mhurhangee/patent-ind-claim-en huggingface dataset:
An inline calibration module for dynamic scattering parameter test system calibration in a test environment, having at least three switchable calibration impedances independent from one another having in each case a predetermined impedance value, in each case designating calibration standards independent from one another, having an output, which is configured to couple the calibration module to a device to be tested, having a control input configured as a serial bus interface, which is configured to couple the calibration module for the control of same to an external controller. having at least three switchable calibration impedances independent from one another having in each case a predetermined impedance value, in each case designating calibration standards independent from one another, having an output, which is configured to couple the calibration module to a device to be tested, having a control input configured as a serial bus interface, which is configured to couple the calibration module for the control of same to an external controller.
Culinary article comprising a metal cap having a bottom wall and a side wall rising around the bottom wall , said bottom wall having an internal face for cooking food and an external face intended to be arranged in proximity to a heat source, a metal insert being added onto the external face , the metal insert being made of a ferromagnetic material, in such a way that the culinary article is compatible with heating via induction, said cap being a sheet of a stamped or flow-formed aluminium alloy of series 5000, characterised in that said cap is a sheet of aluminium alloy of 5083 grade, and in that the bottom wall has a thickness at least 2 times greater than that of the side wall .
An axle assembly comprising: an axle housing ; a differential carrier that is disposed on the axle housing and rotatably supports a differential ; a differential carrier cover that is mounted to an end of the differential carrier that is disposed opposite the axle housing and that has a gear cavity ; an electric motor module disposed in the differential carrier between the axle housing and the differential carrier cover ; a gear reduction module that is disposed adjacent to the differential carrier cover , wherein the gear reduction module transmits torque from the electric motor module to the differential via a drive pinion and the gear reduction module includes a sun gear that is operatively connected to the electric motor module and rotatable about an axis , a planetary ring gear that is received in the gear cavity and is fixedly positioned with respect to the differential carrier cover , a planet gear that meshes with the sun gear and the planetary ring gear , and a planet gear carrier that rotatably supports the planet gear ; a shift mechanism housing that is disposed on the differential carrier cover opposite the differential carrier , wherein the planet gear carrier is rotatably supported on the shift mechanism housing by a roller bearing assembly ; and characterized in that the gear reduction module cooperates with a shift mechanism disposed in the shift mechanism housing , to provide a desired gear reduction ratio to change the torque provided from the electric motor module to the drive pinion . an axle housing ; a differential carrier that is disposed on the axle housing and rotatably supports a differential ; a differential carrier cover that is mounted to an end of the differential carrier that is disposed opposite the axle housing and that has a gear cavity ; an electric motor module disposed in the differential carrier between the axle housing and the differential carrier cover ; a gear reduction module that is disposed adjacent to the differential carrier cover , wherein the gear reduction module transmits torque from the electric motor module to the differential via a drive pinion and the gear reduction module includes a sun gear that is operatively connected to the electric motor module and rotatable about an axis , a planetary ring gear that is received in the gear cavity and is fixedly positioned with respect to the differential carrier cover , a planet gear that meshes with the sun gear and the planetary ring gear , and a planet gear carrier that rotatably supports the planet gear ; a shift mechanism housing that is disposed on the differential carrier cover opposite the differential carrier , wherein the planet gear carrier is rotatably supported on the shift mechanism housing by a roller bearing assembly ; and characterized in that the gear reduction module cooperates with a shift mechanism disposed in the shift mechanism housing , to provide a desired gear reduction ratio to change the torque provided from the electric motor module to the drive pinion .
A method of duplex printing on a cut sheet printer having a print station and a sheet supply system capable of feeding media sheets to the print station in a first orientation for printing a first image on the first side of the sheet and then in a second orientation for printing a second image on a second side of the sheet, the method being characterized by comprising, for each sheet, the steps of: (a) estimating a likelihood P1 that, in a print process for printing the first image, the sheet will become damaged to such an extent that the damage will compromise a later print process for printing the second image; (b) comparing the likelihood P1 to a threshold T; and (c) if the likelihood P1 exceeds the threshold T, reversing the print order so that the second image is printed before the first image. (a) estimating a likelihood P1 that, in a print process for printing the first image, the sheet will become damaged to such an extent that the damage will compromise a later print process for printing the second image; (b) comparing the likelihood P1 to a threshold T; and (c) if the likelihood P1 exceeds the threshold T, reversing the print order so that the second image is printed before the first image.
Insulating glass element for multi-pane doors with transparent edge compound for use in shop fitting, refrigerated cabinets and special display cases, wherein the insulating glass element comprises a base pane and a cover pane , wherein the insulating glass element has an upper edge region on the transverse side, a lower edge region on the transverse side and two edge regions on the longitudinal side, wherein glass spacers are arranged between the base pane and the cover pane in the longitudinal edge regions, and wherein a glass spacer is arranged between the base pane and the cover pane in the upper edge region on the transverse side and an aluminium or plastic spacer is arranged in the lower edge region on the transverse side, or aluminium or plastic spacers are arranged in both edge regions on the transverse side, and wherein a laminating layer in the form of an ethylene-vinyl acetate copolymer is present between the base pane and the spacers and between the spacers and the cover pane , wherein the laminating layer is arranged at the four corner points from the transverse spacers to the longitudinal spacers in abutting or overlapping relationship, wherein the longitudinal spacers are set back between 0.5 and 1.5 mm, particularly preferably 1 mm, from the pane edge of the base pane and cover pane , and wherein the transverse spacers are arranged between the longitudinal spacers or wherein the transverse spacers are each arranged above or below the transverse ends of the longitudinal spacers , and wherein the ethylene-vinyl acetate copolymer does not protrude beyond the edge of the pane. wherein the insulating glass element comprises a base pane and a cover pane , wherein the insulating glass element has an upper edge region on the transverse side, a lower edge region on the transverse side and two edge regions on the longitudinal side, wherein glass spacers are arranged between the base pane and the cover pane in the longitudinal edge regions, and wherein a glass spacer is arranged between the base pane and the cover pane in the upper edge region on the transverse side and an aluminium or plastic spacer is arranged in the lower edge region on the transverse side, or aluminium or plastic spacers are arranged in both edge regions on the transverse side, and wherein a laminating layer in the form of an ethylene-vinyl acetate copolymer is present between the base pane and the spacers and between the spacers and the cover pane , wherein the laminating layer is arranged at the four corner points from the transverse spacers to the longitudinal spacers in abutting or overlapping relationship, wherein the longitudinal spacers are set back between 0.5 and 1.5 mm, particularly preferably 1 mm, from the pane edge of the base pane and cover pane , and wherein the transverse spacers are arranged between the longitudinal spacers or wherein the transverse spacers are each arranged above or below the transverse ends of the longitudinal spacers , and wherein the ethylene-vinyl acetate copolymer does not protrude beyond the edge of the pane.
A modular platform system comprising: a plurality of tiles , each tile having a slot positioned along a peripheral edge of the tile and along an underside of the tile, the tile also having an underside surface aligned with the slot, the slot formed by a member extending downwardly from an upper portion of the tile; a plurality of beams , each beam having a pair of upright members extending from a top surface of the beam, the pair of members spaced apart to create a channel , the channel configured to receive the member of the tile, the top surface of the beam having a portion extending outwardly from each upright member, the portion engaging the underside surface of a tile for support thereof, each beam further comprising a slot extending along a bottom surface of the beam, characterized in that the system further comprises a plurality of legs , each leg having side surfaces, each side surface including a slo extending longitudinally along the leg, a plurality of brackets , each bracket having a pair of attaching surfaces, the attaching surfaces forming a 90 degree angle, each attaching surface having an opening to allow a fastener to attach the attaching surface to a beam using the slot in the beam or to a leg using the slot in the leg, wherein the ability of the tiles being attachable to the beams, the legs being attachable to the beams at different locations on the beams, and the brackets being attachable to the legs allows for the creation of a platform system with the plurality of tiles forming a platform surface. a plurality of tiles , each tile having a slot positioned along a peripheral edge of the tile and along an underside of the tile, the tile also having an underside surface aligned with the slot, the slot formed by a member extending downwardly from an upper portion of the tile; a plurality of beams , each beam having a pair of upright members extending from a top surface of the beam, the pair of members spaced apart to create a channel , the channel configured to receive the member of the tile, the top surface of the beam having a portion extending outwardly from each upright member, the portion engaging the underside surface of a tile for support thereof, each beam further comprising a slot extending along a bottom surface of the beam, characterized in that the system further comprises a plurality of legs , each leg having side surfaces, each side surface including a slo extending longitudinally along the leg, a plurality of brackets , each bracket having a pair of attaching surfaces, the attaching surfaces forming a 90 degree angle, each attaching surface having an opening to allow a fastener to attach the attaching surface to a beam using the slot in the beam or to a leg using the slot in the leg, wherein the ability of the tiles being attachable to the beams, the legs being attachable to the beams at different locations on the beams, and the brackets being attachable to the legs allows for the creation of a platform system with the plurality of tiles forming a platform surface.
A method of bonding a shear web to a wind turbine blade shell , the shear web comprising a web and a mounting flange oriented transverse to the web, and the method comprising: a. positioning the shear web relative to the blade shell such that the mounting flange is in mutually opposed relation with an inner surface of the blade shell; b. providing a primary seal between the mounting flange and the inner surface of the blade shell, the seal defining a substantially enclosed primary cavity between the mounting flange and the inner surface of the blade shell; c. providing a secondary seal between the mounting flange and the inner surface of the blade shell, the secondary seal at least partially surrounding the primary seal and being spaced apart from the primary seal to define a peripheral cavity between the primary and secondary seals, the peripheral cavity at least partially surrounding the primary cavity ; d. removing air from the primary cavity to create a vacuum in the primary cavity and removing air from the peripheral cavity to create a vacuum in the peripheral cavity; e. admitting adhesive into the primary cavity ; and f. curing the adhesive. a. positioning the shear web relative to the blade shell such that the mounting flange is in mutually opposed relation with an inner surface of the blade shell; b. providing a primary seal between the mounting flange and the inner surface of the blade shell, the seal defining a substantially enclosed primary cavity between the mounting flange and the inner surface of the blade shell; c. providing a secondary seal between the mounting flange and the inner surface of the blade shell, the secondary seal at least partially surrounding the primary seal and being spaced apart from the primary seal to define a peripheral cavity between the primary and secondary seals, the peripheral cavity at least partially surrounding the primary cavity ; d. removing air from the primary cavity to create a vacuum in the primary cavity and removing air from the peripheral cavity to create a vacuum in the peripheral cavity; e. admitting adhesive into the primary cavity ; and f. curing the adhesive.
An integrated immersed tube section, comprising a standard immersed tube section , wherein closed annular telescopic water stop joints are arranged at two ends of the standard immersed tube section , characterized in that the telescopic water stop joints comprise a closed annular frame beam , power components , a first closed annular water stop component and a second closed annular water stop component ; one end of each power component is connected to an end portion of the standard immersed tube section , and the other end of each power component is connected to the frame beam and may drive the frame beam to extend and retract along an axial direction of the standard immersed tube section ; the first water stop component is connected to the frame beam ; and one end of the second water stop component is connected to the frame beam , and the other end of the second water stop component is connected to the end portion of the standard immersed tube section .
A display stand comprising a double wall construction, respectively, an inner wall , defining an inner volume , and an outer wall which encloses said inner wall , and said inner wall and said outer wall defining a display volume , said display stand comprising an elevated stand elevating said double wall construction and display volume, characterized in that said elevated stand comprises an opening which is configured for providing access for a person to the inside of said elevated stand and subsequently said inner volume of said inner wall , such that the person can crawl inside the display stand through the opening under the display volume , and then stand up inside the display stand and be able to view the inner wall and/or the display volume from the inner volume.
A composition for delivering a polynucleotide from the exterior surface of a plant or plant part into the interior of a plant cell, comprising at least one polynucleotide and at least one lipase enzyme.
An electrode comprising an electrode active material layer which comprises an electrode active material and a conductive agent, the conductive agent comprising multi-walled carbon nanotube units, and carbon nanotube structures in which 2 to 5,000 single-walled carbon nanotube units are arranged side by side and bonded to each other in each carbon nanotube structure, wherein the carbon nanotube structures are contained in the electrode active material layer in an amount of 0.01 wt% to 0.5 wt%. multi-walled carbon nanotube units, and carbon nanotube structures in which 2 to 5,000 single-walled carbon nanotube units are arranged side by side and bonded to each other in each carbon nanotube structure, wherein the carbon nanotube structures are contained in the electrode active material layer in an amount of 0.01 wt% to 0.5 wt%.
A patient interface for providing breathable gas to a patient, comprising a face engaging cushion , the cushion comprising an internal cavity that is adapted to contain fluid and a control means being capable of communicating with the fluid for inciting change to at least a pressure of the fluid, characterized in that at last the pressure of the fluid can be actively changed in response to a pressure of the breathable gas; and in that • for a rise in the pressure of the breathable gas, the pressure of fluid in the cavity decreases, and/or for a decrease in the pressure of the breathable gas, the pressure of fluid in the cavity rises; or • for a rise in the pressure of the breathable gas, the pressure of fluid in the cavity rises, and/or for a decrease in the pressure of the breathable gas, the pressure of fluid in the cavity decreases. • for a rise in the pressure of the breathable gas, the pressure of fluid in the cavity decreases, and/or for a decrease in the pressure of the breathable gas, the pressure of fluid in the cavity rises; or • for a rise in the pressure of the breathable gas, the pressure of fluid in the cavity rises, and/or for a decrease in the pressure of the breathable gas, the pressure of fluid in the cavity decreases.
Gutter for façade and/or terrace surfaces, which has a gutter body extending in the longitudinal direction with a receiving space for receiving a liquid to be drained off, wherein the receiving space is delimited by two side walls arranged opposite one another and a base , and comprises at least one support device for lateral support, wherein the support device has at least one contact element and at least one guide unit , wherein the guide unit displaceably supports the contact element in the transverse direction of the gutter in order to set a distance between the gutter body and a counterpart , in particular a wall, during assembly by displacing the contact element , wherein at least two support devices are provided, wherein one support device has in each case at least one contact element and at least two guide units , wherein the respective contact element is displaceably supported in the transverse direction of the gutter by the two associated guide units , characterized in that the two support devices are arranged one above the other in the installation position, wherein the contact elements of the two support devices are displaceable independently of one another in the transverse direction.
A method for utilizing furnace off-gas for reduction of Iron Oxide Pellets wherein: - the iron oxide in the Iron Oxide Pellets is directly reduced and re-oxidation is prevented in a reactor by leading furnace off-gas directly into said reactor, and wherein - a negative pressure from a primary dedusting system induces an off-gas flow from said main furnace into said reactor by a bypass duct, said bypass duct leading furnace off-gas passing through the reactor and also leads the flow back towards the main duct of primary dedusting system; and wherein - the iron oxide pellets in the reactor are directly heated by the off-gas and under the reducing atmosphere in the reactor provided by the off-gas to reduce the iron oxide in the pellet while preventing re-oxidation, and wherein the entry of the bypass duct at furnace side is made of double ducts with the inner duct leading to reactor and the outer duct has suction pressure to take atmospheric air and minimize the penetration into inner duct; and/or the bypass duct has dampers to control inlet and outlet flow of Reactor. - the iron oxide in the Iron Oxide Pellets is directly reduced and re-oxidation is prevented in a reactor by leading furnace off-gas directly into said reactor, and wherein - a negative pressure from a primary dedusting system induces an off-gas flow from said main furnace into said reactor by a bypass duct, said bypass duct leading furnace off-gas passing through the reactor and also leads the flow back towards the main duct of primary dedusting system; and wherein - the iron oxide pellets in the reactor are directly heated by the off-gas and under the reducing atmosphere in the reactor provided by the off-gas to reduce the iron oxide in the pellet while preventing re-oxidation, and wherein the entry of the bypass duct at furnace side is made of double ducts with the inner duct leading to reactor and the outer duct has suction pressure to take atmospheric air and minimize the penetration into inner duct; and/or the bypass duct has dampers to control inlet and outlet flow of Reactor.
A catheter system comprising - an at least partially flexible catheter body , - several ring electrodes , and - several strain gauges , wherein the ring electrodes surround at least a portion of the flexible catheter body , wherein the strain gauges are respectively allocated to the ring electrodes , wherein the strain gauges are configured to measure a deformation of the flexible catheter body at respective positions allocated to the ring electrodes to detect a contact between the ring electrodes and tissue, and wherein the catheter system is a Pig Tail catheter. - an at least partially flexible catheter body , - several ring electrodes , and - several strain gauges ,