slower-than-light

our interstellar probes are designed to travel at slower-than-light speeds.

reaching distant stars requires accepting the limitations of slower-than-light travel.

the faster-than-light paradox highlights the challenges of exceeding slower-than-light constraints.

even with advanced propulsion, achieving faster-than-light speeds remains a slower-than-light problem.

relativistic effects become noticeable at speeds approaching slower-than-light limits.

interstellar communication is inherently limited by the slower-than-light speed of radio waves.

the concept of slower-than-light travel is fundamental to our understanding of physics.

designing a mission profile necessitates careful consideration of slower-than-light travel times.

the vast distances involved mean that even near-slower-than-light speeds are lengthy.

current space travel is exclusively slower-than-light, relying on conventional propulsion systems.

the implications of faster-than-light travel versus slower-than-light travel are profound.