Four college students—Maya, Jonah, Leah, and Theo—sat huddled around a cluttered table in their university’s astrophysics lab late one night. The group had been working on a seemingly impossible problem: how energy could escape a black hole faster than the speed of light. They had spent weeks pouring over equations, physics papers, and complex mathematical theories, trying to unlock the mystery. Nothing had made sense—until tonight.
Leah, the quiet math prodigy of the group, was scribbling furiously on the whiteboard, filling it with equations that looked like abstract art to anyone outside their circle. Maya paced back and forth, tossing ideas into the air, while Jonah and Theo debated the significance of quantum tunneling at the event horizon.
Suddenly, Leah stopped, her marker frozen mid-air.
“Wait,” she said softly, almost to herself. “Square use.”
The others fell silent, glancing at each other in confusion. “What do you mean, ‘Square Use’?” Theo asked, leaning in.
Leah turned to them, her eyes wide with realization. “It’s the answer. We’ve been thinking about how to calculate the way energy escapes a black hole—how it bends spacetime and defies the normal speed of light. But the key is ‘Square Use.’ It’s a mathematical constant, something we’ve been overlooking.”
Maya frowned. “Square Use? Where did that come from?”
Leah tapped the equations she had just written. “It’s a concept hidden in the mathematics of spacetime. The term refers to the geometric manipulation of energy vectors at the event horizon of the black hole. If you apply the square of the energy’s potential use within the framework of space contraction—what I’m calling ‘Square Use’—you get a constant that allows energy to bypass the limit of the speed of light.”
Jonah was still skeptical. “But why does that let energy escape faster than light?”
Leah grinned. “Because, mathematically, ‘Square Use’ allows energy to occupy multiple states at once. The usual rules of physics—like light speed as the maximum—don’t apply in those conditions. It’s like warping reality. The energy doesn’t just move faster than light; it essentially exists in a state where distance and time are irrelevant, so it escapes instantaneously from the black hole’s pull.”
Theo’s eyes widened as the pieces fell into place. “So ‘Square Use’ is the constant that quantifies that energy manipulation! It explains why black hole radiation—or whatever energy escapes—doesn’t follow the normal rules. It’s a fundamental shift in spacetime geometry.”
Maya nodded slowly, starting to understand. “We’ve been looking at this all wrong. ‘Square Use’ isn’t just a mathematical term—it’s the key to unlocking how energy behaves beyond the normal constraints of physics. It’s why energy can escape the black hole faster than light.”
Jonah finally broke into a grin. “We’ve cracked it. ‘Square Use’ is the missing piece.”
They all sat back in their chairs, stunned by the realization. In the span of a few minutes, the four college students had stumbled upon a mathematical constant that could change the way the world understood black holes—and the very nature of reality itself.
1 comment on “Square Use”
The Square Use Revelation
Four college students—Maya, Jonah, Leah, and Theo—sat huddled around a cluttered table in their university’s astrophysics lab late one night. The group had been working on a seemingly impossible problem: how energy could escape a black hole faster than the speed of light. They had spent weeks pouring over equations, physics papers, and complex mathematical theories, trying to unlock the mystery. Nothing had made sense—until tonight.
Leah, the quiet math prodigy of the group, was scribbling furiously on the whiteboard, filling it with equations that looked like abstract art to anyone outside their circle. Maya paced back and forth, tossing ideas into the air, while Jonah and Theo debated the significance of quantum tunneling at the event horizon.
Suddenly, Leah stopped, her marker frozen mid-air.
“Wait,” she said softly, almost to herself. “Square use.”
The others fell silent, glancing at each other in confusion. “What do you mean, ‘Square Use’?” Theo asked, leaning in.
Leah turned to them, her eyes wide with realization. “It’s the answer. We’ve been thinking about how to calculate the way energy escapes a black hole—how it bends spacetime and defies the normal speed of light. But the key is ‘Square Use.’ It’s a mathematical constant, something we’ve been overlooking.”
Maya frowned. “Square Use? Where did that come from?”
Leah tapped the equations she had just written. “It’s a concept hidden in the mathematics of spacetime. The term refers to the geometric manipulation of energy vectors at the event horizon of the black hole. If you apply the square of the energy’s potential use within the framework of space contraction—what I’m calling ‘Square Use’—you get a constant that allows energy to bypass the limit of the speed of light.”
Jonah was still skeptical. “But why does that let energy escape faster than light?”
Leah grinned. “Because, mathematically, ‘Square Use’ allows energy to occupy multiple states at once. The usual rules of physics—like light speed as the maximum—don’t apply in those conditions. It’s like warping reality. The energy doesn’t just move faster than light; it essentially exists in a state where distance and time are irrelevant, so it escapes instantaneously from the black hole’s pull.”
Theo’s eyes widened as the pieces fell into place. “So ‘Square Use’ is the constant that quantifies that energy manipulation! It explains why black hole radiation—or whatever energy escapes—doesn’t follow the normal rules. It’s a fundamental shift in spacetime geometry.”
Maya nodded slowly, starting to understand. “We’ve been looking at this all wrong. ‘Square Use’ isn’t just a mathematical term—it’s the key to unlocking how energy behaves beyond the normal constraints of physics. It’s why energy can escape the black hole faster than light.”
Jonah finally broke into a grin. “We’ve cracked it. ‘Square Use’ is the missing piece.”
They all sat back in their chairs, stunned by the realization. In the span of a few minutes, the four college students had stumbled upon a mathematical constant that could change the way the world understood black holes—and the very nature of reality itself.