32Manifest

Pressure Px

X-VECTORS

MonoLoguE

CZRAtlantic

c Edward & Saints

e Aa Bb 0123 Cc Dd g TOP 82,378+125 T Sublime: Volume I

S YXi (FLOW STATE)

A 71 GATE CRITICS

Subatomic (KR37) Still 

Exhibits World-Display

29,81 St@te of Bubbles

TASK1: SPACE FORCE?

Like Attract Each Other

[1] Vaporphase Top Serif

(2) Plasmatic Kerning Drift

{3} Solid-State Boldmake

(4) Ligature Plasma Arcs

1 (VPTS): A condition wherein ascenders dissolve into ligature clouds above the baseline. Common in high-pressure kerning fields.

2 (PKD): Observed when letterforms ionize under extreme tracking adjustments, causing unpredictable descender flares.

3 (SSB): A phase transition where light weights crystallize into ultra-bold block forms, often irreversible without typographic annealing.

4 (LPA): A hyper-energized connection between glyphs, stable only in high-resolution vacuum settings.

Transforming from new [Matter] Particle 012Es

X:L SURFACE TENSION

VAPORS, eg. Ethereally

High T.Viscosity Clouds

Possibilities or probabilities in an invisible field of energy. But only when an observer focuses attention on any location of any one electron does that electron appear. In other words, a particle cannot manifest in reality—that is, ordinary space-time as we know it—until we observe it. Quantum physics calls this phenomenon “collapse of the wave function” or the “observer effect.” We now know that the moment the observer looks for an electron, there is a specific point in time and space when all probabilities of the electron collapse.

If your mind can influence the appearance of an electron, then theoretically it can influence the appearance of any possibility. How would your life change if you learned to direct the observer effect and to collapse infinite waves of probability into the reality that you choose? Could you get better at observing the life you want? Atoms, ions, or molecules make up all matter. These particles can move in different ways. In some matter, they are close together and vibrate back and forth. In other matter, the particles are farther apart. Sometimes, they slide past each other. Ever slightly but still, they manage to reappear. Matter on a subatomic level exists as a momentary phenomenon. It’s so elusive that it constantly appears and disappears, appearing into three dimensions—in time and space—and disappearing into nothing—into the quantum field, in no space, no time— transforming from particle matter to wave energy, and vice versa. But where do particles go when they vanish into thin air? Quantum experiments demonstrated that electrons exist simultaneously in an infiniite array of possibilities or probabilities in an invisible field of energy. But only when an observer focuses attention on any location of any one electron does that electron appear. In other words, a particle cannot manifest in reality—that is, ordinary space-time as we know it—until we observe it. Quantum physics calls this phenomenon “collapse of the wave function” or the “observer effect.” We now know that the moment the observer looks for an electron, there is a specific point in time and space when all probabilities of the electron collapse into a physical event. With this discovery, mind and matter can no longer be considered separate; they are intrinsically related, because subjective mind produces measurable changes on the objective, physical world.

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When they get farther apart, the attractive forces between particles have a weaker effect. The spaces between them increase. This bigger space lets other particles slip past. As the motion of particles gets even faster, particles move even farther apart. In time, the distance between particles is so great that there is little or no attractive force between them. The particles move randomly and spread out. They create attractive forces between any two particles. Attractive forces pull particles together. Strong attractive forces hold slow-moving particles close together, as shown in the figure below. These weird, strange happenings are all what makes particles move farther apart. When they get farther apart, the attractive forces between particles have a weaker effect. The spaces between them increase. This bigger space lets other particles slip past. As the motion of particles gets even faster, particles move even farther apart. In time, the distance between particles is so great that there is little or no attractive force between them. The particles move randomly and spread out. They create attractive forces between any two particles. Attractive forces pull particles together. Strong attractive forces hold slow-moving particles close together, as shown in the figure below. The particles touch each other. The distances between the particles in a liquid are greater, and the particles can slip past each other. It weakens these particle interactions. Additionally, heavier particles take effects if Stronger attractions between particles make it harder for them to slide past one another, increasing viscosity. Typically, a liquid’s viscosity decreases as it warms up, because heat weakens these particle interactions. Additionally, heavier particles or those with complex, elongated shapes—such as chain-like molecules—tend to move more slowly, further increasing viscosity. Plasma is high-energy matter made up of particles that have positive and negative charges. Plasma is the most common state of matter in space. Plasma also is in lightning flashes, fluorescent lights, and stars, such as the Sun. Matter can be described in many ways. You can describe matter using your senses. You can describe its state, color, texture, and smell. You also can describe matter using measurements, such as mass, volume, and density. Mass is the amount of matter in an object. The units for mass are often grams (g) or kilograms (kg). Volume is the amount of space that a sample of matter takes up. The units for liquid volume are usually liters (L) or milliliters (mL). The units for solid volume are usually cubic centimeters (cm3) or cubic. As the motion of particles gets faster, particles move farther apart. When they get farther apart, the attractive forces between particles have a weaker effect. The spaces between them increase. This bigger space lets other particles slip past. As the motion of particles gets even faster, particles move even farther apart. In time, the distance between particles is so great that there is little or no attractive force between them. The particles move randomly and spread out. They create attractive forces between any two particles. Attractive forces pull particles together. Strong attractive forces hold slow-moving particles close together, as shown in the figure below. The particles touch each other. The distances between the particles in a liquid are greater, and the particles can slip past each other. The distances between the particles in a gas differ from those in solids and liquids. Typically, a liquid’s viscosity decreases as it warms up, because heat weakens these particle interactions. Additionally, heavier particles or those with complex, elongated shapes—such as chain-like molecules—tend to move more slowly. Quantum physics calls this phenomenon “collapse of the wave function” or the “observer effect.” We now know that the moment the observer looks for an electron, there is a specific point in time and space when all probabilities of the electron collapse into a physical event. As the motion of particles gets faster, particles move farther.

51 & 53 Blackstone Street

ROCKSTEADY K. SWAYER

Possibilities or probabilities in an invisible field of energy. But only when an observer focuses attention on any location of any one electron does that electron appear. In other words, a particle cannot manifest in reality—that is, ordinary space-time as we know it—until we observe it. Quantum physics calls this phenomenon “collapse of the wave function” or the “observer effect.” We now know that the moment the observer looks for an electron, there is a specific point in time and space when all probabilities of the electron collapse.

Picture yourself blowing bubbles by the seaside. Do you see matter in this scene? The three most common forms, or states, of matter on Earth are solids, liquids, and gases. The bubbles you blow hold air, which is a mixture of gases. The soap mixture used to make the bubbles and the ocean water are liquids. The sand, your shoes, and nearby seashells are a few of the solids you might see by the seaside. There is a fourth state of matter, plasma. Plasma is high-energy matter made up of particles that have positive and negative charges. Plasma is the most common state of matter in space. Plasma also is in lightning flashes, fluorescent lights, and stars, such as the Sun. Matter can be described in many ways. You can describe matter using your senses. You can describe its state, color, texture, and smell. You also can describe matter using measurements, such as mass, volume, and density. Mass is the amount of matter in an object. The units for mass are often grams (g) or kilograms (kg). Volume is the amount of space that a sample of matter takes up. The units for liquid volume are usually liters (L) or milliliters (mL). The units for solid volume are usually cubic centimeters (cm3) or cubic meters (m3). Density is a quantity calculated by dividing an object’s mass by its volume. The units of density are usually g/cm3 or g/mL. Have you ever wondered what makes something a solid, a liquid, or a gas? Two main factors that determine the state of matter are particle motion and particle forces. Atoms, ions, or molecules make up all matter. These particles can move in different ways. In some matter, they are close together and vibrate back and forth. In other matter, the particles are farther apart. Sometimes, they slide past each other. At other times, they move freely and spread out. It does not matter how close the particles are to each other. All things considered, this is

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Aa Bb Cc Dd Ee Ff Gg Hh Ii Jj Kk Ll Mm Nn Oo Pp Qq Rr Ss Tt Uu Vv Ww Xx Yy Zz

As the motion of particles gets faster, particles move farther apart. When they get farther apart, the attractive forces between particles have a weaker effect. The spaces between them increase. This bigger space lets other particles slip past. As the motion of particles gets even faster, particles move even farther apart. In time, the distance between particles is so great that there is little or no attractive force between them. The particles move randomly and spread out. They create attractive forces between any two particles. Attractive forces pull particles together. Strong attractive forces hold slow-moving particles close together, as shown in the figure below. The particles touch each other. The distances between the particles in a liquid are greater, and the particles can slip past each other. The distances between the particles in a gas differ from those in solids and liquids. Typically, a liquid’s viscosity decreases as it warms up, because heat weakens these particle interactions. Also, heavier particles or those with complex, elongated shapes—such as chain-like molecules—tend to move more slowly. Quantum physics calls this phenomenon “collapse of the wave function” or the “observer effect.” We now know that the moment the observer looks for an electron, there is a specific point in time and space when all probabilities of the electron collapse into a physical event. As the motion of particles gets faster, particles move farther apart. When they get farther apart, the attractive forces between particles have a weaker effect. The spaces between them increase. This bigger space lets other particles slip past. As the motion of particles gets even faster, particles move even farther apart. In time, the distance between particles is so great that there is little or no attractive force between them. The particles move randomly and spread out. They create attractive forces between any two particles. Attractive forces pull particles together. Strong attractive forces hold slow-moving particles close together, as shown in the figure below. These weird, strange happenings are all what makes particles move farther apart. When they get farther apart, the attractive forces between particles have a weaker effect. The spaces between them increase. This bigger space lets other particles slip past. As the motion of particles gets even faster, particles move even farther apart. In time, the distance between particles is so great that there is little or no attractive force between them. The particles move randomly and spread out. They create attractive forces between any two particles. Attractive forces pull particles together. Strong attractive forces hold slow-moving particles close together, as shown in the figure below. The particles touch each other. The distances between the particles in a liquid are greater, and the particles can slip past each other. It weakens these particle interactions. Additionally, heavier particles take effects if Stronger attractions between particles make it harder for them to slide past one another, increasing viscosity. Typically, a liquid’s viscosity decreases as it warms up, because heat weakens these particle interactions. Additionally, heavier particles or those with complex, elongated shapes—such as chain-like molecules—tend to move more slowly, further increasing viscosity. Plasma is high-energy matter made up of particles that have positive and negative charges. Plasma is the most common state of matter in space. Plasma also is in lightning flashes, fluorescent lights, and stars, such as the Sun. Matter can be described in many ways. You can describe matter using your senses. You can describe its state, color, texture, and smell. You also can describe matter using measurements, such as mass, volume, and density. Mass is the amount of matter in an object. The units for mass are often grams (g) or kilograms (kg). Volume is the amount of space that a sample of matter takes up. The units for liquid volume are usually liters (L) or milliliters (mL). The units for solid volume are usually cubic centimeters (cm3) or cubic meters. Nice!

Possibilities or probabilities in an invisible field of energy. But only when an observer focuses attention on any location of any one electron does that electron appear. In other words, a particle cannot manifest in reality—that is, ordinary space-time as we know it—until we observe it. Quantum physics calls this phenomenon “collapse of the wave function” or the “observer effect.” We now know that the moment the observer looks for an electron, there is a specific point in time and space when all probabilities of the electron collapse into a physical event. With this discovery, mind and body

Solstice

Gm 191 Heated Argument 56, “Dubious Do-It-All 87”; Classic Reflection 43

GM 192 SLEEPY TRAFFIC 90 & CUNNING JESTER 12 / AQUATIC CRAFTSMAN 59

Rm 283 Wakened Dreamer 98; Polite Masquerade 132, 4 Friendly Thinkers

RM 284 GOLDEN SPACERACE 403 (TAME PALACE 76) + NUMB SCIENTIST 38