mhurhangee/ep-ind-claims huggingface dataset:
A construction machine control system, comprising a laser surveying instrument for projecting N-shaped beams in rotary irradiation at constant speed, a construction machine operated within a predetermined range of said N-shaped beams, and an elevation angle detecting unit, wherein said construction machine comprises a machine body frame, a working mechanical unit (12, 15) for carrying out construction operation, at least three beam detectors disposed at known positions respectively with respect to reference position of said construction machine, and a machine communication unit, wherein said laser surveying instrument comprises an N-shaped beam projecting unit for projecting said N-shaped beams having three fan beams in rotary irradiation, a surveying control device, a horizontal angle detecting unit and a surveying communication unit, characterized in that said construction machine control system further comprises a running device installed at each of four corners of said machine body frame via a leg unit expansible and contractible, a machine control device for controlling said leg unit, said running device, and said working mechanical unit (12, 15), wherein said beam detectors have a communication unit for each detector, said beam detectors detect said N-shaped beams and output photodetection signals, and said communication units are configured to add identification signals corresponding to said beam detectors to said photodetection signals, and to transmit said photodetection signals to a laser surveying instrument and/or said machine control device, wherein said elevation angle detecting unit is provided on either one of said beam detectors, said machine control device or said laser surveying instrument, and is configured to obtain elevation angles of each of said beam detectors with respect to said laser surveying instrument based on said photodetection signals of said N-shaped beams and said identification signals from said beam detectors, wherein said horizontal angle detecting unit is configured to obtain horizontal angles of each of said beam detectors with respect to said laser surveying instrument based on said photodetection signals of said N-shaped beams and identification signals from said beam detectors and said surveying communication unit is configured to transmit the horizontal angle to said machine control device, wherein said machine control device is configured to control said leg unit and to control tilting of said working mechanical unit (12, 15) based on each of the elevation angle obtained, and wherein said machine control device is configured to control said running device and to control the advancing direction based on each of the horizontal angle and the identification signals obtained by said machine control device as obtained.
A system for determining the radiation pattern of an antenna array comprising a plurality of antenna elements (2, 3) based on a provided static RF test signal, the system comprising: a number of probes (103, 104) for measuring a magnitude of the signals emitted by the antenna elements (2, 3) when driven with the test signal in a first surface and in a second surface or for radiating the test signal to the antenna elements (2, 3) from the first surface and the second surface, wherein with the probes (103, 104) radiating the test signal the antenna elements (2, 3) receive the signal emitted by the probes (2, 3) and provide respective measured magnitudes, wherein a first distance of the first surface to the antenna elements (2, 3) is smaller than a second distance of the second surface to the antenna elements (2, 3), and a pattern calculation unit for calculating the radiation pattern of the antenna array based on the measured magnitudes, wherein the second distance is greater than two times Δd, wherein Δd is the smallest distance of the single antenna elements (2, 3) in the antenna array, characterized in that the first distance is between Δd and two times Δd. a number of probes (103, 104) for measuring a magnitude of the signals emitted by the antenna elements (2, 3) when driven with the test signal in a first surface and in a second surface or for radiating the test signal to the antenna elements (2, 3) from the first surface and the second surface, wherein with the probes (103, 104) radiating the test signal the antenna elements (2, 3) receive the signal emitted by the probes (2, 3) and provide respective measured magnitudes, wherein a first distance of the first surface to the antenna elements (2, 3) is smaller than a second distance of the second surface to the antenna elements (2, 3), and a pattern calculation unit for calculating the radiation pattern of the antenna array based on the measured magnitudes, wherein the second distance is greater than two times Δd, wherein Δd is the smallest distance of the single antenna elements (2, 3) in the antenna array, characterized in that the first distance is between Δd and two times Δd.
A connecting apparatus comprising: a first connection for a vacuum device, in particular a vacuum pump or an accessory unit for a vacuum pump; a plurality of second connections (32, 33) for a respective operating apparatus (40, 45) for the vacuum device; a communication control unit configured to: - receive a first operating message from a first operating apparatus; - forward the first operating message (50, 52) to the vacuum device; - receive a second operating message from a second operating apparatus after the first operating message was received; characterised in that the communication control unit is further configured to - receive an answer to the first communication operation message (50, 52) from the vacuum device; and - forward the second operation message to the vacuum device after the answer has been received. a first connection for a vacuum device, in particular a vacuum pump or an accessory unit for a vacuum pump; a plurality of second connections (32, 33) for a respective operating apparatus (40, 45) for the vacuum device; a communication control unit configured to: - receive a first operating message from a first operating apparatus; - forward the first operating message (50, 52) to the vacuum device; - receive a second operating message from a second operating apparatus after the first operating message was received; - receive a first operating message from a first operating apparatus; - forward the first operating message (50, 52) to the vacuum device; - receive a second operating message from a second operating apparatus after the first operating message was received; characterised in that the communication control unit is further configured to - receive an answer to the first communication operation message (50, 52) from the vacuum device; and - forward the second operation message to the vacuum device after the answer has been received. - receive an answer to the first communication operation message (50, 52) from the vacuum device; and - forward the second operation message to the vacuum device after the answer has been received.
A controlled release pharmaceutical composition, comprising a core, comprising a pharmaceutical active ingredient, whereby the core is coated by an ethanol resistance conferring coating layer which has the effect of conferring the release profile of the pharmaceutical active ingredient to be resistant against the influence of ethanol under in-vitro conditions at pH 1.2 and/or at pH 6.8 in a buffered medium according to USP with the addition of 40 % (v/v) ethanol, whereby resistant against the influence of ethanol means that the release profile is not accelerated by more than 20 % and not delayed by more than 20 % under the influence of the 40 % ethanol containing medium in comparison to a release profile determined in the same medium without ethanol, whereby the ethanol resistance conferring coating layer comprises at least 70 % by weight of a mixture of a polymeric portion a) and an excipients portion b), where the polymeric portion a) is consisting of a water insoluble, essentially neutral vinyl polymer or copolymer and the excipients portion b) is consisting of the excipients b1) 100 to 250 % by weight of a non-porous inert lubricant, b2) 1 to 35 % by weight of a cellulosic compound, b3) 0.1 to 25 % by weight of an emulsifier and additionally or alternatively to b3), b4) 0.1 to 30 % by weight of a plasticizer whereby the excipients of the excipients portion b) are each calculated on the dry weight of the polymer portion a). b1) 100 to 250 % by weight of a non-porous inert lubricant, b2) 1 to 35 % by weight of a cellulosic compound, b3) 0.1 to 25 % by weight of an emulsifier and additionally or alternatively to b3), b4) 0.1 to 30 % by weight of a plasticizer
An underwater turbine yaw brake (3, 103, 203, 303) to restrict or prevent yawing of a nacelle of the underwater turbine about a substantially vertical axis, the brake (3, 103, 203) comprising a plurality of overlapping brake fins (35,37, 135,137, 235,237) and at least one piston (51,53, 151, 251a, 251b), wherein at least one of the brake fins (35,37, 135,137, 235,237) is connected to a fixed portion (63, 363) of the underwater turbine and at least one other of the brake fins (35,37, 135,137, 235,237) is connected to a rotating portion (61, 361) of the underwater turbine, wherein the at least one piston (51,53, 151, 251a, 251b) is moveable between a first position in which the overlapping brake fins (35,37, 135,137, 235,237) are urged against one another to restrict or prevent movement of the rotating portion (61, 361) of the underwater turbine, and a second position in which the rotating portion (61, 361) can move relative to the fixed portion (63, 363), characterised in that the brake fins (35,37, 135,137, 235,237) comprise annular discs.
A double pipe heat exchanger comprising: an outer pipe, an inner pipe configured to form a first fluid passage internally and a second fluid passage between the inner pipe and the outer pipe by inserting into the outer pipe, a first connecting pipe and a second connecting pipe configured to pass a fluid from the outside and exhaust the fluid by connecting to both ends of the outer pipe, and a connector configured to connect the inner pipe and each connecting pipe and to the outer pipe; the center line of the inner pipe connected to the connector being disposed at an upper side of the inner circumference surface of the outer pipe; wherein the connector comprises an expanding part formed by expanding both ends of the outer pipe; characterized in that the connector further comprises a reducing part configured to assemble the inner pipe inserted in the outer pipe with an end of each connecting pipe and by forming at an end of each expanding part with a pressing process. an outer pipe, an inner pipe configured to form a first fluid passage internally and a second fluid passage between the inner pipe and the outer pipe by inserting into the outer pipe, a first connecting pipe and a second connecting pipe configured to pass a fluid from the outside and exhaust the fluid by connecting to both ends of the outer pipe, and a connector configured to connect the inner pipe and each connecting pipe and to the outer pipe; the center line of the inner pipe connected to the connector being disposed at an upper side of the inner circumference surface of the outer pipe; wherein the connector comprises an expanding part formed by expanding both ends of the outer pipe; characterized in that the connector further comprises a reducing part configured to assemble the inner pipe inserted in the outer pipe with an end of each connecting pipe and by forming at an end of each expanding part with a pressing process.
A method for isolation, enrichment, and co-culture of a foetal polymix, said method comprising: isolating mesenchymal stem cells from three different sources selected from an amniotic membrane, a chorion, and an umbilical cord; enriching the stem cells including re-suspending isolated mesenchymal stem cells in Dulbecco's Modified Eagle's Medium (DMEM) for culturing, seeding isolated mesenchymal stem cells from DMEM, and incubating the seeded isolated mesenchymal stem cells until said seeded isolated mesenchymal stem cells reach 70-80% confluence; co-culturing the cells so obtained from the two or more sources in a medium under hypoxic conditions; and providing said mesenchymal stem cells as an injectable composition. isolating mesenchymal stem cells from three different sources selected from an amniotic membrane, a chorion, and an umbilical cord; enriching the stem cells including re-suspending isolated mesenchymal stem cells in Dulbecco's Modified Eagle's Medium (DMEM) for culturing, seeding isolated mesenchymal stem cells from DMEM, and incubating the seeded isolated mesenchymal stem cells until said seeded isolated mesenchymal stem cells reach 70-80% confluence; co-culturing the cells so obtained from the two or more sources in a medium under hypoxic conditions; and providing said mesenchymal stem cells as an injectable composition.
Transpired solar collector comprising an absorber plate provided with multiple perforations and a back plate, wherein the absorber plate and the back plate define a collector space, wherein outside air enters the collector space through the perforations and wherein the collector space is provided with at least one air outlet, characterised in that both the absorber plate and back plate are profiled, wherein the profile comprises one or more troughs (6, 8) and ridges (7, 9) and wherein the longitudinal direction of the troughs (6, 8) and ridges (7, 9) of both the absorber plate and back plate is at an angle to the general direction of the air flow in the collector space and wherein the longitudinal direction of the troughs (6, 8) and ridges (7, 9) of the absorber plate and the back plate run parallel to each other.
An isolated codon-optimized nucleic acid molecule encoding a reduced-size P-type ATPase copper-transporting ATPase 1 (ATP7A) protein comprising the nucleic acid sequence of SEQ ID NO: 1, optionally wherein the codon optimized nucleic acid molecule encodes an ATP7A protein comprising the amino acid sequence of SEQ ID NO: 2.
A cover for a microscope slide including: a body defining a cavity, the cavity being positionable over the microscope slide to form a reaction chamber; the cover being configured to be supported upon the microscope slide by wall portions located at the edge of the cover, the wall portions surrounding the cavity on two or more sides; and a projection extending from the body, the projection being configured to define a fluid reservoir between an underside of the projection and legs located on either side of the cover when the cover is fitted to the microscope slide, the fluid reservoir being in fluid communication with the cavity; wherein a nib extends from the projection, to assist in wicking fluid into the reservoir; and a locating means configured to control and move the cover along the microscope slide to facilitate movement of fluid from the fluid reservoir into the cavity, the locating means being arranged at an end of the cover opposite the projection. a body defining a cavity, the cavity being positionable over the microscope slide to form a reaction chamber; the cover being configured to be supported upon the microscope slide by wall portions located at the edge of the cover, the wall portions surrounding the cavity on two or more sides; and a projection extending from the body, the projection being configured to define a fluid reservoir between an underside of the projection and legs located on either side of the cover when the cover is fitted to the microscope slide, the fluid reservoir being in fluid communication with the cavity; wherein a nib extends from the projection, to assist in wicking fluid into the reservoir; and a locating means configured to control and move the cover along the microscope slide to facilitate movement of fluid from the fluid reservoir into the cavity, the locating means being arranged at an end of the cover opposite the projection.
Nanocomposite materials comprising a polymeric matrix consisting of cationic polysaccharides selected from branched derivatives of chitosan, wherein the D-glucosamine units forming the chitosan linear chain bind, by means of the functional group -NH- on carbon atom C2, the alditolic or aldonic polyols residues, equal or different from each other, represented by the general formula: wherein: - R is -CH 2 - or -CO-; - R 1 is hydrogen, a monosaccharide, an oligosaccharide; - R 2 is -OH or -NHCOCH 3 and metallic nanoparticles formed on the polysaccharide matrix by reduction of the corresponding salts of said metals and homogeneously dispersed and stabilized in said polymeric matrix. - R is -CH 2 - or -CO-; - R 1 is hydrogen, a monosaccharide, an oligosaccharide; - R 2 is -OH or -NHCOCH 3
Safety device for a vehicle door handle, the device comprising: - an activation element configured to activate a latch by rotating around an activation axis from a rest position to an activation position, the activation element comprising at least one activation protuberance, - a blocking element comprising first and second blocking protuberances (32, 33) and being configured to rotate around a blocking axis between a disengaged position in which the blocking element allows the activation element to rotate around the activation axis from a rest position to an activation position, a first blocking position in which the first blocking protuberance interacts with the activation protuberance so as to block the activation element in a first intermediate position disposed between the rest and activation positions of the activation element, and a second blocking position in which the second blocking protuberance interacts with the activation protuberance so as to block the activation element in an intermediate position disposed between the rest and activation positions of the activation element, and, wherein in case of a crash, the blocking element rotates around the blocking axis from the disengaged position to the first or the second blocking position depending on the rotation made by the activation element, and wherein the first and second blocking protuberances (32, 33) define a recess for receiving the activation protuberance when the said activation protuberance is blocked by the second blocking protuberance. - an activation element configured to activate a latch by rotating around an activation axis from a rest position to an activation position, the activation element comprising at least one activation protuberance, - a blocking element comprising first and second blocking protuberances (32, 33) and being configured to rotate around a blocking axis between
A method of thermally processing a vinyl chloride-based resin composition by powder molding, wherein the vinyl chloride-based resin composition comprises, with respect to 100 parts by mass of a vinyl chloride-based resin, (a) 0.001 to 10 parts by mass of at least one hindered amine compound and (b) 0.001 to 10 parts by mass of at least one selected from the group consisting of metal perchlorates, ammonium perchlorates, perchloric acid-treated hydrotalcites and perchloric acid-treated silicates, said hindered amine compound being represented by the following Formula: (wherein, R represents a C 1 -C 30 alkyl group or hydroxyalkyl group, or a C 2 -C 30 alkenyl group; n represents an integer of 1 to 6; when n = 1, R 1 represents a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group or a group represented by the following Formula: (wherein, R represents the same C 1 -C 30 alkyl group or hydroxyalkyl group or C 2 -C 30 alkenyl group as said R); and when n = 2 to 6, R 1 represents a n-valent C 2 -C 20 organic group) or by the following Formula: (wherein, R represents a C 1 -C 30 alkyl group or hydroxyalkyl group, or a C 2 -C 30 alkenyl group; R 2 represents a hydrogen atom, a C 1 -C 22 alkyl group or a C 2 -C 22 alkenyl group; A represents a single bond, a linear or branched C 1 -C 12 alkylene group or an alkylene group having an ether bond; n represents an integer of 2 to 6; and X represents -C(=O)-, a linear or branched C 4 -C 40 alkylene group having - C(=O)O- at terminal, a linear or branched C 4 -C 40 alkylene group having -C(=O)O- at terminal and an ether bond in an intermediate position, a linear or branched C 4 -C 40 alkylene group having a carbonate bond or a C 6 -C 30 organic group having -O-C(=O)-in the number of 3 to 6 at terminal).
An X-ray small angle optical system, comprising: an X-ray source having a microfocus; a multilayer mirror having an elliptical reflection surface, and being configured to collect X-rays emitted from the X-ray source and to irradiate a sample; and an X-ray detector configured to detect scattered X-rays generated from the sample, wherein the elliptical reflection surface of the multilayer mirror has a focal point A and a focal point B, wherein the X-ray source is arranged such that the microfocus includes the focal point A, wherein the X-ray detector is arranged on the multilayer mirror side with respect to the focal point B, and wherein the multilayer mirror has a mosaicity such that a pseudo-parallel beam region for the sample to be placed therein, where a width of a light flux of the X-ray changes gently, is formed between the multilayer mirror and the focal point B. an X-ray source having a microfocus; a multilayer mirror having an elliptical reflection surface, and being configured to collect X-rays emitted from the X-ray source and to irradiate a sample; and an X-ray detector configured to detect scattered X-rays generated from the sample, wherein the elliptical reflection surface of the multilayer mirror has a focal point A and a focal point B, wherein the X-ray source is arranged such that the microfocus includes the focal point A, wherein the X-ray detector is arranged on the multilayer mirror side with respect to the focal point B, and wherein the multilayer mirror has a mosaicity such that a pseudo-parallel beam region for the sample to be placed therein, where a width of a light flux of the X-ray changes gently, is formed between the multilayer mirror and the focal point B.
A fuel bundle for a liquid metal cooled reactor, comprising: a channel; a nose assembly secured to a lower end of the channel; a plurality of fuel rods disposed within the channel, at least one of the fuel rods having at least one guard ring surrounding the fuel rod and spacing the fuel rod from adjacent fuel rods; wherein the plurality of fuel rods include a first set of fuel rods and a second set of fuel rods, each of the fuel rods in the first set of fuel rods has a first pattern of one or more guard rings longitudinally arranged thereon, each of the fuel rods in the second set of fuel rods has a second pattern of one or more guard rings longitudinally arranged thereon, the first pattern being different than the second pattern; characterized in that: at least one fuel rod of the plurality of fuel rods does not have a guard ring. a channel; a nose assembly secured to a lower end of the channel; a plurality of fuel rods disposed within the channel, at least one of the fuel rods having at least one guard ring surrounding the fuel rod and spacing the fuel rod from adjacent fuel rods; wherein the plurality of fuel rods include a first set of fuel rods and a second set of fuel rods, each of the fuel rods in the first set of fuel rods has a first pattern of one or more guard rings longitudinally arranged thereon, each of the fuel rods in the second set of fuel rods has a second pattern of one or more guard rings longitudinally arranged thereon, the first pattern being different than the second pattern; at least one fuel rod of the plurality of fuel rods does not have a guard ring.