mhurhangee/ep-ind-claims huggingface dataset:
A storage system for storing thermal energy for use in heating a building, said system comprising - a cavity with a bottom surface, at least one side surface and a top surface, - at least two hoses (71, 72), for transporting a fluid, said at least two hoses (71, 72), being placed inside said cavity and being arranged to be connected to a heating assembly for producing and/or using thermal energy, wherein at least one of which is a storage hose being arranged to transport thermal energy into the system and at least one other being a retrieval hose that is arranged to transport thermal energy from the system, and characterised in that said cavity comprises a stone dust material for covering said at least two hoses, that only one of said top, side and bottom surfaces (14, 13, 12) is equipped with an insulating layer, namely said top surface, said at least two hoses (71, 72) are placed in an essentially two-dimensional spiral pattern in said cavity and at essentially the same distance from the top surface of the cavity. - a cavity with a bottom surface, at least one side surface and a top surface, - at least two hoses (71, 72), for transporting a fluid, said at least two hoses (71, 72), being placed inside said cavity and being arranged to be connected to a heating assembly for producing and/or using thermal energy, wherein at least one of which is a storage hose being arranged to transport thermal energy into the system and at least one other being a retrieval hose that is arranged to transport thermal energy from the system, and
Luminaire comprising a housing, and at least one operating device for operating one or more lamps (2, 3) of the luminaire, wherein the operating device is accommodated within the housing and has a transponder with a first antenna, which transponder is designed to receive signals from a communication device and/or to transmit signals to the communication device, characterized by a second antenna which is mounted on the housing and coupled to the first antenna, which second antenna is designed to receive signals transmitted by the communication device for forwarding to the first antenna by means of the coupling, and/or to transmit to the communication device signals transmitted by the transponder via the first antenna and obtained by means of the coupling, wherein the coupling is a radiation coupling, an inductive coupling, or a capacitive coupling, wherein for the radiation coupling the luminaire has a third antenna connected to the second antenna via a cable, which third antenna is designed to transmit to the first antenna the signals received by the second antenna from the communication device, and/or to receive the signals transmitted by the first antenna; for the inductive coupling the luminaire has a coupling coil which is mounted on the first antenna and connected to the second antenna via a cable; or, for the capacitive coupling, the luminaire has a capacitor (19, 20) which is mounted on the first antenna and is connected to the second antenna via a cable, and the cable is a supply cable for the lamp (2, 3), said supply cable leading out from the operating device. a housing, and at least one operating device for operating one or more lamps (2, 3) of the luminaire, wherein the operating device is accommodated within the housing and has a transponder with a first antenna, which transponder is designed to receive signals from a communication device and/or to transmit signals to the communication device, a second antenna which is mounted on the housing and coupled to the first antenna, which second antenna is designed to receive signals transmitted by the communication device for forwarding to the first antenna by means of the coupling, and/or to transmit to the communication device signals transmitted by the transponder via the first antenna and obtained by means of the coupling, wherein the coupling is a radiation coupling, an inductive coupling, or a capacitive coupling, wherein for the radiation coupling the luminaire has a third antenna connected to the second antenna via a cable, which third antenna is designed to transmit to the first antenna the signals received by the second antenna from the communication device, and/or to receive the signals transmitted by the first antenna; for the inductive coupling the luminaire has a coupling coil which is mounted on the first antenna and connected to the second antenna via a cable; or, for the capacitive coupling, the luminaire has a capacitor (19, 20) which is mounted on the first antenna and is connected to the second antenna via a cable, and the cable is a supply cable for the lamp (2, 3), said supply cable leading out from the operating device.
A recombinant DNA molecule comprising a heterologous promoter operably linked to a nucleic acid sequence encoding a protein that has at least 95% sequence identity to the polypeptide sequence of SEQ ID NO:1 or 11, wherein the protein has herbicide-insensitive protoporphyrinogen oxidase activity, and wherein the heterologous promoter is functional in a plant cell.
A system for continuous high-throughput treatment of a population of cells, comprising: a fluidic device comprising a microfluidic channel having an upstream detection zone comprising a detection electrode module configured to detect a change in electrical impedance across the microfluidic channel at the upstream detection zone corresponding to a cell passing the upstream detection zone and a cell treatment zone located downstream of the upstream detection zone and comprising a cell treatment module configured to treat the cell passing the cell treatment zone; a pump fluidically coupled to the fluidic device and configured to pump the population of cells in a carrier liquid unidirectionally along the microfluidic channel; and a processor operatively coupled to the detection electrode module and configured to calculate the velocity V of the cell passing the upstream detection zone based on the change in electrical impedance, and transiently actuate the cell treatment module when the cell reaches the cell treatment module based on the calculated velocity V of the cell and a distance D1 between the detection electrode module and the cell treatment module. a fluidic device comprising a microfluidic channel having an upstream detection zone comprising a detection electrode module configured to detect a change in electrical impedance across the microfluidic channel at the upstream detection zone corresponding to a cell passing the upstream detection zone and a cell treatment zone located downstream of the upstream detection zone and comprising a cell treatment module configured to treat the cell passing the cell treatment zone; a pump fluidically coupled to the fluidic device and configured to pump the population of cells in a carrier liquid unidirectionally along the microfluidic channel; and a processor operatively coupled to the detection electrode module and configured to calculate the velocity V of the cell passing the upstream detection zone based on the change in electrical impedance, and transiently actuate the cell treatment module when the cell reaches the cell treatment module based on the calculated velocity V of the cell and a distance D1 between the detection electrode module and the cell treatment module.
A medical, in particular dental, handpiece (1, 1') comprising an outer shell, a hollow shaft (3, 3') arranged in the outer shell (2, 2') and inducible to a driving movement for accommodating a treatment tool (4, 4') and a first coil (5, 5') for inductive coupling with a memory unit (7, 7') of the treatment tool (4, 4') comprising a second coil, wherein the hollow shaft (3, 3') extends along a central axis (8, 8') and comprises an axial extent and radial extent relative to the central axis (8, 8'), characterized in that the first coil (5, 5') is arranged within or beyond of the axial extent of the hollow shaft (3, 3') and that at least a portion of the first coil (5, 5') is arranged within the radial extent of the hollow shaft (3, 3').
Atmospheric cloud height, humidity profile, or temperature profile measuring method, in which method a pulsed laser signal from a light source is transmitted through transmission optics (2, 3, 4, 5, 6) to the atmosphere, and the signal reflected or scattered back from there is detected, characterized in that - a semiconductor pulsed laser operating in multimode is used as the light source, and - an interference filter is used in the optics in order to stabilize transmitted optical power of the light source to the centre frequency of the interference filter. - a semiconductor pulsed laser operating in multimode is used as the light source, and - an interference filter is used in the optics in order to stabilize transmitted optical power of the light source to the centre frequency of the interference filter.
A manufacturing method for a thin film article with separable carrier, comprising steps of: a) a first preparation step, preparing a release layer made from a polypropylene material, wherein the thickness of the release layer lies between 0.05 mm and 0.3 mm; b) a second preparation step, preparing a carrier layer made from polyethylene material, wherein the thickness of the carrier layer lies between 0.01 mm and 0.1 mm; c) a lamination step, separably laminating the release layer onto a surface of the carrier layer to obtain a top-bottom laminated separable carrier; characterized in further comprising d) a coating step, coating a low-hardness material onto the other surface of the carrier layer to obtain a thin film substrate with a lamination of the separable carrier, wherein said low-hardness material has a hardness range that lies between Shore hardness 65 Shore D to 55 Shore A; and e) a separating step, separating the release layer on the thin film substrate from the carrier layer to obtain the thin film article. a) a first preparation step, preparing a release layer made from a polypropylene material, wherein the thickness of the release layer lies between 0.05 mm and 0.3 mm; b) a second preparation step, preparing a carrier layer made from polyethylene material, wherein the thickness of the carrier layer lies between 0.01 mm and 0.1 mm; c) a lamination step, separably laminating the release layer onto a surface of the carrier layer to obtain a top-bottom laminated separable carrier; characterized in further comprising d) a coating step, coating a low-hardness material onto the other surface of the carrier layer to obtain a thin film substrate with a lamination of the separable carrier, wherein said low-hardness material has a hardness range that lies between Shore hardness 65 Shore D to 55 Shore A; and e) a separating step, separating the release layer on the thin film substrate from the carrier layer to obtain the thin film article.
A diene iron complex compound characterized by being represented by the following general formula: wherein A represents CO, P(R A) 3, CN, NO, SO(R A) 3, or N(R A) 2; R A represents a straight chain or branched chain alkyl group having 1 to 4 carbon atoms or an aryl group having 6 to 12 carbon atoms; and one of R 1 and R 2 represents a hydrogen atom and the other one thereof represents a structure represented by the following formula: wherein R represents a hydrogen atom, a hydroxyl group, or a methyl group.
A glass-ceramic material containing a solid solution of β -quartz or(and) of β -spodumene as main crystalline phase(s) and essentially free of arsenic and antimony, the composition of which, expressed in percentages by weight of oxides, essentially consists of: SiO 2 50-75; Al 2 O 3 17-27; Li 2 O 2-6; MgO 0-5; ZnO 0-5; TiO 2 0-5; ZrO 2 0-5; BaO 0-3; SrO 0-3; CaO 0-3; Na 2 O 0-3; K 2 O 0-3; P 2 O 5 0-8; B 2 O 3 0-3; SnO 2 0.15-0.3, advantageously 0.15-0.25; CeO 2 and/or MnO 2 0.7-1.5, advantageously 0.8-1.5.
An in vitro method of providing a mixture of fibroblast growth factor-2 (FGF-2) isoforms to a cell culture, the method comprising contacting the cell culture with a preparation from mesenchymal cells, wherein the preparation is selected from one or more of a cell lysate and a soluble cell-free extract, and wherein the mesenchymal cells are (a) fibroblasts, or (b) descendants of mesenchymal stem cells (MSCs) that have been transiently transfected with a vector comprising sequences encoding a Notch intracellular domain (NICD). contacting the cell culture with a preparation from mesenchymal cells, wherein the preparation is selected from one or more of a cell lysate and a soluble cell-free extract, and wherein the mesenchymal cells are (a) fibroblasts, or (b) descendants of mesenchymal stem cells (MSCs) that have been transiently transfected with a vector comprising sequences encoding a Notch intracellular domain (NICD). (a) fibroblasts, or (b) descendants of mesenchymal stem cells (MSCs) that have been transiently transfected with a vector comprising sequences encoding a Notch intracellular domain (NICD).
A composition for use in the treatment of chronic kidney disease, chronic renal vascular disease or end-stage renal disease, the composition comprising: an elastin-like polypeptide coupled to a therapeutic agent, wherein the ELP includes an amino acid sequence having at least 5 repeats of the amino acid sequence GVPGX (SEQ ID NO: 1), wherein the therapeutic agent is VEGF. an elastin-like polypeptide coupled to a therapeutic agent, wherein the ELP includes an amino acid sequence having at least 5 repeats of the amino acid sequence GVPGX (SEQ ID NO: 1), wherein the therapeutic agent is VEGF.
An automated leak detection method using a robotic gas leak detector, the method comprising the steps of: a) moving the probe tip of a probe guided by a robot to a test site to be examined, using a robot; b) recording a measurement signal from gas recorded by the probe tip by means of a gas detector; c) detecting at least one first measurement value of the measurement signal at at least one first measurement time; characterized by the steps of: d) detecting the first measurement time and assigning the first measurement time to the first measurement value; e) detecting and assigning a first measurement position of the probe corresponding to the first measurement time; f) repeating steps a) - e) for at least one subsequent second measurement time; g) correlating the measurement values with each of the measurement positions of the probe in order to be able to use the measurement values to assess at which measurement position an extreme value of the measurement signal, which could indicate a possible leak in the test object, was detected. a) moving the probe tip of a probe guided by a robot to a test site to be examined, using a robot; b) recording a measurement signal from gas recorded by the probe tip by means of a gas detector; c) detecting at least one first measurement value of the measurement signal at at least one first measurement time; d) detecting the first measurement time and assigning the first measurement time to the first measurement value; e) detecting and assigning a first measurement position of the probe corresponding to the first measurement time; f) repeating steps a) - e) for at least one subsequent second measurement time; g) correlating the measurement values with each of the measurement positions of the probe in order to be able to use the measurement values to assess at which measurement position an extreme value of the measurement signal, which could indicate a possible leak in the test object, was detected.
An absorbent sheet (31, 51, 61) for removing a droplet or a liquid film attached to a surface of an object, comprising: a sheet portion (33, 53, 63) in sheet form; a plurality of first cuts provided in the sheet portion; a plurality of second cuts (41, 47) shorter than the first cuts provided in a direction intersecting the first cuts; an edge portion provided near an edge of the sheet portion, in which the first cuts are not provided; and a reed shape portion having a plurality of loose end aggregation portions, the portion which is an area sandwiched between a couple of the first cuts in line segment-like cut in a direction normal toward the edge portion, leaving the edge portion uncut; wherein the plurality of loose end aggregation portions are connected at a plurality of the edge portions which face each other across the reed shape portion; wherein the plurality of the second cuts (41, 47) are provided between the first cuts; and wherein a plurality of loose ends are formed by connection of a plurality of the second cuts (41, 47) with a line segment portion between two edge points of the first cut. a sheet portion (33, 53, 63) in sheet form; a plurality of first cuts provided in the sheet portion; a plurality of second cuts (41, 47) shorter than the first cuts provided in a direction intersecting the first cuts; an edge portion provided near an edge of the sheet portion, in which the first cuts are not provided; and a reed shape portion having a plurality of loose end aggregation portions, the portion which is an area sandwiched between a couple of the first cuts in line segment-like cut in a direction normal toward the edge portion, leaving the edge portion uncut; wherein the plurality of loose end aggregation portions are connected at a plurality of the edge portions which face each other across the reed shape portion; wherein the plurality of the second cuts (41, 47) are provided between the first cuts; and wherein a plurality of loose ends are formed by connection of a plurality of the second cuts (41, 47) with a line segment portion between two edge points of the first cut.
A method of manufacturing a double-side conductive film, wherein the double-side conductive film comprises an intermediate base layer that is a plastic film; and two conductive base layers attached to both sides of the intermediate base layer to have a room temperature peel strength of 1,000 gf/inch (3.86N/cm) or more with respect to the intermediate base layer, the peel strength being measured at a peeling rate of 0.3 m/min and a peeling angle of 180 degrees and according to the method described in the specification. the method comprising forming layers of an uncrosslinked pressure-sensitive adhesive composition on both sides of the intermediate base layer and attaching the conductive base layer before or after the uncrosslinked pressure-sensitive adhesive composition is crosslinked
A pharmaceutically-acceptable salt of 1-methylnicotinamide (1-MNA) for use in the prevention of a cardiovascular disease in a human subject having a high risk of development of a cardiovascular disease, wherein a pharmaceutically acceptable salt of 1-methylnicotinamide (1-MNA) is used in a therapeutically effective amount, and, wherein the cardiovascular disease is selected from the group consisting of coronary heart disease, peripheral artery disease, carotid artery disease, congestive heart failure, stroke, myocardial infarct, angina or a combination thereof, and wherein prior to administering the human subject has a blood or serum C-reactive protein level of less than 10 mg/L, and wherein the human subject is a non-dyslipidemic human subject, and wherein a non-dyslipidemic human subject is a human subject having a normal total blood cholesterol level (≤200 mg/dL), a normal LDL-cholesterol level (≤130 mg/dL), a normal TG level (≤150 mg/dL), or a normal HDL-cholesterol level (≥60 mg/dL), or a combination thereof, and wherein the high risk occurs when the human subject has CRP level between 3 mg/L and 10 mg/L. wherein a pharmaceutically acceptable salt of 1-methylnicotinamide (1-MNA) is used in a therapeutically effective amount, and, wherein the cardiovascular disease is selected from the group consisting of coronary heart disease, peripheral artery disease, carotid artery disease, congestive heart failure, stroke, myocardial infarct, angina or a combination thereof, and wherein prior to administering the human subject has a blood or serum C-reactive protein level of less than 10 mg/L, and wherein the human subject is a non-dyslipidemic human subject, and wherein a non-dyslipidemic human subject is a human subject having a normal total blood cholesterol level (≤200 mg/dL), a normal LDL-cholesterol level (≤130 mg/dL), a normal TG level (≤150 mg/dL), or a normal HDL-cholesterol level (≥60 mg/dL), or a combination thereof, and wherein the high risk occurs when the human subject has CRP level between 3 mg/L and 10 mg/L. and wherein prior to administering the human subject has a blood or serum C-reactive protein level of less than 10 mg/L, and wherein the human subject is a non-dyslipidemic human subject, and wherein a non-dyslipidemic human subject is a human subject having a normal total blood cholesterol level (≤200 mg/dL), a normal LDL-cholesterol level (≤130 mg/dL), a normal TG level (≤150 mg/dL), or a normal HDL-cholesterol level (≥60 mg/dL), or a combination thereof, and wherein the high risk occurs when the human subject has CRP level between 3 mg/L and 10 mg/L.
A motion sensor (100, 200, 400) for a mobile device, the motion sensor comprising: a loudspeaker for outputting an audio signal, the loudspeaker having a loudspeaker input; a further loudspeaker mechanically coupled to the loudspeaker, the further loudspeaker having a further loudspeaker input; a trigger detector having a trigger input coupled to the loudspeaker input, a further trigger input coupled to the further loudspeaker input, and a trigger output; wherein the trigger detector is operable to output a detection signal on the trigger output in response to a mechanically induced signal on the loudspeaker input and the further loudspeaker input in response to a motion source; and the trigger detector further comprises a multi-trigger detector module coupled to the trigger input, the further trigger input and the trigger output; wherein the multi-trigger detector module is operable to compare a signal received on the trigger input with a reference waveform, to compare a signal received on the further trigger input with a further reference waveform, and to output an activation signal on the trigger output if the reference waveform matches a signal received on the trigger input and the further reference waveform matches the signal received on the further trigger input, and the trigger detector is further arranged to determine a delay value from a measurement of the delay between a signal received on the trigger input and a signal received on the further trigger input and to determine a location of the motion source from the delay value. a loudspeaker for outputting an audio signal, the loudspeaker having a loudspeaker input; a further loudspeaker mechanically coupled to the loudspeaker, the further loudspeaker having a further loudspeaker input; a trigger detector having a trigger input coupled to the loudspeaker input, a further trigger input coupled to the further loudspeaker input, and a trigger output; wherein the trigger detector is operable to output a detection signal on the trigger output in response to a mechanically induced signal on the loudspeaker input and the further loudspeaker input in response to a motion source; and the trigger detector further comprises a multi-trigger detector module coupled to the trigger input, the further trigger input and the trigger output; wherein the multi-trigger detector module is operable to compare a signal received on the trigger input with a reference waveform, to compare a signal received on the further trigger input with a further reference waveform, and to output an activation signal on the trigger output if the reference waveform matches a signal received on the trigger input and the further reference waveform matches the signal received on the further trigger input, and the trigger detector is further arranged to determine a delay value from a measurement of the delay between a signal received on the trigger input and a signal received on the further trigger input and to determine a location of the motion source from the delay value.