mhurhangee/ep-ind-claims huggingface dataset:
A wave absorbing material comprising: a main composition comprising at least one of Fe 2 O 3, MnO, ZnO and MgO; an auxiliary composition comprising at least CeO 2 and P 2 O 5; and a sintering additive, characterized in that a molar ratio of CeO 2 to P 2 O 5 is 1: 1 to 2: 1, and that based on the total molar amount of the wave absorbing material, the content of the Fe 2 O 3 is 40 mol% to 54 mol%, the content of the MnO is 12 mol% to 20 mol%, the content of the ZnO is 22 mol% to 25 mol%, the content of the MgO is 5 mol% to 10 mol%, the content of the CeO 2 is 0.1 mol% to 3.5 mol%, the content of the P 2 O 5 is 0.1 mol% to 2.5 mol%, and the content of the sintering additive is 0.2 mol% to 3.5 mol%. a main composition comprising at least one of Fe 2 O 3, MnO, ZnO and MgO; an auxiliary composition comprising at least CeO 2 and P 2 O 5; and a sintering additive, characterized in that a molar ratio of CeO 2 to P 2 O 5 is 1: 1 to 2: 1, and that based on the total molar amount of the wave absorbing material, the content of the Fe 2 O 3 is 40 mol% to 54 mol%, the content of the MnO is 12 mol% to 20 mol%, the content of the ZnO is 22 mol% to 25 mol%, the content of the MgO is 5 mol% to 10 mol%, the content of the CeO 2 is 0.1 mol% to 3.5 mol%, the content of the P 2 O 5 is 0.1 mol% to 2.5 mol%, and the content of the sintering additive is 0.2 mol% to 3.5 mol%.
A piston for an internal combustion engine with a piston head, with a top land, with a peripheral ring belt that has annular grooves, and with a piston skirt that has two skirt walls (16, 17) arranged on the major thrust face and the minor thrust face and two box walls (18, 19) connecting the skirt walls (16, 17) together, the box walls (18, 19) being provided with piston pin bosses having piston pin holes, and the skirt wall arranged on the major thrust face being shorter, when viewed in the peripheral direction of the piston, than the skirt wall arranged on the minor thrust face and the box walls on the major thrust face running in a straight, sloping line, the separation of the box walls in the area of the piston pin bosses being greater than in the area of the skirt wall on the major thrust face, characterized in that the thickness of the box walls (18, 19) decreases starting from their free edges facing away from the piston head, in the direction toward the piston head.
A method of determining a load applied by a jack, comprising: providing the jack having at least one strain gauge positioned such that a corresponding at least one strain experienced by the jack is related to a load applied by the jack in accordance with a load-strain relationship; applying a load with the jack; measuring the corresponding at least one strain from the at least one strain gauge; and determining the load applied by the jack based on the load-strain relationship, wherein the jack comprises a piston, a cylinder for receiving the piston, and a fluid positioned between a top surface of the piston and a bottom surface of a top of the cylinder, wherein pressurizing the fluid creates a first force on the piston and a second force on the cylinder tending to separate the piston and the cylinder, and wherein the at least one strain gauge is incorporated with the piston of the jack, wherein the at least one strain is at least one strain experienced by the piston, wherein the piston comprises in this order, a top plate, a hollow body and a bottom plate, wherein one end of one of the at least one strain gauge is attached to the top plate and the other end of the at least one strain gauge is attached to the bottom plate of the piston. providing the jack having at least one strain gauge positioned such that a corresponding at least one strain experienced by the jack is related to a load applied by the jack in accordance with a load-strain relationship; applying a load with the jack; measuring the corresponding at least one strain from the at least one strain gauge; and determining the load applied by the jack based on the load-strain relationship, wherein the jack comprises a piston, a cylinder for receiving the piston, and a fluid positioned between a top surface of the piston and a bottom surface of a top of the cylinder, wherein pressurizing the fluid creates a first force on the piston and a second force on the cylinder tending to separate the piston and the cylinder, and wherein the at least one strain gauge is incorporated with the piston of the jack, wherein the at least one strain is at least one strain experienced by the piston, wherein the piston comprises in this order, a top plate, a hollow body and a bottom plate, wherein one end of one of the at least one strain gauge is attached to the top plate and the other end of the at least one strain gauge is attached to the bottom plate of the piston.
Chassis component, with at least two tie-up points (2, 3), a structural part which extends between the tie-up points (2, 3) and connects these rigidly to one another and which comprises at least one insert made from a ductile material and at least two tie-up regions (6, 7) which carry or form the tie-up points (2, 3) and at least one of which consists of plastic, characterized in that the structural part comprises at least one intermediate region which connects the tie-up regions (6, 7) firmly to one another and has the insert or is formed by the latter and which is designed to be more ductile than at least one of the tie-up regions (6, 7) and forms a locally limited weak point in respect of a mechanical overloading of the structural part.
A filter connector that includes a plurality of elongated contacts, a plurality of ferrite beads each extending around one of said contacts with each bead having front and rear ends (42, 44), and first and second pluralities of capacitors that each has a signal terminal and a grounded ground terminal, the signal terminal of each of said first capacitors being connected to one of said contacts at a first location that lies forward of the front end of the corresponding bead and the signal terminal of each of said second capacitors being connected to one of said contacts at a second location that is rearward of the rear end of the corresponding bead, characterized in that said filter connector includes third and fourth pluralities of capacitors (53, 54) that each have grounded terminals, said third capacitors each having a signal terminal connected to one of said contacts at a third location that lies forward of the front end of the corresponding bead, and that is spaced a distance A from the corresponding first location; said fourth capacitors each having a signal terminal connected to one of said contacts at a fourth location that lies rearward of the rear end of the corresponding bead end that is spaced a distance B from the corresponding second location.
A distribution method of spectrum resources for an optical transport network, characterized by comprising: advertising partition information about wavelength ranges or spectrum blocks by adding the partition information in a sub-type/length/value, sub-TLV, of a routing protocol, wherein the partition information indicates a bit rate and/or a modulation format matching optical paths to which a partitioned continuous wavelength range or a spectrum block is applicable; wherein, the partition information comprises interface addresses assigned for the continuous wavelength ranges or spectrum blocks, wherein the interface addresses correspond to the bit rate matching the optical paths, or correspond to the modulation format matching with the optical paths, or correspond to the bit rate and the modulation format that match with the optical paths. advertising partition information about wavelength ranges or spectrum blocks by adding the partition information in a sub-type/length/value, sub-TLV, of a routing protocol, wherein the partition information indicates a bit rate and/or a modulation format matching optical paths to which a partitioned continuous wavelength range or a spectrum block is applicable; wherein, the partition information comprises interface addresses assigned for the continuous wavelength ranges or spectrum blocks, wherein the interface addresses correspond to the bit rate matching the optical paths, or correspond to the modulation format matching with the optical paths, or correspond to the bit rate and the modulation format that match with the optical paths.
A probe assembly for inserting an industry standard size sensor of about 12mm diameter x 225mm length into a flexible or semi-rigid vessel or tubing, the assembly comprising: a distal aseptic connector for coupling to the vessel or tubing, a probe sheath comprising at least a portion that is rigid, the probe sheath extending longitudinally from the aseptic connector and having at least one inner longitudinal lumen configured to receive an elongate probe body and to permit longitudinal movement of the probe body within the probe sheath lumen, and an actuator for deploying a probe sensor within the vessel by advancing the probe body through the aseptic connector to a position where the probe sensor can measure at least one parameter within the vessel or tubing, wherein the probe sheath comprises at least two concentric rigid sheath elements and the actuator moves the probe body longitudinally within the sheath by telescoping one sheath element within another sheath element, and wherein the distal aseptic connector is further adapted to couple to a mating aseptic connector associated with the vessel or tubing, further characterised in that: the probe sheath has a barbed tube fitting at a first end which is used to connect the probe sheath to the distal aseptic connector, and wherein a second end of the probe sheath provides an opening into which the elongate probe body and a plunger is inserted. a distal aseptic connector for coupling to the vessel or tubing, a probe sheath comprising at least a portion that is rigid, the probe sheath extending longitudinally from the aseptic connector and having at least one inner longitudinal lumen configured to receive an elongate probe body and to permit longitudinal movement of the probe body within the probe sheath lumen, and an actuator for deploying a probe sensor within the vessel by advancing the probe body through the aseptic connector to a position where the probe sensor can measure at least one parameter within the vessel or tubing, wherein the probe sheath comprises at least two concentric rigid sheath elements and the actuator moves the probe body longitudinally within the sheath by telescoping one sheath element within another sheath element, and wherein the distal aseptic connector is further adapted to couple to a mating aseptic connector associated with the vessel or tubing, further characterised in that: the probe sheath has a barbed tube fitting at a first end which is used to connect the probe sheath to the distal aseptic connector, and wherein a second end of the probe sheath provides an opening into which the elongate probe body and a plunger is inserted.
A device for non-invasive evaluation of the functional stability of the trunk comprising: - a sensory module, wherein the sensory module comprises: ∘ an inflatable cuff to be placed around a subject's waist, ∘ at least one electrode mounted on the said cuff for measuring muscle activity of the lumbar and abdominal muscles, ∘ at least one pressure sensor for measuring pressure inside the cuff corresponding to the subject's intra-abdominal pressure, - an analysis module, and a central receiver unit for receiving and transmitting signals from said electrodes and said pressure sensor to the analysis module, characterized in that - the device further comprises a mechanical perturbation module, - wherein the sensory module is synchronized with the mechanical perturbation module, and - wherein the electrodes and the sensor are configured to measure muscle activity and pressure, respectively, upon controlled application of perturbations of the subject's trunk caused by the perturbation module. - a sensory module, wherein the sensory module comprises: ∘ an inflatable cuff to be placed around a subject's waist, ∘ at least one electrode mounted on the said cuff for measuring muscle activity of the lumbar and abdominal muscles, ∘ at least one pressure sensor for measuring pressure inside the cuff corresponding to the subject's intra-abdominal pressure, - an analysis module, and a central receiver unit for receiving and transmitting signals from said electrodes and said pressure sensor to the analysis module, characterized in that ∘ an inflatable cuff to be placed around a subject's waist, ∘ at least one electrode mounted on the said cuff for measuring muscle activity of the lumbar and abdominal muscles, ∘ at least one pressure sensor for measuring pressure inside the cuff corresponding to the subject's intra-abdominal pressure, - an analysis module, and a central receiver unit for receiving and transmitting signals from said electrodes and said pressure sensor to the analysis module, characterized in that - an analysis module, and a central receiver unit for receiving and transmitting signals from said electrodes and said pressure sensor to the analysis module, characterized in that - the device further comprises a mechanical perturbation module, - wherein the sensory module is synchronized with the mechanical perturbation module, and - wherein the electrodes and the sensor are configured to measure muscle activity and pressure, respectively, upon controlled application of perturbations of the subject's trunk caused by the perturbation module.
A platform of a logistics system that is configured to be transferred onto the loading area of a vehicle in a haulage direction and/or to be received from the loading area of a vehicle in a haulage direction, wherein the platform essentially has dimensions which are adapted to the loading area of the vehicle, wherein the platform has at least one first platform element and one second platform element, which can be locked to one another, but can also be released from one another, characterized in that the first platform element has a locking element and the second platform element has a locking holder, provided opposite the locking element, such that the locking holder of the second platform element can latch into the locking element of the first platform element, wherein the first platform element has a recess which a protrusion of the second platform element can engage by way of a pivoting movement about a horizontal axis perpendicularly to the haulage direction.
Endodontic instrument notably for reaming a root canal of a tooth of a patient, the instrument comprising a working length having a working section, the working length being terminated by a distal portion having a dual guiding and cutting function; the distal portion comprising a rounded guide head and an angular cutting segment between the guide head and the working length; characterized in that the angular cutting segment comprises a distal zone adjacent to the guide head and a proximal zone between the distal zone and the working length; the angular cutting segment further comprising cutting edges that extend over the entire length of the proximal zone and the distal zone; the distal zone comprising a distal section of constant geometry and the proximal zone comprising a proximal section, the geometry of which varies between the distal section and the working section. the distal portion comprising a rounded guide head and an angular cutting segment between the guide head and the working length; characterized in that the angular cutting segment comprises a distal zone adjacent to the guide head and a proximal zone between the distal zone and the working length; the angular cutting segment further comprising cutting edges that extend over the entire length of the proximal zone and the distal zone; the distal zone comprising a distal section of constant geometry and the proximal zone comprising a proximal section, the geometry of which varies between the distal section and the working section.
Method for producing an LED module, wherein the method comprises: - fastening conductor surfaces with a self-adhesive layer on a carrier element, wherein the fastening of the conductor surfaces is carried out by an SMD placement machine and the fastening of the conductor surfaces comprises applying the self-adhesive layer to the conductor surfaces and then fastening the conductor surface with the self-adhesive layer to the carrier element, and - fastening an LED on the conductor surfaces. - fastening conductor surfaces with a self-adhesive layer on a carrier element, wherein the fastening of the conductor surfaces is carried out by an SMD placement machine and the fastening of the conductor surfaces comprises applying the self-adhesive layer to the conductor surfaces and then fastening the conductor surface with the self-adhesive layer to the carrier element, and - fastening an LED on the conductor surfaces.
A mercury vapor discharge fluorescent lamp, comprising: a lamp envelope enclosing a discharge space and having an inner surface; an ionizable medium within said lamp envelope comprising mercury and an inert gas; and a phosphor layer comprising a phosphor blend disposed on said inner surface, said phosphor blend comprising: a calcium halophosphor, a blue phosphor having an emission peak at 440 nm to 490 nm, a blue-green phosphor having an emission peak at 475 nm to 530 nm, and a red phosphor having an emission peak at 600 nm to 650 nm, wherein the phosphor blend is free from other phosphors. a lamp envelope enclosing a discharge space and having an inner surface; an ionizable medium within said lamp envelope comprising mercury and an inert gas; and a phosphor layer comprising a phosphor blend disposed on said inner surface, said phosphor blend comprising: a calcium halophosphor, a blue phosphor having an emission peak at 440 nm to 490 nm, a blue-green phosphor having an emission peak at 475 nm to 530 nm, and a red phosphor having an emission peak at 600 nm to 650 nm, wherein the phosphor blend is free from other phosphors.
A siRNA, comprising a sense strand and an antisense strand, each nucleotide in the siRNA being independently a modified or unmodified nucleotide, wherein the sense strand comprises a nucleotide sequence I, and the antisense strand comprises a nucleotide sequence II; the nucleotide sequence I and the nucleotide sequence II are at least partly reverse complementary to form a double stranded region; wherein the nucleotide sequence I comprises a nucleotide sequence A, which has the same length as the nucleotide sequence shown in SEQ ID NO: 1 with no more than 1 nucleotide differences; and the nucleotide sequence II comprises a nucleotide sequence B, which has the same length as the nucleotide sequence shown in SEQ ID NO: 2 with no more than 1 nucleotide differences: 5'-UGCUAUGCCUCAUCUUCUZ-3' (SEQ ID NO: 1); 5'-Z'AGAAGAUGAGGCAUAGCA-3' (SEQ ID NO: 2); wherein, Z is A; Z' is U; and the nucleotide sequence A comprises a nucleotide Z A at the position corresponding to Z; the nucleotide sequence B comprises a nucleotide Z' B at the position corresponding to Z'; the nucleotide Z' B is the first nucleotide at 5' terminal of the antisense strand, wherein each nucleotide in the sense strand and the antisense strand is independently a fluoro modified nucleotide or a non-fluoro modified nucleotide, the fluoro modified nucleotides are in the nucleotide sequences A and B; and in the direction from 5' terminal to 3' terminal, the nucleotides at positions 7, 8 and 9 of the nucleotide sequence A are fluoro modified nucleotides; and in the direction from 5' terminal to 3' terminal, the nucleotides at positions 2, 6, 14 and 16 of the nucleotide sequence B are fluoro modified nucleotides. 5'-UGCUAUGCCUCAUCUUCUZ-3' (SEQ ID NO: 1); 5'-Z'AGAAGAUGAGGCAUAGCA-3' (SEQ ID NO: 2); Z is A; Z' is U; and the nucleotide sequence A comprises a nucleotide Z A at the position corresponding to Z; the nucleotide sequence B comprises a nucleotide Z' B at the position corresponding to Z'; the nucleotide Z' B is the first nucleotide at 5' terminal of the antisense strand, wherein each nucleotide in the sense strand and the antisense strand is independently a fluoro modified nucleotide or a non-fluoro modified nucleotide, the fluoro modified nucleotides are in the nucleotide sequences A and B; and in the direction from 5' terminal to 3' terminal, the nucleotides at positions 7, 8 and 9 of the nucleotide sequence A are fluoro modified nucleotides; and in the direction from 5' terminal to 3' terminal, the nucleotides at positions 2, 6, 14 and 16 of the nucleotide sequence B are fluoro modified nucleotides.
A process for producing an isocyanate, comprising the steps of: obtaining a reaction mixture containing an aryl carbamate having an aryl group originating from a diaryl carbonate, an aromatic hydroxy compound originating from a diaryl carbonate, and a diaryl carbonate, by reacting the diaryl carbonate and an amine compound in a reaction vessel in which a reaction between the diaryl carbonate and the amine compound is carried out; transferring the reaction mixture to a thermal decomposition reaction vessel connected by a line with the reaction vessel in which the reaction between the diaryl carbonate and the amine compound is carried out, wherein the reaction mixture is supplied to the thermal decomposition vessel without having to carry out a distillative separation procedure; and obtaining the isocyanate by applying the aryl carbamate to a thermal decomposition reaction, wherein the amine compound is a polyamine compound wherein the diaryl carbonate is a compound represented by the following formula: wherein R 1 represents an aromatic group having 6 to 20 carbon atoms, wherein the diaryl carbonate comprises an iron atom at from 0.001 ppm to 10%. obtaining a reaction mixture containing an aryl carbamate having an aryl group originating from a diaryl carbonate, an aromatic hydroxy compound originating from a diaryl carbonate, and a diaryl carbonate, by reacting the diaryl carbonate and an amine compound in a reaction vessel in which a reaction between the diaryl carbonate and the amine compound is carried out; transferring the reaction mixture to a thermal decomposition reaction vessel connected by a line with the reaction vessel in which the reaction between the diaryl carbonate and the amine compound is carried out, wherein the reaction mixture is supplied to the thermal decomposition vessel without having to carry out a distillative separation procedure; and obtaining the isocyanate by applying the aryl carbamate to a thermal decomposition reaction, wherein the amine compound is a polyamine compound wherein the diaryl carbonate is a compound represented by the following formula: wherein R 1 represents an aromatic group having 6 to 20 carbon atoms, wherein the diaryl carbonate comprises an iron atom at from 0.001 ppm to 10%.