Book Chapters

[BC2] T. Bell, B. Li, and S. Zhang, “Structured light techniques and applications,” Wiley Encyclopedia of Electrical and Electronics Engineering, 1-24, 2016. (Invited tutorial chapter)

[BC1] T. Bell, N. Karpinsky, and S. Zhang, “Real-Time 3D Sensing with Structured Light Techniques,” Interactive Displays: Natural Human-Interface Technologies, Chapter 5, Edited by A.K. Bhowmik, 2014.

Journal Papers

[J18] J. Boyer, A. Estapa, T. Bell, and S. King, “An Automated Virtual Reality Training System for Teacher-Student Interaction: A Randomized Controlled Trial,” JMIR Serious Games;10(4):e41097, 2022.

[J17] B.S. Schwartz, M.G. Finley, and T. Bell, “Foveated 3D range geometry compression via loss-tolerant variable precision depth encoding,” Applied Optics 61.33: 9911-9925, 2022.

[J16] S. Siemonsma and T. Bell “HoloKinect: Holographic 3D Video Conferencing,” Sensors, 22, 8118, 2022.

[J15] J. Boyer, A. Estapa, T. Bell, and S. King, “Behavioral Skills Training Through Smart Virtual Reality: Demonstration of Feasibility for a Verbal Mathematical Questioning Strategy,”Journal of behavioral education, pp. 1-25, 2022.

[J14] M.G. Finley, B.S. Schwartz, J.Y. Nishimura, B. Kubicek, and T. Bell, “SCDeep: Single-Channel Depth Encoding for 3D-Range Geometry Compression Utilizing Deep-Learning Techniques,” Photonics 9, no. 7: 449, 2022.

[J13] M.G. Finley and T. Bell, “Two-channel 3D range geometry compression with primitive depth modification,” Optics and Lasers in Engineering 150:106832, 2022.

[J12] B.S. Schwartz and T. Bell, “Downsampled depth encoding for enhanced 3D range geometry compression,” Appl. Opt. 61, 1559-1568, 2022.

[J11] M.G. Finley and T. Bell, “Depth range reduction for 3D range geometry compression,” Optics and Lasers in Engineering 138:106457, 2021.

[J10] Y. Liao, J. Hyun, M. Feller, T. Bell, I. Bortins, J. Wolfe, D. Baldwin, and S. Zhang, "Portable high‐resolution automated 3D imaging for footwear and tire impression capture," Journal of forensic sciences 66.1: 112-128, 2021.

[J9] M.G. Finley, J.Y. Nishimura, and T. Bell, “Variable precision depth encoding for 3D range geometry compression,” Appl. Opt., 59(17), 5290-5299, 2020.

[J8] M.G. Finley and T. Bell, “Two-Channel Depth Encoding for 3D Range Geometry Compression,” Appl. Opt., 58(25), 6882-6890, 2019. (Cover Feature)

[J7] T. Bell, B. Vlahov, J.P. Allebach, and S. Zhang, “Three-dimensional range geometry compression via phase encoding,” Appl. Opt. 56(33), 9285-9292, 2017.

[J6] B. Li, T. Bell, and S. Zhang, “Computer-aided-design-model-assisted absolute three-dimensional shape measurement,” Appl. Opt. 56(24), 6770-6776, 2017.

[J5] Y. An*, T. Bell*, B. Li, J. Xu, and S. Zhang, “Method for large-range structured light system calibration,” Appl. Opt. 55(33), 9563-9572, 2016. (* denotes co-first authors)

[J4] C. Jiang, T. Bell and S. Zhang, “High dynamic range real-time 3D shape measurement,” Opt. Express 24(7), 7337-7346, 2016. (Cover feature; Image of the Week)

[J3] T. Bell, J. Xu, and S. Zhang, “Method for out-of-focus camera calibration,” Appl. Opt. 55(9), 2346-2352, 2016.

[J2] T. Bell and S. Zhang, “Multiwavelength depth encoding method for 3D range geometry compression,” Appl. Opt. 54(36), 10684-10691, 2015.

[J1] T. Bell and S. Zhang, “Towards superfast three-dimensional optical metrology with digital micro mirror device (DMD) platforms,” Opt. Eng. 53(11), 112206, 2014.

Conference Papers

[C9] B.S. Schwartz and T. Bell, “Assistive mobile application for real-time 3D spatial audio soundscapes toward improving safe and independent navigation,” in Proc. IS&T Int’l. Symp. on Electronic Imaging: 3D Imaging and Applications, 2023, pp. 108-1 — 108-5.

[C8] B.S. Schwartz., M.G. Finley, and T. Bell. "Feature-driven 3D range geometry compression via spatially-aware depth encoding," in Proc. IS&T Int’l. Symp. on Electronic Imaging: 3D Imaging and Applications, 2022, pp 224-1 — 224-6.

[C7] M.G. Finley and T. Bell, “Two-Channel 3D Range Geometry Compression with Virtual Plane Encoding,” in Proc. IS&T Int’l. Symp. on Electronic Imaging: 3D Imaging and Applications, 2021, pp 61-1 — 61-7.

[C6] M.G. Finley and T. Bell, “Variable precision depth encoding for 3D range geometry compression,” Electronic Imaging, 3D Measurement and Data Processing (3DMP), Burlingame, CA, Jan. 2020. (Peer Reviewed) (Best Student Paper Award)

[C5] T. Bell and S. Zhang, “Holo Reality: Real-time, Low-bandwidth 3D Range Video Communications on Consumer Mobile Devices with Application to Augmented Reality,” Electronic Imaging, 3D Measurement and Data Processing (3DMP), Burlingame, CA, Jan. 2019. (Peer Reviewed)

[C4] T. Bell and S. Zhang, “High-resolution 3D optical sensing and real-time 3D video data streaming,” IEEE International Conference on Advanced Intelligent Mechatronics (AIM), Auckland, New Zealand, Jul. 2018. (Invited)

[C3] T. Bell, J.P. Allebach, and S. Zhang, “Holostream: High-Accuracy, High-Speed 3D Range Video Encoding and Streaming Across Standard Wireless Networks,” Electronic Imaging, 3D Image Processing, Measurement (3DIPM), and Applications, Burlingame, CA, Jan. 2018. (Peer Reviewed)

[C2] T. Bell and S. Zhang, “A comparative study on 3D range data compression methods,” SPIE Defense and Commercial Sensing, Proc. SPIE 9868, Dimensional Optical Metrology and Inspection for Practical Applications V, Baltimore, MD, Apr. 2016.

[C1] T. Bell and S. Zhang, “Towards superfast 3D optical metrology with digital micromirror device (DMD) platforms,” Proc. SPIE 8979, Emerging Digital Micromirror Device Based Systems and Applications VI, San Francisco, CA, Feb. 2014.

Patents

[P2] S. Zhang and T. Bell, “System Architecture and Method of Processing Data Therein,” U.S. Patent Application No: 62/651,356. (2021)

[P1] S. Zhang and T. Bell, “Method and System for Multi-Wavelength Depth Encoding for Three Dimensional Range Geometry Compression,” U.S. Patent Application No: 15/367,221. (2021)