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chore: remove nbsp

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Henri Saudubray 2026-03-27 10:53:26 +01:00
parent ae1a5cf284
commit 4776edc9db
Signed by: hms
GPG key ID: 7065F57ED8856128
1 changed files with 5 additions and 5 deletions
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lib/hsim/full.ml
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@ -45,7 +45,7 @@ type 'a dense =
function obtained by the concatenation of the interval domains of function obtained by the concatenation of the interval domains of
each [α value] in the sequence. each [α value] in the sequence.
For instance, [[Some { h=3.0; f=f1 }; None; Some { h=2.0; f=f2 }]] For instance, [[Some { h=3.0; f=f1 }; None; Some { h=2.0; f=f2 }]]
represents the function represents the function
[{ h=5.0; f=fun t -> if t <= 3.0 then f1 t else f2 (t - 3.0) }]. *) [{ h=5.0; f=fun t -> if t <= 3.0 then f1 t else f2 (t - 3.0) }]. *)
type 'a signal = type 'a signal =
@ -54,7 +54,7 @@ type 'a signal =
(** Initial value problem (IVP) (** Initial value problem (IVP)
Its solution is a function [f : [0, h] -> 'y] such that: Its solution is a function [f : [0, h] -> 'y] such that:
- [f 0.0 = y0] - [f 0.0 = y0]
- [(df/dt) t = fder t (f t)] *) - [(df/dt) t = fder t (f t)] *)
type ('y, 'yder) ivp = type ('y, 'yder) ivp =
@ -66,11 +66,11 @@ type ('y, 'yder) ivp =
(** ODE solver (** ODE solver
Given a requested horizon [t], the solver returns an approximation Given a requested horizon [t], the solver returns an approximation
of the solution to the IVP on [[0, t']] (where [t' ≤ t]). of the solution to the IVP on [[0, t']] (where [t' ≤ t]).
Successive steps compute successive parts of the solution. Successive steps compute successive parts of the solution.
Its (re)initialization parameter is the IVP to solve. That is, the Its (re)initialization parameter is the IVP to solve. That is, the
solver must be initialized with an IVP before use. *) solver must be initialized with an IVP before use. *)
type ('y, 'yder) csolver = type ('y, 'yder) csolver =
(time, 'y dense, ('y, 'yder) ivp) dnode (time, 'y dense, ('y, 'yder) ivp) dnode
(* ↑ ↑ ↑ *) (* ↑ ↑ ↑ *)
@ -160,7 +160,7 @@ type ('i, 'o, 'r, 'y, 'yder, 'zin, 'zout) hnode =
(* We consider the simulation of a hybrid node with a solver as a (* We consider the simulation of a hybrid node with a solver as a
particular case of a discrete node. That is, the simulation has an particular case of a discrete node. That is, the simulation has an
internal state, step function and reset function. At each step of internal state, step function and reset function. At each step of
the simulation, we operate according to one of two modes: discrete the simulation, we operate according to one of two modes: discrete
and continuous. and continuous.
In discrete mode, we perform a discrete step using the model's In discrete mode, we perform a discrete step using the model's