mhurhangee/ep-ind-claims huggingface dataset:
A side airbag device stored in a side support of a vehicle seat, a side frame and a pad being disposed in the side support, the side frame having a frame sidewall extending along a vehicle travel direction, the pad covering at least a front side of the side frame in the vehicle traveling direction, the side airbag device comprising: an airbag module, the airbag module having: an airbag for restraining an occupant when the airbag is expanded and deployed; and an inflator for supplying an inflation gas to the airbag, the inflator being disposed at an occupant seating side with respect to the frame sidewall in a vehicle width direction; and a webbing (40, 140) partially covering the airbag module when the airbag module is stored, wherein the webbing (40, 140) is disposed to extend from a rear side of the airbag module toward a vehicle front side along an inner side surface of the pad, pass through a slit for the cleavage in the side support part of the pad along a first path so as to reach an outside of the pad, wherein the webbing is disposed to extend proximately from the front edge of the side support along an outer surface of the pad that is opposite to an occupant seating side of the side support in the vehicle width direction, pass through the pad along a second path that is formed from the outer surface of the pad toward an inside of the side support, and reach a rear side of the airbag module in the vehicle travel direction. an airbag module, the airbag module having: an airbag for restraining an occupant when the airbag is expanded and deployed; and an inflator for supplying an inflation gas to the airbag, the inflator being disposed at an occupant seating side with respect to the frame sidewall in a vehicle width direction; and an airbag for restraining an occupant when the airbag is expanded and deployed; and an inflator for supplying an inflation gas to the airbag, the inflator being disposed at an occupant seating side with respect to the frame sidewall in a vehicle width direction; and a webbing (40, 140) partially covering the airbag module when the airbag module is stored, wherein the webbing (40, 140) is disposed to extend from a rear side of the airbag module toward a vehicle front side along an inner side surface of the pad, pass through a slit for the cleavage in the side support part of the pad along a first path so as to reach an outside of the pad, wherein the webbing is disposed to extend proximately from the front edge of the side support along an outer surface of the pad that is opposite to an occupant seating side of the side support in the vehicle width direction, pass through the pad along a second path that is formed from the outer surface of the pad toward an inside of the side support, and reach a rear side of the airbag module in the vehicle travel direction.
Back contact substrate for a photovoltaic cell, comprising a carrier substrate and an electrode coating comprising a main metal layer, the electrode coating having at least one etched trench passing through said main metal layer, wherein the back contact substrate comprises an enclosing selenization barrier layer covering, inside the etched trench, the edge of the main metal layer, wherein said enclosing selenization barrier layer is based on at least one metal nitride or at least one metal oxynitride of a metal selected from titanium, molybdenum, zirconium or tantalum, and an oxygen content x=O/(O+N) with x=0 or 0<x<1, preferably 0.05<x<0.95, preferably 0.1<x<0.9.
Method for producing a film-shaped test body (K; K1; K2; K3; K4) from a solidifiable test substance, wherein a) the test substance is applied to a substrate, so that a substance film is formed on the substrate; b) a film-detachment tool (2; 21, 22; 23, 24) is placed on the substance film, the film-detachment tool (2; 21, 22; 23, 24) leaving a sub-region of the substance film uncovered; c) the substance film is solidified to form a test film which adheres to the film-detachment tool (2; 21, 22; 23, 24); d) the film-detachment tool (2; 21, 22; 23, 24), together with the test film adhering thereto, is separated from the substrate; and e) the film-shaped test body (K; K1; K2; K3; K4) is formed by or from the test film separated from the substrate. a) the test substance is applied to a substrate, so that a substance film is formed on the substrate; b) a film-detachment tool (2; 21, 22; 23, 24) is placed on the substance film, the film-detachment tool (2; 21, 22; 23, 24) leaving a sub-region of the substance film uncovered; c) the substance film is solidified to form a test film which adheres to the film-detachment tool (2; 21, 22; 23, 24); d) the film-detachment tool (2; 21, 22; 23, 24), together with the test film adhering thereto, is separated from the substrate; and e) the film-shaped test body (K; K1; K2; K3; K4) is formed by or from the test film separated from the substrate.
A method for determining the absorbance or transmission of sunscreen, the method comprising: (a) applying sunscreen to indentation(s) of a planar substrate, the substrate comprising an optically transparent material and comprising on one surface, (i) one indentation comprising a plurality of concentric shapes so that the indentation has a progressively increasing depth, or (ii) a plurality of indentations having progressively increasing depths, each indentation comprising a separate shape, wherein sunscreen applied to the indentation(s) fills the indentation(s); (b) continuously or intermittently irradiating with a uniform bean an area of the substrate that contains the sunscreen; and (c) measuring the time course of UV transmission or absorbance of the sunscreen. (a) applying sunscreen to indentation(s) of a planar substrate, the substrate comprising an optically transparent material and comprising on one surface, (i) one indentation comprising a plurality of concentric shapes so that the indentation has a progressively increasing depth, or (ii) a plurality of indentations having progressively increasing depths, each indentation comprising a separate shape, wherein sunscreen applied to the indentation(s) fills the indentation(s); (i) one indentation comprising a plurality of concentric shapes so that the indentation has a progressively increasing depth, or (ii) a plurality of indentations having progressively increasing depths, each indentation comprising a separate shape, (b) continuously or intermittently irradiating with a uniform bean an area of the substrate that contains the sunscreen; and (c) measuring the time course of UV transmission or absorbance of the sunscreen.
A method of providing User Interfaces, UIs, on a touch screen, the method comprising: identifying an area touched on the touch screen by a user input; displaying a menu item in a basic setting menu that is preset in the electronic apparatus, the menu item being used to select rearrangement of UIs arranged in a display area (550, 700, 805, 1101, 1410) of the touch screen in a user-touchable partial area (205, 560, 712, 722, 732, 810, 912); and displaying a rearranged screen displaying the UIs rearranged in the user-touchable partial area (205, 560, 712, 722, 732, 810, 912) on the touch screen, in response to identifying the user-touchable partial area (205, 560, 712, 722, 732, 810, 912) based on the identified area, wherein the menu item includes at least one of a sub-menu to set an apply range of the rearranged screen, a sub-menu to set an apply time of the rearrangement of the UIs in the user-touchable partial area, and a sub-menu to set a recovery time of returning the rearranged screen to an original screen; and wherein the UIs comprise keys of a keyboard. identifying an area touched on the touch screen by a user input; displaying a menu item in a basic setting menu that is preset in the electronic apparatus, the menu item being used to select rearrangement of UIs arranged in a display area (550, 700, 805, 1101, 1410) of the touch screen in a user-touchable partial area (205, 560, 712, 722, 732, 810, 912); and displaying a rearranged screen displaying the UIs rearranged in the user-touchable partial area (205, 560, 712, 722, 732, 810, 912) on the touch screen, in response to identifying the user-touchable partial area (205, 560, 712, 722, 732, 810, 912) based on the identified area, wherein the menu item includes at least one of a sub-menu to set an apply range of the rearranged screen, a sub-menu to set an apply time of the rearrangement of the UIs in the user-touchable partial area, and a sub-menu to set a recovery time of returning the rearranged screen to an original screen; and wherein the UIs comprise keys of a keyboard.
Coordinate measuring machine (2, 10) comprising: - an anchor beam having a top end and a bottom end; - at least one support beam having a top end and a bottom end; - a cross-beam supported on the top ends of the anchor beam and the at least one support beam, the cross-beam having a longitudinal axis; and - a base supporting the bottom ends of the anchor beam and the at least one support beam, the anchor beam and the at least one support beam being mounted to the base, the anchor beam remaining generally fixed, characterised in that at least one of the at least one support beams has a first spring and a second spring, the first spring being spaced from the second spring in a direction that is generally parallel with the longitudinal axis of the cross-beam, such that it can flex in a controlled manner. - an anchor beam having a top end and a bottom end; - at least one support beam having a top end and a bottom end; - a cross-beam supported on the top ends of the anchor beam and the at least one support beam, the cross-beam having a longitudinal axis; and - a base supporting the bottom ends of the anchor beam and the at least one support beam, the anchor beam and the at least one support beam being mounted to the base, the anchor beam remaining generally fixed,
Trim part (1; 10; 20; 30), preferably for an interior of a vehicle, the trim part comprising a substantially rigid carrier (2; 12; 22; 32) including a front side and a rear side and a covering (3; 13; 23; 33) arranged on the front side of the carrier, wherein the carrier and the covering are connected by a yarn seam (4; 16, 17; 25, 26; 36), characterized in that the the substantially rigid carrier comprises at least one guiding structure.
An epitaxial silicon carbide single crystal substrate comprising: a silicon carbide single crystal substrate having an off-angle of 1 to 6°, and a silicon carbide epitaxial film which has been formed on the silicon carbide single crystal substrate by use of a chemical vapor deposition method, wherein the epitaxial film has two or more doped layers and two or more non-doped layers, which have been formed by alternately stacking the doped layer having a thickness of 0.5 μm or less, and being formed while adding an impurity element; and the non-doped layer having a thickness of 0.1 μm or less, and being formed without the addition of an impurity element, wherein the doped layer is formed by setting the ratio of numbers of carbon and silicon atoms (C/Si) contained in a raw material gas for epitaxial film to be 1.5 or more and 2.0 or less, and the non-doped layer is formed by setting the ratio of numbers of carbon and silicon atoms (C/Si) contained in a raw material gas for epitaxial film to be 0.5 or more and less than 1.5, wherein the thickness of the doped layer is larger than the thickness of the non-doped layer, and wherein the density of doping atom number of the doped layer is 1×10 15 cm -3 to 1×10 17 cm -3. a silicon carbide single crystal substrate having an off-angle of 1 to 6°, and a silicon carbide epitaxial film which has been formed on the silicon carbide single crystal substrate by use of a chemical vapor deposition method, wherein the epitaxial film has two or more doped layers and two or more non-doped layers, which have been formed by alternately stacking the doped layer having a thickness of 0.5 μm or less, and being formed while adding an impurity element; and the non-doped layer having a thickness of 0.1 μm or less, and being formed without the addition of an impurity element, wherein the doped layer is formed by setting the ratio of numbers of carbon and silicon atoms (C/Si) contained in a raw material gas for epitaxial film to be 1.5 or more and 2.0 or less, and the non-doped layer is formed by setting the ratio of numbers of carbon and silicon atoms (C/Si) contained in a raw material gas for epitaxial film to be 0.5 or more and less than 1.5, wherein the thickness of the doped layer is larger than the thickness of the non-doped layer, and wherein the density of doping atom number of the doped layer is 1×10 15 cm -3 to 1×10 17 cm -3.
Slide car with a seat shell body, which has a steering handle, a seat area, at least one area for placing a foot and at least one contact area for knees, wherein the seat shell body is made of at least one plastic part and on the seat shell body a tilt-steering construction is provided on a front side and a tilt-steering construction is provided on a rear side, wherein at least rollers (10, 11), connecting arms (27, 28), a connecting rod and a spring construction are provided as parts of the tilt-steering construction on the rear side of the seat shell body, characterized in that the rollers (7, 8 respectively 10, 11) are each arranged rotatably about an own axis (12, 13 respectively 23, 24) and that an axle end (14 respectively 15, 25 respectively 26) opposite the roller (7 respectively 8, 10 respectively 11) is movably connected to the connecting arm (16 respectively 17, 27 respectively 28) via an axle bolt (18 respectively 19, 29 respectively 30).
A multi-layered flexible sparger, comprising: a bottom film layer and a top film layer; and a port capable of delivering a gas to the multi-layered flexible sparger disposed between the top film layer and the bottom film layer, wherein the top film layer comprises drill holes, characterized in that it further comprises: a middle film layer, a first inner mesh disposed between the bottom film layer and the middle film layer, and a second inner mesh disposed between the middle film layer and the top film layer, wherein the middle film layer comprises drill holes. a bottom film layer and a top film layer; and a port capable of delivering a gas to the multi-layered flexible sparger disposed between the top film layer and the bottom film layer, wherein the top film layer comprises drill holes, characterized in that it further comprises: a middle film layer, a first inner mesh disposed between the bottom film layer and the middle film layer, and a second inner mesh disposed between the middle film layer and the top film layer, wherein the middle film layer comprises drill holes. a middle film layer, a first inner mesh disposed between the bottom film layer and the middle film layer, and a second inner mesh disposed between the middle film layer and the top film layer, wherein the middle film layer comprises drill holes.
A method for recovering scandium, comprising: an adsorption step of allowing a solution containing scandium to pass through an ion exchange resin to adsorb the scandium to the ion exchange resin; an elution step of allowing a sulfuric acid solution to pass through the ion exchange resin to elute the scandium from the ion exchange resin and to obtain a post-elution solution; an impurity extraction step of subjecting the solution containing scandium to solvent extraction using an amine-based impurity extractant to separate the solution into an aqueous phase containing scandium and an organic phase containing impurities after the elution step; and a scandium extraction step of subjecting the aqueous phase containing scandium to solvent extraction using a scandium extractant containing an amide derivative to separate the aqueous phase into an aqueous phase containing impurities and an organic phase containing scandium. an adsorption step of allowing a solution containing scandium to pass through an ion exchange resin to adsorb the scandium to the ion exchange resin; an elution step of allowing a sulfuric acid solution to pass through the ion exchange resin to elute the scandium from the ion exchange resin and to obtain a post-elution solution; an impurity extraction step of subjecting the solution containing scandium to solvent extraction using an amine-based impurity extractant to separate the solution into an aqueous phase containing scandium and an organic phase containing impurities after the elution step; and a scandium extraction step of subjecting the aqueous phase containing scandium to solvent extraction using a scandium extractant containing an amide derivative to separate the aqueous phase into an aqueous phase containing impurities and an organic phase containing scandium.
A transportable vehicle enclosure for inspecting vehicles; said enclosure being formed as a mono-block suitable for loading onto a transporter and unloading from a transporter comprising side (2, 3), front, rear, ceiling and floor portions, at least one of said portions being configured to allow vehicular access; whereby, in use, a vehicle may be placed within said enclosure; said enclosure further comprising a plurality of cameras (12, 13, 19, 26, 25, 17, 15, 16, 24, 27) integrated into or on a plurality of said portions for imaging each side of said vehicle when a vehicle is located in said enclosure characterised in that said front portion and/or said rear portion incorporates an aperture with a shutter and a driver to open and/or close said shutter and said driver being configured to vary said aperture controlled by said shutter dependent upon the level of light sensed either within said enclosure or outside of said enclosure; and said cameras image each one of the individual panels in all six of the orthogonal axes to assess individual panel damage..
Method for operating a communication system which has a plurality of communication units (300, 301, 302, 303, 304) which are connected to a communication medium, characterized in that the communication units (300, 301, 302, 303, 304) are granted access to the communication medium in a predefined sequence, wherein, after the end of a standby mode, a communication unit (300, 301, 302, 303, 304) checks whether it is granted access and switches to standby mode once more for a pause duration (T1, T2) until it is likely to be granted access again, if the communication unit (300, 301, 302, 303, 304) does not require access to the communication medium or it is not granted access. characterized in that the communication units (300, 301, 302, 303, 304) are granted access to the communication medium in a predefined sequence, wherein, after the end of a standby mode, a communication unit (300, 301, 302, 303, 304) checks whether it is granted access and switches to standby mode once more for a pause duration (T1, T2) until it is likely to be granted access again, if the communication unit (300, 301, 302, 303, 304) does not require access to the communication medium or it is not granted access.
An ion guide comprising: one or more helical, toroidal, part-toroidal or spiral tubes through which ions are transmitted in use; wherein said ion guide further comprises one or more AC or RF electrodes arranged on or in an outer surface of said one or more tubes and/or one or more AC or RF electrodes arranged on or in an inner surface of said one or more tubes; and wherein said ion guide further comprises a device arranged and adapted to supply, in use, an AC or RF voltage to said one or more AC or RF electrodes, and said ion guide being characterized by further comprising: a device arranged and adapted to maintain a DC voltage or potential gradient along at least 5%, 10%, 15%, 20%, 25%, 30%, 35%, 40%, 45%, 50%, 55%, 60%, 65%, 70%, 75%, 80%, 85%, 90%, 95% or 100% of the length of the ion guide in order to urge, force, drive or propel ions through the ion guide. one or more helical, toroidal, part-toroidal or spiral tubes through which ions are transmitted in use; wherein said ion guide further comprises one or more AC or RF electrodes arranged on or in an outer surface of said one or more tubes and/or one or more AC or RF electrodes arranged on or in an inner surface of said one or more tubes; and wherein said ion guide further comprises a device arranged and adapted to supply, in use, an AC or RF voltage to said one or more AC or RF electrodes, and said ion guide being characterized by further comprising: a device arranged and adapted to maintain a DC voltage or potential gradient along at least 5%, 10%, 15%, 20%, 25%, 30%, 35%, 40%, 45%, 50%, 55%, 60%, 65%, 70%, 75%, 80%, 85%, 90%, 95% or 100% of the length of the ion guide in order to urge, force, drive or propel ions through the ion guide.
Device for inspection of printed products produced by a printing machine, wherein the device is provided with a first camera that is directed to an inspection field to be checked and at least one further camera that is directed at least partially and simultaneously to the same inspection field of the first camera, wherein the first camera comprises a standard lens and the at least one further camera comprises a telephoto lens, wherein the at least one further camera is solely directed to an inspection field section of the inspection field of the first camera, characterised in that a higher spatially resolved recording of the inspection field section of the inspection field of the first camera is provided by the at least one further camera, wherein both cameras (48, 50) are straight directed to the printed product.