#include <repair.hpp>

Collaboration diagram for peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >:

Public Types
using	Mem = peclet::core::MemSpace

using	Exec = peclet::core::ExecSpace

using	PlanePolicy = std::conditional_t< Weighted, Power, Voronoi >

using	CertCell = ConvexCell< Real, MAXP, MAXT, false >

using	BuildCell = ConvexCell< Real, MAXP, MAXT, true >

using	Store = TopologyStore< MAXP, MAXT >

Public Member Functions
void	setWeights (const Kokkos::View< Real *, Mem > &w)
	Set the per-seed power weights (Weighted only). Held by reference; the caller keeps it alive.

void	alloc (int n, const Real Lbox[3], Real tol_, Real skin_, int sw_=4, int densityCount_=-1, int nProc_=-1)

void	rebuild (const Kokkos::View< Real *, Mem > &pos, bool eagerAdj=true)

int	compact (const Kokkos::View< int , Mem > &m, const Kokkos::View< int , Mem > &wl)
	Compact the nonzero entries of `m[0..nProc)` into `wl`, returning the count.

template<bool Local>
void	certify (const Kokkos::View< Real , Mem > &pos, const Kokkos::View< int , Mem > &outMask, const Kokkos::View< int *, Mem > &outMover, bool useSkin)

template<bool Local>
void	certifyList (const Kokkos::View< Real , Mem > &pos, const Kokkos::View< int , Mem > &list, int n, const Kokkos::View< int *, Mem > &outMask)

void	rebuildAdjAll (const Kokkos::View< Real *, Mem > &pos)

void	maybeBuildAdj (const Kokkos::View< Real *, Mem > &pos)

void	gatherSet (const TessGrid< Real > &grid, const Kokkos::View< int , Mem > &wl, int n, const Kokkos::View< Real , Mem > &pos)

void	collectNewNbrs (const Kokkos::View< int , Mem > &wl, int n, const Kokkos::View< int , Mem > &outMask)

void	surgicalRepair (const Kokkos::View< int , Mem > &wl, int n, const Kokkos::View< Real , Mem > &pos)

bool	dilate (const TessGrid< Real > &grid, const Kokkos::View< Real *, Mem > &pos)

void	certifyDispatch (const Kokkos::View< Real , Mem > &pos, const Kokkos::View< int , Mem > &outMask, const Kokkos::View< int *, Mem > &outMover, bool useSkin)

void	certifyListDispatch (const Kokkos::View< Real , Mem > &pos, const Kokkos::View< int , Mem > &list, int n, const Kokkos::View< int *, Mem > &outMask)

RepairStats	step (const Kokkos::View< Real *, Mem > &pos)
	One moving-point update step. Updates store + vol in place from `pos`.

Public Attributes
int	N = 0
	total cells in the resident arrays (single-domain: all; MPI: owned+ghost)

int	nProc

int	sw = 4

int	densityCount = -1

Real	L [3] = {1, 1, 1}

Real	tol
	certificate tolerance (absolute distance); ~1e-4·spacing FP64, ~2e-3·spacing FP32

Real	skin = 0
	Verlet skin width (absolute); a particle moving > skin/2 is a Pass-1 mover.

int	verifyCap = 2
	max verify extra-passes before falling back to a full rebuild

bool	useGate = true
	high-churn → rebuild routing (the "never slower than rebuild" guard)

bool	useDilation

double	churnThresh

double	dilateMaxChurn

int	clusterNbhd = 18

bool	surgical
	repair flip cells by re-clipping known candidates instead of gathering

bool	localCert

bool	adjFresh

bool	useLocalNow = false
	this step's certify uses the local cert (= localCert && adjFresh)

Store	store

Kokkos::View< Real *, Mem >	vol

Kokkos::View< Real *, Mem >	xRef

Kokkos::View< Real *, Mem >	weight

Kokkos::View< int *, Mem >	mask

Kokkos::View< int *, Mem >	mask2

Kokkos::View< int *, Mem >	mover

Kokkos::View< int *, Mem >	rebuilt

Kokkos::View< int *, Mem >	wl1

Kokkos::View< int *, Mem >	wl2

Kokkos::View< int *, Mem >	wlM

Kokkos::View< int *, Mem >	cellFlag

Kokkos::View< int *, Mem >	extraNbr

Kokkos::View< int *, Mem >	extraCnt

Kokkos::View< int, Mem >	counter

int	gridNcell = 0

Static Public Attributes
static constexpr int	kExtraCap = 8
	per-cell capacity for partner-discovered new neighbours

Detailed Description

template<class Real, int MAXP = 64, int MAXT = 112, bool Weighted = false>
struct peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >

Resident moving-point tessellation with two-pass gather repair. MAXP/MAXT must match CellBuilder::kMaxP / kMaxT (64 / 112).

Member Typedef Documentation

◆ BuildCell

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

using peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::BuildCell = ConvexCell<Real, MAXP, MAXT, true>

◆ CertCell

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

using peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::CertCell = ConvexCell<Real, MAXP, MAXT, false>

◆ Exec

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

using peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::Exec = peclet::core::ExecSpace

◆ Mem

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

using peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::Mem = peclet::core::MemSpace

◆ PlanePolicy

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

using peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::PlanePolicy = std::conditional_t<Weighted, Power, Voronoi>

◆ Store

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

using peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::Store = TopologyStore<MAXP, MAXT>

Member Function Documentation

◆ alloc()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::alloc	(	int	n,
		const Real	Lbox[3],
		Real	tol_,
		Real	skin_,
		int	sw_ = `4`,
		int	densityCount_ = `-1`,
		int	nProc_ = `-1`
	)

inline

Parameters

nProc_ cells to maintain (default n = single-domain). For the distributed driver pass the owned count: cells [0,nProc) are repaired, [nProc,N) are ghost cut-candidates only.

◆ certify()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

template<bool Local>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::certify	(	const Kokkos::View< Real *, Mem > &	pos,
		const Kokkos::View< int *, Mem > &	outMask,
		const Kokkos::View< int *, Mem > &	outMover,
		bool	useSkin
	)

inline

Re-eval every cell on pos over its stored topology, write its volume, and classify it: outMask(i)=1 if the cell is inconsistent (lost-face) OR is a violated-plane partner of some flagging cell (the flip side — fully covered by Pass 1) OR is a skin-mover; outMover(i)=1 if the cell moved > skin/2 since its last (re)build (the INSERTION trigger — only these need their new neighbours expanded in Pass 2, §1c). useSkin gates the mover trigger (off during verify passes — movers are a once-per-step trigger already folded into Pass 1, and the verify only needs to re-close residual flips).

◆ certifyDispatch()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::certifyDispatch	(	const Kokkos::View< Real *, Mem > &	pos,
		const Kokkos::View< int *, Mem > &	outMask,
		const Kokkos::View< int *, Mem > &	outMover,
		bool	useSkin
	)

inline

Launch-time dispatch of the certificate kernel (Change 7): the gate decides local vs brute, then launches the corresponding COMPILE-TIME specialization — there is no runtime cert branch inside the kernel. useLocalNow is the only place this is decided per step.

◆ certifyList()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

template<bool Local>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::certifyList	(	const Kokkos::View< Real *, Mem > &	pos,
		const Kokkos::View< int *, Mem > &	list,
		int	n,
		const Kokkos::View< int *, Mem > &	outMask
	)

inline

Scoped re-certify: reeval + certificate over ONLY the n cells in list (refresh their vol), set outMask(i)=1 for any inconsistent + OR-mark their partners. The verify uses this instead of a full re-certify: after the gathers, every NON-gathered cell's reeval is bit-identical to the Pass-1 certify (its store + its neighbours' positions are unchanged), and every gained edge has BOTH endpoints gathered (a flip's partner endpoints in Pass 1, a mover's new neighbours in Pass 2), so only the gathered cells can differ — re-checking just them is provably equivalent to a full re-certify at a fraction of the cost (this is what lets the small-displacement speedup rise instead of being pinned by a second full-N reeval).

◆ certifyListDispatch()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::certifyListDispatch	(	const Kokkos::View< Real *, Mem > &	pos,
		const Kokkos::View< int *, Mem > &	list,
		int	n,
		const Kokkos::View< int *, Mem > &	outMask
	)

inline

◆ collectNewNbrs()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::collectNewNbrs	(	const Kokkos::View< int *, Mem > &	wl,
		int	n,
		const Kokkos::View< int *, Mem > &	outMask
	)

inline

Collect into outMask the face-neighbours (planes with ≥3 incident live triangles) of the n cells in wl[0..n) that have NOT already been rebuilt — the Pass-2 / expansion set.

◆ compact()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::compact	(	const Kokkos::View< int *, Mem > &	m,
		const Kokkos::View< int *, Mem > &	wl
	)

inline

Compact the nonzero entries of m[0..nProc) into wl, returning the count.

◆ dilate()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::dilate	(	const TessGrid< Real > &	grid,
		const Kokkos::View< Real *, Mem > &	pos
	)

inline

Dense-cluster dilation (Phase 3): bin the flagged cells into the linear grid, then add every owned cell whose 27-grid-cell neighbourhood holds > clusterNbhd flagged seeds to the Pass-1 mask. This over-covers a local cascade in ONE regional gather instead of paying a kernel-launch per verify iteration. Over-coverage is always safe (a gathered cell is just re-clipped correctly). Returns true if it added any cell. Uses the linear grid index (independent of the grid's Morton ordering).

◆ gatherSet()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::gatherSet	(	const TessGrid< Real > &	grid,
		const Kokkos::View< int *, Mem > &	wl,
		int	n,
		const Kokkos::View< Real *, Mem > &	pos
	)

inline

Gather the n cells listed in wl[0..n) off grid (updating store + vol in place), mark them rebuilt, and RESET their Verlet reference to the current position (their neighbourhood is now fresh, so the skin/2 mover test for these cells restarts from here — proper per-cell Verlet). Reuses the per-step grid.

◆ maybeBuildAdj()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::maybeBuildAdj ( const Kokkos::View< Real *, Mem > & pos )

inline

Lazily repopulate store.poke4 on a low-churn step so later steps use the cheap local certificate. A gate-rebuild clears adjFresh; gating steps return before this runs, so a sustained high-churn regime keeps falling back to the brute certificate (no adj overhead), and a low-churn streak pays the full rebuildAdjAll exactly once (then gathers maintain adj incrementally).

◆ rebuild()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::rebuild	(	const Kokkos::View< Real *, Mem > &	pos,
		bool	eagerAdj = `true`
	)

inline

Full cold (re)build: the production tessellator emitting the resident topology + volume, then reset the Verlet reference. This is the oracle, the fallback, and the initial build.

Parameters

eagerAdj populate store.poke4 now (default; the cheap initial/explicit rebuild → next step is local). A GATE-rebuild passes false: in a high-churn regime we keep rebuilding, so paying rebuildAdjAll every step is wasted — fall back to the brute certificate until churn drops, then maybeBuildAdj rebuilds the adjacency once.

◆ rebuildAdjAll()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::rebuildAdjAll ( const Kokkos::View< Real *, Mem > & pos )

inline

Repopulate store.poke4 for ALL owned cells from the resident topology — pure topology (brute findSharing, ConvexCell::rebuildAdjacency), no incremental stitch. Used only after a cold buildTessellation (which does not emit adjacency); the frequent gathers maintain adj incrementally. The result is element-for-element identical to the gather's incremental adj (validated foundation gate), so the two adj sources mix cleanly across the store.

◆ setWeights()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::setWeights ( const Kokkos::View< Real *, Mem > & w )

inline

Set the per-seed power weights (Weighted only). Held by reference; the caller keeps it alive.

◆ step()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

RepairStats peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::step ( const Kokkos::View< Real *, Mem > & pos )

inline

One moving-point update step. Updates store + vol in place from pos.

◆ surgicalRepair()

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

void peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::surgicalRepair	(	const Kokkos::View< int *, Mem > &	wl,
		int	n,
		const Kokkos::View< Real *, Mem > &	pos
	)

inline

Phase-4 single-face surgical repair: rebuild each flip cell in wl[0..n) by re-clipping the box with its KNOWN candidate set — stored neighbours ∪ partner-discovered extras (extraNbr) — at the current positions, with NO grid gather (the clip is order-independent and only commits planes that cut, so stale/lost-face neighbours are harmless no-ops). Updates store + vol, marks rebuilt, resets the Verlet reference. A cell whose candidate set is incomplete comes out wrong and is caught + re-gathered by the verify loop (the exact fallback) — so surgical is safe by construction. Used only for FLIP cells; far-mover insertions keep the full gather (their new neighbours aren't in any candidate list).

Member Data Documentation

◆ adjFresh

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::adjFresh

Initial value:

=

false

store.poke4 is valid for the whole current topology. Gathers maintain it incrementally (TrackAdj clip + outAdj); a cold buildTessellation does NOT emit adj, so it clears this and maybeBuildAdj repopulates lazily (skipped on a gate-rebuild so a sustained high-churn regime stays on the brute cert).

◆ cellFlag

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::cellFlag

◆ churnThresh

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

double peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::churnThresh

Initial value:

=

0.55

flagged-fraction above which a full rebuild is cheaper than repairing (per-backend, set in alloc — GPU rebuild is cheap so it gives up sooner).

◆ clusterNbhd

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::clusterNbhd = 18

a cell whose 27-grid-cell neighbourhood has > this many flagged seeds is "dense" (≈ a region far above the field average) and gets dilated.

◆ counter

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::counter

◆ densityCount

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::densityCount = -1

◆ dilateMaxChurn

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

double peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::dilateMaxChurn

Initial value:

=

0.15

only consider dilation when GLOBAL churn is low (a real local cluster, not a uniformly-moderate field where every neighbourhood looks "dense").

◆ extraCnt

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::extraCnt

◆ extraNbr

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::extraNbr

◆ gridNcell

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::gridNcell = 0

◆ kExtraCap

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

constexpr int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::kExtraCap = 8

staticconstexpr

per-cell capacity for partner-discovered new neighbours

◆ L

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Real peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::L[3] = {1, 1, 1}

◆ localCert

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::localCert

Initial value:

=

true

use ConvexCell::isLocallyConvexPartners (read each triangle's 4 precomputed poke4 planes — 3 edge-opposite + 4th-face — O(nt)) instead of the brute O(nt·np) form. The gather derives poke4 from the clip-maintained edge adjacency (computePoke4, no findSharing) into store.poke4, so it is fused into the build with no separate maintenance pass, and the cert reads it directly each step. With the 4th-face plane the local cert is COMPLETE (matches the brute flag set — bench GATE 2), so there is no fallback gate.

◆ mask

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::mask

◆ mask2

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::mask2

◆ mover

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::mover

◆ N

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::N = 0

total cells in the resident arrays (single-domain: all; MPI: owned+ghost)

◆ nProc

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::nProc

Initial value:

=

0

cells this instance MAINTAINS (single-domain: N; MPI: owned, [0,nProc)). The grid

gather candidates always span all N (ghosts are cut candidates, not maintained).

◆ rebuilt

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::rebuilt

◆ skin

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Real peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::skin = 0

Verlet skin width (absolute); a particle moving > skin/2 is a Pass-1 mover.

◆ store

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Store peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::store

◆ surgical

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::surgical

Initial value:

=

false

repair flip cells by re-clipping known candidates instead of gathering

◆ sw

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::sw = 4

◆ tol

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Real peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::tol

Initial value:

=

0

certificate tolerance (absolute distance); ~1e-4·spacing FP64, ~2e-3·spacing FP32

◆ useDilation

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::useDilation

Initial value:

=

false

dense-cluster regional dilation branch. DEFAULT OFF: on Poisson/lattice workloads there are no genuine clusters, the verify loop already closes the rare cascade, and the per-step count/mark scan is pure overhead. Turn on for strongly clustered inputs (the regime it is meant for).

◆ useGate

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::useGate = true

high-churn → rebuild routing (the "never slower than rebuild" guard)

◆ useLocalNow

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

bool peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::useLocalNow = false

this step's certify uses the local cert (= localCert && adjFresh)

◆ verifyCap

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

int peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::verifyCap = 2

max verify extra-passes before falling back to a full rebuild

◆ vol

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<Real*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::vol

◆ weight

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<Real*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::weight

◆ wl1

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::wl1

◆ wl2

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::wl2

◆ wlM

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<int*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::wlM

◆ xRef

template<class Real , int MAXP = 64, int MAXT = 112, bool Weighted = false>

Kokkos::View<Real*, Mem> peclet::voro::MovingTessellation< Real, MAXP, MAXT, Weighted >::xRef

The documentation for this struct was generated from the following file:

include/peclet/voro/repair.hpp

Public Types

Public Member Functions

Public Attributes

Static Public Attributes

Detailed Description

Member Typedef Documentation

◆ BuildCell

◆ CertCell

◆ Exec

◆ Mem

◆ PlanePolicy

◆ Store

Member Function Documentation

◆ alloc()

◆ certify()

◆ certifyDispatch()

◆ certifyList()

◆ certifyListDispatch()

◆ collectNewNbrs()

◆ compact()

◆ dilate()

◆ gatherSet()

◆ maybeBuildAdj()

◆ rebuild()

◆ rebuildAdjAll()

◆ setWeights()

◆ step()

◆ surgicalRepair()

Member Data Documentation

◆ adjFresh

◆ cellFlag

◆ churnThresh

◆ clusterNbhd

◆ counter

◆ densityCount

◆ dilateMaxChurn

◆ extraCnt

◆ extraNbr

◆ gridNcell

◆ kExtraCap

◆ L

◆ localCert

◆ mask

◆ mask2

◆ mover

◆ N

◆ nProc

◆ rebuilt

◆ skin

◆ store

◆ surgical

◆ sw

◆ tol

◆ useDilation

◆ useGate

◆ useLocalNow

◆ verifyCap

◆ vol

◆ weight

◆ wl1

◆ wl2

◆ wlM

◆ xRef