This equation is used to get a new velocity after a known old velocity plus a known period of known acceleration.  V_New is the new velocity, while V_Old is the old and known velocity.  The variable A is for acceleration, and T is for time.  Please be sure that A, V_Old , and V_New are in the same units as each other (i.e. meters / second).  For slowing down (deceleration), just use a negative value for A.
 
 

    This equation is used to get the distance traveled when the old and new velocities and time are known. V_New is the new velocity, while V_Old is the old and known velocity.  The variable A is for acceleration, and T is for time.  Please be sure that V_Oldand V_New are in the same units as each other (i.e. meters / second).  Likewise, be sure that X_New and X_Old are in the same distance units as that used in V_Old and V_New.
 
 

    This equation is used to get the distance traveled when the old velocity, time, and acceleration are known.  V_New is the new velocity, while V_Old is the old and known velocity.  The variable A is for acceleration, and T is for time.  Please be sure that V_Old , V_New , and A are in the same units as each other (i.e. meters / second).  Likewise, be sure that X_New and X_Old are in the same distance units as that used in V_Oldand V_New. For deceleration, use a negative value for A.
 
 

    This equation is used to get a new velocity after a known old velocity plus a known period of known acceleration.  V_New is the new velocity, while V_Old is the old and known velocity.  The variable A is for acceleration, and T is for time.  Please be sure that A, V_Old , and V_New are in the same units as each other (i.e. meters / second).  For deceleration, just use a negative value for A.
 
 

    This equation is used to get the distance traveled over a period of time when the velocity varies. V  is the velocity function of time.  Please be sure that X_Old , and X_New are in the same units as each other (i.e. meters / second).
 
 

    These equations is used to get the X and Y components of an angled line whose length is L.  The third equation is required only when working in 3-D.  The Z part is from the X-Z plane.
 
 

    This is the standard 3-D distance formula.  When working in 2-D, just omit the Z part or just give it a value of 0.
 
 

    This equation is used to calculate force on a given mass of an object and its acceleration (or deceleration by using a negative value).  Also, a negative value can mean acceleration in the OPPOSITE direction.  F is the net force in newtons or 1 Kg * M/s².  That means if a mass of 1 kilogram (which is 2.204623 lb when at sea level on Earth) is decelerated by one meter per second (acceleration = -1),  it would take a force of 1 newton to stop it.  For British use, F is in the units of pounds and M is in units of slugs, which is a British unit for mass, and A is in units of ft/s².  Please note that WEIGHT is also a force, but is composed of MASS x ACCELERATION.  In place of A, use 9.803 if in m/s² or use 32.162 ft/s², which is the acceleration caused by Earth's gravity at sea level. ^a a
 
 

    This equation is used to calculate linear G-force.  V_New is the new velocity, while V_Old is the old and known velocity.  The variable G is for acceleration, and T is for time.  Please be sure that G, V_Old , and V_New are in the same units as each other (i.e. meters / second).  For deceleration, just use a negative value for G.
 
 

    This equation is used to calculate centrifugal G-force.  V is the velocity, while R is the radius.  The variable G is for gravity.  Please be sure that G and V are in the same units as each other (i.e. meters / second).
 
 

    This equation is used to calculate centrifugal G-force when the number of revolutions per period of time and the radius are known.. N is the number of circles (Fractionalcircles are included as a fraction.) made within a unit of time (i.e. second), while R is the radius.  The variable G is for gravity.  Please be sure that G and R are in the same distance units as each other (i.e. meters).  Whatever unit of time is used, make sure that it is reflected in both the number of circles made and in the time unit used in accelerationdue to gravity.  For your information, Earth's gravity results in a G value of 32 ft/sec² or 9.8 m/s².  To just get typical force, just disregard the division by G or just change G to a value of 1.
 
 

    This equation is used to calculate centrifugal G-force when the number of revolutions per minute and the radius are known.. N is the number of circles (Fractional circles are included as a fraction.) made within one minute, while R is the radius.  This formula works only in units of minutes and feet.  This was derived using dimensional analysis.
 

    This equation is used to calculate centrifugal G-force when the number of revolutions per minute and the radius are known.. N is the number of circles (Fractional circles are included as a fraction.) made within one minute, while R is the radius.  This formula works only in units of minutes and meters.  This was derived using dimensional analysis.