Abstract: A heart compression simulation device featuring a base; a resistance means disposed on the base; and an actuator operatively connected to the resistance means. The actuator can move between at least a starting position wherein the actuator is positioned at a starting position above the base and an end position wherein the actuator is pushed down near or contacting the base. The actuator is biased in the starting position caused by the resistance means. A tear effect providing mechanism provides resistance when moving the actuator from the starting position to the end position a first time. A lock-out mechanism is adapted to disengage the tear effect providing mechanism after the actuator has been moved from the starting position to the end position such that subsequent movements of the actuator between the starting position and the end position are not hindered by the tear effect providing mechanism.

Abstract: A heart compression simulation device featuring a base with a compression spring; an actuator atop the compression spring that can move between an extended and fully compressed position; two pedestals atop the base opposite each other; actuator prongs on the actuator facing each pedestal; a hub attached to each pedestal that can pivot between a disengaged position and engaged position; leaf springs disposed on each hub adapted to engage the actuator prongs when the hubs are in the disengaged position and the actuator is moved to the fully compressed position, which causes a cracking sound to be produced; and a lock-out mechanism for securing the hubs in the engaged position keeping the leaf springs out of range of the actuator prongs, the lock-out mechanism is activated when the actuator is moved to the fully compressed position.

Abstract: A heart compression simulation device featuring a base; a resistance means disposed on the base; and an actuator operatively connected to the resistance means. The actuator can move between at least a starting position wherein the actuator is positioned at a starting position above the base and an end position wherein the actuator is pushed down near or contacting the base. The actuator is biased in the starting position caused by the resistance means. A tear effect providing mechanism provides resistance when moving the actuator from the starting position to the end position a first time. A lock-out mechanism is adapted to disengage the tear effect providing mechanism after the actuator has been moved from the starting position to the end position such that subsequent movements of the actuator between the starting position and the end position are not hindered by the tear effect providing mechanism.

Abstract: A heart compression simulation device featuring a base with a compression spring; an actuator atop the compression spring that can move between an extended and fully compressed position; two pedestals atop the base opposite each other; actuator prongs on the actuator facing each pedestal; a hub attached to each pedestal that can pivot between a disengaged position and engaged position; leaf springs disposed on each hub adapted to engage the actuator prongs when the hubs are in the disengaged position and the actuator is moved to the fully compressed position, which causes a cracking sound to be produced; and a lock-out mechanism for securing the hubs in the engaged position keeping the leaf springs out of range of the actuator prongs, the lock-out mechanism is activated when the actuator is moved to the fully compressed position.