Write an equation parallel to a given line

Find the slope and the y-intercept of the line. This example is written in function notation, but is still linear. As shown above, you can still read off the slope and intercept from this way of writing it.

Write an equation parallel to a given line

History[ edit ] Historically, equations of motion first appeared in classical mechanics to describe the motion of massive objectsa notable application was to celestial mechanics to predict the motion of the planets as if they orbit like clockwork this was how Neptune was predicted before its discoveryand also investigate the stability of the solar system.

It is important to observe that the huge body of work involving kinematics, dynamics and the mathematical models of the universe developed in baby steps — faltering, getting up and correcting itself — over three millennia and included contributions of both known names and others who have since faded from the annals of history.

In antiquity, notwithstanding the success of priestsastrologers and astronomers in predicting solar and lunar eclipsesthe solstices and the equinoxes of the Sun and the period of the Moonthere was nothing other than a set of algorithms to help them.

Equations of a Parallel and Perpendicular Line

Despite the great strides made in the development of geometry made by Ancient Greeks and surveys in Rome, we were to wait for another thousand years before the first equations of motion arrive.

The exposure of Europe to Arabic numerals and their ease in computations encouraged first the scholars to learn them and then the merchants and invigorated the spread of knowledge throughout Europe.

By the 13th century the universities of Oxford and Paris had come up, and the scholars were now studying mathematics and philosophy with lesser worries about mundane chores of life—the fields were not as clearly demarcated as they are in the modern times.

Of these, compendia and redactions, such as those of Johannes Campanusof Euclid and Aristotle, confronted scholars with ideas about infinity and the ratio theory of elements as a means of expressing relations between various quantities involved with moving bodies.

These studies led to a new body of knowledge that is now known as physics. Of these institutes Merton College sheltered a group of scholars devoted to natural science, mainly physics, astronomy and mathematics, of similar in stature to the intellectuals at the University of Paris.

write an equation parallel to a given line

Thomas Bradwardineone of those scholars, extended Aristotelian quantities such as distance and velocity, and assigned intensity and extension to them. Bradwardine suggested an exponential law involving force, resistance, distance, velocity and time.

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Nicholas Oresme further extended Bradwardine's arguments. The Merton school proved that the quantity of motion of a body undergoing a uniformly accelerated motion is equal to the quantity of a uniform motion at the speed achieved halfway through the accelerated motion.

For writers on kinematics before Galileosince small time intervals could not be measured, the affinity between time and motion was obscure.

They used time as a function of distance, and in free fall, greater velocity as a result of greater elevation. Only Domingo de Sotoa Spanish theologian, in his commentary on Aristotle 's Physics published inafter defining "uniform difform" motion which is uniformly accelerated motion — the word velocity wasn't used — as proportional to time, declared correctly that this kind of motion was identifiable with freely falling bodies and projectiles, without his proving these propositions or suggesting a formula relating time, velocity and distance.

De Soto's comments are shockingly correct regarding the definitions of acceleration acceleration was a rate of change of motion velocity in time and the observation that during the violent motion of ascent acceleration would be negative.

Discourses such as these spread throughout Europe and definitely influenced Galileo and others, and helped in laying the foundation of kinematics. He couldn't use the now-familiar mathematical reasoning.

The relationships between speed, distance, time and acceleration was not known at the time. Galileo was the first to show that the path of a projectile is a parabola.

Galileo had an understanding of centrifugal force and gave a correct definition of momentum. This emphasis of momentum as a fundamental quantity in dynamics is of prime importance. He measured momentum by the product of velocity and weight; mass is a later concept, developed by Huygens and Newton.

In the swinging of a simple pendulum, Galileo says in Discourses [6] that "every momentum acquired in the descent along an arc is equal to that which causes the same moving body to ascend through the same arc. He did not generalize and make them applicable to bodies not subject to the earth's gravitation.

That step was Newton's contribution. The term "inertia" was used by Kepler who applied it to bodies at rest. The first law of motion is now often called the law of inertia. Galileo did not fully grasp the third law of motion, the law of the equality of action and reaction, though he corrected some errors of Aristotle.

With Stevin and others Galileo also wrote on statics. He formulated the principle of the parallelogram of forces, but he did not fully recognize its scope.

Galileo also was interested by the laws of the pendulum, his first observations of which were as a young man. Inwhile he was praying in the cathedral at Pisa, his attention was arrested by the motion of the great lamp lighted and left swinging, referencing his own pulse for time keeping.I am designing an Ethernet application where I am required to form the packet payload at a rate of bits each clock.

However, each clock, from 1 to 4 of the bit words forming the bits will be valid. From the instantaneous position r = r(t), instantaneous meaning at an instant value of time t, the instantaneous velocity v = v(t) and acceleration a = a(t) have the general, coordinate-independent definitions; =, = = Notice that velocity always points in the direction of motion, in other words for a curved path it is the tangent metin2sell.comy speaking, first order derivatives are related to.

metin2sell.com is a free interactive C tutorial for people who want to learn C, fast. ©d 82P0k1 f2 T 1K lu9t qap 2S ho KfZtgw HaTrte I BL gLiCQ.e R xA NlOlh JrKi0gMh6t8sq YrCenshe Rr8vqeed Y JMGapdQeX TwGiRt VhW 8I 2n fDiPn 8iDtEep QAVlVgue3bjr vaV Y Practice finding the equation of a line passing through two points.

Trigonometry Facts Exact Values of the Trigonometric Functions: Test yourself on the exact values of the six trigonometric functions at the "nice" angles.

4 Ways to Find the Equation of a Line - wikiHow