What Procurement Needs to Know from the Lab Before an Order Is Placed

“How quickly is the lab actually using what it orders?”

Most procurement teams are working from historical order frequency, meaning they reorder when someone asks, or when a standing order comes due, or when a researcher notices the shelf is empty. None of those signals reflect how fast material is actually being consumed under current conditions.

Consumption velocity, the real usage rate per week or per experiment cycle, is the number that determines whether a bulk purchase makes sense, whether a smaller standing order should replace it, or whether usage has dropped so significantly that you're going to be staring at a shelf full of materials you no longer need.

When sample management software tracks sample quantities tied to active experiments, that data exists. The problem is that this data rarely gets surfaced to procurement in a structured, usable form.

A connected workflow changes that. Procurement can see not just "how much do we have" but "at what rate are we going through it, and what does that mean for timing?"

That's the difference between reactive replenishment and intelligent forecasting.

“Where is this material going to go?”

I've watched procurement teams place bulk orders for temperature-sensitive reagents without any confirmation that available freezer space exists. The materials arrive; the lab scrambles. Samples are moved to accommodate the new inventory. Storage maps become inaccurate. Some materials end up in suboptimal conditions and compromise downstream work.

Storage availability is a real operational constraint, and it's a data point that exists in lab inventory systems, provided those systems are being maintained accurately. With SciSure, storage units, compartments, and capacity are trackable down to the position level. But that data doesn't automatically feed into a procurement workflow unless the systems are connected.

For high-volume labs, this is especially critical. Knowing that a -80°C freezer is 90% full before ordering another pallet of frozen materials is a hard operational requirement, not a nice-to-have. With the right tools, you can also track expired samples or chemicals in real-time, so you can maintain accurate inventory within your Maximum Allowable Quantities (MAQ) and energy consumption limits.

“Do we have stock of this item, and how long does it have before it expires?”

Procurement decisions can end up creating the most silent waste when reordering materials that are already in stock but are approaching expiration.

This happens more than most labs want to admit. You have a standing order for a reagent. The order triggers. The new batch arrives. Somewhere in a different storage unit sits the original stock, which was only partially consumed, and which has an expiration date six weeks out. Nobody connected those two facts. Now you have excess material with a short shelf life; the new stock won't be touched until the original is depleted (if the lab is diligent), and the likelihood of a disposal event is climbing.

Expiration data is something SciSure tracks natively at the sample and container level, with automated reminders and visual warnings configurable around approaching dates.

But that information has to be visible to procurement, or at minimum to a LabOps manager who is part of the procurement approval workflow, before the order is confirmed, not after it arrives.

“How hazardous is this material and where should it be stored?”

Not every lab operates under the same chemical safety rules. Not every facility has the same storage infrastructure. And not every procurement decision accounts for what it actually takes to receive, store, and use hazardous material safely. This is where the EHS side of the conversation becomes procurement relevant.

For example, if a lab is ordering a new flammable solvent, does procurement know that the receiving space is already at or near its MAQ for flammables? If a controlled substance is being reordered, has the required regulatory documentation been confirmed? If a chemical requires segregated storage away from oxidizers, is that space available and properly configured?

SciSure's Health & Safety features (including ChemTracker) maintain container-level chemical inventory with hazard classification, storage location, regulatory data, and SDS records. That's the system of record for what's in the lab and what regulatory obligations apply to it. When procurement is operating without access to that context, they're placing orders into a compliance environment they can't see.

A connected procurement-to-EHS workflow means that hazard requirements and current inventory quantities inform the order before it's placed, not after a safety officer flags an issue during a quarterly inspection.

Regulatory Status and Controlled Substance Tracking

Certain materials carry procurement requirements beyond standard ordering workflows. Controlled substances, select agents, radioisotopes, and other regulated materials require authorization records, purchase approvals, usage logs, and in some cases direct reporting to regulatory bodies.

In disconnected systems, these requirements are managed through a combination of manual checks, email chains, and institutional memory. Someone in procurement knows which items require sign-off. Someone in the lab knows that the authorization is current. Someone in compliance knows when the reporting window is. But nobody has a live view of all three simultaneously.

In a connected system, radioisotope and controlled substance workflows are designed to tie authorization status, order history, and usage records together within a governed system. That integration means procurement can verify regulatory status before an order is placed, reducing the risk of ordering a material whose authorization has lapsed, whose usage is approaching a threshold, or whose documentation trail has a gap.