The Concept Of The Jumping Robot

The initial task was aimed to test whether the motor could life a range of valued weights between 20 grams and 100 grams. Whilst testing the motors capacity to hold certain weights, an input and an output formula were used to calculate the efficiency of the motor. This was relative to the Voltage, Current, time, gravity, height (string off the ground) and the mass of the weights. Fortunately each of the three sets of four given weights was successfully lifted by the motor across a variation of times. This data also changed the readings on the voltmeters and ammeters. The results that were calculated along with the efficiencies were both successful and astounding to come across especially as the graphs trend above goes up and down, rather than in a single direction.

Once you get the rhythm of the motion, you can keepit up for some time. This toy may not sound like much fun when you read about it,but when you play with it, you’ll find it almost hypnotic and difficult to put down. The button acts as a flywheel. But in this toy, it stores its spinning energy in the string by twisting it. When the string is winding up, it is storing potential energy, energy that can be converted to motion at some time in the future. When you jerk on the string, the potential energy is converted to motion, or, to be precise, kinetic energy: that is, the button spins in the other direction. Once the string has unwound, the button continues spinning, and the kinetic energy begins changing back into potential

After the experiment had been conducted, the investigator concluded that the original hypothesis did not fit the outcome of the testing of the Beetle Robot. While it was hypothesized that the device would move and react in the same

Concept/Fact #3: That smaller wheels can create more force and it can help with the mass of the sumobot.

The final car uses a combination of a mousetrap and rubber bands. The mousetrap, attached to the top of the car by tape, pulls a fishing line which is wrapped around the front axle. The fishing line is attached to the mousetrap at an arm that was added to the mousetrap. The arm is comprised of two long axles attached to the hammer of the mousetrap which allows the fishing line to pull the car's axle for a farther distance. The long chassis of the car allows for the arm to be as long as it is. If the arm was much longer than the body of the car, the spring force of the mousetrap and the weight distribution of the arm would cause the car to flip. However, by distributing the weight of the arm across the body of the car, the car was able to maintain

a) When the lever is winded up and all set for release the Mousetrap Car (MTP) has potential energy that will be used to accelerate the car. 2) When the lever is released the string is pulled from its ready position on the axle causing the level to pull the string causing a pulling force on the string by the lever. 3) When the lever is released and the string is pulled the back wheels of the MTC are beginning to move because of the potential energy that is now kinetic energy which causes rolling friction between the Mousetrap Cars wheels and the ground. 4) The MTC is now accelerating at a certain speed from it's point with the string being pulled by the lever until the spring is snapped, which then causes the MTC to

This form will include strong bounce with other unwanted momentum. In this kind of form your body will move backword and you will also use your knees to support the weight going up for. This kind of technique allows you to lift more weight.

This design is a simple aluminum 10 inch rod that extrudes from a CD on one end and another CD on the other end. Each CD is approximately 1 inch in from the end of the rod. The rod is hollowed out to provide minimum weight which allows for the mousetrap to give more power to the mechanism. This design allowed for a quick build that gives the best results according to the previous engineers that did this project last year.

In order to achieve this, we had to figure out how each kilobot would be affected by others surrounding. It required determining many probabilities and deciding how they would make the decision to turn red or green. This task proved to be far more difficult than anyone had initially anticipated. It was difficult to find the balance between the need for stability and the ability to generate a new pole when necessary. In order to complete the project it was necessary for the program to support change and stillness all while encouraging both. In the end it was only through much tweaking of numbers and probabilities that we were able to get a passable

The US National Administration of Aeronautics and Space Administration (NASA) is currently trying to develop a robot that will be able to perform dangerous tasks in space. Despite the various efforts to make it as smooth as possible, the difficulties of living in space are somewhat endless. Put simply, the lack of gravity makes every day activities significantly more complex, reducing productivity. In past centuries the ability to climb effectively up smooth surfaces has attracted great attention. More recently, the last decade or so, there have been large improvements in understanding the attachment mechanism.

The motor was mounted at the top of the device in such a way that it would reel in the string attached to it, pulling up whatever was attached to the string (in our case, a half-tennis ball basket that the task’s object could be placed in). The string with the “basket” on the end extended out from the base of the device, draping over the far side of the box/platform. Once the basket was reeled in, it would hit the top edge of the box, causing it to tip and dump its contents onto the platform, and then the

In a second class lever, resistance is located between the applied force and the center. Extend the calcaneus bone, for example calves (applied force) to exert power and foot (body (resistance) in the ball center). The increased level of lever force, but declines offers the speed and range of

Three activities were performed on the force platform. The force platform monitors and records the vertical ground reaction force. The first activity was to stand on the platform with hands on hips. Quickly squat, hold the position for a few seconds then quickly stand back up. The second activity was to begin in a squat position and then perform a maximal vertical jump without counter

back in a smooth motion and using force to release the ball (science has proven that force

As a result of trail and error method we find the angle for the third pulley and the mass that should had be suspended from it. This will balance the forces deployed on the strings due to the other two masses. While the third force is defined as the equilibrant (������⃗������) Since it is the force that establishes the equilibrium. It is also the negative of the resultant -������⃗������ = ������⃗������ = ������⃗ ������ + ������⃗������. We gathered and recorded the mass and the angle required for the third pulley to enable to put the system into the equilibrium in table 1.