About Me
Funny is that people or more afraid of spiders then death and we will all die one day, and then were was you faith?
I also love my kids, motorcycles, scooters, stunts, speed, handguns & target practice.
When I go out then I dance,drink,love to meet cool people, having fun to morning light ;)If you want to find out more just email me.
Secretive, organized, clean, rarely worries,
solitary, high self control, dislikes large parties,
prefers organized to unpredictable, prudent, observer,
tough, self reliant, very good at saving money, introverted,
perfectionist, mind over heart,not controlling of others, hard working, confident, resolute, does not make friends easily, finisher,
does not like to stand out, very practical, intellectual,
unsympathetic at times, honest, follows the rules.
Equations of motion
The instantaneous velocity vector (v) of an object that has position x(t), at time t, can be computed as the derivative:
v={..mathrm{d}x ..over ..mathrm{d}t} = ..lim_{..Delta t ..to 0}{..Delta x ..over ..Delta t}.
The equation for an object's velocity can be obtained mathematically by taking the integral of the equation for its acceleration beginning from some initial period time t0 to some point in time later tn.
The final velocity v of an object which starts with velocity u and then accelerates at constant acceleration a for a period of time t is:
v = u + at...;..!
The average velocity of an object undergoing constant acceleration is ..begin{matrix} ..frac {(u + v)}{2} ..; ..end{matrix}, where u is the initial velocity and V is the final velocity. To find the displacement, s, of such an accelerating object during a time interval, t, then:
s = ..frac {( u + v )}{2}t.
When only the object's initial velocity is known, the expression,
also h=-16t2+vt+s
h is the height, v is the velocity, t is the time, and s is the starting height. Usually one will get two answers and must use logic to realize the real answer and what the other one pertains to.
s = ut + ..frac{1}{2}a t^2,
can be used. These basic equations for final velocity and displacement can be combined to form an equation that is independent of time, also known as Torricelli's equation:
v^2 = u^2 + 2as...,
The above equations are valid for both classical mechanics and special relativity. Where classical mechanics and special relativity differ is in how different observers would describe the same situation. In particular, in classical mechanics, all observers agree on the value of t and the transformation rules for position create a situation in which all non-accelerating observers would describe the acceleration of an object with the same values. Neither is true for special relativity. In other words only relative velocity can be calculated.
The kinetic energy (energy of motion) of a moving object is linear with both its mass and the square of its velocity:
E_{K} = ..begin{matrix} ..frac{1}{2} ..end{matrix} mv^2.
The kinetic energy is a scalar quantity.
Streetfire
Scooter Trix
Scooter Stunts
Street bike stunts
The legend
Mp3 movies everything you want on this planet
Global Personality Test Results
Stability (66%) moderately high which suggests you are relaxed, calm, secure, and optimistic.
Orderliness (66%) moderately high which suggests you are, at times, overly organized, reliable, neat, and hard working at the expense of flexibility, efficiency, spontaneity, and fun.
Extraversion (23%) low which suggests you are very reclusive, quiet, unassertive, and secretive.
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