mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying a lettuce plant, preferably a Lactuca sativa plant, with enhanced resistance to Bremia lactucae, said method comprising the step of detecting one or more of the following SNP markers: a) a G genotype in the heterozygous or homozygous state for SNP marker SL1831 in SEQ ID NO: 1; b) an A genotype in the heterozygous or homozygous state for SNP marker SL1847 in SEQ ID NO: 6; c) a G genotype in the heterozygous or homozygous state for SNP marker SL1887 in SEQ ID NO: 11; and/or d) a C genotype in the heterozygous or homozygous state for SNP marker SL1883 in SEQ ID NO: 16; thereby identifying a lettuce plant with enhanced resistance to Bremia lactucae as compared with a control lettuce plant not comprising at least one of said SNP markers. a) a G genotype in the heterozygous or homozygous state for SNP marker SL1831 in SEQ ID NO: 1; b) an A genotype in the heterozygous or homozygous state for SNP marker SL1847 in SEQ ID NO: 6; c) a G genotype in the heterozygous or homozygous state for SNP marker SL1887 in SEQ ID NO: 11; and/or d) a C genotype in the heterozygous or homozygous state for SNP marker SL1883 in SEQ ID NO: 16;
A respiratory apparatus for delivering a flow of breathable gas to a patient, comprising a flow generator and a humidifier, the flow generator being configured to generate a flow of breathable gas, and comprising recesses or catches adapted to engage with spring biased latches of the humidifier, and the humidifier comprising a humidifier chamber with a cradle and a tub, the tub being configured to contain a supply of water and being insertable into the humidifier chamber, the humidifier further comprising a pivotable lid with a hinge portion that is hinged to hinge portions provided on the humidifier chamber, the lid being pivotable between an open position in which the tub is insertable into the humidifier chamber and a closed position in which the lid covers the inserted tub, the humidifier chamber further comprising an inlet configured to receive the flow of breathable gas generated by the flow generator, and a heating plate configured to heat the supply of water contained in the tub, wherein the humidifier cradle comprises a bottom, a back wall with an opposing front retaining wall and two opposing lateral sides, said inlet being provided on one of the opposing lateral sides, wherein said hinge axis extends along the back wall, wherein the flow generator and the humidifier are connectable with the lateral side with the inlet relative to the flow generator in a direction parallel to the hinge axis so that the latches of the humidifier are received in the recesses or catches of the flow generator. the flow generator being configured to generate a flow of breathable gas, and comprising recesses or catches adapted to engage with spring biased latches of the humidifier, and the humidifier comprising a humidifier chamber with a cradle and a tub, the tub being configured to contain a supply of water and being insertable into the humidifier chamber, the humidifier further comprising a pivotable lid with a hinge portion that is hinged to hinge portions provided on the humidifier chamber, the lid being pivotable between an open position in which the tub is insertable into the humidifier chamber and a closed position in which the lid covers the inserted tub, the humidifier chamber further comprising an inlet configured to receive the flow of breathable gas generated by the flow generator, and a heating plate configured to heat the supply of water contained in the tub, wherein the humidifier cradle comprises a bottom, a back wall with an opposing front retaining wall and two opposing lateral sides, said inlet being provided on one of the opposing lateral sides, wherein said hinge axis extends along the back wall, wherein the flow generator and the humidifier are connectable with the lateral side with the inlet relative to the flow generator in a direction parallel to the hinge axis so that the latches of the humidifier are received in the recesses or catches of the flow generator.
A compound of Formula I, or a pharmaceutically acceptable salt thereof, wherein: R 2 is H, halo, C 1-6 alk, or C 1-6 haloalk; R 3 is C 1-6 alk, C 1-6 haloalk, -O-C 1-6 alk, or -CN; R 4 is a 5- to 6-membered heteroaryl; Each of R 6 and R 7 is hydrogen; and Each of R 5a; R 5b; R 5c; R 5d; and R 5e is independently hydrogen or halo, wherein R 1 is selected from -CH 2 -CF 3, -CH 2 -CH 2 -CF 3, -CH 2 -CH 2 -CH 2 -CF 3, -CH 2 -CH(CH 3)-CF 3, -CH 2 -CF 2 -CF 3, -CH 2 -C(CH 3) 2 -CF 3, -C(CH 3) 2 -CH 2 -CF 3, -CF 2 -CH 2 -CF 3, or -CH 2 -CH 2 -CHF 2. R 2 is H, halo, C 1-6 alk, or C 1-6 haloalk; R 3 is C 1-6 alk, C 1-6 haloalk, -O-C 1-6 alk, or -CN; R 4 is a 5- to 6-membered heteroaryl; Each of R 6 and R 7 is hydrogen; and Each of R 5a; R 5b; R 5c; R 5d; and R 5e is independently hydrogen or halo,
A method for preparing a cell growth scaffold having a structural memory property, wherein, the method comprises: step 1, raw material collection: collection of a biological tissue raw material for preparing an acellular tissue matrix material, said raw material including, but not limited to, skin, cartilage, blood vessel, meniscus, stomach, small intestine, large intestine, diaphragm, tendon, ligament, nervous tissue, bladder and urethra of a human body or animal, a tissue rich in collagen being cut and separated out, into 1-20 mm little pieces or little sheets; step 2, raw material disinfection: soaking the little pieces or little sheets obtained in step 1 with 2% sodium carbonate for 4∼48 hours or with other alkaline solution with pH of 10.5-12.5; step 3, decellularization treatment: decellularization treating the little pieces or little sheets soaked in step 2 with 0.1∼2.0% sodium deoxycholate, Triton X-100, or with 10∼200 units per litre of neutral enzyme for 4∼36 hours; step 4, rinse of an acellular tissue matrix material: after the decellularization treatment in step 3, rinsing the little pieces or little sheets with 1-6 litre of normal saline or other neutral isosmotic solution per kilogram material for 2-5 times, each for 1∼12 hours; step 5: mincing the acellular tissue matrix: after the rinse of the acellular tissue matrix material in step 4, mincing the little pieces or litter sheets with a mincer to grind the acellular tissue matrix material into a micro-fibrous or flocculent acellular tissue matrix material; step 6, acidification treatment: soaking the micro-fibrous or flocculent acellular tissue matrix material obtained in step 5 in a 5∼200 ml of hydrochloric acid or acetic acid solution with pH adjusted to 2.8∼3.5 to perform the acidification treatment for 1∼24 hours, further mincing and grinding the matrix material into hydrogel-like particles, and adjusting pH to 4.0∼6.5 with a sodium hydroxide solution; step 7, mixing and injection molding: uniformly mixing the micro-fibrous or flocculent acellular tissue matrix material in a proportion of 60∼90% with the acidification-treated hydrogel-like acellular tissue matrix particle in a proportion of 40∼10 at the room temperature of 20∼30°C, and then injecting it into a packaging mold; step 8, freezing treatment: placing the mold containing an acellular tissue matrix material suspension into a freezer at -20°C or less for deep freezing, or further deep-freezing after the first thawing to increase the void structure of the suspension; step 9, radiation treatment: treating the deep-frozen material with X-ray, gamma ray or electron beam; step 10, preparing the acellular tissue matrix material treated in step 9 into a porous cell growth scaffold that can be stored at room temperature.
Retaining clip for a roof tile, in particular for fastening in the valley region, having an substantially U-shaped metal base body with two U-limbs (4, 5) which can be pushed onto the roof tile and a web region connecting the two U-limbs (4, 5), wherein at least one fastening opening is provided through which a fastening screw for fastening to the roof substructure, in particular to a rafter in the valley region, is passed, characterised in that a fastening strap, which has several adjacent fastening openings for the fastening screw, is pivotably articulated to the web region.
Apparatus comprising: - a means fixable to a building element, said means comprising a base having at least a through hole for a fixing threaded screw - a seal of flexible material insertable without clearance or with slight interference inside said through hole of said base from its bottom part, said seal providing for: - a through hole for the stem of said screw - and a first collar the outer face whereof has an outer diameter greater than said through hole of said base; wherein said first collar is partly seated inside a seat obtained in said bottom part and has a thickness greater than the depth P of said seat. - a means fixable to a building element, said means comprising a base having at least a through hole for a fixing threaded screw - a seal of flexible material insertable without clearance or with slight interference inside said through hole of said base from its bottom part, said seal providing for: - a through hole for the stem of said screw - and a first collar the outer face whereof has an outer diameter greater than said through hole of said base; wherein said first collar is partly seated inside a seat obtained in said bottom part and has a thickness greater than the depth P of said seat. - a through hole for the stem of said screw - and a first collar the outer face whereof has an outer diameter greater than said through hole of said base; wherein said first collar is partly seated inside a seat obtained in said bottom part and has a thickness greater than the depth P of said seat.
An on-off key ("OOK") receiver system, comprising: a receiver that, responsive to an OOK input signal, generates an intermediate current signal based on the input signal, the intermediate signal I out comprising a first current level when the input signal has a first OOK state and a second current level when the input signal has a second OOK state, and an output driver to generate a voltage representation of the intermediate current signal; and, characterized in that the receiver comprises: two pairs (810, 820; 830, 840) of mismatched differential pair circuits having inputs for a differential input signal, the differential input signal being the OOK input signal, each differential pair circuit comprising a pair of transistors one of which has smaller conductivity than the other, wherein a device type of transistors in a first two of the differential pair circuits (810, 820) are complementary to a device type of transistors in the other two of the differential pair circuits (830, 840), a first current mirror having a pair of current paths, a first current path coupled to the smaller conductivity transistors of the four differential pair circuits and a second current path coupled to an output terminal of the receiver, a second current mirror having a pair of current paths, a first current path coupled to the larger conductivity transistors of the four differential pair circuits and a second current path coupled to the output terminal of the receiver, and current sources (890, 892, 894, 896) coupled to each of the differential pair circuits. a receiver that, responsive to an OOK input signal, generates an intermediate current signal based on the input signal, the intermediate signal I out comprising a first current level when the input signal has a first OOK state and a second current level when the input signal has a second OOK state, and an output driver to generate a voltage representation of the intermediate current signal; and, two pairs (810, 820; 830, 840) of mismatched differential pair circuits having inputs for a differential input signal, the differential input signal being the OOK input signal, each differential pair circuit comprising a pair of transistors one of which has smaller conductivity than the other, wherein a device type of transistors in a first two of the differential pair circuits (810, 820) are complementary to a device type of transistors in the other two of the differential pair circuits (830, 840), a first current mirror having a pair of current paths, a first current path coupled to the smaller conductivity transistors of the four differential pair circuits and a second current path coupled to an output terminal of the receiver, a second current mirror having a pair of current paths, a first current path coupled to the larger conductivity transistors of the four differential pair circuits and a second current path coupled to the output terminal of the receiver, and current sources (890, 892, 894, 896) coupled to each of the differential pair circuits.
A play cushion comprising a foam body that is covered with a fabric or a synthetic material, the play cushion having at least one abutting surface which can be disposed against an abutting surface of an adjacent play cushion for forming a cushion combination, e.g. of a ball pool, a set of building blocks or a sports mat, the play cushions being magnetically connectable with each other in the area of their abutting surfaces, the play cushion having a magnetic plate for a magnetic connection, characterized in that the magnetic plate has several adjoining sections with respectively different polarities.
An audio source comprising: a multi-channel output port (302) configured to be coupled to a time division multiplex, TDM, bus comprising a Serial Low-Power Inter-Chip Media Bus, SLIMbus, wherein the multi-channel output port is configured to concurrently connect to at least two data channels (316L, 318R) carried by the TDM bus; and a data pipe coupled to the multi-channel output port and configured to pass interleaved audio data to the multi-channel output port. a multi-channel output port (302) configured to be coupled to a time division multiplex, TDM, bus comprising a Serial Low-Power Inter-Chip Media Bus, SLIMbus, wherein the multi-channel output port is configured to concurrently connect to at least two data channels (316L, 318R) carried by the TDM bus; and a data pipe coupled to the multi-channel output port and configured to pass interleaved audio data to the multi-channel output port.
An absorbent article, comprising: a topsheet; an absorbent core; and a secondary topsheet positioned between the topsheet and the absorbent core, wherein the secondary topsheet comprises a hydroentangled fibrous structure, the hydroentangled fibrous structure having a basis weight between 35 grams per square meter (gsm) and 65 gsm, a machine direction bending stiffness of 0.2 mN·cm to 7 mN·cm according to EDANA Test Method WSP 090.5, and a rewet value of 0.2 g to 7.0 g according to EDANA Test Method WSP 080.10, the hydroentangled fibrous structure comprising: from 30% to 60% by weight of the hydroentangled fibrous structure of a cellulosic fibrous component; from 5% to 30% by weight of the hydroentangled fibrous structure of a non-cellulosic fibrous component; and from 30% to 55% by weight of the hydroentangled fibrous structure of a polyolefin-based binder fibrous component, the polyolefin-based binder fibrous component being a bicomponent fiber. a topsheet; an absorbent core; and a secondary topsheet positioned between the topsheet and the absorbent core, wherein the secondary topsheet comprises a hydroentangled fibrous structure, the hydroentangled fibrous structure having a basis weight between 35 grams per square meter (gsm) and 65 gsm, a machine direction bending stiffness of 0.2 mN·cm to 7 mN·cm according to EDANA Test Method WSP 090.5, and a rewet value of 0.2 g to 7.0 g according to EDANA Test Method WSP 080.10, the hydroentangled fibrous structure comprising: from 30% to 60% by weight of the hydroentangled fibrous structure of a cellulosic fibrous component; from 5% to 30% by weight of the hydroentangled fibrous structure of a non-cellulosic fibrous component; and from 30% to 55% by weight of the hydroentangled fibrous structure of a polyolefin-based binder fibrous component, the polyolefin-based binder fibrous component being a bicomponent fiber. from 30% to 60% by weight of the hydroentangled fibrous structure of a cellulosic fibrous component; from 5% to 30% by weight of the hydroentangled fibrous structure of a non-cellulosic fibrous component; and from 30% to 55% by weight of the hydroentangled fibrous structure of a polyolefin-based binder fibrous component, the polyolefin-based binder fibrous component being a bicomponent fiber.
A method for casting a fibre reinforced composite product having a reinforcing fibre substrate, said method comprising the steps of; - providing a mold, said mold having at least a first and a second set of mold inlets (21, 31) for injecting composite fluid into said mold and at least one mold outlet connectable to a negative pressure source, such as a vacuum pump, each set of mold inlets (21, 31) having at least a first and a second mold inlet (211, 311, 212, 312), said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets are positioned closer to said at least one mold outlet than said first mold inlet of said first set of mold inlets and said first mold inlet of said second set of mold inlets, - placing a reinforcing fibre substrate into said mold, - substantially simultaneously start injecting said composite fluid from at least said first mold inlet of said first set of mold inlets and; said first mold inlet of said second set of mold inlets and, - subsequently thereafter substantially simultaneously start injecting composite fluid from said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets, characterized in that said mold has at least a first and a second distribution channel (20, 30) for distribution of said composite fluid, whereby a first mold inlet of said first set of mold inlets is arranged at said first distribution channel, and a first mold inlet of said second set of mold inlets is also arranged at said first distribution channel. - providing a mold, said mold having at least a first and a second set of mold inlets (21, 31) for injecting composite fluid into said mold and at least one mold outlet connectable to a negative pressure source, such as a vacuum pump, each set of mold inlets (21, 31) having at least a first and a second mold inlet (211, 311, 212, 312), said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets are positioned closer to said at least one mold outlet than said first mold inlet of said first set of mold inlets and said first mold inlet of said second set of mold inlets, - placing a reinforcing fibre substrate into said mold, - substantially simultaneously start injecting said composite fluid from at least said first mold inlet of said first set of mold inlets and; said first mold inlet of said second set of mold inlets and, - subsequently thereafter substantially simultaneously start injecting composite fluid from said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets, characterized in that
An actuator comprising: - a body; - a screw that is rotatably mounted on the body; - a nut that is provided with connection means for connecting it to an element for moving, and that is engaged on the screw to be moved by the screw rotating between an over-retracted first position and a deployed second position on either side of a retracted third position that is spaced apart from the over-retracted position by a distance corresponding to the screw rotating through a first angular sector (A 1); and - an anti-extension device comprising a friction disk free to rotate relative to the screw and designed to use friction to brake a portion constrained to rotate with the screw when the element for moving exerts a traction force on the nut tending to move the nut towards the deployed second position; the actuator being characterized in that the friction disk has at least one smooth surface and an obstacle (41.1, 41.2) arranged in the smooth surface both for co-operating with at least one pawl connected to the body, thereby defining both at least one second angular sector (A 2, A 3) of free rotation for the friction disk in a predetermined direction and also a position for blocking the friction disk in this predetermined direction, the smooth surface having a length such that the amplitude of the first angular sector (A 1) is strictly less than the amplitude of the second angular sector (A 2, A 3). - a body; - a screw that is rotatably mounted on the body; - a nut that is provided with connection means for connecting it to an element for moving, and that is engaged on the screw to be moved by the screw rotating between an over-retracted first position and a deployed second position on either side of a retracted third position that is spaced apart from the over-retracted position by a distance corresponding to the screw rotating through a first angular sector (A 1); and - an anti-extension device comprising a friction disk free to rotate relative to the screw and designed to use friction to brake a portion constrained to rotate with the screw when the element for moving exerts a traction force on the nut tending to move the nut towards the deployed second position;
A debris-flow simulation apparatus, comprising: a flume comprising a plurality of flume bodies (400, 500, 600) connected to each other in a longitudinal direction, wherein heights of the flume bodies (400, 500, 600) are able to be adjusted so that angles of inclination of the flume bodies (400, 500, 600) are variable. a flume comprising a plurality of flume bodies (400, 500, 600) connected to each other in a longitudinal direction,
A system for real-time monitoring and/or controlling wastewater or sludge dewatering and/or thickening processes, said system comprising - a wastewater piping comprising a wastewater inlet and a concentrated wastewater outlet; - at least one dewatering or thickening device, attached to said wastewater piping between the inlet and the outlet; - at least one total solids measurement device (2, 8, 11), attached to said wastewater piping; - at least one total suspended solids measurement device (3, 7, 10), attached to said wastewater piping or a fluid outlet of the dewatering or thickening device; - an inorganic coagulant container connected to said wastewater piping; - a feeding valve to control a flow of inorganic coagulant from said inorganic coagulant container to said wastewater piping; and - a control unit; wherein the flow of inorganic coagulant is adapted to be controlled in relation to a total dissolved solids value, as determined from the values measured by said total solids measurement device and said total suspended solids measurement device, so as to uphold at least a predetermined set point total dissolved solids value, and wherein said at least one total solids measurement device (2, 8, 11) and at least one total suspended solids measurement device (3, 7, 10) are positioned adjacent to each other; preferably said dewatering or thickening device is chosen from the group centrifugation device, filtration device, and sedimentation device; more preferably centrifuge, filter press, or decanter. - a wastewater piping comprising a wastewater inlet and a concentrated wastewater outlet; - at least one dewatering or thickening device, attached to said wastewater piping between the inlet and the outlet; - at least one total solids measurement device (2, 8, 11), attached to said wastewater piping; - at least one total suspended solids measurement device (3, 7, 10), attached to said wastewater piping or a fluid outlet of the dewatering or thickening device; - an inorganic coagulant container connected to said wastewater piping; - a feeding valve to control a flow of inorganic coagulant from said inorganic coagulant container to said wastewater piping; and - a control unit;