mhurhangee/ep-ind-claims huggingface dataset:
A kit comprising a screw with a screw head bush, wherein the screw head bush has an external portion and an internal portion following the external portion, wherein the external portion has a larger diameter than the internal portion at least in a first axis (A 1) oriented perpendicular to a depth of the screw head bush, and the external portion of the screw head bush is configured essentially as a truncated cone tapering towards the internal portion of the screw head bush and the internal portion is configured as engagement geometry for the rotationally fixed accommodation of a screw head drive, and wherein the kit further comprises the screw head drive, having an external portion and an internal portion following the external portion, wherein the internal portion of the screw head drive has a larger diameter than the external portion of the screw head drive in at least a first axis (A 1) oriented perpendicular to a height of the screw head drive, the internal portion of the screw head drive is configured essentially as a truncated cone tapering towards the external portion of the screw head drive and the external portion of the screw head drive comprises a contact geometry, which is configured to engage an engagement geometry of a screw head bush in a rotationally fixed manner, characterized in that the internal portion of the screw head drive has a larger inclination angle (γ) than a truncated cone shell of the external portion of the screw head bush of the screw in regard to a cylinder shell.
A microfluidic device (58; 70) comprising: a material layer (71; 80); a fluid transport feature (60, 64) having at least one characteristic dimension of less than 500 micrometers formed in or on the material layer (71; 80); and a multilayer coating including alternating thin film layers (88, 86) of two or more thin film layers comprised primarily of hafnium oxide or zirconium oxide and two or more thin film layers comprised primarily of tantalum oxide, the multilayer coating being located on a surface of the fluid transport feature (60, 64); wherein the alternating thin film layers (88, 86) do not show evidence of crystalline oxide phases in the film layers by X-ray diffraction. a material layer (71; 80); a fluid transport feature (60, 64) having at least one characteristic dimension of less than 500 micrometers formed in or on the material layer (71; 80); and a multilayer coating including alternating thin film layers (88, 86) of two or more thin film layers comprised primarily of hafnium oxide or zirconium oxide and two or more thin film layers comprised primarily of tantalum oxide, the multilayer coating being located on a surface of the fluid transport feature (60, 64);
A colorless glass composition having a base glass composition, and comprising, from 0.005 to 0.08 % wt of ferric oxide, from 0.00002 to 0.0004 % wt of Se, from 0.00003 to 0.0010 % wt of Co3O4, from 0 to 0.01 % wt of CuO, from 0 to about 0.6 of CeO2, from 0.02 to 1 of TiO2, and from 0 to 2 of NaNO3, the glass having a visible light transmission of at least 87% for a glass thickness of 4 mm; a solar ultraviolet radiation transmittance less than 85%; and a solar direct transmittance of no more than 90%.
Process for producing a sensor element for detecting at least one property of an analysis gas in an analysis gas space, especially for detecting a proportion of a gas component in the analysis gas or a temperature of the analysis gas, comprising the following steps: - providing at least one solid-state electrolyte layer (12, 14, 16), - introducing at least one through-contacting hole into the solid-state electrolyte layer (12, 14, 16) that extends from a top side (18, 32) of the solid-state electrolyte layer (12, 14, 16) to a bottom side (26, 38) of the solid-state electrolyte layer (12, 14, 16), - introducing an insulating paste into the through-contacting hole, referred to hereinafter as introducing a conductive paste into the through-contacting hole, - subsequently applying a stabilizing paste for countering phase transformation to at least one opening region of the through-contacting hole, wherein the stabilizing paste includes a material including a precious metal and an element selected from the group consisting of V, Nb, Ta, Sb, Bi, Cr, Mo, W, wherein the stabilizing paste is applied such that it surrounds the opening region in the form of a ring, and - sintering the sensor element with the insulating paste, the conductive paste and the stabilizing paste. - providing at least one solid-state electrolyte layer (12, 14, 16), - introducing at least one through-contacting hole into the solid-state electrolyte layer (12, 14, 16) that extends from a top side (18, 32) of the solid-state electrolyte layer (12, 14, 16) to a bottom side (26, 38) of the solid-state electrolyte layer (12, 14, 16), - introducing an insulating paste into the through-contacting hole, referred to hereinafter as introducing a conductive paste into the through-contacting hole, - subsequently applying a stabilizing paste for countering phase transformation to at least one opening region of the through-contacting hole, wherein the stabilizing paste includes a material including a precious metal and an element selected from the group consisting of V, Nb, Ta, Sb, Bi, Cr, Mo, W, wherein the stabilizing paste is applied such that it surrounds the opening region in the form of a ring, and - sintering the sensor element with the insulating paste, the conductive paste and the stabilizing paste.
An image processing apparatus comprising: a receiver configured to receive image data; and a processor configured to: generate first data, x+jy, by performing a Fourier calculation on the received image data, generate second data, (xz-yw) +j(xw+yz), by multiplying the first data, x+jy, by a prism phase filter value, z+jw, generate third data | x | + ( xz - yw) by adding an absolute value of a real part of the first data |x| to a real part of the second data, ( xz - yw), and perform encoding based on the third data | x | + ( xz - yw) as computer-generated hologram data input for a display panel. a receiver configured to receive image data; and a processor configured to: generate first data, x+jy, by performing a Fourier calculation on the received image data, generate second data, (xz-yw) +j(xw+yz), by multiplying the first data, x+jy, by a prism phase filter value, z+jw, generate third data | x | + ( xz - yw) by adding an absolute value of a real part of the first data |x| to a real part of the second data, ( xz - yw), and perform encoding based on the third data | x | + ( xz - yw) as computer-generated hologram data input for a display panel. generate first data, x+jy, by performing a Fourier calculation on the received image data, generate second data, (xz-yw) +j(xw+yz), by multiplying the first data, x+jy, by a prism phase filter value, z+jw, generate third data | x | + ( xz - yw) by adding an absolute value of a real part of the first data |x| to a real part of the second data, ( xz - yw), and perform encoding based on the third data | x | + ( xz - yw) as computer-generated hologram data input for a display panel.
A system to synchronize access controls between devices to process an operation, comprising: a data processing system comprising memory coupled to one or more processors, the data processing system configured to: receive, via an interface of the data processing system, data packets comprising an input audio signal detected by a sensor of a first client device linked with an account identifier; parse, based on a natural language processing technique, the data packets comprising the input audio signal to identify a request for a digital component and one or more keywords corresponding to the request; establish a session with the first client device and generate, based on a policy for the digital component stored in a digital access control database, an input prompt with a field responsive to the request for the digital component by the first client device linked with the account identifier; determine, based on the input prompt being incompatible with the first client device, to handover the session to a second client device linked with the account identifier that is linked with the first client device; transmit, responsive to the handover, the input prompt to the second client device; receive data packets input via the second client device responsive to the input prompt; modify, based on the data packets input via the second client device, a parameter for the digital component stored in the digital access control database for the account identifier; and provide, responsive to modification of the parameter, the digital component for execution on a subset of a plurality of client devices that are compatible with the digital component and linked with the account identifier. receive, via an interface of the data processing system, data packets comprising an input audio signal detected by a sensor of a first client device linked with an account identifier; parse, based on a natural language processing technique, the data packets comprising the input audio signal to identify a request for a digital component and one or more keywords corresponding to the request; establish a session with the first client device and generate, based on a policy for the digital component stored in a digital access control database, an input prompt with a field responsive to the request for the digital component by the first client device linked with the account identifier; determine, based on the input prompt being incompatible with the first client device, to handover the session to a second client device linked with the account identifier that is linked with the first client device; transmit, responsive to the handover, the input prompt to the second client device; receive data packets input via the second client device responsive to the input prompt; modify, based on the data packets input via the second client device, a parameter for the digital component stored in the digital access control database for the account identifier; and provide, responsive to modification of the parameter, the digital component for execution on a subset of a plurality of client devices that are compatible with the digital component and linked with the account identifier.
A method comprising: configuring, by a base station, one or more component carriers at a user equipment, UE, in a wireless network; receiving, by the UE in the wireless network, a configuration of one or more virtual carriers, VCs, wherein the UE is configured with one or more component carriers, and wherein a virtual carrier is a block of physically contiguous radio resources within a component carrier configured for the UE; and configuring a downlink, DL, common virtual carrier, CVC, and an uplink, UL, CVC, wherein the DL CVC and UL CVC carry control information for the UE; configuring one or more DL and UL dedicated virtual carriers, DVCs, wherein the one or more DL and UL DVCs carry data services; and reconfiguring one or more configured VCs; wherein the reconfiguring comprises: receiving, through a PHY signaling, a VC configuration switch command to switch from the virtual carrier to another virtual carrier for data reception/transmission on one or more activated component carriers of the one or more component carriers and subsequently reconfiguring one or more configured VCs by switching on or off the one or more configured VCs based on the received switch command; characterised in that the UE obtains configurations for the DL CVC, the UL CVC, and the one or more DL and UL DVCs through a radio resource control-layer signaling, RRC-layer signaling, and wherein the switch command comprises a bitmap indicating all potential VC configurations signaled by the RRC-layer signaling. configuring, by a base station, one or more component carriers at a user equipment, UE, in a wireless network; receiving, by the UE in the wireless network, a configuration of one or more virtual carriers, VCs, wherein the UE is configured with one or more component carriers, and wherein a virtual carrier is a block of physically contiguous radio resources within a component carrier configured for the UE; and configuring a downlink, DL, common virtual carrier, CVC, and an uplink, UL, CVC, wherein the DL CVC and UL CVC carry control information for the UE; configuring one or more DL and UL dedicated virtual carriers, DVCs, wherein the one or more DL and UL DVCs carry data services; and reconfiguring one or more configured VCs; wherein the reconfiguring comprises: receiving, through a PHY signaling, a VC configuration switch command to switch from the virtual carrier to another virtual carrier for data reception/transmission on one or more activated component carriers of the one or more component carriers and subsequently reconfiguring one or more configured VCs by switching on or off the one or more configured VCs based on the received switch command; characterised in that the UE obtains configurations for the DL CVC, the UL CVC, and the one or more DL and UL DVCs through a radio resource control-layer signaling, RRC-layer signaling, and wherein the switch command comprises a bitmap indicating all potential VC configurations signaled by the RRC-layer signaling.
D-Glucitol, 1-deoxy-1-(methylamino)-, 1-(6-amino-3,5-difluoropyridin-2-yl)-8-chloro-6-fluoro-1,4-dihydro-7-(3-hydroxyazetidin-1-yl)-4-oxo-3-quinolinecarboxylate (salt).
A process for preparing an optical article having a non-zero radius of curvature coated with an interference coating, comprising the following steps: a) providing a thermoplastic film coated with a multilayer interference coating, said interference coating comprising at least one layer having a refractive index of greater than 1.65 and at least one layer having a refractive index of less than or equal to 1.65, at least one of the layers of the interference coating being a layer of organic-inorganic nature that has been deposited under vacuum, b) laminating said coated thermoplastic film on an optical article comprising a substrate, by means of a layer of adhesive, said layer of adhesive being positioned between the optical article and the surface of the thermoplastic film not coated with the interference coating, c) recovering said optical article comprising a substrate coated with the layer of adhesive, the thermoplastic film and the multilayer interference coating. a) providing a thermoplastic film coated with a multilayer interference coating, said interference coating comprising at least one layer having a refractive index of greater than 1.65 and at least one layer having a refractive index of less than or equal to 1.65, at least one of the layers of the interference coating being a layer of organic-inorganic nature that has been deposited under vacuum, b) laminating said coated thermoplastic film on an optical article comprising a substrate, by means of a layer of adhesive, said layer of adhesive being positioned between the optical article and the surface of the thermoplastic film not coated with the interference coating, c) recovering said optical article comprising a substrate coated with the layer of adhesive, the thermoplastic film and the multilayer interference coating.
A shaving razor cartridge comprising: a housing having a blade platform (66, 68, 70) comprising: a first blade retention member having a front wall with a first lateral end, a second lateral end and a blade support region between the first lateral end and the second lateral end of the first blade retention member; a second blade retention member having a rear wall facing the front wall of the first blade retention member, the rear wall having a first lateral end, a second lateral end and a blade support region between the first lateral end and the second lateral end of the rear wall of the second blade retention member, wherein the first lateral ends (86, 94) are spaced apart by a first vertical distance, the second lateral ends are spaced apart by a second vertical distance and the blade support regions (90, 98) are spaced apart by a third vertical distance that is less than the first vertical distance, characterized in that the front wall comprises two walls (100, 102) forming an obtuse included angle. a first blade retention member having a front wall with a first lateral end, a second lateral end and a blade support region between the first lateral end and the second lateral end of the first blade retention member; a second blade retention member having a rear wall facing the front wall of the first blade retention member, the rear wall having a first lateral end, a second lateral end and a blade support region between the first lateral end and the second lateral end of the rear wall of the second blade retention member, wherein the first lateral ends (86, 94) are spaced apart by a first vertical distance, the second lateral ends are spaced apart by a second vertical distance and the blade support regions (90, 98) are spaced apart by a third vertical distance that is less than the first vertical distance, characterized in that the front wall comprises two walls (100, 102) forming an obtuse included angle.
Use of substances which release terpenes and/or fragrance alcohols for inhibiting the asexual reproduction of fungi, characterized in that the substances which release terpenes and/or fragrance alcohols are selected from the group comprising: a) silicic acid esters of fragrance alcohols and/or terpenes, b) esters of terpene alcohols and/or fragrance alcohols with polymers, c) polymers which are produced by reacting terpene alcohols and/or fragrance alcohols with monomers or polymers bearing isocyanate groups, or d) calixarenes which are loaded with terpenes and/or fragrance alcohols. a) silicic acid esters of fragrance alcohols and/or terpenes, b) esters of terpene alcohols and/or fragrance alcohols with polymers, c) polymers which are produced by reacting terpene alcohols and/or fragrance alcohols with monomers or polymers bearing isocyanate groups, or d) calixarenes which are loaded with terpenes and/or fragrance alcohols.
A refrigerant that is azeotropic or near-azeotropic and comprises a binary blend of R1270 and R161, wherein the binary blend has a molar composition of 50 to 80 percent R1270, the remainder being R161.
A method for treating soluble coffee, the method comprising: providing a soluble coffee powder; providing a coffee oil in an amount of from 0.5 to 4wt% relative to the soluble coffee powder; providing water in an amount of from 1 to 3wt% relative to the soluble coffee powder; and mixing the soluble coffee powder with the coffee oil and then with the water. providing a soluble coffee powder; providing a coffee oil in an amount of from 0.5 to 4wt% relative to the soluble coffee powder; providing water in an amount of from 1 to 3wt% relative to the soluble coffee powder; and mixing the soluble coffee powder with the coffee oil and then with the water.
Device for dosing a powder, in particular a pulverulent pharmaceutical, having a storage container which has a storage chamber for storing a stored quantity of the powder to be dosed, wherein the storage container has a dosing opening, wherein the device has a dosing control element which can be movably driven and which, in a closing position, closes the dosing opening and, in at least one freeing position, frees the dosing opening for the dispensing of powder from the storage container into a target container to be filled, wherein the device has a vibration means which sets the powder in vibration in order to assist with the dispensing of powder, wherein the storage container has two container parts (28, 30) which are movable relative to one another and which delimit mutually connected sub-chambers (60, 62) of the storage chamber and each store a portion of the stored quantity of powder, wherein a first container part has the dosing opening and wherein the vibration means cooperates with the first container part and thus sets the portion of the powder that is disposed in the first container part in vibration, and wherein the vibration means is uncoupled from the second container part, wherein a vibration axis along which the first container part is set in vibration runs parallel to an axis along which powder is dispensed from the dosing opening during the dosing process, characterized in that there is arranged between the container parts (28, 30) at least one resilient annular or tubular element which bounds a transition region between the sub-chambers (60, 62) of the storage container.
Assembly for the installation of offshore foundations comprising a foundation body capable of floating and having at least one ballast chamber which is air-filled in the floating state and which can be filled with ballast in order to lower the foundation body, characterized in that at least one anchor (20, 20'), which is arranged on the bottom in the region of the desired installation site of the foundation body, and at least one cable pull device (40, 40') are provided, wherein each of the at least one cable pull device (40, 40') is designed to hold under tensile stress in each case a pull cable, which is guided between a common or in each case separate anchor(s) (20, 20') and the foundation body, during the lowering of the foundation body in such a way that a tensile force which increases the floating stability acts on the foundation body.
Method for fastening a plain bearing component (30; 31; 35; 36) to a sliding partner of a plain bearing location (G1; G2; G3; G4) of a hydrostatic positive displacement machine with a cylinder drum which is arranged about an axis of rotation and is provided with at least one piston recess in which in each case a piston is arranged in a longitudinally displaceable manner, wherein the piston is supported on a stroke-generating track by means of a supporting element, and the cylinder drum is supported in the region of an end side on a housing (9; 9a), wherein the plain bearing component (30; 31; 35; 36) is composed of non-ferrous metal, in particular bronze or brass, characterized in that the plain bearing component (30; 31; 35; 36) composed of non-ferrous material is connected in a materially bonded manner to the sliding partner of the plain bearing location (G1; G2; G3; G4) by magnetic pulse welding.
A method of manufacturing a rotor assembly, the method comprising: providing a first component having a bore (17, 21); providing a second component; applying a first adhesive to the bore (17, 21) or the second component; inserting the second component into the bore (17, 21) such that the first adhesive forms an annular seal between the first component and the second component; curing the first adhesive; characterised by the method further comprising: introducing a second adhesive into a space between the first component and the second component, wherein the first adhesive acts as a stopper for the second adhesive, and the second adhesive has a lower viscosity than that of the first adhesive; and curing the second adhesive. providing a first component having a bore (17, 21); providing a second component; applying a first adhesive to the bore (17, 21) or the second component; inserting the second component into the bore (17, 21) such that the first adhesive forms an annular seal between the first component and the second component; curing the first adhesive; characterised by the method further comprising: introducing a second adhesive into a space between the first component and the second component, wherein the first adhesive acts as a stopper for the second adhesive, and the second adhesive has a lower viscosity than that of the first adhesive; and curing the second adhesive. introducing a second adhesive into a space between the first component and the second component, wherein the first adhesive acts as a stopper for the second adhesive, and the second adhesive has a lower viscosity than that of the first adhesive; and curing the second adhesive.