mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a decorative panel, wherein said panel comprises a substrate and a decorative top layer, wherein said substrate is a mineral containing substrate and/or a thermoplastic material containing substrate, wherein said substrate is obtained from a larger material by means of a dividing operation, wherein said dividing operation comprises performing a cutting operation releasing at least said substrate from said larger material at at least two opposite edges, wherein said panel comprises at at least one and preferably at both upper edges of a pair of opposite side edges a lower edge area, wherein said lower edge area is obtained during said dividing operation, said dividing operation comprising: - providing said larger material in a dividing apparatus; - indenting said larger material at the location of said upper edges in order to at least partially form said lower edge area; - releasing said substrate from said larger material by means of a knife that is forced in and through said larger material, wherein said cutting operation forms opposite cut edges for said releasing at said at least two opposite edges, wherein said opposite cut edges are positioned at a mutually different distance (D1-D2) from said upper edges of said panel, allowing for the formation of profiled edges horizontally extending differently beyond the respective upper edge; and wherein the method comprises forming profiled edges horizontally extending differently beyond the respective upper edge. - providing said larger material in a dividing apparatus; - indenting said larger material at the location of said upper edges in order to at least partially form said lower edge area; - releasing said substrate from said larger material by means of a knife that is forced in and through said larger material, wherein said cutting operation forms opposite cut edges for said releasing at said at least two opposite edges, wherein said opposite cut edges are positioned at a mutually different distance (D1-D2) from said upper edges of said panel, allowing for the formation of profiled edges horizontally extending differently beyond the respective upper edge;
Dry mortar panel having at least one dry mortar layer, wherein the dry mortar layer comprises a dry mortar mixture solidified by means of a water-soluble adhesive agent, wherein the dry mortar mixture consists of a mineral, in particular hydraulic, binder, aggregate and optionally at least one admixture and/or at least one additive, characterized in that the dry mortar mixture comprises, based on the dry matter of the dry mortar mixture, 5 to 35% by weight, preferably 10 to 25% by weight, lightweight aggregate composed of open-pore and closed-pore lightweight aggregate particles.
A solid state microarray, comprising: an addressable network of working electrodes and counter electrodes integral to said microarray, wherein said working electrodes comprise chemically-functionalized surfaces comprising functional groups, wherein said working electrodes are bound to a plurality of biomolecular complexes, wherein said biomolecular complexes comprise at least 2 amplified electrochemiluminescent (AECL) tags, wherein at least 2 AECL tags comprise a metal chelate bound to tyramide.
Use of a polymeric molding composition based on thermoplastic polyamides, comprising, as component A, from 40 to 60% by weight of a thermoplastic polyamide, as component B, from 4 to 15% by weight of a phosphinic salt of the formula and/or of a diphosphinic salt of the formula, and/or polymers of these, where R 1 and R 2 are identical or different and are C 1 -C 6 -alkyl, linear or branched, and/or aryl; R 3 is C 1 -C 10 -alkylene, linear or branched, C 6 -C 10 -arylene, -alkylarylene, or -arylalkylene; M is Mg, Ca, Al, Sb, Sn, Ge, Ti, Zn, Fe, Zr, Ce, Bi, Sr, Mn, Li, Na, K, and/or a protonated nitrogen base; m is from 1 to 4; n is from 1 to 4; x is from 1 to 4, as component C, from 4 to 15% by weight of a nitrogen-containing synergist, or of a phosphorus/nitrogen flame retardant, as component D, from 15 to 30% by weight of a fibrous reinforcing material, as component E, from 6 to 20% by weight of a filler, as component F, from 0.1 to 2.5% by weight of an organic or inorganic zinc compound, or a mixture of various zinc compounds, and as component G, from 0.1 to 2.5% by weight of conventional additives and processing aids, where the entirety of components A to G always amounts to 100% by weight, for the production of moldings which simultaneously have high flame retardancy according to UL 94 and high glow-wire resistance according to IEC 60695-2-13. R 1 and R 2 are identical or different and are C 1 -C 6 -alkyl, linear or branched, and/or aryl; R 3 is C 1 -C 10 -alkylene, linear or branched, C 6 -C 10 -arylene, -alkylarylene, or -arylalkylene; M is Mg, Ca, Al, Sb, Sn, Ge, Ti, Zn, Fe, Zr, Ce, Bi, Sr, Mn, Li, Na, K, and/or a protonated nitrogen base; m is from 1 to 4; n is from 1 to 4; x is from 1 to 4,
A substrate modification method comprising: immobilization, to a substrate surface, of modification groups selected from: succinic acid or succinic anhydride (compound A) and pyromellitic acid or pyromellitic dianhydride (compound B); and chondroitin sulfate (compound C) and succinic acid (compound A); wherein the modification groups are immobilized to the substrate surface by covalent bonding to a molecule on the substrate surface; and wherein the substrate surface is an inner wall surface of a channel in a capillary electrophoresis device. succinic acid or succinic anhydride (compound A) and pyromellitic acid or pyromellitic dianhydride (compound B); and chondroitin sulfate (compound C) and succinic acid (compound A);
A wireless relay station apparatus that transmits a first packet and a second packet to a plurality of wireless terminal station apparatuses (10a, 10b), the first packet being different from the second packet, the wireless relay station apparatus comprising: an error correction encoding unit (262, 263) that selects coding rates to be used for the first packet and the second packet in accordance with communication quality required for the first packet and the second packet, and generates error correction encoded packets having the same data length from the first packet and the second packet using the selected coding rates; a network encoding circuit that performs network encoding on error correction encoded first and second packets to generate a network encoded packet; and a transmission circuit (28, 21) that transmits the network encoded packet to the plurality of wireless terminal station apparatuses, wherein the error correction encoding unit calculates packet lengths D1 and D2 if error correction encoding is performed using the coding rates R1 and R2 required for the first packet and the second packet, changes the coding rate required for the first packet from R1 to R1' = L1 / (L2 / R2) when the calculated packet length D1 is shorter than the calculated packet length D2, where L1 and L2 are packet lengths of the first packet and the second packet, respectively, changes the coding rate required for the second packet from R2 to R2' = L2 / (L1 / R1) when the calculated packet length D1 is longer than the calculated packet length D2, and performs error correction encoding such that the error correction encoded first packet and the error correction encoded second packet have the same packet length. an error correction encoding unit (262, 263) that selects coding rates to be used for the first packet and the second packet in accordance with communication quality required for the first packet and the second packet, and generates error correction encoded packets having the same data length from the first packet and the second packet using the selected coding rates; a network encoding circuit that performs network encoding on error correction encoded first and second packets to generate a network encoded packet; and a transmission circuit (28, 21) that transmits the network encoded packet to the plurality of wireless terminal station apparatuses, wherein the error correction encoding unit calculates packet lengths D1 and D2 if error correction encoding is performed using the coding rates R1 and R2 required for the first packet and the second packet, changes the coding rate required for the first packet from R1 to R1' = L1 / (L2 / R2) when the calculated packet length D1 is shorter than the calculated packet length D2, where L1 and L2 are packet lengths of the first packet and the second packet, respectively, changes the coding rate required for the second packet from R2 to R2' = L2 / (L1 / R1) when the calculated packet length D1 is longer than the calculated packet length D2, and performs error correction encoding such that the error correction encoded first packet and the error correction encoded second packet have the same packet length.
Prefabricated application for the use of disinfectants in the disinfection of water supplies, the application comprising at least i. a solid filling comprising or forming the disinfectant, ii. which is located in an inner packaging made of a material which, on contact with liquid water, renders possible the liquid water to enter the solid filling and is permeable to the disinfectant, and iii. an additional water-resistant envelope surrounding the inner packaging, which envelope has a structure permeable to liquid water, characterized in that iv. the inner packaging includes a water-soluble or water-dispersible hydrophilic polymer, and the v. water-resistant envelope is also connected to a handling aid in the form of a thread or wire having an end loop. i. a solid filling comprising or forming the disinfectant, ii. which is located in an inner packaging made of a material which, on contact with liquid water, renders possible the liquid water to enter the solid filling and is permeable to the disinfectant, and iii. an additional water-resistant envelope surrounding the inner packaging, which envelope has a structure permeable to liquid water, characterized in that iv. the inner packaging includes a water-soluble or water-dispersible hydrophilic polymer, and the v. water-resistant envelope is also connected to a handling aid in the form of a thread or wire having an end loop.
A method for removing ink printed on a plastic film comprising the following steps: a. conditioning the input printed material in a system comprising a plunger to separate cores or any other material which are not plastic film, obtaining a film free of impurities, b. grinding the film free of impurities in a grinder, c. removing the ink from the ground film in a cleaning system comprising at least three tanks (201, 202, 203), the first of which a cleaning tank stirred with vanes in which the ground film is treated with a cleaning solution consisting of surfactants in water at basic pH, thus generating on the one hand a treated plastic film, still containing part of that cleaning solution and the dispersed ink residues, and on the other hand. the cleaning solution together with the ink removed from the film, d. washing the treated plastic film from the preceding step c in at least two washing tanks (202, 203), to obtain a clean film free of ink and cleaning solution residues, e. recovering the cleaning solution which is used in step c, in a centrifuge, f. recovering the pigment in a thermal treatment reactor, g. drying the clean film, produced in step d, in a drying element for obtaining a ground film, free of ink and of cleaning solution. a. conditioning the input printed material in a system comprising a plunger to separate cores or any other material which are not plastic film, obtaining a film free of impurities, b. grinding the film free of impurities in a grinder, c. removing the ink from the ground film in a cleaning system comprising at least three tanks (201, 202, 203), the first of which a cleaning tank stirred with vanes in which the ground film is treated with a cleaning solution consisting of surfactants in water at basic pH, thus generating on the one hand a treated plastic film, still containing part of that cleaning solution and the dispersed ink residues, and on the other hand. the cleaning solution together with the ink removed from the film, d. washing the treated plastic film from the preceding step c in at least two washing tanks (202, 203), to obtain a clean film free of ink and cleaning solution residues, e. recovering the cleaning solution which is used in step c, in a centrifuge, f. recovering the pigment in a thermal treatment reactor, g. drying the clean film, produced in step d, in a drying element for obtaining a ground film, free of ink and of cleaning solution.
A method of communication, comprising: determining, at an access point, whether an access terminal served by the access point is operating in a first mode or a second mode, wherein in the first mode the access terminal is to be paged for non-unicast packets (step 702) and in the second mode the access terminal is not to be paged for non-unicast packets; receiving a packet destined for the access terminal at the access point; determining a packet type of the received packet (step 712), wherein the packet type indicates whether the received packet is a non-unicast packet; and determining, based on the determined type and the determination of whether the access terminal is operating in the first mode or the second mode, whether to page the access terminal as a result of the receipt of the packet (step 714). determining, at an access point, whether an access terminal served by the access point is operating in a first mode or a second mode, wherein in the first mode the access terminal is to be paged for non-unicast packets (step 702) and in the second mode the access terminal is not to be paged for non-unicast packets; receiving a packet destined for the access terminal at the access point; determining a packet type of the received packet (step 712), wherein the packet type indicates whether the received packet is a non-unicast packet; and determining, based on the determined type and the determination of whether the access terminal is operating in the first mode or the second mode, whether to page the access terminal as a result of the receipt of the packet (step 714).
An assay result reading device for reading the result of an assay performed on a liquid sample flowing along a porous liquid transport carrier comprising nitrocellulose, said assay result being a quantitative and/or qualitative measurement of the concentration of an analyte in the sample; wherein: the carrier comprises a first zone and a second zone that is spatially separated from and downstream from the first zone; the device comprises an optical detection system comprising either at least two light sources and at least one photodetector, or at least one light source (10a, b, c) and at least two photodetectors, wherein the optical detection system is for determining the flow rate of the liquid sample from the first zone to the second zone, and illuminates the first and second zones, detects light reflected from and/or transmitted through the first and second zones, and generates signals representing the presence or absence of the liquid sample in the respective zone; and the device comprises a computation circuit responsive to the signals to: determine said flow rate of the sample; compare the determined flow rate to predetermined upper and lower limits; reject the assay result if the determined flow rate is higher than the upper limit; and reject the assay result if the determined flow rate is lower than the lower limit. the carrier comprises a first zone and a second zone that is spatially separated from and downstream from the first zone; the device comprises an optical detection system comprising either at least two light sources and at least one photodetector, or at least one light source (10a, b, c) and at least two photodetectors, wherein the optical detection system is for determining the flow rate of the liquid sample from the first zone to the second zone, and illuminates the first and second zones, detects light reflected from and/or transmitted through the first and second zones, and generates signals representing the presence or absence of the liquid sample in the respective zone; and the device comprises a computation circuit responsive to the signals to: determine said flow rate of the sample; compare the determined flow rate to predetermined upper and lower limits; reject the assay result if the determined flow rate is higher than the upper limit; and reject the assay result if the determined flow rate is lower than the lower limit. determine said flow rate of the sample; compare the determined flow rate to predetermined upper and lower limits; reject the assay result if the determined flow rate is higher than the upper limit; and reject the assay result if the determined flow rate is lower than the lower limit.
An air conditioning system, comprising: a plurality of indoor units (40, 50, 60) configured to be installed in the same indoor space, including respective usage-side heat exchangers (42, 52, 62), and capable of setting set temperatures individually; an outdoor unit including a heat-source-side heat exchanger for conducting heat exchange with refrigerant circulating through the usage-side heat exchangers; and a control device (37, 47, 57, 67, 80) configured so as to perform temperature control of the same indoor space for each indoor unit, using a thermo-ON condition set in advance in accordance with the set temperatures, and to relax the thermo-ON condition of thermo-OFF indoor units when the indoor units include both those that are thermo-ON and those that are thermo-OFF and a predetermined condition is satisfied, characterized in that, in the control device, the predetermined condition is that among the plurality of indoor units, there must be at least one unit that has continued to be thermo-ON for a first elapsed time or longer, and at least one unit that has continued to be thermo-OFF for a second elapsed time or longer. a plurality of indoor units (40, 50, 60) configured to be installed in the same indoor space, including respective usage-side heat exchangers (42, 52, 62), and capable of setting set temperatures individually; an outdoor unit including a heat-source-side heat exchanger for conducting heat exchange with refrigerant circulating through the usage-side heat exchangers; and a control device (37, 47, 57, 67, 80) configured so as to perform temperature control of the same indoor space for each indoor unit, using a thermo-ON condition set in advance in accordance with the set temperatures, and to relax the thermo-ON condition of thermo-OFF indoor units when the indoor units include both those that are thermo-ON and those that are thermo-OFF and a predetermined condition is satisfied, characterized in that, in the control device, the predetermined condition is that among the plurality of indoor units, there must be at least one unit that has continued to be thermo-ON for a first elapsed time or longer, and at least one unit that has continued to be thermo-OFF for a second elapsed time or longer.
A lighting strip system extending along a longitudinal axis direction, comprising: an elongated substrate profile with two elongated and mutually facing side walls (21, 22) and an elongated bottom wall connecting the side walls (21, 22), which jointly delimit a receiving space, a first and a second mechanical coupling region (3, 4), wherein the first coupling region is provided between the bottom wall and the second coupling region when viewed in the longitudinal axis direction, an elongated power supply unit extending in the longitudinal axis direction in the receiving space, a lighting strip lamp which extends in the longitudinal axis direction, is in electrical contact with the power supply unit, and is releasably mechanically coupled to the second coupling region, and an electrical or electronic unit having a functional region and an operating region, wherein the functional region is arranged in the longitudinal axis direction adjacent to the lighting strip lamp, and wherein the operating region extends at least partially between the lighting strip lamp and the bottom wall starting from the functional region, is in electrical contact with the power supply unit, and is releasably mechanically coupled to the first coupling region. an elongated substrate profile with two elongated and mutually facing side walls (21, 22) and an elongated bottom wall connecting the side walls (21, 22), which jointly delimit a receiving space, a first and a second mechanical coupling region (3, 4), wherein the first coupling region is provided between the bottom wall and the second coupling region when viewed in the longitudinal axis direction, an elongated power supply unit extending in the longitudinal axis direction in the receiving space, a lighting strip lamp which extends in the longitudinal axis direction, is in electrical contact with the power supply unit, and is releasably mechanically coupled to the second coupling region, and an electrical or electronic unit having a functional region and an operating region, wherein the functional region is arranged in the longitudinal axis direction adjacent to the lighting strip lamp, and wherein the operating region extends at least partially between the lighting strip lamp and the bottom wall starting from the functional region, is in electrical contact with the power supply unit, and is releasably mechanically coupled to the first coupling region.
An illumination device comprising a source generating photons, and a light guide receiving in a first zone said generated photons in order to guide them to a second zone to participate in a selected photometric function, wherein said light guide comprises in at least one selected location a transverse groove extending over substantially its entire thickness and over its entire width in order to subdivide the first zone and the second zone into two adjacent parts (PG1, PG2), and comprising an opaque plate, having dimensions similar to dimensions of said transverse groove, and zone into two adjacent parts (PG1, PG2), and comprising an opaque plate, having dimensions similar to the dimensions of said transverse groove, and being housed in the latter in order to allow an illumination by said generated photons of a portion of said second zone belonging to one of said parts (PG1, PG2) of the light guide, or unused in order to allow an illumination of the entirety of said second zone by said generated photons, said device being characterized in that said photon source comprises N light emitting diodes, with N ≥ 2, a first group of K light-emitting diodes generating photons for the first of said parts of the light guide, with K < N, and a second group of N - K others of these light-emitting diodes generating photons for the second of said parts of the light guide and in that it comprises an electronic control circuit operating either only said first group when said opaque plate is housed in said transverse groove, or said first and second groups (DL1, DL2) when said opaque plate is not used.
A pemetrexed formulation comprising: pemetrexed or a pharmaceutically acceptable salt thereof as an active ingredient; N-acetyl-L-cysteine; and a citrate salt.