It launches because the cup flies rapidly forward when the arm is released. Whatever is in the cup will then take flight.
A counterweight trebuchet is a type of medieval siege engine that uses a heavy counterweight to launch projectiles. It consists of a long arm pivoting on a fulcrum, with the counterweight located at one end and a sling for the projectile at the other. When the counterweight is released, it falls, causing the arm to swing upward and propel the projectile forward. This mechanism allows for greater range and power compared to other siege engines, such as catapults.
The distance a model trebuchet can throw a projectile depends on various factors such as the size and weight of the counterweight, the length of the throwing arm, the angle at which the projectile is launched, and the tension of the sling. On average, a well-constructed model trebuchet can throw a projectile up to 30-50 feet, but some larger and more powerful models can achieve distances of over 100 feet. Experimentation and fine-tuning of the trebuchet's design and mechanics can help optimize its throwing range.
Trebuchet: the vertical distance that the counterweight falls influences the amount of potential energy it has to fling the arm on the opposite side, with the projectile. So too would the distance the counterweight and the projectile are from the rotaional axis. Depends on the mass of both the counterweight and the projectile too. Catapult: depending on the material used to store energy when tensioned, and the distance of the rotational axis from the projectile.
Torsion is crucial in a catapult as it stores potential energy in the twisted materials, usually ropes or springs, which is then released to launch the projectile. This mechanism allows for a more efficient transfer of energy, resulting in greater projectile velocity and distance. Additionally, torsion catapults, like the trebuchet, can be precisely calibrated for different ranges and weights, making them versatile for various applications. Overall, torsion enhances the effectiveness and efficiency of catapult designs.
Catapults could launch projectiles varying distances depending on their design and construction. On average, they could hurl stones or other projectiles between 300 to 1,000 feet (about 90 to 300 meters). Some advanced designs, like the trebuchet, could achieve even greater ranges, potentially exceeding 1,200 feet (around 370 meters) with the right conditions. Factors such as the weight of the projectile, the angle of launch, and the materials used also influenced their effectiveness.
leverage
A trebuchet typically launches large rocks, projectiles, or other heavy objects over long distances. The projectile is loaded into a sling attached to the throwing arm of the trebuchet, which is then released to launch the projectile towards its target.
A trebuchet could launch ammunition such as large rocks or projectiles up to distances of over 300 meters, depending on factors such as the size and weight of the projectile, the counterweight of the trebuchet, and the angle of release.
Beam: The long wooden arm that holds and launches the projectile. Counterweight: The heavy weight used to provide the necessary force to launch the projectile. Frame: The support structure that holds the components of the trebuchet together. Counterweight release mechanism: The mechanism that releases the counterweight at the right moment to launch the projectile. Sling: The pouch at the end of the beam that holds the projectile and releases it during the launch.
A trebuchet can hurl objects up to around 300 meters (984 feet) depending on factors such as the size of the trebuchet, the weight of the projectile, and the force generated during the launch.
Yes, increasing the counterweight on a trebuchet would generally cause the projectile to be launched farther. This is because a heavier counterweight provides more force to the throwing arm, allowing it to launch the projectile with greater momentum.
A trebuchet guide chute is a component used in the construction of a trebuchet, which is a medieval siege weapon. The guide chute helps direct the projectile as it is released from the arm of the trebuchet, ensuring a more accurate and consistent launch trajectory. By providing a controlled path for the projectile, the guide chute enhances the efficiency and effectiveness of the trebuchet's operation. This design feature is particularly important for maximizing the distance and accuracy of the projectile during a siege.
the differencce is a traction trebuchet has people jumping on one a rope end to fling the projectile the counterweighted uses a counter weight 3x the weight of a normal projectile of 12 cwt. to fling the projectile
In a trebuchet, the projectile is held in a sling at the end of the throwing arm. When the trebuchet is released, the throwing arm swings forward, releasing the projectile from the sling and propelling it forward.
A trebuchet is a Class 1 lever since the fulcrum is placed between the effort (pulling the counterweight) and the load (the projectile). This lever type allows for a mechanical advantage that enables the trebuchet to launch projectiles with great force and distance.
trebuchets were launched by first tying down the throwing arm. then its sling was loaded with projectiles. it was released when the sling was full. The counterweight on the other end of the throwing arm dropped, pulling the sling up and causing it to hurl the projectiles. this had to be done every time they needed to launch the trebuchet. if you don't know what "projectiles" means, then just look it up.
The mechanical advantage of a trebuchet can be calculated by dividing the length of the long arm (from the pivot point to the location where the counterweight is attached) by the length of the short arm (from the pivot point to the sling pouch where the projectile is placed). This ratio represents how much the trebuchet amplifies the input force applied to the short arm to launch the projectile.