ZapperZ said:
This now makes zero sense. What you just typed here has nothing to do with something being a metal, insulator, or semiconductor. Cesium is an alkali metal, yet Cs atoms are used in atomic clocks! Sand is mostly made up of quarts. Do you think sand is a conductor?
So what does being a conductor, insulator, or semiconductor has anything to do with having a natural frequency?
What is it that you are trying to find out here? If you want to know whether something is a conductor or insulator/semiconductor (the latter really is the same thing), then what's wrong with my suggestion at looking at the resistivity versus temperature behavior?
Zz.
A simple quartz watch costs only a few US dollars.
[PLAIN]http://cdn3.explainthatstuff.com/insidequartzwatch.jpg
Referring to following links,
http://www.explainthatstuff.com/quartzclockwatch.html,
http://www.explainthatstuff.com/piezoelectricity.html,
If you read this article, it makes sense if you know the connection how to make quartz crystal oscillate (vibrate), but I would like to know more about how current makes quartz crystal oscillate in term of its property of quartz crystal.
Does anyone know whether Quartiz crystal is conductor, insulator, or semi-conductor under different situations?
Does anyone have any suggestions on how quartz crystal behaves this way?
Thanks in advance for any suggestions
Inside a quartz clock
In theory, it works like this:
Battery provides current to microchip circuit
Microchip circuit makes quartz crystal (precisely cut and shaped like a tuning fork) oscillate (vibrate) 32768 times per second.
Microchip circuit detects the crystal's oscillations and turns them into regular electric pulses, one per second.
Electric pulses drive miniature electric stepping motor. This converts electrical energy into mechanical power.
Electric stepping motor turns gears.
Gears sweep hands around the clockface to keep time.