mhurhangee/ep-ind-claims huggingface dataset:
A personal mobile charging device comprising: an elongate rectangular body having a top, a bottom, two elongate sides and two short sides, namely, thin flexible lengths of material representing an outside and an inside surface or housing of the elongate body with a buckle or clip fixed at one end and a buckle attachment or clip on the opposing end of the length, the flexible lengths outside surface and inside surface being fixed together in a manner that creates a pocket or space for the permanent placement of at least one flexible battery (8, 10); said device characterized by an integrated plug embedded between the fixed flexible lengths of material defining the outside surface and inside surface of the body, the integrated plug being accessible at an edge of the body along at least one of the two elongate sides, enabling the charging of the at least one flexible battery (8, 10) and transfer of charge to a personal electronic device; a protective circuit board embedded between the fixed flexible lengths of material defining the outside surface and inside surface of the body, the protective circuit board being coupled with the integrated plug and the at least one flexible battery (8, 10), and having circuitry that protects the at least one flexible battery (8, 10) from over or under charging and regulates the charge to an attached personal electronic device; and a battery status indicator for indicating a state of charge of the at least one flexible battery (8, 10), the battery status indicator being integrated into an edge of the body along at least one of the two elongate sides. an elongate rectangular body having a top, a bottom, two elongate sides and two short sides, namely, thin flexible lengths of material representing an outside and an inside surface or housing of the elongate body with a buckle or clip fixed at one end and a buckle attachment or clip on the opposing end of the length, the flexible lengths outside surface and inside surface being fixed together in a manner that creates a pocket or space for the permanent placement of at least one flexible battery (8, 10); said device characterized by an integrated plug embedded between the fixed flexible lengths of material defining the outside surface and inside surface of the body, the integrated plug being accessible at an edge of the body along at least one of the two elongate sides, enabling the charging of the at least one flexible battery (8, 10) and transfer of charge to a personal electronic device; a protective circuit board embedded between the fixed flexible lengths of material defining the outside surface and inside surface of the body, the protective circuit board being coupled with the integrated plug and the at least one flexible battery (8, 10), and having circuitry that protects the at least one flexible battery (8, 10) from over or under charging and regulates the charge to an attached personal electronic device; and a battery status indicator for indicating a state of charge of the at least one flexible battery (8, 10), the battery status indicator being integrated into an edge of the body along at least one of the two elongate sides.
A power safety instrument configured to provide power information in an aircraft, the aircraft including a powerplant, the power safety instrument comprising: a display; a calculation unit for calculating a power required to operate the aircraft in a hover flight mode, the calculation unit being configured to default to calculating the power required based upon out-of-ground effect performance data; a power required indicator located on the display, the power required indicator being configured to communicate the power required to operate the aircraft in the hover flight mode; a power available indicator located on the display, the power available indicator being configured to communicate a power available of the powerplant in the aircraft; and an input device for allowing a user to instruct the calculation unit to use in-ground effect performance data for calculating the power required to operate the aircraft in the hover flight mode. a display; a calculation unit for calculating a power required to operate the aircraft in a hover flight mode, the calculation unit being configured to default to calculating the power required based upon out-of-ground effect performance data; a power required indicator located on the display, the power required indicator being configured to communicate the power required to operate the aircraft in the hover flight mode; a power available indicator located on the display, the power available indicator being configured to communicate a power available of the powerplant in the aircraft; and an input device for allowing a user to instruct the calculation unit to use in-ground effect performance data for calculating the power required to operate the aircraft in the hover flight mode.
A titanium alloy comprising: 5.5 to 6.5 wt% aluminum; 3.0 to 4.5 wt% vanadium; 1.0 to 2.0 wt% molybdenum; 0.3 to 1.5 wt% iron; 0.3 to 1.5 wt% chromium; 0.05 to 0.5 wt% zirconium; 0.2 to 0.3 wt% oxygen; maximum of 0.05 wt% nitrogen; maximum of 0.08 wt% carbon; maximum of 0.25 wt% silicon; and balance titanium, wherein a value of an aluminum structural equivalent [Al] eq ranges from 7.5 to 9.5 wt%, and is defined by the following equation: Al eq = Al + O × 10 + Zr / 6, and wherein a value of a molybdenum structural equivalent [Mo] eq ranges from 6.0 to 8.5 wt%, and is defined by the following equation: Mo eq = Mo + V / 1.5 + Cr × 1.25 + Fe × 2.5. 5.5 to 6.5 wt% aluminum; 3.0 to 4.5 wt% vanadium; 1.0 to 2.0 wt% molybdenum; 0.3 to 1.5 wt% iron; 0.3 to 1.5 wt% chromium; 0.05 to 0.5 wt% zirconium; 0.2 to 0.3 wt% oxygen; maximum of 0.05 wt% nitrogen; maximum of 0.08 wt% carbon; maximum of 0.25 wt% silicon; and balance titanium, wherein a value of an aluminum structural equivalent [Al] eq ranges from 7.5 to 9.5 wt%, and is defined by the following equation: Al eq = Al + O × 10 + Zr / 6, and wherein a value of a molybdenum structural equivalent [Mo] eq ranges from 6.0 to 8.5 wt%, and is defined by the following equation: Mo eq = Mo + V / 1.5 + Cr × 1.25 + Fe × 2.5.
A method for modulating the phase difference between a pair of optical waves exiting a Sagnac interferometer portion of a fiber optic gyroscope, wherein a phase modulation signal is applied to a phase modulator to modulate the phase of said pair of waves while said pair of waves propagate in opposite directions through phase modulator and because the phase modulator is not in the center of the Sagnac interferometer portion of a fiber optic gyroscope said phase modulation causes a modulation of the phase difference between the two waves as they exit the Sagnac interferometer portion of a fiber optic gyroscope and arrive at detector, the phase-difference modulation being a sum of the following phase-difference components: (i) a bias phase-difference modulation component having a selected bias modulation amplitude and waveform, (ii) a rotation-rate feedback phase-difference modulation component, (iii) a waveform adjust phase-difference component that takes on nonzero values during adjustment time periods for keeping the phase modulation within a predetermined range, characterized in that the phase-difference modulation further comprises: (iv) a calibration feedback phase-difference modulation component (807; 809; 811) and in that the method comprises activating said calibration feedback phase-difference modulation component (807; 809; 811) during first time periods, and deactivating said calibration feedback phase-difference modulation component (807; 809; 811) during second time periods during which time said calibration feedback phase-difference modulation component is substantially zero. (i) a bias phase-difference modulation component having a selected bias modulation amplitude and waveform, (ii) a rotation-rate feedback phase-difference modulation component, (iii) a waveform adjust phase-difference component that takes on nonzero values during adjustment time periods for keeping the phase modulation within a predetermined range, characterized in that the phase-difference modulation further comprises: (iv) a calibration feedback phase-difference modulation component (807; 809; 811) and in that the method comprises activating said calibration feedback phase-difference modulation component (807; 809; 811) during first time periods, and deactivating said calibration feedback phase-difference modulation component (807; 809; 811) during second time periods during which time said calibration feedback phase-difference modulation component is substantially zero.
Microspheres comprising core/shell particles dispersed in a polyolefin carrier, characterised in that the core comprises, as absorber, a mixture consisting of one or more bismuth compounds and one or more white pigments and/or pale or white mineral fillers and comprises, as film former, at least one non-olefinic polymer compound, and the shell comprises at least one compatibiliser, where the D 50 value for the white pigments or fillers is 0.02 - 5 μm.
A method of forming an antireflection optical body on an adherend, comprising: an application step of applying a photocurable resin onto one surface side of the adherend; a pressing step of pressing a substrate film having a fine structure body at one surface side thereof against the photocurable resin from an opposite surface side to the one surface side; a curing step of curing the photocurable resin by irradiating light to the photocurable resin with the substrate film being pressed; characterized by a peeling separation step of releasing the pressing of the substrate film and peeling fixed fine structure body that is fixed to the adherend through the cured photocurable resin from the substrate film while separating the fixed fine structure body from fine structure body on the substrate film other than at a location fixed through the photocurable resin such that the fixed fine structure body is formed on the adherend as an antireflection optical body, wherein the fine structure body has a fine structure at one surface at a side corresponding to the substrate film and a fine structure at a surface at an opposite side to the one surface. an application step of applying a photocurable resin onto one surface side of the adherend; a pressing step of pressing a substrate film having a fine structure body at one surface side thereof against the photocurable resin from an opposite surface side to the one surface side; a curing step of curing the photocurable resin by irradiating light to the photocurable resin with the substrate film being pressed; a peeling separation step of releasing the pressing of the substrate film and peeling fixed fine structure body that is fixed to the adherend through the cured photocurable resin from the substrate film while separating the fixed fine structure body from fine structure body on the substrate film other than at a location fixed through the photocurable resin such that the fixed fine structure body is formed on the adherend as an antireflection optical body, wherein the fine structure body has a fine structure at one surface at a side corresponding to the substrate film and a fine structure at a surface at an opposite side to the one surface.
A modified macromolecular compound of the following Formula A: wherein R 3 and R 4 are each independently selected from -OH, (C 1 -C 18) alkyl, (C 6 -C 18) aryl and (C 7 -C 18) aralkyl; R 5 and R 6 are each independently selected from hydrogen, (C 1 -C 18) alkyl, (C 6 -C 18) aryl and (C 7 -C 18) aralkyl; P is an elastomeric diene polymer chain comprising monomer units derived from at least one of the following monomers: butadiene, isoprene, styrene and alpha-methylstyrene; and K represents a hydrogen atom or wherein R 1 is independently selected from a hydrogen atom and (C 1 -C 4) alkyl; R 2 is independently selected from (C 1 -C 18) alkyl; Y is at least divalent and is (C 1 -C 18) alkyl, which may be substituted with one or more of the following groups: tertiary amine group, silyl group, (C 7 -C 18) aralkyl group and (C 6 -C 18) aryl group; and Z represents hydrogen or wherein M 1 is a silicon atom or a tin atom; R7 and R 8 are independently selected from (C 1 -C 18) alkyl, (C 6 -C 18)aryl and (C 7 -C 18) aralkyl; and T represents R 11 or wherein Y is as defined above; R 9 is independently selected from (C 1 -C 18) alkyl; R 10 is independently selected from a hydrogen atom and (C 1 -C 4) alkyl; R 11 is selected from (C 1 -C 18) alkyl, (C 6 -C 18) aryl and (C 7 -C 18) aralkyl; and D represents OR 1 or wherein R 1, P, R 3, R 4, R 5 and R 6 are as defined above; and p and o are each independently selected from an integer of 1, 2 and 3; m, n, t and u are each independently selected from an integer of 0, 1 and 2; and wherein p is 1 if K is H and otherwise p+m+n=3 and t+u+o=3. R 3 and R 4 are each independently selected from -OH, (C 1 -C 18) alkyl, (C 6 -C 18) aryl and (C 7 -C 18) aralkyl; R 5 and R 6 are each independently selected from hydrogen, (C 1 -C 18) alkyl, (C 6 -C 18) aryl and (C 7 -C 18) aralkyl; P is an elastomeric diene polymer chain comprising monomer units derived from at least one of the following monomers: butadiene, isoprene, styrene and alpha-methylstyrene; and K represents a hydrogen atom or R 1 is independently selected from a hydrogen atom and (C 1 -C 4) alkyl; R 2 is independently selected from (C 1 -C 18) alkyl; Y is at least divalent and is (C 1 -C 18) alkyl, which may be substituted with one or more of the following groups: tertiary amine group, silyl group, (C 7 -C 18) aralkyl group and (C 6 -C 18) aryl group; and Z represents hydrogen or Y is as defined above; R 9 is independently selected from (C 1 -C 18) alkyl; R 10 is independently selected from a hydrogen atom and (C 1 -C 4) alkyl; R 11 is selected from (C 1 -C 18) alkyl, (C 6 -C 18) aryl and (C 7 -C 18) aralkyl; and D represents OR 1 or R 1, P, R 3, R 4, R 5 and R 6 are as defined above; and p and o are each independently selected from an integer of 1, 2 and 3; m, n, t and u are each independently selected from an integer of 0, 1 and 2; and wherein p is 1 if K is H and otherwise p+m+n=3 and t+u+o=3.
Treatment machine for treating packaging means, particularly in the form of bottles or similar containers, comprising a transport element with which the packaging means can be moved past at least one treatment module provided at at least one treatment position, said module can be coupled to and decoupled from the treatment position, and mechanical coupling and/or centering means determining the position of the at least one treatment module after docking, characterised in that in order to detect possible deviations of the treatment module coupled to the treatment machine from its target position, and/or to realign the coupled treatment module into its target position, at least one optical centering and adjusting aid means (15, 16) is provided, the function elements (15, 16) of which are provided partially on the treatment module and partially on the treatment machine, wherein the at least one optical centering and adjusting aid means is a laser beam- supported centering and adjusting aid means, with at least one laser beam source producing a laser beam, and wherein a function element of the at least one optical centering and adjusting aid means (15, 16) is an optically detectable marking or an optically detectable marking field, and wherein the laser beam is directed onto the marking or the marking field.
An internal combustion engine comprising: a cylinder body including a cylinder (71, 72, 73) therein; a cylinder head joined to the cylinder body; a cam chain chamber provided in the cylinder body and the cylinder head, and configured to accommodate a cam chain and a chain guide (200,202,204) configured to guide the cam chain; a chain tensioner provided in the cam chain chamber, and including a case main body, a plunger sliding in the case main body, a spring biasing the chain guide against the cam chain via the plunger, interlocking teeth located on a surface of the plunger, and an engaging portion engaged with the interlocking teeth and configured to inhibit the plunger from moving in a direction away from the chain guide; and an oil supply passage (70P,80P) provided in an inner wall (70W, 80W) of at least one of the cylinder head and the cylinder body, and configured to supply oil to the chain tensioner, characterized in that the oil supply passage (70P,80P) is in communication with the cam chain chamber at a location above the chain tensioner, so as to supply the oil within the cam chain chamber to the chain tensioner. a cylinder body including a cylinder (71, 72, 73) therein; a cylinder head joined to the cylinder body; a cam chain chamber provided in the cylinder body and the cylinder head, and configured to accommodate a cam chain and a chain guide (200,202,204) configured to guide the cam chain; a chain tensioner provided in the cam chain chamber, and including a case main body, a plunger sliding in the case main body, a spring biasing the chain guide against the cam chain via the plunger, interlocking teeth located on a surface of the plunger, and an engaging portion engaged with the interlocking teeth and configured to inhibit the plunger from moving in a direction away from the chain guide; and an oil supply passage (70P,80P) provided in an inner wall (70W, 80W) of at least one of the cylinder head and the cylinder body, and configured to supply oil to the chain tensioner, characterized in that the oil supply passage (70P,80P) is in communication with the cam chain chamber at a location above the chain tensioner, so as to supply the oil within the cam chain chamber to the chain tensioner.
Method for controlling at least one parameter of a vehicle, wherein the method comprises the steps of: I) representing at least one parameter on at least one graphical representation device, wherein the at least one parameter is represented in a portion of the at least one graphical representation device, II) defining a first area in the at least one graphical representation device, wherein the first area delimits an area wherein the at least one parameter is represented, wherein the first area is included in the portion of the at least one graphical representation device, IV) detecting an orientation of at least one eyeball of an occupant of the vehicle, V) determining a match between the orientation of the at least one eyeball and the portion of the at least one graphical representation device, VI) storing the at least one parameter represented in the portion if the match between the orientation of the at least one eyeball and the portion is determined, VII) determining an actuation by the occupant, VIII) controlling the at least one parameter, wherein controlling the at least one parameter is based on the at least one stored parameter and based on the determined actuation by the occupant, characterised in that the method comprises furthermore the step of: III) defining a second area comprising establishing a surface area of the second area based on the at least one parameter, a priority of the at least one parameter represented and/or a determined actuation history of the occupant, wherein the second area delimits a zone wherein the at least one parameter may be actuated by the occupant, wherein the second area is included in the portion of the at least one graphical representation device. I) representing at least one parameter on at least one graphical representation device, wherein the at least one parameter is represented in a portion of the at least one graphical representation device, II) defining a first area in the at least one graphical representation device, wherein the first area delimits an area wherein the at least one parameter is represented, wherein the first area is included in the portion of the at least one graphical representation device, IV) detecting an orientation of at least one eyeball of an occupant of the vehicle, V) determining a match between the orientation of the at least one eyeball and the portion of the at least one graphical representation device, VI) storing the at least one parameter represented in the portion if the match between the orientation of the at least one eyeball and the portion is determined, VII) determining an actuation by the occupant, VIII) controlling the at least one parameter, wherein controlling the at least one parameter is based on the at least one stored parameter and based on the determined actuation by the occupant,
An electronic device comprising: a touch screen display being disposed and visible through the first opening; a combined button including a physical button and a virtual button, the physical button being configured to be movable in response to a pressure applied thereto and the virtual button being configured to be displayed on a specific region of the touch screen display adjacent to the physical button; and a processor electrically coupled to the touch screen display and the physical button of the combined button; wherein the processor configured to: display a screen on at least a portion of the touch screen display; display the virtual button of the combined button comprising a graphical user interface on a specific region of the screen adjacent to the physical button of the combined button such that the GUI visually extends the physical button, wherein a shape of the virtual button being disposed about a shape of the physical button to form a larger shape. a touch screen display being disposed and visible through the first opening; a combined button including a physical button and a virtual button, the physical button being configured to be movable in response to a pressure applied thereto and the virtual button being configured to be displayed on a specific region of the touch screen display adjacent to the physical button; and a processor electrically coupled to the touch screen display and the physical button of the combined button; wherein the processor configured to: display a screen on at least a portion of the touch screen display; display the virtual button of the combined button comprising a graphical user interface on a specific region of the screen adjacent to the physical button of the combined button such that the GUI visually extends the physical button, wherein a shape of the virtual button being disposed about a shape of the physical button to form a larger shape. display a screen on at least a portion of the touch screen display; display the virtual button of the combined button comprising a graphical user interface on a specific region of the screen adjacent to the physical button of the combined button such that the GUI visually extends the physical button, wherein a shape of the virtual button being disposed about a shape of the physical button to form a larger shape.
A telescopic boom arm comprising: - a plurality of elongate sections (12, 14, 16, 18) of progressively decreasing cross section received and guided one within the other; - a flexible hydraulic line (64, 66, 68) connected at one end to a connector located at the front end of a first, outer section is connected at its other end to a smaller inner section (16, 18) via a U-bend through the rear side of said smaller inner sections (14, 16, 18); characterized in that said flexible line (64, 66, 68) is substantially entirely covered by an elongate channel formed by the inside of said first section and the outside of a second, larger inner section (14, 16) from said one end to said U-bend from a fully retracted to a fully extended position of said arm. - a plurality of elongate sections (12, 14, 16, 18) of progressively decreasing cross section received and guided one within the other; - a flexible hydraulic line (64, 66, 68) connected at one end to a connector located at the front end of a first, outer section is connected at its other end to a smaller inner section (16, 18) via a U-bend through the rear side of said smaller inner sections (14, 16, 18);