fx example

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Drift (annual) Volatility(annual) Drift (daily) Volatility(dail 8% 37% 0.0317% 2.3308% 1 2 3 N(0,1) -0.814652857334429 0.6530436781096 0.321035933874 Log return -1.957686% 1.463193% 0.689356% Price(t) £98.06 £101.47 £100.69 Antonis Iaponas: After the conversation we had today I h this simulation in order for you to see meant, this is a very simple Monte Carlo based on geometric Brownian motion where random shocks in order to drive our grap pressing F9 you can watch different tren graph and paths you can have in a market simulate also with different ways and wi distributions and using levy process whe mimic more realistically the effect of t The volatility, eg. The implied, can be from Black-Scholes models and then incor the model. Also other ways to estimate you can build other models like Garch (1 incorporates mean reversion or EWMA whic have mean reversion, where you can estim volatility using the historic data. Now levy process you can incorporate jumps market. This is one way you can build a Developing further a Monte Carlo simulat very good approximations how the FOREX m develops. I am very attracted in workin model as it is very interesting for me a of experiences from my masters in Cass B School. £88.00 £90.00 £92.00 £94.00 £96.00 £98.00 £100.00 £102.00 £104.00 £106.00

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Page 1: Fx Example

Drift (annual) Volatility(annual) Drift (daily) Volatility(daily) Drift (mean)8% 37% 0.0317% 2.3308% -0.05891%

1 2 3 4N(0,1) 0.0359193434162853 0.9777027616583 0.800664702025 -0.200706704Log return 0.024811% 2.219902% 1.807265% -0.526712%Price(t) £100.02 £102.24 £101.82 £99.47

Antonis Iaponas:After the conversation we had today I have build this simulation in order for you to see what I meant, this is a very simple Monte Carlo simulation based on geometric Brownian motion where we generate random shocks in order to drive our graph, (by pressing F9 you can watch different trends of the graph and paths you can have in a market), you can simulate also with different ways and with different distributions and using levy process where you can mimic more realistically the effect of the market. The volatility, eg. The implied, can be extracted from Black-Scholes models and then incorporated into the model. Also other ways to estimate volatility , you can build other models like Garch (1,1) where it incorporates mean reversion or EWMA which it does not have mean reversion, where you can estimate your volatility using the historic data. Now by using levy process you can incorporate jumps in the market. This is one way you can build a model. Developing further a Monte Carlo simulation can give very good approximations how the FOREX market develops. I am very attracted in working on a new model as it is very interesting for me and have alot of experiences from my masters in Cass Business School.

1 4 7 10 13 16 19 22 25 28 31 34 37 40 43 46 49£88.00£90.00£92.00£94.00£96.00£98.00

£100.00£102.00£104.00£106.00£108.00

Page 2: Fx Example

Initial stock£100

5 6 7 8 9 10 11-1.07486915 -1.3729154862 0.361065495 -0.52786034382 1.152782006 -0.22065112 0.28290321-2.564193% -3.258874% 0.782656% -1.289236% 2.627974% -0.573198% 0.600477%

£97.47 £96.79 £100.79 £98.72 £102.66 £99.43 £100.60

Antonis Iaponas:After the conversation we had today I have build this simulation in order for you to see what I meant, this is a very simple Monte Carlo simulation based on geometric Brownian motion where we generate random shocks in order to drive our graph, (by pressing F9 you can watch different trends of the graph and paths you can have in a market), you can simulate also with different ways and with different distributions and using levy process where you can mimic more realistically the effect of the market. The volatility, eg. The implied, can be extracted from Black-Scholes models and then incorporated into the model. Also other ways to estimate volatility , you can build other models like Garch (1,1) where it incorporates mean reversion or EWMA which it does not have mean reversion, where you can estimate your volatility using the historic data. Now by using levy process you can incorporate jumps in the market. This is one way you can build a model. Developing further a Monte Carlo simulation can give very good approximations how the FOREX market develops. I am very attracted in working on a new model as it is very interesting for me and have alot of experiences from my masters in Cass Business School.

1 4 7 10 13 16 19 22 25 28 31 34 37 40 43 46 49£88.00£90.00£92.00£94.00£96.00£98.00

£100.00£102.00£104.00£106.00£108.00

Page 3: Fx Example

12 13 14 15 16 17 18-0.96679854 -1.39467458 -0.18480757 0.84777877 -0.326139466 0.038748477 -1.631607976-2.312304% -3.309590% -0.489655% 1.917078% -0.819068% 0.031405% -3.861829%

£97.71 £96.74 £99.51 £101.94 £99.18 £100.03 £96.21

Page 4: Fx Example

19 20 21 22 23 24 25-0.542510081 1.0150860416 -0.0647831 0.01709735 -1.970597642 -1.36110515 0.43420014

-1.323381% 2.307034% -0.209904% -0.019059% -4.651940% -3.231347% 0.953117%£98.69 £102.33 £99.79 £99.98 £95.45 £96.82 £100.96

Page 5: Fx Example

26 27 28 29 30 310.35069851621 -0.077480529 1.0975585554 0.834801562885 0.71935935516 1.2431875143

0.758493% -0.239499% 2.499260% 1.886831% 1.617760% 2.838689%£100.76 £99.76 £102.53 £101.90 £101.63 £102.88

Page 6: Fx Example

32 33 34 35 36 37 381.96545024412 2.43436415 -0.67492761 -1.019345864 1.4040164 0.8190923885 0.74611642

4.522125% 5.615061% -1.632017% -2.434781% 3.213546% 1.850216% 1.680125%£104.63 £105.78 £98.38 £97.59 £103.27 £101.87 £101.69

Page 7: Fx Example

39 40 41 42 43 44 451.8320447216 -0.431463445 -2.61699750621 0.24938993939 0.0134165359 1.07483612 2.4442608224

4.211186% -1.064555% -6.158557% 0.522365% -0.027638% 2.446299% 5.638128%£104.30 £98.94 £94.03 £100.52 £99.97 £102.48 £105.80

Page 8: Fx Example

46 47 48 49 50-0.4436128103 0.40720946282 0.200006201 0.55473367 0.06647699

-1.092873% 0.890207% 0.407262% 1.234054% 0.096035%£98.91 £100.89 £100.41 £101.24 £100.10