Non-Volatile Photonic Memory Based on a SAHAS Configuration

被引:9
作者
Olivares, Irene [1 ]
Parra, Jorge [1 ]
Sanchis, Pablo [1 ]
机构
[1] Univ Politecn Valencia, Nanophoton Technol Ctr, Valencia 46022, Spain
来源
IEEE PHOTONICS JOURNAL | 2021年 / 13卷 / 02期
关键词
Photonics; Silicon; Logic gates; Nonvolatile memory; Writing; Tunneling; SONOS devices; Silicon photonics; photonic memory; non-volatile; integrated photonics; plasma dispersion effect;
D O I
10.1109/JPHOT.2021.3060144
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
The non-volatile memory is a crucial functionality for a wide range of applications in photonic integrated circuits, however, it still poses a challenge in silicon photonic technology. This problem has been overcome in the microelectronic industry by using SONOS (silicon-oxide-nitride-oxide-silicon) memory cells, in which the non-volatility is enabled by a dielectric trapping layer such as silicon nitride. Analogously, in this work, a similar approach in which the nitride has been replaced by a hafnium oxide layer, named as SAHAS configuration, is proposed for enabling a programmable erasable photonic memory fully compatible with the silicon platform. The structure features an efficient performance with writing and erasing times of 100 mu s, retention times over 10 years and energy consumption in the pJ range, which improve the current SONOS or floating gate based photonic approaches that exploit the plasma dispersion effect in silicon. The proposed non-volatile photonic memory device shows an extinction ratio above 12 dB and insertion losses below 1 dB in a compact footprint. In addition, because the memory is optically read, ultrafast access times in the picosecond range are also achieved.
引用
收藏
页数:9
相关论文
共 50 条
  • [41] SMART: A Secure Magnetoelectric AntifeRromagnet-Based Tamper-Proof Non-Volatile Memory
    Rangarajan, Nikhil
    Patnaik, Satwik
    Knechtel, Johann
    Sinanoglu, Ozgur
    Rakheja, Shaloo
    IEEE ACCESS, 2020, 8 (08): : 76130 - 76142
  • [42] GaN Non-Volatile Memory Based on Junction Barrier-Controlled Bipolar Charge Trapping
    Chen, Tao
    Zheng, Zheyang
    Feng, Sirui
    Zhang, Li
    Song, Wenjie
    Chen, Kevin J.
    IEEE ELECTRON DEVICE LETTERS, 2022, 43 (05) : 697 - 700
  • [43] Non-Volatile Silicon Photonics Using Nanoscale Flash Memory Technology
    Grajower, Meir
    Mazurski, Noa
    Shappir, Joseph
    Levy, Uriel
    LASER & PHOTONICS REVIEWS, 2018, 12 (04)
  • [44] ZnO as dielectric for optically transparent non-volatile memory
    Salim, N. Tjitra
    Aw, K. C.
    Gao, W.
    Wright, Bryon E.
    THIN SOLID FILMS, 2009, 518 (01) : 362 - 365
  • [45] Atlas: Leveraging Locks for Non-volatile Memory Consistency
    Chakrabarti, Dhruva R.
    Boehm, Hans-J.
    Bhandari, Kumud
    ACM SIGPLAN NOTICES, 2014, 49 (10) : 433 - 452
  • [46] Retention Analysis of a Non-Volatile Ferroelectric Memory Device
    John, Caroline S.
    Macleod, Todd C.
    Evans, Joe
    Ho, Fat D.
    INTEGRATED FERROELECTRICS, 2012, 140 : 23 - 34
  • [47] Object-Oriented Recovery for Non-volatile Memory
    Cohen, Nachshon
    Aksun, David T.
    Larus, James R.
    PROCEEDINGS OF THE ACM ON PROGRAMMING LANGUAGES-PACMPL, 2018, 2
  • [48] Non-Volatile Memory Destructive Failure in Standby Mode
    Wang, Pierre-Xiao
    Bosser, Alexandre
    Kohler, Pierre
    Lopez, Thibaut
    Lochon, Frederic
    Duran, Gabriel
    2021 21ST EUROPEAN CONFERENCE ON RADIATION AND ITS EFFECTS ON COMPONENTS AND SYSTEMS (RADECS), 2021, : 271 - 274
  • [49] Object-Oriented Recovery for Non-volatile Memory
    Cohen, Nachshon
    Aksun, David T.
    Larus, James R.
    PROCEEDINGS OF THE ACM ON PROGRAMMING LANGUAGES-PACMPL, 2018, 2
  • [50] Makalu: Fast Recoverable Allocation of Non-volatile Memory
    Bhandari, Kumud
    Chakrabarti, Dhruva R.
    Boehm, Hans-J.
    ACM SIGPLAN NOTICES, 2016, 51 (10) : 677 - 694