Method for emulating a radio channel between a moved transmitter and a moved receiver, which are in each case connected to at least one antenna, in a predetermined environment influencing the radio channel, wherein for a number of time segments following one after another - in each case the relative position upon which the emulation is based and relative movement and where appropriate relative orientation and relative rotation of the two antennae to one another is predetermined, wherein the temporal change in the relative position and relative movement is predetermined in advance, and in particular follows the laws of physics, - wherein on the basis of the relative position and relative movement and where appropriate relative orientation and relative rotation as well as on the basis of the predetermined environment a number of paths of propagation (P 0, P 1,..., P P-1) extending between the antennae is determined, wherein for each of the paths of propagation (P 0, P 1,..., P P-1) a damping factor (η p), a delay (θ p) and a Doppler frequency (v p) are determined separately, characterised in that starting from the individual paths of propagation (P 0, P 1,..., P P-1) for a number of time segments following one after another in each case - for each path of propagation (P 0, P 1,..., P P-1) by means of separate table-lookup of the delay and the Doppler frequency, in each case one coefficient vector (γ' p, ε' p) is created and with these coefficient vectors by forming the Kronecker product a path matrix ( Ψ p) is created, and the thus created path matrices ( Ψ p) of the individual paths of propagation (P 0, P 1,..., P P-1) are weighted and summed with the respective damping (η p) of the path of propagation (P 0, P 1,..., P P-1), - starting from the thus created sum matrix ( Ψ) a transmission matrix is determined, wherein the transformation reduces that, in particular exclusively that, dimension of the transmission matrix with respect to the sum matrix ( Ψ) which corresponds to the coefficient vector (ε' p) of the delay, and - the transmission matrix is transmitted to a programmable switching circuit, - wherein in the programmable switching circuit is predetermined a number of discrete basis functions as a basis matrix, which basis functions characterise the time variance of the transmission functions and/or the impulse response, - wherein the time-varying impulse responses of the respective time segment are determined by multiplying the transmission matrix with the basis matrix, - wherein the signal generated by the sender is sampled at an input and digitalised and thus a discrete input signal (x) is generated, - wherein the discrete input signal (x) is convoluted by a digital switching circuit with the time-varying impulse response and thus a discrete output signal ( γ) is generated, and - that in particular starting from the discrete output signal ( γ) a time- and value-continuous output signal is generated. - in each case the relative position upon which the emulation is based and relative movement and where appropriate relative orientation and relative rotation of the two antennae to one another is predetermined, wherein the temporal change in the relative position and relative movement is predetermined in advance, and in particular follows the laws of physics, - wherein on the basis of the relative position and relative movement and where appropriate relative orientation and relative rotation as well as on the basis of the predetermined environment a number of paths of propagation (P 0, P 1,..., P P-1) extending between the antennae is determined, wherein for each of the paths of propagation (P 0, P 1,..., P P-1) a damping factor (η p), a delay (θ p) and a Doppler frequency (v p) are determined separately, - for each path of propagation (P 0, P 1,..., P P-1) by means of separate table-lookup of the delay and the Doppler frequency, in each case one coefficient vector (γ' p, ε' p) is created and with these coefficient vectors by forming the Kronecker product a path matrix ( Ψ p) is created, and the thus created path matrices ( Ψ p) of the individual paths of propagation (P 0, P 1,..., P P-1) are weighted and summed with the respective damping (η p) of the path of propagation (P 0, P 1,..., P P-1), - starting from the thus created sum matrix ( Ψ) a transmission matrix is determined, wherein the transformation reduces that, in particular exclusively that, dimension of the transmission matrix with respect to the sum matrix ( Ψ) which corresponds to the coefficient vector (ε' p) of the delay, and - the transmission matrix is transmitted to a programmable switching circuit, - wherein in the programmable switching circuit is predetermined a number of discrete basis functions as a basis matrix, which basis functions characterise the time variance of the transmission functions and/or the impulse response, - wherein the time-varying impulse responses of the respective time segment are determined by multiplying the transmission matrix with the basis matrix, - wherein the signal generated by the sender is sampled at an input and digitalised and thus a discrete input signal (x) is generated, - wherein the discrete input signal (x) is convoluted by a digital switching circuit with the time-varying impulse response and thus a discrete output signal ( γ) is generated, and - that in particular starting from the discrete output signal ( γ) a time- and value-continuous output signal is generated.