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FINANCIAL ECONOMICS

The performance of zero-cost option derivative strategies during turbulent market conditions in developing and developed countries

, ORCID Icon & ORCID Icon
Article: 2106632 | Received 13 Dec 2021, Accepted 22 Jul 2022, Published online: 07 Sep 2022

Figures & data

Table 1. Volatility modelled index summary

Table 2. Risk-free rate index summary

Table 3. Summary of strategy returns

Figure 1. Relative performance of the six indices from January 1995 to December 2020.

Figure 1. Relative performance of the six indices from January 1995 to December 2020.

Figure 2. (a,b,c): Relative performance of the six developing economies indices from January 1995 to December 2020. (d,e,f): Relative performance of the six developed economies indices from January 1995 to December 2020.

Figure 2. (a,b,c): Relative performance of the six developing economies indices from January 1995 to December 2020. (d,e,f): Relative performance of the six developed economies indices from January 1995 to December 2020.

Figure 2. Continued.

Figure 2. Continued.

Figure 3. (a): Cumulative returns of the S&P 500 Index and increasing put option strike prices. (b): Cumulative returns of the NIKKEI 225 Index and increasing put option strike prices. (c): Cumulative returns of the FTSE 100 Index and increasing put option strike prices. (d): Cumulative returns of the JSE ALSI Index and increasing put option strike prices. (e): Cumulative returns of the BOVESPA Index and increasing put option strike prices. (f): Cumulative returns of the RTSI Index and increasing put option strike prices.

Source: Author compilation
Figure 3. (a): Cumulative returns of the S&P 500 Index and increasing put option strike prices. (b): Cumulative returns of the NIKKEI 225 Index and increasing put option strike prices. (c): Cumulative returns of the FTSE 100 Index and increasing put option strike prices. (d): Cumulative returns of the JSE ALSI Index and increasing put option strike prices. (e): Cumulative returns of the BOVESPA Index and increasing put option strike prices. (f): Cumulative returns of the RTSI Index and increasing put option strike prices.

Figure 3. Continued.

Figure 3. Continued.

Figure 4. (a): Volatility levels for the ZCC implemented on the S&P 500 indices as underlying, as a function of put option strike levels and turbulent market conditions. (b): Volatility levels for the ZCC implemented on the NIKKEI 225 as underlying, as a function of put option strike levels and turbulent market conditions. (c): Volatility levels for the ZCC implemented on the FTSE 100 indices as underlying, as a function of put option strike levels and turbulent market conditions. (d): Volatility levels for the ZCC implemented on the JSE ALSI indices as underlying, as a function of put option strike levels and turbulent market conditions. (e): Volatility levels for the ZCC implemented on the BOVESPA as underlying, as a function of put option strike levels and turbulent market conditions. (f): Volatility levels for the ZCC implemented on the RTSI indices as underlying, as a function of put option strike levels and turbulent market conditions.

Figure 4. (a): Volatility levels for the ZCC implemented on the S&P 500 indices as underlying, as a function of put option strike levels and turbulent market conditions. (b): Volatility levels for the ZCC implemented on the NIKKEI 225 as underlying, as a function of put option strike levels and turbulent market conditions. (c): Volatility levels for the ZCC implemented on the FTSE 100 indices as underlying, as a function of put option strike levels and turbulent market conditions. (d): Volatility levels for the ZCC implemented on the JSE ALSI indices as underlying, as a function of put option strike levels and turbulent market conditions. (e): Volatility levels for the ZCC implemented on the BOVESPA as underlying, as a function of put option strike levels and turbulent market conditions. (f): Volatility levels for the ZCC implemented on the RTSI indices as underlying, as a function of put option strike levels and turbulent market conditions.

Figure 4. Continued.

Figure 4. Continued.

Figure 4. Continued.

Figure 4. Continued.

Figure 5. (a): Cumulative return as a function of put option strike levels and turbulent market conditions on the S&P 500. (b): Cumulative return as a function of put option strike levels and turbulent market conditions on the NIKKEI 225. (c): Cumulative return as a function of put option strike levels and turbulent market conditions on the FTSE 100. (d): Cumulative, as a function of put option strike levels and turbulent market conditions on the JSE ALSI. (e): Cumulative, as a function of put option strike levels and turbulent market conditions on the BOVESPA. (f): Cumulative, as a function of put option strike levels and turbulent market conditions on the RTSI.

Figure 5. (a): Cumulative return as a function of put option strike levels and turbulent market conditions on the S&P 500. (b): Cumulative return as a function of put option strike levels and turbulent market conditions on the NIKKEI 225. (c): Cumulative return as a function of put option strike levels and turbulent market conditions on the FTSE 100. (d): Cumulative, as a function of put option strike levels and turbulent market conditions on the JSE ALSI. (e): Cumulative, as a function of put option strike levels and turbulent market conditions on the BOVESPA. (f): Cumulative, as a function of put option strike levels and turbulent market conditions on the RTSI.

Figure 5. Continued.

Figure 5. Continued.

Figure 5. Continued.

Figure 5. Continued.

Table 4. Summary of ZCC strategy statistics and performance in the Dotcom bubble

Table 5. Summary of ZCC strategy statistics and performance in the financial crisis

Table 6. Summary of ZCC strategy statistics and performance in the COVID-19 pandemic