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The Processes of the Structure Formation in the Steel Ingots by Thermal Forcing Operate on Metall 热强迫作用于金属的钢锭组织形成过程
Pub Date : 2021-12-01 DOI: 10.15407/plit2021.04.022
A. Nuradinov, A. Narivskij, I. Nuradinov, V. I. Kurpas, O. Yasynska
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引用次数: 0
Control of Casting Structure through Open Surface Profits 利用开孔利润控制铸件结构
Pub Date : 2021-12-01 DOI: 10.15407/plit2021.04.030
V. Sheigam, А. G. Prigunova, М. V. Коsheliev, А. S. Nuradinov, V. Duka, L. Shenevidko, А. G. Vernydub
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引用次数: 0
Efficiency of Modifying a Hypereutectic Silumin by Means of a Fine- crystalline Al–P Master Alloy 用细晶Al–P中间合金改性过共晶Silumin的效率
Pub Date : 2021-12-01 DOI: 10.15407/plit2021.04.040
A. V. Sinchuk, A. E. Merkulov
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引用次数: 0
Formation of Non-Metal Influences During Hardening of Zharomic Alloys and Melt Refining Methods 热致变色合金淬火过程中非金属影响的形成及熔融精炼方法
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.012
O. Shinsky, I. Kvasnytska, I. Maksyuta, E. V. Mykhnian
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引用次数: 0
Gas Capacity of Sand-Liquid Glass Forming Rod Mixtures 砂-液-玻璃成型棒混合物的气体容量
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.044
L. Solonenko
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引用次数: 0
Selection for the Composition of the Charge with Minimal Heat Consumption for Smelting Low- Phosphorus Slag 低磷渣熔炼炉料热耗最小的组成选择
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.024
O. Vodennikova, O. B. Matyasheva, L. Vodennikova
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引用次数: 0
Using Computer Simulation to Identify Defects Formation in Steel Castings of Shut-off Valves Casted with Lost Foam Process 用计算机模拟识别消失模铸造截止阀铸钢件的缺陷形成
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.053
І. Shalevska, P. Kaliuzhnyi, E. V. Pohrebach
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引用次数: 0
Neutralization of Gases During Metal Casting According to Gasified Models and Prerequisites for Using 3D Printed Models for This 根据气化模型中和金属铸造过程中的气体以及为此使用3D打印模型的先决条件
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.032
V. Doroshenko
of equipment for making holes (overflows) in the casting mold, it helps to reduce the amount of gasification products in an amount close to the spent LFC methods with models made of expanded polystyrene.
在铸造模具中制造孔(溢流)的设备中,它有助于减少气化产物的量,其量接近于用发泡聚苯乙烯制成的模型的废LFC方法。
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引用次数: 1
Microalloying and Modification of Cast Aluminum Alloys for Increasing their Level of Exploitation Properties at Elevated Temperatures. A Review 提高铸铝合金高温开采性能的微合金化和改性研究。回顾
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.061
M. Voron, M. Pruss, O. Y. Byba
The work is devoted to the analysis of the most effective microalloying additives and modifiers influence on increasing the mechanical properties of Al-Si-based alloys (silumins) during their operation at elevated temperatures. It is shown that cast aluminum alloys based on the Al - Si system belong to a number of cheap and widely used heat-resistant aluminum alloys, but their level of mechanical properties is quite low, and operating temperature limits are mostly determined by 250 °C. Modification and microalloying is widely used to increase the level of operational properties of this type of alloys. In recent years, complex multicomponent modification of silumins by such elements as chromium, manganese, nickel, cobalt, titanium, zirconium and vanadium is considered to be more and more effective in strengthening, grain refinement, shape shifting of iron-containing phases, etc. Triple addition of these elements in a total amount up to 0.25 wt. % in many cases increases the efficiency of modification, compared with the addition of a single element. It is shown, that the addition of vanadium, molybdenum and tungsten helps to increase the hardness of alloys in the cast state. In this case, after hardening and two-stage aging, for alloys with molybdenum there is an increase in yield strength by 10% while maintaining the level of strength. Hafnium is considered as a promising nucleating element, the addition of which also significantly increases the resistance of recrystallization. Its addition to heat-resistant aluminum alloys can provide stabilization of mechanical properties up to 400 0 C. It is necessary to ensure the maximum possible grinding of hafnium intermetallics, especially in the presence of silicon in the alloy. Modification of aluminum alloys with scandium with the addition of titanium, zirconium or hafnium promotes the formation of Al 3 (Sc,Zr/Ti/Hf) dispersoids with a cubic crystal lattice of favorable symmetry L1 2 and a stable layered «core-shell» structure. The content of silicon in the alloy should be minimal due to the formation of harmful silicides. The addition of rare earth metals has a similar effect, but without the formation of layered structures. In this case, REM can form silicides, and can modify eutectic or primary silicon. In both cases, the addition of transition metals or REM, simultaneously with the modification of scandium alloys, increases the high-temperature stability of cast Al-Si-based aluminum alloys mechanical properties of through the formation of less active and diffusion-moving reinforcing dispersed phases.
这项工作致力于分析最有效的微合金化添加剂和改性剂在高温操作过程中对提高Al-Si基合金(硅铝)机械性能的影响。研究表明,基于Al-Si系的铸造铝合金属于一批价格低廉、用途广泛的耐热铝合金,但其力学性能水平较低,工作温度限制大多由250°C决定。改性和微合金化被广泛用于提高这类合金的操作性能。近年来,铬、锰、镍、钴、钛、锆和钒等元素对硅铝进行复杂的多组分改性,被认为在强化、晶粒细化、含铁相变形等方面越来越有效。与添加单一元素相比,在许多情况下,总量高达0.25wt%的这些元素的三次添加增加了改性的效率。结果表明,钒、钼和钨的加入有助于提高合金在铸造状态下的硬度。在这种情况下,在硬化和两阶段时效之后,对于含有钼的合金,在保持强度水平的同时,屈服强度增加了10%。铪被认为是一种很有前途的成核元素,其加入也显著提高了再结晶的阻力。它添加到耐热铝合金中可以提供高达400℃的机械性能稳定。有必要确保铪金属间化合物的最大可能研磨,特别是在合金中存在硅的情况下。添加钛、锆或铪对铝合金进行钪改性,促进了Al3(Sc,Zr/Ti/Hf)分散体的形成,该分散体具有良好对称性的立方晶格L12和稳定的层状“核壳”结构。由于形成有害的硅化物,合金中的硅含量应最小。添加稀土金属具有类似的效果,但没有形成层状结构。在这种情况下,REM可以形成硅化物,并可以改性共晶硅或初生硅。在这两种情况下,过渡金属或REM的加入,与钪合金的改性同时,通过形成活性较低和扩散移动的增强分散相,提高了铸造Al-Si基铝合金的高温稳定性和机械性能。
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引用次数: 1
Scientific and Methodological Analysis of Processing Aluminum Slag 处理铝渣的科学方法分析
Pub Date : 2021-09-01 DOI: 10.15407/plit2021.03.003
A. Verkhovliuk, O. Shcheretskyi, V. Dovbenko, I. Chervonyi, Production Enterprise Ukrcabel Llc
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引用次数: 0
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