Quantum mechanics has already shaped technology significantly, and the exploration of massive entanglement in quantum systems will lead to advancements that classical computers cannot achieve.

The entanglement frontier in quantum physics research will focus on scaling quantum systems to larger complexities, which could lead to new discoveries and insights into fundamental physics.

The mathematics of quantum mechanics is straightforward, but interpreting what those calculations mean for the nature of reality is complex.

Quantum computing has gained significant attention recently because it's starting to work in labs, reaching a point where it can perform tasks that classical computers cannot.

Quantum error correction may play a crucial role in understanding the geometry of space-time, suggesting that entanglement is fundamental to the structure of the universe.

Quantum technologies, such as quantum computers, are based on the principles of quantum mechanics and are becoming increasingly relevant in practical applications.

Quantum entanglement is a key property that allows information to be stored in the correlations between parts of a quantum system, making it difficult to access that information by examining individual parts.

Quantum entanglement means that when two particles are entangled, measuring one instantly determines the state of the other, regardless of the distance between them.

To determine if a quantum computer can be modular, we need to assess whether we can achieve good quality entanglements between two modules, which would prove they are part of the same quantum state.