Abstract
Significant progress has been made in the past decade in AMOLED displays. Various prototypes such as 40-in. TVs have been demonstrated and mass production of small size AMOLEDs started in 2007 with continuous ramping up of volume. As current driven devices, OLEDs pose tremendous challenge in finding the right active matrix backplanes. As a result, various technologies have been and continue to be investigated for driving AMOLEDs. In this chapter, active matrix for OLEDs will be discussed based on the type of backplane technologies. This is followed by several other considerations in designing the active matrix such as the type of transistors and the image sticking problem. At the end of this chapter a brief summary and outlook for future research and development will be provided.
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Abbreviations
- 2T1C:
-
2 Transistors and 1 Capacitor
- AMLCD:
-
Active Matrix Liquid Crystal Display
- AMOLED:
-
Active Matrix Organic Light Emitting Diode
- a-Si:
-
Amorphous Silicon
- ELA:
-
Excimer Laser Annealing
- LTPS:
-
Low Temperature Poly-Silicon
- MIC:
-
Metal Induced Crystallization
- PECVD:
-
Plasma Enhanced Chemical Vapor Deposition
- RTA:
-
Rapid Thermal Annealing
- SLS:
-
Sequential Lateral Solidification
- SPC:
-
Solid Phase Crystallization
- TFT:
-
Thin Film Transistor
- μc-Si:
-
Microcrystalline Silicon
References
Hong S-K, Kim B-K, Ha Y-M (2007) LTPS technology for improving the uniformity of AMOLEDs. SID ‘07 Dig, 1366–1369
Komiya N, Oh CY, Eom KM, Jeong JT, Chung HK, Choi SM, Kwom OK (2003) Comparison of Vth compensation ability among voltage programming circuits for AMOLED panels. IDW ‘03 Dig 10:275–278
Stewart R (2010) Active matrix OLED pixel design. SID ‘10 Dig, 790–793
Choi JB, Chang YJ, Park C-H, Kim YI, Eom J, Na HD, Chung I-D, Jin SH, Song Y-R, Choi B, Kim HS, Park K, Kim C-W, Souk JH, Kim Y, Jung B (2008) Sequential lateral solidification (SLS) process for large area AMOLED. SID ‘08 Dig 39:97–100
Hekmatshoar B, Cherenack KH, Wagner S, Sturn JC (2008) Amorphous silicon thin-film transistors with DC saturation current half-life of more than 100 years. IEDM, 89–92
Lee J-H, Park H-S, Choi S-H, Lee W-K, Han M-K, Goh J-c, Choi J, Chung K (2007) Highly stable a-Si:H TFT pixel for large area AMOLED by employing both Vth storing and the negative bias annealing. SID Symp Dig, 165–168
Choi H-S, Choi J-S, Hong S-K, Kim B-K, Ha Y-M (2007) LTPS technology for improving the performance of AMOLEDs. IMID 07 Dig, 1781–1784
Jung SH, Lee HK, Kim CY, Yoon SY, Kim CD, Kang IB (2008) 15-inch AMOLED display with SPC TFTs and a symmetric driving method. SID ‘08 Dig 39(1):101–104
Girotra KS, Souk JH, Chung K, Kim S, Kim S, Kim B-J, Yang S-H, Choi B, Goh J, Song Y-R, Choi Y-M (2006) A 14.1 inch AMOLED display using highly stable PECVD based microcrystalline silicon TFT backplane. SID ‘06 Dig 37(1):1972–1975
Urabe T, Sasaoka T, Tatsuki K, Takaki J (2007) Technological evolution for large screen size active matrix OLED display. SID ‘07 Dig 38(1):161–164
Jeong JK, Chung H-J, Mo Y-G, Kim HD (2008) A new era of oxide thin-film transistors for large-sized AMOLED displays. Inf Disp 24(9):20
Mo YG, Kim M, Kang CK, Jeong JH, Park YS, Choi CG, Kim HD, Kim SS (2010) Amorphous oxide TFT backplane for large size AMOLED TVs. SID ‘10 Dig 41(1):1037–1040
Arai T, Morosawa N, Tokunaga K, Terai Y, Fukumoto E, Fujimori T, Nakayama T, Yamaguchi T, Sasaoka T (2010) Highly reliable oxide-semiconductor TFT for AM-OLED display. SID ‘10 Dig 41(1):1033–1036
Matsueda Y, Shin D-Y, Chung H-K (2008) AMOLED technologies for uniform image and sufficient lifetime of image sticking. SID ‘08 Dig 39(1):9–12
Fish D, Young N, Deane S, Steer A, George D, Giraldo A, Lifka H, Gielkens O, Oepts W (2005) Optical feedback for AMOLED display compensation using LTPS and a-Si:H technologies. SID ‘05 Dig 36(1):1340–1343
Han C-W, Kim O-H, Bae S-J, Lee M-K, Nam W-J, Tak Y-H, Kang IB, Chung IJ (2008) 15-inch XGA dual-plate OLED display (DOD) based on amorphous silicon (a-Si) TFT backplane. SID ‘08 Dig 39(1):5–8
Park S-HK, Ryu M, Hwang C-S, Yang S, Byun C, Lee J-I, Shin J, Yoon SM, Chu HY, Cho KI, Lee K, Oh MS, Im S (2008) Transparent ZnO thin film transistor for the application of high aperture ratio bottom emission AM-OLED display. SID ‘08 Dig 39(1):629–632
Song YW, Hwang KH, Yoon SG, Ha JH, Kim KN, Lee JH, Kim SC (2010) LTPS-based transparent AM OLED. SID ‘10 Dig, 1340–1343
Ma R, Rajan K, Hack M, Brown JJ, Cheon JH, Kim SH, Kang MH, Lee WH, Jang J (2008) Highly flexible low power consumption AMOLED displays on ultra thin stainless steel substrate. SID Symp Dig Tech Pap 39(1):425–428
Ma R, Rajan K, Silvernail J, Urbanik K, Paynter J, Mandlik P, Hack M, Brown JJ, Yoo JS, Kim Y-C, Kim I-H, Byun S-C, Jung S-H, Kim J-M, Yoon S-Y, Kim C-D, Kang I-B, Tognoni K, Anderson R, Huffman D (2009) Wearable 4-inch QVGA full color video flexible AMOLEDs for rugged applications. SID Symp Dig Tech Pap 40(1):96–99
Nomoto K (2010) Development of flexible displays driven by organic TFTs. SID ‘10 Dig, 1155–1158
FPD International 2010, Makuhari Messe, Japan
Choi JB, Chang Y-J, Shim S-H, Chung I-D, Park KW, Park KC, Moon KC, Min H-K, Kim C-W, Gadkaree KP, Couillard JG, Cites JS, Ahn SE (2007) AMOLED based on silicon-on-glass (SiOG) technology. SID ‘07 Dig 38:1378
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© 2012 Springer-Verlag Berlin Heidelberg
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Ma, R. (2012). Active Matrix for OLED Displays. In: Chen, J., Cranton, W., Fihn, M. (eds) Handbook of Visual Display Technology. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-540-79567-4_80
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DOI: https://doi.org/10.1007/978-3-540-79567-4_80
Publisher Name: Springer, Berlin, Heidelberg
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