Engineering Note #005
- Juan Colomba

- 33 minutes ago
- 3 min read
Every Laboratory Has Constraints. The Best Investment Is Finding the Right One.
Every laboratory operates withi constraints. Budget, throughput, available space, staffing, existing infrastructure, quality requirements, regulatory expectations, data, technology maturity, and supplier relationships all influence what a laboratory can realistically implement.
These constraints are not necessarily problems to eliminate. They are part of the system, and understanding them is one of the most important steps in making a sound engineering decision.
The Most Advanced Solution Is Not Always the Best Solution
Laboratory technology is moving quickly. New instruments, automation platforms, software, and digital tools can create significant value, but technology only creates that value when it fits the environment where it will operate.
A solution that performs exceptionally well in one laboratory may be unnecessary, difficult to implement, or poorly suited to another. A higher-throughput instrument may look like an obvious improvement, for example, but if sample volume does not justify the additional capacity, the laboratory may simply be paying for capability it does not use.
The same principle applies to automation. An advanced automation platform can reduce manual work, but if the surrounding workflow is unstable or poorly defined, automation can reproduce those problems at a higher level of complexity. A technically capable system can also become a poor investment if it cannot integrate effectively with existing infrastructure, data systems, staffing, or quality requirements.
Capability alone does not determine value. Fit does.

Start With the Constraints
Before asking “What technology should we buy?”, a better question is “What are we trying to improve, and what constraints define the solution?”
That shift changes the decision-making process. Instead of starting with a catalog of available technologies, teams can start with the laboratory itself and examine how the system actually operates.
What does the current process look like? Where is capacity actually being lost? What resources are available? What cannot reasonably change? Which requirements are non-negotiable? What needs to improve now, and what needs to remain flexible for the future?
These questions establish the boundaries within which the right solution can be found.
Constraints Create Better Engineering Decisions
Constraints are often viewed negatively, but engineers work with constraints every day. A bridge has load requirements. A manufacturing line has a defined footprint. A medical device has regulatory requirements. A facility has limitations in utilities, infrastructure, and available space.
Laboratories are no different. The goal is not to remove every constraint, but to understand which ones matter most and design around them.
Once those boundaries are understood, tradeoffs become easier to evaluate. Solutions can be compared not only by specifications, but also by total cost of ownership, expected utilization, implementation complexity, integration requirements, operational impact, quality requirements, scalability, maintenance, support, and long-term flexibility.
This creates a much more useful question than “Which system is the best?” It becomes “Which system is the best fit for this laboratory?”
Technology Should Serve the Laboratory
This becomes increasingly important as laboratory technology becomes more sophisticated. There is always another platform, another instrument, another software solution, or another opportunity to automate.
But adding technology is not the same as creating value.
Sometimes the right answer is a new instrument. Sometimes it is automation. In other cases, the highest-value improvement may be better sample management, a workflow change, improved data visibility, or a relatively simple process improvement.
And sometimes the best engineering decision is recognizing that nothing needs to be replaced yet.
That decision requires just as much engineering judgment as selecting a new system because it requires understanding what the laboratory actually needs rather than simply responding to what technology can offer.
Fit Is a Form of Optimization
The objective should not be to maximize technology. It should be to maximize value within the laboratory’s reality.
That means balancing what the laboratory needs with what it can realistically support. The best solution may not have the highest throughput, the most features, or the newest technology. It may simply be the solution that solves the right problem, within the right constraints, with the right level of complexity.
This is where engineering becomes more than technology selection. It becomes the process of understanding a system, identifying the variables that matter, evaluating the available tradeoffs, and making a decision that remains defensible beyond the initial purchase.
The Right Investment
Every laboratory has a different combination of requirements, limitations, resources, and opportunities. There is no universal solution that will perform equally well across every environment.
The right investment is therefore not necessarily the most advanced technology available. It is the solution that creates meaningful value within the laboratory’s operational, technical, financial, and organizational reality.
Understanding those constraints allows teams to make better decisions, avoid unnecessary complexity, and direct resources toward improvements that actually matter.
Good engineering does not begin with the technology. It begins with understanding the system.
COLOMBA Biomedical LLC
Engineering Solutions. Empowering Life.
Laboratory Workflow & Engineering | Equipment & Technology Sourcing | Laboratory Supplies & Consumables



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