mhurhangee/ep-ind-claims huggingface dataset:
An optical power supply system comprising: a power sourcing equipment configured to output feed light; an optical branching device to which the feed light from the power sourcing equipment is input and to which a plurality of powered devices that convert the feed light into electric power is connectable; a detector configured to detect the number of powered devices connected to the optical branching device; a power supply controller configured to control, based on the number of connected powered devices detected by the detector, output of the feed light from the power sourcing equipment, wherein the output of the power sourcing equipment is adjusted so as to correspond to an electric power load, the electric power load being the number of powered devices; and an optical fiber cable configured to transmit the feed light from the power sourcing equipment to the optical branching device, wherein the detector is provided at a power supplying side of the optical fiber cable, and wherein the detector is configured to output a signal to the optical branching device, and detect whether a powered device of the powered devices is connected to the optical branching device by presence or absence of a return signal therefrom, thereby detecting the number of connected powered devices. a power sourcing equipment configured to output feed light; an optical branching device to which the feed light from the power sourcing equipment is input and to which a plurality of powered devices that convert the feed light into electric power is connectable; a detector configured to detect the number of powered devices connected to the optical branching device; a power supply controller configured to control, based on the number of connected powered devices detected by the detector, output of the feed light from the power sourcing equipment, wherein the output of the power sourcing equipment is adjusted so as to correspond to an electric power load, the electric power load being the number of powered devices; and an optical fiber cable configured to transmit the feed light from the power sourcing equipment to the optical branching device, wherein the detector is provided at a power supplying side of the optical fiber cable, and wherein the detector is configured to output a signal to the optical branching device, and detect whether a powered device of the powered devices is connected to the optical branching device by presence or absence of a return signal therefrom, thereby detecting the number of connected powered devices.
A particle-containing grease composition comprising: base oil; a thickener; and molybdenum disulfide particles, wherein the molybdenum disulfide particles are sulfide made of molybdenum trioxide particles made of aggregates of primary particles containing a β crystal structure, a median diameter D 50 of the molybdenum disulfide particles determined by a dynamic light scattering method is 10 nm or more and less than 450 nm, a shape of primary particles of the molybdenum disulfide particles is a disk shape, a ribbon shape, or a sheet shape, and a thickness is in a range of 3 nm to 100 nm, a specific surface area of the molybdenum disulfide particles is 10 m 2 /g or more measured by a BET method, and a bulk density of the molybdenum disulfide particles is 0.1 g/cm 3 or more and 1.0 g/cm 3 or less. base oil; a thickener; and molybdenum disulfide particles, wherein the molybdenum disulfide particles are sulfide made of molybdenum trioxide particles made of aggregates of primary particles containing a β crystal structure, a median diameter D 50 of the molybdenum disulfide particles determined by a dynamic light scattering method is 10 nm or more and less than 450 nm, a shape of primary particles of the molybdenum disulfide particles is a disk shape, a ribbon shape, or a sheet shape, and a thickness is in a range of 3 nm to 100 nm, a specific surface area of the molybdenum disulfide particles is 10 m 2 /g or more measured by a BET method, and a bulk density of the molybdenum disulfide particles is 0.1 g/cm 3 or more and 1.0 g/cm 3 or less.
A probe for detecting a microbial endonuclease comprising an oligonucleotide of 2-15 nucleotides in length, a fluorophore operably linked to the oligonucleotide, and a quencher operably linked to the oligonucleotide, wherein the oligonucleotide comprises more than one modified pyrimidine, wherein all pyrimidines are 2'-O-methyl modified, wherein the oligonucleotide consists of RNA, wherein the endonuclease is a ribonuclease, and wherein the ribonuclease is micrococcal nuclease of Staphylococcus aureus or mycoplasma-associated nuclease.
Insulating formwork unit intended for the creation of walls, essentially made up of an internal wall, an external wall connected to the latter wall by means of spacer pieces, and an end part which extends at one end of the said unit, being connected to the corresponding ends of the internal wall and of the external wall, and which comprises at least a part of a means of interconnection with another such unit, so that assembling same makes it possible to obtain various orientations of one relative to the other about an axis, the unit being characterized in that the external wall and the end part are supplemented by an additional thickness delimited more or less by the continuation of the internal wall, and in that, when two such units are assembled, the external wall and the additional thickness of one unit are more or less delimited by the additional thickness of the other unit.
A flow cytometry method for detecting target microbes in a sample, said method comprising: a) treating the sample with at least one oxidant and at least one detergent; b) de-activating the at least one oxidant after treating the sample; c) mixing the sample with at least one probe to form a tagged sample; wherein the at least one probe comprises at least one tag; and wherein the at least one probe attaches to the target microbes in the tagged sample; d) introducing the tagged sample into a flow cytometer; and e) analyzing the tagged sample; wherein analyzing comprises exciting the at least one tag by at least one light source in the flow cytometer and detecting at least one fluorescent emission. a) treating the sample with at least one oxidant and at least one detergent; b) de-activating the at least one oxidant after treating the sample; c) mixing the sample with at least one probe to form a tagged sample; wherein the at least one probe comprises at least one tag; and wherein the at least one probe attaches to the target microbes in the tagged sample; d) introducing the tagged sample into a flow cytometer; and e) analyzing the tagged sample; wherein analyzing comprises exciting the at least one tag by at least one light source in the flow cytometer and detecting at least one fluorescent emission.
A removable module (102, 130, 205, 700, 1200, 1400) for securing a strap to a watch, the removable module (102, 130, 205, 700, 1200, 1400) comprising: a body portion (108, 210, 710, 1405) comprising: a top surface; a bottom surface; a rounded edge that transitions from the top surface to the bottom surface; and an aperture defined by the body portion (108, 210, 710, 1405); and a locking mechanism disposed within the aperture, the locking mechanism comprising: a catch member (118, 132, 220, 1430) disposed on the top surface of the body portion (108, 210, 710, 1405) and adapted to move from a first position to a second position as the removable module (108, 205, 710, 1405) slides relative to the watch; and characterized by: a ramp (134, 235, 1415) disposed on the bottom surface of the body portion (108, 210, 710, 1405), wherein the catch member (118, 132, 220, 1430) is moveably coupled to the ramp (134, 235, 1415). a body portion (108, 210, 710, 1405) comprising: a top surface; a bottom surface; a rounded edge that transitions from the top surface to the bottom surface; and an aperture defined by the body portion (108, 210, 710, 1405); and a top surface; a bottom surface; a rounded edge that transitions from the top surface to the bottom surface; and an aperture defined by the body portion (108, 210, 710, 1405); and a locking mechanism disposed within the aperture, the locking mechanism comprising: a catch member (118, 132, 220, 1430) disposed on the top surface of the body portion (108, 210, 710, 1405) and adapted to move from a first position to a second position as the removable module (108, 205, 710, 1405) slides relative to the watch; and characterized by: a ramp (134, 235, 1415) disposed on the bottom surface of the body portion (108, 210, 710, 1405), wherein the catch member (118, 132, 220, 1430) is moveably coupled to the ramp (134, 235, 1415). a catch member (118, 132, 220, 1430) disposed on the top surface of the body portion (108, 210, 710, 1405) and adapted to move from a first position to a second position as the removable module (108, 205, 710, 1405) slides relative to the watch; and characterized by: a ramp (134, 235, 1415) disposed on the bottom surface of the body portion (108, 210, 710, 1405), wherein the catch member (118, 132, 220, 1430) is moveably coupled to the ramp (134, 235, 1415).
A turbo fan engine, comprising: a first main shaft; a second main shaft; a power transmission device (30, 130, 230); and a starter generator, wherein the power transmission device (30, 130, 230) includes a first shaft (32, 132, 232) and a second shaft (36, 136, 236) that are coaxially disposed, and a clutch (37, 137, 270), characterized in that the power transmission device (30, 130, 230) further includes an intermediate shaft (34, 134, 234), the first shaft (32, 132) is connected to the first main shaft through a pair of bevel gears (10V, 32V), the intermediate shaft (34, 134, 234) is disposed outside of the first shaft (32, 132, 232) and is connected to the starter generator through a pair of bevel gears (34V, 42V), the second shaft (36, 136, 236) is disposed outside of the intermediate shaft (34, 134, 234) and is connected to the second main shaft through a pair of bevel gears (20V, 36V), and when, out of any two adjacent shafts of the first shaft (32, 132, 232), the intermediate shaft (34, 134, 234), and the second shaft (36, 136, 236), an inner shaft tries to rotate at a speed higher than a speed of an outer shaft, the clutch (37, 137, 270) causes the two shafts to engage with each other and to rotate at the same speed, and transmits power, whereas when the outer shaft tries to rotate at a speed higher than a speed of the inner shaft, the clutch (37, 137, 270) causes the two shafts to disengage from each other, and does not transmit power. a first main shaft; a second main shaft; a power transmission device (30, 130, 230); and a starter generator, wherein the power transmission device (30, 130, 230) includes a first shaft (32, 132, 232) and a second shaft (36, 136, 236) that are coaxially disposed, and a clutch (37, 137, 270), characterized in that the power transmission device (30, 130, 230) further includes an intermediate shaft (34, 134, 234), the first shaft (32, 132) is connected to the first main shaft through a pair of bevel gears (10V, 32V), the intermediate shaft (34, 134, 234) is disposed outside of the first shaft (32, 132, 232) and is connected to the starter generator through a pair of bevel gears (34V, 42V), the second shaft (36, 136, 236) is disposed outside of the intermediate shaft (34, 134, 234) and is connected to the second main shaft through a pair of bevel gears (20V, 36V), and when, out of any two adjacent shafts of the first shaft (32, 132, 232), the intermediate shaft (34, 134, 234), and the second shaft (36, 136, 236), an inner shaft tries to rotate at a speed higher than a speed of an outer shaft, the clutch (37, 137, 270) causes the two shafts to engage with each other and to rotate at the same speed, and transmits power, whereas when the outer shaft tries to rotate at a speed higher than a speed of the inner shaft, the clutch (37, 137, 270) causes the two shafts to disengage from each other, and does not transmit power.
JNK inhibitor, which comprises an inhibitory (poly-)peptide sequence according to the following general formula: X1-X2-X3-R-X4-X5-X6-L-X7-L-X8 (SEQ ID NO: 1), wherein X1 is an amino acid selected from amino acids R, P and Q, wherein X2 is an amino acid selected from amino acids R, P and G, wherein X3 is an amino acid selected from amino acids K, R, k and r, wherein X4 is an amino acid selected from amino acids P and K, wherein X5 is an amino acid selected from amino acids T, a, s, q, k or is absent, wherein X6 is an amino acid selected from amino acids T, D and A, wherein X7 is an amino acid selected from amino acids N, n, r and K; and wherein X8 is an amino acid selected from F, f and w, and wherein an amino acid residue given in capital letters indicates an L-amino acid residue, while an amino acid residue given in small letters indicates a D amino acid residue, with the proviso that at least one of the amino acids selected from the group consisting of X3, X5, X7 and X8 is/are (a) D-amino acid(s) for use in a method of treatment of the human or animal body by therapy. wherein X1 is an amino acid selected from amino acids R, P and Q, wherein X2 is an amino acid selected from amino acids R, P and G, wherein X3 is an amino acid selected from amino acids K, R, k and r, wherein X4 is an amino acid selected from amino acids P and K, wherein X5 is an amino acid selected from amino acids T, a, s, q, k or is absent, wherein X6 is an amino acid selected from amino acids T, D and A, wherein X7 is an amino acid selected from amino acids N, n, r and K; and wherein X8 is an amino acid selected from F, f and w, and wherein an amino acid residue given in capital letters indicates an L-amino acid residue, while an amino acid residue given in small letters indicates a D amino acid residue,
A haptic device (30; 130; 230), comprising: a substrate (32; 132; 232); and a substantially transparent composite piezoelectric cell (34; 134; 234) overlaying the substrate, the piezoelectric cell comprising a sensor piezoelectric layer (36; 142) configured to generate a first signal when the sensor piezoelectric layer is deformed, and an actuator piezoelectric layer (38; 136, 138, 140) configured to provide a haptic effect upon receipt of a second signal that is based on the first signal, wherein the sensor piezoelectric layer overlays the actuator piezoelectric layer or the actuator piezoelectric layer overlays the sensor piezoelectric layer. a substrate (32; 132; 232); and a substantially transparent composite piezoelectric cell (34; 134; 234) overlaying the substrate, the piezoelectric cell comprising a sensor piezoelectric layer (36; 142) configured to generate a first signal when the sensor piezoelectric layer is deformed, and an actuator piezoelectric layer (38; 136, 138, 140) configured to provide a haptic effect upon receipt of a second signal that is based on the first signal, wherein the sensor piezoelectric layer overlays the actuator piezoelectric layer or the actuator piezoelectric layer overlays the sensor piezoelectric layer. a sensor piezoelectric layer (36; 142) configured to generate a first signal when the sensor piezoelectric layer is deformed, and an actuator piezoelectric layer (38; 136, 138, 140) configured to provide a haptic effect upon receipt of a second signal that is based on the first signal, wherein the sensor piezoelectric layer overlays the actuator piezoelectric layer or the actuator piezoelectric layer overlays the sensor piezoelectric layer.
An optical fiber enclosure comprising: a generally rectangular housing including mounting tabs, the mounting tabs to secure the optical fiber enclosure to a rack; a plurality of trays slidable relative to the housing, the plurality of trays extendable from a front side of the housing; and a plurality of cable management clips along a front edge of at least one tray of the plurality of trays, the cable management clips arranged to retain optical fiber cables entering the enclosure; characterized in that at least one of the cable management clips includes a base having a socket at a first end and a post at a second end and an arm having a pin, the pin received in the socket to allow the arm to rotate relative to the base between an open position and a closed position. a generally rectangular housing including mounting tabs, the mounting tabs to secure the optical fiber enclosure to a rack; a plurality of trays slidable relative to the housing, the plurality of trays extendable from a front side of the housing; and a plurality of cable management clips along a front edge of at least one tray of the plurality of trays, the cable management clips arranged to retain optical fiber cables entering the enclosure; characterized in that at least one of the cable management clips includes a base having a socket at a first end and a post at a second end and an arm having a pin, the pin received in the socket to allow the arm to rotate relative to the base between an open position and a closed position.
Cabinet with a body, a shelf and an adjustment device (14, 16), by means of which the shelf is linearly movable and a rotary joint, around whose axis of rotation the shelf is rotatably mounted on the adjustment device (14,16) characterized in that at least one holding mechanism is provided, which is designed to reversibly fix the shelf in a predefined rotational position, comprising a spring-loaded receptacle and a holding element that can be reversibly fixed in the receptacle, that the spring-loaded receptacle is designed as a shaped spring, on which the holding element can be reversibly fixed, whereby the rotatable part of the drawer, i.e. the shelf, can be fixed in a (rotational) orientation corresponding to an engagement of the holding element with the receptacle of the shaped spring and that the shaped spring 50 is a receiving element for reversibly fixing an engaging element of the rotary joint for a drawer or shelf and the reversible fixing is possible from the receiving element in both rotational directions of the rotary joint. a body, a shelf and an adjustment device (14, 16), by means of which the shelf is linearly movable and a rotary joint, around whose axis of rotation the shelf is rotatably mounted on the adjustment device (14,16) characterized in that at least one holding mechanism is provided, which is designed to reversibly fix the shelf in a predefined rotational position, comprising a spring-loaded receptacle and a holding element that can be reversibly fixed in the receptacle, that the spring-loaded receptacle is designed as a shaped spring, on which the holding element can be reversibly fixed, whereby the rotatable part of the drawer, i.e. the shelf, can be fixed in a (rotational) orientation corresponding to an engagement of the holding element with the receptacle of the shaped spring and that the shaped spring 50 is a receiving element for reversibly fixing an engaging element of the rotary joint for a drawer or shelf and the reversible fixing is possible from the receiving element in both rotational directions of the rotary joint.
A door structure for a refrigeration device, comprising: a door housing, having an opening, wherein the door housing comprises a front panel and a side panel which are connected to each other, and the opening is located partially in the front panel and partially in the side panel; and a door handle, having a recessed groove and a flange located along an opening of the recessed groove, wherein the recessed groove of the door handle is located in the opening of the door housing, the flange of the door handle is connected partially to the front panel and partially to the side panel by an insertion-receiving structure, the insertion-receiving structure limits the door handle at least in two perpendicular dimensions of a surface of the front panel and in a third dimension perpendicular to the surface of the front panel, or limits the door handle at least in two perpendicular dimensions of a surface of the side panel and in a third dimension perpendicular to the surface of the side panel, characterized in that the insertion-receiving structure comprises projecting tongues disposed along the opening of the door housing, wherein the projecting tongues extend along a rear side of the door housing, wherein the front panel is perpendicular to the side panel, the projecting tongue on the front panel is perpendicular to the front panel, and the projecting tongue on the side panel is perpendicular to the side panel. a door housing, having an opening, wherein the door housing comprises a front panel and a side panel which are connected to each other, and the opening is located partially in the front panel and partially in the side panel; and a door handle, having a recessed groove and a flange located along an opening of the recessed groove, wherein the recessed groove of the door handle is located in the opening of the door housing, the flange of the door handle is connected partially to the front panel and partially to the side panel by an insertion-receiving structure, the insertion-receiving structure limits the door handle at least in two perpendicular dimensions of a surface of the front panel and in a third dimension perpendicular to the surface of the front panel, or limits the door handle at least in two perpendicular dimensions of a surface of the side panel and in a third dimension perpendicular to the surface of the side panel, characterized in that the insertion-receiving structure comprises projecting tongues disposed along the opening of the door housing, wherein the projecting tongues extend along a rear side of the door housing, wherein the front panel is perpendicular to the side panel, the projecting tongue on the front panel is perpendicular to the front panel, and the projecting tongue on the side panel is perpendicular to the side panel.
A method for producing a hydroxyalkyl acrylate, comprising the step of reacting acrylic acid with an alkylene oxide in the presence of a catalyst, wherein a content amount of acrylic acid dimer in the raw material acrylic acid is not more than 3.00 mass%, and wherein a molar ratio of the alkylene oxide relative to the acrylic acid is adjusted to be not less than 1.000 and not more than 1.055, and the molar ratio is calculated by the following formula: Molar ratio of AO / AA = mass of AO / molecular weight of AO / ( { mass of raw material AA × [ 100 − concentration of AA dimer / 100]} / molecular weight of AA) wherein AO represents alkylene oxide, AA represents acrylic acid, molar ratio of AO / AA represents the molar ratio of the alkylene oxide relative to the acrylic acid, units of mass of AO and mass of AA are g, and a unit of concentration of AA dimer is mass%.
A dispersion for forming an organic semiconductor film, which is useful in forming the organic semiconductor film and comprises an organic solvent and a fine-particulate organic semiconductor material as dispersed in the organic solvent, which particulate organic semiconductor material is in a form of fine particles and is usable as an organic semiconductor material, characterized in that the fine particles are fine thermotropic liquid crystal particles that undergo a phase transition into a liquid crystal state when heated to a temperature of from 50°C to 350°C, wherein the fine particles comprise a perylene tetracarboxylic diimide derivative represented by the following formula: wherein R1 and R2 each independently mean a branched or unbranched alkyl group having from 1 to 22 carbon atoms, and may each independently contain one or more heteroatoms selected from N, O, S and P.