材料被拉伸时,分子链是滑移还是取向?裂纹从哪里萌生?应力如何集中?过去这类问题常常"拉完再看"——实验结束后才去表征,变形过程中的关键瞬间已经错过。拉曼光谱对分子键振动高度敏感,材料受力时特征峰会发生移动("应力–频移"效应);通过实时追踪峰位移动,即可反推局部应力与应变状态。When a material is stretched, do molecular chains slip or orient? Where does a crack initiate? How does stress concentrate? Previously such questions were studied only after the test. Raman is highly sensitive to molecular-bond vibration: under stress, characteristic peaks shift (the "stress–shift" effect), allowing local stress and strain to be inferred in real time.
设备自重约 1 公斤,外形 160 × 110 × 34 mm,体积小巧,适合放置在显微镜载物台或光谱仪样品台上,作为显微光谱系统的原位附件扩展仪器能力。At only ~1 kg and 160 × 110 × 34 mm, it sits on a microscope stage or spectrometer sample stage as a compact in-situ accessory.

| 最大拉伸力Max tensile force | 3 kgf / 30 N |
|---|---|
| 最大拉伸距离Max travel | 30 mm |
| 拉伸距离精度Displacement resolution | 0.1 mm |
| 拉力精度Force resolution | 1 g / 0.001 N |
| 拉伸台自重Weight | 约 1 kg / approx. 1 kg |
| 外形尺寸Dimensions | 160 × 110 × 34 mm |
| 供电Power supply | 直流 12 V / DC 12 V |
| 连接方式Interface | USB |

欢迎联系我们获取 FiberStage 选型与联用方案Contact us for FiberStage selection and coupling advice
联系我们Contact Us