The Real Math: Lab TI, HVAC Costs, and Decommissioning
Space: 3,000 SF wet lab (BSL-2 capable)
Location: Life sciences cluster (Boston/Cambridge, SF Bay Area,
Research Triangle, San Diego comparable market)
Lease term: 7 years NNN
Base rent: $65/sf/yr NNN (life sciences market rate)
Annual base rent: $195,000
COMPARISON 1: TENANT IMPROVEMENT ALLOWANCE
Standard office TI (comparable Class A): $70/sf
Dry lab TI: $120/sf
Wet lab TI (BSL-2 capable): $250/sf (midpoint)
BSL-3 lab TI: $500/sf (midpoint)
Tenant's 3,000 SF at $250/sf wet lab TI: $750,000
Landlord TI allowance offered: $200/sf = $600,000
Tenant gap funding required: $50/sf = $150,000
(above-standard TI funded by tenant; amortized in lease)
vs. Office tenant same space at $70/sf TI:
Office TI: $210,000
Lab TI premium over office: $540,000
Lab TI premium as factor: 3.6× office TI
COMPARISON 2: HVAC OPERATING COST PREMIUM
Standard office HVAC: 3 ACH
Wet lab HVAC: 8 ACH (moderate wet lab)
Incremental ACH: 5 additional air changes/hour
HVAC Energy Calculation:
3,000 SF lab at 12-foot ceiling height
Lab volume: 36,000 cubic feet
Air volume at 8 ACH: 36,000 × 8 = 288,000 CF/hr
At 3 ACH (office): 36,000 × 3 = 108,000 CF/hr
Incremental air: 180,000 CF/hr = 50 CFM/SF
Energy to condition 180,000 CF/hr (heat + cool + humidity):
Annual average: $0.04–$0.065/CF/hr/year (energy cost)
Annual HVAC premium: ~$20/sf/yr at mid-estimate
Annual premium for 3,000 SF: $60,000/yr
NNN HVAC PREMIUM IN LEASE:
This $20/sf/yr HVAC premium shows up in NNN
operating expense pass-throughs — not base rent
7-year cumulative HVAC premium: $420,000
(3% annual escalation: ~$490,000 over 7 years)
COMPARISON 3: DECOMMISSIONING AT LEASE END
BSL-2 wet lab (3,000 SF) decommissioning:
Surface decontamination (benches, walls, floors): $8,000
Biosafety cabinet decontamination/certification: $3,500
Autoclave/equipment decontamination: $2,500
Drain system decontamination: $4,000
Chemical/biological waste disposal: $12,000
Fume hood internal decontamination: $5,000
Biosafety officer certification documentation: $5,000
Contingency (unknown biological inventory): $10,000
TOTAL BSL-2 DECOMMISSIONING: $50,000
(range: $25,000–$75,000 for 2,000–5,000 SF BSL-2 lab)
vs. Standard office surrender: $2,000–$5,000
(broom clean, patch & paint, minor repairs)
Decommissioning premium over office: $45,000–$70,000
TOTAL 7-YEAR LIFE SCIENCES PREMIUM vs. OFFICE
TI gap (above standard office TI): $540,000
HVAC operating premium (NNN): $490,000
Decommissioning premium: $50,000
Base rent premium (lab vs. office per SF): varies
TOTAL INCREMENTAL COST OF LAB vs. OFFICE: ~$1,080,000
(for a 3,000 SF, 7-year wet lab lease)
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This is why life sciences real estate is expensive —
and why lease terms that seem minor in office contexts
have enormous financial consequences in lab leases.
Life Sciences Space Type Comparison
| Factor | Standard Office | Wet Lab (BSL-2) | Dry Lab / Computational | BSL-3 Facility |
|---|---|---|---|---|
| TI cost range (2026) | $60–$80/sf (Class A market); $40–$60/sf (Class B) | $200–$350/sf; highly variable based on infrastructure starting point and scope of services | $100–$150/sf; mainly electrical, telecom, cooling, floor load reinforcement | $400–$600+/sf; containment construction, specialized HVAC, airlock entry systems, security |
| HVAC air changes per hour | 1–4 ACH; comfort cooling; recirculated air acceptable | 6–12 ACH minimum; 100% outside air (no recirculation); makeup air for fume hood exhaust | 4–8 ACH; may recirculate with filtration; server cooling may be dedicated split systems | 12–15+ ACH; 100% outside air; negative pressure relative to adjacent areas; HEPA-filtered exhaust; N+1 redundancy required |
| Energy cost (HVAC premium) | Baseline; $3–$6/sf/yr for standard HVAC in NNN lease | $15–$25/sf/yr above office baseline; 100% outside air conditioning dramatically increases energy consumption | $8–$15/sf/yr above office; server cooling load is significant but lower than wet lab ACH requirement | $25–$40/sf/yr above office; highest energy cost of any commercial space type per SF |
| Plumbing requirements | Restrooms and break room only; standard fixtures | Floor drains; DI water systems; multiple laboratory sinks with gooseneck faucets; emergency eyewash and shower; autoclave drain; potentially sanitary drain decontamination system | Standard restroom plumbing; no floor drains; no specialized lab plumbing | All wet lab requirements plus: sealed drain systems with biological kill treatment; no direct connection to sanitary sewer without treatment; autoclave drain with dedicated waste treatment |
| Electrical requirements | 4–8 W/sf power density; 100A typical suite service | 15–30+ W/sf; dedicated circuits for centrifuges, −80°C freezers, PCR equipment, analytical instruments; 200–400A suite service | 20–40+ W/sf for computing; 200–600A; UPS-backed circuits for critical compute; raised floor access for cable management | 20–30 W/sf plus generator backup for all critical circuits; redundant electrical feeds (N+1); automatic transfer switch <10 second transfer |
| Backup power requirements | Life safety only (emergency lighting, exit signs); tenant equipment typically unprotected | −80°C freezers (critical — loss of power = loss of irreplaceable samples); CO2 incubators; HVAC for BSL containment; access control systems | Critical compute infrastructure; network equipment; UPS for immediate protection; generator for extended outages | All wet lab requirements as mandatory; full facility backup (100% of circuits) required for containment integrity; fuel storage for 72–96 hours minimum |
| Decommissioning cost at lease end | $2,000–$8,000; broom clean, minor repairs, standard painting | $25,000–$75,000; biological and chemical decontamination; BSO certification; waste disposal; fume hood cleaning | $5,000–$20,000; primarily cable removal, floor void cleaning, equipment deinstallation | $100,000–$300,000+; comprehensive facility decontamination; CDC/NIH notification; specialized contractors; regulatory certification |
| Vibration tolerance | Standard structural vibration acceptable; no sensitive instrumentation | Moderate sensitivity; most analytical instrumentation requires VC-B or VC-C rated floors; electron microscopes require VC-D or VC-E | Server equipment generally tolerant of vibration; optical storage or precision test equipment may require isolation | Same as wet lab; vibration isolation critical if high-resolution microscopy or precision instrumentation is in use |
BSL Classifications and Their Lease Implications
Biosafety Level 1 and 2: Standard Life Sciences Research
The majority of academic, biotech, and pharmaceutical research is conducted at BSL-1 or BSL-2. BSL-1 laboratories work with well-characterized biological agents not known to cause disease in healthy adults (E. coli K12 strain, Bacillus subtilis, common cell culture lines); BSL-1 requirements are basic: no specialized containment, standard laboratory practice, and personal protective equipment. Most academic teaching labs and basic cell culture facilities operate at BSL-1. BSL-2 laboratories work with agents of moderate potential hazard — many human pathogens and viruses that are associated with human disease but present limited serious risk from exposure in a well-managed lab setting (HIV, Hepatitis B, Salmonella, MRSA). BSL-2 requirements include: limited access (signed and locked); biosafety cabinets (Class II BSCs) for procedures that may generate aerosols; decontamination capabilities (autoclave); personal protective equipment (lab coats, gloves, eye protection); and a facility biosafety officer responsible for oversight. The lease implications for BSL-2: the use provision must explicitly authorize BSL-2 operations; the landlord must consent to biosafety cabinet exhaust connections to the building's exhaust system; and the decommissioning standard at lease end must be specified — including the requirement for a written certification from a qualified biosafety officer that all biological materials have been properly neutralized and the space is safe for general contractor access.
Biosafety Level 3: High-Containment Research
BSL-3 laboratories work with potentially lethal agents that may be transmitted by aerosol route — including Mycobacterium tuberculosis, SARS-CoV-2 variants, West Nile virus, and other agents that pose significant infection risk via inhalation. BSL-3 requirements are substantially more demanding and impose profound lease implications. Physical containment requirements: the BSL-3 laboratory must be separated from general building areas by a double-door entry with anteroom decontamination capability; all penetrations (electrical conduit, plumbing, HVAC ductwork) must be sealed to maintain air pressure differentials; the HVAC must maintain negative pressure relative to adjacent areas at all times (directional airflow inward to contain potential aerosols); exhaust air must pass through HEPA filters before release. The lease must address: the landlord's obligation to maintain the building systems (particularly the exhaust system) necessary for BSL-3 containment; emergency response procedures for HVAC failure (which creates a containment breach); CDC and NIH registration and inspection requirements; and the dramatically higher decommissioning standard (comprehensive facility decontamination by specialized contractors, regulatory notification, independent certification). BSL-3 facilities are rarely built in multi-tenant commercial buildings — the infrastructure requirements and regulatory oversight typically require purpose-built or substantially modified spaces, often under long-term leases (10–20 years) with landlords who specialize in life sciences real estate.
Fume Hood Exhaust: The HVAC Challenge
How Fume Hoods Work and Why They Complicate HVAC
A laboratory fume hood is a ventilated enclosure designed to limit chemical exposure for researchers working with volatile, toxic, or odorous compounds — by maintaining inward airflow across the hood's sash opening, capturing chemical vapors and exhausting them directly to the building's exhaust system (and then to the atmosphere, after any required treatment). A standard 6-foot fume hood operating at proper face velocity (60–100 LFM) exhausts approximately 500–800 cubic feet per minute (CFM) of air continuously. The critical HVAC consequence: every CFM of air exhausted by fume hoods must be replaced by conditioned make-up air from the HVAC system. A laboratory with 4 operating fume hoods may require 3,200 CFM of dedicated make-up air — air that must be conditioned (heated in winter, cooled in summer, dehumidified in summer) at significant energy cost. This make-up air requirement drives the high ACH requirement and the high energy costs that define laboratory HVAC. The lease implications: fume hood exhaust connections to the building's exhaust system must be specified in the TI work letter (dedicated exhaust risers, duct capacity); the HVAC must be designed to provide adequate make-up air without depressurizing the laboratory; and the tenant's maximum fume hood count (which determines maximum exhaust and make-up air requirements) may be an explicit lease parameter that cannot be exceeded without landlord approval and potential HVAC upgrades.
Variable Air Volume Fume Hood Controls
Modern laboratory HVAC systems use Variable Air Volume (VAV) controls to adjust airflow dynamically based on fume hood sash position and lab occupancy — reducing exhaust (and make-up air conditioning) costs when hoods are not in use. A VAV system can reduce a laboratory's HVAC energy consumption by 30–50% compared to a constant volume system — a significant operating cost savings over a 10-year lease term. The lease should specify whether the installed HVAC system is VAV or constant volume; VAV systems are more expensive to install but generate substantial lifecycle operating savings that compound over a multi-year lease term. Life sciences tenants with significant fume hood usage should negotiate for VAV systems in the TI work letter and understand the NNN energy cost implications of VAV vs. constant volume HVAC before accepting a lease with an above-market energy cost allocation.
Vibration Isolation for Sensitive Instrumentation
Understanding Vibration Criteria (VC) Curves
The Vibration Criteria (VC) curves — developed by BBN Technologies and widely used in life sciences real estate — classify vibration levels in terms of root mean square velocity across the frequency range most relevant to sensitive equipment. VC-A (50 µin/s) is adequate for most optical microscopy and general laboratory instrumentation. VC-B (25 µin/s) is required for high-resolution optical microscopy and precision analytical balances. VC-C (12.5 µin/s) is required for electron microscopes and advanced confocal systems. VC-D (6 µin/s) is required for atomic force microscopes, NMR spectrometers, and other ultra-high precision instruments. Standard commercial buildings — even well-constructed Class A office buildings — typically achieve VC-A or borderline VC-B in the best locations; achieving VC-C or VC-D requires either purpose-built vibration-isolated slabs (expensive) or supplemental isolation systems (active or passive isolators installed under specific equipment). The lease must specify the vibration specification the landlord commits to provide in the tenant's space, the landlord's obligation not to install vibration-generating equipment (rooftop HVAC, elevators, mechanical equipment rooms) adjacent to vibration-sensitive areas, and the tenant's right to install supplemental isolation without structural modification concerns.
Backup Power for Critical Laboratory Equipment
Why Labs Cannot Tolerate Power Interruption
A standard office tenant whose power goes out loses productivity; the damage is measured in work hours. A life sciences tenant whose power goes out may lose irreplaceable biological samples — years of research, compounds worth hundreds of thousands of dollars, or clinical trial material that cannot be regenerated on any timeline. Ultra-low temperature (ULT) freezers operating at −80°C cannot tolerate power interruptions longer than 30–60 minutes without beginning to warm to temperatures that compromise biological sample integrity. CO2 incubators maintaining cell cultures at controlled atmospheric conditions are similarly sensitive. A biobank with decades of clinical specimens may represent irreplaceable scientific and financial value. The practical implication: backup power for life sciences labs is not a luxury — it is a basic operational requirement. The lease must specify: generator capacity (kW) dedicated to the tenant's critical circuits; automatic transfer switch response time (maximum 10 seconds for ULT freezers; ideally instantaneous via UPS bridge); circuits covered by emergency power (enumerate ULT freezers, CO2 incubators, biosafety cabinets, critical HVAC); fuel type (diesel or natural gas) and fuel supply security; scheduled testing frequency (monthly generator tests and quarterly full-load tests are standard); and landlord liability for failure to maintain backup power systems that results in loss of tenant samples or materials.
Chemical Storage and Hazardous Materials Provisions
NFPA Compliance and Maximum Allowable Quantities
Fire codes (NFPA 30, NFPA 45, and local amendments) establish Maximum Allowable Quantities (MAQs) of hazardous materials that can be stored in a single "control area" — a defined portion of a building. Exceeding MAQ thresholds triggers requirements for additional fire suppression, different occupancy classification (which affects the building's use group and may require major code upgrades), and specific storage containment systems. Life sciences tenants must understand MAQ limitations before committing to chemical inventories in their labs — and the lease's permitted use provision and any chemical storage annex must reflect realistic inventory needs. Common MAQ issues in life sciences leases: a tenants solvent inventory (flammable liquids: NFPA Class IA, IB, IC) may approach or exceed NFPA 30 limits for the control area; a tenant working with oxidizers (hydrogen peroxide, potassium permanganate) has separate MAQ limits that may conflict with flammable liquid storage; compressed gas storage (nitrogen, CO2, oxygen) has separate MAQ calculations. Negotiate for a chemical storage annex to the lease that specifies maximum inventory quantities by hazard class, acceptable storage methods, and the process for requesting landlord approval for inventory increases beyond the base allowance.
6 Red Flags in Life Sciences Lab Leases
🛑 Red Flag 1: Use Provision That Limits Operations to "General Laboratory Use" Without Specifying BSL Level
A use provision authorizing "general laboratory use" or "scientific research" without specifying the approved BSL level leaves the tenant in a precarious position: any biosafety upgrade beyond what the landlord considers "general" may be argued as a lease violation. BSL-2 operations — which are standard for most pharmaceutical, biotech, and academic research — should be explicitly named in the use provision. The permitted use should specify: "research laboratory operations at BSL-1 and BSL-2, including biological and chemical research, use of biosafety cabinets and fume hoods, and handling of hazardous materials in compliance with applicable regulations." Ambiguous use provisions in lab leases are not minor drafting issues — they are the basis for lease default claims if the landlord later decides the tenant's operations exceed the approved use.
🛑 Red Flag 2: Decommissioning Standard Defined as "Landlord's Reasonable Satisfaction" Without Objective Criteria
A decommissioning provision that requires the tenant to surrender the space to "landlord's reasonable satisfaction" — without specifying the biosafety officer certification standard, the sampling/testing protocol for biological contamination, or the chemical waste disposal documentation required — gives the landlord indefinite leverage over the decommissioning process. "Reasonable satisfaction" can always be withheld, delaying the tenant's deposit return and creating liability for holding over. Negotiate for an objective decommissioning standard: written certification from a qualified biosafety officer that all biological materials have been decontaminated; hazardous waste manifests documenting proper disposal of all chemical waste; specific surface wipe testing protocols with defined pass/fail thresholds; and a time limit (e.g., 30 days) within which the landlord must either accept the certification or specify in writing the deficiencies requiring remediation.
🛑 Red Flag 3: NNN Operating Expense Cap That Excludes HVAC Costs
Many NNN leases impose a cap on controllable operating expense increases — protecting tenants from unlimited escalation of CAM charges. However, these caps frequently exclude utility costs (energy) and HVAC maintenance — the two largest incremental cost categories for life sciences tenants relative to office tenants. A laboratory tenant who signs a NNN lease with an operating expense cap that excludes HVAC costs has no protection against energy cost escalation for the high-ACH HVAC system that is fundamental to the lab's operation. Negotiate for operating expense caps that apply to all NNN expenses (including energy and HVAC maintenance) or negotiate for a direct utility metering arrangement that removes HVAC energy from the NNN structure entirely.
🛑 Red Flag 4: Backup Power Provisions That Cover Only Life Safety Systems (Not Laboratory Equipment)
Standard commercial leases require landlords to provide backup power for "life safety systems" — emergency lighting, exit signs, fire alarm panels, and elevators. This standard is wholly inadequate for life sciences tenants: −80°C freezers, CO2 incubators, and critical HVAC are not "life safety systems" under standard building code definitions, so they are not included in the landlord's backup power obligation absent specific negotiation. A lease with no specific laboratory backup power provisions leaves critical equipment unprotected during power outages. Negotiate for explicit backup power provisions that enumerate the tenant's critical equipment circuits, specify generator capacity and automatic transfer time, and hold the landlord liable for losses arising from failure to maintain specified backup power systems.
🛑 Red Flag 5: Fume Hood Exhaust Capacity Limitation Without Clear Expansion Path
Many lab leases (and building HVAC designs) specify a maximum exhaust capacity for the tenant's space — typically expressed in CFM or number of fume hoods. This limitation reflects the building's exhaust riser capacity and HVAC make-up air capability. If the limit is set below the tenant's anticipated needs, the tenant is constrained in adding fume hoods as research programs scale — a serious operational limitation for growing life sciences companies. A maximum fume hood provision that has no expansion mechanism — no pathway to additional exhaust capacity even at the tenant's expense — can throttle a company's growth regardless of rent ability to pay. Negotiate for a clear fume hood capacity baseline, a process for increasing capacity with tenant-funded HVAC upgrades (subject to landlord reasonable approval), and a landlord commitment to design the building's HVAC with headroom for lab tenant growth.
🛑 Red Flag 6: No Vibration Specification in the Lease for Precision Instrumentation Users
A life sciences tenant who relies on electron microscopy, NMR spectroscopy, atomic force microscopy, or other vibration-sensitive analytical instrumentation — and who signs a lease with no vibration specification — has no contractual basis to complain if the building's vibration levels render sensitive equipment inoperable. Without a specified VC curve (e.g., VC-C or VC-D for electron microscopy areas), the tenant cannot hold the landlord accountable for vibration caused by building systems, adjacent tenants, or construction activities that degrade instrumentation performance. Include vibration specifications for each laboratory zone that will house precision instruments, and negotiate a landlord obligation to maintain compliance with those specifications throughout the lease term — including during any adjacent construction or building renovation projects.
✅ 12-Item Life Sciences Lab Lease Checklist
- Specify the BSL level (BSL-1, BSL-2, or BSL-3) explicitly in the use provision: Do not accept a use provision that says "general laboratory use" or "research activities." Name the approved biosafety level. For BSL-2 operations, specify that biosafety cabinet installation, fume hood use, and handling of BSL-2 agents are included in the permitted use. For any planned BSL-3 work, negotiate the BSL-3 authorization separately — BSL-3 requires additional infrastructure commitments and regulatory approvals that must be addressed explicitly.
- Calculate the NNN HVAC energy premium before committing to the lease: Request the building's HVAC design specifications (ACH rate for the tenant's space), the HVAC energy cost history for comparable lab tenants, and any available submeter data for HVAC energy. The $15–$25/sf/yr HVAC premium is not a minor operating cost item — over a 7-year, 3,000sf lease, it represents $315,000–$525,000 in incremental energy costs vs. comparable office space. Model the full NNN lease economics including HVAC before comparing lab vs. alternative locations.
- Negotiate an objective, specific decommissioning standard with defined certification requirements: The decommissioning standard should specify: (a) written BSO certification for biological labs; (b) hazardous waste manifests for all chemical waste; (c) surface wipe testing protocol and pass/fail criteria for biological contamination; (d) a 30-day landlord acceptance period; (e) an objective dispute resolution mechanism if the landlord disputes certification adequacy. Do not accept "landlord's reasonable satisfaction" as the standard.
- Confirm backup power specifications cover all critical laboratory equipment: Enumerate specific equipment circuits requiring backup power in the lease: ULT freezers (−80°C), CO2 incubators, biosafety cabinets (for BSL-2 containment maintenance), critical HVAC zones, access control systems. Specify automatic transfer switch response time (≤10 seconds for ULT freezers), generator fuel capacity (minimum 72 hours), and testing schedule. Include landlord liability provisions for equipment losses from backup power system failure.
- Verify fume hood exhaust capacity and negotiate an expansion pathway: Confirm the maximum number of operating fume hoods the HVAC system supports for the tenant's space, the maximum CFM of exhaust available, and the process for increasing capacity if research programs require additional fume hoods. The expansion pathway should be tenant-funded but landlord-approved, with a defined reasonable approval standard (not discretionary denial).
- Specify vibration criteria (VC curves) for each laboratory zone: For each zone that will house precision instrumentation, specify the minimum VC curve the landlord must maintain. Include a pre-move-in vibration survey baseline, a right to conduct periodic vibration surveys at the tenant's expense, and a landlord obligation to remediate if post-survey results fall below specified VC levels due to building system changes or adjacent construction.
- Negotiate for VAV fume hood controls in the TI work letter: Variable Air Volume (VAV) control systems for fume hood exhaust reduce HVAC energy costs by 30–50% vs. constant volume systems. Require VAV controls as a base specification in the TI work letter — the incremental installation cost ($15,000–$30,000 for a typical wet lab) is recovered in HVAC energy savings within 1–2 years and delivers substantial NNN cost savings over a 7–10 year lease term.
- Review the chemical storage MAQ limits against your anticipated chemical inventory: Obtain NFPA 30/45 and local fire code MAQ calculations for your control area before executing the lease. If your research program requires flammable liquid storage exceeding MAQ limits, identify the additional fire suppression or occupancy classification changes required — and negotiate responsibility for those upgrades in the TI work letter before signing. Discovering MAQ compliance issues after lease execution can be expensive and time-consuming to resolve.
- Include a landlord environmental indemnity for pre-existing contamination: Confirm through Phase I and Phase II environmental site assessments (if warranted) that the leased space has no pre-existing chemical or biological contamination from prior tenants. Negotiate a landlord representation and warranty that the space is free of hazardous materials contamination as of lease commencement, with an indemnity obligation for any pre-existing contamination discovered during the tenancy. This protects the tenant from inheriting environmental liability for contamination it did not create.
- Ensure the TI work letter includes complete HVAC and plumbing specifications for lab operations: A TI work letter that specifies "laboratory HVAC as required" is not adequate. The work letter must specify: ACH rate, 100% outside air designation, fume hood exhaust capacity (CFM per hood), make-up air sizing, VAV controls, dedicated HVAC zones, DI water system (if applicable), floor drain locations and sizing, autoclave drain specifications, and emergency eyewash/shower locations. The level of specificity appropriate for a lab TI work letter is far higher than office TI — ambiguity in lab TI specifications becomes very expensive post-construction.
- Negotiate a sublease and assignment right appropriate for life sciences tenants: Life sciences companies — particularly early-stage biotechs — may need to sublease part or all of their space if programs are discontinued, partnerships change, or the company grows beyond the space faster than anticipated. The sublease provision should authorize subletting to affiliated companies and to other life sciences tenants without landlord consent (or with expedited consent); should permit subleasing of a portion of the lab as "shared lab" arrangements (common in life sciences clusters); and should not require the landlord's TI allowance to be recaptured on sublease. Life sciences subleases are common; a lease with a restrictive assignment provision will complicate a transaction that may be critical to the company's financial flexibility.
- Engage a life sciences real estate specialist and laboratory design consultant before signing: Life sciences lab leases are not a standard commercial practice area — they require specialized knowledge of biosafety regulations, laboratory HVAC engineering, chemical safety codes, and life sciences market dynamics. A broker who primarily handles office leases and an attorney who primarily handles general commercial transactions will miss critical provisions that a life sciences specialist would catch. The additional cost of specialized expertise ($8,000–$25,000 in legal and brokerage fees for a lab lease) is a fraction of the $50,000–$500,000 in costs that poorly negotiated lab lease provisions can create.
Frequently Asked Questions
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