mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing a solid rubber tyre for mobile machinery composed of a main body having a radially inner base part contacting a wheel rim and a radially outer elastic part as well as a profiled tread part and two lateral tyre flanks which laterally cover at least the elastic part , wherein the base part and the elastic part are each constructed by multilayered winding of a calendered rubber mixture and wherein the tread part and the two lateral tyre flanks are likewise formed from rubber mixtures, characterized in that the unvulcanized tread part is separately produced, wherein this tread part comprises a base plate and a preformed profile projecting from the surface of the base plate , in that this separately produced tread part is inserted in the oppositely shaped mould surfaces of the vulcanization mould, in that the unvulcanized main body is then introduced into the vulcanization mould and in that the vulcanization mould is then closed, the main body is brought into contact with the tread part and the solid tyre is vulcanized. the unvulcanized tread part is separately produced, wherein this tread part comprises a base plate and a preformed profile projecting from the surface of the base plate , in that this separately produced tread part is inserted in the oppositely shaped mould surfaces of the vulcanization mould, in that the unvulcanized main body is then introduced into the vulcanization mould and in that the vulcanization mould is then closed, the main body is brought into contact with the tread part and the solid tyre is vulcanized.
An orthopedic device , comprising: a first shell including a first shell body ; a second shell ; a hinge connecting to the first and second shells (102, 104/105); a first strap having a first end slidably connected to the first shell and a second end removably anchored to the second shell ; and characterized by further comprising an overlay extending over a portion of the first shell body and forming a pocket with the first shell body , the pocket defining a clearance between the portion of the first shell body and a portion of the overlay into which the first end of the first strap extends in that the pocket receives the first strap without interference by either the first shell body and the overlay , a first portion of the overlay protruding outwardly relative to first shell body and second portions of the overlay outside of the pocket tapering in height and securing to the first shell body ; wherein the overlay is more flexible than the first shell body . a first shell including a first shell body ; a second shell ; a hinge connecting to the first and second shells (102, 104/105); a first strap having a first end slidably connected to the first shell and a second end removably anchored to the second shell ; and characterized by further comprising an overlay extending over a portion of the first shell body and forming a pocket with the first shell body , the pocket defining a clearance between the portion of the first shell body and a portion of the overlay into which the first end of the first strap extends in that the pocket receives the first strap without interference by either the first shell body and the overlay , a first portion of the overlay protruding outwardly relative to first shell body and second portions of the overlay outside of the pocket tapering in height and securing to the first shell body ; wherein the overlay is more flexible than the first shell body .
Optical fiber comprising an optical core and an optical cladding (13; 30, 50) surrounding the optical core, the optical core having an α graded-index profile with α ≥ 1, α being a non-dimensional parameter that defines the index profile shape of the optical core, and the optical core having a maximal refractive index n co at its center, said optical cladding having at its outer edge a refractive index n Cl , said optical cladding comprising a region of depressed refractive index n trench , called a trench , with a negative refractive index difference Δ n t = n trench - n Cl with respect to said optical cladding, said trench having an outer radius R trench , wherein said optical core and said optical cladding are configured to support propagation of at least six spatial modes and at maximum fifty-five spatial modes at an operating wavelength λ op between, and including, 1460 nm and 1675 nm, characterized in that said optical core satisfies an ovality criterion between 0.05 and 0.30, when said ovality criterion is measured at a circumference of equal index n eq within said core, such that Δ n eq = n eq - n Cl is less than 75% of Δn co = n co - n Cl , said ovality criterion o being defined by the following equation: o = a − b a + b where a is a length of a semi-major axis of said circumference and b is a length of a semi-minor axis of said circumference, and in that a maximum Max | Δn eff o | of effective index differences between any two subsequent spatial modes propagating in said optical core, except LP 01 , LP 11a and LP 11b spatial modes, is such that Max | Δn eff o | ≤ 1.0×10 -3 . where a is a length of a semi-major axis of said circumference and b is a length of a semi-minor axis of said circumference, and in that a maximum Max | Δn eff o | of effective index differences between any two subsequent spatial modes propagating in said optical core, except LP 01 , LP 11a and LP 11b spatial modes, is such that Max | Δn eff o | ≤ 1.0×10 -3 .
A locking mechanism for luggage compartment doors of vehicles for operating a plurality of connection rods associated with auxiliary drivers , comprising: a main body ; a rotary driver for driving the plurality of connection rods ; a handle body associated with a transmission element rigidly joined to said handle body to transmit displacement of said handle body to the rotary driver ; and a longitudinal lock guide arranged to displace to selectively enable a retaining means associated with a guiding member bear against a tip portion of said transmission element to drive said rotary driver ; and an elevator element slidably movable on said guiding member by said transmission element , wherein the elevator element is connected to a connection lever for rotating said rotary driver characterized in that said locking mechanism comprises a remote actuation means which is arranged to move, in use, the rotary driver to control the plurality of connection rods from outside the locking mechanism ; and a micro switch in relation with a micro switch protrusion for triggering the remote actuation means when the micro switch protrusion is moved away wherein the micro switch protrusion is arranged on said elevator element . a main body ; a rotary driver for driving the plurality of connection rods ; a handle body associated with a transmission element rigidly joined to said handle body to transmit displacement of said handle body to the rotary driver ; and a longitudinal lock guide arranged to displace to selectively enable a retaining means associated with a guiding member bear against a tip portion of said transmission element to drive said rotary driver ; and an elevator element slidably movable on said guiding member by said transmission element , wherein the elevator element is connected to a connection lever for rotating said rotary driver characterized in that said locking mechanism comprises a remote actuation means which is arranged to move, in use, the rotary driver to control the plurality of connection rods from outside the locking mechanism ; and a micro switch in relation with a micro switch protrusion for triggering the remote actuation means when the micro switch protrusion is moved away wherein the micro switch protrusion is arranged on said elevator element .
Operating method for a continuous casting installation, - liquid metal being poured into a continuous casting mould of the continuous casting installation, - the liquid metal solidifying on side walls of the continuous casting mould to form a strand shell , - the strand shell being drawn out of the continuous casting mould in a casting direction (x) at a casting velocity (vG) by means of a drawing-off device of the continuous casting installation, with or without a core that is still liquid, - the continuous casting mould being moved periodically in the casting direction (x) by means of an oscillating device of the continuous casting installation that is controlled by a control device of the continuous casting installation, characterized in that , in a first time segment (T1) of the period, the motion of the continuous casting mould is a harmonic oscillation, on which a velocity offset (v1) is superposed, and, in a second time segment (T2) of the period, the motion occurs with constant velocity (v3). - liquid metal being poured into a continuous casting mould of the continuous casting installation, - the liquid metal solidifying on side walls of the continuous casting mould to form a strand shell , - the strand shell being drawn out of the continuous casting mould in a casting direction (x) at a casting velocity (vG) by means of a drawing-off device of the continuous casting installation, with or without a core that is still liquid, - the continuous casting mould being moved periodically in the casting direction (x) by means of an oscillating device of the continuous casting installation that is controlled by a control device of the continuous casting installation,
A refrigerator comprising: a body ; a plurality of storage compartments formed in the body ; a machine compartment insulated from the plurality of storage compartments ; a first compressor and a second compressor disposed in the machine compartment ; and a blower fan disposed in the machine compartment so as to cool the machine compartment , wherein the blower fan is arranged between the first compressor and the second processor to allow air to forcibly flow from the second compressor to the first compressor ; characterized in that the first compressor has a larger amount of heat generation than that of the second compressor . a body ; a plurality of storage compartments formed in the body ; a machine compartment insulated from the plurality of storage compartments ; a first compressor and a second compressor disposed in the machine compartment ; and a blower fan disposed in the machine compartment so as to cool the machine compartment , wherein the blower fan is arranged between the first compressor and the second processor to allow air to forcibly flow from the second compressor to the first compressor ; characterized in that the first compressor has a larger amount of heat generation than that of the second compressor .
A seal segment (102; 102A) for a gas turbine engine , comprising: a first radial span ; a second radial span ; a first axial span that extends between said first radial span and said second radial span ; a second axial span that extends between said first radial span and said second radial span , wherein said first radial span , said second radial span , said first axial span , and said second axial span form a torque box; characterised in that said seal segment (102; 102A) further comprises: a seal span that extends between said first radial span and said second radial span , said seal span including a multiple of knife edge seals and at least one aperture ; and a shiplap interface for assembling said seal segment (102; 102A) at least partially into an adjacent seal segment (102; 102A) to form a segmented interstage seal assembly, wherein said second radial span includes at least one aperture . a first radial span ; a second radial span ; a first axial span that extends between said first radial span and said second radial span ; a second axial span that extends between said first radial span and said second radial span , wherein said first radial span , said second radial span , said first axial span , and said second axial span form a torque box; characterised in that said seal segment (102; 102A) further comprises: a seal span that extends between said first radial span and said second radial span , said seal span including a multiple of knife edge seals and at least one aperture ; and a shiplap interface for assembling said seal segment (102; 102A) at least partially into an adjacent seal segment (102; 102A) to form a segmented interstage seal assembly, wherein said second radial span includes at least one aperture . a seal span that extends between said first radial span and said second radial span , said seal span including a multiple of knife edge seals and at least one aperture ; and a shiplap interface for assembling said seal segment (102; 102A) at least partially into an adjacent seal segment (102; 102A) to form a segmented interstage seal assembly, wherein said second radial span includes at least one aperture .
A cleaning assembly, configured for mounting on a main body of a cleaning robot, the cleaning assembly comprising: a cleaning component ; a first connecting rod with one end swingingly connected to the cleaning component and the other end swingingly connected to the main body , and a second connecting rod with one end swingingly connected to the cleaning component and the other end swingingly connected to the main body , allowing the first connecting rod , the cleaning component , the second connecting rod , and the main body to form a link mechanism to lift or lower the cleaning component by a reciprocating movement of the link mechanism; and a driving device, configured to drive the link mechanism to perform the reciprocating movement; characterized in that , the driving device comprises a rotating body fixedly connected to the first connecting rod . a cleaning component ; a first connecting rod with one end swingingly connected to the cleaning component and the other end swingingly connected to the main body , and a second connecting rod with one end swingingly connected to the cleaning component and the other end swingingly connected to the main body , allowing the first connecting rod , the cleaning component , the second connecting rod , and the main body to form a link mechanism to lift or lower the cleaning component by a reciprocating movement of the link mechanism; and a driving device, configured to drive the link mechanism to perform the reciprocating movement; characterized in that , the driving device comprises a rotating body fixedly connected to the first connecting rod .
An oral irrigator comprising a removable reservoir defining a reservoir cavity; a base unit housing a motor and a pump ; and a handle for directing fluid flow from the pump removably connected to the base unit and fluidly coupled to the pump by a hose , the handle further comprising a housing defining a slot formed in an outer wall of the housing and bounded by two opposing walls spaced apart from each other and a transverse wall at a terminal interior end of the opposing walls such that the outer wall of the housing is open to the slot at lateral sides of the two opposing walls and at a base end of the opposing walls opposite the transverse wall; wherein in a first configuration the reservoir is coupled to a top surface of the base unit and the reservoir cavity is fluidly coupled to the pump; and in a second configuration, the base unit is fluidly decoupled from the reservoir cavity and the base unit is positioned within the reservoir cavity. a removable reservoir defining a reservoir cavity; a base unit housing a motor and a pump ; and a handle for directing fluid flow from the pump removably connected to the base unit and fluidly coupled to the pump by a hose , the handle further comprising a housing defining a slot formed in an outer wall of the housing and bounded by two opposing walls spaced apart from each other and a transverse wall at a terminal interior end of the opposing walls such that the outer wall of the housing is open to the slot at lateral sides of the two opposing walls and at a base end of the opposing walls opposite the transverse wall; wherein in a first configuration the reservoir is coupled to a top surface of the base unit and the reservoir cavity is fluidly coupled to the pump; and in a second configuration, the base unit is fluidly decoupled from the reservoir cavity and the base unit is positioned within the reservoir cavity.
A beverage dispenser comprising: a gas infusion device configured to infuse a gas into a base liquid to form a gas-infused liquid; a mixing chamber configured to mix the gas-infused liquid and a concentrate to thereby form a reconstituted beverage; a first flow control configured to decrease pressure of the gas-infused liquid prior to mixing with the concentrate; a second flow control ; a restrictor device downstream from the mixing chamber and configured to apply backpressure on the concentrate and the gas-infused liquid; and a dispensing valve configured to dispense the reconstituted beverage, characterized in that the second flow control is configured to decrease pressure of the concentrate prior to mixing with the gas-infused liquid, and wherein the pressure decrease through the first flow control is the same or substantially the same as the pressure decrease through the second flow control . a gas infusion device configured to infuse a gas into a base liquid to form a gas-infused liquid; a mixing chamber configured to mix the gas-infused liquid and a concentrate to thereby form a reconstituted beverage; a first flow control configured to decrease pressure of the gas-infused liquid prior to mixing with the concentrate; a second flow control ; a restrictor device downstream from the mixing chamber and configured to apply backpressure on the concentrate and the gas-infused liquid; and a dispensing valve configured to dispense the reconstituted beverage, characterized in that the second flow control is configured to decrease pressure of the concentrate prior to mixing with the gas-infused liquid, and wherein the pressure decrease through the first flow control is the same or substantially the same as the pressure decrease through the second flow control .
A light-emitting element manufacturing method comprising at least the steps of: after forming a selective growth mask layer on a plane surface of a GaN substrate ; selectively growing a first compound semiconductor layer from the surface of the GaN substrate not covered with the selective growth mask layer , and covering the GaN substrate and the selective growth mask layer with the first compound semiconductor layer ; and then sequentially forming an active layer , a second compound semiconductor layer , a first electrode , and a second light reflecting layer , on the first compound semiconductor layer , wherein the selective growth mask layer functions as a first light reflecting layer , an off angle of a plane orientation of the surface of the GaN substrate is 0.4 degrees or less, an area of the selective growth mask layer is 0.004S 0 to 0.8S 0 , where S 0 is the area of the GaN substrate , wherein the plane orientation of the surface of the GaN substrate is set to , wherein the selective growth mask layer has a thermal expansion relaxation film formed as a bottom layer in contact with the GaN substrate, and t1 = λ 0 / 2n1 is satisfied, where t1 represents a thickness of the thermal expansion relaxation film, λ0 represents an emission wavelength of the light-emitting element, and n1 represents a refractive index of the thermal expansion relaxation film, and a linear thermal expansion coefficient (CTE) of the bottom layer of the selective growth mask layer in contact with the GaN substrate satisfies 1 × 10 − 6 / K ≤ CTE ≤ 1 × 10 − 5 / K . after forming a selective growth mask layer on a plane surface of a GaN substrate ; selectively growing a first compound semiconductor layer from the surface of the GaN substrate not covered with the selective growth mask layer , and covering the GaN substrate and the selective growth mask layer with the first compound semiconductor layer ; and then sequentially forming an active layer , a second compound semiconductor layer , a first electrode , and a second light reflecting layer , on the first compound semiconductor layer , wherein the selective growth mask layer functions as a first light reflecting layer , an off angle of a plane orientation of the surface of the GaN substrate is 0.4 degrees or less, an area of the selective growth mask layer is 0.004S 0 to 0.8S 0 , where S 0 is the area of the GaN substrate , wherein the plane orientation of the surface of the GaN substrate is set to , wherein the selective growth mask layer has a thermal expansion relaxation film formed as a bottom layer in contact with the GaN substrate, and t1 = λ 0 / 2n1 is satisfied, where t1 represents a thickness of the thermal expansion relaxation film, λ0 represents an emission wavelength of the light-emitting element, and n1 represents a refractive index of the thermal expansion relaxation film, and a linear thermal expansion coefficient (CTE) of the bottom layer of the selective growth mask layer in contact with the GaN substrate satisfies 1 × 10 − 6 / K ≤ CTE ≤ 1 × 10 − 5 / K .
A method for manufacturing a high-frequency plug connector with the following method steps: • Manufacture of a base body part of the high-frequency plug connector from a dielectric material by means of an additive manufacturing process, wherein the base body part has a feed-through (4; 4 1 , 4 2 ) between a first end (6 1 ) and a second end (6 2 ) of a longitudinal extension of the base body part and an end face at the first end (6 1 ) for making contact with a mating plug connector , • Coating the dielectric base body part with an electrically conductive layer (5; 5 1 ,5 2 ;5 2 1 ,5 2 2 ), characterized by the method step: • Removal of the electrically conductive layer (5; 5 1 , 5 2 ; 5 2 1 , 5 2 2 ) in a region (34 1 , 34 2 ) in each case surrounding the feed-through (4; 4 1 , 4 2 ) at the end face at the first end (6 1 ) and at the second end (6 2 ) of the base body part for the formation of an electrically conductive coating (5 1 ) on the outer conductor side and an electrically conductive coating (5 2 ) on the inner conductor side. • Manufacture of a base body part of the high-frequency plug connector from a dielectric material by means of an additive manufacturing process, wherein the base body part has a feed-through (4; 4 1 , 4 2 ) between a first end (6 1 ) and a second end (6 2 ) of a longitudinal extension of the base body part and an end face at the first end (6 1 ) for making contact with a mating plug connector , • Coating the dielectric base body part with an electrically conductive layer (5; 5 1 ,5 2 ;5 2 1 ,5 2 2 ), • Removal of the electrically conductive layer (5; 5 1 , 5 2 ; 5 2 1 , 5 2 2 ) in a region (34 1 , 34 2 ) in each case surrounding the feed-through (4; 4 1 , 4 2 ) at the end face at the first end (6 1 ) and at the second end (6 2 ) of the base body part for the formation of an electrically conductive coating (5 1 ) on the outer conductor side and an electrically conductive coating (5 2 ) on the inner conductor side.