Forgotten Kings

Know thyself and awaken to the warrior god within you

Stand erect and move through the world with a gentle hand and ease of passage

For you are the Kings of a long forgotten era of Kings

Proud in form I move through this world with dignity and grace

For it is the divine birthright of my embodied being

and the Responsibility of my Godhood

Awakening to the silvery pillows of silence

In my mind I am quite

In my heart I am Alive

I am. I am Alive.

In my soul I am ablaze in the radiance of the God flame.

To be is to be.  There is no question.

There is no escaping it.

There is no understanding it.

To do so is to mistake the map for the territory,

the finger for the moon.

You can’t eat a picture of delicious food,

all it does is make you more hungry.

Is is, from now within eternity.

In you and me are the rocks and the trees.

Last night I dies a man.  This morning I am reborn as god.

In the experience of the I am there is nothing

temporal because there is never a beginning.

No search.  No end.

There is only is.

Arise Alive

Arise alive my soul rises over the earth

Arise alive wings on my back, light on foot

Whatever does an Angel’s footprint look like

A windswept kiss upon a child’s rose taut cheeks

Whispering forgiveness upon the earls of the condemned

Or a blessing of death to a wounded heart

Murmering eyes of tattered love

Angels be near

Angels be near

Whisper in my ear

So that I might hear

Your eternal voice

Calling me closer

Forever beckoning me

Into the arms of the Lord

Calling me home to the ground of my creation

The Salivation of my Salvation

The eternal expression of the I am presence

That is you. That is me.

That is your divine exhalation in manifest form.

May I know this today in the moment

And awaken unto you.

Amen.  Amien.  I am all beings.

Am I, I Am.

Am I?             I am.

Am I?        I am.

Am I?    I am.

Am I? I am.

Am I-I am.

Am I, I Am?

Am I, I Am.

Am I I Am.

AmIIAm.

Am I-I Am.

Am I, I Am.

Am I?     I Am.

Am I?           I Am.

Am I?                I Am.

Am I?             I Am.

Am I?       I Am.

Am I? I Am.

Am I, I Am?

All One

All One

Alone

We are ultimately alone

I feel alone

Alone, but infinitely connected

Alone.  All One

One, why does it fucking have to be one

It is so goddam l-one-ly, lonely, being just one

One in the infinite space that is my being

Alone in the darkenss

Alone in the infinite space that presides in my being, that is my being

Never ending.  Never really beginning

All one in the darkness.

A poet with his pen…

A poet with his pen sets mind afire

Blazing the houses of forgotten slumber

In the brilliant allure of truth’s caress

And twilight’s release.

Coalescence of Parts – Circle to Circle

Geometry > Plane Geometry > Circles >
Number Theory > Constants > Transcendental Root Constants >
Interactive Entries > Interactive Demonstrations >

Circle-Circle Intersection

 

Two circles may intersect in two imaginary points, a single degenerate point, or two distinct points.

The intersections of two circles determine a line known as the radical line. If three circles mutually intersect in a single point, their point of intersection is the intersection of their pairwise radical lines, known as the radical center.

CircleCircleIntersection
Let two circles of radii R and r and centered at (0,0) and (d,0) intersect in a region shaped like an asymmetric lens. The equations of the two circles are

x^2+y^2 = R^2
(1)
(x-d)^2+y^2 = r^2.
(2)
Combining (1) and (2) gives

(x-d)^2+(R^2-x^2)=r^2.
(3)
Multiplying through and rearranging gives

x^2-2dx+d^2-x^2=r^2-R^2.
(4)
Solving for x results in

x=(d^2-r^2+R^2)/(2d).
(5)
The chord connecting the cusps of the lens therefore has half-length y given by plugging x back in to obtain

y^2 = R^2-x^2=R^2-((d^2-r^2+R^2)/(2d))^2
(6)
= (4d^2R^2-(d^2-r^2+R^2)^2)/(4d^2).
(7)
Solving for y and plugging back in to give the entire chord length a=2y then gives

a = 1/dsqrt(4d^2R^2-(d^2-r^2+R^2)^2)
(8)
= 1/dsqrt((-d+r-R)(-d-r+R)(-d+r+R)(d+r+R)).
(9)
This same formulation applies directly to the sphere-sphere intersection problem.

To find the area of the asymmetric “lens” in which the circles intersect, simply use the formula for the circular segment of radius R^’ and triangular height d^’

A(R^’,d^’)=R^(‘2)cos^(-1)((d^’)/(R^’))-d^’sqrt(R^(‘2)-d^(‘2))
(10)
twice, one for each half of the “lens.” Noting that the heights of the two segment triangles are

d_1 = x=(d^2-r^2+R^2)/(2d)
(11)
d_2 = d-x=(d^2+r^2-R^2)/(2d).
(12)
The result is

A = A(R,d_1)+A(r,d_2)
(13)
= r^2cos^(-1)((d^2+r^2-R^2)/(2dr))+R^2cos^(-1)((d^2+R^2-r^2)/(2dR))-1/2sqrt((-d+r+R)(d+r-R)(d-r+R)(d+r+R)).
(14)
The limiting cases of this expression can be checked to give 0 when d=R+r and

A = 2R^2cos^(-1)(d/(2R))-1/2dsqrt(4R^2-d^2)
(15)
= 2A(1/2d,R)
(16)
when r=R, as expected.

Circle-CircleIntersectionHalf
In order for half the area of two unit disks (R=1) to overlap, set A=piR^2/2=pi/2 in the above equation

1/2pi=2cos^(-1)(1/2d)-1/2dsqrt(4-d^2)
(17)
and solve numerically, yielding d=0.8079455… (OEIS A133741).

Circle3Intersection
If three symmetrically placed equal circles intersect in a single point, as illustrated above, the total area of the three lens-shaped regions formed by the pairwise intersection of circles is given by

A=pi-3/2sqrt(3).
(18)


Circle4Intersection
Similarly, the total area of the four lens-shaped regions formed by the pairwise intersection of circles is given by

A=2(pi-2).
(19)

SEE ALSO:
Borromean Rings, Brocard Triangles, Circle-Ellipse Intersection, Circle-Line Intersection, Circular Segment, Circular Triangle, Double Bubble, Goat Problem, Johnson’s Theorem, Lens, Lune, Mohammed Sign, Moss’s Egg, Radical Center, Radical Line, Reuleaux Triangle, Sphere-Sphere Intersection, Steiner Construction, Triangle Arcs, Triquetra, Venn Diagram, Vesica Piscis

REFERENCES:
Sloane, N. J. A. Sequence A133741 in “The On-Line Encyclopedia of Integer Sequences.”

This article is directly from the link below and will be referenced throughout this site as mathematical constants in the conversation between Circles.   Weisstein, Eric W. “Circle-Circle Intersection.” From MathWorld–A Wolfram Web Resource. http://mathworld.wolfram.com/Circle-CircleIntersection.html