A wind-up clock stores potential energy in a wound-up spring. When the spring is released, this potential energy is converted into kinetic energy, which drives the gears and hands of the clock to move and keep time.
A gravity-powered clock, such as a grandfather clock or a torsion pendulum clock, converts gravitational energy to elastic energy using a weight-driven mechanism. The weight slowly descends due to gravity, causing the clock's spring or pendulum to wind up and store potential energy as tension in the spring or material of the pendulum.
A wind-up mechanical clock operates without an external power source by storing potential energy when wound up, which is then released gradually to power the clock's mechanism.
A wind up clock contains potential energy stored in a spring. That elastic potential energy is used to move the hands of the clock and otherwise power its operation which might include making an alarm ring. The energy in the spring primarily is used to overcome friction (producing heat) in the internal mechanism, but technically a small amount of kinetic energy is contained in the moving hands and a small amount of energy is converted to sound waves if an alarm sound is created. To get energy into the spring, work was done on it. (Work is force times distance.) Force winds the alarm and that force is applied for a distance and in the direction of motion, even if that direction changes and it ends up being circular as in twisting a key to wind a spring. Apart from frictional forces opposing the winding, the work goes into the spring which gains potential energy. (Friction in the winding process produces some heat, so a careful accounting would put work done equals frictional heat energy plus spring potential energy. Work done equals change in the energy of the system.)
It depends entirely on what sort of clock it is. If it is one of the old wind up clocks with the bells on top, mechanical energy is converted into kinetic and sound. If it is an electrically powered clock, likely the energy would be electrical to sound (kinetic or EM).
You wind up a spring and a notched wheel makes the clock tick consistantly. the hands move with the mechanism to make the clock move a little bit every minute. (The spring is tightened when you wind it up) +++ The "notched wheel" is part of the "escapement", which does indeed control the speed, but the actual controlling influence in a mechanical clock is what that wheel drives and in turn returns the compliment by locking and releasing the wheel at a set rate. And that is the harmonic-motion properties of either a coiled spring attached to a miniature flywheel called the 'balance wheel', or of a pendulum.
The wind up device should be behind the face of the clock.
A gravity-powered clock, such as a grandfather clock or a torsion pendulum clock, converts gravitational energy to elastic energy using a weight-driven mechanism. The weight slowly descends due to gravity, causing the clock's spring or pendulum to wind up and store potential energy as tension in the spring or material of the pendulum.
Wind
Peter Henlein, a German locksmith and clockmaker, is credited with inventing the first portable spring-driven clock in the 16th century, which is considered one of the first types of wind-up clocks.
A wind up clock can be purchased in many different places online and in retail stores. Depending on what design you want on your clock will dictate where the purchase is made.
A wind-up mechanical clock operates without an external power source by storing potential energy when wound up, which is then released gradually to power the clock's mechanism.
A wind up clock contains potential energy stored in a spring. That elastic potential energy is used to move the hands of the clock and otherwise power its operation which might include making an alarm ring. The energy in the spring primarily is used to overcome friction (producing heat) in the internal mechanism, but technically a small amount of kinetic energy is contained in the moving hands and a small amount of energy is converted to sound waves if an alarm sound is created. To get energy into the spring, work was done on it. (Work is force times distance.) Force winds the alarm and that force is applied for a distance and in the direction of motion, even if that direction changes and it ends up being circular as in twisting a key to wind a spring. Apart from frictional forces opposing the winding, the work goes into the spring which gains potential energy. (Friction in the winding process produces some heat, so a careful accounting would put work done equals frictional heat energy plus spring potential energy. Work done equals change in the energy of the system.)
It depends entirely on what sort of clock it is. If it is one of the old wind up clocks with the bells on top, mechanical energy is converted into kinetic and sound. If it is an electrically powered clock, likely the energy would be electrical to sound (kinetic or EM).
You wind up a spring and a notched wheel makes the clock tick consistantly. the hands move with the mechanism to make the clock move a little bit every minute. (The spring is tightened when you wind it up) +++ The "notched wheel" is part of the "escapement", which does indeed control the speed, but the actual controlling influence in a mechanical clock is what that wheel drives and in turn returns the compliment by locking and releasing the wheel at a set rate. And that is the harmonic-motion properties of either a coiled spring attached to a miniature flywheel called the 'balance wheel', or of a pendulum.
Potential energy is stored in a wound up spring of a clock. This potential energy is transformed into kinetic energy as the spring unwinds and powers the clock's movements.
A wound up clock contains potential energy, specifically elastic potential energy stored in the wound-up spring inside it. As the spring unwinds, this potential energy is converted into kinetic energy, which powers the clock's movement.
first there were wind up clock, the battery opporated clock, and now electric clocks