A leg blood flow stimulation system comprising means for stimulating acoustic vibrations, a closed chamber , speakers for exciting low-frequency acoustic vibrations, located on sides of the closed chamber , a matrix comprising piezoelectric bimorph transducers for exciting high-frequency vibrations, where the matrix is arranged in the closed chamber , in a plane of the closed chamber corresponding to a plane of a foot, corresponding to a support zone of a sole below toes and support zone of a heel, where each zone comprises from one to three piezoelectric bimorph transducers , a controller for controlling the first generator and the second generator at the same time characterized in that the leg blood flow stimulation system further comprises a first generator for powering the speakers for exiting low-frequency acoustic vibrations, a second generator for powering the piezoelectric bimorph transducers for exiting high-frequency vibrations, wherein the body of the closed chamber is made of a rigid structural material where interior of the chamber is lined with a sound-absorbing material, and speakers attached from both sides of the closed chamber , wherein the internal dimensions of the closed chamber are: length - 400 mm; width, distance between the speakers , - 700 mm; height - 700 mm, speakers for exciting low-frequency acoustic vibrations, located on sides of the closed chamber , wherein the frequency of the low-frequency acoustic vibrations generated by the speakers is from 20 Hz to 1000 Hz, wherein the frequency of the high-frequency vibrations generated by the piezoelectric bimorph transducers is from 20 kHz to 100 kHz, wherein the piezoelectric bimorph transducers are elastically and concentrically attached to the to round holes formed in a base of the matrix of transducers, the diameter of each round hole is by 2 mm smaller than diameter of metal plate of each transducer where surface of the metal plate of each transducer free from a piezoelectric plate is directed to surface of the sole, wherein each piezoelectric bimorph transducer comprises a thin, up to 0.25 mm thick, and a round, up to 35 mm diameter, metal plate rigidly and concentrically connected-glued to thin, up to 0.25 mm thick, and round, up to 30 mm diameter, piezoelectric plate. a first generator for powering the speakers for exiting low-frequency acoustic vibrations, a second generator for powering the piezoelectric bimorph transducers for exiting high-frequency vibrations, wherein the body of the closed chamber is made of a rigid structural material where interior of the chamber is lined with a sound-absorbing material, and speakers attached from both sides of the closed chamber , wherein the internal dimensions of the closed chamber are: length - 400 mm; width, distance between the speakers , - 700 mm; height - 700 mm, speakers for exciting low-frequency acoustic vibrations, located on sides of the closed chamber , wherein the frequency of the low-frequency acoustic vibrations generated by the speakers is from 20 Hz to 1000 Hz, wherein the frequency of the high-frequency vibrations generated by the piezoelectric bimorph transducers is from 20 kHz to 100 kHz, wherein the piezoelectric bimorph transducers are elastically and concentrically attached to the to round holes formed in a base of the matrix of transducers, the diameter of each round hole is by 2 mm smaller than diameter of metal plate of each transducer where surface of the metal plate of each transducer free from a piezoelectric plate is directed to surface of the sole, wherein each piezoelectric bimorph transducer comprises a thin, up to 0.25 mm thick, and a round, up to 35 mm diameter, metal plate rigidly and concentrically connected-glued to thin, up to 0.25 mm thick, and round, up to 30 mm diameter, piezoelectric plate. <EOS>