The invention discloses an excitation type air incrementer. The tail end of each air inlet pipe is connected with the front end of an exhaust pipe. Airflow tubular cavities of the air inlet pipes and an airflow tubular cavity of the exhaust pipe are connected to form an airflow channel. A positioning concave cavity is formed in the tail end of each air inlet pipe. Each positioning concave cavity is internally provided with a connecting air nozzle which protrudes outwards. The front end of the exhaust pipe is provided with connecting ends which are matched with the inner wall faces of the positioning concave cavities. An airflow tubular cavity of each connecting end wraps and surrounds the periphery of the corresponding connecting air nozzle, and an excitation gap is reserved between the connecting end and the connecting air nozzle. The air inlet end of each excitation gap receives airflow output by an external compressed air source supply device. The air outlet end of each excitation gap is arranged in the airflow direction of the corresponding airflow tubular cavity. Meanwhile, the invention discloses a manufacturing method of the air incrementer and a breathing ventilation shoe or a pipeline air supply system provided with the air incrementer. The air incrementer, the manufacturing method thereof and the breathing ventilation shoe or the pipeline air supply system provided with the air incrementer have the advantages that the structure is simple, the cost is low, and manufacturing is convenient and easy.