Research on Optimization of Stabilization Treatment Process Methods for Electromagnetic Relay

doi:10.16628/j.cnki.2095-8188.2025.06.009

Abstract

Abstract:

As a key component widely used in various electrical control systems, the performance stability of electromagnetic relay is directly related to the reliable operation of the systems. An study of the stabilization treatment process of electromagnetic relay is focused on. By comprehensively analyzing the existing processes, problems such as inaccurate processing parameters, lack of comprehensive consideration of multiple factors, and low process efficiency are identified. Furthermore, by combining experimental and theoretical analysis, the effective methods for optimizing the stabilization treatment process are systematically explored. The aim is to comprehensively improve the performance stability and reliability of electromagnetic relay, providing the reference for the product research.

Key words: electromagnetic relay, stabilization treatment process, performance stability, reliability

CLC Number:

TM581.3

CHEN Jun, YANG Nan, ZHAO Chengwei, WU Shengxiu, ZENG Qinwu. Research on Optimization of Stabilization Treatment Process Methods for Electromagnetic Relay[J]. LOW VOLTAGE APPARATUS, 2025, 0(6): 56-59.

试验方案	样品序号	老炼要求
S1	#1~#10	老炼温度180 ℃,12 h, 机械老炼3 000次
S2	#11~#20	老炼温度180 ℃,24 h, 机械老炼3 000次
S3	#21~#30	老炼温度180 ℃,48 h, 机械老炼3 000次

试验方案	序号	触点压力/mN	接触电阻/mΩ
S1	#1	340	33
	#2	360	31
	#3	350	32
	#4	340	33
	#5	360	32
	#6	360	31
	#7	370	30
	#8	345	33
	#9	350	32
	#10	370	30
S2	#11	370	30
	#12	360	31
	#13	370	30
	#14	370	30
	#15	360	31
	#16	345	32
	#17	370	30
	#18	360	31
	#19	370	30
	#20	360	32
S3	#21	360	31
	#22	370	30
	#23	370	30
	#24	370	30
	#25	370	30
	#26	360	31
	#27	370	31
	#28	370	30
	#29	345	32
	#30	360	31

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Research on Optimization of Stabilization Treatment Process Methods for Electromagnetic Relay

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试验方案	序号	触点压力/mN	接触电阻/mΩ
S1	#1	340	33
	#2	360	31
	#3	350	32
	#4	340	33
	#5	360	32
	#6	360	31
	#7	370	30
	#8	345	33
	#9	350	32
	#10	370	30
S2	#11	370	30
	#12	360	31
	#13	370	30
	#14	370	30
	#15	360	31
	#16	345	32
	#17	370	30
	#18	360	31
	#19	370	30
	#20	360	32
S3	#21	360	31
	#22	370	30
	#23	370	30
	#24	370	30
	#25	370	30
	#26	360	31
	#27	370	31
	#28	370	30
	#29	345	32
	#30	360	31

试验方案	序号	触点压力/mN	接触电阻/mΩ
S1	#1	340	33
	#2	360	31
	#3	350	32
	#4	340	33
	#5	360	32
	#6	360	31
	#7	370	30
	#8	345	33
	#9	350	32
	#10	370	30
S2	#11	370	30
	#12	360	31
	#13	370	30
	#14	370	30
	#15	360	31
	#16	345	32
	#17	370	30
	#18	360	31
	#19	370	30
	#20	360	32
S3	#21	360	31
	#22	370	30
	#23	370	30
	#24	370	30
	#25	370	30
	#26	360	31
	#27	370	31
	#28	370	30
	#29	345	32
	#30	360	31

试验方案	序号	触点压力/mN	接触电阻/mΩ
S1	#1	340	33
	#2	360	31
	#3	350	32
	#4	340	33
	#5	360	32
	#6	360	31
	#7	370	30
	#8	345	33
	#9	350	32
	#10	370	30
S2	#11	370	30
	#12	360	31
	#13	370	30
	#14	370	30
	#15	360	31
	#16	345	32
	#17	370	30
	#18	360	31
	#19	370	30
	#20	360	32
S3	#21	360	31
	#22	370	30
	#23	370	30
	#24	370	30
	#25	370	30
	#26	360	31
	#27	370	31
	#28	370	30
	#29	345	32
	#30	360	31