please who is the mentor for Native Julia solvers for ODEs?

On Thu, Mar 13, 2014 at 10:25 PM, Jiahao Chen <[email protected]> wrote:

> Hi Niluka and Kongne,
>
> ODE.jl already implements two Runge-Kutta based methods (ode23 and
> ode45). I don't think we really need more Runge-Kutta algorithms,
> although someone who has worked on ODE.jl recently should feel free to
> correct me.
>
> If you want to _show_ us implementations of a simple textbook
> algorithm like RK4 as part of your application to demonstrate that you
> know something about ODE solvers and Julia's syntax, that's fine, but
> it's unlikely that we will actually incorporate textbook code into the ODE
> package.
>
> Kongne, if your question is about writing solvers for first-order ODEs
> or second-order ODEs, consider that in principle, an ODE solver for
> first-order ODEs will suffice to solve ODEs of any order, since you
> can always rewrite higher order ODEs as vectorized first-order ODEs.
> For example, y'' = -y can be rewritten as the coupled system [y; z]' =
> [z; -y]. This is quite a common trick used to reduce the order of
> ODEs.
>
> We can continue the discussion of ideas for specific projects in the GSoC
> issue:
>
> https://github.com/JuliaLang/ODE.jl/issues/18
>
> Thanks,
>
> Jiahao Chen
> Staff Research Scientist
> MIT Computer Science and Artificial Intelligence Laboratory
>
>
> On Thu, Mar 13, 2014 at 4:50 PM, Kongne gael stephanie
> <[email protected]> wrote:
> > what i mean is,am writing an algorithm to solve only first order or
> second
> > order?
> >
> > On Thursday, March 13, 2014 9:28:05 PM UTC+1, Stefan Karpinski wrote:
> >>
> >> On Thu, Mar 13, 2014 at 4:22 PM, Kongne gael stephanie
> >> <[email protected]> wrote:
> >>>
> >>> i wish to know if i use only first order or second order to implement
> >>
> >>
> >> Sorry, I don't understand. Could you elaborate?
>

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