Microchip-Tracking Devices

 

MICRO-ENERGY

For RFID - Tracking devices that cannot be pulled to recharge 

DESIGN. FOR TRACKING VOIDING KIDNAPPING 

Microchip-Tracking Devices

MORE THAN AUTOMATICS 

Automatic watches are mechanical timepieces that self-wind using the wearer's natural wrist movement, eliminating the need for a battery. A metal weight called a rotor spins with arm motion, tightening a mainspring that stores energy to power the gear train and escapement. They run continuously when worn regularly, typically offering a 1–2 day power reserve. 

Key Components of an Automatic Watch

• Rotor: A semi-circular metal weight that pivots freely, using gravity and motion to turn gears.

• Mainspring: The power source, coiled tighter by the rotor's movement to store energy.

• Gear Train: Transfers energy from the mainspring to the escapement.

• Escapement & Balance Wheel: Regulates the release of energy, creating the ticking sound and controlling accuracy.

• Slipping Mainspring: A mechanism that prevents overwinding by allowing the spring to slip once fully wound. 
How They Work (Step-by-Step)

• Motion: As the wearer moves their arm, the rotor spins inside the case.

• Winding: The rotor drives gears that wind the mainspring, storing kinetic energy as mechanical potential energy.

• Power Transfer: The mainspring slowly unwinds, releasing energy through the gear train.

• Regulation: The escapement releases this energy in precise, steady impulses, allowing the hands to move.

• Operation: The movement continues as long as the wearer moves, or for a "power reserve" period after being taken off. 

Key Considerations

• Maintenance: While they don't need batteries, they require periodic cleaning and oiling of internal components to maintain accuracy.

• Power Reserve: The duration a watch can run without being worn is typically 38 to 48 hours, though some exceed 70 hours.

• Alternative Winding: If not worn enough, they can be wound manually via the crown or stored in a "watch winder".

• Recognition: Automatic watches usually have a smooth sweeping second hand, no battery, and often feature a transparent case back. 


MOBILE PHONE

No, a conventional automatic watch cannot power a mobile phone. 

Here is the breakdown of why this is not possible:

• Energy Generation vs. Consumption: Automatic watches are powered by a mainspring that is wound by the kinetic energy of your wrist movement. They require an incredibly small amount of energy to operate, often running on a few microwatts. In contrast, a smartphone requires thousands of times more power to operate its screen, radios, and processor.

• Mechanical vs. Electrical Energy: Automatic watches use mechanical movements (gears and springs). To charge a phone, that kinetic movement would need to be converted into electricity via a dynamo (generator), and the amount of energy generated by normal arm movement is not nearly enough to charge a phone battery.

• Capacity Difference: The energy stored in an automatic watch's mainspring is roughly equivalent to a few hundred millijoules, while a smartphone battery holds thousands of times more energy.

• Magnetization Risk: Placing a phone (which contains magnets) directly against a mechanical watch can actually magnetize the watch parts, causing it to run inaccurately. 

Tissot +7

The Exception: Smartwatches
If you are referring to a smartwatch (not a traditional mechanical watch), some models feature "Wireless PowerShare" (such as Samsung Galaxy Watches), allowing them to share power with a phone, though this is only effective for a very small top-up.

26 K.T - CIG