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commit ca5abe20f07263583992cb8cff34e6606635b04c
parent 0568ac69f468882650fd01972b0a4eb9d1f92516
Author: Benjamin Piaud <benjamin.piaud@meso-star.com>
Date:   Mon, 27 Nov 2017 11:19:09 +0100

add references section

Diffstat:
Mstardis.html.in | 51+++++++++++++++++++++++++++++++++------------------
1 file changed, 33 insertions(+), 18 deletions(-)

diff --git a/stardis.html.in b/stardis.html.in @@ -8,23 +8,23 @@ conductive, convective and radiative transfers . Stardis can deal with complex geometries and complex high-frequency external solicitations compared to the characteristic time of the system.</p> -<p>The knowledge of the propagator is useful for thermal engineer because it -gives some crucial informations to analyse the heat transfer in the system. -The engineer accesses at some new informations like <b> "from where the heat -comes at this location ?"</b>. Among the possibilies given by the propagator, -it can be used as a rapid modele without simplifying the geometrical -description. </p> +<p>Stardis does not compute the whole field of temperature. It computes a +specific observable such as a temperature at a probe point or the mean +temperature in a specific volume. And more than the temperature value, +Stardis gives an evaluation of the propagator. The knowledge of the propagator +is useful for thermal engineer because it gives some crucial informations to +analyse the heat transfer in the system. The engineer accesses at some new +informations like <b> "from where the heat comes at this location ?"</b>. +Among the possibilies given by the propagator, it can be used as a rapid modele +without simplifying the geometrical description. </p> <p>The algorithms implemented in Stardis are inherited from the state of the art of the Monte-Carlo method applied to radiative transfers physics (Delatorre -et al., "Monte Carlo advances and concentrated solar applications", Solar -Energy, 2014) combined to the statistical point of view of the conductive heat -transfer (Kac, "On Distributions of Certain Wiener Functionals". Trans. of the -American Math. Soc., 1949 and Muller,"Some continuous Monte-Carlo Methods for -the Dirichlet Problem", Annals of Math. Stat., 1956). And this theoritical -framework can be used in pratice to deal with the complex geometries thanks to -the state of the art of computer graphics which it's at the origin of a -disruptive technology in the cinema industry (FX and animated movies).</p> +[1]) combined to the statistical point of view of the conductive heat transfer +(Kac [2] and Muller [3]). And this theoritical framework can be used in pratice +to deal with the complex geometries thanks to the state of the art of computer +graphics which it's at the origin of a disruptive technology in the cinema +industry (FX and animated movies).</p> <p> This theoritical framework leads to a <b>statistical point of view</b> of the whole heat transfer processess (conductive-convective-radiative) when the @@ -41,16 +41,17 @@ of the system. </p> integrated</b> in various thermal engineering simulation toolchain for designing and optimizing.</p> -<p>To get Stardis, contact us, we have a versatile offer:</p> +<p>To get Stardis, contact us, we have a versatile commercial offer:</p> <ul> <li> we can provide a Stardis SDK for developpers,</li> <li> we can integrate Stardis in your software toolchain,</li> <li> we can develop a custom software.</li> </ul> -<p> Stardis is available under many licences. That depends on the customer -constraints (open-source, proprietary, ...). Of course, these offers can be -accompanying with theoretical and practice trainings.</p> +<p> Stardis is available under many licences. That depends on your status +(industry or academic) and development constraints (open-source, proprietary, +...). Of course, these offers can be accompanying with theoretical and practice +trainings.</p> <h2>Examples of integration and development</h2> @@ -107,3 +108,17 @@ deposited at the surface of a metallic foam, which results in a given boundary temperature. Therefore, boundary conditions and initial conditions are known. Star-Therm will subsequently have to compute the temperature at any position within the solid.</p> + +<h2>References</h2> +<p> +[1] Delatorre et al., <i>Monte Carlo advances and concentrated solar +applications</i>, <b>Solar Energy</b>, 2014 +</p> +<p> +[2] Kac, <i>On Distributions of Certain Wiener Functionals</i>. +<b>The Annals of Mathematical Statistics</b>, 1949. +</p> +<p> +[3] Muller, <i>Some continuous Monte-Carlo Methods for the Dirichlet Problem" +</i>, <b>Transactions of the American Mathematical Society</b>, 1956. +</p>