Works matching DE "SELF-propagating high-temperature synthesis"
Results: 1344
Seeking New Layered Oxyselenides with Promising Thermoelectric Performance.
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- Advanced Functional Materials, 2022, v. 32, n. 18, p. 1, doi. 10.1002/adfm.202113164
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Combustion Synthesized Zinc Oxide Electron‐Transport Layers for Efficient and Stable Perovskite Solar Cells.
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- Advanced Functional Materials, 2019, v. 29, n. 16, p. N.PAG, doi. 10.1002/adfm.201900265
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Effect of partial mechanical alloying on the self-propagating high-temperature synthesis of Ni3Si.
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- Journal of Materials Science, 1999, v. 34, n. 7, p. 1477, doi. 10.1023/A:1004535407965
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Mechanism of combustion synthesis of TiC–Fe cermet.
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- Journal of Materials Science, 1999, v. 34, n. 1, p. 115, doi. 10.1023/A:1004430028260
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Synthesis of oxygen-free aluminium nitride ceramics.
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- Journal of Materials Science, 1998, v. 33, n. 13, p. 3321, doi. 10.1023/A:1013281212757
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Reaction process during relative sintering of NiAl.
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- Journal of Materials Science, 1998, v. 33, n. 8, p. 2129, doi. 10.1023/A:1004375304423
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Combustion synthesis and structure formation in a model Cr-CrO3 self-propagating high-temperature synthesis system.
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- Journal of Materials Science, 1997, v. 32, n. 7, p. 1915, doi. 10.1023/A:1018525411478
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Development of nano-structured Al<sub>2</sub>O<sub>3</sub>-TiB<sub>2</sub>-TiN coatings by combined SHS and laser surface alloying.
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- International Journal of Advanced Manufacturing Technology, 2008, v. 38, n. 9/10, p. 938, doi. 10.1007/s00170-007-1143-4
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Auto-combustion synthesis of lanthanum-doped TiO<sub>2</sub> nanostructures for efficient photocatalytic degradation of crystal violet dye.
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- Materials Research Innovations, 2024, v. 28, n. 6, p. 393, doi. 10.1080/14328917.2024.2304927
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Investigations on the effect of NH<sub>4</sub>Cl flux on the structural and optical properties of CdSiO<sub>3</sub>:Eu<sup>3+</sup> nanophosphor.
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- Materials Research Innovations, 2022, v. 26, n. 7, p. 437, doi. 10.1080/14328917.2022.2044172
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Investigations of calcium ferrite nanoparticles synthesized by sol-gel auto combustion and solution mixture methods.
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- Materials Research Innovations, 2022, v. 26, n. 3, p. 189, doi. 10.1080/14328917.2021.1932318
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Multifunctional nano-magnetic particles assisted viral RNA-extraction protocol for potential detection of COVID-19.
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- Materials Research Innovations, 2021, v. 25, n. 3, p. 169, doi. 10.1080/14328917.2020.1769350
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Combustion synthesis of Fe<sub>3</sub>O<sub>4</sub>/mesorporous carbon composite for lithium ion battery anode.
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- Materials Research Innovations, 2019, v. 23, n. 7, p. 407, doi. 10.1080/14328917.2018.1505681
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Thermodynamics of thermite reactions for a new thermal plug and abandonment process.
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- Continuum Mechanics & Thermodynamics, 2022, v. 34, n. 1, p. 259, doi. 10.1007/s00161-021-01056-6
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Nanoparticle blast caught on film.
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- Nature, 2012, v. 492, n. 7427, p. 16, doi. 10.1038/492016a
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Combustion Synthesis of Double Phosphates.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 4, p. 560, doi. 10.1134/S001050822404018X
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SHS Compaction of Titanium Nickelide: Mechanical Activation, Combustion, Structure, and Properties.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 4, p. 534, doi. 10.1134/S0010508224040154
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Combustion Macrokinetics of Titanium Containing Mixtures: Effect of Mixture Structure and Titanium Particle Size.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 3, p. 294, doi. 10.1134/S0010508224030031
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Self-Propagating High Temperature Synthesis in Two-Layer (Ni + Al)/(PbO<sub>2</sub> + B + Al<sub>2</sub>O<sub>3</sub> + Glass) Powder Mixtures.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 1, p. 119, doi. 10.1134/S0010508224010143
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Self-Propagating High-Temperature Synthesis of Layered Composite Ti/Hf/Ta/Ni/Ceramics Materials.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 1, p. 92, doi. 10.1134/S0010508224010118
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Synthesis of a Nitrided Composite Material from Ferroalumosilicozirconium during Combustion.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 1, p. 79, doi. 10.1134/S001050822401009X
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Synthesis of Oxynitride Composites during Combustion of a Ferrosilicon–Natural Mineral–Aluminum Mixture in Nitrogen.
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- Combustion, Explosion, & Shock Waves, 2024, v. 60, n. 1, p. 70, doi. 10.1134/S0010508224010088
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Self-Propagiating High-Temperature Synthesis in Ti–Al–Mn System.
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- Combustion, Explosion, & Shock Waves, 2023, v. 59, n. 1, p. 78, doi. 10.1134/S0010508223010094
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Effect of Manganese Content and Mechanical Activation on Ni + Al + Mn Combustion.
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- Combustion, Explosion, & Shock Waves, 2022, v. 58, n. 6, p. 665, doi. 10.1134/S0010508222060041
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Macrokinetics of Combustion of Powder and Granular Titanium Mixtures with Different Allotropic Forms of Carbon.
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- Combustion, Explosion, & Shock Waves, 2022, v. 58, n. 3, p. 355, doi. 10.1134/S001050822203011X
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Combustion Wave Propagation in Conjugated Systems of a Powder Mixture of Ni + Al + Al<sub>2</sub>O<sub>3</sub> and a Metal Plate.
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- Combustion, Explosion, & Shock Waves, 2022, v. 58, n. 2, p. 184, doi. 10.1134/S0010508222020071
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Effect of Mechanical Activation and the Content of a Metal Binder on Ti + 2B + x (Fe + Co + Cr + Ni + Al) Combustion.
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- Combustion, Explosion, & Shock Waves, 2022, v. 58, n. 2, p. 169, doi. 10.1134/S0010508222020058
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Effect of Titanium Content and Mechanical Activation on Ni–Al–Ti Combustion.
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- Combustion, Explosion, & Shock Waves, 2021, v. 57, n. 6, p. 663, doi. 10.1134/S0010508221060046
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Hedvall Effect in Self-Propagating High-Temperature Synthesis in Mechanically Activated Compositions.
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- Combustion, Explosion, & Shock Waves, 2021, v. 57, n. 6, p. 640, doi. 10.1134/S0010508221060022
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Effect of Compression Pressure on Combustion of Tapes Obtained by Rolling a Ti + 1.7B Powder Mixture.
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- Combustion, Explosion, & Shock Waves, 2021, v. 57, n. 6, p. 672, doi. 10.1134/S0010508221060058
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Simulation of Synthesis of Matrix–Inclusion Composite Materials during Combustion.
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- Combustion, Explosion, & Shock Waves, 2021, v. 57, n. 4, p. 467, doi. 10.1134/S0010508221040109
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Synthesis of Ceramic and Composite Materials Using a Combination of Self-Propagating High-Temperature Synthesis and Spark Plasma Sintering (Review).
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- Combustion, Explosion, & Shock Waves, 2021, v. 57, n. 4, p. 385, doi. 10.1134/S0010508221040018
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Thermal Explosion in a 2Co–Ti–Al System: Combustion, Phase Formation, and Properties.
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- Combustion, Explosion, & Shock Waves, 2020, v. 56, n. 3, p. 317, doi. 10.1134/S0010508220030089
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Combustion in the Cu(NO<sub>3</sub>)<sub>2</sub>−Al(NO<sub>3</sub>)<sub>3</sub>−H<sub>2</sub>O–Polyvinyl Alcohol System: Synthesis of CuO/Al<sub>2</sub>O<sub>3</sub>.
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- Combustion, Explosion, & Shock Waves, 2019, v. 55, n. 2, p. 167, doi. 10.1134/S0010508219020059
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Effect of High-Energy Milling on Magnesiothermic Self-Propagating High-Temperature Synthesis in a Mixture of SiO<sub>2</sub>, C, and Mg Reactant Powders.
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- Combustion, Explosion, & Shock Waves, 2019, v. 55, n. 1, p. 97, doi. 10.1134/S0010508219010118
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Effect of a NiO Additive on Interaction in a Ni-Al-W System in Self-Propagating High-Temperature Synthesis.
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- Combustion, Explosion, & Shock Waves, 2018, v. 54, n. 4, p. 433, doi. 10.1134/S001050821804007X
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Self-propagating high-temperature synthesis in mechanically activated mixtures of boron carbide and titanium.
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- Combustion, Explosion, & Shock Waves, 2017, v. 53, n. 6, p. 669, doi. 10.1134/S0010508217060077
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Measurement of thermal electromotive force and determination of combustion parameters of a mixture of 5Ti + 3Si under quasi-isostatic compression.
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- Combustion, Explosion, & Shock Waves, 2017, v. 53, n. 2, p. 157, doi. 10.1134/S0010508217020058
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Ignition and phase formation in the Zr-Al-C system.
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- Combustion, Explosion, & Shock Waves, 2017, v. 53, n. 2, p. 171, doi. 10.1134/S0010508217020071
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Structure and phase formation in the Ti-Al-Nb system in the thermal explosion mode.
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- Combustion, Explosion, & Shock Waves, 2016, v. 52, n. 6, p. 659, doi. 10.1134/S0010508216060058
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Thermal explosion and self-propagating high-temperature synthesis in mechanically activated SiO-Al mixtures.
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- Combustion, Explosion, & Shock Waves, 2014, v. 50, n. 6, p. 641, doi. 10.1134/S0010508214060033
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Acoustic emission during self-propagating high-temperature synthesis.
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- Combustion, Explosion, & Shock Waves, 2013, v. 49, n. 6, p. 676, doi. 10.1134/S0010508213060063
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On the theory of self-propagating high-temperature synthesis in layered systems.
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- Combustion, Explosion, & Shock Waves, 2012, v. 48, n. 5, p. 636, doi. 10.1134/S0010508212050152
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Features of self-propagating high-temperature synthesis of spinel pigments.
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- Combustion, Explosion, & Shock Waves, 2012, v. 48, n. 1, p. 57, doi. 10.1134/S001050821201008X
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Producing Cu/ZrO composites by combining mechanical activation and self-propagating high-temperature synthesis.
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- Combustion, Explosion, & Shock Waves, 2011, v. 47, n. 2, p. 174, doi. 10.1134/S0010508211020055
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Heterogeneous combustion in systems containing chemical elements of group III. Generation of electric potentials.
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- Combustion, Explosion, & Shock Waves, 2011, v. 47, n. 1, p. 59, doi. 10.1134/S0010508211010084
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Self-propagating high-temperature synthesis of intermetallide/oxide nanocomposite powders using mechanocomposite precursors.
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- Combustion, Explosion, & Shock Waves, 2009, v. 45, n. 5, p. 551, doi. 10.1007/s10573-009-0067-8
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Application of self-propagating high-temperature synthesis and mechanical activation for obtaining nanocomposites.
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- Combustion, Explosion, & Shock Waves, 2007, v. 43, n. 2, p. 176, doi. 10.1007/s10573-007-0024-3
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Chemical furnace for preheating in dynamic consolidation experiments.
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- Combustion, Explosion, & Shock Waves, 2005, v. 41, n. 1, p. 114, doi. 10.1007/s10573-005-0013-3
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Solid‐State Combustion in Mechanically Activated SHS Systems. I. Effect of Activation Time on Process Parameters and Combustion Product Composition.
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- Combustion, Explosion, & Shock Waves, 2003, v. 39, n. 1, p. 43, doi. 10.1023/A:1022145201911
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