mhurhangee/ep-ind-claims huggingface dataset:
An automobile movable floor apparatus comprising: a floor board that covers the upper face of an automobile body floor, the automobile body floor including a toe board portion sloping down to the rear; and a floor base portion that extends toward the rear of the automobile body and is continuous with the rear end of the toe board portion; a raising-lowering drive mechanism that raises or lowers the floor board, provided in the foot area of an occupant seated in an occupant seat; the floor board including: a toe board corresponding portion that corresponds to the toe board portion of the automobile body floor, and a floor base corresponding portion that corresponds to the floor base portion, and where the toe board corresponding portion and the floor base corresponding portion being formed in a flattened V-like shape when viewed from the side, characterized in that the front end of the toe board corresponding portion of the floor board is pivotably attached to the toe board portion of the automobile body floor, and the raising-lowering drive mechanism is configured so as to lift the rear of the floor base corresponding portion in a state sloping downward to the front; and the raising-lowering drive mechanism comprises a drive link whose tip end is connected to the rear of the floor base corresponding portion, and a link drive mechanism that, by moving the base end of the drive link forward or to the rear along the automobile body floor, erects or lays down the drive link to drive the floor board up or down. a floor board that covers the upper face of an automobile body floor, the automobile body floor including a toe board portion sloping down to the rear; and a floor base portion that extends toward the rear of the automobile body and is continuous with the rear end of the toe board portion; a raising-lowering drive mechanism that raises or lowers the floor board, provided in the foot area of an occupant seated in an occupant seat; the floor board including: a toe board corresponding portion that corresponds to the toe board portion of the automobile body floor, and a floor base corresponding portion that corresponds to the floor base portion, and where the toe board corresponding portion and the floor base corresponding portion being formed in a flattened V-like shape when viewed from the side, characterized in that the front end of the toe board corresponding portion of the floor board is pivotably attached to the toe board portion of the automobile body floor, and the raising-lowering drive mechanism is configured so as to lift the rear of the floor base corresponding portion in a state sloping downward to the front; and the raising-lowering drive mechanism comprises a drive link whose tip end is connected to the rear of the floor base corresponding portion, and a link drive mechanism that, by moving the base end of the drive link forward or to the rear along the automobile body floor, erects or lays down the drive link to drive the floor board up or down.
An anal irrigation system comprising - an anal probe (119, 519), a reservoir (110, 210, 310, 510, 910) configured to contain irrigation liquid and tubes (117, 217, 317, 517, 917) connecting the reservoir (110, 210, 310, 510, 910) with the anal probe (119, 519), the reservoir (110, 210, 310, 510, 910) having flexible wall portions and - a box (130, 230, 330, 430, 530, 630, 730, 930) having a shell that forms an exterior surface of the box and defines an interior space within the box, and the interior space of the box includes a reservoir holding cavity (131, 431, 531, 931), the box (130, 230, 330, 430, 530, 630, 730, 930) having means for pressing on an exterior surface of the reservoir thereby displacing the irrigation liquid from the reservoir (110, 210, 310, 510, 910), characterised in that - the anal probe (119, 519) is firmly and not detachably connected to the tube (117, 217, 317, 517, 917), which in turn is firmly and not detachably connected to the reservoir (110, 210, 310, 510, 910). - an anal probe (119, 519), a reservoir (110, 210, 310, 510, 910) configured to contain irrigation liquid and tubes (117, 217, 317, 517, 917) connecting the reservoir (110, 210, 310, 510, 910) with the anal probe (119, 519), the reservoir (110, 210, 310, 510, 910) having flexible wall portions and - a box (130, 230, 330, 430, 530, 630, 730, 930) having a shell that forms an exterior surface of the box and defines an interior space within the box, and the interior space of the box includes a reservoir holding cavity (131, 431, 531, 931), the box (130, 230, 330, 430, 530, 630, 730, 930) having means for pressing on an exterior surface of the reservoir thereby displacing the irrigation liquid from the reservoir (110, 210, 310, 510, 910), characterised in that - the anal probe (119, 519) is firmly and not detachably connected to the tube (117, 217, 317, 517, 917), which in turn is firmly and not detachably connected to the reservoir (110, 210, 310, 510, 910).
An antigenic formulation consisting of: chimeric fusion antigens of HPV antigens with Hepatitis B surface antigen (HbsAg); and an adjuvant; wherein the HPV-HbsAg chimeric fusion antigens are selected from the group consisting of SEQ ID No. 1 and SEQ ID No. 2. chimeric fusion antigens of HPV antigens with Hepatitis B surface antigen (HbsAg); and an adjuvant; wherein the HPV-HbsAg chimeric fusion antigens are selected from the group consisting of SEQ ID No. 1 and SEQ ID No. 2.
A method of decreasing aggregation of a protein of interest during cell culture production phase in CHO cells, comprising: a) adapting CHO cells which express the protein of interest to growth factor, protein and peptide free media; and b) culturing the adapted CHO cells in growth factor, protein and peptide free media. a) adapting CHO cells which express the protein of interest to growth factor, protein and peptide free media; and b) culturing the adapted CHO cells in growth factor, protein and peptide free media.
A method of controlling welding power in a welding apparatus, comprising: sending a first pulse width modulation, PWM, signal and a second PWM signal to a DC-AC power converter, the first PWM signal (PWM_A) and second PWM signal (PWM_B) controlling a first set of primary switches (V1,V4) and a second set of primary switches (V2,V3) to output a primary current to a primary side of a main power transformer stage; measuring one of: a secondary average current, primary current or peak current reference (Ipeak) from an inner feedback in the DC-AC power converter to generate a sensed current value; and when the sensed current value is below a first threshold current value, activating a first secondary switch and a second secondary switch disposed on a secondary side of the main power transformer stage using a third PWM signal (PWM_C) and a fourth PWM signal (PWM_D), respectively; wherein the third PWM signal (PWM_C) and fourth PWM signal (PWM_D) are characterized by a variable time delay with respect to the first PWM signal (PWM_A) and second PWM signal (PWM_B), respectively, wherein the variable time delay, which is adjusted according to the sensed current value, is greater than one half of a switching period of the first PWM signal and the second PWM signal when the sensed current value is above the first threshold current value, thereby resulting in the secondary switches (V5, V6) not being activated at all, so that just a voltage output by a first set of secondary windings (z21, z22) is delivered to the welding apparatus, through output rectifiers (V7, V8). sending a first pulse width modulation, PWM, signal and a second PWM signal to a DC-AC power converter, the first PWM signal (PWM_A) and second PWM signal (PWM_B) controlling a first set of primary switches (V1,V4) and a second set of primary switches (V2,V3) to output a primary current to a primary side of a main power transformer stage; measuring one of: a secondary average current, primary current or peak current reference (Ipeak) from an inner feedback in the DC-AC power converter to generate a sensed current value; and when the sensed current value is below a first threshold current value, activating a first secondary switch and a second secondary switch disposed on a secondary side of the main power transformer stage using a third PWM signal (PWM_C) and a fourth PWM signal (PWM_D), respectively; wherein the third PWM signal (PWM_C) and fourth PWM signal (PWM_D) are characterized by a variable time delay with respect to the first PWM signal (PWM_A) and second PWM signal (PWM_B), respectively, wherein the variable time delay, which is adjusted according to the sensed current value, is greater than one half of a switching period of the first PWM signal and the second PWM signal when the sensed current value is above the first threshold current value, thereby resulting in the secondary switches (V5, V6) not being activated at all, so that just a voltage output by a first set of secondary windings (z21, z22) is delivered to the welding apparatus, through output rectifiers (V7, V8).
An Fe-based, nanocrystalline alloy powder, characterized in that said Fe-based, nanocrystalline alloy powder has an alloy composition represented by Fe 100-a-b-c-d-e-f Cu a Si b B c Cr d Sn e C f, wherein a, b, c, d, e and f are atomic % meeting 0.80 ≤ a ≤ 1.80, 2.00 ≤ b ≤ 10.00, 11.00 ≤ c ≤ 17.00, 0.10 ≤ d ≤ 2.00, 0.30 ≤ e ≤ 1.50, and 0.10 ≤ f ≤ 0.40; and has a nanocrystalline structure comprising nanocrystalline phases and an amorphous phase, containing 20% or more by volume of the nanocrystalline phases having an average crystal grain size, D, of 10-50 nm, in that the formation of Fe 2 B crystals in the Fe-based, nanocrystalline alloy powder is suppressed, in that the Fe-based, nanocrystalline alloy powder is obtained by heat-treating a quenched alloy powder, the quenched alloy powder having a trace amount of the fine Fe2B crystal, having an average crystal grain size of less than 10 nm and exhibiting in an X-ray diffraction measurement a diffraction peak intensity of a plane or a synthesized diffraction peak intensity of and planes of Fe 2 B are both 15% or less per 100% of the diffraction peak intensity of a plane of the nanocrystalline phases, in that the average crystal grain size, D, of the nanocrystalline phases is obtained by determining a half width in radian of (Fe-Si) bcc peak in the X-ray diffraction pattern of the Fe-based, nanocrystalline alloy powder, and calculating Scherrer's equation of D = 0.9 × λ/(half width) × cosΘ, wherein λ is the wavelength of the X-ray source, and in that the volume fraction of the nanocrystalline phases is determined by observing the alloy structure by a transmission electron microscope, summing the areas of the nanocrystalline phases, and calculating its ratio to the area of the observed field. the formation of Fe 2 B crystals in the Fe-based, nanocrystalline alloy powder is suppressed, in that the Fe-based, nanocrystalline alloy powder is obtained by heat-treating a quenched alloy powder, the quenched alloy powder having a trace amount of the fine Fe2B crystal, having an average crystal grain size of less than 10 nm and exhibiting in an X-ray diffraction measurement a diffraction peak intensity of a plane or a synthesized diffraction peak intensity of and planes of Fe 2 B are both 15% or less per 100% of the diffraction peak intensity of a plane of the nanocrystalline phases, in that the average crystal grain size, D, of the nanocrystalline phases is obtained by determining a half width in radian of (Fe-Si) bcc peak in the X-ray diffraction pattern of the Fe-based, nanocrystalline alloy powder, and calculating Scherrer's equation of D = 0.9 × λ/(half width) × cosΘ, wherein λ is the wavelength of the X-ray source, and in that the volume fraction of the nanocrystalline phases is determined by observing the alloy structure by a transmission electron microscope, summing the areas of the nanocrystalline phases, and calculating its ratio to the area of the observed field.
A method for determining a heart rate from a set of ultrasound images comprising the steps of: acquiring a set of ultrasound images; selecting a subset of spatial points from said set of ultrasound images; plotting each of said selected spatial points with respect to time; applying a window function to window each of said selected spatial points with respect to time; and processing data corresponding to each of said selected spatial points, including computing a power spectrum for each of said selected spatial points windowed with respect to time, characterized by the steps of: summing all power spectra; and determining a spectral peak frequency for said summed power spectra, wherein said determined spectral peak frequency is substantially identical to said heart rate. acquiring a set of ultrasound images; selecting a subset of spatial points from said set of ultrasound images; plotting each of said selected spatial points with respect to time; applying a window function to window each of said selected spatial points with respect to time; and processing data corresponding to each of said selected spatial points, including computing a power spectrum for each of said selected spatial points windowed with respect to time, summing all power spectra; and determining a spectral peak frequency for said summed power spectra, wherein said determined spectral peak frequency is substantially identical to said heart rate.
A telescope comprising a fastener plate, a primary mirror carried by a front face of the plate, and a secondary mirror held facing the primary mirror by a support, the support comprising a primary sleeve mounted around the primary mirror, a secondary sleeve mounted around the secondary mirror, arms connecting the secondary sleeve to the primary sleeve, and mechanical decoupling means for decoupling the secondary mirror relative to the primary mirror, the telescope being characterized in that: the secondary sleeve comprises an outer sleeve and an inner sleeve coaxial with the outer sleeve and connected thereto by symmetrically distributed mechanical decoupling elements; and the secondary mirror is received with clearance in the inner sleeve and is adhesively bonded thereto by means of a structural adhesive; the outer sleeve including first holes and the inner ring including second holes, which first and second holes are through holes that are substantially in alignment to permit the insertion of a cannula for injecting adhesive. the secondary sleeve comprises an outer sleeve and an inner sleeve coaxial with the outer sleeve and connected thereto by symmetrically distributed mechanical decoupling elements; and the secondary mirror is received with clearance in the inner sleeve and is adhesively bonded thereto by means of a structural adhesive; the outer sleeve including first holes and the inner ring including second holes, which first and second holes are through holes that are substantially in alignment to permit the insertion of a cannula for injecting adhesive.
A method of operating a data communication System-On-Chip, SOC, to exchange hardware trusted data communications, the method comprising a Central Processing Unit, CPU, executing an internal data application and an Input/Output, I/O, transceiver receiving a data message from an external data application for delivery to the internal data application, the method characterized in that the data message has encrypted user data and an encrypted hardware trust certificate for the external data application, the hardware trust certificate having been digitally signed and issued to the application by a hardware trust server in response to hardware trust validation, the I/O transceiver decrypting the encrypted user data, and the CPU delivering the decrypted user data to the internal data application, the method further comprising: the I/O transceiver decrypting the encrypted hardware trust certificate for the external data application and transferring the decrypted hardware trust certificate for the external data application to a SOC kernel; the SOC kernel validating the decrypted hardware trust certificate for the external data application and notifying the I/O transceiver; and responsive to the notification from the SOC kernel, the I/O transceiver transferring the decrypted user data to the CPU for delivery to the internal data application. the I/O transceiver decrypting the encrypted hardware trust certificate for the external data application and transferring the decrypted hardware trust certificate for the external data application to a SOC kernel; the SOC kernel validating the decrypted hardware trust certificate for the external data application and notifying the I/O transceiver; and responsive to the notification from the SOC kernel, the I/O transceiver transferring the decrypted user data to the CPU for delivery to the internal data application.
An aerosol-generating article (100, 20000) comprising: a first portion (110, 21000) including a plurality of crimped pieces of paper impregnated with an aerosol-generating element; a second portion (120, 22000) including a tobacco element; a third portion (130, 23000) including a cooling element; and a fourth portion (140, 24000) including a filter element, wherein the first portion (110, 21000), the second portion (120, 22000), the third portion (130, 23000), and the fourth portion (140, 24000) are sequentially arranged along a longitudinal direction of the aerosol-generating article (100, 20000). a first portion (110, 21000) including a plurality of crimped pieces of paper impregnated with an aerosol-generating element; a second portion (120, 22000) including a tobacco element; a third portion (130, 23000) including a cooling element; and a fourth portion (140, 24000) including a filter element, wherein the first portion (110, 21000), the second portion (120, 22000), the third portion (130, 23000), and the fourth portion (140, 24000) are sequentially arranged along a longitudinal direction of the aerosol-generating article (100, 20000).
A stimulation system for treating hyperactivity of an eyelid closing muscle of an eyelid in a subject, the system comprising: an activating switch configured to generate a first signal; a processor, in communication with the activating switch, having program code for generating at least one stimulation parameter, based on the first signal, that is configured to stimulate one or more eyelid opening muscles of said eyelid or innervating nerves or one or more eyelid opening reflexes concerning said eyelid in muscles or non-muscular tissue of the subject; and a stimulator configured to receive the stimulation parameter and configured to selectively stimulate the one or more eyelid opening muscles or innervating nerves or the one or more eyelid opening reflexes in muscles or non-muscular tissue of the subject based on the stimulation parameter, without substantially activating the eyelid closing muscle; wherein the activating switch is a sensing electrode configured to detect activity of the eyelid closing muscle of said eyelid. an activating switch configured to generate a first signal; a processor, in communication with the activating switch, having program code for generating at least one stimulation parameter, based on the first signal, that is configured to stimulate one or more eyelid opening muscles of said eyelid or innervating nerves or one or more eyelid opening reflexes concerning said eyelid in muscles or non-muscular tissue of the subject; and a stimulator configured to receive the stimulation parameter and configured to selectively stimulate the one or more eyelid opening muscles or innervating nerves or the one or more eyelid opening reflexes in muscles or non-muscular tissue of the subject based on the stimulation parameter, without substantially activating the eyelid closing muscle; wherein the activating switch is a sensing electrode configured to detect activity of the eyelid closing muscle of said eyelid.
A welding device (10, 100) comprising: a chip body formed in a cylindrical shape; a contact chip that guides a welding wire and supplies a welding current to the welding wire; a shielding gas supply nozzle that has a cylindrical shape, is fixed by being fitted into an opening side of the chip body, and supplies mixed shielding gas to a weld zone; and being characterised by: a suction nozzle that surrounds in use a periphery of the welding wire protruding from the contact chip, has a cylindrical shape, is fixed by being fitted into the opening side of the chip body, and has an opening toward a tip of the welding wire to suck gas, wherein the contact chip is disposed inside the suction nozzle, has a cylindrical shape, and is fixed by being fitted into the opening side of the chip body, a wire feed path having a diameter contactable to the wire is formed inside the contact chip, and the suction nozzle is disposed inside the shielding gas supply nozzle. a chip body formed in a cylindrical shape; a contact chip that guides a welding wire and supplies a welding current to the welding wire; a shielding gas supply nozzle that has a cylindrical shape, is fixed by being fitted into an opening side of the chip body, and supplies mixed shielding gas to a weld zone; a suction nozzle that surrounds in use a periphery of the welding wire protruding from the contact chip, has a cylindrical shape, is fixed by being fitted into the opening side of the chip body, and has an opening toward a tip of the welding wire to suck gas, wherein the contact chip is disposed inside the suction nozzle, has a cylindrical shape, and is fixed by being fitted into the opening side of the chip body, a wire feed path having a diameter contactable to the wire is formed inside the contact chip, and the suction nozzle is disposed inside the shielding gas supply nozzle.
A resonant matching circuit for matching a resonant frequency of a wireless power transfer system to a frequency of a power signal, comprising: a switch connected in parallel with a resonant element of the wireless power transfer system; and a controller connected to the switch and configured to detect a zero-voltage level crossing of a signal flowing through the resonant element and to close the switch for a predefined amount of time upon detection of the zero-voltage level crossing, wherein closing the switch short-circuits the resonant element for the predefined amount of time, thereby adding any one of a virtual inductive component and a virtual capacitive component to the wireless power transfer system. a switch connected in parallel with a resonant element of the wireless power transfer system; and a controller connected to the switch and configured to detect a zero-voltage level crossing of a signal flowing through the resonant element and to close the switch for a predefined amount of time upon detection of the zero-voltage level crossing, wherein closing the switch short-circuits the resonant element for the predefined amount of time, thereby adding any one of a virtual inductive component and a virtual capacitive component to the wireless power transfer system.
An apparatus, comprising: a braking system for a vehicle, including: a hydraulic electronic control unit; at least one brake unit operable for being controlled by the hydraulic electronic control unit; a cruise control function operable for configuring the vehicle to maintain a constant speed; a pre-charge function which includes generating pressure in the at least one brake unit; characterized in that the pre-charge function is activated by the hydraulic electronic control unit when the cruise control function is deactivated. a hydraulic electronic control unit; at least one brake unit operable for being controlled by the hydraulic electronic control unit; a cruise control function operable for configuring the vehicle to maintain a constant speed; a pre-charge function which includes generating pressure in the at least one brake unit; characterized in that the pre-charge function is activated by the hydraulic electronic control unit when the cruise control function is deactivated.