Home / Laboratories / Wine Chemistry Laboratory

Upgrading a Wine Chemistry Laboratory

A practical planning guide for safer sample flow, better analytical work, right-sized furniture, utilities and storage—from harvest intake through release decisions.

Wine chemistry laboratory with black work surfaces, wood casework, island benches and fume hoods

One-way

Sample flow

Separated

Wet and instrument zones

Point-of-use

Utilities and storage

Documented

Methods and change control

Start the Upgrade With the Wine Test Menu—not a Furniture Catalog

Distillery process laboratory with white casework, black countertops and open reagent shelving
Real distillery process-lab photography recovered from the staging page

A wine chemistry laboratory supports decisions throughout production: grape and must evaluation, fermentation monitoring, cellar adjustments, stability work, blending, bottling and investigation of out-of-specification results. The most useful upgrade begins by listing those decisions, the methods behind them and how quickly each result is needed.

The test menu determines the room. Routine pH, acidity, density or soluble-solids work has a different footprint from chromatography, trace-metals analysis or other specialized methods. TTB’s current beverage alcohol methods show that official work can involve technologies ranging from volumetric and gravimetric procedures to GC, UHPLC and ICP-MS. The OIV compendium likewise spans physical analysis, sugars, alcoholic strength, acids, pH and many other wine and must methods.

That range is why a generic list of benches is not a design program. For every method, record the instrument, sample-preparation steps, reagents, waste, water, gases, power, data connection, ventilation, operator space and environmental sensitivities. Then decide whether the result belongs in-house or with an outside laboratory.

Build a method-to-space matrix

  • Decision: What production, quality or release choice uses this result?
  • Method: What current written procedure governs the analysis?
  • Frequency: How many samples arrive during normal operations and harvest peaks?
  • Preparation: What weighing, dilution, heating, filtration or glassware steps come first?
  • Services: What water, drainage, electrical, gas, exhaust, network and waste connections are required?
  • Quality controls: Where will standards, blanks, duplicates, controls and retained samples live?
  • Turnaround: Which results must stay close to production, and which can be outsourced?

A regulatory threshold can change the reporting workflow

TTB states that wines sold in the United States containing 10 ppm or more sulfur dioxide must carry a “Contains Sulfites” statement, and describes laboratory-report requirements for certain less-than-10-ppm labeling situations. The room layout cannot validate a result; the current method, quality system, qualified staff and applicable submission process do that.

Plan a Clear Sample Path Through the Laboratory

A strong wine lab layout makes the normal sequence obvious: receive and identify the sample, prepare it, perform the method, review the result, retain or dispose of the material, and clean the work area. Crossing that route with glassware washback, reagent restocking or visitor traffic creates avoidable congestion and mix-up risk.

Wine and beverage quality laboratory with black counters, white cabinets and open shelvingReceiving & Sample TriageKeep intake out of the analytical lane. Provide a landing space for bottles, labels, chain-of-custody records and temporary racks so incoming samples do not crowd calibrated instruments.
Dedicated instrument counter in a distillery laboratory with computer and stainless steel caseworkInstrument & Data ZoneProtect stable work. Give balances, spectrophotometers and other instruments the utilities, ventilation, service clearance and computer space called for by their manuals.
Laboratory perimeter bench with sink, microscope, shelving and daylightWet Chemistry ZoneGroup water-dependent work. Locate sinks, glassware handling, titration supplies and compatible wet-process surfaces together while keeping splashes away from electronics.
Distillery quality laboratory with central island benches, sinks and overhead shelvingPreparation & Batch WorkUse flexible island benches. A clear central zone supports sample splitting, racks and seasonal throughput without turning permanent instrument counters into overflow space.
Laboratory furniture and casework layout with work surfaces and chemical storageReagent & Supply StorageSeparate by compatibility and use. Tall general storage, below-counter cabinets and purpose-designed hazardous-material cabinets perform different jobs; one cabinet type should not be used for everything.
Bright chemistry teaching and testing laboratory with wood casework and black countertopsReview, Training & Write-UpMove clean tasks away from chemistry. A dedicated review area protects records and computers, gives technicians a place to check SOPs, and reduces traffic through active procedures.

Design for harvest peaks without oversizing every bench

Wine sample volume is rarely flat through the year. Instead of covering the room with permanent casework, identify which tasks expand during crush and which instruments remain fixed. Mobile or reconfigurable preparation tables, movable racks and open staging positions can absorb temporary volume while keeping service-intensive instrument benches stable.

Keep the aisles and emergency routes clear at peak volume. Temporary sample racks need assigned parking positions; otherwise, the floor, sink edge and instrument counter become unofficial storage. A drawing should show people, carts, open cabinet doors, pulled-out stools and service access—not just countertop rectangles.

Lay out your current room before selecting casework

Use the Lab Layout Designer to place benches, equipment and support rooms, then send the plan to our team for a furniture, utility and workflow review.

Open the Lab Layout Designer Design a Lab Bench Call (800) 326-4403

Choose Work Surfaces and Casework by Task

Close view of a black laboratory work surface with integrated sink and backsplash
Surface, sink and backsplash details must be selected together

The existing page treated phenolic resin as a universal answer and repeated an unsupported heat figure. The better approach is a station-by-station compatibility review. List every reagent and cleaner, expected contact time, heat source, impact load, sink cutout and edge condition. Ask the manufacturer for current technical data, then document the selected material in the project specification.

It is also reasonable to use more than one material. A wet chemistry run may justify a robust resin surface, while a dry computer station does not. Stainless steel may suit a wash or sanitation-focused zone, while a balance or instrument location may be driven more by rigidity, vibration and service access than by splash resistance.

Surface Good starting point Why teams consider it Verify before specifying
Phenolic resin Routine wet chemistry and general analytical benches when the compatibility review supports it Moisture resistance, relatively light panels, clean appearance Confirm reagent, cleaner, heat and seam compatibility; do not treat a generic rating as universal
Epoxy resin Chemistry benches exposed to demanding reagents, sinks or repeated wet work Broadly specified for durable, nonporous laboratory work surfaces Heavy; field modifications and support details require planning
Stainless steel Wash areas, sanitation-focused work and selected instrument/support zones Cleanable, durable and compatible with fabricated sinks and splashes Can scratch or dent; verify compatibility with chlorides and cleaners
Chemical-resistant laminate Dry, light-duty write-up, computer and selected instrument areas Cost-effective and available in many finishes Not a substitute for a chemistry-grade surface at wet or aggressive-reagent stations

Casework details that matter in daily wine testing

Laboratory wood casework with black work surfaces and glass-front wall cabinets
Casework should support reach, visibility, cleaning and service access

Cabinet material is only one decision. Drawer depth should match the racks, pipettes, glassware and consumables it will hold. Doors and drawers must open without blocking an aisle or an adjacent operator. Removable backs or service chases should preserve access to plumbing and electrical work. Wall cabinets need a reachable mounting height and should not force technicians to work directly beneath stored bottles.

Use tall cabinets for general supplies that genuinely belong there—not as a catch-all for incompatible chemicals. Flammables, corrosives and other hazardous materials require storage selected for the inventory and the Chemical Hygiene Plan. Keep frequently used, low-risk consumables at point of use, and move bulk backstock out of the analytical room when practical.

Wine labs also handle many small, easily confused items. Full-extension drawers, adjustable dividers, clear location labels and dedicated spaces for clean versus used glassware reduce searching and make restocking visible before harvest volume arrives.

Full-height laboratory storage cabinets with locking doors and organized chemical bottlesGeneral & Retained-Sample StorageSize shelves to the actual bottles and bins. Give retained samples a defined location, date rule and disposal workflow rather than mixing them with active reagents.
Mobile laboratory worktable and perimeter casework from an MH-USA project photoFlexible Preparation TablesMobile or adjustable tables can support seasonal prep, but casters, utilities, equipment stability and the final parked position all need to be resolved.
Stainless steel laboratory casework, sink, countertops and mobile worktableIntegrated Wet BenchesCoordinate sink material, basin size, faucet reach, drying space, traps, neutralization needs and splash protection with the procedures performed there.

Coordinate Ventilation, Chemical Hygiene and Emergency Equipment

Benchtop chemical fume hood with sash, controls and segregated base cabinets
Chemical fume hood selection must follow the hazard assessment and ventilation design

Wine is a food and beverage product, but wine chemistry can still involve hazardous reagents, volatile materials, heated procedures and corrosives. Where OSHA’s laboratory standard applies, 29 CFR 1910.1450 requires a written Chemical Hygiene Plan that addresses procedures, equipment, personal protective equipment and work practices. The plan—not a furniture brochure—should guide hazard controls.

A chemical fume hood is a containment device for work with hazardous airborne contaminants. A snorkel or local capture arm can be useful for a localized source when a qualified assessment supports it, but it is not automatically interchangeable with a hood. Canopy exhaust, room ventilation and recirculating devices also serve different purposes. Select the control from the procedure and exposure assessment, then coordinate supply air, exhaust, discharge, controls and commissioning.

Do not place a hood where doors, supply diffusers or heavy cross-traffic can disrupt its operation. Preserve sash and service access, and do not use the hood as permanent chemical storage. The owner’s EHS team and qualified ventilation professionals should establish use, testing and maintenance requirements.

Emergency planning must be visible in the floor plan

OSHA 1910.151(c) requires suitable quick drenching or flushing facilities within the work area where eyes or body may be exposed to injurious corrosive materials. The hazard assessment and applicable standards determine the exact equipment and placement. In design review, show the travel path with doors, carts and stools in their real operating positions; a fixture symbol is not enough if the route can be blocked.

  • Chemical inventory and compatibility-based storage plan
  • Current Safety Data Sheets and a written Chemical Hygiene Plan where applicable
  • Ventilation basis for each hood, arm or other control—plus commissioning and maintenance access
  • Emergency eyewash/drenching evaluation, unobstructed routes and inspection responsibilities
  • Defined hazardous-waste accumulation, labeling and removal workflow
  • Fire protection, egress and accessibility review by the responsible professionals and AHJ
  • Spill-response materials selected for the actual chemicals, with staff training

Upgrading a hood, sink or reagent-storage wall?

Send the current plan, equipment list and chemical inventory. We can coordinate the casework and work surfaces with your EHS team, mechanical engineer, trades and authority having jurisdiction.

Request a Laboratory Quote Open the Layout Designer Call (800) 326-4403

Make Sample Quality and Repeatable Work Easier

Automation is not automatically an upgrade. A small wine lab often gains more from disciplined sample identification, consistent timing, stable instruments and organized standards than from a complex handler built for a different sample format. Automate a defined bottleneck only after the manual process is controlled and the method allows it.

Laboratory perimeter casework and instrument station from an MH-USA Google Drive project photo
A dedicated instrument and data counter keeps sensitive work out of wet traffic

Separate preparation from sensitive measurement

Grinding, vigorous mixing, washdown, foot traffic and carts can disturb balances and sensitive instruments. Give measurement stations stable support and the environmental conditions required by the manufacturer. Put heat-producing equipment where its load can be managed, preserve ventilation openings, and leave enough room for service panels to open.

Utilities should terminate where the equipment needs them without creating hoses or cords across the operator path. Review dedicated circuits, backup power needs, network connections, purified water, drains, gases and waste before casework fabrication; relocating them after installation is expensive and disruptive.

Turn SOPs into physical organization

A written procedure is easier to follow when the room mirrors it. Use fixed locations for standards and controls, consistent rack orientation, distinct clean and used-glassware areas, and labels that match the method. Provide a protected place to review calculations and enter results without carrying paper or laptops through wet chemistry.

  • Identity: unique sample ID, source, lot/tank and collection time stay with every aliquot
  • Method status: staff can see the current approved procedure and revision
  • Calibration: standards, checks and maintenance materials have assigned storage
  • Exceptions: repeats, dilutions, deviations and out-of-specification work have a defined hold area
  • Records: raw data, calculations and result approval are protected from splash and mix-ups
  • Retention: retained samples have a location, condition, owner and disposal date
  • Housekeeping: end-of-run cleaning returns each station to a known-ready state

Use the current method revision

TTB notes that methods are updated as technology evolves or matrices change, and directs users to its Methods and Procedures page for current versions. Treat a lab renovation as a controlled change: review method impacts, qualify moved equipment, update SOPs and train staff before releasing routine results.

A Practical Wine Laboratory Renovation Sequence

1

Audit the Current Lab

Document tests, seasonal volume, bottlenecks, incidents, equipment, utilities, storage and building constraints.

2

Build the Program

Translate each method into zones, adjacency, services, environmental needs and casework requirements.

3

Coordinate the Design

Review layout, ventilation, emergency equipment, accessibility, trades, permits and shutdown phasing.

4

Install & Return to Service

Protect active operations, complete trade connections, commission systems, qualify equipment and update SOPs.

Installed laboratory casework and chemical fume hood from an MH-USA project photo
Real MH-USA/Google Drive laboratory project photography showing installed casework and hood

What to capture during the field survey

Start with a dimensioned plan, but do not stop there. Photograph every wall, utility drop, floor penetration, hood connection and access route. Record ceiling height, door and elevator constraints, panel clearances, shutoff locations and which systems cannot be interrupted during production.

Create an equipment schedule with dimensions, weight, heat output, voltage, plug, gas, water, drain, exhaust, network and service-clearance requirements from current manuals. Mark what stays, moves, is replaced or is planned for the next phase. This schedule is the bridge between the scientific program and the architect, engineer, casework supplier and trades.

Finally, define return-to-service acceptance before demolition begins. Furniture can be visually complete while ventilation, utilities, software or instrument qualification remains open. Assign an owner to every check and decide what evidence is required before routine samples resume.

Plan the transition, not just the finished room

If the winery must keep testing during construction, identify a temporary lab and validate that it can support the required methods. Protect samples and standards from dust, temperature excursions and unauthorized access. Schedule utility outages around production decisions, and separate contractor traffic from active analytical work. When phasing adds more risk than it removes, a planned shutdown may be the better operational choice.

Bring us the test menu and the room—not just a cabinet count

We can help translate methods, equipment and seasonal workflow into a coordinated laboratory layout, bench configuration, storage plan and installation scope.

Request a Laboratory Quote Start a Lab Layout Call (800) 326-4403

Standards and Method Resources Used for This Guide

These sources establish method and safety context; the project team must confirm the current edition, applicability and local requirements for the actual facility.

Wine Chemistry Laboratory Upgrade FAQs

What should a winery test in-house?
Start with the decisions the winery must make quickly and repeatedly. Many programs keep routine process checks such as pH, acidity, density or soluble-solids work close to production, while sending specialized, low-frequency or regulatory analyses to a qualified outside laboratory. The correct split depends on the wine program, staff competence, method, instrumentation, quality system and reporting need.
Is phenolic resin always the best countertop for a wine laboratory?
No single work surface is best for every wine lab. Phenolic resin can be a practical option for many wet and chemical-use benches, but the selection must be checked against the actual acids, bases, solvents, cleaners, temperatures, impact loads and seam details in the lab. High-heat or especially aggressive work may call for epoxy resin, stainless steel or another specified surface.
Does every wine chemistry procedure require a fume hood?
No. A chemical fume hood is selected from the hazard assessment, procedure and exposure potential, not from the industry label. Some localized nuisance or low-hazard tasks may use another engineering control, while volatile, corrosive or otherwise hazardous chemistry may require a properly designed hood. The Chemical Hygiene Plan and qualified EHS/design professionals should govern that decision.
How much bench space should be reserved for future instruments?
Reserve space from a documented equipment plan rather than a generic percentage. Record each instrument’s footprint, service clearances, access panels, heat output, vibration sensitivity, utilities, waste route and computer needs, then add realistic capacity for the tests the winery plans to bring in-house.
Can a laboratory remain operational during renovation?
Often, but only with a phased plan. Define temporary testing locations, protect active samples, isolate dust and noise, schedule utility interruptions, and qualify moved or reinstalled instruments before returning results to production. A short shutdown may be safer and faster than trying to work around every trade.
What information is needed to design a wine chemistry lab?
Provide a dimensioned plan, test menu, sample volume by season, equipment list, reagent and waste inventory, staff count, utilities, ventilation information, emergency-equipment needs, storage needs and future-growth plan. Photos and service manuals help identify constraints that a floor plan alone will miss.

Plan a Wine Lab Around the Work It Must Perform

Send us the room plan, test menu, equipment schedule and photos. We will help develop a practical layout, bench and casework package, storage plan and installation scope—and coordinate it with your design, EHS and facilities teams.

Headquartered in Salt Lake City, UT • Serving customers nationwide
Local service areas: Salt Lake City • Provo • Ogden • Park City • St. George • Logan • Lehi • Orem