Method for calibrating a transceiver device (T) suitable for generating, emitting and detecting electromagnetic wave signals, characterised by - providing a first calibration device (A) suitable for generating and emitting electromagnetic wave signals arranged at a distance (D1) from the transceiver device (T), and - providing a second calibration device (B) suitable for detecting electromagnetic wave signals arranged at a distance (D2) from the transceiver device (T) and at a distance (D) from the first calibration device (A), - emitting a first calibration wave signal (k1) using the first calibration device (A), - detecting the first calibration wave signal (k1), reaching the transceiver device (T) at time instance T1, by means of the transceiver device (T) at time instance T1' following time instance T1 by a time interval ΔT1T1', - detecting the first calibration wave signal (k1) at time instance B1' by means of the second calibration device (B), - generating a response wave signal (v) by means of the transceiver device (T) at time instance T2' following time instance T1' by a time interval ΔT1'T2', and emitting the response wave signal (v) at time instance T2 following the time instance T2' by a time interval ΔT2'Y2, - detecting the response wave signal (v), emitted by the transceiver device (T) at the time instance T2, at time instance B2' following the time instance B1' by a time interval ΔB1'B2' by means of the second calibration device (B), then - determining a delay constant τ formed as a sum of the time intervals ΔT1T1' and ΔT2'T2 on the basis of the distances D, D1, D2, the time intervals ΔB1'B2', ΔT1'T2' and the speed of propagation (c) of the wave signals (k1, v) using the formula τ = Δ T 1 T 1 ′ + Δ T 2 ′ T 2 = Δ B 1 ′ B 2 ′ - Δ T 1 ′ T 2 ′ + D c − D 1 c − D 2 c and adding the delay constant τ to the measured time interval ΔT1'T2'. - providing a first calibration device (A) suitable for generating and emitting electromagnetic wave signals arranged at a distance (D1) from the transceiver device (T), and - providing a second calibration device (B) suitable for detecting electromagnetic wave signals arranged at a distance (D2) from the transceiver device (T) and at a distance (D) from the first calibration device (A), - emitting a first calibration wave signal (k1) using the first calibration device (A), - detecting the first calibration wave signal (k1), reaching the transceiver device (T) at time instance T1, by means of the transceiver device (T) at time instance T1' following time instance T1 by a time interval ΔT1T1', - detecting the first calibration wave signal (k1) at time instance B1' by means of the second calibration device (B), - generating a response wave signal (v) by means of the transceiver device (T) at time instance T2' following time instance T1' by a time interval ΔT1'T2', and emitting the response wave signal (v) at time instance T2 following the time instance T2' by a time interval ΔT2'Y2, - detecting the response wave signal (v), emitted by the transceiver device (T) at the time instance T2, at time instance B2' following the time instance B1' by a time interval ΔB1'B2' by means of the second calibration device (B), then - determining a delay constant τ formed as a sum of the time intervals ΔT1T1' and ΔT2'T2 on the basis of the distances D, D1, D2, the time intervals ΔB1'B2', ΔT1'T2' and the speed of propagation (c) of the wave signals (k1, v) using the formula τ = Δ T 1 T 1 ′ + Δ T 2 ′ T 2 = Δ B 1 ′ B 2 ′ - Δ T 1 ′ T 2 ′ + D c − D 1 c − D 2 c and adding the delay constant τ to the measured time interval ΔT1'T2'. <EOS>