A 150 pound resultant force
They are vectors of equal magnitudes in oppositedirections. When you add them, they cancel out each other.
A newton is not a measure of weight, it is a measure of force. It is the force required to accelerate a mass of one kilogram at the the rate of 1 meter per second each second. (1 N = 1 kg.m/s2) A newton of force (in the downwards direction) at Earth's surface is numerically similar (but a bit smaller) than the mass of the object times 10 since the acceleration due to gravity is 9.80665 m/s2 at that location. In the Imperial system the equivalent unit is pound force, again this is not a weight. 1 pound-force is equivalent to 32.17 lb(mass).ft/s2.
wind and its direction amount of force applied may differ each throw aiming skills
Just by adding
Three One is obviously out. Two is out because if two unequal forces n and p act on an object the resultant with the minimum force in magnitude is |n - p|, which will never be 0 if n =/= p. Three can be easily resolved with a quick example. Imagine an object with three concurrent forces acting on it. Two forces, n = 3 N and p = 4 N, create an angle with each other such that the resultant is 5 N. 180 degrees from the resultant, a force, r = 5 N, is acting on the object. Thus three unequal vectors on an object can result in 0.
it will not be balance
When two forces act in the same direction, they are added together to produce a single resultant force. This resultant force will be stronger than each individual force acting alone.
To find the resultant of forces when the directions are separated by 45 degrees, you can use vector addition. Resolve each force into its horizontal and vertical components, then add them up to find the resultant force in both magnitude and direction using trigonometry.
When two forces act at an angle to each other, the resultant force is the single force that can replace them, producing the same effect. The resultant force is found by vector addition using the parallelogram of forces rule, which involves both the magnitude and direction of each force.
To calculate the resultant force, you need to add up all the individual forces acting on an object. If the forces are acting in the same direction, you simply add them up. If the forces are acting in different directions, you need to consider both the magnitude and direction of each force to determine the resultant force.
the head to tail rule
When forces are moving in different directions, they can either cancel each other out if they are of equal magnitude and in opposite directions, resulting in a net force of zero. If the forces are not equal, the object will experience a resultant force in the direction of the larger force. This resultant force will cause the object to accelerate in that direction according to Newton's second law of motion.
To compare the direction of your partner's force with your own, you can use vector addition. If the forces are in the same direction, you add their magnitudes to get the combined force. If they are in opposite directions, you subtract the magnitudes. If the forces are at an angle to each other, you can use trigonometry to determine the resultant force direction.
To combine forces acting in different directions, you can use vector addition. Break each force into its horizontal and vertical components, then sum the horizontal components together and the vertical components together to find the resultant force in each direction. Finally, combine the horizontal and vertical components to find the magnitude and direction of the resultant force.
Perpendicular force means they act at right angles to each other, while the resultant is the summation of all the forces acting. The determination of the resultant force often needs vector calculus .
A resultant moment is caused by the combined effect of multiple forces acting on an object, each creating its own moment. The total resultant moment is the sum of the individual moments, taking into account both the magnitude and direction of each force.
If the two vectors are directly opposite each other, then subtract the smaller one from the larger one and that will be your resultant force. For example, if the force downwards is 5 N and the force upwards is 2 N, the resultant force is 3 N downwards. If the one or both of the two vectors are angled, you need to replace the angled vectors with two right-angled vectors and then add those to create the resultant vectors.