mhurhangee/ep-ind-claims huggingface dataset:
An organic electroluminescent device (40; 160) in which charges are injected into a luminescent layer (28; 132) of an organic thin film (24; 125) formed between a first electrode layer (22; 130) and a second electrode layer (26; 123), thereby emitting a light, the organic EL device (40; 100) comprising a charge injection layer (25; 129) formed between the luminescent layer (28; 132) and the second electrode layer (26; 123); and a charge transporting layer (29; 136) formed between the luminescent layer (28; 132) and the charge injection layer (25; 129), wherein the matrix organic material of the charge injection layer is Alq 3, and wherein the charge transporting layer (29; 136) is constituted by a matrix organic material, the charge injection layer (25; 129) consisting of a thin film in which a charge injectable metallic material and the same matrix organic material as the charge transporting layer (29; 136) are mixed, wherein the second electrode layer (26; 123), which is a metallic film is disposed on a surface of the charge injection layer (25; 129), and wherein the charge injectable metallic material is lithium, and the lithium is contained in the charge injection layer in a weight ratio of 2% or more.
A method of testing a water sample for at least one anti-corrosion saturated and/or unsaturated aliphatic nitrogen containing organic compound, the method comprising the steps of: collecting the water sample from a thermal power system or other steam water cycle; passing the water sample through an ion exchange column; passing the water sample through a first vacuum degassing channel after passing through the ion exchange column; transmitting light having a wavelength of between 190 nm and 310 nm into the water sample after the water sample has passed through the first vacuum degassing channel; measuring absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound in the water sample; determining a concentration of the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound within the water sample based on the absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound. collecting the water sample from a thermal power system or other steam water cycle; passing the water sample through an ion exchange column; passing the water sample through a first vacuum degassing channel after passing through the ion exchange column; transmitting light having a wavelength of between 190 nm and 310 nm into the water sample after the water sample has passed through the first vacuum degassing channel; measuring absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound in the water sample; determining a concentration of the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound within the water sample based on the absorption/transmission of the light having a wavelength of between 190 nm and 310 nm by the at least one saturated and/or unsaturated aliphatic nitrogen containing organic compound.
A computer-implemented method comprising: receiving measurement data acquired by an imaging device; selecting a decimation strategy; producing a reconstructed image from the measurement data using the decimation strategy and one or more deep neural networks; and displaying the reconstructed image via a display device; wherein producing the reconstructed image from the measurement data using the decimation strategy and the one or more deep neural networks comprises: decimating the measurement data according to the decimation strategy to produce at least a first decimated measurement data array and a second decimated measurement data array; mapping the first decimated measurement data array to a first decimated image data array using a first deep neural network; mapping the second decimated measurement data array to a second decimated image data array using a second deep neural network; aggregating the first decimated image data array and the second decimated image data array using an aggregation network to produce an image data array; and reshaping the image data array to produce the reconstructed image. receiving measurement data acquired by an imaging device; selecting a decimation strategy; producing a reconstructed image from the measurement data using the decimation strategy and one or more deep neural networks; and displaying the reconstructed image via a display device; decimating the measurement data according to the decimation strategy to produce at least a first decimated measurement data array and a second decimated measurement data array; mapping the first decimated measurement data array to a first decimated image data array using a first deep neural network; mapping the second decimated measurement data array to a second decimated image data array using a second deep neural network; aggregating the first decimated image data array and the second decimated image data array using an aggregation network to produce an image data array; and reshaping the image data array to produce the reconstructed image.
Starch with cationic degree of substitution of 0.55 - 1.20 and bound nitrogen index over 0.75 after cationisation reaction stage, wherein the BNI is calculated from bound nitrogen content of cationic starch and total nitrogen content of cationic starch, the bound nitrogen content is the nitrogen content of pure cationic starch, in which nitrogen is covalently bonded into starch, the total nitrogen content is the nitrogen content of cationic starch product, calculated from dry solids material, which contains also the unbound quatemary ammonium compound, i.e. secondary products of the cationising agent including possible unreacted cationising agent, wherein the BNI value is calculated from the following equation: BNI = N − % Bound × 162 / 1400 − N − % Bound × 151.6 / ( N − % Total × 162 / 1400 − N − % Total × 151.6, i. e. BNI = DS / MR N − Total, wherein the term MR N-Total is post-calculated "molar ratio", calculated from the total nitrogen content of dry un-washed product.
A faceshield for blocking arc flash thermal energy, the faceshield comprising: a lens providing color acuity within the visible light spectrum, wherein the lens provides at least 30 % 11% light transmission across the visible light spectrum, the lens comprised of a particulate consisting of antimony doped tin oxide that blocks infrared radiation, and a optically clear polycarbonate, the optically clear polycarbonate and the particulate chosen and blended in proportion so that the faceshield will block a range from 3 to 40 cal/cm 2 of arc flash thermal energy, the lens further comprising the particulate of antimony doped tin oxide coated with a dispersant dispersed within the optically clear polycarbonate.
A surgical stapler instrument, comprising: an end effector; a firing member movable distally to effect a firing motion in the end effector, wherein the firing member comprises a cam slot; a lockout pawl comprising a cam feature receivable in the cam slot, wherein the cam slot is configured to guide the cam feature to cause a rotation of the lockout pawl between a first position where the lockout pawl permits the distal movement of the firing member, and a second position where the lockout pawl prevents the distal movement of the firing member; wherein the lockout pawl is configured to be rotated into the second position in the absence of an unfired staple cartridge; and wherein the firing member comprises a lockout member protruding laterally from the firing member, and wherein the lockout pawl comprises a locking feature configured to lockingly engage the lockout member when the lockout pawl is in the second position. an end effector; a firing member movable distally to effect a firing motion in the end effector, wherein the firing member comprises a cam slot; a lockout pawl comprising a cam feature receivable in the cam slot, wherein the cam slot is configured to guide the cam feature to cause a rotation of the lockout pawl between a first position where the lockout pawl permits the distal movement of the firing member, and a second position where the lockout pawl prevents the distal movement of the firing member; wherein the lockout pawl is configured to be rotated into the second position in the absence of an unfired staple cartridge; and wherein the firing member comprises a lockout member protruding laterally from the firing member, and wherein the lockout pawl comprises a locking feature configured to lockingly engage the lockout member when the lockout pawl is in the second position.
A nucleic acid encoding a UPF1 polypeptide for use in treating a disease, disorder or condition associated with FUS/TLS or TDP-43 toxicity, or encoding a UPF2 polypeptide for use in treating a disease, disorder or condition associated with TDP-43 toxicity, wherein the nucleic acid encoding the UPF1 or UPF2 polypeptide is to be administered to a subject suffering from or susceptible to the disease, disorder or condition. encoding a UPF1 polypeptide for use in treating a disease, disorder or condition associated with FUS/TLS or TDP-43 toxicity, or encoding a UPF2 polypeptide for use in treating a disease, disorder or condition associated with TDP-43 toxicity, wherein the nucleic acid encoding the UPF1 or UPF2 polypeptide is to be administered to a subject suffering from or susceptible to the disease, disorder or condition.
A purging device that performs purging with a purge gas on a plurality of articles that are supplied from outside to an inner space of the purging device characterized by, comprising: a setup unit configured to set up an working area in which a worker works such that the inner space of the purging device is divided into the working area and a non-working area; a purge gas control mechanism (24, 26) configured to control supply of the purge gas such that the purging of the articles is halted in the working area and is continued in the non-working area; and an oxygen concentration measuring device configured to measure an oxygen concentration in the working area, the purge gas control mechanism (24, 26) being configured to halt the purging of the articles in the non-working area if the oxygen concentration in the working area decreases to a predetermined value or less. a setup unit configured to set up an working area in which a worker works such that the inner space of the purging device is divided into the working area and a non-working area; a purge gas control mechanism (24, 26) configured to control supply of the purge gas such that the purging of the articles is halted in the working area and is continued in the non-working area; and an oxygen concentration measuring device configured to measure an oxygen concentration in the working area, the purge gas control mechanism (24, 26) being configured to halt the purging of the articles in the non-working area if the oxygen concentration in the working area decreases to a predetermined value or less.
Method for managing processes on a mobile terminal of a communication network, in particular of a mobile radio network, wherein upon detection of an event signal particulars are read out in the mobile terminal from a stored list (2, 3, 4, 8) and dependent on the read-out particulars at least one application is started, characterized in that at least one of the lists (2, 3, 4, 8) is an event type list, wherein an event type is assigned to a respective event signal and the event type indicates the kind of event, by means of the event-type list the event type which corresponds to the detected event signal is selected and by means of an application option list, wherein at least one application is assigned to each event type, an application which corresponds to the event-type is selected and started.
A phosphinimine polymerization catalyst having the following structure: wherein M is Ti, Zr or Hf; L is a cyclopentadienyl type ligand; each X is independently an activatable ligand; A 1 is a H or a substituted or unsubstituted alkyl group; A 2 and A 5 are independently an acyclic or a cyclic hydrocarbyl group or an acyclic or a cyclic heteroatom containing hydrocarbyl group; A 3 and A 4 are independently a H, a halide, an acyclic or a cyclic hydrocarbyl group or an acyclic or a cyclic heteroatom containing hydrocarbyl group; and where any of A 2 to A 5 may be part of a cyclic hydrocarbyl group or a cyclic heteroatom containing hydrocarbyl group.
A stator vane assembly comprising a stator vane made of a composite material of thermosetting resin or thermoplastic resin and reinforcement fiber, and a coupling support member, wherein the coupling support member is made of metal and includes a pair of divided pieces (34, 54) separated from each other, the pair of divided pieces (34, 54) being joined to an end portion of the stator vane from both sides in a vane thickness direction, at least one linear protrusion (21a, 22a) or groove is formed on at least one of divided piece sides of the end portion of the stator vane, a groove (35a, 55a) or linear protrusion engaged with the linear protrusion (21a, 22a) or groove formed in the end portion of the stator vane is formed in at least one of the pair of divided pieces (34, 54) of the coupling support member, and the end portion of the stator vane is held between the pair of divided pieces (34, 54) of the coupling support member, by fastening force that is applied to the pair of divided pieces (34, 54) of the coupling support member from both the sides in the vane thickness direction, characterized in that side edges (35b, 55b) that are located on a vane center side of the pair of divided pieces (34, 54) of the coupling support member and extend along a chord direction are formed so as to protrude toward the vane center, and respective tip ends of the protruding side edges (35b, 55b) are chamfered or rounded.
A method for manufacturing a rug, comprising the steps of: I. manufacturing a top layer L T by (i) weaving a fabric W T comprising warp yarns K T and weft yarns I T, (ii) applying a pre-coating C T to the underside of said fabric W T, and (iii) curing said pre-coating C T; II. manufacturing a backing layer L B by (i) weaving a fabric W B comprising warp yarns K B and weft yarns I B,; and III. attaching said top layer L T to said backing layer L B by applying an adhesive A; characterized in that step II also comprises the steps of: (ii) applying a pre-coating C B to the upper side of said fabric W B, and (iii) curing said pre-coating C B; in that in step III adhesive A is applied between said at least partially cured pre-coating C T and said at least partially cured pre-coating C B; and in that the material composition of said adhesive A is different from the material composition of pre-coating C B and pre-coating C T. I. manufacturing a top layer L T by (i) weaving a fabric W T comprising warp yarns K T and weft yarns I T, (ii) applying a pre-coating C T to the underside of said fabric W T, and (iii) curing said pre-coating C T; II. manufacturing a backing layer L B by (i) weaving a fabric W B comprising warp yarns K B and weft yarns I B,; and III. attaching said top layer L T to said backing layer L B by applying an adhesive A; characterized in that step II also comprises the steps of: (ii) applying a pre-coating C B to the upper side of said fabric W B, and (iii) curing said pre-coating C B; in that in step III adhesive A is applied between said at least partially cured pre-coating C T and said at least partially cured pre-coating C B; and in that the material composition of said adhesive A is different from the material composition of pre-coating C B and pre-coating C T.
A composition for forming a conductive pattern by electromagnetic irradiation, comprising: a polymer resin; and a non-conductive metal compound including a first metal and a second metal, having a NASICON crystal structure represented by the following Chemical Formula 1, wherein a metal nucleus including the first metal or an ion thereof is formed from the non-conductive metal compound by electromagnetic irradiation. [Chemical Formula 1] AB 2 (PO 4) 3 or AB 2 P 3 O 12 in the Chemical Formula 1, A, B are independently represents a first metal and a second metal different from each other. a polymer resin; and a non-conductive metal compound including a first metal and a second metal, having a NASICON crystal structure represented by the following Chemical Formula 1, wherein a metal nucleus including the first metal or an ion thereof is formed from the non-conductive metal compound by electromagnetic irradiation. [Chemical Formula 1] AB 2 (PO 4) 3 or AB 2 P 3 O 12 in the Chemical Formula 1, A, B are independently represents a first metal and a second metal different from each other.
A method of providing information, the method comprising: providing an isolated nucleic acid sample; and recognizing a nucleotide sequence comprising SEQ ID NO: 1 or SEQ ID NO: 2, wherein the recognizing of the nucleotide sequence is performed to diagnose atopic dermatitis. providing an isolated nucleic acid sample; and recognizing a nucleotide sequence comprising SEQ ID NO: 1 or SEQ ID NO: 2, wherein the recognizing of the nucleotide sequence is performed to diagnose atopic dermatitis.
An emergency brake system comprising: a summing lever; a brake handle coupled to the summing lever, the brake handle rotatably coupled about a first axis; and a linear actuator having a plunger, wherein the summing lever has a first end and a second end, the brake handle is coupled to the first end of the summing lever, and the plunger is coupled to the second end of the summing lever, the system further comprising a brake cable coupled to the summing lever at a location between the first end and the second end, wherein the summing lever rotates about the brake handle in response to actuation of the plunger, and the summing lever rotates about the plunger in response to rotational movement of the brake handle, characterized in that the linear actuator comprises an attachment feature, the linear actuator being rotatable about the attachment feature. a summing lever; a brake handle coupled to the summing lever, the brake handle rotatably coupled about a first axis; and a linear actuator having a plunger, wherein the summing lever has a first end and a second end, the brake handle is coupled to the first end of the summing lever, and the plunger is coupled to the second end of the summing lever, the system further comprising a brake cable coupled to the summing lever at a location between the first end and the second end, wherein the summing lever rotates about the brake handle in response to actuation of the plunger, and the summing lever rotates about the plunger in response to rotational movement of the brake handle, characterized in that the linear actuator comprises an attachment feature, the linear actuator being rotatable about the attachment feature.
Machine for treating infectious waste, in particular medical waste, comprising a receptacle for loading waste and a shredding assembly for shredding said waste, including a shredder, this shredder being formed by at least two parallel series of contrarotating knives, the knives of one series alternating with counter-knives of that same series, and the knives of a first series cooperating with the counter-knives of another adjacent series, and vice versa; the knives are carried by shafts for driving these knives to rotate, and the counter-knifes of one series are engaged around these shafts; the edge of each counter-knife facing the opposite knife associated thereto comprises an arcuate portion located on the downstream side of the shredder relative to the direction of passage of waste material between the series of knives and counter-knives, and said opposite knife comprises teeth that pass in the immediate vicinity of that arcuate portion; said arcuate portion forms a tip oriented toward the upstream side of the counter-knife; characterized in that: - at least one counter-knife of one series has a portion extending above the axis of the shaft of the same series, so that this counter-knife forms a closed bearing traversed by this shaft, this portion of the counter-knife forming an arcuate edge centered on the axis of another shaft of the shredder, this arcuate edge completing said arcuate portion and making the arcuate edges of said portions (17a, 17c) extend not only below the plane defined by the axis of the shafts but also above this plan; - said arcuate portion has a notch formed on it, opening into the arcuate edge formed by this arcuate portion, this notch forming said tip. - at least one counter-knife of one series has a portion extending above the axis of the shaft of the same series, so that this counter-knife forms a closed bearing traversed by this shaft, this portion of the counter-knife forming an arcuate edge centered on the axis of another shaft of the shredder, this arcuate edge completing said arcuate portion and making the arcuate edges of said portions (17a, 17c) extend not only below the plane defined by the axis of the shafts but also above this plan; - said arcuate portion has a notch formed on it, opening into the arcuate edge formed by this arcuate portion, this notch forming said tip.
A T cell receptor having the property of binding to SLYNTVATL (SEQ ID No: 1) in complex with HLA-A*02 and comprising a TCR alpha chain variable domain and a TCR beta chain variable domain, wherein (i) the alpha chain variable domain comprises the amino acid sequence of SEQ ID NO: 6 or 7 and the beta chain variable domain comprises the amino acid sequence of SEQ ID NO: 8; or (ii) the TCR has at least 90% identity to the TCR of (i) and has a K D and/or binding half-life for the SLYNTVATL (SEQ ID NO: 1) HLA-A*02 complex within 50% of the measured K D and/or binding half-life of the TCR of (i), when measured using Surface Plasmon Resonance under identical conditions, at 25°C and on the same SPR chip. (i) the alpha chain variable domain comprises the amino acid sequence of SEQ ID NO: 6 or 7 and the beta chain variable domain comprises the amino acid sequence of SEQ ID NO: 8; or (ii) the TCR has at least 90% identity to the TCR of (i) and has a K D and/or binding half-life for the SLYNTVATL (SEQ ID NO: 1) HLA-A*02 complex within 50% of the measured K D and/or binding half-life of the TCR of (i), when measured using Surface Plasmon Resonance under identical conditions, at 25°C and on the same SPR chip.
A combination comprising zidovudine, a polymyxin selected from colistin or polymyxin B, an anti-tuberculosis antibiotic selected from rifampicin, rifapentine or rifabutin, and optionally piperine, or pharmaceutically acceptable salts and/or solvates thereof, for use in treating a microbial infection.