Every day we experience the law of Sir Isaac Newton. In the car, cart, even fighting. All these laws concern exercise. You can experience the first law during parking, the second is to press the shopping cart, and the third is underwater. Basically, Newton's First Law states that "moving objects tend to keep moving, but objects that are stationary tend to remain stationary unless forced by external forces." I will feel the law, let us say 70 mph, it suddenly stops. Today, Newton's law of three movements - the law which describes the law of motion of object in this world and the law of universal gravity of Newton - the law which describes the law of force, gravity, mass etc in the universe is most important It is considered a physical chapter. He also studied the nature of the light, he introduced the reflecting telescope, and he also produced calculus and others. Galileo Galilei: A famous Italian scholar, also known as the world's most famous physicist, astronomer, engineer, philosopher and mathematician, Galileo Galilei was born on 15th February 1564. He is a major player of the scientific revolution - the emergence of modern science and the largest astronomer in science history. Newton's first "principle" explains Newton's three laws of motion. Newton's first law is the application of modern physics. Newton's first kinetic rule states, "Unless external force is applied, the body will remain stationary and the body in motion will maintain a constant motion." This rule is also known as the principle of inertia. The second law of Newton defines "mass and acceleration forces, which is the first major difference between weight and weight." Newton's third law states that "All actions are the same I will react. " This law is used in today's rocket, his most famous legislation. Newton was able to learn how gravity between Earth and Moon was calculated using his three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory.

All objects in uniform motion state remain in this motion state unless an external force is applied. Galileo pioneered the first law, also known as the law of inertia. In the era of Galileo it is impossible to observe moving objects and this is a fairly conceptual leap, as at least some friction will interfere with movement. Indeed, for more than a thousand years before Galileo, educated people believed in Aristotle 's statement that there was external forces that would create this type of movement no matter where the move occurred. The second law actually means the first law. Because (because no force is applied), the acceleration is zero, meaning constant speed. (The speed is just a short time.) Newton's third law implies the conservation of momentum [138]. From the second law it can be said that when the object "pushes" the second object at the (massless) contact point with the applied force, there must be equal cancellation of force from the second object Recognize. Otherwise there is a non - zero net force at the massless point and according to the second law the contact point will be accelerated infinitely. That is, Newton's law is as follows. Numerous physical sciences have been developed by applying this simple B.1 mathematical law to various physical situations. Newton developed three laws of motion, which produced a universal law of gravity. The law of his movement is the law of the nature of mechanics. Newton's three kinetic rules are as follows. Law of Inertia - Static objects tend to remain stationary unless subjected to external forces. Second Law - If you add unbalanced force to an object, the object will accelerate. There is an equation that fits this rule, F = ma. This means that the force is equal to the mass multiplied by the acceleration. Third law - each behavior has the same but opposite reaction Today, Newton's law of three movements - the law describing the law of movement of the world object and the law of universal gravity of Newton - the law describing the laws of the universe such as force, gravity, mass is the most important It is considered a physical chapter. He also studied the nature of the light, he introduced a reflecting telescope, and he also created calculus and others. Galileo Galilei: The famous Italian scholar, Galileo Galilei, also known as the world's most famous physicist, astronomer, engineer, philosopher and mathematician, was born on 15th February 1564. He is the major player of the scientific revolution - the emergence of modern science and the largest astronomer in science history. Newton's first "principle" explains Newton's three laws of movement. Newton's first law is the application of modern physics. Newton's first kinetic law states that "As long as external forces are not applied, the body remains stationary, and the body in motion continues to move constantly." This rule is also known as the principle of inertia. The second law of Newton defines "weight and acceleration force, this is the first big difference between weight and weight." Newton's third law states that "the same opposite for all actions There is a reaction ". This law is used today in modern rockets and is one of his most famous laws. Newton was able to learn how gravity between the Earth and the moon was calculated using three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory.

Physics involves everyday life and can be a necessary explanation of how things work. Becoming a goalkeeper in Lacrosse includes a physical concept and shows how they are applied to all the actions done in the field. In order to better understand the physical characteristics of the goalkeeper it is necessary to understand three laws of motion of Newton, inertial force, gravity and acceleration, force of equal and opposite direction, and other laws of torque and leverage Yes. The first law of Newton's law is inertia. The basic definition of inertia is that a moving object continues to move until an external force is applied and a stationary object remains stationary until an external force is applied (Serwalt, Newton's first "principle" explains Newton's three laws of motion. Newton's first law is the application of modern physics. Newton's first kinetic rule states, "Unless external force is applied, the body will remain stationary and the body in motion will maintain a constant motion." This rule is also known as the principle of inertia. The second law of Newton defines "mass and acceleration forces, which is the first major difference between weight and weight." Newton's third law states that "All actions are the same I will react. " This law is used in today's rocket, his most famous legislation. Newton was able to learn how gravity between Earth and Moon was calculated using his three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory. In 1687, Sir Isaac Newton announced "principle". This book contains the rules of his three movements. And that will change dynamics forever. These three laws form the basis of classical mechanics. During the past three centuries, Newton's three laws of motion have been proved many times. They are the foundation of many of our modern inventions. Roller coasters are modern inventions that use the law of movement to get excited and make full use of Newton's law of movement. The roller coasters, their twists, rotation, and loops seem to ignore everything we know about the movement of people and things. However, the roller coaster designer uses Newton's law to push people beyond their normal limits. Early roller coasters like Coney Island's Flip Flap, even twisting of the neck due to sudden high g force and even fracture of the neck

We all heard the story that Apple falls on Newton's head while Apple is sitting in a tree. It suddenly made him think about universal gravity law. I think that most people know that this is not what actually happened. A more accurate version may be that Newton observed observing falling of apples from the tree and began to consider the physical characteristics of the falling apples. When an apple falls, the acceleration when an apple hangs on a tree increases from zero. Long ago, Sir Isaac Newton gave us the law of three motions which is the work of genius. However, Sir Isaac 's talent did not reach investment. He lost a bunch of bubbles in the South China Sea and later explained, "Although we can calculate the movement of stars, we can not calculate human madness." Due to this traumatic loss, Sir Isaac may continue to discover the fourth law. For investors as a whole, revenue will decrease as movement increases. The worst business is fast growing, it promotes growth and then needs a lot of money to make little or no money after that. I think about an airline company. Since the Wright brothers era, long-term competitive advantage has proven to be elusive. Indeed, if a foresightable capitalist appears in Kitty Hawk, he will do a wonderful job of his successor by shooting Orville. Classical mechanics is basically based on the Newtonian motion law. These laws explain the relationship between the forces acting on the body and the movement of the body. They were first written by Sir Isaac Newton in his work Philosophia Naturalis Principia Mathematica and first published on July 5, 1687. Newton's three laws are as follows. Quantum mechanics is a set of principles that describe the atomic level physical reality (molecules and atoms) of a substance. And elementary particles (electrons, protons, neutrons, and even smaller elementary particles like quark). These descriptions include both undulating and particulate matter behavior and radiant energy, as explained by the duality of waves and particles. Sir Isaac Newton first proposed three motion laws in "Principia Mathematica Philosophiae Naturalis" in 1686. His third law states that there is essentially the same and opposite reaction to every action (power). That is, if object A applies force to object B, object B also applies the same force and opposite force to object A. Note that forces apply to different objects. For aircraft, the principles of behavior and reaction are very important. It helps to explain the occurrence of wing lift. In this problem, the air is deflected downward by the action of the airfoil, and in the reaction the wing is pushed upward. Likewise, in the case of rotating balls, air is deflected to one side and the ball reacts by moving in the opposite direction. The jet engine also generates thrust by action and reaction. The engine produces hot exhaust gas flowing from the rear of the engine. In reaction, the thrust occurs in the opposite direction

Isaac Newton discovered gravity when the apple fell to the head. Then he began to think about how Apple fell on his head, thus creating three laws of motion for Newton. The first law of Newton's movement is that the moving object tends to keep moving and that the stationary object tends to be stationary unless it receives another force. Newton's second law of motion is the formula of force, ie force = mass * acceleration. Newton's third law of motion is that each action is the same opposite reaction. The three laws of exercise were written by Isaac Newton in the philosophy of natural philosophy philosophy (the mathematical principle of natural philosophy), first published in 1687. Newton explains and studies the movement of many physical objects and systems using them. For example, in Volume 3 of the text Newton shows that the laws of these movements are combined with his universal gravity law to explain Kepler's law of planetary motion. Newton's law applies to an idealized object as a single mass point In this sense, the size and shape of the object is ignored and it is easy to focus on that movement. This can be done when the object is small compared to the distance needed for analysis, or when deformation and rotation of the body are not important. In this way, even planets can be idealized as particles to analyze the orbital motion around a fixed star. Isaac Newton discovered gravity when the apple fell to the head. Then he began to think about how Apple fell on his head, thus creating three laws of motion for Newton. The first law of Newton's movement is that the moving object tends to keep moving and that the stationary object tends to be stationary unless it receives another force. Newton's second law of motion is the formula of force, ie force = mass * acceleration. - Physics, including daily life, can be a necessary explanation of how things work. Becoming a goalkeeper in Lacrosse includes a physical concept and shows how they are applied to all the actions done in the field. In order to better understand the physical characteristics of the goalkeeper it is necessary to understand three laws of motion of Newton, inertial force, gravity and acceleration, force of equal and opposite direction, and other laws of torque and leverage Yes. The first law of Newton's law is inertia Newton's first "principle" explains Newton's three laws of motion. Newton's first law is the application of modern physics. Newton's first kinetic rule states, "Unless external force is applied, the body will remain stationary and the body in motion will maintain a constant motion." This rule is also known as the principle of inertia. The second law of Newton defines "mass and acceleration forces, which is the first major difference between weight and weight." Newton's third law states that "All actions are the same I will react. " This law is used in today's rocket, his most famous legislation. Newton was able to learn how gravity between Earth and Moon was calculated using his three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory.

There is a man named Sir Isaac Newton in England. I feel a little irritated, my hair is not good, but I am a very smart person. He is also devoted to the development of calculus and physics. In his work, he proposed three basic ideas (not modern physics) that apply to most sports physics. Over the years these ideas have been tested and verified over and over. And now scientists call it Newton's three laws of motion. The first law states that stationary objects tend to remain stationary and that moving objects tend to keep moving in the same direction and speed. There is no disproportionate force and exercise (or no exercise) can not be changed. If nothing happens to you, nothing will happen and you will not go anywhere. When moving in a specific direction, it always moves in this direction unless something happens. eternally When you see the astronaut video clip, you can see a good example of this idea. Have you noticed that their tools are floating? They can put them in space and they stay in one place. There is no interference that causes this to change. The same applies when they throw objects for the camera. These objects move linearly. If they throw objects while walking in space, objects will keep moving at the same speed in the same direction unless you get in the way; for example if the gravity of the planet pulls it up (note: When you begin learning advanced physics courses, you will learn all the real details - and mathematics. The second law states that the acceleration and force of an object created by the net (total) force is the same as the direction of force and inversely proportional to the mass of the object (the opposite value). The reciprocal is 1/2. The second law shows that applying the same force to two objects of different mass produces different accelerations (movement changes). The effect of small mass (acceleration) will be greater (it will be more obvious). The effect of 10 Newtons on baseball is far greater than the same force acting on a truck. The difference in effect (acceleration) is due to the difference in quality perfectly. The third law states that there is an equally opposite reaction (power) for each action (force). Power comes to a pair. Please think about the time you are sitting in the chair. Your body is applied downwards, the chair needs to apply the same force upwards, otherwise the chair will collapse. This is a matter of symmetry. Government troops encountered other units in the opposite direction. There are examples of shooting cannonballs. When the shell is fired in the air (by explosion), the shell is pushed back. The force to push the ball is the same as the force to push back the gun, but the influence on the gun is much bigger, so it is less noticeable. This example is similar to a kick when a gun shoots a bullet forward. Classical mechanics is basically based on the Newtonian motion law. These laws explain the relationship between force acting on the body and body movement. They were first written by Sir Isaac Newton in his work Philosophia Naturalis Principia Mathematica and first published on July 5, 1687. Newton's three laws are as follows. Quantum mechanics is a set of principles that describe the atomic level physical reality (molecules and atoms) of a substance. And elementary particles (electrons, protons, neutrons, and even smaller elementary particles like quark). These descriptions include simultaneous behavior of waves and particles of matter described by the duality of waves and particles, and radiant energy. In physics, the movement is described by two distinctly inconsistent laws of dynamics. Classical mechanics depict the movement of all large familiar objects in the universe like projectiles, planets, cells, and humans. Quantum mechanics represents the motion of very small atoms and elementary particles. Classical mechanics are used to describe the motion of macroscopic objects from projectiles to mechanical parts, and even astronomical obje

The movement of the aircraft in the air can be explained and explained by the physical principle discovered by Sir Isaac Newton over 300 years ago. Newton has worked in many areas of mathematics and physics. He developed a theory of universal gravity in 1666 when he was 2366 years old. About 20 years later, in 1686 he proposed three motion laws with "Principia Mathematica Philosophiae Naturalis". These laws are shown above and the application of these laws in aerodynamics is shown on a separate slide. Newton's first law states that each object remains stationary or moving unless forced to change the state by the action of external force. This is usually considered as the definition of inertia. The important point here is that if there is no net force acting on the object (all external forces cancel each other), the object will maintain a constant speed. If the speed is zero, the object will remain stationary. When an external force is applied, the speed changes with force. The second rule explains how the velocity of an object changes when an object receives external force. The force defined by the law is equal to the change in momentum (the quality times the speed) for each change. Newton also developed a mathematical calculation method, and the "change" expressed by the second law is most accurately defined in differential form. For objects with a constant mass m, the second rule states that the force F is the product of the mass of an object and its mass. Acceleration a: When externally applied force, the change in speed depends on the mass of the object. The speed varies with force, and force is generated when the speed changes as well. This expression is both valid and valid The third law states that there is essentially the same opposite reaction for every act (power). That is, if object A applies force to object B, object B also applies equal force to object A. Note that forces apply to different objects. The third law can be used to explain the occurrence of wing lift and the thrust generated by the jet engine. You can see short videos about Orville and Wilburette explaining how Newton's law of motion explains the flight of those planes. You can save the movie file on your computer and display it as a podcast in the Podcast player In its original form, Newton's law of motion is not sufficient to characterize the motion of rigid bodies and deformable objects. In 1750 Leonhard Euler introduced the generalization of Newton's kinetic law known as the Euler's kinetic law and later applied to deformable objects assumed to be a continuum. Euler's law can be derived from Newton's law if the object is represented as a collection of discrete particles each following Newton's law of movement. However, Euler's law can be used as an axiom to describe the law of motion of expansion, independent of the structure of the particle. Classical mechanics is basically based on the Newtonian motion law. These laws explain the relationship between force acting on the body and body movement. They were first written by Sir Isaac Newton in his work Philosophia Naturalis Principia Mathematica and first published on July 5, 1687. Newton's three laws are as follows. Quantum mechanics is a set of principles that describe the atomic level physical reality (molecules and atoms) of a substance. And elementary particles (electrons, protons, neutrons, and even smaller elementary particles like quark). These descriptions include simultaneous behaviors and radiant energy of waves and particles of matter described by the duality of waves and particles. Newton's first "principle" explains Newton's three laws of movement. Newton's first law is the application of modern physics. Newton's first kinetic law states that "As long as external forces are not applied, the body remains stationary, and the body in motion continues to move constantly." This rule is also known as the principle of inertia. The second law of Newton defines "weight a

Sir Isaac Newton, who created the law of movement, helped to understand why people move, how they move, and led a very interesting life. In his early years, he dealt with difficulties and grew into a very moving person in the latter part of his life. At the university, there were many breakthroughs, including the physical laws still in use, due to his scientific research. His life answers scientific questions of many people still being raised in the physics classroom around the world. Isaac Newton discovered gravity when the apple fell to the head. Then he began to think about how Apple fell on his head, thus creating three laws of motion for Newton. The first law of Newton's movement is that the moving object tends to keep moving and that the stationary object tends to be stationary unless it receives another force. Newton's second law of motion is the formula of force, ie force = mass * acceleration. - Physics, including daily life, can be a necessary explanation of how things work. Becoming a goalkeeper in Lacrosse includes a physical concept and shows how they are applied to all the actions done in the field. In order to better understand the physical characteristics of the goalkeeper it is necessary to understand three laws of motion of Newton, inertial force, gravity and acceleration, equal force and opposite force, and the laws of torque and leverage. The first law of Newton's law is inertia Sir Isaac Newton, who created the law of movement, helped to understand why people move, how they move, and led a very interesting life. In his early years, he dealt with difficulties and grew into a very moving person in the latter part of his life. At the university, there were many breakthroughs, including the physical laws still in use, due to his scientific research. - Frederic Douglas has begun to help stop slavery. Anti - slavery movement. February 1818 - February 20, 1895. Frederick Douglas, Anna Murray, African American, Slave. It prevents people from becoming slaves. Frederick Douglas is thinking this person through Lincoln myth. Frederick Douglas 1849, Ireland, United Kingdom, United States of America. Learn to be equal with others It seems that it violates the most basic law of physics. There is no energy movement. But what have you learned now? That time is "energy" itself. Time creates action. It creates an opening for the movement of matter and the presence of energy. It is a medium that everything else can move Therefore, today's science has this "law of energy conservation". All movements are regarded as kinetic energy and are derived from potential energy. But one day, I realized that the laws of Newton's three movements cause movement to be caused by "imbalanced force", not by energy or potential energy. And I remember that the magnet in the refrigerator can give out "infinite" power without any input. So, in theory, is it possible to use this "gap between force and energy" to break "conservation law of energy"?

Newton's First Law Newton's First Law states that: When an object in the universe is placed on a certain path, it remains on that path unless it receives any external forces. Newton's first law also exists in every life on the planet. The most likely place we can experience is our car. If you are driving your car and you stop suddenly, you will have to go through widshield unless you are wearing a seat belt. Today, Newton's law of three movements - the law which describes the law of motion of object in this world and the law of universal gravity of Newton - the law which describes the law of force, gravity, mass etc in the universe is most important It is regarded as a physical chapter. He also studied the nature of the light, he introduced the reflecting telescope, and he also produced calculus and others. Galileo Galilei: A famous Italian scholar, also known as the world's most famous physicist, astronomer, engineer, philosopher and mathematician, Galileo Galilei was born on 15th February 1564. He is a major player of the scientific revolution - the emergence of modern science and the largest astronomer in science history. Newton's first "principle" explains Newton's three laws of motion. Newton's first law is the application of modern physics. Newton's first kinetic rule states, "Unless external force is applied, the body will remain stationary and the body in motion will maintain a constant motion." This rule is also known as the principle of inertia. The second law of Newton defines "mass and acceleration forces, which is the first major difference between weight and weight." Newton's third law states that "All actions are the same I will react. " This law is used in today's rocket, his most famous legislation. Newton was able to learn how gravity between Earth and Moon was calculated using his three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory. Newton is best known for his work in mechanical physics and mathematics. Newton developed three laws of motion and formed the foundation of modern physics. The laws of these motions detail energy conservation, inertia and momentum. In addition to the laws of these movements, Newton also developed gravity theory and gravity constants used in modern physics. These laws are important for the development of several scientific disciplines and the development of modern technologies such as cars and space shuttles.

The rocket existed for thousands of years, but they never did their best. The earliest solid rocket fuel existed in the form of gunpowder, but the extraction of the earliest recorded explosive came from China in the second half of the third century before Christ. The Chinese put the gunpowder in the bamboo pipe and threw it into the fire. I wanted to make a sound of sufficient magnitude to avoid driving demons away. Some bamboo pipes are not properly sealed, but loud sounds fly through the air. Photo: Space rocket is a testimony of Newton's motion law. The force exhausting hot exhaust gas pushed the rocket forward. The rocket does not move on the ground, it is even possible to go through the "sky space" to support the basic truth of Newton's law. Pictures provided by NASA in the House. "It's as if you are with you" is a strange thing for someone, as there is never a moment where power is not there. Power is a hidden power behind everything that happens in our world and in other worlds. Power creates your heart game and pulmonary pump; they wield the planet around the sun and tie the atoms tightly. Think about what is going on in the universe now, you can guarantee that some degree of strength is responsible somewhere Imagine that the rocket is stationary in space without any force (Newton's first kinetic rule). From the moment the engine starts (clock is set to 0), the rocket emits gas mass at a constant mass flow rate p (kg / s) and exhaust velocity for rocket ve (m / s). This creates a constant force to propel the rocket, which is equal to p × ve. The initial fuel quality of the rocket is m 0 - mf. Since the mass flow rate is defined as the total wet mass of the rocket during the rocket burn time, it takes a time equal to (m 0 - mf) / p to burn all this fuel. Well, the rocket receives a certain force (M × ve), but at the same time its total weight is decreasing steadily as it emits gas. According to Newton's second kinetic law, this only brings one result, and its acceleration is steadily increasing. In order to obtain acceleration, it is necessary to divide the driving force by the total mass of the rocket. The rocket moves very easily. Sir Isaac Newton discovered three laws of motion in the second half of the 1600s. These laws have helped lay the foundation of modern rockets. The third law is the most important for rockets. The law of Thos stipulates that there is the same and opposite reaction for every action. This is an example. When the gun is fired, the bullet shoots the gun barrel in one direction. At the same time the gun was recoiled in the other direction. Because the gun is heavy, acceleration is slower than bullets, this is an example of Newton's second law.

The Third Strike Act was the first law used in the 1990s and was founded by mass dissatisfaction with other laws that do not diminish crime. In 2012, the lawmakers finally realized that the "three strikes" did not function as expected and amended to impose life imprisonment on the most violent and dangerous criminals. According to law, after the third strike, a sentence of 25 years imprisonment is sentenced. Prior to 2012, all offenses committed by criminals took place in three strikes. In 1994, the vast majority of California voters approved "3 strikes" ("3 strikes, you are out"). The law stipulates that at least two criminals who committed serious or violent crimes must be approved. She was sentenced to 25 years imprisonment following the third conviction. According to the Los Angeles Times newspaper, there are currently about 8,900 prisoners issuing three rulings. According to the data of prisons, about 70% of prisoners in prison say that demand for drug abuse treatment is high. Main features of the three strikes The "3 strike law" imposes a long sentence by a specific repetition criminal and makes other changes. Most importantly, it requires a person convicted of a felony and a person convicted of conviction of one or more violent or felony felony charges. (Figure 1 defines some important terms in the Criminal Judgment Act.) The main changes by the "3 Strike" Act are as follows. If one is convicted of a serious or violent felony before, the judgment of a new felony conviction (not just a serious or violent felony) is a matter of new conviction needed by law It is twice the number. A criminal who the court ruled on this rule is often referred to as a "second striker." The California Three Strike Judgment Act was originally enacted in 1994. The essence of the "three strikes" is to convict the defendant of a new felony conviction because he was convicted of serious felony before and sentenced to two imprisonment sentences. For crime. If the defendant is found guilty of two or more strikes, the law requires a state judgment of at least 25 years.

The Third Strike Act was the first law used in the 1990s and was founded by mass dissatisfaction with other laws that do not diminish crime. In 2012, the lawmakers finally realized that the "three strikes" did not function as expected and amended to impose life imprisonment on the most violent and dangerous criminals. According to law, after the third strike, a sentence of 25 years imprisonment is sentenced. Prior to 2012, all offenses committed by criminals took place in three strikes. In 1994, the vast majority of California voters approved "3 strikes" ("3 strikes, you are out"). The law stipulates that at least two criminals who committed serious or violent crimes must be approved. She was sentenced to 25 years imprisonment following the third conviction. According to the Los Angeles Times newspaper, there are currently about 8,900 prisoners issuing three rulings. According to the data of prisons, about 70% of prisoners in prison say that demand for drug abuse treatment is high. Main features of the three strikes The "3 strike law" imposes a long sentence by a specific repetition criminal and makes other changes. Most importantly, it requires a person convicted of a felony and a person convicted of conviction of one or more violent or felony felony charges. (Figure 1 defines some important terms in the Criminal Judgment Act.) The main changes by the "3 Strike" Act are as follows. If one is convicted of a serious or violent felony before, the judgment of a new felony conviction (not just a serious or violent felony) is a matter of new conviction needed by law It is twice the number. A criminal who the court ruled on this rule is often referred to as a "second striker." The California Three Strike Judgment Act was originally enacted in 1994. The essence of the "three strikes" is to convict the defendant of a new felony conviction because he was convicted of serious felony before and sentenced to two imprisonment sentences. For crime. If the defendant is found guilty of two or more strikes, the law requires a state judgment of at least 25 years.

Hobbes' first three natural laws and ridiculous opposition Thomas Hobbs began Leviathan by proveing ​​that everyone is equal despite everyone thinking that everyone is equal It was. As Hobbes says, "I can not believe that many people are smart like them because many people are smart like them and they are seeing other men in the distance "(twenty five). Then he discusses psychological self - interests. And explain humans to be moved by their own interests, and ultimately only for their own interests. This makes the human beings in constant warfare, and if two people are enthusiastic about the same, they compete against each other in the competition as they can not enjoy it at the same time. Thomas Hobbes explained the first three natural laws as a possible way to end the war. These three laws are based on the concept of contract between two individuals who transfer rights between stakeholders. In this article I will detail in detail how three laws of nature and these laws described by Hobbes contribute to social peace. Hobbes believes that peace is the cooperation of three natural laws, so the first law deals with the problem of peace. He explained the first law that peace must be called where war can not be used. If the first peace promotion is not accepted, the war must be used as a defense mechanism. According to Mr. Hobbes, the use of war is one of our natural rights, he insists it is a natural law. Hobbes' first three natural laws and ridiculous opposition Thomas Hobbs began Leviathan by proveing ​​that everyone is equal despite everyone thinking that everyone is equal It was. As Hobbes says, "It is difficult to believe that many people are smart like them, they see their own wisdom, but others are far" (25). Then he discusses psychological self - interests. And explain humans to be moved by their own interests, and ultimately only for their own interests. This ... Leviathan's state of nature and freedom Thomas Hobbes restricts individual freedom in social contracts and individuals in natural conditions. According to the nature of the state, Mr. Hobbes said, "Everyone has the freedom to use their own power to defend their own nature and to do anything there according to their judgment and reasons, You should imagine it. "(Ch. 14: 1). The individual's will is free only if there is no unrelated situation.

Let's begin explaining how Newton changed our understanding of the universe by enumerating the three laws of motion. I. All objects that are moving uniformly tend to maintain this state of motion unless external forces are applied. Basically this is the concept of Galileo's inertia and I think that it is often called "law of inertia". II. The relationship between the mass m of the object, its acceleration a and the applied force F is F = ma. Acceleration and force are vectors (in bold italics and symbols), and in this rule the direction of the force vector is the same as the direction of the acceleration vector. This is the most powerful law among Newton's three laws to quantify the dynamics. It is how the speed changes when force is applied. Please pay attention to the fundamental difference between Newton's second law and Aristotle's dynamics. According to Newton, the force only causes a change in speed (acceleration), it does not maintain speed like Aristotle. Under Newton it is concluded that F = ma, but under Aristotle F = mv. Where v is the velocity. Therefore, according to Aristotle, there is only one speed, if there is power, according to Newton, an object with a certain velocity will not be affected as long as force does not act on it and cause acceleration (ie change in speed) Maintain speed. As pointed out earlier in Galileo's argument, Aristotle's view seems more common sense, because it does not recognize the role of friction. If all the forces acting in the given situation are taken into account, we can see that the dynamics of Galileo and Newton are not consistent with Aristotle, which coincides with the observations. If we stop the boat along the lake, what is going to happen is explained by the law. As we move towards the coast, the ship tends to move in the opposite direction. ! ) Newton developed three laws of motion, which produced a universal law of gravity. The law of his movement is the law of the nature of mechanics. Newton's three kinetic rules are as follows. Law of Inertia - Static objects tend to remain stationary unless subjected to external forces. Second Law - If you add unbalanced force to an object, the object will accelerate. There is an equation that fits this rule, F = ma. This means that the force is equal to the mass multiplied by the acceleration. Third law - each behavior has the same but opposite reaction Today, Newton's law of three movements - the law describing the law of movement of the world object and the law of universal gravity of Newton - the law describing the laws of the universe such as force, gravity, mass is the most important It is considered a physical chapter. He also studied the nature of the light, he introduced a reflecting telescope, and he also created calculus and others. Galileo Galilei: The famous Italian scholar, Galileo Galilei, also known as the world's most famous physicist, astronomer, engineer, philosopher and mathematician, was born on 15th February 1564. He is the major player of the scientific revolution - the emergence of modern science and the largest astronomer in science history. Newton's first "principle" explains Newton's three laws of movement. Newton's first law is the application of modern physics. Newton's first kinetic law states that "As long as external forces are not applied, the body remains stationary, and the body in motion continues to move constantly." This rule is also known as the principle of inertia. The second law of Newton defines "weight and acceleration force, this is the first big difference between weight and weight." Newton's third law states that "the same opposite for all actions There is a reaction ". This law is used today in modern rockets and is one of his most famous laws. Newton was able to learn how gravity between the Earth and the moon was calculated using three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory.

INTRODUCTION Newton's Third Behavior Rule, Behavior Rule and Reaction Statement ... "There is the same and opposite reaction to all actions I am working in the construction industry, Newton's third movement rule The third rule of an important aspect helps to determine the load capacity and the amount of load of the structure, but without the third law, today's high-rise structures and bridges can not be obtained. The weight loading of the entire load, the result of calculation of the load that the structure is acceptable, and After a long absence, in the 1600s, Sir Isaac Newton developed the law of gravity and motion. Newton pointed out in his third movement that "all actions involve equally opposite reactions." The rocket is active under this principle. Continuous injection of hot air in one direction will move the rocket in the opposite direction. This will establish the basic principles necessary for space flight. Even with these basic principles, the first person was not sent to outer space until 1961. Russian astronaut Yuri Gagarrian completed complete trajectory around the earth on April 12th. On June 16, 1963, another Russian astronaut Valentina Tereshkova became the first woman to enter the universe. She flew 48 times around the globe. The three laws of exercise were written by Isaac Newton in the philosophy of natural philosophy philosophy (the mathematical principle of natural philosophy), first published in 1687. Newton explains and studies the movement of many physical objects and systems using them. For example, in Volume 3 of the text Newton shows that the laws of these movements are combined with his universal gravity law to explain Kepler's law of planetary motion. Newton's law applies to an idealized object as a single mass point In this sense, the size and shape of the object is ignored and it is easy to focus on that movement. This can be done when the object is small compared to the distance needed for analysis, or when deformation and rotation of the body are not important. In this way, even planets can be idealized as particles to analyze the orbital motion around a fixed star.

By the 1600's, the way the solar system and the entire universe started to observe have changed. In the controversial conclusions of Copernicus, scientists began to adopt the concept of the solar system in the solar center. Further development of astronomy was achieved through the work of Tycho Brahe and his assistant Johannes Kepler. The three planetary laws developed by Kepler and the data collected by Brahe form a way for science to closely observe the structure and movement of planets in the solar system and continue to this day. German astronomer Johannes Kepler of the 17th century accepted the claim of Nicola Copernicus (which can be traced back to Samos Alistar Kos) that the planet goes around the sun instead of the earth. Using an improved measurement of planetary motion by the 16th century Danish astronomer Tycho Brahe, Kepler depicted the orbit of the planet with simple geometric and mathematical relationships. At the same time, Italian astronomers and natural philosopher Galileo Galilei made progress on understanding the "natural" movements of the Earth's celestial body and simply accelerating its movement. This force is necessary to change the movement and it is not necessary to maintain the same movement. When studying how an object falls to the earth, Galileo discovered that motion is a constant acceleration. Johannes Kepler (1571 - 1630) was in charge of developing the Keplerian law of planetary motion. These laws include sweeping across equal areas at equal time intervals where the planet's orbit is elliptical, the sun is at one of the two focal points, and the line connecting the planet and the sun is equal Yes. The long axis cube is proportional. Kepler was one of the first people to integrate in the fields of physics and astronomy. This caused some controversy, but his idea was widely read and accepted after his death. When Newton derives Kepler's law from the universal gravity theory, they become part of the classic of scientific revolution.

Bouffrand: Salon de la Princess, France, Hotel de Soubise in Paris, Salon de la Princess, which began in 1730, is a multifaceted cylindrical interior that is part of the Rococo style, with minimal architectural features and ventilation It is in harmony. Decoration has developed into the main thing of interior design. Rococo rebels the complex Baroque style, decorates the interior of Versailles, rebels against the palace, after the death of Louis XIV, a French woman with a urban housing in Paris has a new bright and airy decoration and influences the architectural style I gave it. However, from past eclecticism, this structure concentrates on shape freedom and space deformation. One of the main points the light suggested during his career is faithful to the living beings moving as if floating on the surface of the water just like the three planes of the falling water form a structure around Guggenheim It was. The same can be said about walls. The whirlwind is reflected on the slope around the central atrium and provides artwork along the walls of the slope. We also have no idea about the beginning of action. The stationary body does not notice us any effective force; when it starts to move it acts like passion rather than action. Because when the ball is influenced by the movement of the billiard cue it is not a movement of the ball but a naked passion. Furthermore, if you set the ball to another motion by impulse, only the motion received from other motion will be transmitted and lost as many times as other motions. The concept of fuzzy effective force moves through the body and we observe it only for transmission, but it does not produce any action. Motion vibrations have a set of equations that can be used to describe and predict the motion of any object whose motion is harmonic. If the acceleration of a vibrating object is proportional to its displacement and its acceleration and displacement are opposite, the motion of the vibrating object is harmonic. In Figure 3.0, the acceleration value is equal to the constant multiplied by the displacement, indicating that the acceleration is proportional to the displacement. In that case, the negative value of the acceleration indicates that it is opposite to the direction of displacement because both acceleration and displacement are vectors. In physics, movement is a change in the position of an object over time. Movement is mathematically expressed by displacement, distance, speed, acceleration, time, speed. The movement of the body is observed by attaching a reference frame to the observer and measuring changes in the position of the body relative to the frame. If the position of the object does not change with respect to a given reference system (reference point), the object may be stationary, stationary, stationary, stationary or constant (time invariant) It is said to have. As mentioned above, the movement of an object does not change unless it is exerted by force. Momentum is the amount used to measure the movement of an object. The momentum of an object is directly related to the mass and velocity of the object and the total momentum of all objects in the isolated system does not change with time, as explained in the law of conservation of momentum.

Isaac Newton was born on January 4, 1643 at the Woollope Estate in Lincolnshire, England, with her mother Hannah İsukhu and his father, Isaac Newton. Newton was the only son of a wealthy local farmer who died three months before his son was born. Newton was born too soon, very small and weak. When Newton was three years old, his mother Hannah remarried and lived with her new husband, pastor Barnabasmith. Hannah left Newton and took care of her grandmother 's Margery Ayscough. 1687 - almost certainly the most innovative work of the century, the natural philosophy of mathematics of Isaac Newton advocated the basic principle of so-called classical mechanics, according to tradition Newton established a new "psychological category" did. It is now related to the concept of force, mass and acceleration, as evidenced by the three "kinetic laws" and the universal gravity principle. Isaac Newton (1642-1727) is undoubtedly the most important person in the scientific revolution. In his important research "Mathematical Principles of Natural Philosophy", Newton developed the law of motion and the law of universal gravity. Newton is a giant in his field, and his discovery forms the foundation of today's modern science. Many scientists in the 16th and 17th centuries are concerned about what they call mechanical philosophy. Philosophy of mechanics includes substances and substances, and in many ways it is a unique word of "physics". Some scientists in this field even proposes variations of the original atomism theory. RenéDescartes is a famous pioneer in mechanical philosophy. The three laws of exercise were written by Isaac Newton in the philosophy of natural philosophy philosophy (the mathematical principle of natural philosophy), first published in 1687. Newton explains and studies the movement of many physical objects and systems using them. For example, in Volume 3 of the text Newton shows that the laws of these movements are combined with his universal gravity law to explain Kepler's law of planetary motion. Newton's law applies to an idealized object as a single mass point In this sense, the size and shape of the object is ignored and it is easy to focus on that movement. This can be done when the object is small compared to the distance needed for analysis, or when deformation and rotation of the body are not important. In this way, even planets can be idealized as particles to analyze the orbital motion around a fixed star. Newton's three laws of motion - commonly called Newton's three laws - are translated into mathematical principles of natural philosophy A set of laws proposed by Isaac Newton in his book "Mathematical Principles of Mathematics" is. The law was first announced in 1687. Describes the behavior of an object when enforced by an object. Finally, in the third law, when one object exerts a force in the opposite direction on the other object, the other object applies the same amount of force in the opposite direction. In other words, when I press the Boulder, Newton's third law shows that the boulder pushes back the same force in the opposite direction.

It refers to activities including force and exercise under the direct influence of power. If you press the object 5 meters in the direction of force, you can work 100 Joules at 20 Newtons. Ability to work. Like the currency of work, you must have the energy to end the work. To work 100 Joules, you have to consume 100 Joules of energy. The speed of work and the speed of energy use are the same value. When you finish 100 joules per second (using 100 Joules of energy), the power will be 100 watts. This fact is called working energy principle and is often a very useful tool for solving mechanical problems. It arises from the application of energy conservation and work and energy, so it does not depend on the law of conservation. In fact, this is a specific application for energy saving. However, as there are many mechanical problems that can be effectively resolved by applying this principle, it requires different attention as the working principle. In the case of a straight collision, the net work done is equal to the average collision force of the collision multiplied by the travel distance during collision. If the moving object stops due to a collision, extending the stopping distance decreases the average impact force. Working speed is the same as the speed at which energy is used. This is because one force supplies the energy of one unit when one unit is running. Horsepower is 550 ftb / s, kilowatt is 1000 watts. The operating principle and kinetic energy (also known as the principle of motion energy) indicate that all the forces acting on the particle (the effect of synthetic force) are equal to the change in kinetic energy of the particle. That is, the workpiece W completed by the resultant force on the particle is equal to the change in the kinetic energy of the particle, and the constraint defines the direction of movement of the particle by ensuring that there is no velocity component in the direction of the constraining force. This also means that the binding force does not increase the instantaneous force. The time integral of the scalar equation generates kinetic energy from the scalar product of instantaneous power and velocity and acceleration. The fact that the principle of motion energy precludes constraints is the foundation of Lagrangian mechanics. Work is closely related to energy. The principle of motion energy shows that the increase in the kinetic energy of a rigid body is caused by the same amount of aggressive work done on the body by the resultant force acting on its body. Conversely, a decrease in kinetic energy is caused by an equal amount of negative work caused by the resultant force. The effect of the force generated by the potential function is called the potential energy and its power is regarded as conservative. Therefore, the work of an object shifted only in a discreet force field without changing velocity or rotation is equivalent to subtracting the potential energy change of the object.

According to Newton's first law, moving objects continue to move in the same direction at the same speed as long as they are not affected by unbalanced forces. The natural tendency of things is to keep doing what they are doing. Every object resists changes in their motion state. If there is no imbalanced force, the moving object will maintain this motion state. This is often referred to as the law of inertia. For example, consider the unfortunate conflict between a car and a wall. Newton's First Law Newton's First Law states that: When an object in the universe is placed on a certain path, it remains on that path unless it receives any external forces. Newton's first law also exists in every life on the planet. The most likely place we can experience is our car. If you are driving your car and you stop suddenly, you will have to go through widshield unless you are wearing a seat belt. Newton's first "principle" explains Newton's three laws of motion. Newton's first law is the application of modern physics. Newton's first kinetic rule states, "Unless external force is applied, the body will remain stationary and the body in motion will maintain a constant motion." This rule is also known as the principle of inertia. The second law of Newton defines "mass and acceleration forces, which is the first major difference between weight and weight." Newton's third law states that "All actions are the same I will react. " This law is used in today's rocket, his most famous legislation. Newton was able to learn how gravity between Earth and Moon was calculated using his three laws. (Asimov, 108). Newton's three laws can be explained as the basis of motion theory.

In the 4th century Aristotle developed the first systematic idea to express the natural world. This is often called Aristotle Physics. In his study, Aristotle made many discoveries on kinematic mechanics. He believes that the natural movement of an object depends mainly on the nature of the material that makes up the object with respect to the four basic elements of earth, air, fire, and water. Therefore, stones are made from things resembling the Earth, so they are released from their hands. Over the centuries Aristotle, Galileo, and Isaac Newton have now developed and completed what is called classical physics. Classical physics seems to describe the fluctuations and flows of matter and energy in the universe and explains the behavior of everyday objects. Sir Isaac Newton unifies the three laws of movement and provides an analytical understanding of the interaction of macroscopic objects. We stick to this universe description - bricks falling from skyscrapers strike the ground with Newton's law and kinematics; the earth and sun's orbital energies do not follow these same laws as expected Hmm. Newton is best known for his work in mechanical physics and mathematics. Newton developed three laws of motion and formed the foundation of modern physics. The laws of these motions detail energy conservation, inertia and momentum. In addition to the laws of these movements, Newton also developed gravity theory and gravity constants used in modern physics. These laws are important for the development of several scientific disciplines and the development of modern technologies such as cars and space shuttles. In the 17th century, British physicist and mathematician Sir Isaac Newton (1642-1727) developed the laws of motion and gravity, demonstrating Newtonian physics and the beginning of modern astrophysics. In addition to developing calculus, Newton has made tremendous progress in understanding light and optics that are important for the development of astronomy. Newton's pioneering work in 1687 Philosophiae Naturalis Principia Mathematica has dominated western intellectuals for more than two centuries and proved the driving force to support the progress of astrophysical mechanics.

Influence of T stage on pendulum coefficient affecting pendulum: ===================================== ============= Weight of the ball § How far will you pull it? - The slack of the string. [IMAGE] ======= Introduction ============ Newton discovered three motion laws. Newton's first kinetic law states that "unless external force is applied, everything in constant motion tends to remain in motion." Newton's second law of motion is object mass m, acceleration a. The relationship between the applied forces F is F = ma. GPE = KE mgh = 1/2 mv 2 Since this length affects the time of the pendulum, I found a formula to prove it, so I'll explain it now. The expression is as follows. T = 1 oscillation period (sec) p = pi or pl = length of the pendulum (cm) g = intensity of the gravitational field (10 m / s on the earth) This means that the strength and length of the gravitational field It indicates that it will be affected. However, 'g' on the earth is somewhat different depending on where you are, but since experiments are all in the same place, it does not affect variables. Length is currently the only variable. This means that T2 is proportional to length. Influence of T stage on pendulum coefficient affecting pendulum: ===================================== ============= Weight of the ball § How far will you pull it? - The slack of the string. ======= Introduction ============ Newton discovered three motion laws. - Examine the purpose of the oscillation of the pendulum: - Examine the vibration of a simple pendulum and find the acceleration value caused by "gravity" in the laboratory Between simple pendulum. This result is interesting from its simplicity. The only factors that affect the time of the pendulum are its length and gravitational acceleration. This period is completely independent of other factors like quality. As with the harmonic oscillator, the pendulum period is almost independent of the amplitude, especially when it is less than about 2. Accurate adjustment even with a simple pendulum clock accurate

The scientific revolution is an era when new scientific ideas are introduced into society. The scientific revolution laid the foundation for the critical foundation of modern science. Sir Isaac Newton is an influential scientific revolutionary. He made numerous advances in science and mathematics, discovered gravity, developed the basic laws of the three movements, and jointly developed calculus. Isaac Newton has done a number of things that had a positive influence on the scientific community during the scientific revolution but still influenced society today, recognizing the three laws of motion, discovering gravity, developing stone I was allowed to. In the final article of the next time, I will consider the contribution of Isaac Newton. Newton was probably one of the best physicists ever, living in the late Renaissance era and the scientific revolution era. Newton was one of the pioneers of enlightenment and caused an incredible degree of intellectual development following it. We are used to expressing the work of Galileo and Isaac Newton as "scientific revolution". Key experts in Newton physics have shown that the concept of "revolution" was applied to science for the first time in the heyday of the French political revolution. Late 18th century. Subscribing online "We are dwarfed on the shoulder of the giant." Science is a famous expression of the cumulative efforts of consecutive generations, usually attributable to Isaac Newton. Morand showed that this photo was originally used by Bernard's Chartres in the 12th century. Online subscription Sir Isaac Newton is one of the most influential scientists in history and his contribution to the fields of physics, mathematics, astronomy and chemistry has helped guide the scientific revolution. Although the apple that has been spoken for a long time falls on his knowledge-rich head, it may be forged, but his contribution is how we understand the world around us I changed. Prior to Newton, the standard telescope provided expansion, but there were drawbacks. They call refracting the telescope and the glass lens they use changes the direction of different colors at different angles. This causes "color difference" around the object or blurred out-of-focus area to be observed through the telescope

What does "nanoindentation" mean? Nanoindenters are mainly used to ensure micro or nanoscale mechanical properties or performance through powerful techniques called nanoindentation technology. Nanoindentation is used to ensure material parameters such as hardness (H), modulus of elasticity (Es), viscosity or plasticity parameter, and experimental reading by penetration (h) and head load (P) . It should be noted that the force involved is usually in the range of micro Newtons or milliNewtons and the depth is in the nanometer range. Hardness (H) and elastic modulus (E) were measured by using instrumented indentation by using Oliver and Pharr's method. The applied load is in the range of 0.1 to 400 mN. Indentation was performed by multiple loading-removal nano-indentation test under increased load at the same indentation point using Nanoindenter XPTM with Bekovich indenter from MTS Systems. Prague-Brentano X-ray diffraction pattern was obtained from Shamadzu XRD 7000, CuKα, 40 KV, 20 mA. Modification of the polymer surface after irradiation was investigated using a contact mode atomic force microscope. The scanning area was 30 μm × 30 μm. Images were obtained using Shimadzu's SPM - 9500 apparatus. The Shore D hardness test was carried out at room temperature in Wutest Shore D type MP-2a according to the procedure described in ASTM D 2240-75. For each sample type, test three times and apply the probe to different sample areas and calculate the average. Effect of γ and ultraviolet irradiation on hardness, elastic modulus and viscoelasticity of castor oil (PU) derived polyurethane was investigated by nanoindentation test. Modification of the surface morphology induced by radiation was observed by atomic force microscopy. Polyurethane derivatives derived from castor oil have little change in hardness, elastic modulus, viscoelasticity and contact angle, and exhibit good resistance to gamma rays. Due to UVA radiation, the hardness of PU increases in the region near the surface, after UVC radiation the hardness of PU decreases. Although the roughness increases markedly, the contact angle of water droplets after UVC irradiation decreases but does not decrease after gamma ray irradiation. These results are due to the different reaction of polyurethane to radiant energy. The increase in hardness caused by UVA is due to higher crosslinking at shallow depth and the reduction of mechanical properties may be due to chain cutting.

Gravity is one of the four basic forces of the universe. Lord Isaac Newton was able to describe it mathematically in 1687 (Eddington 93), but its basic principle was not supported by scientists. Gravity plays an important role in everyday behavior, as it will not move (and moves infinitely because there is no power to stop it) without gravity unless you apply force. Perhaps the perfect place to start is a simple project like Apple (after all, it is the creativity of "start Newton"). After a long absence, in the 1600s, Sir Isaac Newton developed the law of gravity and motion. Newton pointed out in his third movement that "all actions involve equally opposite reactions." The rocket is active under this principle. Continuous injection of hot air in one direction will move the rocket in the opposite direction. This will establish the basic principles necessary for space flight. Even with these basic principles, the first person was not sent to outer space until 1961. Russian astronaut Yuri Gagarrian completed complete trajectory around the earth on April 12th. On June 16, 1963, another Russian astronaut Valentina Tereshkova became the first woman to enter the universe. She flew 48 times around the globe. There were many scientific activities in the 1600s. British scientist Sir Isaac Newton published the mathematical principle of his natural philosophy. He developed three laws of motion and universal gravity law based on Galileo and Descartes' research. He also invented a new mathematical form called calculus. Scientists are beginning to understand that the fever can work. James Joule and a British physicist devised a method to calculate how much heat can be done. Later on, some physicists proposed the law of conservation of energy (they can neither produce nor destroy energy, but can only change from one form to another). In the early 1800's, the theory was developed as light in the form of waves. Physicists believe this Isaac Newton (1642-1727) is a British mathematician and physicist who built the foundations of classical mechanics and calculus. According to the data of the Isaac Newton Institute of Mathematical Sciences, Newton developed the law of motion and the law of universal gravity to deepen the understanding of the world of Copernicus. Thomas Jefferson (1743-1826) was the founder of the United States, was deeply influenced by the philosophy of enlightenment and spent several years in France. According to Thomas Jefferson Foundation he wrote an independent declaration that emphasizes enlightenment (freedom, basic human rights, peace, etc.) (not slaves).

Today, we are enjoying the atmosphere of contemporary science and technology and application. Science and technology are used in almost every house electronic equipment we use for entertaining and entertaining information from the house where we live, from the food we are eating, from the car we drive, Until, it is part of every human activity. All of these evidences show blessings on human scientific knowledge. Before the 18th century, we fell into the abyss of ignorance and lack of understanding of scientific knowledge. The purpose of science is to create scientific knowledge. Scientific knowledge refers to a wide range of legal and theoretical systems used to describe interesting phenomena or behaviors obtained using scientific methods. The law is a model for observing phenomena and behaviors, and the theory is a systematic interpretation of potential phenomena and behaviors. For example, in physics, Newton's Law of Motion states what happens when an object is stationary or moving (Newton's first law), how about moving or stopping collision of a stationary object Will it be (Newton 's third law). In general, these three laws form the basis of classical mechanics - the theory of moving objects Social science research: principle, method and practice Anol Bhattacherjee University of South Florida, abhatt @ usf.edu The law of science is similar to scientific theory because it is a principle that can be used to predict the behavior of nature. Scientific law and scientific theory are often fully supported by observation and experimental evidence. In many cases, the laws of science refer to rules that appear naturally under certain conditions, usually written as equations. Scientific theory is a more comprehensive interpretation of how nature works and why it has certain characteristics. As a comparison, the theory explains why we observe what we did and the law explains what happened.

Archimedes and hydrodynamic fluid dynamics examines the behavior of liquids and gases in stationary or moving motion. It can be divided into three different areas; hydrostatic studies of static fluids, hydrodynamics of fluids during motion, and hydrodynamics of analytical forces to fluid motion. The second, and especially the third, area is very useful for problem solving and partial resolution. Research on fluid dynamics is very important for engineers and the main concern of engineers is to solve industrial problems in hydrodynamic applications. Archimedes has built up some very important things. Archimedes set the principles of Archimedes. The principle of Archimedes states that the liquid soaked in the body loses weight. It is equal to the weight of the amount of liquid it replaces. This basically means that an object immersed in fluid is floating with a force equal to the weight of the displaced fluid. This principle applies to both floating body and immersion body. After occupying Syracuse in the Second Poeni War, Archimedes was killed by Roman soldiers. Archimedes and hydrodynamic fluid dynamics examines the behavior of liquids and gases in stationary or moving motion. It can be divided into three different areas; hydrostatic studies of static fluids, hydrodynamics of fluids during motion, and hydrodynamics of analytical forces to fluid motion. The second, and especially the third, area is very useful for problem solving and partial resolution. - Archimedes, thought to be the biggest thinker of the ancient world, was born in the year 287 AD in Greek city of Syracuse, Sicily. Syracuse of the time was an independent Greek city state with a history of 500 years. He is the son of Phidias, Greek astronomer and mathematician. All that we know about Archimedes is his ancient manuscripts, ancient historians such as Plutak and Cicero, and for centuries after his death.

Modernity mostly determines how time is organized and how it is experienced. Time is that modernity is essential for our daily lives and the way we organize them. Modernity brings a more rigorous time, and time standardization means that time and organization can be regarded as affecting every aspect of our daily lives. In addition, modern capitalism brings greater demand for more organized time concepts. Everyday life is the main context of transition design, and if community self-organizes and controls to meet needs, the possibility of becoming sustainable increases. In many traditional societies, the organization of everyday life is different on the scale of family, community, village, city, and region - "area of ​​daily life". In modern times, control of satisfaction of demand has shifted to a "centralized system" which is directly related to "domain" and decline of unsustainability. Transitions to a sustainable future include self organization, participation, networking, redesign / redevelopment of domain names as nest forms, and re-management of communities tailored to their needs. Modernity mostly determines how time is organized and how it is experienced. Time is that modernity is essential for our daily lives and the way we organize them. Modernity brings a more rigorous time, and time standardization means that time and organization can be regarded as affecting every aspect of our daily lives. - Albert Einstein 's special theory of relativity, described by Albert Einstein' s "Special Relativity Theory" in 1905, describes the law of motion moving closer together at the speed of light. It is written to fit the law of motion to the law of electromagnetism. Special relativity makes two hypotheses: The laws of physics of all unaugmented observers are the same and the speed of light in vacuum is constant regardless of the motion.

How to investigate factors that affect the quality of spring at the end of cycle time required to complete program variable oscillation ========= The purpose of these experiments is that one of the factors is complete It affects the quality of the spring end during the period of time required to complete the vibration. Complete vibration, regardless of whether or not balanced, means returning to the original position. I will look at arguments (variables not caused by another variable). Factors influencing the complete vibration time of the pendulum Factors influencing the complete vibration period of the pendulum In my research, my purpose was to discover and study the factors that affected the complete vibration time. It is important to understand what a single pendulum pendulum is. A simple pendulum is a weight or mass that allows it to be suspended freely from a fixed point. Vibration is a cycle of pendulum motion, such as from position a to b, and back to a. The oscillation period is the time required for the pendulum to complete one of its operating cycles. This is determined by measuring the time it takes for the pendulum to occupy a particular position. Factors affecting the pendulum cycle Purpose: Identify factors that affect the pendulum cycle. Hypothesis: Since the swing of the pendulum requires greater force when the mass of the pendulum is large, I think that the factors affecting the pendulum cycle are the displacement and the quality of the suspension. . - Influence of phase T on pendulum coefficients affecting pendulum: =================================== ============== Weight of the ball § If there is slack in the string, how much will you pull back. ======= Introduction ============ Newton discovered three motion laws

Factors affecting the pendulum cycle Purpose: Identify factors that affect the pendulum cycle. Hypothesis: Since the swing of the pendulum requires greater force when the mass of the pendulum is large, I think that the factors affecting the pendulum cycle are the displacement and the quality of the suspension. . Material: Stopwatch 100, 200, 500 g Bob protractor Instrumentation bars String program: To study factors that influence the swing cycle of the pendulum: To investigate the factors that affect the swing (swing) cycle of the pendulum. The factor I use is the length of the string and the angle at which Bob is released. Assumption: 1. String length I think that the length of the string directly affects the cycle of vibration. - Have you discriminated against dogs as it is considered despicable and aggressive? Like Pit Bulldog and Rottweiler, certain breeds are identified as malignant and dangerous. To offset these incidents, certain laws have been established prohibiting these varieties. People want the mass media to understand the dangers that people bring to society, and bullying is a target. Factors affecting the pendulum cycle Purpose: Identify factors that affect the pendulum cycle. Hypothesis: Since the swing of the pendulum requires greater force when the mass of the pendulum is large, I think that the factors affecting the pendulum cycle are the displacement and the quality of the suspension. . - Influence of phase T on pendulum coefficients affecting pendulum: =================================== ============== Weight of the ball § If there is slack in the string, how much will you pull back. ======= Introduction ============ Newton discovered three motion laws Between simple pendulum. This result is interesting from its simplicity. The only factors that affect the time of the pendulum are its length and gravitational acceleration. This period is completely independent of other factors like quality. As with the harmonic oscillator, the pendulum period is almost independent of the amplitude, especially when it is less than about 2. Accurate adjustment even with a simple pendulum clock accurate

This means that under all conditions the light speed is essentially the same in vacuum. The conclusion is that there is no absolute rest or absolute action. So it can be said that whether it is stationary or not, whether it is moving at a constant speed or not, is controversial. Assuming you are a spaceship on the Earth, you are stationary, it says that the earth is moving, and the observer on the earth is the one you are moving. You and the observer can discuss for several days, but no one can prove that others are wrong. Albert Einstein 's special theory of relativity, described in 1905 by Albert Einstein' s "Special Relativity Theory", describes the law of motion moving closer together at the speed of light. It is written to fit the law of motion to the law of electromagnetism. Special relativity makes two hypotheses: The laws of physics of all unaugmented observers are the same and the speed of light in vacuum is constant regardless of the motion. - Origin of watchmaking Hundreds of years, the manufacture of watches was a major industry in the UK. Production began in Europe in the early 16th century when coil springs were used for the first time in the manufacture of watches. The watch is initially moved by weight, so it remains stationary. Spring means that the watch will move for the first time Soon, German watchmakers began to manufacture very small watches. Special relativity was proposed by Albert Einstein (1909-1955) in 1905. That is "special" because it is part of a more comprehensive and complex general relativity or "special case". The latter, a general theory, was proposed by Einstein in 1915. Albert Einstein (1879 - 1955) can use geometric distance to specify its position in everyday coordinate systems such as maps. For example, for those looking for buried treasure you can say "20 miles east, 5 miles north, then 30 feet below." We just assigned a three dimensional coordinate system. In this regard, Einstein added another factor, time factor. This is still reasonable for our daily life. "I will meet you to share treasure with 20 miles east, five miles north, 30 feet lower, then wait until three o'clock!" At very high speed, the speed approaches the speed of light, things get very Start changing in an unexpected way

Checking the time of the pendulum The time of the pendulum is the time necessary for the pendulum to swing from one point to another, such as returning from point A to point B. The figure shows the experiment. In this experiment it is necessary to record this period, but I think that it is too short, so we will spend 20 periods for accuracy. Then I divide this number by 20 to get the exact period. In this experiment, we need to consider two separate variables. Factors influencing the complete vibration time of the pendulum Factors influencing the complete vibration period of the pendulum In my research, my purpose was to discover and study the factors that affected the complete vibration time. It is important to understand what a single pendulum pendulum is. A simple pendulum is a weight or mass that allows it to be suspended freely from a fixed point. Vibration is a cycle of pendulum motion, such as from position a to b, and back to a. The oscillation period is the time required for the pendulum to complete one of its operating cycles. This is determined by measuring the time it takes for the pendulum to occupy a particular position. Introduction: I learned this topic from pure curiosity and decided to see how the pendulum length affects its movement cycle. The pendulum is a weight suspended from the fixed point of the rope with no elasticity. When pulling and releasing from the balanced side at x °, the pendulum sways back and forth within the vertical plane under the influence of gravity (LaNéPowers, 2006). - Pitbull was one of the most popular family dogs ever. I have a female dog. They are part of the most abused dog breeds. This is for what they call aggressive behavior. However, studies have shown that no dog is more aggressive than any other dog. So then why are there such stereotypes, the meaning and aggression of Pitbull? There are reasons for each breed of dogs. Whether it is used for rabbit hunting and livestock grazing, their birth is always intentional. Factors affecting the pendulum cycle Purpose: Identify factors that affect the pendulum cycle. Hypothesis: Since the swing of the pendulum requires greater force when the mass of the pendulum is large, I think that the factors affecting the pendulum cycle are the displacement and the quality of the suspension. . - Influence of phase T on pendulum coefficients affecting pendulum: =================================== ============== Weight of the ball § If there is slack in the string, how much will you pull back. ======= Introduction ============ Newton discovered three motion laws

In this paper, we give mathematical model of fractal space-time space including Fα calculation. It solved by giving the free fall motion and the differential equations of the harmonic oscillator in the fractal time space. In addition, we use Kepler's third motion rule generalized in fractal space-time using scale transformation and invariance of the law of physics. I was born in Ulmi, Iran - Gormankane, in the western part of Azerbaijan. I have completed mathematics and physics high school. I was the best student when I was educated during B.Sc. And Master I completed my doctoral course. Theoretical physics from Pune University in India I published more than 40 papers and books. I am interested in mathematical physics, focusing on fractal calculations. Fractal geometry is used in natural science - mathematics, physics, chemistry, biology - but it has been used recently in architecture and urban design. For example, Mit Media Lab's Neri Oxman calculates simulations from nature to the design and creation of new materials, and fractal shaped buildings (see below). No Even in the world of fractals and mathematics, there is no "beautiful proof". Physical laws and formulas are not hidden somewhere in textbooks and fractals based on the golden ratio are the most "beautiful" Devlin does not provide "scientific evidence". "Beauty" Does he energize "quantity" of beauty? No, unless there are constants or standards to measure it, no. When he saw it he knew it was "beautiful", and in his own case it was produced by a golden ratio of 1.618. The reason is that the various parts of the pattern are fused together. It thinks that he is the harmony, balance, and perfection of mathematics and aesthetics, which is the most favorable proportion. Kepler's law is merely physically explained in the publication of Philosophiae Naturalis Principia Mathematica by British physicist and mathematician Isaac Newton (1687). Here, Newton published his law of motion and the law of universal gravity: any two particles in the universe are proportional to their mass product and attracted to each other by a force inversely proportional to the square of the distance between them . Newton resumed Kepler's law using these laws and made planetary theory the first field of physics in history. Then he applied these laws to explain other phenomena such as rising and falling tides and the orbit of the comet.

Sir Isaac Newton was born on Wool Soap, near Grantham, Lincolnshire, England on December 25, 1642. Newton is clearly the most influential scientist in history. His achievements in mathematics, optics and physics have built the foundation of modern science and have revolutionized the world. Newton studied at the University of Cambridge and served as a professor there from 1669 to 1701 and replaced his teacher Isaac Barro as a Lucas mathematics professor. His most important findings were two years from 1664 to 1666, the university was closed and he retired to his home Ursoorp. Sir Isaac Newton is a British mathematician and physicist and is considered one of the best scientists in history. He has made an important contribution to many scientific fields. His discovery and theory lay the foundation for many advances in science. Newton is one of mathematical inventors called calculus. He also solved the mystery of light and optics, developed three laws of motion, and derived a law of universal gravity. Newton was born on Woolthorp near Grantham, Lincolnshire on December 25, 1642. Sir Isaac Newton was born on Woolthorp Estate in England on December 25, 1642. He was born too early and is a child. His mother said that he was too young, he can fit in the rhetoric pot. Sir Isaac Newton was born three months after his father died. When Sir Isaac Newton was three years old, the mother remarried to the pastor Barnabas Smith. Sir Isaac Newton stayed in the care of his grandmother. From 12 years old to 17 years old, he received education at the King Grantham School. Isaac Newton entered the Cambridge Trinity College under the emergency of his uncle William Ayscough ("Newton, Sir Isak", Encyclopedia of Mathematics Biography, 394). Newton studied law at Cambridge, but the results were very different. When Newton was at the university, the school's philosophy dominated Aristotle's philosophy. Later, he became more generous at the university third grader, so he started studying the philosophy of Descartes, Galsendi and Boyle. Viete, Descartes, Wallis 'new analytic geometry, and Galileo' s Copernican astronomy dynamics also fascinated him. When Barro arrived in Cambridge's Lucasian chair ("Jazz Isaac Newton", ONLINE), Newton's talent began to grow. Isaac Barrow began to recognize him, soon he became a mentor of Isaac Newton. Under the direction of Isaac Barrow, Isaac Newton began to show his great wisdom. Isaac Newton received a math scholarship!

Johannes Kepler "Harmony of the world" "By studying the orbit of Mars, we must reach the secrets of astronomy, otherwise we will not know anything about them." Johoren Kepler Biography Kepler , Johannes (1571 - 1630), a German astronomer and natural philosopher, proposed and verified the three laws of planetary motion. These laws are now known as the law of Kepler's planetary movement. Johanne was born on 27th December 1571. Childhood Johannes was born in Weildeerstadt in Swabia and moved to Leonberg nearby with his parents in 1576. Johannes Kepler was born on December 27, 1571 in Heinrich and Catalina, Württemberg, Germany. Heinrich is the owner of a local tavern and treats young Johannes as a small boy. When he was young, Kepler was often very sick for some reason, so he became weak and somewhat sad. After witnessing the comet of 1887, Kepler got love of astronomy at the age of six; seeing the solar eclipse in 1580 also contributed to this great interest. - Have you ever wondered how scientists calculate the time it takes for nuclear weapons to collapse? This dilemma can be solved by calculus, which helps determine the decay rate of radioactive material. Calculus can help people in a variety of everyday situations, such as determining the number of fences needed around a particular area. Find out how gravity affects specific objects and how calculus helps people to study physics Johannes Kepler was one of the most important scientists in the medieval scientific revolution. Kepler is an astronomer and mathematician born in Germany. He showed the orbit of the whole earth, not the orbit of the whole earth to the sun. Kepler made three laws, in which he defined the dominant movement of the planet. He is absorbed in circles. Kepler has also become the founder of modern optics. - Newton's First Law Newton's First Law states that "moving objects tend to keep moving and objects that are stationary tend to stand still and remain stationary unless they are stressed and are outside. "I said. When an object in the universe is placed on a certain path, it remains on that path unless it receives any external forces. Newton's first law also exists in every life on the planet. The most likely place we can experience is our car.

When we used Rube Goldberg's machine, we discovered the physical process that was happening. Many aspects of physics help in building and testing Rube Goldberg machines. Some examples are Newton's three laws, collision, momentum conservation, efficiency, power, energy, work, simple machinery and projectiles. We met Newton's first law. It claimed that the object resists changes in movement as marble rolls over the floor until it is stopped by friction. What is America doing now? Ok, it was building these strange Rube Goldberg machines - but they have only one real purpose. Please do not do this kind of thing. Investment in public goods, such as medical care, education, transportation, etc., until now the Americans had little money. No, it is not a joke. About 70% of Americans save less than $ 1,000. Rube Goldberg machine works. But they can not replace the big lever of human possibility When we used Rube Goldberg's machine, we discovered the physical process that was happening. Many aspects of physics help in building and testing Rube Goldberg machines. Some examples are Newton's three laws, collision, momentum conservation, efficiency, power, energy, work, simple machinery and projectiles. We met Newton's first law. It claimed that the object resists changes in movement, as the marble must roll faster over the floor. Angular conservation angular momentum is essentially the resistance of an object to rotational change. To change the movement of an object, moving objects tend to keep moving, so we need to apply force. When related to rotational motion, this force is called torque (torque = force x and the vertical distance of the shaft). When torque is applied, the angular momentum increases and then decreases due to friction. On ice, however,

Sir Isaac Newton is a British physicist and mathematician and one of the best scientists ever. In the field of physics, he was the first person to discover the laws of three movements, to define the nature of mass, force, weight, acceleration and to explain gravity. In order to really understand Sir Isaac Newton, we must first review his childhood. According to modern forecasts, Newton was born on January 4, 1643 at Lincolnshire, England. My father died a few months ago, and when my age was three, my mother died under the care of her grandmother. Sir Isaac Newton is a British mathematician and physicist and is considered one of the best scientists in history. He has made an important contribution to many scientific fields. His discovery and theory lay the foundation for many advances in science. Newton is one of mathematical inventors called calculus. He also solved the mystery of light and optics, developed three laws of motion, and derived a law of universal gravity. Newton was born on Woolthorp near Grantham, Lincolnshire on December 25, 1642. Sir Isaac Newton (1642-1727), a mathematician and physicist, was one of the best scientists ever. Sir Isaac Newton was born on Wool Soap, a farm of Lincolnshire on January 4 (December 25 calendar). Woolsthorpe is the place he studied optical theory and optical theory. It is also considered to be the place where Newton observed that Apple fell from the tree and encouraged him to formulate his law of gravity. He entered the University of Cambridge in 1661; he was elected a member of the Trinity College in 1667 and was elected Professor Lucas Mathematics in 1669. He stayed at the university and lectured most of the time until 1696. During these Cambridge times he was at the top of creativity and he picked 1665-1666 as "the golden age of my invention". Though it was not published until 1687, he prepared a Philosophiae Naturalis Principia Mathematica, commonly known as Principia, with intense spiritual work for a couple of years.

Albert Einstein 's special theory of relativity, described in 1905 by Albert Einstein' s "Special Relativity Theory", describes the law of motion moving closer together at the speed of light. It is written to fit the law of motion to the law of electromagnetism. Special relativity makes two hypotheses: The laws of physics of all unaugmented observers are the same and the speed of light in vacuum is constant regardless of the motion. One of the consequences of these assumptions is that the clock will move slower or slower for the moving observer. Albert Einstein 's special theory of relativity, announced in 1905, explains the relationship between speed, time and distance. According to complicated theory, the speed of light remains the same, 186,000 mph (300,000 km / s), even if you are away from someone or far away. This theory is the foundation of many modern science. Nobody knows how the universe was formed, but many scientists believe that it occurred about 13.7 billion years ago. In 1927, Georges Lemaître proposed the Big Bang theory. This theory thinks that all substances in the universe are initially compressed into small points. In less than a second, the point spreads out and all the problems were filled in our present universe quickly. The event indicates the beginning of time. Scientific observations seem to confirm this theory Albert Einstein 's special theory of relativity, described in 1905 by Albert Einstein' s "Special Relativity Theory", describes the law of motion moving closer together at the speed of light. It is written to fit the law of motion to the law of electromagnetism. Special relativity makes two hypotheses: The laws of physics of all unaugmented observers are the same and the speed of light in vacuum is constant regardless of the motion. - Origin of watchmaking Hundreds of years, the manufacture of watches was a major industry in the UK. Production began in Europe in the early 16th century when coil springs were used for the first time in the manufacture of watches. The watch is initially moved by weight, so it remains stationary. Spring means that the watch will move for the first time Soon, German watchmakers began to manufacture very small watches.

Earthquakes are vibrations occurring in the outer layers of the earth and in the crust, the forces that push a large amount of rocks overcome friction and fix the rocks and the rock blocks slide. The range of vibration is rarely subject to destructive influence. There are six kinds of shock waves. Both are classified as real waves. That is, they pass through the interior of the earth and the other four are surface waves. Waves change according to the type of rock and the layer they hit. Primary or compression wave (P wave) transfer particles move back and forth in the same direction as the wave propagation, while secondary or transverse waves (S waves) transmit vibrations vertically. Based on the probability (or likelihood) of the earthquake, the physical characteristics of the hypocenter, and the propagation of seismic waves in the crust, basic and applied scientific basis for predicting the type of seismic motion predicted from future large earthquakes Research is being conducted. And the influence of the local website. Along with the destruction scenario of specific faults, these risk assessments are based on probabilistic seismic risk assessment such as earthquake risk maps throughout the country that constitute earthquake resistance requirements of buildings and other laws and regulations, and detailed urban earthquakes, It is essential for various applications. Danger map including direction of destruction, three dimensional basin response, and nonlinear effect of soil. These city disaster maps will be included in the code update for the selected area In recent years, people are working on earthquake prediction and successfully evaluate earthquake disasters in different geographical locations to reduce earthquake risk. The physical properties of earthquake fault sources are better identified and modeled for computer analysis. In addition, seismologists have studied earthquakes caused by human activities, such as saving water behind a high dam or exploding underground nuclear explosions. The purpose of the latter study was to find a way to distinguish between explosion and natural earthquake.

Friction If you do not know how to cope with various situations, driving a car is awful. The risk of accidents increases. Before getting on the bus, you need to know how to handle it appropriately and understand the surrounding environment and environmental conditions. Friction is the resistance to movement between two objects in contact with each other. When resistance is associated with a car tire, it is called towing. The towing point of your car is where the rubber of the tire touches the road surface. Friction is a reaction to the relative motion of solid objects, fluid objects. Friction is a cause of slowing the movement of objects. There are three kinds of friction. They are static friction, sliding friction and rolling friction. Friction is caused by minute cavities on the surface. These irregularities are the cause of frictional strength. Normal force is defined as the net force compressing two parallel faces together, whose direction is perpendicular to the plane. In the simple case where the mass stays on the horizontal plane, the only component of the normal force is force due to gravity, N = mg. In this case, the magnitude of friction is the product of the mass of the object, the acceleration of gravity and the coefficient of friction. However, the coefficient of friction is not a function of mass or volume, it depends only on the material. Two solid objects moving with respect to each other are subjected to dynamic friction. In this case, friction is a part of the vertical force acting between the two objects (this part is determined by a number called experimentally determined friction coefficient). Normally, force is independent of contact area and does not depend on the speed with which two objects move. There are three laws of friction. First, the friction between the object and its surface is proportional to the weight of the object. The heavier the object, the greater the friction. The lighter the object, the less friction. Second, in most cases, the friction between the object and its surface is independent of the surface area of ​​the object. Two objects may have very different surface areas, but if they have the same weight, they apply the same friction. Third, the friction between the object and its surface is independent of the speed at which the object moves - unless the speed is zero.

Sir Isaac Newton is a British mathematician and physicist and is considered one of the best scientists in history. He has made an important contribution to many scientific fields. His discovery and theory lay the foundation for many advances in science. Newton is one of mathematical inventors called calculus. He also solved the mystery of light and optics, developed three laws of motion, and derived a law of universal gravity. Newton was born on Woolthorp near Grantham, Lincolnshire on December 25, 1642. In 1726, Newton shared this anecdote with William Stukeley and put it in the biography of "Sir Isaac Newton's Biography" published in 1752. According to Stukeley, "After dinner the weather was warm, we entered the garden and drank them in the shadows of some apple trees, he said I was in the same position as before. That concept came into my mind ... When the apple fell down, he sat down in a meditative way. " Sir Isaac Newton stood in the shade of an apple and saw an apple falling on the ground. "Why does the apple always fall perpendicular to the ground?" Newton thought. "Why is it not always horizontal or upward, should I always face the center of the earth? To be precise, the reason is that the earth attracts it, it must be virtually attractive." In ten years he studied his view on gravity, and in 1687 he published his innovative work. A falling apple is just a series of decades of ideas. Isaac Newton was born at Woolthorpe Estate near Grantham, Lincolnshire. The calendar he used at birth was born on the Christmas Day of 1642, but I entered this biography on January 4, 1643. This is the date of the "modified" Gregorian calendar. Calendar (UK adopted the Gregorian calendar until 1752.) Isaac Newton came from a farmer's family, but he did not know his father, also known as Isaac Newton. Isaac's father owned property and animals to make him rich, but he was not completely educated and could not sign his name.

"Discovering new ideas about something is more important than finding new data and facts." To what extent do you agree with this claim? Albert Einstein said: "If humans want to survive, we need a new way of thinking." This new way of thinking needs to be based on existing knowledge. This existing knowledge is necessary because it is a catalyst for human progress and we want to discover more. Attempting to discover new knowledge does not give the same result. First of all, this book asserts that "all instructions given or accepted through discussion are derived from existing knowledge" (Book 1, Chapter 1). Therefore, Aristotle focuses on means to generate new knowledge from existing knowledge. You can call this to 'spread' knowledge through discussion. Aristotle recognizes several types of arguments. One is a mathematical demonstration. The other is "dialectic method", the third is "rhetoric". The main concern of this book is the dialectical argument. These are of two types: syllabism and induction. I briefly looked at the argument of trigonometry. They start with at least one general premise. By contrast, inductive arguments start with specific premises and lead to general conclusions. The premise of the argument consisting of three parameters is "existing" knowledge that anyone accepts from their reasoning. John Rock, a famous British philosopher of the 17th century, opposed the existing universal beliefs of congenital knowledge such as those led by such Descartes. Much of the discussion of Rock began with the recognition of philosophers' congenital knowledge, especially criticism against Descartes. Therefore, much of the discussion of rock is a direct objection to the existence of congenital knowledge of Descartes and other philosophers' beliefs. To conclude that natural knowledge is impossible, Rock brings various prerequisites and objections, in addition to his argument. Locke assumes that the mind is in a blank state or a whiteboard. Contrary to the existing Descartes philosophy, he believes that we were born without natural thought, and that knowledge can only be determined by the experience we perceive. Recent experiments with babies showed that they "pre-wired" some feelings and learning abilities. This more evidence indicates that it is natural cultivation, not natural or cultivated. This is further proof of the middle road. Newton explained the universal gravity and the laws of three movements, which dominated the scientific view of the physical universe during the next three centuries. Newton showed that the movement of the objects on the earth and the celestial body is governed by the same natural law by proveing ​​consistency between Kepler's planetary motion law and its gravity theory. revolution

Background information: This experiment involves exercise. This sports study is called kinematics. Kinematics will study possible movements. (Http://www.britannica.com/EBchecked/topic/318099/kinematics) Kinematics is used to indicate object displacement, object movement speed (speed), and speed change (acceleration). This is plotted separately from time to determine if the motion is uniform or uneven and whether the acceleration is uniform or not uniform. Constant velocity motion means that the velocity and direction of the object are constant. Variables such as speed, acceleration and displacement are related to linear kinematics. Kinematics is a general term related to description of motion. Kinematics is also an area of ​​dynamics of moving objects (especially kinematics). In order to accurately describe kinematics, it is necessary to fully understand certain terms. They include the above terms (speed, acceleration and displacement) and distance, speed and position. By accurately understanding these terms, we can accurately express the motion of every object. In terms of acceleration, speed, and speed, confusion often occurs. In everyday language we use the word speed to mean all three terms, fast words are more general terms. Please consider the following. People can act quickly rather than accelerate. People can speed up quickly instead of fast or fast. A good example of sports is the great Boston Celtics player Rally Bird. The Oxford Calculator of Thomas Bradwardine and his partner Oxford University of Oxford distinguishes kinematics and dynamics, emphasizes kinematics and investigates instantaneous speed. They developed an average speed theorem: the distance the moving object moves at a constant speed and time is equal to the accelerator, which is half the speed of the final acceleration. They also proved theorem - the essence of falling rule - long before Galileo acquired credit.

Many people think that Isaac Newton is one of the most influential people in human history. Born in 1643 on January 4, 1643 (a new calendar, 25th December 1642, old style), Woolsthorpe-by-Colsterworth's Woolsthorpe Manor is involved in physics, mathematics, astronomy and so on. What is best known in the physical world is the explanation of his three laws of motion and his gravity, and he has a lot of responsibility in his life. Three months after my father died, a farmer named Isaac Newton was born and was born too soon. In 1726, Newton shared this anecdote with William Stukeley and put it in the biography of "Sir Isaac Newton's Biography" published in 1752. According to Stukeley, "After dinner the weather was warm, we entered the garden and drank them in the shadows of some apple trees, he said I was in the same position as before. That concept came into my mind ... When the apple fell down, he sat down in a meditative way. " Sir Isaac Newton stood in the shade of an apple and saw an apple falling on the ground. "Why does the apple always fall perpendicular to the ground?" Newton thought. "Why is it not always horizontal or upward, should I always face the center of the earth? To be precise, the reason is that the earth attracts it, it must be virtually attractive." In ten years he studied his view on gravity, and in 1687 he published his innovative work. A falling apple is just a series of decades of ideas. I quoted a biography of Peter Akroid's new biography, Isaac Newton. He did not discover his consciousness about the influence of the gravity of the fall of the apple, as in the legend. He is more detailed than his study like Mrs. Curie, and he is not afraid to experiment. He is enthusiastic about distinguishing light from color and finding out the result of seeing one eye from the sun. In the process, he had to spend three days in a dark room to ignore his vision and recover from his experience. Later, in order to test the Cartesian theory that light passes the pressure of ether as "pressure", he slid a large needle as close as possible between my eyes and bone. "With a dedicated obsession, he tried to change his retinal curve so that he could observe the result even if it took the risk of blurring his eyes.

Atoman says that sensation is superior to body, heart is better than sense, intelligence is better than thinking, and better than intelligence. "Subtle things are always superior to other rude things, five emotions are superior to big ones, the mind is dominant in the five senses, and therefore better than them, intelligence than the latter Also the supply of Atman is inspired by the information itself, so the most important thing is the tool it uses "Personally, in Hindu Kaivalya's three Karma-Bakti Nana, I am also known as Karma, or Kuriya Yoga. Karma believes that the destiny of a person depends on that person's behavior. Karma said, "When you plant, you will also harvest." Bhagvad Gita advocates Karma Yoga (responsibility for state, organization, family, etc). Karma in modern management can be interpreted as doing the right thing at the right time. Sir Krishna said to Arjuna, "Your only responsibility is to take action (right to work) instead of pursuing a result (or result), blind work is completely irrelevant and selfless way "It is better to worship." Krishna also said, "Behavior is better than not doing anything, it can not survive without action, so we will be free from ignorance by doing so in this way All work It is to worship God, everything you can do is suitable for a continuous environment " One of the important yoga designated in Bhagvad Gita is called "Karma yoga" or perfect exercise technique. "Karma" means action. I know that all creatures must take action to survive. Unfortunately, we are not aware that every action we do is forcing us to experience their interactions. This is a spiritual truth based on Newton's third law of motion and says that "all actions have opposite reactions of their own equality". This means that each of us inevitably harvests the result of his or her actions. If I kill someone with cold blood, I may get a similar revenge. This is science law. Karma yoga is the way defined by Bhagavat Gita, through which you can turn karma into yoga. It is based on the laws of the universe and has scientific grounds. Because humans are very complex animals, our law requires a larger dimension. As mentioned earlier, they all belong to Newton's third law of motion.

To study factors that influence the swing cycle of the pendulum: To investigate the factors that affect the swing (swing) cycle of the pendulum. The factor I use is the length of the string and the angle at which Bob is released. Assumption: Length of the string I think that the length of the string directly affects the cycle of vibration. The formula used to describe the period of the pendulum is as follows. T = 2pâštex2html_wrap_inline105 / g T is the period (1 swing time-second) tex2html_wrap_inline 105 is the pendulum length (meters) g is the acceleration of gravity. In this experiment to investigate the factor that affects the swing time of the pendulum, find out what factors influence the vibration of the pendulum, find an appropriate expression to calculate the relative coefficient and swing time of the pendulum I hope. Preliminary: Before conducting this experiment, it is necessary to understand which major factors affect the time required for oscillation of the pendulum. - If you are a Korean male high school student, you may know what "game" is. Simply put, that is the behavior of playing games. However, "game" may have a deeper meaning for us - it is a resort that relieves stress and brings happiness. Fortunately, I take this approach and make it good. They play the game and are enjoying it with appropriate time management without any result. Most people do not have it To study factors that influence the swing cycle of the pendulum: To investigate the factors that affect the swing (swing) cycle of the pendulum. The factor I use is the length of the string and the angle at which Bob is released. Assumption: 1. String length I think that the length of the string directly affects the cycle of vibration. - Have you discriminated against dogs as it is considered despicable and aggressive? Like Pit Bulldog and Rottweiler, certain breeds are identified as malignant and dangerous. To offset these incidents, certain laws have been established prohibiting these varieties. People want the mass media to understand the dangers that people bring to society, and bullying is a target. Factors affecting the pendulum cycle Purpose: Identify factors that affect the pendulum cycle. Hypothesis: Since the swing of the pendulum requires greater force when the mass of the pendulum is large, I think that the factors affecting the pendulum cycle are the displacement and the quality of the suspension. . - Influence of phase T on pendulum coefficients affecting pendulum: =================================== ============== Weight of the ball § If there is slack in the string, how much will you pull back. ======= Introduction ============ Newton discovered three motion laws