sorry it has not posted, but my computer is ruined (the motherboard x_x)
but I hope that at the end of the week you post something, thanks for your patience. : D
Monday, September 7, 2009
Pair Of Eagle Scooter Wheels
gallery! Melt
sorry it has not posted, but my computer is ruined (the motherboard x_x)
but I hope that at the end of the week you post something, thanks for your patience. : D
sorry it has not posted, but my computer is ruined (the motherboard x_x)
but I hope that at the end of the week you post something, thanks for your patience. : D
Sunday, July 26, 2009
Email Confidentiality Contract
u_u smile (Process)
Hello! well this is another old picture, but in this teach as I begin my ideas down to the final artwork.
NOTE: I teach my way and process forms with which they work, not from books or something, it's just HOW IT WORKS FOR ME, MY EXPERIENCE AND WHAT I LEARNED FROM OTHER ARTISTS, so I hope some of this will be useful someday.
I first make small boxes, horizontal or vertical depending on the orientation will be in the picture, sometimes just write the ideas or words of things I want to see in the scene to illustrate. defining these early ideas start with small drawings
In this case wanted a snowman and a girl, so I start with drawings fast and every idea that comes to my mind, to choose the best composition. (Best to put on paper your ideas until you find the best visualize what you want and you get that idea working alone.)
decided in this case a horizontal composition, and taking an overview of all composition, begin to put the elements to be on the scene in this case: trees, snowman and the girl doing some action.
then defined the elements of the scene, for better and clearer idea of \u200b\u200bthe elements at this stage let other ways to make them in photoshop like the leaves on the trees.
For the character I did different faces in different positions to achieve the expression that looked like this was a simple picture did not do much exploration in search of character but in future post with more complex designs makes more emphasis on this stage.
and the final result:
hope you like, this is just an overview of the steps I use to create my artwork, this example is a very basic design but I'll post more pictures more complex processes after .
hope you liked it, have a nice day!
All rights reserved © rodolfo veiled and fitografito.com © 
Hello! well this is another old picture, but in this teach as I begin my ideas down to the final artwork.
NOTE: I teach my way and process forms with which they work, not from books or something, it's just HOW IT WORKS FOR ME, MY EXPERIENCE AND WHAT I LEARNED FROM OTHER ARTISTS, so I hope some of this will be useful someday.
I first make small boxes, horizontal or vertical depending on the orientation will be in the picture, sometimes just write the ideas or words of things I want to see in the scene to illustrate. defining these early ideas start with small drawings
In this case wanted a snowman and a girl, so I start with drawings fast and every idea that comes to my mind, to choose the best composition. (Best to put on paper your ideas until you find the best visualize what you want and you get that idea working alone.)
decided in this case a horizontal composition, and taking an overview of all composition, begin to put the elements to be on the scene in this case: trees, snowman and the girl doing some action.
then defined the elements of the scene, for better and clearer idea of \u200b\u200bthe elements at this stage let other ways to make them in photoshop like the leaves on the trees.
For the character I did different faces in different positions to achieve the expression that looked like this was a simple picture did not do much exploration in search of character but in future post with more complex designs makes more emphasis on this stage.
and the final result:
hope you like, this is just an overview of the steps I use to create my artwork, this example is a very basic design but I'll post more pictures more complex processes after .
hope you liked it, have a nice day!
All rights reserved © rodolfo veiled and fitografito.com ©
Where Do The Oilers Play Football?
Ironman 28 fanart
Dedicated to all fans who love oldies television series, a fan art Ironman 28
All rights
reserved to the creators of Ironman 28. 
Dedicated to all fans who love oldies television series, a fan art Ironman 28
All rights
reserved to the creators of Ironman 28.
Friday, May 9, 2008
What Pants To Wear With Hiking Boots
seen above that the atoms are placed in a crystalline solid regularly and periodically. This restriction means that there are only a few possible networks.
A 3-dimensional solid there are only 14 different networks, grouped into 7 sets. The networks are described by unit vectors (a, b, c) establishing the frequency in each direction, as well as the relative direction or angles formed between them (a, b, g)
The most general is triclinic, as it is different from one another both angles, as the vectors that define the network. However, most common methods, while simple, are the cubic and hexagonal.
The cubic, as its name suggests, is a cube with equal frequency in all three directions, and angles of 90 º. Examples are common salt (sodium chloride, NaCl), silicon (Si), or diamond (carbon, C)
The hexagonal system has two vectors forming an angle of 120 degrees, and the third 90 degrees. This form is a hexagonal prism, and corresponds to materials such as graphite (carbon, C), or sapphire (also called alumina, Al2O3)
The cubic lattice
The simplest base is to place an atom in one corner a cube:
This type of network is called simple cubic lattice (SC), and has only one point in the network before it. In forming the crystal lattice, the atoms of adjacent cells round the corners of the cube. The position of the lower left corner, foreground, is usually considered the origin of coordinates of the unit cell. Thus, the coordinates of this point of network would be (0,0,0). Despite its simplicity, there are many elements that crystallize in this way.
The second type of cubic lattice is called body-centered cubic (Body-Centered Cubic, BCC). In this case, there are two occupied grid points, which are a corner and the center of the cube:
In this case, the two network points are at coordinates (0,0,0) and (a / 2, a / 2, a / 2), being to the lattice parameter or the length of the edge of the cube of the unit cell. Examples of materials that are BCC lattices is brass (CuZn, a = 2.94 å). Cu atom is placed in the corner, while Zn occupies the center of the body. That is, the unit cell contains 1 atom of copper, zinc and 1.
The final structure is cubic face-centered (Face Centered Cubic, FCC). Network has 4 points, one in the corner, and three more in the faces of the cube.
the coordinates of the grid points are (0,0,0), (0, a / 2, a / 2), (a / 2.0, a / 2) and (a / 2 , a / 2.0). A well-known network of this type is sodium chloride (common salt, NaCl), a = 5.63 å). Unlike brass, this time each lattice point is occupied by one atom of each class, but by a molecule of NaCl, so that each unit cell contains 4 atoms of Na, Cl and 4
FCC Network Other examples are the silicon (Si) or gallium arsenide (GaAs), each with its own peculiarities in its structure, widely used in microelectronics. The
hexagonal lattice
Of all the networks, there are two that offer maximum possible compaction. The first is the FCC. The other is the hexagonal close-packed.
hexagonal network is composed of three vectors a, b, c, to satisfy a = b, with an angle of 120 ° and the angle between a and b to c is 90 °. The maximum compaction is achieved when c = 1,633 • a. The base is formed by two atoms, the first located at the origin (0,0,0), and the other positions (2a / 3, / 3, a / 2)
A 3-dimensional solid there are only 14 different networks, grouped into 7 sets. The networks are described by unit vectors (a, b, c) establishing the frequency in each direction, as well as the relative direction or angles formed between them (a, b, g)
The most general is triclinic, as it is different from one another both angles, as the vectors that define the network. However, most common methods, while simple, are the cubic and hexagonal.
The cubic, as its name suggests, is a cube with equal frequency in all three directions, and angles of 90 º. Examples are common salt (sodium chloride, NaCl), silicon (Si), or diamond (carbon, C)
The hexagonal system has two vectors forming an angle of 120 degrees, and the third 90 degrees. This form is a hexagonal prism, and corresponds to materials such as graphite (carbon, C), or sapphire (also called alumina, Al2O3)
The cubic lattice
The simplest base is to place an atom in one corner a cube:
This type of network is called simple cubic lattice (SC), and has only one point in the network before it. In forming the crystal lattice, the atoms of adjacent cells round the corners of the cube. The position of the lower left corner, foreground, is usually considered the origin of coordinates of the unit cell. Thus, the coordinates of this point of network would be (0,0,0). Despite its simplicity, there are many elements that crystallize in this way.
The second type of cubic lattice is called body-centered cubic (Body-Centered Cubic, BCC). In this case, there are two occupied grid points, which are a corner and the center of the cube:
In this case, the two network points are at coordinates (0,0,0) and (a / 2, a / 2, a / 2), being to the lattice parameter or the length of the edge of the cube of the unit cell. Examples of materials that are BCC lattices is brass (CuZn, a = 2.94 å). Cu atom is placed in the corner, while Zn occupies the center of the body. That is, the unit cell contains 1 atom of copper, zinc and 1.
The final structure is cubic face-centered (Face Centered Cubic, FCC). Network has 4 points, one in the corner, and three more in the faces of the cube.
the coordinates of the grid points are (0,0,0), (0, a / 2, a / 2), (a / 2.0, a / 2) and (a / 2 , a / 2.0). A well-known network of this type is sodium chloride (common salt, NaCl), a = 5.63 å). Unlike brass, this time each lattice point is occupied by one atom of each class, but by a molecule of NaCl, so that each unit cell contains 4 atoms of Na, Cl and 4
FCC Network Other examples are the silicon (Si) or gallium arsenide (GaAs), each with its own peculiarities in its structure, widely used in microelectronics. The
hexagonal lattice
Of all the networks, there are two that offer maximum possible compaction. The first is the FCC. The other is the hexagonal close-packed.
hexagonal network is composed of three vectors a, b, c, to satisfy a = b, with an angle of 120 ° and the angle between a and b to c is 90 °. The maximum compaction is achieved when c = 1,633 • a. The base is formed by two atoms, the first located at the origin (0,0,0), and the other positions (2a / 3, / 3, a / 2)
Annex
Diamonds and pens
Structure
crystalline architecture 
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