3D Product Modeling Services

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Art Vizio is a full service 3D Design studio in Baton
Rouge, Louisiana which offers its 3D product modeling services nationwide
- local service areas include New Orleans Lafayette Hammond Kenner Denham
Springs LA ~ nationwide areas that can be serviced include Mobile Phoenix
Little Rock Los Angeles Denver Boulder Hartford Dover Miami Atlanta Boise
Chicago Indianapolis. Other cities that we can offer our 3D product
modeling design services services to include Topeka Biloxi Birmingham Augusta
Annapolis Boston Lansing Detroit St. Paul Biloxi Santa Fe Albany Raleigh
Bismarck Salem Houston Dallas Amarillo San Antonio Salt Lake City Richmond
Charleston Madison and Cheyenne, nearby states close to Louisiana include
Texas Arkansas Kentucky Mississippi Alabama Georgia Tennessee and Florida.
Contact Diego Rivera - Consultant & Owner: (225) 772-6281
Email: info@art-vizio.com
Art-Vizio.com | 13675 Coursey Blvd | Baton Rouge Louisiana
70817
In 3D computer graphics, 3D modeling is the
process of developing a mathematical, wireframe representation of any
three-dimensional object (either inanimate or living) via specialized
software. The product is called a 3D model. It can be displayed as a
two-dimensional image through a process called 3D rendering or used in a
computer simulation of physical phenomena. The modeling process of
preparing geometric data for 3D computer graphics is similar to plastic
arts such as sculpting.
3D models (the product of modeling procedures) are often created with
special software applications called 3D modelers when not describing the
title of a professional who uses the software to produce 3D models. Being
a collection of data (points and other information), 3D models can be
created by hand, algorithmically (procedural modeling), or scanned. Though
they most often exist virtually (on a computer or a file on disk), even a
description of such a model on paper can be considered a 3D model.
3D models are widely used anywhere 3D graphics are used. Actually, their
use predates the widespread use of 3D graphics on personal computers. Many
computer games used pre-rendered images of 3D models as sprites before
computers could render them in real-time.
Today, 3D models are used in a wide variety of fields. The medical
industry uses detailed models of organs. The movie industry uses them as
characters and objects for animated and real-life motion pictures. The
video game industry uses them as assets for computer and video games. The
science sector uses them as highly detailed models of chemical compounds.
The architecture industry uses them to demonstrate proposed buildings and
landscapes. The engineering community uses them as designs of new devices,
vehicles and structures as well as a host of other uses. In recent decades
the earth science community has started to construct 3D geological models
as a standard practice.
There are two popularly used means by which to represent a model:
* polygonal modeling - Various vertices on an xyz grid are mapped out. The
vertices are connected in a linear fashion to form a polygonal mesh.
* NURBS modeling - Curves are formed by defining control points and
attaching a "weight" to each one. The curve follows (but does not
necessarily interpolate) the points. Increasing the weight for a point
will pull the curve closer to that point. NURBS are particularly suitable
for organic modelling.
The modeling stage consists of shaping individual objects that are later
used in the scene. There are a number of modeling techniques, including:
* constructive solid geometry
* implicit surfaces
* subdivision surfaces
Modeling can be performed by means of a dedicated program (e.g., Maya
(software), 3DS Max, Blender, Lightwave), an application component
(Shaper, Lofter in 3DS Max) or some scene description language (as in POV-Ray).
In some cases, there is no strict distinction between these phases; in
such cases modelling is just part of the scene creation process (this is
the case, for example, with Caligari trueSpace and Realsoft 3D).
Complex materials such as blowing sand, clouds, and liquid sprays are
modeled with Particle systems, and are a mass of 3d coordinates which have
either points, polygons, splats or sprites assign to them.
Because the appearance of an object depends largely on the exterior of the
object, boundary representations are common in computer graphics. Two
dimensional surfaces are a good analogy for the objects used in graphics,
though quite often these objects are non-manifold. Since surfaces are not
finite, a discrete digital approximation is required: polygonal meshes
(and to a lesser extent subdivision surfaces) are by far the most common
representation, although point-based representations have been gaining
some popularity in recent years. Level sets are a useful representation
for deforming surfaces which undergo many topological changes such as
fluids.
The process of transforming representations of objects, such as the middle
point coordinate of a sphere and a point on its circumference into a
polygon representation of a sphere, is called tessellation. This step is
used in polygon-based rendering, where objects are broken down from
abstract representations ("primitives") such as spheres, cones etc, to
so-called meshes, which are nets of interconnected triangles. Meshes of
triangles (instead of e.g. squares) are popular as they have proven to be
easy to render using scanline rendering. Polygon representations are not
used in all rendering techniques, and in these cases the tessellation step
is not included in the transition from abstract representation to rendered
scene.
Scene setup involves arranging virtual objects, lights, cameras and other
entities on a scene which will later be used to produce a still image or
an animation.
Lighting is an important aspect of scene setup. As is the case in
real-world scene arrangement, lighting is a significant contributing
factor to the resulting aesthetic and visual quality of the finished work.
As such, it can be a difficult art to master. Lighting effects can
contribute greatly to the mood and emotional response effected by a scene,
a fact which is well-known to photographers and theatrical lighting
technicians.
It is usually desirable to add color to a model's surface in a user
controlled way prior to rendering. Most 3D modeling software allows the
user to color the model's vertices, and that color is then interpolated
across the model's surface during rendering. This is often how models are
colored by the modeling software while the model is being created. The
most common method of adding color information to a 3D model is by
applying a 2D texture image to the model's surface through a process
called texture mapping. Texture images are no different than any other
digital image, but during the texture mapping process, special pieces of
information (called texture coordinates or UV coordinates) are added to
the model that indicate which parts of the texture image map to which
parts of the 3D model's surface. Textures allow 3D models to look
significantly more detailed and realistic than they would otherwise.
Other effects, beyond texturing and lighting, can be done to 3D models to
add to their realism. For example, the surface normals can be tweaked to
affect how they are lit, certain surfaces can have bump mapping applied
and any other number of 3D rendering tricks can be applied.
3D models are often animated for some uses. They can sometimes be animated
from within the 3D modeler that created them or else exported to another
program. If used for animation, this phase usually makes use of a
technique called "keyframing", which facilitates creation of complicated
movement in the scene. With the aid of keyframing, one needs only to
choose where an object stops or changes its direction of movement,
rotation, or scale, between which states in every frame are interpolated.
These moments of change are known as keyframes. Often extra data is added
to the model to make it easier to animate. For example, some 3D models of
humans and animals have entire bone systems so they will look realistic
when they move and can be manipulated via joints and bones, in a process
known as skeletal animation.
3D Photorealistic effects are often achieved without wireframe modeling
and are sometimes indistinguishable in the final form. Some graphic art
software includes filters that can be applied to 2D vector graphics or 2D
raster graphics on transparent layers.
Advantages of wireframe 3D modeling over exclusively 2D methods include:
* Flexibility, ability to change angles or animate images with quicker
rendering of the changes;
* Ease of rendering, automatic calculation and rendering photorealistic
effects rather than mentally visualizing or estimating;
* Accurate photorealism, less chance of human error in misplacing,
overdoing, or forgetting to include a visual effect.
Disadvantages compare to 2D photorealistic rendering may include a
software learning curve and difficulty achieving certain hyperrealistic
effects. Some hyperrealistic effects may be achieved with special
rendering filters included in the 3D modeling software. For the best of
both worlds, some artists use a combination of 3D modeling followed by
editing the 2D computer-rendered images from the 3D model.
Nationwide 3D product modeling service
areas:
|
AL - Montgomery,
Alabama
AK - Juneau, Alaska
AZ - Phoenix, Arizona
AR - Little Rock, Arkansas
CA - Sacramento, California
CO - Denver, Colorado
CT - Hartford, Connecticut
DE - Dover, Delaware
FL - Tallahassee, Florida
GA - Atlanta, Georgia
HI - Honolulu, Hawaii
ID - Boise, Idaho
IL - Springfield, Illinois
IN - Indianapolis, Indiana
IA - Des Moines, Iowa
KS - Topeka, Kansas
KY - Frankfort, Kentucky
LA - Baton Rouge, Louisiana
ME - Augusta, Maine
MD - Annapolis, Maryland
MA - Boston, Massachusetts
MI - Lansing,
Michigan
MN - St. Paul, Minnesota
MS - Jackson, Mississippi
WY - Cheyenne, Wyoming
MO - Jefferson City, Missouri |
MT - Helena,
Montana
NE - Lincoln, Nebraska
NV - Carson City, Nevada
NH - Concord, New Hampshire
NJ - Trenton, New Jersey
NM - Santa Fe, New Mexico
NY - Albany, New York
NC - Raleigh, North Carolina
ND - Bismarck, North Dakota
OH - Columbus, Ohio
OK - Oklahoma City, Oklahoma
OR - Salem, Oregon
PA - Harrisburg, Pennsylvania
RI - Providence, Rhode Island
SC - Columbia, South Carolina
SD - Pierre, South Dakota
TN - Nashville, Tennessee
TX - Austin, Texas
UT - Salt Lake City, Utah
VT - Montpelier, Vermont
VA - Richmond, Virginia
WA - Olympia, Washington
WV - Charleston, West Virginia
WI - Madison, Wisconsin
Washington D.C. |
There is a large and thriving market for 3D
models (as well as 3D-related content, such as textures, scripts, etc.),
either as individual models or large collections. Online marketplaces for
3D content allow individual artists to sell content that they have
created. Often, the artists' goal is to get additional value out of assets
they have previously created for projects. By doing so, artists can earn
more money out of their old content, and companies can save money by
buying pre-made models instead of paying an employee to create one from
scratch. These marketplaces typically split the sale between themselves
and the artist that created the asset, often in a roughly 50-50 split. In
most cases, the artist retains ownership of the 3d model; the customer
only buys the right to use and present the model.
Collections of hundreds to thousands of 3D models on CD, often royalty
free, are for sale. These models include different types of people,
animals, objects, plants, rocks, tools, furniture, buildings, landscapes,
historical objects, cartoon characters, monsters, science fiction objects,
medieval fantasy objects, etc. A person who buys such a CD can import
these posable ready-made models into their computer animation program.*
*content courtesy of wikipedia
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