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SCIENCE CHINA Information Sciences, Volume 61, Issue 8: 080404(2018) https://doi.org/10.1007/s11432-018-9391-1

Photonic integration technologies for indoor optical wireless communications

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  • ReceivedJan 12, 2018
  • AcceptedMar 5, 2018
  • PublishedJul 9, 2018

Abstract

Indoor optical wireless communication (OWC) using steerable infrared beams is regarded as an important component in future 5G network. Photonic integration technologies can meet the criteria of such application, and provide low-cost, high-performance and very compact chips. In this paper, we review the recent development of photonic integration technologies suitable for indoor OWC application, and discuss in detail the current status and future opportunities of several key devices, such as the chip to free space couplers, integrated receivers and transmitters.


Acknowledgment

This work was supported by Netherlands Organization for Scientific Research (NWO) Gravitation Project Integrated Nanophotonics, and European Research Council (ERC) Advanced Grant Projects NOLIMITS (Grant No. 291439) and BROWSE (Grant No. 291632).


References

[1] Ejaz W, Anpalagan A, Imran M A. Internet of Things (IoT) in 5G Wireless Communications. IEEE Access, 2016, 4: 10310-10314 CrossRef Google Scholar

[2] Li Q C, Niu H, Papathanassiou A T. 5G Network Capacity: Key Elements and Technologies. IEEE Veh Technol Mag, 2014, 9: 71-78 CrossRef Google Scholar

[3] Koonen A M J, Tangdiongga E. Photonic Home Area Networks. J Lightwave Technol, 2014, 32: 591-604 CrossRef ADS Google Scholar

[4] Li X, Lu R, Liang X. Smart community: an internet of things application. IEEE Commun Mag, 2011, 49: 68-75 CrossRef Google Scholar

[5] Riazul Islam S M, Daehan Kwak S M, Humaun Kabir M. The Internet of Things for Health Care: A Comprehensive Survey. IEEE Access, 2015, 3: 678-708 CrossRef Google Scholar

[6] Boccardi F, Heath R, Lozano A. Five disruptive technology directions for 5G. IEEE Commun Mag, 2014, 52: 74-80 CrossRef Google Scholar

[7] Koonen T, Oh J, Mekonnen K. Ultra-High Capacity Indoor Optical Wireless Communication Using 2D-Steered Pencil Beams. J Lightwave Technol, 2016, 34: 4802-4809 CrossRef ADS Google Scholar

[8] Jungnickel V, Schulz D, Hilt J, et al. Optical wireless communication for backhaul and access. In: Proceedings of 2015 European Conference on Optical Communication (ECOC), Valencia, 2015. 0643. Google Scholar

[9] O'Brien D, Turnbull R, Le Minh H. High-Speed Optical Wireless Demonstrators: Conclusions and Future Directions. J Lightwave Technol, 2012, 30: 2181-2187 CrossRef ADS Google Scholar

[10] Haas H. Visible light communication. In: Proceedings of Optical Fiber Communication Conference, Los Angeles, 2015. Tu2G.5. Google Scholar

[11] Cao Z, Jiao Y, Shen L. Ultrahigh Throughput Indoor Infrared Wireless Communication System Enabled by a Cascaded Aperture Optical Receiver Fabricated on InP Membrane. J Lightwave Technol, 2018, 36: 57-67 CrossRef ADS Google Scholar

[12] Summers J, Vallaitis T, Evans P, et al. 40 Channels $\times$ 57 Gb/s monolithically integrated InP-based coherent photonic transmitter. In: Proceedings of 2014 European Conference on Optical Communication (ECOC), Cannes, 2014. 1--3. Google Scholar

[13] Smit M, Leijtens X, Ambrosius H. An introduction to InP-based generic integration technology. Semicond Sci Technol, 2014, 29: 083001 CrossRef ADS Google Scholar

[14] Roelkens G, Abassi A, Cardile P. III-V-on-Silicon Photonic Devices for Optical Communication and Sensing. Photonics, 2015, 2: 969-1004 CrossRef Google Scholar

[15] Coldren L A, Nicholes S C, Johansson L. High Performance InP-Based Photonic ICs-A Tutorial. J Lightwave Technol, 2011, 29: 554-570 CrossRef ADS Google Scholar

[16] Williams K A, Bente E A J M, Heiss D. InP photonic circuits using generic integration [Invited]. Photon Res, 2015, 3: B60 CrossRef Google Scholar

[17] Wale M, Van der Tol J, Leijtens X. Generic foundry model for InP-based photonics. IET OptoElectron, 2011, 5: 187-194 CrossRef Google Scholar

[18] Nanophotonic Waveguides in Silicon-on-Insulator Fabricated With CMOS Technology. J Lightwave Technol, 2005, 23: 401-412 CrossRef ADS Google Scholar

[19] Roelkens G, van Campenhout J, Brouckaert J, et al. III-V/Si photonics by die-to-wafer bonding. Mater Today, 2007, 10: 36--43. Google Scholar

[20] Liang D, Roelkens G, Baets R. Hybrid Integrated Platforms for Silicon Photonics. Materials, 2010, 3: 1782-1802 CrossRef ADS Google Scholar

[21] Luo X, Cheng Y, Song J. Wafer-Scale Dies-Transfer Bonding Technology for Hybrid III/V-on-Silicon Photonic Integrated Circuit Application. IEEE J Sel Top Quantum Electron, 2016, 22: 443-454 CrossRef Google Scholar

[22] Keyvaninia S, Verstuyft S, Van Landschoot L. Heterogeneously integrated III-V/silicon distributed feedback lasers. Opt Lett, 2013, 38: 5434-5437 CrossRef ADS Google Scholar

[23] van der Tol J J G M, Jiao Y, Shen L, et al. Indium phosphide integrated photonics in membranes. IEEE J Sel Topics Quant Electron, 2018, 24: 6100809. Google Scholar

[24] Inoue D, Hiratani T, Fukuda K, et al. Integrated optical link on si substrate using membrane distributed-feedback laser and p-i-n photodiode. IEEE J Sel Topics Quant Electron, 2017, 23: 3700208. Google Scholar

[25] Matsuo S, Fujii T, Hasebe K. Directly modulated buried heterostructure DFB laser on SiO_2/Si substrate fabricated by regrowth of InP using bonded active layer. Opt Express, 2014, 22: 12139-12147 CrossRef ADS Google Scholar

[26] Shen L, Jiao Y, Rodriguez A H, et al. Double-sided processing for membrane-based photonic integration. In: Proceedings of the 18th European Conference on Integrated Optics (ECIO 2016), Warsaw, 2016. Google Scholar

[27] Pogoretskiy V, van Engelen J, van der Tol J, et al. An integrated SOA-building block for an InP-membrane platform. In: Proceedings of Integrated Photonics Research, Silicon and Nanophotonics, New Orleans, 2017. JW4A.1. Google Scholar

[28] Weihua Guo , Binetti P R A, Althouse C. Two-Dimensional Optical Beam Steering With InP-Based Photonic Integrated Circuits. IEEE J Sel Top Quantum Electron, 2013, 19: 6100212-6100212 CrossRef Google Scholar

[29] Song W, Gatdula R, Abbaslou S. High-density waveguide superlattices with low crosstalk. Nat Commun, 2015, 6: 7027 CrossRef PubMed ADS Google Scholar

[30] Jie Sun , Timurdogan E, Yaacobi A. Large-Scale Silicon Photonic Circuits for Optical Phased Arrays. IEEE J Sel Top Quantum Electron, 2014, 20: 264-278 CrossRef Google Scholar

[31] Van Laere F, Roelkens G, Ayre M. Compact and Highly Efficient Grating Couplers Between Optical Fiber and Nanophotonic Waveguides. J Lightwave Technol, 2007, 25: 151-156 CrossRef ADS Google Scholar

[32] Wang Y, Wang X, Flueckiger J. Focusing sub-wavelength grating couplers with low back reflections for rapid prototyping of silicon photonic circuits. Opt Express, 2014, 22: 20652-20662 CrossRef ADS Google Scholar

[33] Millan-Mejia A J, Jiao Y, van der Tol J J G M, et al. Design of an optical nanoantenna with focusing sub-wavelength grating couplers and metallic reflector. In: Prcoeedings of the 24th Optical Wave And Waveguide Theory And Numerical Modelling Workshop (OWTNM 2016), Warsaw, 2016. Google Scholar

[34] Taillaert D, Bogaerts W, Bienstman P. An out-of-plane grating coupler for efficient butt-coupling between compact planar waveguides and single-mode fibers. IEEE J Quantum Electron, 2002, 38: 949-955 CrossRef ADS Google Scholar

[35] Jiao Y, Pello J, Mejia A M. Fullerene-assisted electron-beam lithography for pattern improvement and loss reduction in InP membrane waveguide devices. Opt Lett, 2014, 39: 1645-1648 CrossRef ADS Google Scholar

[36] Higuera-Rodriguez A, Dolores-Calzadilla V, Jiao Y. Realization of efficient metal grating couplers for membrane-based integrated photonics. Opt Lett, 2015, 40: 2755-2757 CrossRef ADS Google Scholar

[37] Van Laere F, Stomeo T, Taillaert D. Efficient Polarization Diversity Grating Couplers in Bonded InP-Membrane. IEEE Photon Technol Lett, 2008, 20: 318-320 CrossRef ADS Google Scholar

[38] Streshinsky M, Shi R, Novack A. A compact bi-wavelength polarization splitting grating coupler fabricated in a 220 nm SOI platform. Opt Express, 2013, 21: 31019-31028 CrossRef ADS Google Scholar

[39] Heismann F, Smith R W. High-speed polarization scrambler with adjustable phase chirp. IEEE J Sel Top Quantum Electron, 1996, 2: 311-318 CrossRef Google Scholar

[40] Yang R, Wang W. Out-of-plane polymer refractive microlens fabricated based on direct lithography of SU-8. Senss Actuators A-Phys, 2004, 113: 71-77 CrossRef Google Scholar

[41] Kuo J N, Hsieh C C, Yang S Y. An SU-8 microlens array fabricated by soft replica molding for cell counting applications. J Micromech Microeng, 2007, 17: 693-699 CrossRef ADS Google Scholar

[42] Chang L, Dijkstra M, Ismail N. Waveguide-coupled micro-ball lens array suitable for mass fabrication. Opt Express, 2015, 23: 22414-22423 CrossRef ADS Google Scholar

[43] O'Brien D C, Faulkner G E, Zyambo E B. Integrated transceivers for optical wireless communications. IEEE J Sel Top Quantum Electron, 2005, 11: 173-183 CrossRef Google Scholar

[44] Le Minh H, O'Brien D, Faulkner G. A 1.25-Gb/s Indoor Cellular Optical Wireless Communications Demonstrator. IEEE Photon Technol Lett, 2010, 22: 1598-1600 CrossRef ADS Google Scholar

[45] Cossu G, Khalid A M, Choudhury P. 34 Gbit/s visible optical wireless transmission based on RGB LED. Opt Express, 2012, 20: B501 CrossRef ADS Google Scholar

[46] Cao Z, Jiao Y, Shen L, et al. Optical wireless data transfer enabled by a cascaded acceptance optical receiver fabricated in an InP membrane platform. In: Proceedings of Optical Fiber Communication Conference (OFC), Anaheim, 2016. M2B.3. Google Scholar

[47] Cao Z, Shen L, Jiao Y, et al. 200 Gbps OOK transmission over an indoor optical wireless link enabled by an integrated cascaded aperture optical receiver. In: Proceedings of Optical Fiber Communication Conference (OFC), Los Angeles, 2017. Th5A.6. Google Scholar

[48] Shen L, Jiao Y, Yao W. High-bandwidth uni-traveling carrier waveguide photodetector on an InP-membrane-on-silicon platform. Opt Express, 2016, 24: 8290-8301 CrossRef ADS Google Scholar

[49] Chen H, Galili M, Verheyen P, et al. 100 Gbps RZ Data Reception in 67 GHz Si-Contacted Germanium Waveguide p-i-n Photodetectors. J Lightw Technol, 2016, 35: 722--726. Google Scholar

[50] Xie X, Zhou Q, Norberg E, et al. Heterogeneously integrated waveguide-coupled photodiodes on SOI with 12 dBm output power at 40 GHz. In: Proceedings of Optical Fiber Communication Conference (OFC), Los Angeles, 2015. Th5B.7. Google Scholar

[51] Lee S S, Lin L Y, Pister K S J. Passively aligned hybrid integration of 8 x 1 micromachined micro-Fresnel lens arrays and 8 x 1 vertical-cavity surface-emitting laser arrays for free-space optical interconnect. IEEE Photon Technol Lett, 1995, 7: 1031-1033 CrossRef ADS Google Scholar

[52] Strzelecka E M, Louderback D A, Thibeault B J. Parallel Free-Space Optical Interconnect Based on Arrays of Vertical-Cavity Lasers and Detectors with Monolithic Microlenses. Appl Opt, 1998, 37: 2811-2821 CrossRef ADS Google Scholar

[53] Tuantranont A, Bright V M, Zhang J. Optical beam steering using MEMS-controllable microlens array. Senss Actuators A-Phys, 2001, 91: 363-372 CrossRef Google Scholar

[54] Tilma B W, Jiao Y, van Veldhoven P J. InP-Based Monolithically Integrated Tunable Wavelength Filters in the 1.6-1.8 mu m Wavelength Region for Tunable Laser Purposes. J Lightwave Technol, 2011, 29: 2818-2830 CrossRef ADS Google Scholar

[55] Latkowski S, Hansel A, Bhattacharya N, et al. Novel widely tunable monolithically integrated laser source. IEEE Photonics J, 2015, 7: 1--9. Google Scholar

[56] Komljenovic T, Bowers J E. Monolithically integrated high-Q rings for narrow linewidth widely tunable lasers. IEEE J Quant Electron, 2015, 51: 1--10. Google Scholar

[57] Tilma B W, Jiao Y, Kotani J. Integrated Tunable Quantum-Dot Laser for Optical Coherence Tomography in the 1.7 mum Wavelength Region. IEEE J Quantum Electron, 2012, 48: 87-98 CrossRef ADS Google Scholar

[58] Jiao Y. Towards a monolithically integrated swept-source optical coherence tomography system in the 1.7 $\mu$m wavelength region. Dissertation for Ph.D. Degree. Eindhoven: Eindhoven University of Technology, 2013. Google Scholar

[59] Moskalenko V, Koelemeij J, Williams K. Study of extra wide coherent optical combs generated by a QW-based integrated passively mode-locked ring laser. Opt Lett, 2017, 42: 1428-1431 CrossRef ADS Google Scholar

[60] Doylend J K, Heck M J R, Bovington J T. Two-dimensional free-space beam steering with an optical phased array on silicon-on-insulator. Opt Express, 2011, 19: 21595-21604 CrossRef ADS Google Scholar

[61] Hulme J C, Doylend J K, Heck M J R, et al. Fully integrated hybrid silicon free-space beam steering source with 32-channel phased array. In: Proceedings of the International Society for Optics and Photonics (SPIE), Washington, 2014. 898907. Google Scholar

[62] Hutchison D N, Sun J, Doylend J K. High-resolution aliasing-free optical beam steering. Optica, 2016, 3: 887-890 CrossRef Google Scholar

[63] Abediasl H, Hashemi H. Monolithic optical phased-array transceiver in a standard SOI CMOS process. Opt Express, 2015, 23: 6509-6519 CrossRef ADS Google Scholar

[64] Heck M J R. Highly integrated optical phased arrays: photonic integrated circuits for optical beam shaping and beam steering. Nanophotonics, 2017, 6: 93-107 CrossRef ADS Google Scholar

[65] Vinchant J F, Cavailles J A, Erman M. InP/GaInAsP guided-wave phase modulators based on carrier-induced effects: theory and experiment. J Lightwave Technol, 1992, 10: 63-70 CrossRef ADS Google Scholar

[66] Liu K, Ye C R, Khan S. Review and perspective on ultrafast wavelength-size electro-optic modulators. Laser Photonics Rev, 2015, 9: 172-194 CrossRef Google Scholar

[67] Wülbern J H, Prorok S, Hampe J. 40 GHz electro-optic modulation in hybrid silicon-organic slotted photonic crystal waveguides. Opt Lett, 2010, 35: 2753-2755 CrossRef ADS Google Scholar

[68] Palmer R, Alloatti L, Korn D. Silicon-Organic Hybrid MZI Modulator Generating OOK, BPSK and 8-ASK Signals for Up to 84 Gbit/s. IEEE Photonics J, 2013, 5: 6600907-6600907 CrossRef Google Scholar

[69] Pruessner M W, Stievater T H, Ferraro M S. Thermo-optic tuning and switching in SOI waveguide Fabry-Perot microcavities. Opt Express, 2007, 15: 7557-7563 CrossRef ADS Google Scholar

[70] Sun P, Reano R M. Submilliwatt thermo-optic switches using free-standing silicon-on-insulator strip waveguides. Opt Express, 2010, 18: 8406 CrossRef ADS Google Scholar

[71] Gilardi G, Weiming Yao G, Rabbani Haghighi H. Deep Trenches for Thermal Crosstalk Reduction in InP-Based Photonic Integrated Circuits. J Lightwave Technol, 2014, 32: 4864-4870 CrossRef ADS Google Scholar

[72] Jiao Y, Cao Z, Shen L. Membrane-Based Receiver/Transmitter for Reconfigurable Optical Wireless Beam-Steering Systems. IEEE J Sel Top Quantum Electron, 2018, 24: 1-6 CrossRef Google Scholar

[73] Cao Z, Ma Q, Smolders A B. Advanced Integration Techniques on Broadband Millimeter-Wave Beam Steering for 5G Wireless Networks and Beyond. IEEE J Quantum Electron, 2016, 52: 1-20 CrossRef Google Scholar

[74] Sun C, Wade M T, Lee Y. Single-chip microprocessor that communicates directly using light. Nature, 2015, 528: 534-538 CrossRef PubMed ADS Google Scholar

  • Figure 1

    (Color online) Schematic illustration of typical (a) generic InP platform [13]@Copyright 2018 IOP, (b) InP/Si heterogeneous laser/amplifier [22]@Copyright 2018 OSA, and (c) InP membrane laser/amplifier [27].

  • Figure 2

    (Color online) Structures of (a) a weak grating coupler in monothic InP platform [28]@Copyright 2018 IEEE, (b) a compact grating coupler in silicon photonic platform [30]@Copyright 2018 IEEE, (c) a metallic grating coupler in InP membrane platform using double-side processing technology [31]@Copyright 2018 OSA and (d) a polarization diversity grating coupler [32]@Copyright 2018 IEEE.

  • Figure 3

    (Color online) (a) Schematic illustration of polymer-based microlens integrated with waveguides [42]@Copyright 2018 OSA and (b) simplified process mechanism.

  • Figure 4

    (Color online) (a) Schematic illustration and (b) maximum predicted capacity of TI-PDs and novel cascaded receivers [11]@Copyright 2018 IEEE.

  • Figure 5

    (Color online) Pictures of the fabricated cascaded receiver using a UTC photodetector and a surface grating coupler [11,47]@Copyright 2018 IEEE. (a) Complete device, (b) surface grating coupler and (c) UTC photodetector.

  • Figure 6

    (Color online) Pictures of the high-performance lasers realized on generic InP platforms, with (a) record-wide tuning range in a single chip [55]@Copyright 2018 IEEE, (b) fast wavelength continuous sweep[57,58], and (c) wide optical combs [59]@Copyright 2018 OSA.

  • Figure 7

    (Color online) Layouts of the (a) fully integrated 1D phased array with additional wavelength steering [28]@Copyright 2018 IEEE, (b) 2D phased array using silicon photonic technology [63]@Copyright 2018 OSA.

  • Figure 8

    (Color online) Schematic illustration of the reconfigurable optical wireless transceiver proposed in [72]. (a) Receiver mode and (b) transmitter mode.

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