journal article·2019-04Open access

Thermal Stability Analysis and Experimental Study of a New Type of Grid-Reinforced Carbon Fiber Mirror

Liang Xu, Jiaoteng Ding, Yongjie Wang, Yongjie Xie, Xiaoge Wu, Zhen Ma

Applied Composite Materials· Volume 26· Issue 2

Abstract

Due to low density, high specific stiffness, and low thermal expansion, carbon fiber reinforced plastic (CFRP) is one of potential materials for high precise components. For high precise structures such as reflectors and optical mirrors, usually strict thermal stability required. In order to ensure rigidity and thermal deformation resistance, carbon fiber mirrors are usually designed as a grid-reinforced sandwich structure. In order to improve the thermal stability of carbon fiber mirrors, a new type of grid-reinforced sandwich structure design is proposed. Finite element method was used to analyze the thermal deformations of the carbon fiber mirror without manufacturing error and with manufacturing error. In order to overcome the effect of moisture absorption deformation, thermal deformation test of the carbon fiber mirror was performed in a vacuum tank. The test results verify the reliability of the finite element analysis results. For Φ100mm center aperture of the Φ150mm carbon fiber mirror, the test results show that the thermal stability is about 4 nm/°C, which is enough for optical mirror application, although “grid effect” existed.
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Research context

OpenAlex topics: Optical Systems and Laser Technology · Adaptive optics and wavefront sensing · Advanced optical system design

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References (11)

Show source-provided references
1. Kasl, E.P., Mehle, G.V., Dyer, J.E.: Recent developments in composite-based optics [J]. Proc. SPIE. 3356, 735–746 (1998)10.1117/12.324492 ↗
2. Chen, P.C., Romeo, R.C.: Advances in composite mirror and telescope technology [J]. Proc. SPIE. 5382, 397–403 (2004)10.1117/12.566260 ↗
3. Chen, P.C., Bowers, C.W.: Etc.: advances in very lightweight composite mirror technology [J]. Opt. Eng. 39(9), 2320–2329 (2000)10.1117/1.1288125 ↗
4. Thompson, S.J., Brooks, D., Doel, A.P.: A nickel-carbon-fibre composite for large adaptive mirrors: fabrication methods and properties [J]. Opt. Express. 16(2), 1321–1330 (2008)10.1364/OE.16.001321 ↗
5. Utsunomiya, S., Kamiya, T., Shimizu, R.: Development of CFRP mirrors for space telescopes [J]. Proc. SPIE. 8837, 88370P1–88370P6 (2013)10.1117/12.2033982 ↗
6. Liang, X., Jiaoteng, D., Yongjie, W., et al.: The development of high precision carbon fiber composite mirror [J]. Proc. SPIE. 9683, 96831Z1–96831Z6 (2016)10.1117/12.2240165 ↗
7. Arao, Y., Koyanagi, J.: Analysis of thermal deformation on a honeycomb sandwich CFRP mirror [J]. Mech. Adv. Mater. Struct. 17(5), 328–334 (2010)10.1080/15376494.2010.488533 ↗
8. Kamiya, T., Utsunomiya, S., Shimizu, R..: Thermal stability of CFRP mirrors for space telescopes under thermal cycle test. Proc. of the 19th International Conference on Composite Materials, 5529–5540 (2013)
9. Liang, X., Yongjie, X., Jiaoteng, D., et al.: Design and optimization of carbon fiber laminate laminates based on thermal stability and constant bending stiffness. Fiber Reinforced Plastics/Composites. 2, 57–62 (2016) (in Chinese)
10. Pryor, M.K.: Hygrothermal stability of laminated CFRP composite mirrors [J]. Proc. SPIE. 4013, 655–662 (2000)10.1117/12.394002 ↗
11. Jiaoteng, D., Liang, X., et al.: The lightweight structure design of a CFRP mirror. Proc. SPIE. 9683, 96831X1–96831X8 (2016)10.1117/12.2240165 ↗