mhurhangee/ep-ind-claims huggingface dataset:
Flexible multilayer laminate for forming a packaging of gas-releasing products, said laminate comprising an integrated pressure-release valve with a cavity, said valve having open and closed orientations and comprising a liquid disposed therein, said flexible multilayer laminate comprising: - a laminate comprising a first oriented polymer layer with integrated cavity comprising liquid, said oriented polymer layer being sealed by a first adhesive pattern on an underlying layer, said underlying layer comprising a seal layer, said first adhesive pattern comprising first adhesive-free regions located on at least both sides of, or around at least one inlet perforation, and a second perforation-free oriented polymer layer partly bonded to the first oriented polymer layer via a second adhesive pattern, the first and second oriented polymer layers (8, 9) forming, once bonded in register, an inflatable outlet tube, said inflatable tube being partially disconnected from the rest of said laminate by a surrounding outer score line allowing the tube to lift off from the first laminate under increased pressure in the pack; - wherein the at least one inlet perforation and the inflatable outlet tube preferentially permit gaseous communication in one direction, the gas entering through the at least one perforation into the cavity comprising liquid travelling through the liquid and exiting through the inflatable tube. - a laminate comprising a first oriented polymer layer with integrated cavity comprising liquid, said oriented polymer layer being sealed by a first adhesive pattern on an underlying layer, said underlying layer comprising a seal layer, said first adhesive pattern comprising first adhesive-free regions located on at least both sides of, or around at least one inlet perforation, and a second perforation-free oriented polymer layer partly bonded to the first oriented polymer layer via a second adhesive pattern, the first and second oriented polymer layers (8, 9) forming, once bonded in register, an inflatable outlet tube, said inflatable tube being partially disconnected from the rest of said laminate by a surrounding outer score line allowing the tube to lift off from the first laminate under increased pressure in the pack; - wherein the at least one inlet perforation and the inflatable outlet tube preferentially permit gaseous communication in one direction, the gas entering through the at least one perforation into the cavity comprising liquid travelling through the liquid and exiting through the inflatable tube.
Method for drying an explosive, wherein the explosive contains moisture, wherein microwave radiation is generated by means of at least one magnetron, characterised in that, firstly, the explosive is heated by means of convention heat elements or by means of additional magnetrons in a first chamber and, subsequently, the explosive is exposed to microwave radiation in a drying chamber, wherein the explosive is conveyed through the first chamber and then through the drying chamber by means of a transport belt as a carrying device, as a result of which the explosive and the moisture are heated and the moisture is removed from the explosive on account of the heating. wherein the explosive contains moisture, wherein microwave radiation is generated by means of at least one magnetron, characterised in that, firstly, the explosive is heated by means of convention heat elements or by means of additional magnetrons in a first chamber and, subsequently, the explosive is exposed to microwave radiation in a drying chamber, wherein the explosive is conveyed through the first chamber and then through the drying chamber by means of a transport belt as a carrying device, as a result of which the explosive and the moisture are heated and the moisture is removed from the explosive on account of the heating.
Method for controlling process gases for heat treatment of metallic materials/workpieces in an industrial furnace, which comprises at least a treatment chamber, at least a gas-tight sealable combustion station with at least a first valve (4.1) and a controller with a pressure gauge (5.1), wherein the process gas is treated in at least one component of a respective gas mixture in a limitable region and/or is used as a purging gas (6.1) in a gas purging step, characterised in that a) in a first step with the combustion valve (4.1) open, a quantity of a purging gas (6.1) of the gas mixture of the respective process gas is, preferably controlled, supplied and then burned in the industrial furnace, b) in a second step the purging valve (4.1) is closed following the above-mentioned gas purging step, c) in a third step, upon reaching the target pressure of the industrial furnace, the fresh gas valve is so regulated that this pressure is still detected and maintained by means of the pressure gauge (5.1), wherein, in this step, the combustion valve (4.1) remains closed only in order to allow replacement of a possibly gas loss. a) in a first step with the combustion valve (4.1) open, a quantity of a purging gas (6.1) of the gas mixture of the respective process gas is, preferably controlled, supplied and then burned in the industrial furnace, b) in a second step the purging valve (4.1) is closed following the above-mentioned gas purging step, c) in a third step, upon reaching the target pressure of the industrial furnace, the fresh gas valve is so regulated that this pressure is still detected and maintained by means of the pressure gauge (5.1), wherein, in this step, the combustion valve (4.1) remains closed only in order to allow replacement of a possibly gas loss.
A specimen transfer device adapted to receive a sample, comprising: a housing having a first end, a second end, a sidewall extending therebetween; and a deformable material disposed within the housing, the material deformable from an initial position in which the material is adapted to contain the sample to a deformed position in which at least a portion of the sample is released from the material, characterized in that the housing further having an actuation member movable between a first position and a second position; and the specimen transfer device further comprising: a viscoelastic member disposed within the housing between the material and the sidewall of the housing and between the material and the actuation member, wherein the viscoelastic member is engaged with the actuation member and the material such that movement of the actuation member from the first position to the second position exerts a force on the viscoelastic member which deforms the material from the initial position to the deformed position. the housing further having an actuation member movable between a first position and a second position; and the specimen transfer device further comprising: a viscoelastic member disposed within the housing between the material and the sidewall of the housing and between the material and the actuation member, wherein the viscoelastic member is engaged with the actuation member and the material such that movement of the actuation member from the first position to the second position exerts a force on the viscoelastic member which deforms the material from the initial position to the deformed position. a viscoelastic member disposed within the housing between the material and the sidewall of the housing and between the material and the actuation member, wherein the viscoelastic member is engaged with the actuation member and the material such that movement of the actuation member from the first position to the second position exerts a force on the viscoelastic member which deforms the material from the initial position to the deformed position.
A humanized L243 antibody or antigen-binding fragment thereof binding to at least one epitope of HLA-DR on HLA-DR+ cells and comprising a heavy chain variable domain and a light chain variable domain, wherein the CDR1 (NYGMN), CDR2 (WINTYTREPTYADDFKG), and CDR3 (DTTAVVPTGFDY) regions and framework residues 27, 38, 46, 68 and 91 of said heavy chain variable domain using the Kabat numbering system are from the mouse monoclonal antibody mL243 heavy chain and the remainder of the immunoglobulin heavy chain framework domains are from one or more human heavy chains, wherein the CDR1 (RASENIYSNLA), CDR2 (AASNLAD), and CDR3 (QHFWTTPWA) regions and framework residues 37, 39, 48 and 49 of said light chain variable domain using the Kabat numbering system are from the mouse monoclonal antibody mL243 light chain and the remainder of the immunoglobulin light chain framework domains are from one or more human light chains.
A polycarbonate composition comprising a high-heat copolycarbonate derived from a high-heat bisphenol monomer and optionally a low heat bisphenol A monomer, wherein the high-heat bisphenol monomer is a monomer where the corresponding homopolycarbonate of the monomer has a glass transition temperature of 155 °C or higher as determined per ASTM D3418 with a 20 °C per minute heating rate; a poly(carbonate-siloxane) having 30-70 wt% siloxane content, based on the total weight of the poly(carbonate-siloxane); a homopolycarbonate; a flame retardant, wherein the flame retardant is not a phosphorous-containing flame retardant; and optionally, an additive composition, wherein a molded sample having a thickness of 3.2 millimeters has a notched Izod Impact of at least 300 joules per meter at -30 °C according to ASTM D256. a poly(carbonate-siloxane) having 30-70 wt% siloxane content, based on the total weight of the poly(carbonate-siloxane); a homopolycarbonate; a flame retardant, wherein the flame retardant is not a phosphorous-containing flame retardant; and optionally, an additive composition, wherein a molded sample having a thickness of 3.2 millimeters has a notched Izod Impact of at least 300 joules per meter at -30 °C according to ASTM D256.
Method for producing a photovoltaic cell with - a photoelectrically active face element and - at least one conductor track arrangement on at least one surface side of the face element, wherein for the purpose of forming the conductor track arrangement an open fabric, which is woven of electrically conductive threads and transparent, electrically non-conductive threads, is applied to the at least one surface side of the photoelectrically active face element, wherein the open fabric is free from a planar coating, and the open fabric is formed at least partially with meltable threads (22, 24), wherein the electrically non-conductive threads are formed with a thermoplastic polymer material, wherein after application of the open fabric a heat treatment takes place, in which the meltable threads (22, 24) are melted partially, wherein the open fabric with the partially melted threads (22, 24) is firmly connected to the face element and fixed thereon, and on the fixed open fabric a transparent cover layer is applied, characterized in that the electrically non-conductive threads have a diameter ranging from 30 μm to 70 μm and the electrically conductive threads have a diameter ranging from 70 μm to 300 μm, wherein the electrically conductive threads protrude outwards by a defined amount with respect to the non-conductive threads. - a photoelectrically active face element and - at least one conductor track arrangement on at least one surface side of the face element,
A surface cleaning apparatus, comprising: a housing including an upright handle assembly and a cleaning head mounted to the upright handle assembly and adapted for movement across a surface to be cleaned; a fluid delivery system comprising: a supply tank assembly; a fluid dispenser provided on the cleaning head in fluid communication with the supply tank assembly; and a fluid recovery system comprising: a suction source; a suction nozzle provided on the cleaning head in fluid communication with the suction source; and a recovery tank container having a bottom end and a top end opposite the bottom end; characterized by a strainer removably mounted within the recovery tank container and comprising: a strainer base at the bottom end of the recovery tank container, the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container. a housing including an upright handle assembly and a cleaning head mounted to the upright handle assembly and adapted for movement across a surface to be cleaned; a fluid delivery system comprising: a supply tank assembly; a fluid dispenser provided on the cleaning head in fluid communication with the supply tank assembly; and a supply tank assembly; a fluid dispenser provided on the cleaning head in fluid communication with the supply tank assembly; and a fluid recovery system comprising: a suction source; a suction nozzle provided on the cleaning head in fluid communication with the suction source; and a recovery tank container having a bottom end and a top end opposite the bottom end; characterized by a strainer removably mounted within the recovery tank container and comprising: a strainer base at the bottom end of the recovery tank container, the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container. a suction source; a suction nozzle provided on the cleaning head in fluid communication with the suction source; and a recovery tank container having a bottom end and a top end opposite the bottom end; characterized by a strainer removably mounted within the recovery tank container and comprising: a strainer base at the bottom end of the recovery tank container, the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container. a strainer base at the bottom end of the recovery tank container, the strainer base having a plurality of drain holes therein; and an elongated grip extending from the strainer base toward the top end of the recovery tank container.
Switching device having an interrupter path that comprises a first switching site and a second switching site having in each case contact pieces (4, 5; 11, 14) that can move relative to one another, wherein the first switching site is electrically connected in series to the second switching site by way of an axially displaceable contact pin and the first switching site is embodied as a vacuum interrupter, characterized in that during a switching process the first switching site and the second switching site are actuated by force and during a switching-off process the first switching site operates before the second switching site and during a switching-on process said first switching site operates after the second switching site, wherein the contact pin is a contact stem of a movable contact piece of the vacuum interrupter and the movable contact piece of the second switching site, supported by the contact stem, is located on the contact stem in a sliding manner.
A method for making a food product comprising: introducing into an extruder ingredients comprising by weight on a dry basis: at least one heat-sensitive ingredient chosen from the group consisting of fruit-based ingredients, vegetable-based ingredients, proteins, natural flavoring compounds, synthetic flavoring compounds, and coloring agents; at least 30% starch comprising a peak viscosity of between 500 and 700 RVU at a time between 1 and 6 minutes, a trough viscosity of between 20 and 60 RVU at between 12 and 18 minutes, and a final viscosity of between 45 and 85 RVU at about 19 minutes, as measured using the RVA Protocol; hydrating said ingredients to a total moisture content between 15% and 40% by weight to produce a hydrated ingredient mixture; injecting a supercritical fluid into said extruder to mix with said ingredients at a rate greater than 0% and less than 3% by weight of said hydrated mixture; forming an extrudate by extruding said ingredients through at least one die orifice; cutting said extrudate into extrudate pieces; and maintaining said ingredients at a temperature below 100°C between said introducing step and said cutting step. introducing into an extruder ingredients comprising by weight on a dry basis: at least one heat-sensitive ingredient chosen from the group consisting of fruit-based ingredients, vegetable-based ingredients, proteins, natural flavoring compounds, synthetic flavoring compounds, and coloring agents; at least 30% starch comprising a peak viscosity of between 500 and 700 RVU at a time between 1 and 6 minutes, a trough viscosity of between 20 and 60 RVU at between 12 and 18 minutes, and a final viscosity of between 45 and 85 RVU at about 19 minutes, as measured using the RVA Protocol; at least one heat-sensitive ingredient chosen from the group consisting of fruit-based ingredients, vegetable-based ingredients, proteins, natural flavoring compounds, synthetic flavoring compounds, and coloring agents; at least 30% starch comprising a peak viscosity of between 500 and 700 RVU at a time between 1 and 6 minutes, a trough viscosity of between 20 and 60 RVU at between 12 and 18 minutes, and a final viscosity of between 45 and 85 RVU at about 19 minutes, as measured using the RVA Protocol; hydrating said ingredients to a total moisture content between 15% and 40% by weight to produce a hydrated ingredient mixture; injecting a supercritical fluid into said extruder to mix with said ingredients at a rate greater than 0% and less than 3% by weight of said hydrated mixture; forming an extrudate by extruding said ingredients through at least one die orifice; cutting said extrudate into extrudate pieces; and maintaining said ingredients at a temperature below 100°C between said introducing step and said cutting step.
An apparatus of an eNodeB operable to resolve predefined types of concurrent communications at a relay UE, the apparatus comprising one or more processors and memory configured to: identify the relay UE that is configured to relay proximity services, ProSe, traffic between the eNodeB and a remote UE, wherein the relay UE is in-coverage of the eNodeB and the remote UE is in-coverage or out-of-coverage of the eNodeB; and communicate control signaling to at least one of the relay UE and the remote UE to resolve predefined types of communications performed at the relay UE or the remote UE to defined subframes, wherein the control signaling provides concurrency avoidance at the relay UE for predefined types of concurrent communications between the relay UE and at least one of the eNodeB and the remote UE, and indicates a defined resource pool of subframes, wherein the relay UE is configured to resolve predefined types of concurrent communications with at least one of the eNodeB and the remote UE when utilizing subframes in the defined resource pool to perform one or more predefined types of communication, characterised by: wherein the control signaling communicated to at least one of the relay UE and the remote UE is a ProSe grant of ProSe communication resources that provides concurrency avoidance at the relay UE for predefined types of concurrent communications, wherein the ProSe grant indicates a set of communication parameters including a Transmit Power Control, TPC, command. identify the relay UE that is configured to relay proximity services, ProSe, traffic between the eNodeB and a remote UE, wherein the relay UE is in-coverage of the eNodeB and the remote UE is in-coverage or out-of-coverage of the eNodeB; and communicate control signaling to at least one of the relay UE and the remote UE to resolve predefined types of communications performed at the relay UE or the remote UE to defined subframes, wherein the control signaling provides concurrency avoidance at the relay UE for predefined types of concurrent communications between the relay UE and at least one of the eNodeB and the remote UE, and indicates a defined resource pool of subframes, wherein the relay UE is configured to resolve predefined types of concurrent communications with at least one of the eNodeB and the remote UE when utilizing subframes in the defined resource pool to perform one or more predefined types of communication, characterised by: wherein the control signaling communicated to at least one of the relay UE and the remote UE is a ProSe grant of ProSe communication resources that provides concurrency avoidance at the relay UE for predefined types of concurrent communications, wherein the ProSe grant indicates a set of communication parameters including a Transmit Power Control, TPC, command.
Process for the preparation of an IHM-2 crystallized hybrid material with an organic-inorganic matrix that contains an inorganic network of metal centers that are based on the element indium and that are connected to one another by organic ligands that are formed by the entity 2-aminoterephthalate-O 2 C-C 6 H 3 -NH 2 -CO 2 -, having an X-ray diffraction diagram that includes at least the lines that are recorded in the table below: 2 Theta (°) d hkl (Å) I/I 0 2 Theta (°) d hkl (Å) I/I 0 4.70 18.80 mf 27.71 3.22 ff 8.12 10.88 ff 28.42 3.14 ff 9.37 9.43 FF 29.73 3.00 f 12.41 7.13 ff 30.14 2.96 ff 13.12 6.74 ff 31.23 2.86 ff 14.10 6.28 ff 32.96 2.72 ff 14.76 6.00 ff 33.47 2.68 ff 16.29 5.44 f 34.29 2.61 ff 16.95 5.23 f 35.42 2.53 ff 18.83 4.71 mf 37.99 2.37 ff 20.54 4.32 ff 41.75 2.16 ff 21.07 4.21 ff 42.73 2.11 ff 23.61 3.76 ff 43.98 2.06 ff 24.68 3.60 ff 49.18 1.85 ff 24.99 3.56 f 51.55 1.77 ff 26.01 3.42 ff 53.58 1.71 ff 26.44 3.37 f 54.45 1.68 ff where FF = Very High; F = High; m = Medium; mf = Medium Low; f = Low; and ff = Very Low. The intensity I/I 0 is provided in relation to a relative intensity scale where a value of 100 is assigned to the most intense line of the X-ray diffraction diagram: ff < 15; 15 ≤ f < 30; 30 ≤ mf < 50; 50 ≤ m < 65; 65 ≤ F < 85; and FF ≥ 85, said process comprising at least the following stages: i) The dissolution of at least one indium precursor (In prec) in at least one polar organic solvent, ii) The addition of 2-aminoterephthalic acid (NH 2 -H 2 -BDC) in solution in at least one polar organic solvent, iii) The addition of a base B, in solution in at least one polar organic solvent, in the mixture that is obtained in stage ii), iv) The precipitation of the 2-aminoterephthalic acid and said indium precursor with said base, v) The filtration and the washing, and vi) The drying of the material that is obtained. i) The dissolution of at least one indium precursor (In prec) in at least one polar organic solvent, ii) The addition of 2-aminoterephthalic acid (NH 2 -H 2 -BDC) in solution in at least one polar organic solvent, iii) The addition of a base B, in solution in at least one polar organic solvent, in the mixture that is obtained in stage ii), iv) The precipitation of the 2-aminoterephthalic acid and said indium precursor with said base, v) The filtration and the washing, and vi) The drying of the material that is obtained.
A device, comprising: a ridge waveguide defined within a semiconducting material; a peninsula formation defined within the semiconducting material, and adjacent to the ridge waveguide such that a gap exists between an end face of the peninsula formation and a side wall of the ridge waveguide; and a conductive trace suspended across the gap such that the conductive trace runs over a top surface of the peninsula formation and a top surface of the ridge waveguide. a ridge waveguide defined within a semiconducting material; a peninsula formation defined within the semiconducting material, and adjacent to the ridge waveguide such that a gap exists between an end face of the peninsula formation and a side wall of the ridge waveguide; and a conductive trace suspended across the gap such that the conductive trace runs over a top surface of the peninsula formation and a top surface of the ridge waveguide.
A monoclonal antibody that specifically binds to an Aβ peptide, comprising a heavy chain variable region comprising the three CDRs shown in SEQ ID NO: 3, SEQ ID NO: 4, and SEQ ID NO: 5; and a light chain variable region comprising the three CDRs shown in SEQ ID NO: 6, SEQ ID NO: 7, and SEQ ID NO: 8.