YOU THINK PRODUCING LEAD OXIDE FOR BATTERIES IS EASY?
Think again. If you’re aiming for top-tier batteries,
the SECRET is in the details.
Uncover all about CAM LEAD OXIDE PRODUCTION and take your
battery manufacturing to the next level
CAM Lead Oxide Production
is the CAM cutting-edge system designed to extend the
lifespan and enhance the performance of your lead battery
UNIQUE ADVANTAGES
π₯β ONLY lead oxide with tetragonal structure: This ensures a bond between grid and mass that lasts over time
πβ Acid absorption = (230 – 260) mg H2SO4/g PbO: NOT comparable to Barton Oxide values
πβ Automatic start-up: Your operator will only have to press the START button and wait 2 hours to collect the lead oxide and perform the analysis
π·π»β Ease of operation: You do NOT need an expert operator. Thanks to the CAM Method you can put anyone to operate a CAM ball mill
πβ Grain Size (guaranteed !) < 44 microns
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Isn’t it time to BREAK FREE from the constraints of lead oxide production and unlock your batteryβs full potential?
Dear Manager,
With over 40 years of experience in the lead battery industry, CAM has an in-depth understanding of the challenges associated with lead oxide production. Inconsistent oxide characteristics, irregular production rates, and fluctuating chemical parameters have been longstanding issues that significantly impact downstream processes.
These inconsistencies often lead to various problems, including green patches on plates,
suboptimal battery charging, and diminished overall performance.
Recognizing these limitations, CAM made a strategic decision to focus specifically on Ball Mills and lead oxide production. Instead of offering a wide range of equipment found in battery plants,
we have concentrated our efforts on addressing the root causes of these issues.
We believe it is unacceptable for an entire battery manufacturing plant to be reliant on the expertise of a single operator. If that individual is unavailable, the entire production process can grind to a halt. Similarly, outdated milling equipment can compromise the quality of the final product.
To overcome these challenges, CAM has developed the MOP BAll Mills.
These state-of-the-art machines produce exclusively tetragonal lead oxide and are fully automated, ensuring consistent and high-quality output. Our advanced systems guarantee that the oxide maintains its superior characteristics over time.
By addressing the lead oxide bottleneck, CAM offers a solution that can significantly improve the quality, reliability, and efficiency of your battery production. Our MOP Mills provide the following advantages:
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Consistent oxide quality: Tetragonal lead oxide ensures optimal battery performance.
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Automated production: Eliminates human error and increases productivity.
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Reliable and durable: Advanced systems guarantee long-term performance.
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Reduced downtime: Minimizes disruptions caused by equipment failures or operator unavailability.
We invite you to learn more about how CAM’s MOP Mills can revolutionize your lead oxide production.
Please feel free to contact us to schedule a demonstration or discuss your specific needs.
How to optimize your lead batteries starting with the right lead oxide
The production of lead oxide is one of the fundamental parts of a plant
Lead oxide can have two types of molecular structures:
β orthorhombic
β tetragonal
Tetragonal lead oxide has a much higher acid reactivity than orthorhombic oxide.
In lead battery production, Β the orthorhombic content should not exceed 15%, but if you want a high performance battery, you need to avoid orthorhombic lead oxide.
Comparison between ball mill and Barton oxide
As can be seen in the chemical/physical characteristics of Barton and MOP mill oxide, it is clear that it
isΒ NOT advisable to use absolute thermal oxide
for the manufacture of positive plates, as itβs not very reactive and doesnβt guarantee good curing during the cycle.
This is determined by the fact that there is:
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no reaction between the stable oxide and the interstices of the crystals, consequently during curing, there will not be a βbindingβ effect on the support and electrical conduction alloys.
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All this creates a layer of air between the grid and the mass, negatively influencing the formation, thus requiring greater energy consumption for the formation of the plates themselves.