the porous insulating layer comprises a polyolefin-based polymer particle; a binder; an insulating inorganic particle; and a solvent comprising water and an organic solvent, a polyolefin-based polymer particle; a binder; an insulating inorganic particle; and a solvent comprising water and an organic solvent, the binder comprises a polymer, characterized in that the polymer comprises at least one monomer unit represented by Chemical Formula 1 and at least one monomer unit represented by Chemical Formula 2, and in the polymer, a weight ratio / of the monomer unit and the monomer unit ranges from 40/60 to 80/20, wherein, R 1, R 2, and R 3 are independently a hydrogen atom or a C1 to C3 alkyl group, wherein, R 4 and R 5 are independently a hydrogen atom or a C1 to C3 alkyl group, and X is a heterocyclic group including a nitrogen atom or a heterocyclic group including a nitrogen atom and an oxygen atom; at least one hydrogen in the ring constituting the ring X may be replaced by a C1 to C3 alkyl group. R 4 and R 5 are independently a hydrogen atom or a C1 to C3 alkyl group, and X is a heterocyclic group including a nitrogen atom or a heterocyclic group including a nitrogen atom and an oxygen atom; at least one hydrogen in the ring constituting the ring X may be replaced by a C1 to C3 alkyl group.