An air flow pressure tap system comprising: a rotatable plate having a first side and a second side, each of the first side and the second side comprising a mounting plate configured to anchor an airfoil for pressure tapping, wherein the mounting plates are each configured to receive a mold for securing the airfoil; a robotic station comprising: a robotic arm configured to execute an airflow inspection of the airfoil, the robotic arm comprising: a base portion anchoring the robotic arm to the robotic station; and a translatable portion extending from and movable with respect to the base portion; a vision system mounted on the translatable portion of robotic arm, the vision system configured to sense a pattern of holes in the airfoil; and a pressure tapper mounted on the translatable portion of the robotic arm and configured to test individual holes in the pattern of holes in the airfoil; an operator station accessible to a human operator, wherein the rotatable plate is secured such that rotation of the rotatable plate moves the mounting plates between the robotic station and the operator station; a valve system located proximate the rotatable plate, the valve system configured to provide air flow to the rotatable plate; an airflow system configured to provide air flow to the valve system; and a controller in communication with the operator station, the robotic station, the mounting plates, the airflow system, and the valve system, the controller configured to control the vision system based on the pattern of holes, the robotic arm, and the pressure tapper, wherein the controller is configured to: detect the pattern of holes with the vision system; locate a first hole in the detected pattern of holes that needs to be inspected based on a pre-loaded program associated with the particular airfoil; move the pressure tapper to the first hole with the robotic arm; and detect airflow and pressure within the first hole with the pressure tapper. a rotatable plate having a first side and a second side, each of the first side and the second side comprising a mounting plate configured to anchor an airfoil for pressure tapping, wherein the mounting plates are each configured to receive a mold for securing the airfoil; a robotic station comprising: a robotic arm configured to execute an airflow inspection of the airfoil, the robotic arm comprising: a base portion anchoring the robotic arm to the robotic station; and a translatable portion extending from and movable with respect to the base portion; a vision system mounted on the translatable portion of robotic arm, the vision system configured to sense a pattern of holes in the airfoil; and a pressure tapper mounted on the translatable portion of the robotic arm and configured to test individual holes in the pattern of holes in the airfoil; a robotic arm configured to execute an airflow inspection of the airfoil, the robotic arm comprising: a base portion anchoring the robotic arm to the robotic station; and a translatable portion extending from and movable with respect to the base portion; a base portion anchoring the robotic arm to the robotic station; and a translatable portion extending from and movable with respect to the base portion; a vision system mounted on the translatable portion of robotic arm, the vision system configured to sense a pattern of holes in the airfoil; and a pressure tapper mounted on the translatable portion of the robotic arm and configured to test individual holes in the pattern of holes in the airfoil; an operator station accessible to a human operator, wherein the rotatable plate is secured such that rotation of the rotatable plate moves the mounting plates between the robotic station and the operator station; a valve system located proximate the rotatable plate, the valve system configured to provide air flow to the rotatable plate; an airflow system configured to provide air flow to the valve system; and a controller in communication with the operator station, the robotic station, the mounting plates, the airflow system, and the valve system, the controller configured to control the vision system based on the pattern of holes, the robotic arm, and the pressure tapper, wherein the controller is configured to: detect the pattern of holes with the vision system; locate a first hole in the detected pattern of holes that needs to be inspected based on a pre-loaded program associated with the particular airfoil; move the pressure tapper to the first hole with the robotic arm; and detect airflow and pressure within the first hole with the pressure tapper. detect the pattern of holes with the vision system; locate a first hole in the detected pattern of holes that needs to be inspected based on a pre-loaded program associated with the particular airfoil; move the pressure tapper to the first hole with the robotic arm; and detect airflow and pressure within the first hole with the pressure tapper.