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Simple pendulum research
Detailed explanation on simple pendulum experiment
Simple pendulum research
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Analytical analysis of simple harmonic motion using pendulum with varying conditions
Briz, Axel John, Salih, Nashreen Dale
Institute of Physical Sciences, College of Science, University of the Philippines Baguio
Abstract
This scientific investigation presents how simple harmonic motion happens in pendulum. Old pendulum clocks are basic example for pendulum that shows period and oscillation with respect to time. By using different masses, thread or string and protractors for angle calibration, this experiment was done. Twenty (20) back and forth movement was recorded with respect to the time it reached 20 periods. Each trial for 3 cases has resulted to relatively near oscillation per period. It was observed that whatever instances done, either play with the angles and masses for each trial, no abrupt or tremendous change was observed. Deviations for almost all cases were little to no value, nonetheless,
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T = 2π√(L/g)), where T is the period of the pendulum, L is its length and g is the acceleration of gravity.[1]
Many things in nature wiggle in a periodic fashion through vibration. One such example is a simple pendulum. A simple pendulum may be described ideally as a point mass suspended by a massless string from some point about which it is allowed to swing back and forth in a place. When the mass is displaced a small angle from equilibrium and then released, the pendulum undergoes simple harmonic motion. Theoretically, the period of a pendulum is independent of its mass, and depends on length according to the power-law relationship
Tα√L
where T is the period of oscillation and L is the length. This result can be determined using a dimensional-analysis approach. The independence of mass is a result of the fact that all objects are accelerated towards the center of the earth with the same acceleration of
For each test, I was required to calculate the height of the pendulum required in order for it to have the same mass, or the quantity of matter affected by the external force of gravity, as my project. To find the height, it required understanding the process of the pendulum hitting my project step by step. As the pendulum is pulled back, it has its maximum potential energy, which is the energy possessed by a body by virtue of its position relative to other objects. When the pendulum is let go, it loses potential energy while gaining kinetic energy, or the energy that a body possesses by virtue of being in motion. At the bottom of the swing, kinetic energy of pendulum is the greatest because the change in potential energy equals the kinetic energy at the bottom of the swing. As the pendulum hits my project, there is an impulse, a force acting briefly on a body and producing a finite change of momentum, between the pendulum and project. As the pendulum hits my project, the project carries the momentum of the pendulum with it. By working in reverse order, the height of the pendulum required was
The gigantic clock of ebony is another symbolic object in the story. "Its pendulum swung
To test this relationship an experiment will have to be performed. where the time period for an oscillation of a spring system is related. to the mass applied at the end of the spring. Variables that could affect T Mass applied to spring; preliminary experiments should be performed to. assess suitable sizes of masses and intervals between different masses.
In this inquiry the relationship between force and mass was studied. This inquiry presents a question: when mass is increased is the force required to move it at a constant velocity increased, and how large will the increase be? It is obvious that more massive objects takes more force to move but the increase will be either linear or exponential. To hypothesize this point drawing from empirical data is necessary. When pulling an object on the ground it is discovered that to drag a four-kilogram object is not four times harder than dragging a two-kilogram object. I hypothesize that increasing the mass will increase the force needed to move the mass at a constant rate, these increases will have a liner relationship.
Violence against women is a gender based violence because it is targeted specifically to women just for the fact that they are a woman, this can be due to many reasons like the attacker feeling empowered because they think of women as being the weak gender. The United Nations advocates against violence towards women in their Declaration on the Elimination of Violence against Women. They annotate that violence against women is a “manifestation of historically unequal power relations between men and women” It is something that happens more often that many people realize. Many times this type of violence happens behind close doors and goes to the extremes that many of the victims would not speak
The first record of the movement of the planets was produced by Nicolaus Copernicus. He proposed that the earth was the center of everything, which the term is called geocentric. Kepler challenged the theory that the sun was the center of the earth and proposed that the sun was the center of everything; this term is referred to as heliocentric. Kepler’s heliocentric theory was accepted by most people and is accepted in today’s society. One of Kepler’s friends was a famous person named Galileo. Galileo is known for improving the design and the magnification of the telescope. With improvement of the telescope Galileo could describe the craters of the moon and the moons of Jupiter. Galileo also created the number for acceleration of all free falling objects as 9.8 meters per second. Galileo’s and Kepler’s theories were not approved by all people. Their theories contradicted verses in the bible, so the protestant church was extremely skeptical of both Galileo and Kepler’s
Poe, Edgar Allen. “The Pit and the Pendulum.” Poe, Edgar Allan. The Pit and the Pendulum. Mankato, Minn.: Creative Education, 1980. Print
The Volume Library, vol. I, Physics: Newton's Law of Motion. Pg. 436. The Southwestern Company, Nashville, Tennessee, 1988.
This would mean Isaac Newton was wrong, although his theories still generally hold for calculating dynamics close to Earth.
A pendulum, is what is used in many rides, generally in, Disney, Knott's Berry, and 6 Flags. A pendulum makes the ride move back and forth in a swaying motion like a swing. It is fixed at a point so gravity propels the object swing back and forth. There is a concept of an ideal period in a pendulum. The time it takes for a pendulum to swing back to its original position where it started is what you would call, an “ideal period”. The group will be determining whether or not it is possible for a pendulum of 45 degrees or less to have an constant/ideal period of 1.5 seconds.
Imagine studying for a biology exam that covers ten chapters. Imagine opening the textbook for the first time the night before the exam. Imagine skimming page after page and trying to retain all the information while, at the same time, trying to get at least 9 hours of sleep. The truth is that that is nearly impossible. The brain cannot memorize ten chapters worth of information in one night. And there are not enough hours in one night to memorize ten chapters while still obtaining 9 hours of sleep. As a result, it is crucial that students spread out their studying over several nights. The problem is that most students have busy schedules and tend to procrastinate; therefore they are forced to cram for their exams the night before. Cramming for exams has numerous negative effects, such as lack of sleep, lower grades, and poor health.
The Physics Classroom. "Frequency and Period of a Wave." Physic Classroom. The Physics Classroom, 1996. Web. 28 Nov. 2013. .
The gravitational force at the surface of the planet is the force that binds all bodies to earth, this force is one of the four forces recognized by physicists, and this kind of force is known as "gravity" it attracts every celestial object to earth, and though it is the most important of the forces essential for our lives, it is the least comprehended of them all Throughout ages scientists have tried to solve the mystery of gravity, and one of the first discoveries concerning gravity was made by Aristotle who concluded from his experiments that the downward movement of any body is that has weight had a proportional relationship between its quickness in motion and its size. However this theory was accepted for centuries, but after a series of experiments made by Galileo, Aristotle's theory was proved to be incorrect, as Galileo said after a series of experimenting at the Pisa tower that bodies of different sizes fall with the same speed. Later on, the idea that the force is needed so as to change the motion of the body was discovered. After that a great scientist was to improve all the previously accepted theories, this scientist was Newton who was to make decisive advances in understanding gravity. In his first law Newton said that a body in state of rest or uniform motion in a straight line will keep on moving unless acted upon by a force, while in his second Newton expressed his first law in a more quantitative way as he said that force acting on a body is the rate of change of it's momentum which can be put in a rule as F= ma Where (F) is the force acting on the body while (a) and (m) are the acceleration and inertial mass of the body respectively. Newton also made the law of gravitation in which he expressed the gravitational force of attraction between any two bodies acting along the line joining them as Where (m) is the mass of the two bodies and (r) is the distance between them, while (G) is the proportionality constant known as the constant of gravitation, afterwards Newton made his very important assumption in which he showed that the inertial mass of a body is identical to its gravitational mass which implied that the gravitational force exerted on or by an object is directly proportional to its inertia.
Jones, Andrew Z. "Physics of the Greeks." About.com Physics. About.com, n.d. Web. 22 Mar. 2014.