5G networks have a latency of less than 1 millisecond, which is significantly lower than previous generations of cellular networks.

5G networks use a combination of low-band, mid-band, and high-band spectrum to provide a wide range of coverage and capacity.

High-band spectrum has the lowest latency because it has a shorter wavelength and can transmit data more quickly.

High-band spectrum has the highest capacity because it has a wider bandwidth and can transmit more data at the same time.

Mid-band spectrum is best suited for urban areas because it provides a good balance of coverage and capacity.

Low-band spectrum is best suited for rural areas because it has a longer wavelength and can travel farther.

Latency and bandwidth are inversely proportional, meaning that as bandwidth increases, latency decreases.

Latency and distance are directly proportional, meaning that as distance increases, latency increases.

Latency and interference are directly proportional, meaning that as interference increases, latency increases.

Latency and congestion are directly proportional, meaning that as congestion increases, latency increases.

Latency and mobility are inversely proportional, meaning that as mobility increases, latency decreases.

Latency and security are inversely proportional, meaning that as security increases, latency decreases.

Latency and cost are directly proportional, meaning that as latency decreases, cost increases.

5G networks have a wide range of applications, including self-driving cars, remote surgery, virtual reality, and augmented reality.

The deployment of 5G networks faces a number of challenges, including cost, spectrum availability, interference, and security.