Category: 4D Music

bookmark_borderLoop

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Loop.mp3
Loop.mp4
Loop-Reggae.mp3
Loop-Reggae.mp4
Loop-intro.mp3

[Verse 1]
In a cycle
That’s growing in strength
All the time
Shortening in length

[Chorus]
Over and over
(In a feedback loop)
Reinforcing
(Ignorance endorsing)

[Verse 2]
Running in circles
Going nowhere
Creating new hurdles
Apparently unaware

[Chorus]
Over and over
(In a feedback loop)
Reinforcing
(Ignorance endorsing)

[Bridge]
Loop-de-loop
(Going round and round)
Feedback loop
(Dazed by astound)
Phased into a haze
(Don’t realize)
“Right before our eyes”

[Chorus]
Over and over
(In a feedback loop)
Reinforcing
(Ignorance endorsing)

[Outro]
Loop-de-loop
(Going round and round)
Feedback loop
(Dazed by astound)

A SCIENCE NOTE

The song “Loop” serves as a pointed allegory for the escalating climate crisis, using the metaphor of a feedback loop—a foundational concept in both climate science and chaos theory.

Feedback Loops and Climate Change

  • The “cycle growing in strength” and “shortening in length” in Verse 1 refers to positive feedback loops, where an initial change triggers processes that intensify the original disturbance.

    • For example: melting polar ice reduces albedo (reflectivity), which causes more heat absorption, leading to even more melting.

  • The repetition in the chorus (“Over and over / In a feedback loop”) mirrors the relentless nature of these loops, which grow more intense and more frequent—echoing real-world phenomena like more extreme weather, thawing permafrost, and warming oceans.

Chaos Theory and Nonlinear Escalation

  • “Running in circles / Going nowhere” from Verse 2 suggests dynamical systems trapped in chaotic attractors—systems that appear random, but are bounded within repeating, unstable patterns.

  • The bridge lines “Phased into a haze / Don’t realize / Right before our eyes” reflect the disorienting effect of slow-building chaos. As with climate change, the system spirals out of control gradually, while observers—governments, societies—fail to recognize the tipping points until it’s too late.

Sociopolitical Ignorance and Reinforcement

  • The chorus’s line “Reinforcing / Ignorance endorsing” critiques human systems (media, politics, economic incentives) that amplify destructive behaviors rather than interrupt them. These are social feedback loops—misinformation, fossil fuel lobbying, or willful denial—feeding into the larger climate feedback loop.

The Symbolism of the Loop

  • The repeated “loop-de-loop” and “round and round” is almost childlike or carnival-like, which adds irony—it sounds playful, but the consequences are deadly serious. It’s the illusion of normalcy while the planet destabilizes.

In summary:

“Loop” metaphorically captures the essence of runaway climate feedbacks and the blindness that keeps us locked in destructive repetition. It’s a musical warning about our place in a system spiraling into chaos—and a call to break the cycle before it consumes us.

From the album “Roll“

Also found on the album “Reggae Entrée“

The Human Induced Climate Change Experiment

bookmark_borderSines

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Sines.mp3
Sines.mp4
Sines-Best-Of.mp3
Sines-Best-Of.mp4
Sines-intro.mp3

[Intro]
Have you seen the sines
(Of the times)

[Verse 1]
Just look around
Signs abound
They can be found
All around

[Bridge]
Have you seen the sines
(Of the times)
They’re rollin’, rollin, in
(The high tides begin)

[Chorus]
Feedback loops
Harmonic response
No lack of “oops”
In need of renaissance

[Verse 2]
Just look around
Sines are inbound
Here’s another round
End of the line bound

[Bridge]
Have you seen the sines
(Of the times)
They’re rollin’, rollin, in
(The high tides begin)

[Chorus]
Feedback loops
Harmonic response
No lack of “oops”
In need of renaissance

[Outro]
Feedback loops
Harmonic response
No lack of “oops”
In need of renaissance

A SCIENCE NOTE

Sine waves relate to climate change in several important ways, especially in how scientists model, analyze, and predict climate patterns and variability over time. Here are the key connections:

1. Natural Climate Cycles

Many natural climate phenomena follow approximately sinusoidal (sine wave-like) patterns:

  • Milankovitch Cycles: Earth’s orbital changes (eccentricity, axial tilt, and precession) affect solar energy reaching the planet and follow cycles that resemble sine waves over tens to hundreds of thousands of years. These influence glacial and interglacial periods.

  • Seasonal Variations: The annual cycle of temperature and solar radiation at any location on Earth is close to a sine wave.

  • Ocean-Atmosphere Oscillations: Phenomena like the El Niño–Southern Oscillation (ENSO), Pacific Decadal Oscillation (PDO), and North Atlantic Oscillation (NAO) show roughly cyclic behaviors over time, often modeled using sine or cosine functions.

2. Climate Models & Signal Processing

Climate scientists use sine waves (and Fourier analysis) to:

  • Decompose temperature and CO₂ time series into frequencies (e.g., identifying periodic components versus long-term trends).

  • Separate natural variability (like seasonal or decadal oscillations) from anthropogenic trends (caused by greenhouse gases).

  • Improve forecasting by modeling the climate system as a combination of wave-like patterns plus chaotic and trend-based elements.

3. Feedback Loops and Harmonic Response

In systems theory, feedback loops (positive and negative) in climate dynamics can lead to oscillations similar to those seen in damped or forced harmonic systems:

  • Melting ice reduces albedo → increases warming → melts more ice. This is a nonlinear feedback, but when modeled locally or over short periods, it can exhibit sine-like fluctuations before spiraling out or stabilizing.

4. Detection of Climate Change Signals

Because the climate system is noisy, scientists often look for anomalies that depart from expected sine-like patterns, such as:

  • Long-term warming trends that shift the baseline upward.

  • Increasing amplitude (more extreme highs/lows) or changing frequency of events like heatwaves or rainfall.

From the album “Roll“

The Human Induced Climate Change Experiment

bookmark_borderChaos on a Leash

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Chaos-on-a-Leash-0.mp3
Chaos-on-a-Leash-0.mp4
Chaos-on-a-Leash-1.mp3
Chaos-on-a-Leash-1.mp4
Chaos-on-a-Leash-intro.mp3

[Verse 1]
Took the dog for a walk
All was going swell
Until a squirrel… starts a stalk
Oh, well, what the hell

[Chorus]
Chaos (unleashed)
Such a beast
Chaos (unleashed)
Devil’s feast

[Bridge]
You got that right
(Better hold on tight!)
Dog gone! (out of sight)
Say goodnight

[Verse 2]
Took the dog for a stroll
On a lark in the park
Sees a squirrel… goes on patrol
Like gasoline to a spark

[Chorus]
Chaos (unleashed)
Such a beast
Chaos (unleashed)
Devil’s feast

[Bridge]
You got that right
(Better hold on tight!)
Dog gone! (out of sight)
Say goodnight

[Chorus]
Chaos (unleashed)
Such a beast
Chaos (unleashed)
Devil’s feast

[Outro]
You got that right
(Better hold on tight!)
Say goodnight
(Goodnight)

ABOUT THE SONG
The song “Chaos on a Leash” uses the seemingly light-hearted act of walking a dog to deliver a biting metaphor about the disorder unleashed by President Trump’s economic and climate policies. What begins as a normal stroll—orderly, manageable—rapidly descends into chaos the moment a stimulus (the squirrel) appears, symbolizing the reckless triggers embedded in policy decisions that escalate into runaway consequences.

Verse 1 and 2
Taking the dog for a walk represents governing a nation or managing an economy—a process that requires attention, foresight, and restraint. The dog is a stand-in for the forces of the economy, environmental risk, and public reaction. The squirrel—a minor provocation—sets off an unpredictable reaction, showing how fragile and reactive our systems have become. It only takes a spark (“like gasoline to a spark”) to ignite disorder, mirroring how small decisions under Trump’s leadership (e.g., deregulation, tax cuts, environmental rollbacks) can have explosive effects.

Chorus
“Chaos (unleashed) / Such a beast / Devil’s feast” captures the full unraveling. Once these forces are let loose—like markets without checks, or nature reacting to climate abuse—there’s no putting them back on the leash. The “devil’s feast” implies self-destruction: profiteering, environmental degradation, and worsening inequality that feed on themselves.

Bridge
The command “Better hold on tight!” acknowledges that those under this leadership must brace for impact—there’s no steering mechanism, only reactive damage control. “Dog gone! Out of sight!” suggests Trump has lost control over the very forces he claims to master, including inflation, climate instability, and civil unrest. The refrain “Say goodnight” is a warning: if this chaos isn’t restrained, it may be lights out for democracy, stability, or even habitable climate systems.

Overall Metaphor
Just as a distracted dog-walker fails to prevent chaos in the park, the Trump administration is portrayed as oblivious or complicit in letting dangerous forces run wild. Economic greed, deregulation, and climate denial are off the leash, leaving Americans to suffer the consequences. The song doesn’t just describe chaos—it warns us: we’ve seen it coming, and still failed to hold on.

A SCIENCE NOTE

The song “Chaos on a Leash” illustrates chaos theory in both its literal narrative and its metaphorical implications. Chaos theory deals with how small changes in initial conditions can lead to vastly different and unpredictable outcomes—often referred to as the butterfly effect.

Application of Chaos Theory to the Song:

  • The Setup (Initial Conditions):
    A peaceful walk with a dog represents a stable, orderly system. Everything seems under control.

  • The Trigger (Small Perturbation):
    The sudden appearance of a squirrel is a minor event—but it completely destabilizes the situation. This is the “butterfly flapping its wings” moment. The squirrel is a catalyst that causes a rapid shift in behavior.

  • The Outcome (Nonlinear Escalation):
    The dog bolts. Chaos ensues. A small input (a squirrel) leads to a disproportionate and uncontrollable output (the unleashed frenzy). This echoes the nonlinear, unpredictable behavior central to chaos theory.

  • Irreversibility & Sensitivity:
    Once the dog is gone, the system can’t be reset easily—mirroring how chaotic systems are often irreversible and highly sensitive to initial conditions. The line “Dog gone! (out of sight) / Say goodnight” reinforces the idea of control being permanently lost.

Metaphorical Layer:

As a metaphor for Trump’s economic and climate policies, the dog represents a nation or planet on a leash—barely restrained. The squirrel is a policy trigger or deregulation move that seems small or innocuous but unleashes irreversible consequences. The chaos that follows reflects the sensitive dependence on initial conditions—a hallmark of chaotic systems like ecosystems, climate, and global markets.

From the album “Tumultuous Times“

The Human Induced Climate Change Experiment

bookmark_borderFunny Bone

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Funny-Bone-1.mp3
Funny-Bone-1.mp4
Funny-Bone-2.mp3
Funny-Bone-2.mp4
Funny-Bone-intro.mp3

[Verse 1]
Of all the nerve!
I have a bone to pick with you
Throwin’ a verbal swerve
When the verbiage just ain’t true

[Chorus]
Hitting the funny bone
(Listening to the moan)
It’s not that funny at all
(Doesn’t represent the call)

[Bridge]
Honey, if you think pain is funny
(You better think again)
Reigning on days that were sunny
(Just look where you’ve been)

[Verse 2]
A strange, tingling shock
Shook my foundation’s rock
The “last meal” to serve
Of all the nerve (ulnar nerve)

[Chorus]
Hitting the funny bone
(Listening to the moan)
It’s not that funny at all
(Doesn’t represent the call)

[Bridge]
Honey, if you think pain is funny
(You better think again)
Reigning on days that were sunny
(Just look where you’ve been)

[Chorus]
Hitting the funny bone
(Listening to the moan)
It’s not that funny at all
(Doesn’t represent the call)

[Outro]
Honey, if you think pain is funny
(You better put away your money)

A SCIENCE NOTE: The “Funny Bone” Isn’t a Bone at All

Despite its name, the “funny bone” isn’t a bone — it’s actually a nerve. Specifically, it’s the ulnar nerve, one of the three main nerves in your arm. This nerve originates in your spinal cord, travels down through your neck and shoulder, and continues all the way through the inner part of your elbow, into your forearm, and finally to your hand, where it connects to your pinky and ring fingers (the fourth and fifth digits).

The term “funny bone” typically refers to the spot at the back of your elbow where the ulnar nerve passes very close to the surface of the skin, just beside the humerus bone. When you bump this area, the nerve gets compressed against the bone, producing a strange, tingling or electric-shock-like sensation — often accompanied by temporary numbness in your fingers. That odd feeling is what gives the funny bone its misleading name.

The ulnar nerve plays a crucial role in your ability to feel and control movement in part of your hand. It carries sensory information from your pinky and the outer half of your ring finger back to your brain and helps control some of the fine motor movements in your hand.

So, the next time you hit your “funny bone,” you’re actually irritating a major nerve — and there’s nothing funny about that!

From the album “Tumultuous Times“

bookmark_borderWet Your Finger

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Wet-Your-Finger-0.mp3
Wet-Your-Finger-0.mp4
Wet-Your-Finger-1.mp3
Wet-Your-Finger-1.mp4
Wet-Your-Finger-intro.mp3

[Verse 1]
Wet your finger
Stick it in the air
Let it linger
Find direction there

[Bridge]
Then you’ll know

[Chorus]
Which way the wind blows
(How it goes)
If it grows dark
(Looking stark)
Or if the skies clear
(And the light shines here)

[Bridge]
May the rays (fill your days)
Along our way we know…
(Which way the winds blow)

[Verse 2]
See our flag waver blowing
Knowing which way he blows
Listening carefully
We’ll see what floats free

[Bridge]
Then we’ll know

[Chorus]
Which way the wind blows
(How it goes)
If it grows dark
(Looking stark)
Or if the skies clear
(And the light shines here)

[Bridge]
May the rays (fill your days)
Along our way we know…
(Which way the winds blow)
Happiness flows
(Any way the wind blows)

[Outro]
(Yes!) Happiness flows
(Any way the wind blows)
Here goes….

A SCIENCE NOTE

“Wet Your Finger” is a metaphorical song that urges listeners to tune into the subtle, everyday signs around them—just like the old trick of wetting your finger to sense the wind direction. In a world overwhelmed by noise, data, and denial, the song calls for a return to common sense and observation. It’s about recognizing the clear and present signals nature is giving us—signals of imbalance, disruption, and change. By using a simple gesture as a symbol, the song draws attention to the fact that the evidence of the climate crisis is already all around us: in the hotter days, stronger storms, shifting seasons, and rising seas. All we have to do is look, feel, and acknowledge what the Earth is plainly telling us.

About Verse 2

The second verse features a layered play on words, blending literal and figurative meanings. The “flag waver” refers not only to someone holding an actual flag—used to detect wind direction—but also to political figures or pundits who shift their positions based on prevailing opinion. The line “knowing which way he blows” is a nod to opportunism, echoing how some politicians or influencers adjust their stance with the political wind, especially on climate issues. The verse critiques this performative behavior while suggesting that if we “listen carefully,” we can discern what’s genuine and what simply “floats free”—a metaphor for misinformation or empty rhetoric drifting untethered from truth and whether you are truly free when you deny science.

Here are several basic, low-tech ways to determine wind direction:

  1. Wetting your finger: As you mentioned, wet your finger and hold it up in the air. The side that feels cooler is the side facing into the wind, as evaporation causes cooling.

  2. Watching smoke or steam: Observe the direction that smoke from a fire or steam from a kettle drifts. It will follow the wind.

  3. Observing flags or leaves: Look at the way flags, leaves, or grass are blowing. The direction they are being pushed toward is the direction the wind is blowing to; the wind comes from the opposite direction.

  4. Using a blade of grass: Hold a thin blade of grass lightly between your fingers and let it go—it will blow away with the wind. The direction it travels is the wind’s direction.

  5. Floating dust or dandelion seeds: Toss some dust, grass clippings, or dandelion seeds into the air. Watch which way they drift.

  6. Licking the back of your hand: Similar to the finger trick, but the back of your hand is more sensitive to temperature changes.

  7. Listening carefully: Sometimes, especially in wooded or grassy areas, you can hear the wind before you feel it and use sound to estimate direction.

Trumpenomics: The Decline of the US

From the album “Tumultuous Times“

The Human Induced Climate Change Experiment

bookmark_borderWalking on the Sun

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Walking-on-the-Sun-0.mp3
Walking-on-the-Sun-0.mp4
Walking-on-the-Sun-I.mp3
Walking-on-the-Sun-I.mp4
Walking-on-the-Sun-II-R.mp3
Walking-on-the-Sun-II-R.mp4
Walking-on-the-Sun-Reggae.mp3
Walking-on-the-Sun-Reggae.mp4
Walking-on-the-Sun-intro.mp3

[Verse 1]
Magnetic chaos
Blowing in my face
Hitting all of us
In the human race

[Verse 2]
Solar winds
Blowing me down
Greed rescinds
Fall of the crown

[Chorus]
Walking on the sun
While the world comes undone
Walking on the sun
Ain’t that much fun

[Verse 3]
Blinding light
Can’t take flight
No respite in sight
No delight

[Verse 4]
Gravity crush
(Shh, just hush)
Tread lightly on plasma
(Oh, mama)

[Chorus]
Walking on the sun
(While the world comes undone)
Walking on the sun
(The shape of things to come)

[Bridge]
It’s plain to see…
Immediate danger of raw heat and energy
(No, no stranger to human induced tragedy)
A slow motion fate
(At a fast approaching rate)
Question our state?
(Just look out the window to know)

[Chorus]
Walking on the sun
(While the world comes undone)
Walking on the sun
(The shape of things to come)

[Outro]
Walking on the sun
(The shape of things to come)

A SCIENCE NOTE

If you could somehow walk on the Sun, the experience would be so extreme that it defies normal physical intuition—but let’s break it down as a thought experiment, grounded in physics:

First, the Impossible Assumptions:

To walk on the Sun, you’d have to:

  1. Survive extreme temperatures: ~5,500°C (9,932°F) at the surface (photosphere).

  2. Resist crushing gravity: 28× Earth’s gravity.

  3. Withstand intense radiation: including X-rays, gamma rays, and UV.

  4. Have something solid to walk on: The Sun has no solid surface—it’s a plasma ball.

So we’re assuming you’re in an indestructible, gravity-defying suit and there’s something walkable. Now, here’s what it would be like under those imaginary conditions:

The Physical Environment:

1. Walking on Plasma

  • The Sun’s “surface” (photosphere) isn’t solid. It’s a sea of hot hydrogen and helium plasma—a roiling, turbulent fluid-like state of matter.

  • You’d appear to walk on boiling, bubbling gases with convection cells the size of Texas (called granules) rising and falling beneath you.

2. Blinding Light

  • It would be brighter than anything on Earth—~400,000 times more intense than full daylight.

  • Even with filters, visibility would be pure white or blinding gold.

3. Gravity Crush

  • At 28× Earth’s gravity, you’d weigh thousands of pounds unless shielded.

  • Your steps would be heavy, and every movement would feel like lifting a car.

4. Radiation Storm

  • The electromagnetic radiation would be lethal: ultraviolet, X-rays, gamma rays, and particle radiation would cook anything unprotected.

  • Your suit would need to be perfectly reflective and heavily shielded—like a bunker around your body.

Bonus Weirdness:

– Solar “Wind”

  • Streams of high-energy particles constantly blast outward.

  • You’d feel no wind (no air), but particles would erode your suit like sandblasting.

– Magnetic Chaos

  • Magnetic fields twist and snap like rubber bands on enormous scales, releasing solar flares and coronal mass ejections.

  • Standing near one would be like sitting next to a thermonuclear bomb—on repeat.

Summary:

Walking on the Sun would be like standing on an unimaginably hot, blindingly bright, stormy ocean of plasma under crushing gravity and deadly radiation—utterly alien and chaotic.

Comparing walking on the Sun to the effects of climate change on Earth is like comparing instant vaporization to a slow-boil death—but there’s a meaningful metaphor in it.

Walking on the Sun = Instant Death by Heat, Radiation, and Chaos

  • Temperature: 5,500°C — far beyond the point where matter remains solid.

  • Radiation: Overwhelming levels that destroy cells, DNA, electronics.

  • Gravity and Magnetic Turbulence: Extreme physical forces.

You’d die instantly if not protected by theoretical technology. It’s the ultimate example of a hostile environment due to extreme energy concentration.

Climate Change = Earth Gradually Becoming More Sun-like (in Relative Terms)

Of course, Earth isn’t becoming the Sun—but the same forces that make the Sun deadly are increasing on Earth in diluted but still devastating ways:

1. Rising Temperatures

  • Earth is heating rapidly. Even +2–3°C of average warming means much higher spikes locally (e.g., 50°C+ heatwaves).

  • Some regions may face wet-bulb temperatures (heat + humidity) that humans cannot survive even in the shade.

2. Radiation & Feedback

  • Melting ice reduces Earth’s albedo, increasing solar absorption (like turning Earth more sun-like).

  • Increased water vapor traps heat (greenhouse effect), similar to how the Sun traps and radiates energy.

 3. Energy-Driven Chaos

  • As the Sun’s plasma churns, so too do Earth’s weather systems:

    • Stronger hurricanes

    • Unstable jet streams

    • Flash floods and mega-droughts

    • Fires that create their own weather

The more heat in the system, the more chaos—just like in the Sun’s turbulent layers.

The Metaphor:

Walking on the Sun represents the extreme, immediate danger of raw heat and energy. Climate change is bringing Earth closer to a slow-motion version of that fate: not by fire in an instant, but by cascading heat, unlivable zones, ecosystem collapse, and eventually the breakdown of life-supporting systems.

From the album “To Too Hot“

Also found on the album “Reggae Spray“

The Human Induced Climate Change Experiment

bookmark_borderTerminal Synergy

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Terminal-Synergy-I.mp3 Terminal-Synergy-I.mp4 Terminal-Synergy-II.mp3 Terminal-Synergy-II.mp4 Terminal-Synergy-intro.mp3

[Reprise]
Takes it higher
(Makes it dire)
Our desire
(World on fire)

[Bridge]
Terminal synergy
(Thermal energy)
[Instrumental, Drum Solo, Bass]
[Instrumental, Saxophone Solo, Bass]

[Instrumental, Guitar, Organ, Synth, Bass, Drum Fills]

[Reprise]
Takes us higher
(Times expire)
Our desire
(World on fire)

[Bridge]
Terminal synergy
(Thermal energy)
[Instrumental, Drum Solo, Bass]
[Instrumental, Saxophone Solo, Bass]

[Instrumental, Guitar, Organ, Synth, Bass, Drum Fills]

[Reprise]
Takes it higher
(Makes it dire)
Our desire
(World on fire)
Takes us higher
(Times expire)
Our desire
(World on fire)

[Bridge]
Terminal synergy
(Thermal energy)
[Instrumental, Whistle Solo, Bass]

[Outro]
Thermal energy
(Terminal synergy)

A SCIENCE NOTE
The Earth is a climate system. Global warming is driven by an increase in thermal energy within the Earth’s climate system. This system is made up of interconnected subsystems, including the atmosphere, oceans, and land. Chaos theory highlights the complexity and nonlinearity of these dynamic systems, and this complexity is particularly evident in the intricate interactions between soil, the atmosphere, and the oceans.

Atmospheric circulation together with ocean circulation is how thermal energy is redistributed throughout the world. Chaos theory offers insights into the complex, nonlinear dynamics of climate systems role in the redistribution of thermal energy. The Earth’s climate is a highly complex and dynamic system, influenced by various factors such as ocean currents, atmospheric circulation, and feedback loops.

General Circulation Models for the earth climate are nonlinear and teleconnected. That means a small change in temperature or pressure or humidity in one small area on the globe can cause _large_ changes in conditions _anywhere_ on the globe. This is sometimes called the Butterfly effect. The complexity of these models can lead to chaotic behavior. Climate science must grapple with these models and extract results in spite of the mathematical difficulties, and there have been remarkable successes in some cases and sad failures in others. Nevertheless we must proceed.

Our latest climate model — now incorporating complex social-ecological feedback loops within a dynamic, non-linear system — projects that global temperatures could rise by up to 9°C (16.2°F) within this century. This far exceeds earlier estimates, which predicted a 4°C rise over the next thousand years, and signals a dramatic acceleration of warming.

At this level of heating, large regions of the planet will become uninhabitable due to extreme heat, sea level rise, agricultural collapse, and mass migration. Critically, parts of the U.S. are already experiencing wet-bulb temperatures approaching or exceeding 31°C (87.8°F)— a physiological limit beyond which the human body can no longer regulate its internal temperature, even in the shade with ample water.

This is no longer a distant threat. The climate system is entering a phase of compound risk and cascading collapse — and we are already seeing the early signs.Immediate, radical mitigation and adaptation efforts are now essential to preserve habitable zones, food systems, and public health.

From the album “To Too Hot“

The Human Induced Climate Change Experiment

bookmark_borderSurface

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Surface-I.mp3
Surface-I.mp4
Surface-Unplugged-Underground-XIX.mp3
SSurface-Unplugged-Underground-XIX.mp4
Surface-intro.mp3

[Verse 1]
Are you sure you can measure
Her surface temperature
If she’s hot but dry, maybe won’t die
If there’s moisture, your wet-bulb might fry

[Refrain]
She runs hot (She runs cold)
Better not (call her old)
Once you understand…
The land on which you stand —

[Bridge]
Her face is your surface
(Be careful when you dig deep)
[Instrumental, Guitar Solo]
Collective souls weep
(Be careful when you dig deep)

[Verse 2]
Are you sure you can measure
Her surface temperature
No longer bold (out in the cold)
She’s taken in, all you’ve given

[Bridge]
Is karma…
Gettin’ even
Mama,
Starin’ the believin’

[Refrain]
She runs hot (She runs cold)
Better not (call her old)
Once you understand…
The land on which you stand —

[Outro]
Her face is your surface
Suffice to say, under the surface
Collective souls weep
(Be careful where you dig deep)

A SCIENCE NOTE

The song “Surface” uses the metaphor of a “hot woman” to personify Mother Earth in a complex, intimate, and deteriorating relationship with humanity during the climate crisis. It’s both sensual and sorrowful—mixing desire with destruction, beauty with backlash, and science with soul.

Metaphor Breakdown: Earth as a “Hot Woman”

  • “Are you sure you can measure / Her surface temperature”: This mirrors the way men often attempt to “define” or control women—and how humans try to quantify and dominate nature through science, while failing to respect her power or complexity.

  • “If she’s hot but dry, maybe won’t die / If there’s moisture, your wet-bulb might fry”: On the surface it plays with flirtation, but it’s a clear reference to deadly heatwaves and the wet-bulb temperature threshold, where humidity and heat combine to make life unsustainable. The metaphor becomes lethal: she’s not just hot—she can kill.

Environmental Themes:

  • “Her face is your surface”: A direct link between Earth’s surface and human survival. She is not separate from man—she is his foundation, his literal ground to stand on.

  • “Be careful where you dig deep”: This works on several levels—psychologically, emotionally, and ecologically. It warns against both exploiting her natural resources and underestimating the consequences of extraction and interference.

  • “Collective souls weep”: A cry of planetary grief—the suffering is shared across humanity and ecosystems, a lament for what’s being lost beneath the surface.

Karma and Consequences:

  • “Is karma / Gettin’ even / Mama / Starin’ the believin’”: Earth is not passive. She remembers, and now she responds. There’s a spiritual and almost mythic reckoning—“Mother Earth” isn’t just a nurturing figure; she’s a force of justice.

  • “Once you understand the land on which you stand”: This line is key. Until humans truly recognize their dependence, their inseparability from the planet, they remain ignorant lovers—taking without giving.

 Summary:

“Surface” is a relationship song between man and a sentient, scorched Earth—a “hot woman” who’s had enough. She’s alluring, deadly, and misunderstood. The metaphor flips: man isn’t seducing her—he’s destroying her, even as he depends on her.

The message is clear:
You may call her hot, but you can’t handle her heat.
And if you don’t start listening—you’ll lose her.

From the album “To Too Hot“

The Human Induced Climate Change Experiment

bookmark_borderSteam

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Steam-I.mp3
Steam-I.mp4
Steam-II.mp3
Steam-II.mp4
Steam-intro.mp3

[Verse 1]
If I’m seeming sad…
(No!) I’m steaming mad
You say sensible heat
(No!) This heat is beat

[Chorus]
I mean the steam
Is a gas
Shattered the dream
Pass to past

[Verse 2]
Vaporization
Causes hesitation
In my thought process

[Verse 3]
Current situation
Clausius-Clapeyron relation
Saturation… more or less

[Chorus]
I mean the steam
Is a gas
Shattered the dream
Pass to past

[Bridge]
Be forewarned (of the storm)
Positive feedback (attack)
Exponentially (inevitability)
Delivers (atmospheric rivers)
Hurricane (going insane)
Heatwaves (nothing saves)

[Chorus]
I mean the steam
Is a gas
Shattered the dream
Pass to past

[Outro]
Be forewarned (of the storm)
Positive feedback (attack)

A SCIENCE NOTE

A burn from steam is generally more severe than a burn from boiling water because of the additional energy stored in steam as latent heat—a concept rooted in thermodynamics and phase changes.

Here’s a breakdown of the physics:

1. Boiling Water: Sensible Heat

  • Boiling water at 100 °C (212 °F) contains sensible heat—the energy required to raise its temperature from room temperature to 100 °C.

  • When this hot water contacts skin, it transfers that thermal energy directly to the tissue, causing a burn.

2. Steam: Latent Heat of Vaporization

  • Steam is water in its gas phase, also at 100 °C, but it contains extra energy beyond just being hot.

  • This extra energy is called the latent heat of vaporization: the energy required to convert liquid water to steam at the same temperature.

    • For water, this is about 2260 kJ/kg, which is over five times the energy required to heat water from 0 °C to 100 °C.

  • When steam contacts your skin, it condenses back into liquid water—and in doing so, it releases all that latent heat into your skin.

3. Why It Hurts More

  • So steam at 100 °C can deliver both:

    • The thermal energy from its temperature (same as boiling water), plus

    • The latent heat from condensing back to water.

  • This double dose of heat energy causes deeper tissue damage in a shorter time.

This concept of latent heat—the same reason steam burns are worse—has direct parallels in climate change, especially regarding extreme weather and the water cycle.

How It Relates to Climate Change:

1. Warmer Atmosphere = More Water Vapor

  • A warmer atmosphere holds exponentially more water vapor (about 7% more per 1°C of warming) due to the Clausius-Clapeyron relation.

  • Water vapor is itself a greenhouse gas, reinforcing warming (positive feedback).

2. More Latent Heat in the System

  • As water evaporates from oceans, lakes, and soil, it stores latent heat—just like steam.

  • When this vapor condenses (in clouds, storms, hurricanes), it releases latent heat, supercharging storms by:

    • Intensifying updrafts in thunderstorms.

    • Powering hurricanes and cyclones.

    • Driving heavier rainfall and flash floods.

3. Steam Burn Analogy

  • Just like condensing steam transfers a massive amount of energy to your skin, condensing atmospheric moisture transfers massive energy to the atmosphere.

  • This leads to more violent weather, akin to the difference between being splashed by boiling water and burned by steam.

Real-World Impacts:

  • Hurricanes: Stronger and wetter due to latent heat release and increased water vapor.

  • Atmospheric Rivers: Carry more moisture, dumping extreme rainfall.

  • Heatwaves + Humidity: Higher latent heat content makes nights hotter and reduces cooling.

Summary:

Latent heat acts like hidden energy in the climate system—just as it makes steam burns worse, it makes storms and extreme weather more powerful in a warming world.

From the album “To Too Hot“

The Human Induced Climate Change Experiment

bookmark_borderInfinitely

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Infinitely-I.mp3
Infinitely-I.mp4
Infinitely-II.mp3
Infinitely-II.mp4
Infinitely-intro.mp3

[Intro]
Degrees
(Go on infinitely)
When one sees
(Mathematically)

[Verse 1]
A full circle
(Three hundred and sixty degrees)
If our will stands still
(Infinity’s reality frees)

[Chorus]
Degrees
(Go on infinitely)
When one sees
(Mathematically)

[Bridge]
Number upon number
(And on and on)
Smaller and smaller
(But never gone)
Goes on and on
(And on and on)

[Verse 2]
Between any two
(There’s quite a few)
It got to an amount
(I think I lost count)
Now it’s starting to dawn
(To infinity… and beyond!)

[Chorus]
Degrees
(Go on infinitely)
When one sees
(Mathematically)

[Bridge]
Number upon number
(And on and on)
Smaller and smaller
(But never gone)
Goes on and on
(And on and on)

[Outro]
Degrees
(Go on infinitely)
When one sees
(Mathematically)

A MATH AND SCIENCE NOTE

There are infinitely many degrees when you think about it mathematically!

In angles:

  • A full circle is 360 degrees.

  • But between any two degrees (like between 45° and 46°), you can have 45.1°, 45.01°, 45.001°, 45.0001°, and so on — forever.

  • Decimals can go on infinitely, meaning you can always divide degrees smaller and smaller without limit.

 So technically, even though a circle is “only” 360°, the number of possible degree measurements is infinite because you can have infinitely small subdivisions.

In temperature:

  • Same thing! You can have 20°C, 20.5°C, 20.05°C, 20.005°C… endlessly.

  • Temperatures can also be divided infinitely smaller.

From the album “Angle“

bookmark_borderTo What Degree?

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To-What-Degree-0.mp3
To-What-Degree-0.mp4
To-What-Degree-I.mp3
To-What-Degree-I.mp4
To-What-Degree-intro.mp3

[Intro]
To what degree…
[Instrumental, Guitar Solo]
(Guess we’ll see)

[Verse 1]
What degree of reaction
To reach sanctification
To what height…
In Fahrenheit?

[Bridge]
To what degree…
(Guess we’ll see)
Apparently (to what degree)

[Chorus]
Fulfill (part of a circle)
Position (as notes transition)
Reaction to change
(Seem strange?)

[Verse 2]
What degree of education
Feel our saturation
Tell us…
In Celsius!

[Bridge]
To what degree…
Apparently (the degree)
To which (I’m free)

[Chorus]
Fulfill (part of a circle)
Position (as notes transition)
Reaction to change
(Seem strange?)

[Outro]
Now you see…
(To what degree)

A MATH AND SCIENCE NOTE

A “degree” can mean different things depending on the subject! Here’s a clear breakdown:

Degrees for Angles:

  • 1 degree (°) = 1/360th of a full circle.

  • Used in geometry, trigonometry, navigation, engineering, etc.

  • Example: A right angle = 90 degrees.

Degrees for Temperature:

  • Measures how hot or cold something is.

  • Different temperature scales:

    • Celsius (°C): Water freezes at 0°C, boils at 100°C.

    • Fahrenheit (°F): Water freezes at 32°F, boils at 212°F.

    • Kelvin (K): Absolute temperature scale used in science — no “degree” symbol for Kelvin, just “K.”

Degree in Education:

  • A degree is also an award given by a school or university (like a bachelor’s degree, master’s degree, doctorate).

Degree in Music:

  • Refers to the position of a note in a scale.

  • Example: In C major, C is the 1st degree, D is the 2nd degree, E is the 3rd degree, etc.

Degree of Reaction/Change (in chemistry and physics):

  • Sometimes “degree” means the extent or intensity of a reaction, transformation, or phase change.

  • Example: Degree of dissociation in a chemical reaction.

 Quick summary:

Field What “degree” measures
Angles Part of a full circle
Temperature Level of heat/cold
Education Level of academic achievement
Music Position of a note in a scale
Chemistry/Physics Extent of a reaction or change

From the album “Angle“

The Human Induced Climate Change Experiment

bookmark_borderUntangle

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Untangle-I.mp3
Untangle-I.mp4
Untangle-Unplugged-Underground-XVIII.mp3
Untangle-Unplugged-Underground-XVIII.mp4
Untangle-intro.mp3

[Intro]
The human angle
(Ever harder to untangle)

[Bridge]
Must confess
(Quite a mess)

[Verse 1]
Our vectors
Getting all entwined
Lost hectors
Of forest that we mined

[Chorus]
The human angle
(Ever harder to untangle)
Standing on our shoelaces
(Falling on our faces)

[Bridge]
Untangle
(Our angle)
Must confess
(Quite a mess)

[Verse 2]
Our vectors
Getting all entwined
Lost hectors
Of forest that we mined

[Chorus]
Figuring our angle
(Ever harder to untangle)
Shoelaces tied together
(Tripping now to nether)

[Bridge]
Untangle
(Our angle)
Quite a mess
(Hard to digest)

[Chorus]
Figuring our angle
(Ever harder to untangle)
Weather together
(Whether to nether)

[Outro]
Couldn’t untangle
(Our warped angle)
Quite a mess
(Failed the test)

A MATH AND SCIENCE NOTE

A vector diagram of human-induced climate change would show:

  • Each major human activity as a vector (an arrow).

  • Each vector would have:

    • Magnitude = how strong the effect is (how much it drives climate change).

    • Direction = what type of effect it causes (warming, cooling, feedback loops, etc.).

Some of the main vectors would be:

Activity Vector Direction Vector Magnitude
Burning fossil fuels (coal, oil, gas) Strongly toward global warming Very large
Deforestation Toward warming (loss of carbon sinks) Large
Industrial agriculture Toward warming (methane, nitrous oxide) Medium-large
Aerosol pollution (tiny particles) Slightly toward cooling (reflect sunlight) Small-medium
Urbanization (heat islands) Toward local and global warming Medium
Climate feedback loops (like melting ice reducing reflectivity) Toward accelerated warming Growing rapidly

How the diagram would look:

  • A large cluster of vectors mostly pointing in the same general warming direction.

  • A few smaller vectors pointing opposite (cooling, like aerosols) — but not strong enough to cancel out the warming ones.

  • Some vectors bending and amplifying others, showing feedback loops (ex: hotter temperatures = more wildfires = more CO₂ released = even hotter temperatures).

Conceptually:

  • Human-induced climate change would look like an overwhelmingly strong push (vector sum) toward global warming.

  • The overall resultant vector would be:

    • Very long

    • Very sharply pointed toward higher temperatures, more extreme weather, rising seas, ecosystem collapse, etc.

In simple terms:
Imagine a bunch of arrows (vectors) — the biggest and most powerful ones (like fossil fuel burning) all point toward “Warming” with huge force. A few tiny arrows (like aerosol cooling) point the other way, but they’re way too small to stop the giant surge.

From the album “Angle“

The Human Induced Climate Change Experiment

bookmark_borderRaise the Specter

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Raise-the-Specter-0.mp3
Raise-the-Specter-0.mp4
Raise-the-Specter-I.mp3
Raise-the-Specter-I.mp4
Raise-the-Specter-intro.mp3

[Intro]
Raise the specter
(To our vector)
We’re the force
(Throwing us off course)

[Bridge]
(Oh, of course)

[Verse 1]
Very sharply pointed
(Higher and higher)
Showing our direction
(Aspire to dire)

[Chorus]
Raise the specter
(To our vector)
We’re the force
(Throwing us off course)

[Bridge]
Made us veer
(Time we steer)
Clearly (back to reality)

[Verse 2]
A large cluster of vectors
(Pointing the same way)
So much for the hecklers
(Wallow in dismay)

[Chorus]
Raise the specter
(To our vector)
We’re the force
(Throwing us off course)

[Bridge]
Made us veer
(Time we steer)
Clearly (back to reality)

[Chorus]
Raise the specter
(To our vector)
We’re the force
(Throwing us off course)

[Outro]
Steer us (nearly)
Clearly (to reality)

A MATH AND SCIENCE NOTE

What are vectors?

  • A vector is something that has both magnitude (size) and direction.

  • It’s like an arrow:

    • The length shows how strong it is.

    • The arrowhead shows where it’s going.

Examples of vectors:

  • Wind blowing at 10 mph east.

  • A car moving 60 mph northwest.

  • Force pushing an object 5 Newtons upward.

Not just size — also where it’s aimed.

What is the angle between two or more vectors called?

It’s simply called the angle between the vectors.

More formally:

  • It’s the smallest angle you would rotate one vector around to make it line up with the other.

  • It’s important because it shows how closely two directions or forces are aligned.

  • In physics and math, you often calculate it using the dot product formula:

cos⁡(θ)=A⃗⋅B⃗∣A⃗∣∣B⃗∣\cos(\theta) = \frac{\vec{A} \cdot \vec{B}}{|\vec{A}||\vec{B}|}

where:

  • θ\theta = the angle between the vectors

  • A⃗⋅B⃗\vec{A} \cdot \vec{B} = dot product (a way of multiplying two vectors)

  • ∣A⃗∣|\vec{A}| and ∣B⃗∣|\vec{B}| = magnitudes (lengths) of the vectors

Why is the angle between vectors important?

  • In physics, it helps understand how much one force affects another.

  • In engineering, it tells you how efficiently forces work together (or against each other).

  • In navigation, it shows how far off-course you are.

Simple picture:

  • Two arrows from the same point.

  • The angle between their directions = the “angle between vectors.”

A vector diagram of human-induced climate change would show:

  • Each major human activity as a vector (an arrow).

  • Each vector would have:

    • Magnitude = how strong the effect is (how much it drives climate change).

    • Direction = what type of effect it causes (warming, cooling, feedback loops, etc.).

Some of the main vectors would be:

Activity Vector Direction Vector Magnitude
Burning fossil fuels (coal, oil, gas) Strongly toward global warming Very large
Deforestation Toward warming (loss of carbon sinks) Large
Industrial agriculture Toward warming (methane, nitrous oxide) Medium-large
Aerosol pollution (tiny particles) Slightly toward cooling (reflect sunlight) Small-medium
Urbanization (heat islands) Toward local and global warming Medium
Climate feedback loops (like melting ice reducing reflectivity) Toward accelerated warming Growing rapidly

How the diagram would look:

  • A large cluster of vectors mostly pointing in the same general warming direction.

  • A few smaller vectors pointing opposite (cooling, like aerosols) — but not strong enough to cancel out the warming ones.

  • Some vectors bending and amplifying others, showing feedback loops (ex: hotter temperatures = more wildfires = more CO₂ released = even hotter temperatures).

Conceptually:

  • Human-induced climate change would look like an overwhelmingly strong push (vector sum) toward global warming.

  • The overall resultant vector would be:

    • Very long

    • Very sharply pointed toward higher temperatures, more extreme weather, rising seas, ecosystem collapse, etc.

In simple terms:
Imagine a bunch of arrows (vectors) — the biggest and most powerful ones (like fossil fuel burning) all point toward “Warming” with huge force. A few tiny arrows (like aerosol cooling) point the other way, but they’re way too small to stop the giant surge.

From the album “Angle“

The Human Induced Climate Change Experiment

bookmark_borderDihedral

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Dihedral-0.mp3
Dihedral-0.mp4
Dihedral-I.mp3
Dihedral-I.mp4
Dihedral-Reggae.mp3
Dihedral-Reggae.mp4
Dihedral-Unplugged-Underground-XVIII.mp3
Dihedral-Unplugged-Underground-XVIII.mp4
Dihedral-intro.mp3

[Intro]
Dihedral triangular
(Can your mind’s eye see…)
In 3D
[Bridge]
(da, dee, dee)
Up the bid
(Build a pyramid)

[Verse 1]
Will your base
Take a side
The human race
Shall decide

[Bridge]
Dihedral triangular
(Can your mind’s eye see…)
In 3D (da, dee, dee)

[Chorus]
Castles of your dreams
(Make things what they seem)
Turning dreams to scenes
(Sower of seeds and seams)

[Bridge]
Build a pyramid
(We did!)
(Pyramid)

[Verse 2]
All sides hold us together
Proud to report (group support)
Hope resides in whether
We resort (in our last hope)

[Bridge]
Dihedral triangular
(Can your mind’s eye see…)
In 3D (dee, dee)

[Chorus]
Castles of your dreams
(Make things what they seem)
Turning dreams to scenes
(Sower of seeds and seams)

[Outro]
Turning dreams to scenes
(Turning dreams to scenes seen)

A MATH AND SCIENCE NOTE

Pyramid (like a square-based pyramid):

  • Think of a 3D shape with a base (usually a square) and triangular sides that meet at a single top point (the apex).

  • The faces (the sides) are usually isosceles triangles.

  • Angles in a pyramid:

    • The base angles of the triangular sides are typically equal (like an isosceles triangle).

    • The angles between the base and sides (called dihedral angles) are important in 3D — they control how steep or flat the pyramid is.

    • The triangles themselves have angles depending on the slope of the pyramid.

So pyramids are made up of isosceles triangles, and their structure involves a mix of plane angles (in the triangles) and 3D angles (between faces).

From the album “Angle“

Also found on the album “Reggae Spray“

bookmark_borderAngle of Impact

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Angle-of-Impact-0.mp3
Angle-of-Impact-0.mp4
Angle-of-Impact-I.mp3
Angle-of-Impact-I.mp4
Angle-of-Impact-intro.mp3

[Intro]
It’s a fact
(The angle of impact)
The force
(Can change course)
Of your train of thought
(Reign wrought)
Brain rot

[Verse 1]
Coming straight on for you
(Steeper and deeper)
Not a lot you can do
(My angle’s askew)

[Chorus]
It’s a fact
(The angle of impact)
The force
(Will change the course)

[Bridge]
Of your train of thought
(Reign wrought)
Rain brought
(Destiny upon me)

[Verse 2]
Kinetic energy
(Mass and velocity)
Frequency
(Intensity)

[Chorus]
It’s a fact
(The angle of impact)
The force
(Will change the course)

[Bridge]
Of your train of thought
(Reign wrought)
Rain brought
(Reign wrought)
Brain rot
(Destiny down on me)

[Outro]
It’s a matter of fact
(The angle of impact)
The damaging force
(Changed our course)

A SCIENCE NOTE: The Reign of Violent Rain

Physics of the angle of impact from precipitation (like rain or hail):

  • Steeper angles (close to 90°, falling almost straight down):

    • Higher force per unit area because gravity acts almost directly downward.

    • Droplets or hailstones hit surfaces harder.

    • Leads to more damage, like erosion of soil, denting of cars, breaking leaves, and even bruising fruits and crops.

  • Shallow angles (smaller than 90°, more sideways rain):

    • Spread out over more area.

    • Less direct force per point — but wider impact.

    • Can cause sideways rain damage to walls, windows, and exposed structures that normally don’t get direct rainfall.

Force and damage from precipitation depends on:

  1. Mass of the droplet or hailstone (bigger = more force).

  2. Velocity (speed falling — increases with height and wind help).

  3. Angle of impact (straighter = harder hit; sideways = spread hit).

  4. Surface (hard vs soft material receiving the impact).

In physics terms, the momentum and kinetic energy of a raindrop or hailstone are key:

  • Kinetic Energy (KE) = ½ * mass * velocity²

  • The angle affects how much of that energy is transferred directly vs spread sideways.

Now: Does climate change play a role?

YES — and a big one. Climate change increases both intensity and frequency of extreme precipitation events:

  • Warmer air holds more water vapor (about 7% more per 1°C rise).

  • Stronger storms (like supercell thunderstorms, hurricanes) form more often.

  • More intense rainfall → faster, heavier, and larger raindrops and hailstones.

  • Higher wind speeds during storms → causes sharper, more damaging impact angles (not just vertical — but violent, sideways rain and hail).

Result:

  • More erosion (even from “regular” storms).

  • More flooding from heavy rainbursts.

  • More structural damage — roofs, windows, crops, soil, buildings.

  • More inland damage from hurricanes and tropical storms that carry powerful rain farther than they used to.

In short:

  • The physics of impact angles explains how rain and hail cause damage.

  • Climate change makes the rain and hail bigger, faster, and sometimes hit at worse angles, massively boosting damage.

The Reign of Violent Rain

From the album “Angle“

The Human Induced Climate Change Experiment