draw_sc_linear

Sample NHPPP times from a linear intensity function
using the inversion method, optionally using an <code>rstream</code>
generator

Simulates events from one dimensional nonhomogeneous Poisson point processes (NHPPPs) as per Trikalinos and Sereda (2024, <doi:10.48550/arXiv.2402.00358> and 2024, <doi:10.1371/journal.pone.0311311>). Functions are based on three algorithms that provably sample from a target NHPPP: the time-transformation of a homogeneous Poisson process (of intensity one) via the inverse of the integrated intensity function (Cinlar E, "Theory of stochastic processes" (1975, ISBN:0486497996)); the generation of a Poisson number of order statistics from a fixed density function; and the thinning of a majorizing NHPPP via an acceptance-rejection scheme (Lewis PAW, Shedler, GS (1979) <doi:10.1002/nav.3800260304>).

Thomas Trikalinos

nhppp

Simulating Nonhomogeneous Poisson Point Processes

Yuliia Sereda

draw_sc_linear function

<dl><dt>intercept</dt>
<dd>(double) the intercept</dd>
<dt>slope</dt>
<dd>(double) the slope</dd>
<dt>t_min</dt>
<dd>(double) lower bound of the time interval</dd>
<dt>t_max</dt>
<dd>(double) upper bound of the time interval</dd>
<dt>atmost1</dt>
<dd>boolean, draw at most 1 event time</dd></dl>

Arguments

Special case: Simulate from a non homogeneous Poisson Point Process (NHPPP) from
(t_min, t_max) with linear intensity function (inversion method) — draw_sc_linear

<dl>

<dt>intercept</dt>
<dd>(double) the intercept</dd>


<dt>slope</dt>
<dd>(double) the slope</dd>


<dt>t_min</dt>
<dd>(double) lower bound of the time interval</dd>


<dt>t_max</dt>
<dd>(double) upper bound of the time interval</dd>


<dt>atmost1</dt>
<dd>boolean, draw at most 1 event time</dd>

</dl>

draw_sc_linear: Special case: Simulate from a non homogeneous Poisson Point Process (NHPPP) from (t_min, t_max) with linear intensity function (inversion method)

Description

Usage

Value

Arguments

Examples