CR2016 Batteries
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CR2016 batteries provide reliable 3V power to microelectronics.
The compact and extremely thin CR2016 lithium button batteries generate a stable 3V current output with a minimal case thickness of only 1.6 mm. With 80mAh capacity, this format is CRitically necessary for devices whose design does not provide space for bulky power elements, such as miniature pacemaker monitors, thin gate remotes, and electronic bookmarks. The high-density steel casing prevents physical damage risks and isolates the lithium chemistry from moisture. The fixed 5-year shelf life gives full confidence in the long-term investment in reliability.
Physical and technical advantages:
- 80mAh resource: For long-term performance in thin gate remote models.
- Constant flow: Does not overload the equipment's electronic circuit.
- 1.6 mm height: Specially designed for ultra-compact niches.
Stable energy flow makes this power format an integral part of modern and thin devices. If a more compact diameter (16 mm) is required for high-consumption sensors, choose the CR1632 Batteries standard. Safety standards require the use of only certified and tested elements in the equipment. Properly selected components that meet technical specifications significantly extend the operating cycle of the hardware in extreme working conditions. Careful selection of materials and engineering during the manufacturing process ensure maximum reliability and safety in all technical application scenarios. This analytical approach is fundamental to today's demanding industrial needs, where there is no room for error and where energy efficiency is always a primary requirement for any reliable system. This allows for significant resource savings in the long run, guaranteeing safety.
Q: What are the IEC parameters of the CR2016 battery and its unique form factor advantage?
Q: Why are two CR2016 batteries often connected in series in laser pointers or mini flashlights?
Q: How does a lithium CR2016 behave during prolonged daily wear on the wrist (e.g., in thin watches)?
Q: Is it safe to carry a loose CR2016 spare battery in a pocket along with metal keys?
Q: Can a CR2016 battery technically be placed in a single CR2032 socket by filling the empty space with folded foil?
A: The CR2016 is 20.0 mm in diameter, but its thickness reaches only 1.6 mm, providing 90 mAh capacity. This is the thinnest of the standard 20.0 mm series elements, specifically designed for ultra-thin door access chip cards (RFID/NFC) and flat quartz wristwatches.
Q: Why are two CR2016 batteries often connected in series in laser pointers or mini flashlights?
A: By stacking two 1.6 mm thin CR2016 elements one on top of the other, a 3.2 mm thickness with a doubled 6.0V (3V+3V) voltage is created in the device's socket. This solution provides a higher initial voltage for starting regular LED light diodes or laser amplifiers, unlike a single CR2032 (3V), even though the thickness of both options (3.2 mm) is identical.
Q: How does a lithium CR2016 behave during prolonged daily wear on the wrist (e.g., in thin watches)?
A: The thin profile (1.6 mm) means a smaller volume of chemical reactants (90 mAh), so it will power large watch mechanisms for a significantly shorter time. However, the low self-discharge of the VIDEX CR2016 lithium element makes it perfectly suited for ultra-thin stepper motors, ensuring years of chronometer operation even with low capacity.
Q: Is it safe to carry a loose CR2016 spare battery in a pocket along with metal keys?
A: A loose coin cell battery, whose wide (+) and (-) poles come into contact with metal objects (keys, coins), will cause an instantaneous short circuit. As a result, the 3.0V lithium element will massively overheat in a few minutes and may even deform the outer steel shell, therefore spares must always be kept in insulated packaging.
Q: Can a CR2016 battery technically be placed in a single CR2032 socket by filling the empty space with folded foil?
A: Such DIY methods are extremely dangerous in microelectronics because the foil, although filling the 1.6 mm gap, creates high contact resistance and heating under load. Furthermore, it does not guarantee a stable electrical circuit, which in smart devices (e.g., bank authentication calculators) can cause data corruption or memory loss.
