A childhood dream. Six real superpowers. All of them from insects.

I WANTED TO BE A BUG-POWERED SUPERHERO

Here's What the Science Actually Says

A childhood dream. Six real superpowers. All of them from insects.

When I was a kid, I wanted to be a superhero. Not just any superhero — one whose powers came from bugs. I didn't know why exactly. Something about the idea that the smallest creatures on Earth were secretly doing the most extraordinary things. That power was hidden in plain sight, crawling across every footpath and hovering over every garden.

I grew up. Got a B.Tech in AI/ML. Started researching machine learning systems and writing about geopolitics. The childhood dream faded into the background.

Then one night, deep in a Wikipedia rabbit hole, I found resilin.

Resilin is a protein found in insects. It has 97% elastic efficiency — meaning it loses only 3% of stored energy as heat. It powers the flea's jump: a tiny creature launching itself 38 times its own body length. And I thought — wait. I researched this for the mech article. The biomechanics of jumping. The energy storage problem. And suddenly the childhood dream and the engineering research were the same thing.

So I went back. I researched every bug power I could find. Not fictional powers. Real ones, documented in peer-reviewed papers. And what I found was this: the bug-powered superhero is scientifically defensible. Every single power exists. In real insects. Right now.

Here is the complete power set.

 

 Power One  —  Dung Beetle — Impossible Strength

1,141 Times Body Weight

The Onthophagus taurus — the horned dung beetle — is the strongest animal on Earth relative to its size. Scientists at Queen Mary University of London measured it precisely: the strongest individual could pull 1,141 times its own body weight. For a 70kg human, that is the equivalent of lifting 80 tonnes — six fully loaded double-decker buses.

The secret is not raw muscle. It is architecture. Insects wear their skeleton on the outside. That exoskeleton supports the body's weight entirely, leaving the muscles free to do nothing but generate force. In vertebrates like us, a significant portion of muscle effort goes simply toward holding ourselves upright. Insects have solved this problem at the structural level.

Your superhero's suit is not armour. It is the exoskeleton. The strength does not come from inside — it comes from the structure that surrounds you. That one design decision gives you the lifting capacity of the world's strongest animal.

"The strongest dung beetle can pull 1,141 times its own body weight. A human equivalent would lift six double-decker buses."

Comparison	Strength (relative to body weight)
Dung beetle (Onthophagus taurus)	1,141× body weight
Rhinoceros beetle	850× body weight
Leafcutter ant	50× body weight
Human (world record)	~3× body weight
African elephant	~0.1× body weight

Relative strength across species — insects dominate completely

 

  Power Two  —  Resilin — The Perfect Spring

97% Elastic Efficiency, Infinite Repetitions

Resilin is the most efficient elastic material on Earth. It is a protein found in insects — in the wing hinges of locusts, the jump mechanism of fleas, the sound-producing organs of cicadas. When compressed and released, it returns 97% of the stored energy. Only 3% is lost as heat. The best synthetic rubber we manufacture loses significantly more.

The flea uses resilin to jump 38 times its body length. But the real superpower is not the jump itself — it is the repetition. Resilin must survive the lifetime of an adult insect: hundreds of millions of compression and release cycles without degradation. A material that performs at peak efficiency not just once, but endlessly.

Research has shown that resilin does not work alone. It forms a composite with stiff chitin cuticle — the chitin stores the energy, the resilin prevents the chitin from fracturing under repeated stress. Remove the resilin from locusts and their legs break. The resilin is not the spring — it is the spring's immune system.

Your superhero jumps with explosive force. But more importantly, they land and jump again, and again, and again, without joint damage. The Aegis Prime — my fictional mech — had a 'stratospheric jump capability' powered by thrusters. That was wrong. It should have been powered by this.

"Resilin loses only 3% of stored energy per cycle and survives hundreds of millions of compressions without failure. Nature's perfect spring."

 

  Power Three  —  Mantis Shrimp — The Double Strike

10,000G Acceleration. Two Impacts Per Punch.

The peacock mantis shrimp is six inches long and lives in the Pacific and Indian Oceans. It shatters aquarium glass. Its strike has been compared to a .22 calibre bullet — not in speed, but in acceleration. Peak acceleration of 6,300 to over 10,000 times the force of gravity, reaching 23 metres per second in water.

The force is generated not by fast muscles but by a latch mechanism. Muscles contract slowly, storing energy in a saddle-shaped spring of chitin. A microscopic latch holds it. When the latch releases, the stored energy discharges in less than 800 microseconds — faster than the muscles could ever contract directly.

But here is the detail that makes this a superhero power: every strike delivers two impacts. The first is the physical blow. The second is cavitation — the club moves so fast through water that it vaporises the liquid behind it, creating bubbles. Those bubbles collapse with explosive force, generating a second shockwave 390 to 480 microseconds after the first. The mantis shrimp can miss its target and still deliver a lethal blow from the collapsing cavitation bubble alone.

One punch. Two impacts. If you miss, you still hit.

"The mantis shrimp strikes twice per punch. The first from contact. The second from cavitation bubbles collapsing with explosive force even if the first blow misses."

Strike Metric	Value
Peak acceleration	6,300 – 10,000× gravity
Strike velocity (in water)	Up to 23 m/s (51 mph)
Peak impact force	~1,500 Newtons
Force relative to body weight	Over 2,500×
Strikes per attack	2 (impact + cavitation collapse)
Time between impacts	390 – 480 microseconds

Mantis shrimp strike mechanics — measured at 40,000 frames per second

 

  Power Four  —  Dragonfly — Predictive Targeting

97% Hunt Success Rate. It Doesn't Chase — It Predicts.

The dragonfly has the highest documented hunting success rate of any animal on Earth. Up to 97% of hunts end in a catch. For comparison: lions succeed 25% of the time. Peregrine falcons — the fastest birds alive — succeed about 47% of the time. African wild dogs hunting in coordinated packs succeed 85% of the time.

The dragonfly is not faster than its prey. It is smarter. Its brain does not track where the prey is — it calculates where the prey will be. Specialised neurons called Target-Selective Descending Neurons process visual information and send signals directly to flight muscles, computing an interception course in real time. The dragonfly does not react. It predicts.

This predictive targeting system works through compound eyes that provide nearly 360-degree vision and exceptional motion detection. But the real advantage is neural: the dragonfly's visual processing is wired directly to its motor control with minimal intermediary steps. The lag between seeing and responding is measured in milliseconds.

A superhero with dragonfly vision does not dodge attacks. They are already where the attack is not going to land.

"The dragonfly does not chase prey. It calculates a future collision course. 97% of hunts succeed. Lions manage 25%."

 

  Power Five  —  Namib Beetle — Atmospheric Water Harvesting

Collecting Water From Air Itself

The Namib Desert beetle lives in one of the driest environments on Earth. It has no access to rivers, lakes, or rainfall. It drinks fog.

The beetle's back is covered in a precise pattern of alternating hydrophilic bumps and hydrophobic valleys. When fog rolls in from the Atlantic coast, droplets condense on the hydrophilic bumps. When large enough, they roll down the hydrophobic surface directly toward the beetle's mouth. No energy required. No pumping mechanism. Pure surface physics.

This system is so effective that researchers are now using it to design atmospheric water harvesting surfaces for drought-affected regions. The beetle collects meaningful quantities of water from air that contains almost none.

Your superhero never dehydrates. In desert, in drought, in space — anywhere there are trace atmospheric molecules, the suit harvests them. It is not a dramatic power. But combined with everything else, it means the superhero is functionally self-sustaining in any environment.

"The Namib beetle drinks fog. Its back collects water from air using only surface physics — no energy, no pumping. It has inspired real atmospheric water harvesting technology."

 

  Power Six  —  Bee & Ant — Distributed Intelligence

The Brain That Thinks in Networks

This is where the superhero concept reveals its most interesting problem — and its most interesting solution.

No single insect has a particularly powerful brain by conventional standards. A honeybee has approximately 200,000 neurons. A human has 86 billion. And yet the honeybee can do basic arithmetic, understand the concept of zero, recognise individual human faces, navigate kilometres from the hive, and communicate the precise location of a food source through a symbolic dance language.

The answer is efficiency and specialisation. Insect intelligence is not about raw processing power — it is about wiring. The honeybee's 200,000 neurons are arranged with extraordinary precision for exactly the tasks the bee needs to perform. There is almost no waste. No neurons doing nothing.

But the deeper intelligence is collective. Bee colonies and ant colonies solve problems that no individual could solve. They optimise foraging routes, regulate temperature, manage disease, make democratic decisions about nest sites, and construct architectural marvels. The intelligence is not in any individual — it is in the network. Remove any bee from the colony and the colony still functions. Damage any part of the network and it routes around the damage.

Your superhero's power is not a smarter individual brain. It is networked cognition — the ability to distribute thinking across allies, process information collectively, and make decisions that no single mind could reach alone. In isolation, a good fighter. In a network, something else entirely.

"Insect intelligence is not about size — it is about wiring and networks. A colony solves problems no individual could. The superpower is distributed cognition."

Intelligence Type	Insect	Key Ability
Symbolic communication	Honey bee	Waggle dance conveys precise distance & direction
Collective problem-solving	Ant colony	Optimises routes, constructs architecture, democratic decisions
Individual learning	Paper wasp	Facial recognition, abstract concept learning
Predictive targeting	Dragonfly	Computes future collision course, 97% success
Memory & adaptation	Cockroach	Remembers negative experiences, adapts rapidly

Different forms of insect intelligence — each specialised, all extraordinary

 

The Complete ARTHROPOD Power Set

The childhood dream turns out to be scientifically defensible. Every power is real. Every number is from a peer-reviewed paper. The bug-powered superhero exists — we just haven't built the suit yet.

 

Power	Source	The Science	Status
Strength — 1,141× body weight	Dung beetle	Exoskeleton frees all muscles for force generation	Real — measured
Jump — 97% efficiency, infinite reps	Resilin protein	Most elastic material on Earth, fatigue-resistant	Real — synthesised in lab
Strike — double impact per punch	Mantis shrimp	Cavitation bubbles collapse after every blow	Real — filmed at 40,000fps
Targeting — 97% accuracy	Dragonfly	Predictive neural targeting, not reactive	Real — highest of any predator
Survival — harvest water from air	Namib beetle	Hydrophilic/hydrophobic surface physics	Real — inspiring real tech
Cognition — distributed intelligence	Bee/ant colony	Network thinking, democratic decisions	Real — colony intelligence

The ARTHROPOD power set — six real superpowers, all from insects

 

The Dream Was Right

I was seven years old when I decided bugs were secretly extraordinary. I spent the next sixteen years studying AI, machine learning, neural networks, and computer vision. I built a traffic detection system. I researched whether mechs were physically possible. I fell down Wikipedia rabbit holes at 4am about dung beetles and resilin and wootz steel and the Bodélé Depression.

I thought these were different things. The childhood dream and the adult research. The superhero fantasy and the engineering analysis.

They were the same thing. The curiosity that made me want to be a bug-powered superhero is exactly the curiosity that made me research resilin's elastic efficiency and the mantis shrimp's double-strike mechanism. I was always trying to find the superpower hidden inside the ordinary thing.

The bugs were right. The power was always there. We just had to look closely enough to see it.

And now I know: the superhero I wanted to be is not fictional. It is an engineering problem. The materials exist. The mechanisms are understood. The blueprints are written in every insect alive.

We just need a hundred years to build the suit.

 

"The bug-powered superhero is not fictional. It is an engineering problem. The blueprints are written in every insect alive."

 

— END —

Mystic Quill  |  Research & Writing by Selva Ganesh K  |  2026

mysticquill.blogspot.com