Thin liquid films are widespread in nature and industry[1]. Interesting for both practical and theoretical reasons. these fluid systems are very popular, and they are a major source of entertainment when they come in the form of soap bubbles. Blowing soap bubbles with a child's wand is indeed an activity that can be fascinating for people at any age Popular in paintings through the ages[2] and useful to illustrate scientific principles in a classroom setting, soap bubbles have been studied scientifically for centuries l These soap film-based structures truly impact a wide swath of phenomena in fields ranging from foam science[6] to cosmology[7]. Blowing soap bubbles can even new ways to create lipid vesicles[8] and be beneficial to pursed-lip breathing techniques[9]. Despite the immense use of bubbles for either entertainment, scientific, or educa- tional purposes, understanding how bubbles form when air is blown onto a soap film, as illustrated in Fig. 1(a), has surprisingly remained a briefly mentioned, yet unaddressed, issue[4,10] To answer this question we investigate the impact dynamics of a gas jet with a soap film. Inspired by works on two-dimensional turbulence(11-13), our setup revolves around a vertically falling soap film[see Fig. 1(b)). Unlike common bubble wands(Fig. 1(a)], this setup allows us to work with long-lived films that have adjustable, uniform and steady state thicknesses These kinds of giant soap films have also been used to study the impact and subsequent tunneling of liquid drops[14l Not only gases but also liquid drops and jets and solid spheres can indeed pass through a soap film without popping it[14-18]. We also work with circular bubble wands made of wire for comparison pur- poses. Varying gas density and velocity, film size, radius of the nozzle emitting the jet, and distance between film and nozzle, our experiments show that bubbles form only when