The orbit of of planet is an ellipse with the Sun at one of the ____.

The orbit of a planet is an ellipse with the sun at the centre.

Fill in the blanks with appropriate words and write the completed sentences: According to Kepler's first law, the orbit of a planet is...... with the Sun at one of the......

The orbit of a planet is an ellipse, line joining the planet and the sun sweeps equal areas in equal intervals of time F=(Gm_1m_2)/(r^2) , T^2 prop R^3

Orbit of the earth around the sun is an ellipse with sun at one of its foci.if the semi major axis is 150 million km and e=1/60 , find the difference between maximum and minimum distance between the earth and the sun.

The kinetic energies of a planet in an elliptical orbit about the Sun, at positions A,B and C are K_(A),K_(B) and K_(C) respectively. AC is the major axis and SB is perpendicular to AC at the position of the sun as shown in the figure. Then

Answer the following questions : Observe the given figure showing the orbit of a planet moving around the sun and write the three laws related to it.

Kepler's first law : orbit of a planet is an ellipse : : _________ : T^2 prop r^3

The figure shows the elliptical orbit of a planet about the sun S. An ellipse is the curve obtained when a cone is cut by an inclined plane. It has two focal points. The sum of the distances to the two focal points from every point on the curve is constant. F_1 " and " F_2 are the two focal points of the ellipse . The shaded area CF_1D is twice the shaded area AF_1B. t_1 is the time taken by the planet to move from C to D and t_2 is the time to move from A to B Which laws do we understand from the above diagram and description?

A planet of mass 'm' moves in an elliptical orbit around an unknown star of mass 'M' such that its maximum and minimum distances from the star are equal to r_1 and r_2 respectively. The angular momentum of the planet relative to the centre of the star is

The density of a newly discovered planet is twice that of earth. The acceleration due to gravity at the surface of the planet is equal to that at the surface of the earth. If the radius of the earth is R , the radius of the planet would be