Applicable to/under conditions

This model is ideal for modeling the behaviour of cellular communications in large cities with tall structures.

Coverage

Frequency: 150 MHz to 3700 MHz

Young model was built on the data of 1952 in New York City.^[1]

The mathematical formulation for Young model is:

$L\;=\;G_{B}\;G_{M}\;\left({\frac {h_{B}\;h_{M)){d^{2))}\right)^{2}\beta$

Where,

L = path loss. Unit: decibel (dB)

G_B = gain of base transmitter. Unit: decibel (dB)

G_M = gain of mobile transmitter. Unit: decibel (dB)

h_B = height of base station antenna. Unit: meter (m)

h_M = height of mobile station antenna. Unit: meter (m)

d = link distance. Unit: kilometer (km)

\beta

= clutter factor

v t e Radio frequency propagation models
Free space	Free-space path loss Friis transmission equation Dipole field strength in free space
Terrain	ITU terrain model Egli model Longley–Rice Irregular Terrain Model (ITM) Two-ray ground-reflection model
Foliage	Weissberger's model Early ITU model One woodland terminal model Single vegetative obstruction model
Urban	Okumura model Hata model COST Hata model Young model Six-rays model Ten-rays model
Indoor	ITU model for indoor attenuation Log-distance path loss model
Other	VOACAP (HF) Area-to-area Lee model (900 MHz) Point-to-point Lee model (900 MHz) Longley–Rice model (20 MHz - 20 GHz)