Expanding
Space Bubble Universe
a
Non-technical Description by Daniel P. Bowlds
Measurements
and Units of Measure
All
that we know in our conscious minds about our surroundings has
primarily come to us through our senses. From birth, we have touched
and felt, heard, smelled and tasted, and have seen all sorts of
objects and things to form opinions of. We learn the concept of
distance, how heavy things are, learn about hot and cold things,
about loud and quiet things, about light and dark, etc. We have been
able to extend our sense of sight artificially with all sorts of
instruments; x-ray machines, microscopes, telescopes, atom smashers
etc. so that we can learn more about the behavior of the things we
can't normally see. With these instruments we have been able to look
inside the atom to see what it consists of (somewhat), and we have
seen the light from a million galaxies from a distant past time and
an unfathomable distance away. We have established means to measure
our observations consistently and found that nature seems to follow
certain laws as we observe the behavior of things.
The
three basic dimensions of measure that scientists presently use for
observations are: length, mass, and time. In the MKS system of
measurements these dimensions are the Meter, the Kilogram, and the
Second. All other expressions used to describe natural phenomena are
either unit-less, or combinations of the three basic units. For
instance, velocity or speed units equals distance divided by time,
force units equals mass times length divided by time squared, and so
on. We will now examine the three basic dimensions in the following
sections to see if we really know what they are and how certain we
are about that knowledge.
1.0
Length Measurements
All
of us have used a ruler at times to measure the length of something.
Maybe you measured your waist size, or a piece of lumber, but have
you ever stopped to consider what it is you are actually doing? Since
we are using this concept of length as a fundamental way to observe
our surroundings, let's go back and examine this closely.
1.1
Finite Length
When
measuring the length of something, the very first thing you
unconsciously do is to assume that the object you are going to
measure is finite in length (has a beginning and end) and that it is
constant (not changing in length while you try to measure it). Then
you take another finite and constant object which was set up as a
measurement standard length (a ruler), and compare that to the length
of the object being measured. For instance, to measure a line drawn
on a piece of paper, you have to find the line's beginning and ending
points. Then to measure the line in some measurement units, you take
the fixed length reference (a ruler) and compare it to the line’s
length. The comparison is done in the form of a ratio, and the
reference’s name becomes the units of measurement (inches, meters,
etc.). These units are then assigned to the ratio.
When
we say that a line is 0.1 cm long, what we really mean is that the
line starting at zero ends at a
fractional ratio of 1/10 of our reference’s one centimeter length.
The one centimeter reference is based upon a tangible unchanging
standard. Both the reference and the line being measured have a
beginning and an end. Typically, we have a ruler which may be
multiple standard lengths long, and this ruler has graduations on it
in fractional and integer multiples of the reference length.
Figure
1.1
To
the left of 1 we have linear fractional divisions to the finest
degree, and we define the beginning of the ruler as zero length. To
the right of 1 we have linear graduations in integer multiples of the
reference and fractional subdivisions between each of them. With the
ruler, we can read off the ratio of the measured length to the
reference length directly. For instance, to measure a line, the
beginning points of the ruler and the line are placed upon one
another (coincident) beyond any discernible fractional increment, and
we define this as the beginning point (at zero length). The ending
point of the line being measured is matched coincident upon the ruler
to the finest degree, and the measurement ratio is read directly off
of the ruler.
In
addition to measuring actual objects that have length, we commonly
use the concept of applying a negative length to represent the length
of absent objects (subtraction is the addition of a negative amount).
For example we might say the board was two inches too long and we
need to add a minus two inch board to it (cut it off) to make it the
right length. But remember, this is just a way to adjust real
objects, and these negative length objects do not actually exist in
the physical Universe.
1.2
Infinity, vs. a Measurable Quantity
“I'll
love you forever and ever and ever!” We've heard this before, and
some of us have even said it to the ones we love, but what is
forever? It's an idea that time has no end, and yet we have
experienced nothing in our surroundings, or even in the Universe that
would suggest that time goes on forever. Everything we have seen or
experienced has a time when it starts and when it ends, stars are
born, live and then die. We think the Universe is “exploding” as
time passes and that there was an almost zero time when it began. We
don't know if it has an end or not for sure, but we do know that it
appears to be expanding and “cooling” as though it will die a
frozen death. All physical objects (with mass) have a finite size,
and so on. So, let's really look at what infinity means in a finite
universe. We will start with the “length” concept of an infinite
line.
One
thing that may not be so obvious is that an infinite line has no
beginning or end. Another thing is that if it exists, it always has a
positive length dimension. It is never zero or negative. So how can
we represent this infinite line in our finite Universe? The answer
is, we will only look at a portion of the infinite line and make a
scale on it with measurement units that can expand or contract and
“slide” along the infinite line to adjust for whatever fixed
finite unit of measurements we are using. Here is what an infinite
“ruler” might look like:
Figure
1.2
So
now to use this in our Universe to describe how our Universe might be
expanding into an infinite void of non-Universe space for example, we
can pick an arbitrary fixed and constant length standard (a meter for
instance), and use that scale on our infinite ruler to measure
distances in the infinite space (hereafter called the Void) from our
Universe. The ruler still has no beginning or end, but we can start
our measurement at the finest point discernible on our open origin,
and we can extend the other end as far as we need to make the
measurement at a distance from our starting point. In doing this
however, we have made the assumption that there has always been a
fixed and unchanging meter length relative to the Void that our
Universe is expanding into. And that as far as we know, this space
might as well be infinite because we cannot see it and see no bounds
to it. We assume that the beginning point we have chosen has always
been there, even though the objects in the Universe we are measuring
may not have been there at one point in time. The assumption that our
meter reference is constant and unchanging in absolute space might be
false though. If it is changing, then the behavior we have come to
describe with an assumed constant length reference is likely to be in
error. Our standards may be unchanging relative to the Universe as we
observe them, but that doesn't necessarily mean they are unchanging
to the absolute space the Universe is expanding into. This is
something that we cannot see and is outside of our realm of
observation. More about this later, as this is the little thread that
could unravel our whole notion about how the Universe works.
To
begin, let's say that there is some kind of “fabric” to our
Universe's vacuum space, (that space in which no matter can be seen,
but in which gravity and inertial forces can exist and
electromagnetic fields can propagate through). This fabric will be an
ether of mass-less, motionless, invisible particles as Einstein
described through which light can propagate and standards for space
dimensions and time can exist (his May 5, 1920 address at Leyden
University). For discussion purposes, we will call them vacuum space
particles (VSPs) with given and constant dimensions relative to our
measurement standard. These particles are all similar in size and
shape, but they are distinct and individual. The particles consist
only of a volume of their own unique space material that cannot be
shared with any other particle. They are all polyhedrons of the same
size and symmetrical shape and are in intimate contact with each
other with no “empty” spaces between them, requiring that they
must share flat common sides. Matter can exist and move around in the
medium, displacing, compressing and decompressing the VSPs as they
flow around the moving matter, but the particles themselves do not
move. We cannot observe them directly, but we can see evidence of
their existence through the actions they cause in observable matter.
Universe
vacuum space is three dimensional, but for illustration purposes in a
simpler 2D planar model, these particles would only occupy an area in
a plane and would be polygonal. There are a few types of polygonal
shapes that these particles could take on which would meet that VSP
criteria, but let's select the simplest one, an equilateral triangle
for our discussion. The VSPs may not actually be that shape as there
could be other conditions that they must meet, but it doesn't matter
for this discussion because the measurement principles we're
discussing will apply to any consistent shape. They just have to be
polygonal and symmetrical for 2D space (polyhedron for 3D space).
Figure 2.1 depicts a section of 2D space consisting of equilateral
triangles. Now our “ether” is “mass-less”, invisible, and
motionless, and consists of VSPs. They are the least dense particles
in the Universe, so we will assign them a density of one. They will
be used as a density reference for all matter in the Universe so that
the density ratio of the matter to the space particle density is
representative of the mass. Matter in this expanding space bubble
Universe also consists of expanding space bubbles, but they are more
densely packed and the mass of the matter is represented by density
ratio of the object of matter to the VSPs.
Figure
2.1
Objects
a
and b
are chunks of matter, (consists of clumped condensed space
particles) have a density ratio of 3:1 (relative to the VSPs), and
have properties of mass. Conventionally length measurements have
been considered constant and unchanging so that the length of a
physical reference standard would remain constant no matter what
position it was in or where it was placed in space. So, we can take
our “ruler” and measure the distance between objects a
and b
and also obtain the amount of space (or VSPs) between them. By doing
this we have assumed unchanging consistency in the fabric of space
relative to our measurement standard. Now might be a good time to
mention that our physical measurement standard itself (the ruler)
also contains a lot of “empty” space inside the atoms and
molecules that it is made of. These spaces must also be filled with
our triangular VSPs if we are to be consistent. With this in mind,
we can define distance as a certain quantity of space particles along
a straight line between two points. So now in “empty” Universe
space, a one meter span would contain a finite and constant number of
VSPs stacked end to end to make up the one meter distance. Since
this distance appears to be constant to us, we assume that this is
consistent throughout all of space, even though we rely on light
traveling through that very same space at a constant velocity to us
to know of its existence (neither of which the consistency we are
certain). We assume one meter of space a light year away from us
would span the same distance on our measurement standard as it would
here in our space. This implies that all space particles throughout
the Universe have to be the same size and shape as our local
reference in order for the distance to be consistent. And we assume
that light speed is constant throughout space even though we don't
know how it moves through it.
With
this new way of looking at length measurement, what does it really
mean to say that the distance between two objects is constant? It
means that the quantity
of VSPs, or the vacuum particle displacement between two points has
remained constant. Also, if the distance between two objects of
fixed size was measured, it means that the number of space particles
the fixed objects occupy has remained constant as well. In summary
we will state the definition of length or distance as we see it:
Distance between
objects, or the measurements of the size of objects appears constant
to us as long as the quantity of space particles between objects, or
the quantity of space particles displaced by the objects remains
constant to our measurement standard space particle displacement.
You
might be thinking, so what? How does this make any difference in our
understanding of length measurements or distance between objects in
the Universe? Well there is one subtle thing about this that makes
an enormous difference in our understanding of the workings
of
the Universe. It is possible that the space particles themselves
could be expanding relative to the infinite non-universe void. As
long as the particles and all objects of matter expand in the same
proportions, they would appear to be constant and unchanging in size
or in the distance between them. We could not see the particles or
their expansion. This is tremendously significant! It means that it
is possible for the whole Universe to be expanding from within. Each
little particle of space could be generating new Universe space that
cannot be shared with any other space particle, resulting in the
entire Universe expanding into more of the non-universe space void
without our detection. We could still be moving matter particles
around in this expanding space medium, change distance between
objects, etc. and the background space medium would still be
invisible, and appear to be constant and unchanging to us (from a
Newtonian mechanics perspective).
Supposing this expansion is the
actual case, how would we measure things with our fixed ruler in the
infinite 3D void space? Here we will use the “Infinity
Quantization Ruler for a Finite Length Subset” mentioned earlier.
It will be a handy tool to use when describing the unseen finite
Universe expansion into the infinite Void.
Fig 2.2
Fig 2.2 represents such a ruler
that has graduations on it for some fixed length standard. It looks
like an ordinary yard stick that is finite and unchanging in our
expanding Universe. But if it had graduations on it in a length
standard that was constant in our Universe, and you were able to see
it from outside our Universe in the infinite Void, this ruler would
be expanding and sliding along the infinite coordinate axes of the
Void that had graduations on it relative to a fixed length in the
Void. If our Infinity Quantization Ruler had graduations on it in a
length standard that was constant in the Void, and we were able to
see it from inside our Universe, it would appear to be collapsing
into an infinitesimal point. If we view the Universe from the Void
with graduations on the Void Cartesian axis in some constant length
standard in the Void, we would see the Universe expanding everywhere
like a foam.
What,
you might ask, is a fixed length standard in the infinite Void that
we can relate to in our Universe? Very good question! There is only
one thing we can use, and that is the initial size of the Universe
when it came into existence. If we assume that the Universe had a
finite size at its beginning before expansion started, then we could
use that length as an unchanging reference for our infinite void
ruler and coordinate system. Logic says that the Universe is finite
because it is expanding and not infinitely everywhere already. Also
it is logical to assume that since it exists, is finite and
expanding, it also must have had a beginning size when it came into
existence. And if we consider that each of the finite and
inconceivably large number of space particles in the infant Universe
existed in the beginning just before
they started expanding, we couldn't even imagine how small they would
have been relative to our present expansion level. But just remember
that the infinite Void space has no limits in the small or large, and
by definition, if something exists in the physical sense, then it
must occupy space in the Void. Therefore the Universe and its
individual space particles must have had an initial size.
Since we are going down this
expanding Universe path, it would be good to point out here that this
expansion is one way, that is, the Universe space that each particle
generates from within cannot be made to go back where it came from.
Universe Beginning,
Expansion, Time, and Energy
Since it is possible that a
Universe composed of expanding space particles could exist, let's
explore how it would work and how all of the things we see happening
in it could be explained with the actions of these particles. We
will go for the grand unification prize and say that the entire
Universe is composed solely of the space particles. It might be good
to give you an overview of where I am going with this before I get
into any details, so here goes:
The entire Universe consists
solely of expanding space particles. There are no voids in the
Universe where these particles do not exist. The particle expansion
comes from an unknown source within each individual particle.
What scientists think of now as
“vacuum space”, areas of the Universe that contains no matter,
consists of VSPs (vacuum space particles) that are the most highly
expanded and the least restricted in their configuration with their
surrounding space particles. These particles are assigned a density
of one. They are used for comparison in the density ratio with
grouped clumps of particles.
All matter in the Universe
consists of grouped clumps of condensed yet still expanding space
particles. The mass of the clumps is proportional to the density
ratio (with respect to VSPs). Large clumps like the nucleus of an
atom may consist of multiple sub-clumps and even semi-expanded space
particles within it.
All of the invisible traits and
attributes associated with the physical Universe; Energy, Time,
Gravity, Inertia, Electromagnetic forces, … are caused by the
expansion of these space particles and their interaction with each
other. There is nothing else in the physical Universe.
Matter Expanding?
A clumped group of lesser
expanded space forms matter and has a density greater than one
relative to the VSPs. These clumps are still expanding in the same
proportion as the VSPs though, so that objects appear to be constant
in size. The clumps may be in many different configurations and
consist of various polyhedron shaped space particles. These clumps
and configurations make up the various types of matter, and the
density of the particles in the clumps give the matter a property of
mass, the higher the density, the greater the mass.
Okay, now you are wondering what
mechanism forms the clumps and how are they held together if the only
thing in the Universe is space particles? Another good question, one
that will take a bit of explaining! Remember that even though the
space particles are identical, they are still uniquely individual and
create their own brand of space that cannot be shared with any other
particle. I will list a simple set of rules that expanding space
particles must follow if the Universe is to consist solely of them:
Particles can only expand, they
can never contract. The rate of expansion of space particles
relative to a fixed reference outside the Universe can vary if the
particle's expansion is restricted, but it will always be greater
than zero. The expansive forces within the particles are equal, and
nothing exists in the Universe to force any created space inside the
space particles back to its source.
The space of one particle cannot
be shared with another.
There are no voids between the
particles. Particles terminate on each other with flat surfaces and
facets of polyhedrons. Each facet of a space particle can only be
shared with one other particle. Shapes of the particles can vary in
size and number of facets to practically any voluminous flat shaped
(vs. curved) configuration in solid geometry.
Since facets of adjoining space
particles must be coincident, and particle space cannot be shared by
space particles, they interfere with each others expansion
forcefully. The more densely packed they are, the more they
restrict each others expansion.
Since the particles must share
sides with other particles, and there are expansion restrictions
imposed by the boundary conditions with each other, groups of
particles may clump together in all types of “Kaleidoscopic”
configurations that are more dense than the VSPs.
So,
to answer your question about what's holding the particles together,
the clumps are being “pushed” together rather than being held
together by some adhesive. The
only primary force in the Universe comes from the expansion of
impenetrable space particles and their actions upon each other.
The Beginning
How did the Universe begin?
Well, no one knows for sure yet, or maybe that knowledge is not
accessible from our vantage point, but here is one possible way it
could have begun. Previously we talked about the Universe having an
initial size when it came into existence. It is finite even though
it contains an enormously large number of infinitesimally small space
particles. For our discussion we will assume that this enormous
group of particles was spherical in shape (as it sat in an infinite
non-Universe void), and that all particles were cubical and uniform
in size. We don't know for sure if the expansion of each particle is
continuous or comes in discrete sequential steps random to each
other, but we will assume that the particles expand by random steps
for now. At the onset of expansion, the particles in the outermost
layer had one side or surface exposed to the Void which offers no
resistance to its expansion. The only thing resisting expansion of
these particles was its contact with other particles on the sides
away from the Void. And so these outermost particles expanded in the
direction of the Void at a greater rate, and that side of the space
particle could have been curved instead of flat. This caused the
particles to be highly irregular in shape, and since those particles
were not expanding synchronously, the symmetry of the outer layer was
broken. “Cracks” in the outer surface occurred, and fissures
penetrating into deeper layers were formed as the particle's
expansion restrictions changed due to the broken symmetry. These
cracks and fissures were made up of oddly shaped space particles, but
still they maintained the conditions of one facet in intimate contact
with adjoining particles, no voids, etc. And so the infant Universe
was wildly and chaotically fracturing and expanding at its beginning,
but not from a “Big Bang” explosion, rather it was expanding
everywhere from within.
Energy
Now you might be thinking, where's the energy that is “supposed”
to be present as described in the super hot “soup” of the Big
Bang theory? Well, therein lies the faulty assumption in that
theory. With it, all of the energy in the Universe was present when
it came into being, and all energy is conserved during the course of
its existence. This is because the assumption is made that the
energy is causing the expansion, as in an explosion.
Looking at this occurrence from an expanding particle perspective,
which I will coin “The Big Fizz”, the volume expansion is
creating energy as it happens. There was no energy until the first
particles started their incremental expansion. The infant Universe
was super dense and at its minimum “size” in the Void. All of
the particles in the inner layers were restricting each others
expansion in a symmetrical way, and so they remained compact until
the symmetry was broken. The particles in the outer layers expanded
“rapidly”, or it would seem that way to us because their
expansion into the Void was much greater than the inner layer
particles.
We are not able to see all of this absolute energy (so called since
it is the total energy present in the Universe at any given level of
expansion) because we can't see the expansion of the invisible space
particles. The energy that we do see is the result of a rate of
expansion increase in absolute space between two given quantities of
particle space (more about this later).
You're probably thinking, Whoa! Wait a minute! What about the
conservation of energy? Well, as it turns out, the energy that we
see in our Universe is a result of a differential expansion between
two volumes of space. If vacuum space and matter are expanding in
the same proportions, the Universe energy being produced (that
expansion which is creating it) cannot be observed because nothing we
can see is in motion. If however a chunk of condensed space
particles (matter) has an incremental change in its volume ratio with
space, then we will see this as an exchange of energy. And as it
turns out, the amount of energy that we see per incremental change in
volume is constant, so to appear that energy is always conserved.
But in fact, energy is just a product of independent volume
expansion and therefore will always be sufficient and in equilibrium
with Universe expansion.
Remember though that Universe volume is in the invisible third order
units of absolute space (a quantity of volume in the Void), that is,
in some fixed and unchanging units as viewed from the Void as
described earlier.
Time:
Now this might have crossed your mind; What about time? And at what
“time” did the Universe begin? Well, this is something that
might give you a touch of heartburn. Time is dependent on the linear
expansion of space particles, and relative to its surroundings. This
is the space-time connection. Time has first order units of length
derived from third order space volume expansion as viewed from the
Void. This means that time is not “universal” throughout the
Universe, and is a local observance. This is because time is a
record of sequential changes in linear expansion, moving forward and
never backward. If expansion slows down in some part of the Universe
relative to another, then there will be a corresponding slowing of
time in that part relative to the other. Time is a record of changes
in Universe linear expansion, and it began simultaneously with the
first increment of expansion for that part. There was no such thing
as time before the Universe began, and time did not start at zero.
Time came into existence simultaneously with the Universe.
Since the cause of Universe expansion is from the space particles
expanding, and they can never contract, time can only move forward or
slow to a near stop. Time can never go backward for us at our
present expansion level. Could we “go back in time” and visit
parts of the Universe that aren't at our level of expansion or
haven't reached our time in the Universe yet? Don't know, but
suspect that we would have to stop our time and let that area's time
catch up with us to get there or to see it.
Before I leave this introduction
to the relationship between space volume expansion, time, and energy,
I would like to address the apparent contradiction of
non-compressible space when you see Black Holes “suck” everything
in and compact it. It is not a contradiction because it's our
perspective that makes it seem that way. If you slow or stop
expansion of a portion of space particles or matter, it will appear
to be shrinking to us because we and the vacuum space around us are
expanding at a faster rate.
So in summary, I will list some
of the key elements of an expanding space bubble Universe:
- The entire Universe consists solely of space particles (bubbles). Each particle is unique in that it cannot share its space material with any other particle. These particles might be thought of as Higgs bosons, except that each particle contains a creative source of its unique space material that is forcefully trying to expand the particle. Where the material comes from is unknown, and it is uncertain how long it will continue to supply new space material.
- There are no voids between particles, so the particles must share sides at all times. Singular particles are invisible to us, and are called vacuum space particles (VSPs). They are the fastest expanding particles, and expand at the speed of light. This expansion rate might not be constant throughout the Universe. A volume of VSPs could be considered a Higgs field.
- Clumps of space particles can form, and these expand at a slower rate than VSPs. These clumps have properties of mass and are visible in the Universe. The mass is proportional to the density of the clump (relative to a VSP).
- All actions of the Universe are the result of the expansion of invisible space particles. Our awareness of the Universe's existence comes solely from the visibility of these actions even though we cannot see the space particles or observe them expand.
- Time passing is a record of linear expansion of space particles in absolute length units (non-expanding units seen in the Void). The space particles can only expand, never contract or completely stop expanding, and therefore time only moves forward or can only approach a stop.
- Universe distance measurement is no more than a comparison of a quantity of reference VSPs to a quantity of VSPs in the expanding objects that are being measured.
- Invisible Absolute Energy is the volume expansion of space particles into the Void in absolute length units cubed, and it is continually being created. We cannot see this energy.
- The visible exchange of energy that we observe is the result of an incremental expansion rate change in a volume of space particles being considered to the expansion rate of a reference volume.
- In the case of electromagnetic energy, the incremental volume of expansion of the originating object ripples through the VSP medium at their expansion rate (which is the local speed of light). This rate of expansion cannot be exceeded because space expansion is the cause of all physical existence.
- There was no “Big Bang” in which all the energy of the Universe was created at its beginning. Energy is not “conserved” in the sense now thought with that theory. What appears to us as conservation of energy results from the constant relationship and connection between time (or linear expansion), space (quantity of VSPs) and change in volume expansion rates (Universe observable energy).
- All forces of action on objects at a distance, such as gravity, inertia, or electromagnetic forces, come from an imbalance in the vacuum space pressure. The space pressure might not be constant throughout the Universe, and may vary according to location and absolute distance from the Void boundary. The assumption that space pressure and resulting actions from it are constant is the cause of the discrepancy in gravitational behavior on the large scale.
- If the source material within each particle comes from the same place outside of our Universe, and there is a finite quantity of it (likely to be true since it had a beginning), then at some point all expansion will stop. If this happens, nothing of the Universe will exist, and there will be no record that it ever existed. Time as we know it is only a property of the Universe and will no longer exist.
In my dream and vision in the workings of the Universe, I've gone into the real world where there is just the spirit of all things physical. The facade of solid objects, the physics of their actions, and time, is just an illusion. It is all made up of invisible space bubbles! The only thing making it all exist is the breath of life (space expansion) that is continually being given.If it is true that the Universe is no more than a set of expanding space bubbles as I have proposed, with some work and deductive reasoning, we will be able find out the cause of all physical actions of the Universe. We will see that our Universe is in a constant state of creation, and all things associated with the physical is caused by and dependent upon the creative growth of new space material within each of the space bubbles. If the space material filling the bubbles “runs out”, the time for time will have run out. There will be no matter, energy, gravity or inertia, or even time; no evidence that the Universe ever existed. But even with this knowledge, we will not know where the continuing creation of unique space material within each of the space particles comes from, or why the particles exist in the first place. We still will not know how life began and what causes it to evolve in a physical Universe that is not affected by the spiritual. We will not know how our consciousness developed, or from Whom or where it all came.There is much more in my book “Are We Just Bubbles, An Alternate View of Existence”. In it I show how gravity and inertia work, the reason for the speed of light limit, the cause of electromagnetic forces, how mass equates to energy, cause of entropy, and particle position uncertainty with short increments of time.
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This paper is copyrighted by Daniel P. Bowlds January 2016. It may be printed and distributed publicly if left intact with author credit, or portions quoted with author credit, but it may not be offered for sale by another party.