blender/release/ui/buttons_particle.py

631 lines
17 KiB
Python
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import bpy
def particle_panel_enabled(psys):
return psys.point_cache.baked==False and psys.editable==False
def particle_panel_poll(context):
psys = context.particle_system
if psys==None: return False
if psys.settings==None: return False
return psys.settings.type in ('EMITTER', 'REACTOR', 'HAIR')
class ParticleButtonsPanel(bpy.types.Panel):
__space_type__ = "BUTTONS_WINDOW"
__region_type__ = "WINDOW"
__context__ = "particle"
def poll(self, context):
return particle_panel_poll(context)
class PARTICLE_PT_particles(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_particles"
__label__ = "Particle System"
def poll(self, context):
return (context.particle_system or context.object)
def draw(self, context):
layout = self.layout
ob = context.object
psys = context.particle_system
if ob:
row = layout.row()
row.template_list(ob, "particle_systems", "active_particle_system_index")
col = row.column(align=True)
col.itemO("OBJECT_OT_particle_system_slot_add", icon="ICON_ZOOMIN", text="")
col.itemO("OBJECT_OT_particle_system_slot_remove", icon="ICON_ZOOMOUT", text="")
if psys:
split = layout.split(percentage=0.65)
split.template_ID(psys, "settings", new="PARTICLE_OT_new")
#row = layout.row()
#row.itemL(text="Viewport")
#row.itemL(text="Render")
part = psys.settings
if part:
ptype = psys.settings.type
if ptype not in ('EMITTER', 'REACTOR', 'HAIR'):
layout.itemL(text="No settings for fluid particles")
return
split = layout.split(percentage=0.65)
split.enabled = particle_panel_enabled(psys)
split.itemR(part, "type")
split.itemR(psys, "seed")
split = layout.split(percentage=0.65)
if part.type=='HAIR':
if psys.editable==True:
split.itemO("PARTICLE_OT_editable_set", text="Free Edit")
else:
split.itemO("PARTICLE_OT_editable_set", text="Make Editable")
row = split.row()
row.enabled = particle_panel_enabled(psys)
row.itemR(part, "hair_step")
elif part.type=='REACTOR':
split.enabled = particle_panel_enabled(psys)
split.itemR(psys, "reactor_target_object")
split.itemR(psys, "reactor_target_particle_system", text="Particle System")
class PARTICLE_PT_emission(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_emission"
__label__ = "Emission"
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
layout.enabled = particle_panel_enabled(psys)
row = layout.row()
row.itemR(part, "amount")
split = layout.split()
col = split.column(align=True)
col.itemR(part, "start")
col.itemR(part, "end")
col = split.column(align=True)
col.itemR(part, "lifetime")
col.itemR(part, "random_lifetime", slider=True)
layout.row().itemL(text="Emit From:")
row = layout.row()
row.itemR(part, "emit_from", expand=True)
row = layout.row()
row.itemR(part, "trand")
if part.distribution!='GRID':
row.itemR(part, "even_distribution")
if part.emit_from=='FACE' or part.emit_from=='VOLUME':
row = layout.row()
row.itemR(part, "distribution", expand=True)
row = layout.row()
if part.distribution=='JIT':
row.itemR(part, "userjit", text="Particles/Face")
row.itemR(part, "jitter_factor", text="Jittering Amount", slider=True)
elif part.distribution=='GRID':
row.itemR(part, "grid_resolution")
class PARTICLE_PT_cache(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_cache"
__label__ = "Cache"
__default_closed__ = True
def poll(self, context):
psys = context.particle_system
if psys==None: return False
if psys.settings==None: return False
return psys.settings.type in ('EMITTER', 'REACTOR')
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
cache = psys.point_cache
row = layout.row()
Pointcache refresh part 2 * Based on what happens during simulation the cache is marked (also in cache panel, this could possibly be extended to 3d view as well) as: - exact (not marked) - outdated (simulation is not done completely with current settings) - non-exact (frames were skipped during simulation) * The parameter "cache step" effects the number of frames between saved cache frames. - This can save a lot of memory (or disk space) if absolutely frame accurate simulation is not required. - Speeds up the "quick caching" very much. - Frames between cached frames are interpolated from the cached frames. - Current default value of 10 frames works nicely with up/down-arrows (skip 10 frames forwards/backwards on timeline), but can be changed if wanted. * The caching can work in normal or "quick" mode: [Normal cache] - Basic: Calculate what even happens (settings change, big frame steps etc.) and cache results, if possible try to use "cache step" when saving cache frames. - Becomes non-exact: After larger than 1 frame steps. - Becomes outdated: After any change effecting the simulation other than frame steps. - Pros/cons: Freedom of doing anything and playing with particles, but exact results have to calculated from the beginning. [Quick cache] - Basic: Calculate simulation up to current frame automatically on changes with cache step sized jumps in simulation. With multiple "quick cached" simulations the smallest cache step is used. - Becomes non-exact: Always from frame 1 (unless cache step = 1). - Becomes outdated: Never. - Pros/cons: Not very accurate, but super fast! - Todo: Transform of any animated (non-autokeyed) object is locked! Probably needs some tinkering with anim sys overrides. * The simulation can be run forwards or backwards even if it's cache is outdated or non-exact, the following rules apply in these situations: - step forwards (to unknown) -> simulate from last exact frame, store result - step backwards (to known) -> result is interpolated from existing frames, store result, clear cache forwards if current frame is after last exact frame * "Calculate to current frame" runs the simulation from start to current frame with a frame steps of 1. - Baking does the same, but runs the simulation all the way to the end of simulation. - Rendering does this automatically if the simulation is outdated of non-exact, so all rendered simulations will always be updated and exact. * Every cache panel also holds buttons to "Bake all dynamics", "Free all dynamics" and "Update all dynamics to current frame". * Cloth simulation supports the new cache too.
2009-06-27 15:28:58 +00:00
row.itemR(cache, "name")
row = layout.row()
if cache.baked == True:
row.itemO("PTCACHE_OT_free_bake_particle_system", text="Free Bake")
else:
row.item_booleanO("PTCACHE_OT_cache_particle_system", "bake", True, text="Bake")
Pointcache refresh part 2 * Based on what happens during simulation the cache is marked (also in cache panel, this could possibly be extended to 3d view as well) as: - exact (not marked) - outdated (simulation is not done completely with current settings) - non-exact (frames were skipped during simulation) * The parameter "cache step" effects the number of frames between saved cache frames. - This can save a lot of memory (or disk space) if absolutely frame accurate simulation is not required. - Speeds up the "quick caching" very much. - Frames between cached frames are interpolated from the cached frames. - Current default value of 10 frames works nicely with up/down-arrows (skip 10 frames forwards/backwards on timeline), but can be changed if wanted. * The caching can work in normal or "quick" mode: [Normal cache] - Basic: Calculate what even happens (settings change, big frame steps etc.) and cache results, if possible try to use "cache step" when saving cache frames. - Becomes non-exact: After larger than 1 frame steps. - Becomes outdated: After any change effecting the simulation other than frame steps. - Pros/cons: Freedom of doing anything and playing with particles, but exact results have to calculated from the beginning. [Quick cache] - Basic: Calculate simulation up to current frame automatically on changes with cache step sized jumps in simulation. With multiple "quick cached" simulations the smallest cache step is used. - Becomes non-exact: Always from frame 1 (unless cache step = 1). - Becomes outdated: Never. - Pros/cons: Not very accurate, but super fast! - Todo: Transform of any animated (non-autokeyed) object is locked! Probably needs some tinkering with anim sys overrides. * The simulation can be run forwards or backwards even if it's cache is outdated or non-exact, the following rules apply in these situations: - step forwards (to unknown) -> simulate from last exact frame, store result - step backwards (to known) -> result is interpolated from existing frames, store result, clear cache forwards if current frame is after last exact frame * "Calculate to current frame" runs the simulation from start to current frame with a frame steps of 1. - Baking does the same, but runs the simulation all the way to the end of simulation. - Rendering does this automatically if the simulation is outdated of non-exact, so all rendered simulations will always be updated and exact. * Every cache panel also holds buttons to "Bake all dynamics", "Free all dynamics" and "Update all dynamics to current frame". * Cloth simulation supports the new cache too.
2009-06-27 15:28:58 +00:00
subrow = row.row()
subrow.enabled = (cache.frames_skipped or cache.outdated) and particle_panel_enabled(psys)
subrow.itemO("PTCACHE_OT_cache_particle_system", text="Calculate to Current Frame")
row = layout.row()
row.enabled = particle_panel_enabled(psys)
row.itemO("PTCACHE_OT_bake_from_particles_cache", text="Current Cache to Bake")
Pointcache refresh part 2 * Based on what happens during simulation the cache is marked (also in cache panel, this could possibly be extended to 3d view as well) as: - exact (not marked) - outdated (simulation is not done completely with current settings) - non-exact (frames were skipped during simulation) * The parameter "cache step" effects the number of frames between saved cache frames. - This can save a lot of memory (or disk space) if absolutely frame accurate simulation is not required. - Speeds up the "quick caching" very much. - Frames between cached frames are interpolated from the cached frames. - Current default value of 10 frames works nicely with up/down-arrows (skip 10 frames forwards/backwards on timeline), but can be changed if wanted. * The caching can work in normal or "quick" mode: [Normal cache] - Basic: Calculate what even happens (settings change, big frame steps etc.) and cache results, if possible try to use "cache step" when saving cache frames. - Becomes non-exact: After larger than 1 frame steps. - Becomes outdated: After any change effecting the simulation other than frame steps. - Pros/cons: Freedom of doing anything and playing with particles, but exact results have to calculated from the beginning. [Quick cache] - Basic: Calculate simulation up to current frame automatically on changes with cache step sized jumps in simulation. With multiple "quick cached" simulations the smallest cache step is used. - Becomes non-exact: Always from frame 1 (unless cache step = 1). - Becomes outdated: Never. - Pros/cons: Not very accurate, but super fast! - Todo: Transform of any animated (non-autokeyed) object is locked! Probably needs some tinkering with anim sys overrides. * The simulation can be run forwards or backwards even if it's cache is outdated or non-exact, the following rules apply in these situations: - step forwards (to unknown) -> simulate from last exact frame, store result - step backwards (to known) -> result is interpolated from existing frames, store result, clear cache forwards if current frame is after last exact frame * "Calculate to current frame" runs the simulation from start to current frame with a frame steps of 1. - Baking does the same, but runs the simulation all the way to the end of simulation. - Rendering does this automatically if the simulation is outdated of non-exact, so all rendered simulations will always be updated and exact. * Every cache panel also holds buttons to "Bake all dynamics", "Free all dynamics" and "Update all dynamics to current frame". * Cloth simulation supports the new cache too.
2009-06-27 15:28:58 +00:00
row.itemR(cache, "step");
row = layout.row()
row.enabled = particle_panel_enabled(psys)
Pointcache refresh part 2 * Based on what happens during simulation the cache is marked (also in cache panel, this could possibly be extended to 3d view as well) as: - exact (not marked) - outdated (simulation is not done completely with current settings) - non-exact (frames were skipped during simulation) * The parameter "cache step" effects the number of frames between saved cache frames. - This can save a lot of memory (or disk space) if absolutely frame accurate simulation is not required. - Speeds up the "quick caching" very much. - Frames between cached frames are interpolated from the cached frames. - Current default value of 10 frames works nicely with up/down-arrows (skip 10 frames forwards/backwards on timeline), but can be changed if wanted. * The caching can work in normal or "quick" mode: [Normal cache] - Basic: Calculate what even happens (settings change, big frame steps etc.) and cache results, if possible try to use "cache step" when saving cache frames. - Becomes non-exact: After larger than 1 frame steps. - Becomes outdated: After any change effecting the simulation other than frame steps. - Pros/cons: Freedom of doing anything and playing with particles, but exact results have to calculated from the beginning. [Quick cache] - Basic: Calculate simulation up to current frame automatically on changes with cache step sized jumps in simulation. With multiple "quick cached" simulations the smallest cache step is used. - Becomes non-exact: Always from frame 1 (unless cache step = 1). - Becomes outdated: Never. - Pros/cons: Not very accurate, but super fast! - Todo: Transform of any animated (non-autokeyed) object is locked! Probably needs some tinkering with anim sys overrides. * The simulation can be run forwards or backwards even if it's cache is outdated or non-exact, the following rules apply in these situations: - step forwards (to unknown) -> simulate from last exact frame, store result - step backwards (to known) -> result is interpolated from existing frames, store result, clear cache forwards if current frame is after last exact frame * "Calculate to current frame" runs the simulation from start to current frame with a frame steps of 1. - Baking does the same, but runs the simulation all the way to the end of simulation. - Rendering does this automatically if the simulation is outdated of non-exact, so all rendered simulations will always be updated and exact. * Every cache panel also holds buttons to "Bake all dynamics", "Free all dynamics" and "Update all dynamics to current frame". * Cloth simulation supports the new cache too.
2009-06-27 15:28:58 +00:00
row.itemR(cache, "quick_cache")
row.itemR(cache, "disk_cache")
Pointcache refresh part 2 * Based on what happens during simulation the cache is marked (also in cache panel, this could possibly be extended to 3d view as well) as: - exact (not marked) - outdated (simulation is not done completely with current settings) - non-exact (frames were skipped during simulation) * The parameter "cache step" effects the number of frames between saved cache frames. - This can save a lot of memory (or disk space) if absolutely frame accurate simulation is not required. - Speeds up the "quick caching" very much. - Frames between cached frames are interpolated from the cached frames. - Current default value of 10 frames works nicely with up/down-arrows (skip 10 frames forwards/backwards on timeline), but can be changed if wanted. * The caching can work in normal or "quick" mode: [Normal cache] - Basic: Calculate what even happens (settings change, big frame steps etc.) and cache results, if possible try to use "cache step" when saving cache frames. - Becomes non-exact: After larger than 1 frame steps. - Becomes outdated: After any change effecting the simulation other than frame steps. - Pros/cons: Freedom of doing anything and playing with particles, but exact results have to calculated from the beginning. [Quick cache] - Basic: Calculate simulation up to current frame automatically on changes with cache step sized jumps in simulation. With multiple "quick cached" simulations the smallest cache step is used. - Becomes non-exact: Always from frame 1 (unless cache step = 1). - Becomes outdated: Never. - Pros/cons: Not very accurate, but super fast! - Todo: Transform of any animated (non-autokeyed) object is locked! Probably needs some tinkering with anim sys overrides. * The simulation can be run forwards or backwards even if it's cache is outdated or non-exact, the following rules apply in these situations: - step forwards (to unknown) -> simulate from last exact frame, store result - step backwards (to known) -> result is interpolated from existing frames, store result, clear cache forwards if current frame is after last exact frame * "Calculate to current frame" runs the simulation from start to current frame with a frame steps of 1. - Baking does the same, but runs the simulation all the way to the end of simulation. - Rendering does this automatically if the simulation is outdated of non-exact, so all rendered simulations will always be updated and exact. * Every cache panel also holds buttons to "Bake all dynamics", "Free all dynamics" and "Update all dynamics to current frame". * Cloth simulation supports the new cache too.
2009-06-27 15:28:58 +00:00
layout.itemL(text=cache.info)
layout.itemS()
row = layout.row()
row.item_booleanO("PTCACHE_OT_bake_all", "bake", True, text="Bake All Dynamics")
row.itemO("PTCACHE_OT_free_bake_all", text="Free All Bakes")
layout.itemO("PTCACHE_OT_bake_all", text="Update All Dynamics to current frame")
# for particles these are figured out automatically
#row.itemR(cache, "start_frame")
#row.itemR(cache, "end_frame")
class PARTICLE_PT_initial(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_initial"
__label__ = "Velocity"
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
layout.enabled = particle_panel_enabled(psys)
layout.row().itemL(text="Direction:")
split = layout.split()
sub = split.column()
sub.itemR(part, "normal_factor")
if part.emit_from=='PARTICLE':
sub.itemR(part, "particle_factor")
else:
sub.itemR(part, "object_factor", slider=True)
sub.itemR(part, "random_factor")
sub.itemR(part, "tangent_factor")
sub.itemR(part, "tangent_phase", slider=True)
sub = split.column()
sub.itemL(text="TODO:")
sub.itemL(text="Object aligned")
sub.itemL(text="direction: X, Y, Z")
if part.type=='REACTOR':
sub.itemR(part, "reactor_factor")
sub.itemR(part, "reaction_shape", slider=True)
else:
sub.itemL(text="")
layout.row().itemL(text="Rotation:")
split = layout.split()
sub = split.column()
sub.itemR(part, "rotation_mode", text="Axis")
split = layout.split()
sub = split.column()
sub.itemR(part, "rotation_dynamic")
sub.itemR(part, "random_rotation_factor", slider=True)
sub = split.column()
sub.itemR(part, "phase_factor", slider=True)
sub.itemR(part, "random_phase_factor", text="Random", slider=True)
layout.row().itemL(text="Angular velocity:")
layout.row().itemR(part, "angular_velocity_mode", expand=True)
split = layout.split()
sub = split.column()
sub.itemR(part, "angular_velocity_factor", text="")
class PARTICLE_PT_physics(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_physics"
__label__ = "Physics"
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
layout.enabled = layout.enabled = particle_panel_enabled(psys)
row = layout.row()
row.itemR(part, "physics_type", expand=True)
if part.physics_type != 'NO':
layout.itemR(part, "effector_group")
row = layout.row()
col = row.column(align=True)
col.itemR(part, "particle_size")
col.itemR(part, "random_size", slider=True)
col = row.column(align=True)
col.itemR(part, "mass")
col.itemR(part, "sizemass", text="Multiply mass with size")
split = layout.split()
sub = split.column()
if part.physics_type == 'NEWTON':
sub.itemL(text="Forces:")
sub.itemR(part, "brownian_factor")
sub.itemR(part, "drag_factor", slider=True)
sub.itemR(part, "damp_factor", slider=True)
sub.itemR(part, "integrator")
sub = split.column()
sub.itemR(part, "acceleration")
elif part.physics_type == 'KEYED':
sub.itemR(psys, "keyed_first")
if psys.keyed_first==True:
sub.itemR(psys, "timed_keys", text="Key timing")
else:
sub.itemR(part, "keyed_time")
sub = split.column()
sub.itemL(text="Next key from object:")
sub.itemR(psys, "keyed_object", text="")
sub.itemR(psys, "keyed_particle_system")
if part.physics_type=='NEWTON' or part.physics_type=='BOIDS':
sub.itemR(part, "size_deflect")
sub.itemR(part, "die_on_collision")
sub.itemR(part, "sticky")
class PARTICLE_PT_render(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_render"
__label__ = "Render"
def poll(self, context):
psys = context.particle_system
if psys==None: return False
if psys.settings==None: return False
return True;
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
row = layout.row()
row.itemR(part, "material")
row.itemR(psys, "parent");
split = layout.split()
sub = split.column()
sub.itemR(part, "emitter");
sub.itemR(part, "parent");
sub = split.column()
sub.itemR(part, "unborn");
sub.itemR(part, "died");
row = layout.row()
row.itemR(part, "ren_as", expand=True)
split = layout.split()
sub = split.column()
if part.ren_as == 'LINE':
sub.itemR(part, "line_length_tail")
sub.itemR(part, "line_length_head")
sub = split.column()
sub.itemR(part, "velocity_length")
elif part.ren_as == 'PATH':
if (part.type!='HAIR' and psys.point_cache.baked==False):
box = layout.box()
box.itemL(text="Baked or keyed particles needed for correct rendering.")
return
sub.itemR(part, "render_strand")
colsub = sub.column()
colsub.active = part.render_strand == False
colsub.itemR(part, "render_adaptive")
colsub = sub.column()
colsub.active = part.render_adaptive or part.render_strand == True
colsub.itemR(part, "adaptive_angle")
colsub = sub.column()
colsub.active = part.render_adaptive == True and part.render_strand == False
colsub.itemR(part, "adaptive_pix")
sub.itemR(part, "hair_bspline")
sub.itemR(part, "render_step", text="Steps")
sub = split.column()
sub.itemL(text="Length:")
sub.itemR(part, "abs_length", text="Absolute")
sub.itemR(part, "absolute_length", text="Maximum")
sub.itemR(part, "random_length", text="Random", slider=True)
#row = layout.row()
#row.itemR(part, "timed_path")
#col = row.column(align=True)
#col.active = part.timed_path == True
#col.itemR(part, "line_length_tail", text="Start")
#col.itemR(part, "line_length_head", text="End")
row = layout.row()
col = row.column()
if part.type=='HAIR' and part.render_strand==True and part.child_type=='FACES':
layout.itemR(part, "enable_simplify")
if part.enable_simplify==True:
row = layout.row()
row.itemR(part, "simplify_refsize")
row.itemR(part, "simplify_rate")
row.itemR(part, "simplify_transition")
row = layout.row()
row.itemR(part, "viewport")
subrow = row.row()
subrow.active = part.viewport==True
subrow.itemR(part, "simplify_viewport")
elif part.ren_as == 'OBJECT':
#sub = split.column()
sub.itemR(part, "dupli_object")
elif part.ren_as == 'GROUP':
sub.itemR(part, "dupli_group")
split = layout.split()
sub = split.column()
sub.itemR(part, "whole_group")
sub = split.column()
colsub = sub.column()
colsub.active = part.whole_group == False
colsub.itemR(part, "rand_group")
elif part.ren_as == 'BILLBOARD':
sub.itemL(text="Align:")
row = layout.row()
row.itemR(part, "billboard_align", expand=True)
row.itemR(part, "billboard_lock", text="Lock")
row = layout.row()
row.itemR(part, "billboard_object")
row = layout.row()
col = row.column(align=True)
col.itemL(text="Tilt:")
col.itemR(part, "billboard_tilt", text="Angle", slider=True)
col.itemR(part, "billboard_random_tilt", slider=True)
col = row.column()
col.itemR(part, "billboard_offset")
row = layout.row()
row.itemR(psys, "billboard_normal_uv")
row = layout.row()
row.itemR(psys, "billboard_time_index_uv")
row = layout.row()
row.itemL(text="Split uv's:")
row.itemR(part, "billboard_uv_split", text="Number of splits")
row = layout.row()
row.itemR(psys, "billboard_split_uv")
row = layout.row()
row.itemL(text="Animate:")
row.itemR(part, "billboard_animation", expand=True)
row.itemL(text="Offset:")
row.itemR(part, "billboard_split_offset", expand=True)
class PARTICLE_PT_draw(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_draw"
__label__ = "Display"
__default_closed__ = True
def poll(self, context):
psys = context.particle_system
if psys==None: return False
if psys.settings==None: return False
return True;
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
row = layout.row()
row.itemR(part, "draw_as", expand=True)
if part.draw_as=='NONE' or (part.ren_as=='NONE' and part.draw_as=='RENDER'):
return
path = (part.ren_as=='PATH' and part.draw_as=='RENDER') or part.draw_as=='PATH'
if path and part.type!='HAIR' and psys.point_cache.baked==False:
box = layout.box()
box.itemL(text="Baked or keyed particles needed for correct drawing.")
return
row = layout.row()
row.itemR(part, "display", slider=True)
if part.draw_as!='RENDER' or part.ren_as=='HALO':
row.itemR(part, "draw_size")
else:
row.itemL(text="")
row = layout.row()
col = row.column()
col.itemR(part, "show_size")
col.itemR(part, "velocity")
col.itemR(part, "num")
if part.physics_type == 'BOIDS':
col.itemR(part, "draw_health")
col = row.column()
if (path):
box = col.box()
box.itemR(part, "draw_step")
else:
col.itemR(part, "material_color", text="Use material color")
subcol = col.column()
subcol.active = part.material_color==False
#subcol.itemL(text="color")
#subcol.itemL(text="Override material color")
class PARTICLE_PT_children(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_children"
__label__ = "Children"
__default_closed__ = True
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
layout.row().itemR(part, "child_type", expand=True)
if part.child_type=='NONE':
return
row = layout.row()
col = row.column(align=True)
col.itemR(part, "child_nbr", text="Display")
col.itemR(part, "rendered_child_nbr", text="Render")
col = row.column(align=True)
if part.child_type=='FACES':
col.itemR(part, "virtual_parents", slider=True)
else:
col.itemR(part, "child_radius", text="Radius")
col.itemR(part, "child_roundness", text="Roundness", slider=True)
col = row.column(align=True)
col.itemR(part, "child_size", text="Size")
col.itemR(part, "child_random_size", text="Random")
layout.row().itemL(text="Effects:")
row = layout.row()
col = row.column(align=True)
col.itemR(part, "clump_factor", slider=True)
col.itemR(part, "clumppow", slider=True)
col = row.column(align=True)
col.itemR(part, "rough_endpoint")
col.itemR(part, "rough_end_shape")
row = layout.row()
col = row.column(align=True)
col.itemR(part, "rough1")
col.itemR(part, "rough1_size")
col = row.column(align=True)
col.itemR(part, "rough2")
col.itemR(part, "rough2_size")
col.itemR(part, "rough2_thres", slider=True)
layout.row().itemL(text="Kink:")
layout.row().itemR(part, "kink", expand=True)
split = layout.split()
sub = split.column()
sub.itemR(part, "kink_amplitude")
sub.itemR(part, "kink_frequency")
sub = split.column()
sub.itemR(part, "kink_shape", slider=True)
class PARTICLE_PT_vertexgroups(ParticleButtonsPanel):
__idname__= "PARTICLE_PT_vertexgroups"
__label__ = "Vertexgroups"
__default_closed__ = True
def draw(self, context):
layout = self.layout
psys = context.particle_system
part = psys.settings
layout.itemL(text="Nothing here yet.")
#row = layout.row()
#row.itemL(text="Vertex Group")
#row.itemL(text="Negate")
#row = layout.row()
#row.itemR(psys, "vertex_group_density")
#row.itemR(psys, "vertex_group_density_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_velocity")
#row.itemR(psys, "vertex_group_velocity_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_length")
#row.itemR(psys, "vertex_group_length_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_clump")
#row.itemR(psys, "vertex_group_clump_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_kink")
#row.itemR(psys, "vertex_group_kink_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_roughness1")
#row.itemR(psys, "vertex_group_roughness1_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_roughness2")
#row.itemR(psys, "vertex_group_roughness2_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_roughness_end")
#row.itemR(psys, "vertex_group_roughness_end_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_size")
#row.itemR(psys, "vertex_group_size_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_tangent")
#row.itemR(psys, "vertex_group_tangent_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_rotation")
#row.itemR(psys, "vertex_group_rotation_negate", text="")
#row = layout.row()
#row.itemR(psys, "vertex_group_field")
#row.itemR(psys, "vertex_group_field_negate", text="")
bpy.types.register(PARTICLE_PT_particles)
bpy.types.register(PARTICLE_PT_cache)
bpy.types.register(PARTICLE_PT_emission)
bpy.types.register(PARTICLE_PT_initial)
bpy.types.register(PARTICLE_PT_physics)
bpy.types.register(PARTICLE_PT_render)
bpy.types.register(PARTICLE_PT_draw)
bpy.types.register(PARTICLE_PT_children)
bpy.types.register(PARTICLE_PT_vertexgroups)