Misplaced Pages

Non linear piezoelectric effects in polar semiconductors are the manifestation that the strain induced piezoelectric polarization depends not just on the product of the first order piezoelectric coefficients times the strain tensor components but also on the product of the second order (or higher) piezoelectric coefficients times products of the strain tensor components. The idea was put forward experimentally for zincblende CdTe heterostructures in 1992, It was confirmed in 1996 by the application of a hydrostatic pressure to the same heterostructures, and found to agree with the results of an ab initio approach, but also to a simple calculation using what is currently known as the Harrisson’s Model. The idea was then extended to all commonly used wurtzite and zincblende semiconductors. Given the difficulty of finding direct experimental evidence for the existence of these effects, there are different schools of thought on how one can calculate reliably all the piezoelectric coefficients. On the other hand, there is widespread agreement on the fact that non linear effects are rather large and comparable to the linear terms (first order). Indirect experimental evidence of the existence of these effects has been also reported in the literature in relation to GaN and InN semiconductor optoelectronic devices.

History

Non linear piezoelectric effects in polar semiconductors were first reported in 1996 by R. André et al. in zincblende cadmium telluride and later on by G.Bester et al. in 2006 and by M.A. Migliorato et al., in relation to zincblende GaAs and InAs. Different methods were used and while the influence of second (and third) order piezoelectric coefficients was generally recognized as being comparable to first order, fully ab initio and simple approaches using the Harrison's model, appeared to predict slightly different results, particularly for the magnitude of the first order coefficients.

Formalism

While first order piezoelectric coefficients are of the form e_ij, the second and third order coefficients are in the form of a higher rank tensor, expressed as e_ijk and e_ijkl. The piezoelectric polarization would then be expressed in terms of products of the piezoelectric coefficients and strain components, products of two strain components, and products of three strain components for the first, second, and third order approximation respectively.

Available Non Linear Piezoelectric Coefficients

Many more articles were published on the subject. Non linear piezoelectric coefficients are now available for many different semiconductor materials and crystal structures:

• zincblende CdTe, experiments (under pseudomorphic strain and hydrostatic pressure ), and theory (ab initio and using Harrison's Model )
• zincblende GaAs and InAs, under pseudomorphic strain, using Harrison's Model
• zincblende GaAs and InAs, for any combination of diagonal strain components, using Harrison's Model
• All common III-V semiconductors in the zincblende structure using ab initio
• GaN, AlN, InN in the Wurtzite crystal structure, using Harrison's Model
• GaN, AlN, InN in the Wurtzite crystal structure, using ab initio
• ZnO in the Wurtzite crystal structure, using Harrison's Model
• Wurtzite crystal structure GaN, InN, AlN and ZnO, using ab initio
• Wurtzite crystal structure GaAs, InAs, GaP and InP, using Harrison's Model

Non linear piezoelectricity in devices

Particularly for III-N semiconductors, the influence of non linear piezoelectricity was discussed in the context of light-emitting diodes:

• Influence of external pressure
• Increased efficiency

See also

• Piezotronics
• Piezoelectricity
• Light-emitting diode
• Wurtzite crystal structure

References

1. ^ Cibert, J.; André, R.; Deshayes, C.; Dang, Le Si; Okumura, H.; Tatarenko, S.; Feuillet, G.; Jouneau, P.H.; Mallard, R.; Saminadayar, K. (1992). "Piezoelectric fields in CdTe-based heterostructures". Journal of Crystal Growth. 117 (1–4): 424–431. doi:10.1016/0022-0248(92)90788-K.
2. ^ André, Régis; J. Cibert; Le Si Dang; J. Zeman; M. Zigone (1996). "Nonlinear piezoelectricity: The effect of pressure on CdTe". Physical Review B. 53 (11): 6951–6954. doi:10.1103/PhysRevB.53.6951.
3. ^ Dal Corso, Andrea; Resta, Raffaele; Baroni, Stefano (1993-06-15). "Nonlinear piezoelectricity in CdTe". Physical Review B. 47 (24): 16252–16256. doi:10.1103/physrevb.47.16252. ISSN 0163-1829.
4. ^ Harrison, Walter (1989). Electronic Structure and Properties of Solids. New York: Dover Publications Inc.
5. ^ Bester, Gabriel; X. Wu; D. Vanderbilt; A. Zunger (2006). "Importance of Second-Order Piezoelectric Effects in Zinc-Blende Semiconductors". Physical Review Letters. 96 (18): 187602. arXiv:cond-mat/0604596. Bibcode:2006PhRvL..96r7602B. doi:10.1103/PhysRevLett.96.187602. PMID 16712396. S2CID 10596640.
6. Migliorato, Max; et al. (2014). "A Review of Non Linear Piezoelectricity in Semiconductors". AIP Conference Proceedings. 1590 (1): 32–41. Bibcode:2014AIPC.1590...32M. doi:10.1063/1.4870192.
7. Migliorato, Max; D. Powell; A.G. Cullis; T. Hammerschmidt; G.P. Srivastava (2006). "Composition and strain dependence of the piezoelectric coefficients in InxGa1−xAs alloys". Physical Review B. 74 (24): 245332. Bibcode:2006PhRvB..74x5332M. doi:10.1103/PhysRevB.74.245332. hdl:11858/00-001M-0000-0011-02EF-0.
8. Garg, Raman; A. Hüe; V. Haxha; M. A. Migliorato; T. Hammerschmidt; G.P. Srivastava (2009). "Tunability of the piezoelectric fields in strained III-V semiconductors". Appl. Phys. Lett. 95 (4): 041912. Bibcode:2009ApPhL..95d1912G. doi:10.1063/1.3194779.
9. Tse, Geoffrey; J. Pal; U. Monteverde; R. Garg; V. Haxha; M. A. Migliorato; S. Tomic´ (2013). "Non-Linear Piezoelectricity in Zinc Blende GaAs and InAs Semiconductors". J. Appl. Phys. 114 (7): 073515–073515–12. Bibcode:2013JAP...114g3515T. doi:10.1063/1.4818798. S2CID 14023644.
10. A. Beya-Wakata; et al. (2011). "First- and second-order piezoelectricity in III-V semiconductors". Phys. Rev. B. 84 (19): 195207. Bibcode:2011PhRvB..84s5207B. doi:10.1103/PhysRevB.84.195207.
11. Pal, Joydeep; G. Tse; V. Haxha; M.A. Migliorato; S. Tomic´ (2011). "Non-Linear Piezoelectricity in Zinc Blende GaAs and InAs Semiconductors". Phys. Rev. B. 84 (8): 085211. Bibcode:2011PhRvB..84h5211P. doi:10.1103/PhysRevB.84.085211.
12. L. Pedesseau; C. Katan; J. Even (2012). "On the entanglement of electrostriction and non-linear piezoelectricity in non-centrosymmetric materials" (PDF). Appl. Phys. Lett. 100 (3): 031903. Bibcode:2012ApPhL.100c1903P. doi:10.1063/1.3676666.
13. Al-Zahrani, Hanan; J.Pal; M.A. Migliorato (2013). "Non Linear Piezoelectricity in Wurtzite ZnO Semiconductors". Nano Energy. 2 (6): 1214–1217. doi:10.1016/j.nanoen.2013.05.005.
14. Pierre-Yves Prodhomme; Annie Beya-Wakata; Gabriel Bester (2013). "Nonlinear piezoelectricity in wurtzite semiconductors". Phys. Rev. B. 88 (12): 121304(R). Bibcode:2013PhRvB..88l1304P. doi:10.1103/PhysRevB.88.121304.
15. Al-Zahrani, Hanan; J.Pal; M.A. Migliorato; G. Tse; Dapeng Yu (2015). "Piezoelectric Field Enhancement in III-V Core-Shell Nanowires". Nano Energy. 14: 382–391. doi:10.1016/j.nanoen.2014.11.046.
16. Crutchley, Benjamin; I. P. Marko; S. J. Sweeney; J. Pal; M.A. Migliorato (2013). "Optical properties of InGaN-based LEDs investigated using high hydrostatic pressure dependent techniques". Physica Status Solidi B. 250 (4): 698–702. Bibcode:2013PSSBR.250..698C. doi:10.1002/pssb.201200514.
17. Pal, Joydeep; M. A. Migliorato; C.-K. Li; Y.-R. Wu; B. G. Crutchley; I. P. Marko; S. J. Sweeney (2000). "Enhancement of Efficiency of InGaN-based LEDs through Strain and Piezoelectric Field Management". J. Appl. Phys. 114 (3): 073104. Bibcode:2000JChPh.113..987C. doi:10.1063/1.481879.

• Nanoelectronics
• Semiconductor devices
• Semiconductors