标准解读

《GB/T 44919-2024 微机电系统(MEMS)技术 薄膜力学性能的鼓胀试验方法》是一项国家标准,旨在为微机电系统中薄膜材料的力学性能测试提供规范化的指导。该标准详细规定了采用鼓胀法测定MEMS器件上薄膜材料弹性模量及断裂强度的方法步骤和技术要求。

标准首先定义了适用范围,明确指出其适用于各种类型MEMS结构中的薄膜材料,包括但不限于硅基、金属基或其他复合材料制成的薄膜。通过本标准所描述的技术手段,可以准确测量这些材料在不同条件下的机械特性,从而帮助设计者更好地理解并优化产品性能。

接着,《GB/T 44919-2024》对实验设备提出了具体要求,如需要使用具有足够精度的压力控制装置来实现薄膜表面均匀加压,并且还需配备能够精确测量位移变化的传感器等。此外,对于样品准备也有严格规定,比如要求薄膜厚度均匀、无明显缺陷等。

在操作流程方面,该标准给出了详细的步骤说明,从样品固定到逐渐增加压力直至薄膜破裂或达到预定形变程度为止。同时强调了在整个过程中需要注意的安全事项以及数据记录方法。


如需获取更多详尽信息,请直接参考下方经官方授权发布的权威标准文档。

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文档简介

ICS

31.080.99

CCS

L59

中华人民共和国国家标准

GB/T44919—2024/IEC62047﹘17:2015

微机电系统(MEMS)技术

薄膜力学性能的鼓胀试验方法

Micro-electromechanicalsystems(MEMS)technology—

Bulgetestmethodformeasuringmechanical

propertiesofthinfilms

(IEC62047-17:2015,Semiconductordevices—Micro-electromechanical

devices—Part17:Bulgetestmethodformeasuring

mechanicalpropertiesofthinfilms,IDT)

2024-11-28发布2024-11-28实施

国家市场监督管理总局发布

国家标准化管理委员会

GB/T44919—2024/IEC62047﹘17:2015

目次

1

范围

··································································································

1

2

规范性引用文件

······················································································

1

3

术语、定义和符号

····················································································

1

3.1

术语和定义

······················································································

1

3.2

符号

······························································································

2

4

鼓胀测试原理

·························································································

2

5

测试装置和测试环境

·················································································

3

5.1

通则

······························································································

3

5.2

装置

······························································································

3

5.3

测试环境

·························································································

4

6

试样

··································································································

4

6.1

通则

······························································································

4

6.2

试样形状和尺寸

·················································································

4

6.3

试样尺寸测量

····················································································

5

7

测试程序和分析

······················································································

5

7.1

测试程序

·························································································

5

7.2

数据分析

·························································································

6

8

测试报告

······························································································

7

附录A(资料性)力学特性的测定

···································································

8

A.1

概述

·····························································································

8

A.2

使用应力﹘应变曲线测定力学特性

·······························································

8

A.3

使用荷载﹘挠度分析测定力学特性

·······························································

9

附录B(资料性)形变测量技术

·····································································

11

B.1

概述

····························································································

11

B.2

激光干涉技术

··················································································

11

B.3

电容式测量

·····················································································

11

附录C(资料性)试样制造示例:MEMS工艺

·····················································

16

C.1

试样制造

·······················································································

16

C.2

试样形状测量

··················································································

16

参考文献

································································································

17

GB/T44919—2024/IEC62047﹘17:2015

前言

本文件按照GB/T1.1—2020《标准化工作导则

第1部分:标准化文件的结构和起草规则》的规

定起草。

本文件等同采用IEC62047﹘17:2015《半导体器件

微机电器件

第17部分:薄膜机械性能的打压

试验方法》。

本文件做了下列最小限度的编辑性改动:

—为与现有标准协调,将标准名称改为《微机电系统(MEMS)技术

薄膜力学性能的鼓胀试验

方法》;

—更正了国际标准中的印刷错误,将6.1中参考“附录B”改为“附录C”。

请注意本文件的某些内容可能涉及专利。本文件的发布机构不承担识别专利的责任。

本文件由全国微机电技术标准化技术委员会(SAC/TC336)提出并归口。

本文件起草单位:中国科学院微电子研究所、中机生产力促进中心有限公司、苏州容启传感器科技

有限公司、武汉大学、北京大学、昆山昆博智能感知产业技术研究院有限公司、苏州晶方半导体科技股

份有限公司、苏州慧闻纳米科技有限公司、工业和信息化部电子第五研究所、深圳市美思先端电子有限

公司、东南大学、芯联集成电路制造股份有限公司、中关村光电产业协会、华东电子工程研究所(中国

电子科技集团公司第三十八研究所)、上海交通大学、明石创新(烟台)微纳传感技术研究院有限公

司、武汉高德红外股份有限公司。

本文件主要起草人:周维虎、李根梓、孙宏霖、刘胜、霍树春、高成臣、焦斌斌、陈立国、杨剑宏、

张平平、陈志文、陈思、马龙全、黄庆安、聂萌、谢红梅、陈晓梅、卢永红、张红旗、刘景全、高峰、

黄晟。

GB/T44919—2024/IEC62047﹘17:2015

微机电系统(MEMS)技术

薄膜力学性能的鼓胀试验方法

1范围

本文件描述了窗口薄膜的鼓胀测试方法。试样由微米/纳米结构薄膜材料制备,包括金属、陶瓷和

聚合物等薄膜,用于微机电系统(MEMS)、微机械等领域。薄膜厚度范围为0.1μm~10μm。正方形

和长方形窗口宽度范围0.5mm~4mm,圆形窗口直径范围0.5mm~4mm。

本文件适用于常温环境条件下,对窗口薄膜试样施加均匀压力进行弹性模量和残余应力测

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