From theory to practice - page 622

 
It would be cool to create a team...like promote the product, like create it, like test it, like earn dough...but is it more fun than this discussion club:)
 
It's really like a matrix everyone looks at but can't see...all flats and trends have a beginning, have an end. You are in the matrix comrades, even the buttons : red and blue as if Mobius prescribed it) I suggest we return to Zeon for further discussion))
 
Alexander_K2:

Kolmogorov is a smarter man than most of those who stare into the monitor. And his requirements to BP prediction are simple: expectation = const and periodic ACF.

With such requirements any fool will predict, let alone Kolmogorov)
 
Alexander_K2:

Now here's the thing to say.

I look at incremental distributions and how they change their statistical moments depending on quotation reading intervals, and I realise that market prices do NOT have the property of self-similarity. This property is unique to processes with stable, infinitely divisible (e.g. normal) distributions of increments - such as Brownian motion. This is not the case in the market.

Obviously, Mandelbrot and his fellows, who have no knowledge of physics (and even worse - they have knowledge, but hide it carefully), intentionally deceived the desperate people, so that they would go to scalping on tick data and small timeframes, and fill their bottom pockets by losing their deposits.

Well, there you go!

Research on

http://tpq.io/p/rough_volatility_with_python.html

same https://hal.inria.fr/hal-01350915/document
rough_volatility_with_python
rough_volatility_with_python
  • tpq.io
The code in this iPython notebook used to be in R. I am very grateful to Yves Hilpisch and Michael Schwed for translating my R-code to Python. For slideshow functionality I use RISE by Damián Avila. $$ \newcommand{\beas}{\begin{eqnarray*}} \newcommand{\eeas}{\end{eqnarray*}} \newcommand{\bea}{\begin{eqnarray}} \newcommand{\eea}{\end{eqnarray}}...
 
Alexander_K2:

Now here's the thing to say.

I look at incremental distributions and how they change their statistical moments depending on quotation reading intervals, and I realise that market prices do NOT have the property of self-similarity. This property is unique to processes with stable, infinitely divisible (e.g. normal) distributions of increments - such as Brownian motion. This is not the case in the market.

Obviously, Mandelbrot and his fellows, who have no knowledge of physics (and even worse - they have knowledge, but hide it carefully), intentionally deceived the desperate people, so that they would go to scalping on tick data and small timeframes, and fill their bottom pockets by losing their deposits.

That's it!

You've already brought conspiracy theories into the mix... another load of crap.

Read the subject:

http://inis.jinr.ru/sl/vol2/Physics/Динамические%20системы%20и%20Хаос/Федер%20Е.,%20Фракталы,%201991.pdf

 
Ugh!
 

Just to make it clear what I'm aiming for.

I have just started working in Erlang's 60th order flow (reading tick quotes, on average, once per minute).

We have the following histogram for the EURJPY pair increments, for example:

Statistics:

This is practically a Laplace distribution.

The sum of increments (~price) and increment moduli (~dispersion) have normal distribution at rather large sample volume (a day - for M1 or a week - for M5) of such SP.

So the goal is to get to a pure Laplace distribution, then we will really have a direct analog of the Ornstein-Uhlenbeck process with a return to the mean.

 
In 600 pages, the commander has never understood that the return to the average does not depend on the form of the increments)
 

I would also like to guess which sections of history he uses to build his charts, there are trending sections for several months, and there are sideways

As well as the principle of "jumping" from M1 to M5 is not clear, he needs consistency or at least a justification. He would be invaluable there with such talents, they also successfully add months, then quarters, then seasons = we get the required statistical data

)))

 
Alexander_K2:

Just to make it clear what I'm aiming for.

I have just started working in Erlang's 60th order flow (reading tick quotes, on average, once per minute).

We have the following histogram for the EURJPY pair increments, for example:

Statistics:

This is practically a Laplace distribution.

The sum of increments (~price) and increment moduli (~dispersion) have normal distribution at rather large sample volume (a day - for M1 or a week - for M5) of such SP.

So the goal is to get to a pure Laplace distribution, then we will really have a direct analog of the Ornstein-Uhlenbeck process with a return to the mean.

In general I see, the kurtosis is reduced, the tails are picked up ---> from Laplace to normal, from normal to uniform. Then what's at the beginning? Not Laplace? What? Because it is easily described by an exponent, if you take one side. This is the EURUSD minute-month window.


Reason: