mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing equine amniotic fluid-derived multipotent stem cells comprising: Step 1 of isolating stem cells from equine amniotic fluid by centrifuging and culturing the stem cells in EGM-2 (Endothelial cell Growth Medium-2); Step 2 of culturing the cells cultured in Step 1 in DMEM (Dulbecco's Modified Eagle's Medium); and Step 3 of recovering the cultured cells showing the following characteristics and being more homogeneous than those before culture: (a) showing all negative immunological characteristics with respect to the human markers CD19, CD20, CD28, CD31, CD34, CD38, CD41a, CD62L, CD62P and CD200, and showing all positive immunological characteristics with respect to the human markers CD44, CD90 and CD105; (b) having the ability to differentiate into ectoderm, mesoderm or endoderm-derived cells; and (c) having the ability to maintain an undifferentiated state for 14 passages or more. Step 1 of isolating stem cells from equine amniotic fluid by centrifuging and culturing the stem cells in EGM-2 (Endothelial cell Growth Medium-2); Step 2 of culturing the cells cultured in Step 1 in DMEM (Dulbecco's Modified Eagle's Medium); and Step 3 of recovering the cultured cells showing the following characteristics and being more homogeneous than those before culture: (a) showing all negative immunological characteristics with respect to the human markers CD19, CD20, CD28, CD31, CD34, CD38, CD41a, CD62L, CD62P and CD200, and showing all positive immunological characteristics with respect to the human markers CD44, CD90 and CD105; (b) having the ability to differentiate into ectoderm, mesoderm or endoderm-derived cells; and (c) having the ability to maintain an undifferentiated state for 14 passages or more. (a) showing all negative immunological characteristics with respect to the human markers CD19, CD20, CD28, CD31, CD34, CD38, CD41a, CD62L, CD62P and CD200, and showing all positive immunological characteristics with respect to the human markers CD44, CD90 and CD105; (b) having the ability to differentiate into ectoderm, mesoderm or endoderm-derived cells; and (c) having the ability to maintain an undifferentiated state for 14 passages or more.
A method of producing radionuclides, the method comprising: providing a plate having a recessed portion, wherein the recessed portion has a surface of ceramic or metal; placing a target nuclide in the recessed portion; covering the target nuclide with a foil such that the target nuclide is encapsulated by the foil and the surface of the recessed portion, securing the foil to the plate such that the target nuclide is fixed relative to the plate; wherein the foil has a higher melting temperature than target nuclide; irradiating the encapsulated target nuclide with a beam of radiation. providing a plate having a recessed portion, wherein the recessed portion has a surface of ceramic or metal; placing a target nuclide in the recessed portion; covering the target nuclide with a foil such that the target nuclide is encapsulated by the foil and the surface of the recessed portion, securing the foil to the plate such that the target nuclide is fixed relative to the plate; wherein the foil has a higher melting temperature than target nuclide; irradiating the encapsulated target nuclide with a beam of radiation.
In vitro use of a compound for making a predetermined genetic change in a targeted chromosomal gene of an animal cell, wherein the compound is a single-stranded oligodeoxynucleotide having a 3' end nucleotide, a 5' end nucleotide, having at least 25 deoxynucleotides and not more than 65 deoxynucleotides, and having a sequence comprising at least two regions each of at least 8 deoxynucleotides that are identical to at least two regions, respectively, of the targeted chromosomal gene, which regions together are at least 24 nucleotides in length, and which regions are separated by at least one nucleotide in the sequence of the targeted gene and in the sequence of the oligodeoxynucleotide by a mutator region having a sequence that is the same length as the sequence that separates the homologous regions in the target sequence, but having a different sequence.
A method implemented by a security apparatus coupled to a camera, the method comprising: accessing video content from the coupled camera; splitting the video content into a plurality of RTP packets, each RTP packet having a payload; encrypting the payloads of the RTP packets using a key of a current crypto period to generate encrypted RTP packets; embedding in a header of each of the encrypted RTP packets, at least two key identifications for decryption of the encrypted RTP packets, during a predefined period of the current crypto period before the current crypto period is changed to a next crypto period, the at least two key identifications including an identification of the key used for the current crypto period and an identification of a key to be used in the next crypto period; and transmitting the plurality of RTP packets over a network to a video management system. accessing video content from the coupled camera; splitting the video content into a plurality of RTP packets, each RTP packet having a payload; encrypting the payloads of the RTP packets using a key of a current crypto period to generate encrypted RTP packets; embedding in a header of each of the encrypted RTP packets, at least two key identifications for decryption of the encrypted RTP packets, during a predefined period of the current crypto period before the current crypto period is changed to a next crypto period, the at least two key identifications including an identification of the key used for the current crypto period and an identification of a key to be used in the next crypto period; and transmitting the plurality of RTP packets over a network to a video management system.
A heat pump comprising: a compressor configured to compress a refrigerant; a first temperature sensor disposable in heating pipes connected to a heating device for performing indoor heating and configured to sense a temperature of water flowing through the heating pipes; and a controller configured to control the compressor to operate depending on an operation of a boiler; characterized in that: the controller is configured to: calculate a rate of change of the temperature of the water flowing through the heating pipes based on a sensing value of the first temperature sensor, and determine whether the boiler provides a heating function based on the calculated rate of change of the temperature of the water. a compressor configured to compress a refrigerant; a first temperature sensor disposable in heating pipes connected to a heating device for performing indoor heating and configured to sense a temperature of water flowing through the heating pipes; and a controller configured to control the compressor to operate depending on an operation of a boiler; calculate a rate of change of the temperature of the water flowing through the heating pipes based on a sensing value of the first temperature sensor, and determine whether the boiler provides a heating function based on the calculated rate of change of the temperature of the water.
A bale recompression system comprising an actuation system (300, 350, 400, 616, 1122) for moving a movable platen (316, 614) of the bale recompression system (100, 100', 100", 100"', 500, 600, 1100), the actuation system (300, 350, 400, 616, 1122) comprising: one or more actuators (116, 306, 406, 700, 1114); characterized by a first scissors linkage having a first link end coupled to a frame of the bale recompression system (100, 100', 100", 100"', 500, 600, 1100) and having a second link end coupled to the movable platen (316, 614); a second scissors linkage having a third link end coupled to the frame and having a fourth link end coupled to the movable platen (316, 614); and a cross-member (696, 696.1, 696.2) that interconnects the first scissors linkage and the second scissors linkage; wherein actuation of the one or more actuator (116, 306, 406, 700, 1114) pivots the first link end of the first scissors linkage and the third link end of the second scissors linkage relative to the frame and translates the movable platen (316, 614) from a first position to a second position; and wherein the first scissors linkage and the second scissors linkage are configured to maintain a fixed orientation of the movable platen (316, 614) in the first position and in the second position. one or more actuators (116, 306, 406, 700, 1114); characterized by a first scissors linkage having a first link end coupled to a frame of the bale recompression system (100, 100', 100", 100"', 500, 600, 1100) and having a second link end coupled to the movable platen (316, 614); a second scissors linkage having a third link end coupled to the frame and having a fourth link end coupled to the movable platen (316, 614); and a cross-member (696, 696.1, 696.2) that interconnects the first scissors linkage and the second scissors linkage; wherein actuation of the one or more actuator (116, 306, 406, 700, 1114) pivots the first link end of the first scissors linkage and the third link end of the second scissors linkage relative to the frame and translates the movable platen (316, 614) from a first position to a second position; and wherein the first scissors linkage and the second scissors linkage are configured to maintain a fixed orientation of the movable platen (316, 614) in the first position and in the second position.
An apparatus (102, 202) for rejecting an image band in a radio frequency, RF, signal, the apparatus comprising: an image rejection filter (130, 230); an oscillator (150, 250) configured to generate an oscillator signal (LO 1); a mixer (140, 240) coupled to the image rejection filter and the oscillator, the mixer configured to convert a received input signal to a first intermediate frequency signal (IF 1) based on the oscillator signal (LO 1); a frequency divider (160, 260) configured to generate a plurality of oscillator signals in quadrature with each other (LO 2-I, LO 2-Q); and a translational filter (170, 270) comprising a plurality of passive mixers (171a, 171b, 271a, 271b) configured to convert the first intermediate frequency signal (IF 1) to a plurality of second intermediate frequency signals in quadrature with each other (IF 2-I, IF 2-Q) based on the plurality of quadrature oscillator signals (LO 2-I, LO 2-Q); and a plurality of frequency-dependent impedances (172a, 172b, 272a, 272b) each coupled as a load to an output of a respective one of the plurality of passive mixers, wherein: the image rejection filter (130, 230) and the translational filter (170, 270) are adapted to combine to provide a bandpass filter for selecting a desired signal in the RF signal and a band-stop filter for suppressing the image band in the RF signal. an image rejection filter (130, 230); an oscillator (150, 250) configured to generate an oscillator signal (LO 1); a mixer (140, 240) coupled to the image rejection filter and the oscillator, the mixer configured to convert a received input signal to a first intermediate frequency signal (IF 1) based on the oscillator signal (LO 1); a frequency divider (160, 260) configured to generate a plurality of oscillator signals in quadrature with each other (LO 2-I, LO 2-Q); and a translational filter (170, 270) comprising a plurality of passive mixers (171a, 171b, 271a, 271b) configured to convert the first intermediate frequency signal (IF 1) to a plurality of second intermediate frequency signals in quadrature with each other (IF 2-I, IF 2-Q) based on the plurality of quadrature oscillator signals (LO 2-I, LO 2-Q); and a plurality of frequency-dependent impedances (172a, 172b, 272a, 272b) each coupled as a load to an output of a respective one of the plurality of passive mixers, wherein: the image rejection filter (130, 230) and the translational filter (170, 270) are adapted to combine to provide a bandpass filter for selecting a desired signal in the RF signal and a band-stop filter for suppressing the image band in the RF signal.
A cable guide, used in the flow channel of a sewer without substantially impeding the flow, the cable guide comprising: an upper face that provides a boundary to the flow channel and is shaped and/or otherwise adapted to minimise disturbance of the flow; and a lower face adapted to lie in contact with the walls of the flow channel section wherein the lower face is provided with one or more substantially contiguous recesses which when the lower face lies in contact with the walls of the flow channel define one or more passageways suitable for carrying a cable from one edge of the cable guide to another, characterized in that the contact between the lower face and the walls of the flow channel is, in at least some areas, by way of one or more vanes projecting from the surface of the lower face.
A liquid container (19, 20) coupled to a refill liquid container for refilling ink, said container comprising: a coupling part coupled to the refill liquid container, wherein said coupling part has a concave shape; and a pipe unit disposed at a central portion of said coupling part, said pipe unit for being inserted into said refill liquid container to thereby permit inflow of a liquid, wherein a slit is provided at a leading end of said pipe unit for being inserted into said refill liquid container. a coupling part coupled to the refill liquid container, wherein said coupling part has a concave shape; and a pipe unit disposed at a central portion of said coupling part, said pipe unit for being inserted into said refill liquid container to thereby permit inflow of a liquid, wherein a slit is provided at a leading end of said pipe unit for being inserted into said refill liquid container.
Arrangement for exhaust gas aftertreatment in internal combustion engines operated with excess air, such as diesel engines and gasoline engines with direct injection, where the arrangement includes a catalyst installed in the exhaust gas duct of an internal combustion engine for oxidation of nitrogen monoxide, characterized in that at least one molecular sieve that keeps sulfur dioxide away from the at least one catalyst is disposed between the exhaust gas and the at least one catalyst for oxidation of nitrogen monoxide and/or upstream of the at least one catalyst for oxidation of nitrogen monoxide, the diameter of the free passages through the molecular sieve is between 3 Å and 6 Å and, on the side of the molecular sieve facing the hydrocarbonaceous exhaust gas, there is a catalyst for oxidation of hydrocarbons, where the active component of the catalyst for oxidation of hydrocarbons is selected from the group consisting of palladium, ruthenium, iridium, rhodium, tungsten, titanium, lanthanum, molybdenum, cerium and/or manganese.
Motorhome bed composed of a plurality of lying surface sections (2;3) which extend transversely to the longitudinal direction of a vehicle, of which at least one lying surface section (2;3) can be pivoted into a vertical position by means of functional fittings, wherein the functional fittings are mounted so as to be displaceable parallel to one another on longitudinal guides extending horizontally in the longitudinal direction of the vehicle, characterized in that it is divided at least into a rear lying surface section and a front lying surface section, and the front lying surface section is designed such that it can be pivoted into a vertical position by means of the functional fittings, and the rear lying surface section is supported by functional fittings such that it can continue to be loaded and can be used as a lying surface.
A filter assembly comprising: a back wall comprising filter media and located on a downstream side; a first aperture formed on an upstream side, the first aperture having a cross-sectional dimension; opposing sidewalls comprising filter media, the opposing sidewalls extending between the back wall and the first aperture, wherein the back wall has a cross-sectional dimension; a second aperture positioned between the first aperture and the back wall, the second aperture having a cross-sectional dimension, wherein the cross-sectional dimension of the second aperture is smaller than the cross-sectional dimension of the first aperture and the cross-sectional dimension of the back wall; characterised in that at least one fastener extends through and fastens the opposing sidewalls to form the cross-sectional dimension of the second aperture. a back wall comprising filter media and located on a downstream side; a first aperture formed on an upstream side, the first aperture having a cross-sectional dimension; opposing sidewalls comprising filter media, the opposing sidewalls extending between the back wall and the first aperture, wherein the back wall has a cross-sectional dimension; a second aperture positioned between the first aperture and the back wall, the second aperture having a cross-sectional dimension, wherein the cross-sectional dimension of the second aperture is smaller than the cross-sectional dimension of the first aperture and the cross-sectional dimension of the back wall; characterised in that at least one fastener extends through and fastens the opposing sidewalls to form the cross-sectional dimension of the second aperture.
Apparatus for preferably flush mounting in the roadway/road surface, for example, street caps, drainage duct, inspection opening, or the like, comprising a frame which defines an opening and a cover which can be positioned with play in the frame, wherein between the frame and the cover specific individual compensation elements act in such a manner that, when the cover is inserted, the play between the frame and the cover is at least reduced or a fit, preferably a press-fit, is produced, wherein the compensation elements are components which are independent of the cover and frame, wherein the cover has an insertion region, for positioning the cover in the frame, which is associated with the compensation elements, wherein the compensation elements are constructed in a U-shaped manner and engage around the insertion region from the insertion-side edge, characterised in that the insertion region has recesses or indentations in which the compensation elements can be inserted from the free edge and can be engaged in a fixed manner, and in that the compensation elements can be engaged by means of integral locking pins, locking nipples or the like in a fixed manner to the recesses or indentations of the insertion region.
An aqueous herbicidal concentrate comprising a salt of an auxinic carboxylic acid using the N,N,N -trimethylethanolammonium cation for the ammonium salt of the auxinic carboxylic acid wherein the active ingredient is present in a concentration from 5 to 90 weight percent.
A recombinant nucleic acid molecule comprising a heterologous promoter operably linked to a polynucleotide segment encoding a pesticidal protein, wherein said pesticidal protein comprises an amino acid sequence having at least 90% amino acid sequence identity to SEQ ID NO:4, SEQ ID NO:2, SEQ ID NO:6, SEQ ID NO:8, SEQ ID NO:10, SEQ ID NO:12, SEQ ID NO:14, SEQ ID NO:16, or SEQ ID NO:18, and wherein said pesticidal protein is active against Lepidopteran insects.
A method for bearing a frame sequence number of a multichannel passive optical network, comprising: adding the frame sequence number and a frame delimiter to a multichannel passive optical network data packet or a data packet segment to be transmitted, wherein the frame sequence number is used for identifying an order for transmitting the multichannel passive optical network data packet or the data packet segment, the frame delimiter is used for identifying a frame start of the multichannel passive optical network data packet or the data packet segment; and transmitting the multichannel passive optical network data packet or the data packet segment; wherein the frame delimiter is used for recovering frame start detection to obtain the frame sequence number in a receiving end, and the frame sequence number is used for recovering a transmission order of the multichannel passive optical network data packet or the data packet segment in the receiving end; characterized in that the frame sequence number is added to the multichannel passive optical network data packet or the data packet segment to be transmitted in one of the following manners: adding an encapsulation layer outside the multichannel passive optical network data packet to be transmitted, and adding the frame sequence number in the added encapsulation layer; or splitting the multichannel passive optical network data packet to be transmitted into segments, adding an encapsulation layer outside each of the segments, and adding the frame sequence number in the added encapsulation layer. adding the frame sequence number and a frame delimiter to a multichannel passive optical network data packet or a data packet segment to be transmitted, wherein the frame sequence number is used for identifying an order for transmitting the multichannel passive optical network data packet or the data packet segment, the frame delimiter is used for identifying a frame start of the multichannel passive optical network data packet or the data packet segment; and transmitting the multichannel passive optical network data packet or the data packet segment; wherein the frame delimiter is used for recovering frame start detection to obtain the frame sequence number in a receiving end, and the frame sequence number is used for recovering a transmission order of the multichannel passive optical network data packet or the data packet segment in the receiving end; characterized in that adding an encapsulation layer outside the multichannel passive optical network data packet to be transmitted, and adding the frame sequence number in the added encapsulation layer; or splitting the multichannel passive optical network data packet to be transmitted into segments, adding an encapsulation layer outside each of the segments, and adding the frame sequence number in the added encapsulation layer.