mhurhangee/patent-ind-claim-en huggingface dataset:
Suspension device for suspending a piece of furniture from a wall , comprising - a counter bearing fixed to a wall, - a housing which can be fixed to a furniture wall of the piece of furniture , - a supporting element which is arranged on the housing so as to be pivotable out of a plane parallel to a base surface of the housing , - wherein the supporting element has a base body from which extends a hook part which can be suspended from the counter bearing , - a spring plate element fastened to the supporting element for preventing unintentional detachment of the supporting element from the counter bearing , - wherein a locking region of the spring plate element engages under the counter bearing in the suspended state of the hook part , characterized in that - the spring plate element has a plurality of spring legs , wherein a contact surface of the spring plate element is designed as a section of a first spring leg and the locking region is designed as a section of at least one second spring leg , wherein the locking region is designed as a projection which can be sprung in relative to the first spring leg . - a counter bearing fixed to a wall, - a housing which can be fixed to a furniture wall of the piece of furniture , - a supporting element which is arranged on the housing so as to be pivotable out of a plane parallel to a base surface of the housing , - wherein the supporting element has a base body from which extends a hook part which can be suspended from the counter bearing , - a spring plate element fastened to the supporting element for preventing unintentional detachment of the supporting element from the counter bearing , - wherein a locking region of the spring plate element engages under the counter bearing in the suspended state of the hook part , - the spring plate element has a plurality of spring legs , wherein a contact surface of the spring plate element is designed as a section of a first spring leg and the locking region is designed as a section of at least one second spring leg , wherein the locking region is designed as a projection which can be sprung in relative to the first spring leg .
A headgear cleaner (1-1; 1-2; 1-3; 1-4; 1-5; 1-6) comprising: an ozone generator formed of flexible material; and a voltage supply part (5; 5-1; 5-2; 5-3) for supplying a voltage required to generate ozone to the ozone generator , wherein the ozone generator has a dielectric and one or more pairs of electrodes , at least one electrode of each pair of electrodes is covered with the dielectric , and the voltage supply part (5; 5-1; 5-2; 5-3) is arranged to supply a voltage required to generate ozone to the one or more pairs of electrodes of the ozone generator , characterised in that the ozone generator is in an approximately semispherical hull shape and capable of receiving headgear such as a helmet thereon, the ozone generator comprises: multiple leaf parts extending radially from a top portion (O) and curved downward to have an approximately semispherical hull shape as a whole; and a connecting part that is connected to lower end portions of the multiple circularly arranged leaf parts to keep the overall shape of the multiple leaf parts in the approximately semispherical hull shape, the one or more pairs of electrodes are arranged on each of the multiple leaf parts , and the voltage supply part (5; 5-1; 5-2; 5-3) is connected in parallel with the one or more pairs of electrodes of each of the multiple leaf parts . the ozone generator has a dielectric and one or more pairs of electrodes , at least one electrode of each pair of electrodes is covered with the dielectric , and the voltage supply part (5; 5-1; 5-2; 5-3) is arranged to supply a voltage required to generate ozone to the one or more pairs of electrodes of the ozone generator , characterised in that the ozone generator is in an approximately semispherical hull shape and capable of receiving headgear such as a helmet thereon, the ozone generator comprises: multiple leaf parts extending radially from a top portion (O) and curved downward to have an approximately semispherical hull shape as a whole; and a connecting part that is connected to lower end portions of the multiple circularly arranged leaf parts to keep the overall shape of the multiple leaf parts in the approximately semispherical hull shape, multiple leaf parts extending radially from a top portion (O) and curved downward to have an approximately semispherical hull shape as a whole; and a connecting part that is connected to lower end portions of the multiple circularly arranged leaf parts to keep the overall shape of the multiple leaf parts in the approximately semispherical hull shape, the one or more pairs of electrodes are arranged on each of the multiple leaf parts , and the voltage supply part (5; 5-1; 5-2; 5-3) is connected in parallel with the one or more pairs of electrodes of each of the multiple leaf parts .
A tissue compression sensor system for use with a surgical stapling and cutting instrument, the tissue compression sensor system comprising: an RF electrode positionable on an end-effector of the surgical stapling and cutting instrument; a first electrical contact positionable on one of an anvil or a channel frame of the end-effector; a first filter communicatively coupled to the first electrical contact; a second electrical contact positionable on one of the anvil or the channel frame of the end-effector; and a second filter communicatively coupled to the second electrical contact; wherein the first and second electrical contacts lead to a common return path , wherein the system comprises a multiplexer that is configured to overlay two or more RF signals and transmit the overlaid RF signals to the RF electrode, and wherein the first filter and the second filter are configured to filter the RF signals from the first and second electrical contacts before joining the common return path to differentiate separate tissue impedances represented by the two or more filtered RF signals when the system is in use with the end-effector. an RF electrode positionable on an end-effector of the surgical stapling and cutting instrument; a first electrical contact positionable on one of an anvil or a channel frame of the end-effector; a first filter communicatively coupled to the first electrical contact; a second electrical contact positionable on one of the anvil or the channel frame of the end-effector; and a second filter communicatively coupled to the second electrical contact; wherein the first and second electrical contacts lead to a common return path , wherein the system comprises a multiplexer that is configured to overlay two or more RF signals and transmit the overlaid RF signals to the RF electrode, and wherein the first filter and the second filter are configured to filter the RF signals from the first and second electrical contacts before joining the common return path to differentiate separate tissue impedances represented by the two or more filtered RF signals when the system is in use with the end-effector.
An orthopedic walking brace configured to provide customized inflation control, said walking brace comprising: a shell component ; a plurality of inflatable cells (104a-c; 412; 414; 416) positioned within said shell component, wherein each of said plurality of inflatable cells is positioned at a different location within said shell component and configured to provide individualized compression to said different location; a control (110; 210; 310; 410; 500; 600; 700; 800) having an inlet port (132; 320; 502; 604; 702; 802) and a plurality of outlet ports (134a-c; 322a-c; 504a-d; 606a-c; 704a-d; 806a-d), the control being positionable in two or more orientations, and each outlet port being in fluid communication with a respective one of the plurality of inflatable cells; and an inflation component (106; 404) in fluid communication with the inlet port of the control; wherein positioning of the control to a first orientation creates a fluid path (152, 164, 166; 330, 332, 334; 510, 526; 616, 620, 626; 706, 708) between the inflation component and a first inflatable cell of the plurality of inflatable cells, and positioning of the control to a second orientation creates a fluid path between the inflation component and a second inflatable cell of the plurality of inflatable cells; chaharcterized in that the control comprises an inlet portion to align with the inlet port, and an outlet portion to align with one of the plurality of outlet ports, the control being linearly moveable within a trough , wherein the outlet portion is narrower than the inlet portion. a shell component ; a plurality of inflatable cells (104a-c; 412; 414; 416) positioned within said shell component, wherein each of said plurality of inflatable cells is positioned at a different location within said shell component and configured to provide individualized compression to said different location; a control (110; 210; 310; 410; 500; 600; 700; 800) having an inlet port (132; 320; 502; 604; 702; 802) and a plurality of outlet ports (134a-c; 322a-c; 504a-d; 606a-c; 704a-d; 806a-d), the control being positionable in two or more orientations, and each outlet port being in fluid communication with a respective one of the plurality of inflatable cells; and an inflation component (106; 404) in fluid communication with the inlet port of the control; wherein positioning of the control to a first orientation creates a fluid path (152, 164, 166; 330, 332, 334; 510, 526; 616, 620, 626; 706, 708) between the inflation component and a first inflatable cell of the plurality of inflatable cells, and positioning of the control to a second orientation creates a fluid path between the inflation component and a second inflatable cell of the plurality of inflatable cells; chaharcterized in that the control comprises an inlet portion to align with the inlet port, and an outlet portion to align with one of the plurality of outlet ports, the control being linearly moveable within a trough , wherein the outlet portion is narrower than the inlet portion.
Process for producing an NO/N 2 gas mixture comprising the steps of: a) carrying out a purification of impure nitrogen gas containing impurities of at least the O 2 type by: i) contacting the impure nitrogen with a catalyst in order to remove or transform at least a part of the impurities of the O 2 type, ii) contacting the nitrogen purified in substep i) with a molecular sieve to remove at least a part of the impurities of the H 2 O type resulting from step i), b) mixing the pure nitrogen resulting from step a) with nitric oxide (NO), c) obtaining a mixture composed of NO and pure nitrogen that has an NO content of less than 20% by volume and a proportion of impurities of the O 2 type of less than 5 ppmv and of the H 2 O type of less than 40 ppmv, d) carrying out an additional dilution of the NO/N 2 mixture obtained from step c) with nitrogen so as to obtain a final NO/N 2 mixture that has an NO content of less than or equal to 5000 ppmv, and e) packaging the final NO/N 2 mixture obtained from step d) in one or more gas cylinders . a) carrying out a purification of impure nitrogen gas containing impurities of at least the O 2 type by: i) contacting the impure nitrogen with a catalyst in order to remove or transform at least a part of the impurities of the O 2 type, ii) contacting the nitrogen purified in substep i) with a molecular sieve to remove at least a part of the impurities of the H 2 O type resulting from step i), i) contacting the impure nitrogen with a catalyst in order to remove or transform at least a part of the impurities of the O 2 type, ii) contacting the nitrogen purified in substep i) with a molecular sieve to remove at least a part of the impurities of the H 2 O type resulting from step i), b) mixing the pure nitrogen resulting from step a) with nitric oxide (NO), c) obtaining a mixture composed of NO and pure nitrogen that has an NO content of less than 20% by volume and a proportion of impurities of the O 2 type of less than 5 ppmv and of the H 2 O type of less than 40 ppmv, d) carrying out an additional dilution of the NO/N 2 mixture obtained from step c) with nitrogen so as to obtain a final NO/N 2 mixture that has an NO content of less than or equal to 5000 ppmv, and e) packaging the final NO/N 2 mixture obtained from step d) in one or more gas cylinders .
A guide RNA (gRNA) molecule comprising a targeting domain complementary to a target domain within 200 nucleotides of a target position in a USH2A gene, wherein the target position is a guanine deletion at nucleotide position 2299 , and wherein the targeting domain has a sequence that is the same as, or differs by no more than 3 nucleotides from, a sequence selected from the group consisting of: GAGUGCAAAAAAGAAGCCAA; GUUAGAUGUCACCAAUUGUA; GGUGUCACACUGAAGUCCUU; GCCAUGGAGGUUACACUGGC; GUCACAGGCCUUACAAU; GUCACACUGAAGUCCUU; UGCAAAAAAGAAGCCAA; UGCAGAGAAAACUUUUA; UGUUCACUGAGCCAUGG; and AUGGAGGUUACACUGGC. GAGUGCAAAAAAGAAGCCAA; GUUAGAUGUCACCAAUUGUA; GGUGUCACACUGAAGUCCUU; GCCAUGGAGGUUACACUGGC; GUCACAGGCCUUACAAU; GUCACACUGAAGUCCUU; UGCAAAAAAGAAGCCAA; UGCAGAGAAAACUUUUA; UGUUCACUGAGCCAUGG; and AUGGAGGUUACACUGGC.
A chimeric antigen receptor, containing an antigen-binding region, a transmembrane domain and an intracellular region, the intracellular region consisting of a co-stimulatory domain, an intracellular signaling domain, and an additional signaling region, wherein the additional signaling region consists of the intracellular region of the γc chain, the intracellular signaling domain is the signaling domain of CD3 ζ, the co-stimulatory domain is the co-stimulatory signaling domain of CD137 (4-1BB), characterized in that the co-stimulatory domain, the intracellular signaling domain and the additional signaling region are arranged in order of distance from the cell membrane from nearest to farthest. wherein the additional signaling region consists of the intracellular region of the γc chain, the intracellular signaling domain is the signaling domain of CD3 ζ, the co-stimulatory domain is the co-stimulatory signaling domain of CD137 (4-1BB), characterized in that the co-stimulatory domain, the intracellular signaling domain and the additional signaling region are arranged in order of distance from the cell membrane from nearest to farthest.
A method of detecting loss of heterozygosity in a sample from a subject comprising: a) amplifying a set of microsatellite markers from a bladder sample from the subject and from a matched control sample, wherein the matched control sample is a buccal sample, to produce a set of amplification products, wherein the set of microsatellite markers comprise eight markers selected from the group consisting of: FGA, D9S747, MBP, D9S162, THO1, IFN-A, D21S1245, and D20S48; b) detecting the amplification products; c) comparing the amplification products from the bladder sample and the amplification products from the matched control sample; and d) determining if loss of heterozygosity is present in any two of the eight markers in the bladder sample. a) amplifying a set of microsatellite markers from a bladder sample from the subject and from a matched control sample, wherein the matched control sample is a buccal sample, to produce a set of amplification products, wherein the set of microsatellite markers comprise eight markers selected from the group consisting of: FGA, D9S747, MBP, D9S162, THO1, IFN-A, D21S1245, and D20S48; b) detecting the amplification products; c) comparing the amplification products from the bladder sample and the amplification products from the matched control sample; and d) determining if loss of heterozygosity is present in any two of the eight markers in the bladder sample.
An apparatus for perforating a wellbore, comprising: a charge holding member ; a plurality of shaped charges affixed in the charge holding member ; a detonator cord energetically coupled to each shaped charge ; and a carrier tube having an interior bore for receiving the charge holding member , the carrier tube comprising: (i) a radially inner layer ; and (ii) a radially outer layer , having a higher tensile strength than the radially inner layer ; characterized in that the radially inner layer has a higher compressive strength than the radially outer layer such that the radially inner layer is able to withstand wellbore compressive forces external to the radially outer layer; and the radially outer layer has sufficient tensile strength to withstand explosive burst pressures associated with detonation of the shaped charges such that detonation of the shaped charges perforates the radially outer layer leaving a majority of the radially outer layer substantially intact, the radially outer layer containing at least a portion of the radially inner layer after detonation. a charge holding member ; a plurality of shaped charges affixed in the charge holding member ; a detonator cord energetically coupled to each shaped charge ; and a carrier tube having an interior bore for receiving the charge holding member , the carrier tube comprising: (i) a radially inner layer ; and (ii) a radially outer layer , having a higher tensile strength than the radially inner layer ; (i) a radially inner layer ; and (ii) a radially outer layer , having a higher tensile strength than the radially inner layer ; characterized in that the radially inner layer has a higher compressive strength than the radially outer layer such that the radially inner layer is able to withstand wellbore compressive forces external to the radially outer layer; and the radially outer layer has sufficient tensile strength to withstand explosive burst pressures associated with detonation of the shaped charges such that detonation of the shaped charges perforates the radially outer layer leaving a majority of the radially outer layer substantially intact, the radially outer layer containing at least a portion of the radially inner layer after detonation.
A ladder comprising: a first assembly comprising a first pair of spaced apart rails ; a rung assembly coupled between the first pair of rails comprising: a base member comprising a front wall , a rear wall , an upper wall extending between the front wall and the rear wall , and a channel formed in the upper wall , the channel extending between the first pair of rails ; a displaceable member coupled with the base member , the displaceable member being at least partially disposed within the channel and configured to be displaced from a first position to a second position relative to the base member ; at least one alert mechanism associated with the displaceable member and configured to provide an audible alert when the displaceable member is displaced from the first position to the second position; wherein a front edge of the rung assembly extending between the first pair of rails maintains a substantially constant position relative to the first pair of rails when the displaceable member is displaced from the first position to the second position. a first assembly comprising a first pair of spaced apart rails ; a rung assembly coupled between the first pair of rails comprising: a base member comprising a front wall , a rear wall , an upper wall extending between the front wall and the rear wall , and a channel formed in the upper wall , the channel extending between the first pair of rails ; a displaceable member coupled with the base member , the displaceable member being at least partially disposed within the channel and configured to be displaced from a first position to a second position relative to the base member ; at least one alert mechanism associated with the displaceable member and configured to provide an audible alert when the displaceable member is displaced from the first position to the second position; wherein a front edge of the rung assembly extending between the first pair of rails maintains a substantially constant position relative to the first pair of rails when the displaceable member is displaced from the first position to the second position. a base member comprising a front wall , a rear wall , an upper wall extending between the front wall and the rear wall , and a channel formed in the upper wall , the channel extending between the first pair of rails ; a displaceable member coupled with the base member , the displaceable member being at least partially disposed within the channel and configured to be displaced from a first position to a second position relative to the base member ; at least one alert mechanism associated with the displaceable member and configured to provide an audible alert when the displaceable member is displaced from the first position to the second position; wherein a front edge of the rung assembly extending between the first pair of rails maintains a substantially constant position relative to the first pair of rails when the displaceable member is displaced from the first position to the second position.
A functional film comprising: (i) a first layer (A, 12, 33) that contains a resin; and (ii) a 2. second layer (B, 13, 32) which - has a microrelief pattern structure on a surface remote from the first layer (A, 12, 33), and - contains a compound obtainable by curing a compound (F) containing a perfluoropolyether group and a curable site, and - has a thickness of 1-100 nm; which functional film, with etching by an argon gas cluster ion beam from the second layer (B, 13, 32) side, satisfies - the relationship D1 < (2 × X1) in elemental analysis by X-ray photoelectron spectroscopy, and - the relationship D2 < (2 × X1) in carbon 1s spectrum measurement by X-ray photoelectron spectroscopy, wherein X1 is the thickness (nm) of the second layer (B, 13, 32); D1 is the depth (nm) at which fluorine atoms exhibit a concentration of ≤ 1 atom-%, and D2 is the depth (nm) at which no peak is detected within a bond energy range of 290-300 eV. (i) a first layer (A, 12, 33) that contains a resin; and (ii) a 2. second layer (B, 13, 32) which - has a microrelief pattern structure on a surface remote from the first layer (A, 12, 33), and - contains a compound obtainable by curing a compound (F) containing a perfluoropolyether group and a curable site, and - has a thickness of 1-100 nm; which functional film, with etching by an argon gas cluster ion beam from the second layer (B, 13, 32) side, satisfies - the relationship D1 < (2 × X1) in elemental analysis by X-ray photoelectron spectroscopy, and - the relationship D2 < (2 × X1) in carbon 1s spectrum measurement by X-ray photoelectron spectroscopy, wherein X1 is the thickness (nm) of the second layer (B, 13, 32); D1 is the depth (nm) at which fluorine atoms exhibit a concentration of ≤ 1 atom-%, and D2 is the depth (nm) at which no peak is detected within a bond energy range of 290-300 eV. - has a microrelief pattern structure on a surface remote from the first layer (A, 12, 33), and - contains a compound obtainable by curing a compound (F) containing a perfluoropolyether group and a curable site, and - has a thickness of 1-100 nm; - the relationship D1 < (2 × X1) in elemental analysis by X-ray photoelectron spectroscopy, and - the relationship D2 < (2 × X1) in carbon 1s spectrum measurement by X-ray photoelectron spectroscopy,