1. Establish the current baseline
Start with the process you actually run today. Map the time between harvest, drying, curing, quality review, and release. Note where batches wait, where people handle material, and which steps create rework or loss. A useful baseline includes both the typical batch and the difficult batch.
Record current cycle times and losses from your own operations before comparing equipment claims. If those measurements are not available, identify who can collect them during a short discovery period. A projected improvement is only useful when its starting point is clear.
- Which product formats and batch sizes are in scope?
- What are your current time, loss, and quality measures?
- Where do microbial or mycotoxin concerns first appear in the workflow?
2. Describe the facility constraints
Document the rooms, available footprint, utilities, material flow, and access routes that a new unit would encounter. Include loading and unloading space, sanitation practices, and the people responsible for operating and maintaining equipment. An existing buildout may support an installation with limited construction, but the actual scope must be reviewed on site.
If the system will serve several sites, separate the requirements shared by all locations from the constraints unique to each building. That distinction helps avoid a configuration that works in one room but disrupts another operation.
- What space and utilities are available at each intended location?
- How will material enter and leave the process without mixing batches?
- Which installation windows or construction limits matter?
3. Define product-quality requirements
Specify the attributes that cannot be traded away for speed. Depending on your operation, these may include cannabinoid and terpene profiles, aroma, appearance, trichome condition, moisture, and handling characteristics. The list should reflect your product and customer requirements, not a generic equipment brochure.
Set a review method before running a pilot. Compare representative treated and control material using the same sampling and laboratory methods where practical. Keep records of batch condition and process settings so results can be interpreted.
- Which quality attributes will be measured, and by whom?
- What change would be unacceptable?
- How will you select representative batches for a trial?
4. Plan the evidence and release path
Post-harvest treatment does not replace good cultivation, harvest, sanitation, or quality practices. Define the microbial targets, test methods, documentation needs, and approval steps that apply to your material. Cold plasma primarily acts on exposed surfaces, so dense flower and internal contamination need particular attention in any evaluation.
Regulatory acceptance differs by jurisdiction and intended use. Ask your quality and regulatory advisers what they need to review before you rely on a new process for commercial release. Do not assume that a result from another product or system configuration transfers to yours.
- What evidence must your quality team see before release?
- Which local rules or customer requirements govern treatment?
- Who makes the final approval decision?
5. Turn the review into a pilot plan
A practical pilot states its question, material, configuration, operating parameters, measurement method, acceptance criteria, and decision owner. It also records labor, throughput, cleaning, maintenance, and operating interruptions, because an attractive laboratory result may not translate into a workable daily process.
Share this checklist with the NanoCure team before a facility conversation. The team can use the inputs to discuss a suitable configuration and a focused validation route rather than starting from a general product pitch.
- What would count as a successful pilot for your facility?
- Who will operate, document, and review it?
- Which cost, timing, and quality measures will determine the next step?
Review your process with NanoCure.
Tell us about your facility, material, target outcomes, and evidence needs. The team can help frame the next technical conversation.
Meet with a NanoCure engineer