mhurhangee/ep-ind-claims huggingface dataset:
A harness for use with breathing apparatus, comprising: a back plate for accommodating a gas cylinder; a sliding plate adjustable in a longitudinal direction with respect to the back plate so as to enable the length of the harness to be varied; at least one shoulder strap (20, 22) attached to an upper portion of the sliding plate; and at least two flexible conduits (24, 26) extending from a lower portion of the back plate; wherein at least one of the flexible conduits (24, 26) extends along the sliding plate, to at least one predetermined position on the shoulder strap; and wherein retaining means are provided on the sliding plate to prevent longitudinal movement of the at least one flexible conduit with respect to the sliding plate, such that when the sliding plate is adjusted relative to the back plate the flexible conduit retains its predetermined position on the shoulder strap; characterised in that the at least two flexible conduits (24, 26) cross one another in the lateral direction of the back plate, so as to assist the folding and unfolding of the conduits when the sliding plate is moved. a back plate for accommodating a gas cylinder; a sliding plate adjustable in a longitudinal direction with respect to the back plate so as to enable the length of the harness to be varied; at least one shoulder strap (20, 22) attached to an upper portion of the sliding plate; and at least two flexible conduits (24, 26) extending from a lower portion of the back plate; wherein at least one of the flexible conduits (24, 26) extends along the sliding plate, to at least one predetermined position on the shoulder strap; and wherein retaining means are provided on the sliding plate to prevent longitudinal movement of the at least one flexible conduit with respect to the sliding plate, such that when the sliding plate is adjusted relative to the back plate the flexible conduit retains its predetermined position on the shoulder strap;
A method for purifying FK506 consisting of: dissolving a mixture of FK506 and lactone compounds having a saturated alkyl group in a water-miscible organic solvent to prepare a solution of the lactone compounds in the range of 25 to 150 g/l (first step); adding an organic solvent selected from the group consisting of benzene, toluene, hexane, heptane, butanol, chloroform, and mixtures thereof to the solution of the lactone compounds (second step); adding an aqueous silver ion (Ag +) solution to the mixed solution of the second step to allow the FK506 to migrate to the aqueous silver ion solution (third step); separating the aqueous silver ion solution containing the FK506 and the organic solvent layer and collecting the aqueous silver ion solution (fourth step); adding an organic solvent selected from the group consisting of dichloromethane, ethyl acetate, isobutyl acetate, n-butyl acetate, t-butyl acetate, and mixtures thereof which is capable of dissolving the FK506 present in the aqueous silver ion solution to the aqueous silver ion solution to extract the FK506 (fifth step); and removing the silver ions present in the extracted FK506 and collecting the FK506 as a crystal (sixth step). dissolving a mixture of FK506 and lactone compounds having a saturated alkyl group in a water-miscible organic solvent to prepare a solution of the lactone compounds in the range of 25 to 150 g/l (first step); adding an organic solvent selected from the group consisting of benzene, toluene, hexane, heptane, butanol, chloroform, and mixtures thereof to the solution of the lactone compounds (second step); adding an aqueous silver ion (Ag +) solution to the mixed solution of the second step to allow the FK506 to migrate to the aqueous silver ion solution (third step); separating the aqueous silver ion solution containing the FK506 and the organic solvent layer and collecting the aqueous silver ion solution (fourth step); adding an organic solvent selected from the group consisting of dichloromethane, ethyl acetate, isobutyl acetate, n-butyl acetate, t-butyl acetate, and mixtures thereof which is capable of dissolving the FK506 present in the aqueous silver ion solution to the aqueous silver ion solution to extract the FK506 (fifth step); and removing the silver ions present in the extracted FK506 and collecting the FK506 as a crystal (sixth step).
A method for removing pigment particles from a skin pigmentation, the method comprising exposing the pigment particles to pulsed laser energy having a wavelength resulting from using Nd:YAG, titanium doped sapphire, TIS, crystal or alexandrite as a lasing medium and a duration that is a multiple of five times or less of the acoustic transit time across a pigment particle having a diameter of about 1 micrometer to photomechanically disrupt the pigment particles to allow for their removal from the body by physiological processes, wherein the acoustic transit time of a sound wave in a particle is calculated by dividing the radius of the particle by the speed of sound in the particle.
A headrest assembly comprising: an upper portion; a lower portion; a rigid base that supports the upper and lower portions; at the upper portion, one or more upper cushions (12,14) coupled to the rigid base, that are configured to support a user's head; at the lower portion, an elongated back support coupled to the rigid base; wherein the elongated back support is a left lower cushion, and further comprising at the lower portion, a right lower cushion coupled to the rigid base, and there is a gap between the left and right lower cushions, characterized in that the rigid base has an amount of stiffness that is greater than the stiffness of the upper cushion(s) (12,14). an upper portion; a lower portion; a rigid base that supports the upper and lower portions; at the upper portion, one or more upper cushions (12,14) coupled to the rigid base, that are configured to support a user's head; at the lower portion, an elongated back support coupled to the rigid base; wherein the elongated back support is a left lower cushion, and further comprising at the lower portion, a right lower cushion coupled to the rigid base, and there is a gap between the left and right lower cushions, characterized in that the rigid base has an amount of stiffness that is greater than the stiffness of the upper cushion(s) (12,14).
Autonomous method for an optimised transmission of data in a wired Multi-Carrier Modulation - MCM - transmission system from a transmitter to one or more receivers via a transmission channel, whereby the transmitter is provided with only a predetermined supply power, whereby a transmitted signal for transmitting data comprises a plurality of subcarriers, whereby the data together with redundant information is distributed to the plurality of subcarriers in such a way that the receiver can dispense with some of the subcarriers in order to determine the data, the method comprising steps of: • measuring frequency-dependent access impedances of the wired transmission channel to the transmitter on side of the transmitter; • on the basis of the frequency-dependent access impedances and the predetermined supply power, adjusting the signal amplitude of each of the subcarriers. • measuring frequency-dependent access impedances of the wired transmission channel to the transmitter on side of the transmitter; • on the basis of the frequency-dependent access impedances and the predetermined supply power, adjusting the signal amplitude of each of the subcarriers.
A data processing apparatus arranged in operation to recover data bits from data symbols received from a predetermined number of sub-carrier signals of an Orthogonal Frequency Division Multiplexed OFDM symbol and to form an output bit stream, the data processing apparatus comprising a symbol de-interleaver operable to read-into a symbol interleaver memory the predetermined number of data symbols from the OFDM sub-carrier signals, and to read-out of the symbol interleaver memory the data symbols into an output symbol stream to effect the mapping, the read-out being in a different order than the read-in, the order being determined from a set of addresses, with the effect that the data symbols are de-interleaved from the OFDM sub-carrier signals into the output symbol stream, a de-mapping unit operable to generate, from the data symbols of the output symbol stream, parity interleaved LDPC encoded data bits by converting each of the data symbols of the output symbol stream representing a modulation symbol of the OFDM sub-carrier signals into data bits corresponding to a modulation scheme, an inverse permuter adapted to perform an inverse permutation process to effect a reverse of a permutation process applied to the parity interleaved LDPC encoded data bits to permute the LDPC encoded data bits so that a plurality of the LDPC encoded data bits corresponding to a value of 1 in an arbitrary row of an information matrix corresponding to information bits of an LDPC code, which was used to encode the data bits, is not incorporated into the same symbol; and an LDPC decoder adapted to perform LDPC decoding on the LDPC encoded data bits on which the inverse permutation process has been performed to form the output data bits, wherein the symbol de-interleaver includes an address generator operable to generate the set of addresses, an address being generated for each of the received data symbols to indicate the OFDM sub-carrier signal from which the received data symbol is to be mapped into the output symbol stream, the address generator comprising a linear feedback shift register (200, 202) including a predetermined number of register stages and being operable to generate a pseudo-random bit sequence in accordance with a generator polynomial, a permutation circuit operable to receive the content of the shift register stages and to permute the bits present in the register stages in accordance with a permutation code to form an address of one of the OFDM sub-carriers, and a control unit operable in combination with an address check circuit to re-generate an address when a generated address exceeds a predetermined maximum valid address, and wherein the predetermined maximum valid address is substantially four thousand and ninety six, the linear feedback shift register (200, 202) has eleven register stages with a generator polynomial for the linear feedback shift register of R i ʹ 10 = R i ʹ 0 ⊕ R i - 1 ʹ 2, and the permutation order forms an eleven bit address R i [ n] for the i-th data symbol from the bit present in the n-th register stage R i ʹ n in accordance with the table: R i ʹ n for n = 10 9 8 7 6 5 4 3 2 1 0 R i [ n] for n = 7 10 5 8 1 2 4 9 0 3 6
A nacelle assembly for a high bypass gas turbine engine comprising: a core nacelle defined about an engine centerline axis; a fan nacelle mounted at least partially around said core nacelle to define a fan bypass flow path; and a variable area fan nozzle in communication with said fan bypass flow path and comprising: a hinge beam; a first track slider movable relative to said hinge beam along a first interface; a second track slider movable relative to said first track slider along a second interface; and a first fan nacelle section and a second fan nacelle section, said second fan nacelle section including a VAFN cowl mounted to said second track slider, said hinge beam being fixed to said first fan nacelle section; said second fan nacelle section being slidable axially along the engine axis relative to said first fan nacelle section, the leading edge of the second nacelle section being uncovered to define an auxiliary port between said first fan nacelle section and said second nacelle section to vary a fan nozzle exit area and adjust fan bypass airflow; characterised in that: said second interface includes a bearing assembly having a multiple of roller bearings. a core nacelle defined about an engine centerline axis; a fan nacelle mounted at least partially around said core nacelle to define a fan bypass flow path; and a variable area fan nozzle in communication with said fan bypass flow path and comprising: a hinge beam; a first track slider movable relative to said hinge beam along a first interface; a second track slider movable relative to said first track slider along a second interface; and a first fan nacelle section and a second fan nacelle section, said second fan nacelle section including a VAFN cowl mounted to said second track slider, said hinge beam being fixed to said first fan nacelle section; a hinge beam; a first track slider movable relative to said hinge beam along a first interface; a second track slider movable relative to said first track slider along a second interface; and a first fan nacelle section and a second fan nacelle section, said second fan nacelle section including a VAFN cowl mounted to said second track slider, said hinge beam being fixed to said first fan nacelle section; said second fan nacelle section being slidable axially along the engine axis relative to said first fan nacelle section, the leading edge of the second nacelle section being uncovered to define an auxiliary port between said first fan nacelle section and said second nacelle section to vary a fan nozzle exit area and adjust fan bypass airflow; characterised in that: said second interface includes a bearing assembly having a multiple of roller bearings.
An ethylene-vinyl alcohol pellet comprising: an ethylene-vinyl alcohol copolymer, and fluorine-containing micro-particles each having a particle size with a diameter or a length of the major axis that is not greater than 20 μm; wherein the fluorine-containing micro-particles comprise a fluorinated polymer. an ethylene-vinyl alcohol copolymer, and fluorine-containing micro-particles each having a particle size with a diameter or a length of the major axis that is not greater than 20 μm; wherein the fluorine-containing micro-particles comprise a fluorinated polymer.
A multi-band handheld communications device, characterized by: a transceiver including: a transmitter having means for generating a bandpass region individually tunable across radio frequencies of separate multiple bands and a tunable power amplifier coupled to said means for generating, and a receiver having means for generating a bandpass region individually tunable across radio frequencies of the separate multiple bands and a tunable low noise amplifier coupled to said means for generating; means for selecting one of the multiple bands to operate the handheld communications device; and means for tuning, based on the selected one of the multiple bands, the bandpass region in the transmitter and the receiver, the power amplifier, and the low noise amplifier. a transceiver including: a transmitter having means for generating a bandpass region individually tunable across radio frequencies of separate multiple bands and a tunable power amplifier coupled to said means for generating, and a receiver having means for generating a bandpass region individually tunable across radio frequencies of the separate multiple bands and a tunable low noise amplifier coupled to said means for generating; a transmitter having means for generating a bandpass region individually tunable across radio frequencies of separate multiple bands and a tunable power amplifier coupled to said means for generating, and a receiver having means for generating a bandpass region individually tunable across radio frequencies of the separate multiple bands and a tunable low noise amplifier coupled to said means for generating; means for selecting one of the multiple bands to operate the handheld communications device; and means for tuning, based on the selected one of the multiple bands, the bandpass region in the transmitter and the receiver, the power amplifier, and the low noise amplifier.
A material for manufacturing contact lenses, comprising: a first composition represented by the following formula: wherein Z1 is a first silicone hydrogel monomer, n1 is ranged between 1 and 1.5, and o1 is ranged between 1 and 2; a second composition represented by the following formula: wherein Z2 is a second silicone hydrogel monomer, n2 is ranged between 1 and 5, and o2 is ranged between 1 and 2; at least one hydrophilic monomer; and at least one photoinitiator. a first composition represented by the following formula: wherein Z1 is a first silicone hydrogel monomer, n1 is ranged between 1 and 1.5, and o1 is ranged between 1 and 2; a second composition represented by the following formula: wherein Z2 is a second silicone hydrogel monomer, n2 is ranged between 1 and 5, and o2 is ranged between 1 and 2; at least one hydrophilic monomer; and at least one photoinitiator.
A system for estimating exhaled gas during high flow respiratory therapy, the system comprising: a respiratory high flow therapy system; an exhaled gas monitoring system; and a processing arrangement configured to receive exhaled gas measurement data from the exhaled gas monitoring system and flow data from the respiratory high flow therapy system and to determine a compensated exhaled gas measurement, wherein the processing arrangement is further configured to determine the compensated exhaled gas measurement by estimating expiratory volume dilution. a respiratory high flow therapy system; an exhaled gas monitoring system; and a processing arrangement configured to receive exhaled gas measurement data from the exhaled gas monitoring system and flow data from the respiratory high flow therapy system and to determine a compensated exhaled gas measurement, wherein the processing arrangement is further configured to determine the compensated exhaled gas measurement by estimating expiratory volume dilution.
A process for production of red ginseng hydrolysis concentrate comprising: adding water or alcohol to a mixture containing bamboo shoot, Japanese gerbera ( Leibnitzia anandria) leaf, oriental arbor vitae ( Platycladus orientalis) fruit, and false daisy ( Eclipta prostrata) followed by extraction and filtration to prepare an extract; adding water or alcohol to Ecklonia cava followed by extraction to prepare an Ecklonia cava extract; adding the extract prepared in the above step to red ginseng followed by extraction and filtration to prepare a red ginseng extract; adding the Ecklonia cava extract prepared in the above step to red ginseng separated from the red ginseng extract prepared in the above step followed by extraction and filtration to prepare a red ginseng extract; mixing the red ginseng extract prepared in the above step with the red ginseng extract prepared in the above step followed by concentration to prepare red ginseng concentrate; adding an enzyme solution comprising beta-glucosidase and pectinase to the red ginseng concentrate prepared in the above step to have an enzyme reaction followed by addition of alcohol to prepare a mixture solution of red ginseng and alcohol; and centrifuging the mixture solution of red ginseng and alcohol prepared in the above step followed by concentration under reduced pressure of a supernatant separated by the centrifuge. adding water or alcohol to a mixture containing bamboo shoot, Japanese gerbera ( Leibnitzia anandria) leaf, oriental arbor vitae ( Platycladus orientalis) fruit, and false daisy ( Eclipta prostrata) followed by extraction and filtration to prepare an extract; adding water or alcohol to Ecklonia cava followed by extraction to prepare an Ecklonia cava extract; adding the extract prepared in the above step to red ginseng followed by extraction and filtration to prepare a red ginseng extract; adding the Ecklonia cava extract prepared in the above step to red ginseng separated from the red ginseng extract prepared in the above step followed by extraction and filtration to prepare a red ginseng extract; mixing the red ginseng extract prepared in the above step with the red ginseng extract prepared in the above step followed by concentration to prepare red ginseng concentrate; adding an enzyme solution comprising beta-glucosidase and pectinase to the red ginseng concentrate prepared in the above step to have an enzyme reaction followed by addition of alcohol to prepare a mixture solution of red ginseng and alcohol; and centrifuging the mixture solution of red ginseng and alcohol prepared in the above step followed by concentration under reduced pressure of a supernatant separated by the centrifuge.
An apparatus to upgrade a component of software for a control device of a process control system, the apparatus comprising: a first existing component (320, 310-312) to determine when a second existing component of the software in a functioning control device is at least one of failed, failing, or producing errors, each of the first and second existing components (320, 310-312) implementing a respective instantiation of the same software; and an upgrade module to: instantiate a replacement component of the software in the functioning control device currently executing the second existing component that is at least one of failed, failing, or producing errors, the replacement component being an upgraded version of the second existing component; copy state data associated with the second existing component to the replacement component; and change the replacement component in the functioning control device to an active mode when a state of the replacement component matches a state of the second existing component. a first existing component (320, 310-312) to determine when a second existing component of the software in a functioning control device is at least one of failed, failing, or producing errors, each of the first and second existing components (320, 310-312) implementing a respective instantiation of the same software; and an upgrade module to: instantiate a replacement component of the software in the functioning control device currently executing the second existing component that is at least one of failed, failing, or producing errors, the replacement component being an upgraded version of the second existing component; copy state data associated with the second existing component to the replacement component; and change the replacement component in the functioning control device to an active mode when a state of the replacement component matches a state of the second existing component. instantiate a replacement component of the software in the functioning control device currently executing the second existing component that is at least one of failed, failing, or producing errors, the replacement component being an upgraded version of the second existing component; copy state data associated with the second existing component to the replacement component; and change the replacement component in the functioning control device to an active mode when a state of the replacement component matches a state of the second existing component.