“That Car Is Junk!” — CEO Laughs at a Single Dad Janitor’s Mustang, Then He Starts a $2B Engine
The following night, the Apex Innovations building was blissfully silent.
The gala was over, the champagne flutes had been cleared away, and the executives had retreated to their mansions.
A relentless Seattle rain battered the glass exterior of the skyscraper, but down in Sub-Level 4, the only sound was the heavy, rhythmic breathing of Dean Masterson.
It was 11:00 PM.
He had exactly one hour before Vivian Carmichael’s deadline expired.
Dean stood in front of the 1969 Mustang.
He didn’t have on his blue janitorial jumpsuit tonight.
He wore a heavy leather mechanic’s jacket and a pair of grease-stained jeans.
He reached down to the grille of the Mustang, found the hidden release lever, and pulled.
The heavy steel hood popped with a loud, metallic *clack*.
Dean lifted it, securing the prop rod.
The harsh fluorescent lights of the garage poured into the engine bay, illuminating a sight that defied all logic and expectation.
There was no greasy, oil-leaking V8 iron block.
There were no carburetors, no spark plugs, no rubber fuel lines, and no exhaust manifolds.
Instead, nestled perfectly within the reinforced steel shock towers of the classic muscle car, sat a masterpiece of modern engineering.
It was a massive, sleek, geometric enclosure machined from aerospace-grade titanium and cobalt-blue anodized aluminum.
Thick, braided, high-voltage cables pulse-routed out of a central, glowing core.
It looked like the beating heart of a starship, cold, beautiful, and terrifyingly advanced.
This was the Masterson Core.
For the last three years, Dean had taken every cent of his meager janitorial salary that didn’t go to Chloe’s care, every discarded piece of scrap tech from the Apex dumpsters, and every ounce of his MIT genius, and poured it into this bay.
The Apex engineers on the 40th floor were failing because they were trying to force chemical solid-state batteries to operate within traditional thermal parameters.
They were trying to build a better battery.
Dean had realized years ago that the battery wasn’t the problem; the transfer of energy was.
He had designed a continuous-loop electromagnetic induction motor paired with a hyper-dense, zero-heat solid-state array.
The Mustang’s heavy, 1960s steel chassis wasn’t just a shell; it was a necessary grounding cage.
In the early days of testing, the immense torque and magnetic fields generated by the prototype would have ripped a modern, lightweight carbon-fiber chassis to shreds.
The Boss 429 was heavy, brutal, and made of Detroit steel.
It was the perfect Trojan horse.
Dean pulled a specialized diagnostic tablet from his duffel bag and plugged a heavily modified data cable into a hidden port near the firewall.
The tablet screen flared to life, cascading lines of complex telemetry and thermal data.
*Core Temp: 18°C.
Stable.*
*Magnetic Containment: 99.8%.
Stable.*
*Energy Density Output: 4.2 Megawatts.
Stable.*
Dean’s thumb hovered over the final command prompt.
His heart raced.
He had tested the components individually a thousand times.
He had run the simulations on stolen server time while the IT department was asleep.
But he had never fully initiated the closed-loop system.
He had never “turned the key.” If his math was off by even a fraction of a percent, the resulting thermal runaway would melt the car down to the concrete and likely take a good portion of Sub-Level 4 with it.
He thought of Vivian Carmichael’s sneering face.
*That car is junk.
It’s an eyesore.*
He thought of Chloe, sleeping at his sister’s apartment across town, clutching her inhaler.
“Not junk,” Dean whispered.
“A revolution.”
