Has Anyone Used the Pindom WF103-S 10KW Microwave Generator in Continuous Production?

We’re evaluating several 10KW microwave generators for a continuous ceramic drying project. One model we’re reviewing is the Pindom WF103-S.

The specifications look strong:

500W–10KW adjustable
Stability better than 0.5%
Water-cooled
2450MHz operation

What interests me most is the stability figure. In our current setup, output fluctuation causes uneven moisture removal across batches.

Has anyone here used the Pindom system in long-cycle industrial operation?
 
If you show your complete design, form of ceramic (composition, size of particles, etc), and preliminary test results, you might get some responses
 
We’re evaluating several 10KW microwave generators for a continuous ceramic drying project. One model we’re reviewing is the Pindom WF103-S.

The specifications look strong:

500W–10KW adjustable
Stability better than 0.5%
Water-cooled
2450MHz operation

What interests me most is the stability figure. In our current setup, output fluctuation causes uneven moisture removal across batches.

Has anyone here used the Pindom system in long-cycle industrial operation?
We evaluated the WF103-S for a pilot drying application, though not in full-scale ceramic production. The power stability was generally consistent, and moisture uniformity improved compared with older magnetron-based systems. That said, long-cycle performance often depends as much on cooling-water quality, load consistency, and cavity design as on the generator itself. I'd also be interested in hearing long-term user feedback.
 
We’re evaluating several 10KW microwave generators for a continuous ceramic drying project. One model we’re reviewing is the Pindom WF103-S.

The specifications look strong:

500W–10KW adjustable
Stability better than 0.5%
Water-cooled
2450MHz operation

What interests me most is the stability figure. In our current setup, output fluctuation causes uneven moisture removal across batches.
For continuous production, I’d be interested in long-term reliability data, maintenance intervals, and how stable the output remains under varying load conditions. Real-world user feedback is often more valuable than specifications alone. The same applies when selecting supporting electronic components, whether evaluating a microwave system or sourcing parts like W25Q128JVSIQTR for embedded control applications.
Has anyone here used the Pindom system in long-cycle industrial operation?
We have not used the WF103-S specifically, but in continuous drying applications, output stability is definitely a critical factor for maintaining uniform moisture removal. The quoted ±0.5% stability looks promising on paper. I’d be interested to know how it performs after extended operation, particularly regarding thermal drift, cooling efficiency, and consistency under varying load conditions.
 
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