镍基合金精加工时温度的计算

IF 0.4 Q4 METALLURGY & METALLURGICAL ENGINEERING
D. Gubin, A. Kisel’
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引用次数: 0

摘要

介绍切削金属和合金时最重要的任务之一是控制温度因素,因为温度是确定切削条件的限制因素之一。这种方法可以确定合理的(在某些情况下,最佳的)铣削模式。用于确定温度的实验方法是耗费人力的、昂贵的并且并不总是可用的。劳动力消耗的本质在于,由于切削条件的变化、工具和工件的电绝缘、寄生微电压的出现(如果我们谈论的是使用热电偶的温度测量方法),需要不断调整实验设备,仪器的恒定校准和热辐射系数的选择(如果我们谈论的是非接触测量方法)。在这方面,需要在最少使用实验数据的情况下从理论上确定铣削过程中的温度。本工作的目的是:以56%Ni-Cr-W-Mo-Co-Al合金(56%Ni,0.1%C,10%Cr,6.5%W,6%Al,6.5%Mo,0.6%Si,13%Co,1%Fe)为例,建立镍基耐热材料铣削(切削)过程中温度的理论计算方法。研究方法。为了从理论上确定切削温度,形成了一个数学模型,该模型考虑了被加工材料的机械和热物理特性及其随铣削过程中温度变化的变化、切削工具的几何形状和铣削过程的示意图特征。本研究的实验部分是在KFPE-250控制台铣床上进行的,数控系统为Mayak-610。采用Seco JS513050D2C.0Z3-NXT刀具,以不同的速度和进给量对56%Ni-Cr-W-Mo-Co-Al材料进行加工。使用Fluke Ti400热成像仪测量温度。结果和讨论。建立了计算耐热镍基合金铣削过程中温度(77%Ni-Cr-Ti-Al-B、66%Ni-Cr-Mo-W-Ti-Al、73%Ni-Cr-Mo-Nb-Ti-Al和56%Ni-Cr-W-Mo-Co-Al合金组)的理论模型,这使得在改变切削条件(速度、进给、深度、切削刀具几何形状)时能够预测刀具表面和侧面的温度值以及切削温度。对切削温度的实验值和理论预测值的分析表明,相应值之间的一致性令人满意。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Calculation of temperatures during finishing milling of a nickel based alloys
Introduction. One of the most important tasks in cutting metals and alloys is the control of the temperature factor, since temperature is one of the limitations in determining cutting conditions. This approach makes it possible to determine rational (in some cases, optimal) milling modes. Experimental methods for determining the temperature are labor-consuming, costly and not always available. The labor-consuming nature lies in the need for constant adjustment of experimental equipment due to changing cutting conditions, electrical insulation of the tool and workpiece, the appearance of parasitic electrical micro-voltage (if we are talking about temperature measurement methods with thermocouples), constant calibration of instruments and selection of thermal radiation coefficients (if we are talking about non-contact measurement methods). In this regard, there is a need for a theoretical determination of temperatures during milling with minimal use of experimental data. The purpose of the work: to develop a method for theoretical calculation of temperature during milling (cutting) of nickel-based heat-resistant materials on the example of 56% Ni -Cr-W Mo-Co-Al alloy (56% Ni, 0.1% C, 10% Cr, 6.5% W, 6% Al, 6.5% Mo, 0.6% Si, 13 % Co, 1% Fe). Research methodology. To determine theoretically the cutting temperatures, a mathematical model is formed that takes into account the mechanical and thermophysical properties of the material being processed and its change depending on the temperature variations during milling, the geometry of the cutting tool and the features of the schematization of the milling process. The experimental part of the study is carried out on a console milling machine KFPE-250 with a CNC system Mayak-610. The 56% Ni -Cr-W Mo-Co-Al material is processed with a Seco JS513050D2C.0Z3-NXT cutter with different speeds and feeds. The temperature is measured using a Fluke Ti400 thermal imager. Results and discussion. A theoretical model for calculating the temperature (for the group of 77% Ni - Cr - Ti - Al - B, 66% Ni - Cr - Mo - W - Ti - Al, 73% Ni-Cr-Mo-Nb-Ti-Al and 56% Ni -Cr-W Mo-Co-Al alloys) during milling of heat-resistant nickel-based alloys is developed, which makes it possible to predict the temperature value at the face and flank of the tool when changing cutting conditions (speed, feed, depth, cutting tool geometry), as well as the cutting temperature. An analysis of the experimental and theoretically predicted values of the cutting temperature showed a satisfactory agreement between the corresponding values.
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来源期刊
Obrabotka Metallov-Metal Working and Material Science
Obrabotka Metallov-Metal Working and Material Science METALLURGY & METALLURGICAL ENGINEERING-
CiteScore
1.10
自引率
50.00%
发文量
26
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