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This is a Design-Build Statement of Work for constructing new Airport Traffic Control Towers (ATCTs) at two locations: Lebanon Municipal Airport (LEB) in New Hampshire and Hartford-Brainard Airport (HFD) in Connecticut. The project is part of the Infrastructure Investment and Jobs Act and will be funded by the Federal Aviation Administration (FAA). The design-build contract requires creating modern, resilient facilities with comprehensive specifications covering architectural, structural, mechanical, electrical, and communications systems.

Key requirements include designing 7,283 square foot facilities with specific space allocations for administrative, technical, and operational areas, implementing advanced technology systems, ensuring high security standards (Facility Security Level 1), and meeting rigorous performance criteria. The facilities must be designed for a 50-year lifespan, comply with multiple industry standards and building codes, and include features like redundant mechanical systems, comprehensive fire protection, advanced communications infrastructure, and sustainable design elements. The FAA may offer incentive award fees for superior performance in areas such as quality, cost control, schedule adherence, innovation, and safety.

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DESIGN-BUILD

STATEMENT OF WORK

NEW AIRPORT TRAFFIC CONTROL TOWERS

LEBANON, NH (LEB)

HARTFORD CT (HFD)

Developed by:

FAA Boston Terminal Engineering

September 12, 2025

Federal Aviation Administration September 12, 2025 LEB HFD D/B Statement of Work

TABLE OF CONTENTS

Table of Contents

1.0 PROJECT DESCRIPTION

2.0 PROJECT GOALS

3.0 SITE ANALYSIS

3.1 EXISTING SITE CONDITIONS

4.0 BUILDING REQUIREMENTS

4.1 REQUIRED SPACES

4.2 SPACE RELATIONSHIPS

4.3 PARKING REQUIREMENTS

SECTION Z: ENGINEERING SYSTEMS REQUIREMENTS

Z10 GENERAL REQUIREMENTS

Z10.1 Design Guidance

Z10.2 Regulatory and Code Compliance

SECTION A: SUBSTRUCTURE

SECTION A10 FOUNDATIONS

SECTION A10.1 STANDARD FOUNDATIONS

SECTION B: SHELL

SECTION B10 SUPERSTRUCTURE

SECTION B20 EXTERIOR ENCLOSURE

SECTION B30 ROOFING

SECTION C: INTERIOR

SECTION C10 INTERIOR CONSTRUCTION

SECTION C15 INTERIOR SPACES

SECTION C20 STAIRS

SECTION C30 INTERIOR FINISHES

SECTION D SERVICES

SECTION D10 CONVEYING

SECTION D20 PLUMBING

SECTION D30 HVAC

SECTION D40 FIRE PROTECTION

TABLE OF CONTENTS

SECTION D50 ELECTRICAL AND ELECTRONIC SYSTEMS

SECTION D60 TELECOMMUNICATIONS (TELCO)

SECTION D70 SECURITY

SECTION E: EQUIPMENT AND FURNISHINGS

SECTION E10 EQUIPMENT

SECTION E20 FURNISHINGS

SECTION F: SPECIAL CONSTRUCTION AND DEMOLITION

NOT USED

SECTION G: SITE WORK

SECTION G10 SITE PREPARATIONS

SECTION G20 SITE IMPROVEMENTS

SECTION G30 CIVIL/MECHANICAL UTILITIES

SECTION G40 ELECTRICAL UTILITIES

SECTION G50 SITE COMMUNICATIONS & SECURITY

SECTION G60 AIRFIELD COMMUNICATIONS

SECTION H: WARRANTIES AND MAINTENANCE

SECTION I: SUBMITTALS

SECTION I10 DESIGN SUBMITTALS

SECTION I20 PREVENTIVE MAINTENANCE PLAN

SECTION I30 CONSTRUCTION SUBMITTALS

SECTION I40 OPERATIONS AND MAINTENANCE DOCUMENTS

PROJECT DESCRIPTION

1.0 PROJECT DESCRIPTION

The Federal Aviation Administration (FAA) seeks to partner with a Design-Builder (D-B) to design and construct two new Airport Traffic Control Towers (ATCTs) as part of Public Law No: 117-58 (11/15/2021) - Infrastructure Investment and Jobs Act.

The project involves the design and construction of a new Airport Traffic Control Tower (ATCT) in West Lebanon, NH and in Hartford, CT. The projects are mission-critical to the FAA as they will provide a modern, resilient, and efficient facility to ensure the safe and continuous management of air traffic operations at Lebanon (LEB) Municipal Airport and Hartford Brainard (HFD) Airport. Unless otherwise noted, all requirements described herein shall apply to both ATCT facilities.

The scope includes all services necessary for the planning, design, engineering, permitting, construction, commissioning and turnover of both ATCTs and associated site work. The facilities must be designed to meet or exceed all applicable federal, state, and local building codes.

1.1 Project Owner:

U.S. DOT Federal Aviation Administration

1.2 Facility Hours of Operation:

The LEB ATCT operates from 0600 to 2200, 7 days/week.

The HFD ATCT operates from 0600 to 2400. 7 days/week.

1.3 Contract Type:

The Government intends to require offerors to submit proposals for a Design-Build, firm-fixed-price contract for the construction of one or both of the LEB and HFD ATCT facilities. The FAA reserves the right to award contracts either separately for each individual facility or as a single combined contract covering both facilities.

1.4. Design-Build Contract Incentives:

The government reserves the right, at its sole discretion, to establish and authorize award fees as an incentive to the Design-Builder. Such award fees are being highly considered by the government and may be added to the contract to recognize and encourage superior performance in key areas, including but not limited to quality, cost control, schedule adherence, innovation, and safety. The criteria, amounts, and conditions will be defined upon contract award.

PROJECT DESCRIPTION

1.5. Project Key Stakeholders

The following list includes the minimum required stakeholders to be part of this contract.

A. FAA Stakeholders:

a) Project Management:

• LEB ATCT Terminal Construction Project Lead

• HFD ATCT Terminal Construction Project Lead

b) Design Team Reviewers: Architecture, Civil, Structural, Mechanical/Plumbing, Electrical, Fire Protection, Telecommunications, Communications, EOSH, Security, HFD/LEB End Users

c) Construction/Installation Field Team: Resident Engineer (CORs), Discipline Specific Subject Matter Experts, End Users

d) LEB and HFD ATCT Technical Operations Service Support Center (SSC) and Air Traffic

Facility

B. Non-FAA Stakeholders:

a) Third Party Commissioning Provider -The FAA will acquire the services of a third-party commissioning provider during the project execution.

C. Design-Builder

a) Architect/Engineer Design Firm

b) Design Project Manager

c) Construction Project Manager

d) Quality Control Manager(s)

e) Superintendent

f) Safety Officer

g) Subcontractors

h) Suppliers

PROJECT GOALS

2.0 PROJECT GOALS

The FAA aims to achieve the following goals in this project:

1. Safety and Operational Continuity Design and construct the ATCT in a manner that ensures safety for all staff and air traffic operations, minimizing disruption to ongoing airport and airspace activities.

2. Resilient and Code-Compliant Design Provide a facility that is resilient to extreme conditions, including hurricane- force winds, seismic loads, and flooding. Ensure compliance with FAA Orders and Standards, as well as industry standards and applicable building codes.

3. Cost Control and Value Optimization Deliver the project within the authorized budget while applying value engineering principles to reduce lifecycle costs and enhance operational efficiency.

4. On-Time Delivery Complete the project in accordance with the approved Design-Build schedule, supporting timely commissioning, certification, and transition to operational use by FAA personnel.

5. High-Quality Workmanship and Materials Achieve superior construction quality, using durable materials suited to the Middle Georgia environment, and ensure ease of long-term maintenance.

6. Security and Technology Integration Provide a facility that integrates advanced technology systems and meets physical security and cybersecurity standards for critical infrastructure.

7. Collaboration and Innovation Foster an integrated Design-Build team that leverages innovation, Building Information Modeling (BIM), and proactive coordination to mitigate risk and enhance project delivery.

8. Single-Source Accountability Provide a streamlined process where design and construction teams work together, reducing conflicts and miscommunication between stakeholders and establishes clear roles and responsibilities for all parties involved.

9. Seamless Commissioning & Post-Construction Support

PROJECT GOALS

Ensure a smooth transition from construction to occupancy. Conduct thorough testing and commissioning of building systems, and collaborate with the FAA’s third-party commissioning team.

10. Facility Maintenance Design for maintainability of critical systems and components by selecting durable, high-quality, and low-maintenance materials and finishes.

Include facility maintenance for all systems for 3 years post commissioning.

SITE ANALYSIS

3.0 SITE ANALYSIS

3.1 EXISTING SITE CONDITIONS

The LEB ATCT site is on airport-owned land, leased to the FAA

The LEB site is approximately 1.5 acres with a geometry as shown below. The new ATCT building is located NW of the existing terminal and will be accessed via a newly constructed driveway stemming from the terminal parking area loop.

LEB Geotechnical Engineering Report will be provided for the Design Builder’s use.

The site is located at the Lebanon Municipal Airport (LEB), West Lebanon, New Hampshire and the address is TBD.

Aerial View LEB Airport

SITE ANALYSIS

The HFD ATCT site is on airport-owned land, approximately 1 acre, leased to the FAA.

HFD Geotechnical Engineering Report will be provided for the Design Builder’s use.

The site is located at the Hartford-Brainard Airport (HFD), Hartford, Connecticut.

Address is TBD.

BUILDING REQUIREMENTS

4.0 BUILDING REQUIREMENTS

4.1 REQUIRED SPACES

The following spaces are minimums to be provided for administrative, collaborative and operational uses.

ROOM FUNCTION

Space per Staff (SF)

Final Validated Staff Quantity

Allowable Space Estimate

(SF)

TERMINAL PERSONNEL

Air Traffic Manager 150 1 150

Air Traffic Control Specialists 0 6 0

Subtotal 150

TECHNICAL OPERATIONS PERSONNEL

ATSS Desk Space and Tech Library Room 160

ATSS Personnel on Site

Subtotal 224

AIR TRAFFIC SPACES

AT Room 150 1 150

Subtotal 150

TECHNICAL OPERATIONS REQUIREMENTS

Electronics Equipment Space 536 536

Electronics / Tech Ops Room

TELCO 64 64

Subtotal 973

ENVIRONMENTAL SUPPORT - MECH/ELEC SPACE

Electrical Equipment Space 912 912 Fire Pump Room 130 130 Fire Life Safety Electrical Room 160 160 Mechanical Equipment Space 1,244 1,244 Storage 300 300

Subtotal 2,746

JOINT USE & MISC. SUPPORT AREAS

Lactation Room (with sink) / quiet room

Collaboration Room 15 15 225 Janitor Closet 100 100 Storage 240 240 Womans Restroom 64 64 Mens Restroom 64 64 Lounge 15 15 225 Training Room 150 150

Subtotal 1,152

Circulation / Lobbies / Corridors, etc. 1,888

TOTAL ESTIMATED ATCT SPACE 7,283

4.2 SPACE RELATIONSHIPS

The Design-Builder must consider the following space relationships in a typical FAA facility when developing the space programing for the facility.

4.2.1 The control cab will be sized to 450 SF, to accommodate the structure below in the most efficient and effective manner. The Siting Report will provide the expected, cab orientation, column/mullion configuration, location, and floor elevation.

4.2.2 Additional Space Requirements:

Administrative Offices

1. Locate along on exterior wall to the maximum extent possible and provide windows in each room where feasible.

2. Locate near other administrative functions, copy room, library, etc.

Lounge

3. Locate along an exterior wall.

4. Locate in close proximity to Restrooms.

UPS Room

5. Locate on an exterior wall with minimum 4’-0” x 7’-6” wide door.

6. Provide minimum 6’ wide pathway from elevator to room.

7. Coordinate location and length requirements for regular use of a portable load bank to be temporarily staged on the paved exterior surface.

8. Design room for the installation of new equipment considering 15% additional equipment than required for existing building services.

Switchgear Rooms

9. Locate on an exterior wall, if possible, on the lowest level of the facility with minimum 4’-0” x 7’-6” wide door to the exterior.

10. Provide minimum 6’ wide paved walkway to parking lot or loading area.

11. Design room for the installation of new equipment considering 15% additional equipment than required for existing building services.

Main Mechanical Room:

12. Locate on an exterior wall (ideally in a corner location) and maximize the distance both horizontally and vertically from administrative areas.

13. Wall construction shall have a minimum STC 58. Vibration transmission to the building shall be minimized using isolation techniques.

14. Provide double 3’-0” x 8’-0” doors.

15. Design room for the installation of new equipment considering 15% additional equipment than required for existing building services.

Tech. Maintenance Storage:

16. Coordinate location with the local FAA.

17. Locate on an exterior wall with as direct access to the elevator as possible. Consider material handling procedures with relation to the exterior door and dock lift.

18. Provide double 3’-0” x 8’-0” high doors.

Fire Pump Room

19. Locate on ground level at an exterior wall. Provide minimum double 3’-0” x 8’- 0” high exterior doors.

Janitorial closets

20. Locate on all functional levels of the facility with the exception of those that only contain mechanical or electrical spaces and the Tower Cab.

TELCO and Lower Level LAN

21. Locate on ground level at an exterior wall.

Tape Playback and Debriefings Rooms. (AT Room)

22. The room must be acoustically treated to eliminate background noise and sound transmission. Minimum STC – 55, NRC- 0.85.

Electronic Equipment Room

23. Locate in close proximity with ease of cable access to the cable shaft of the tower.

24. Locate room so that 42”W x 84”H equipment racks can be moved from loading area to room. Consider equipment and material handling techniques through openings.

25. Provide cable pathways to exterior duct banks.

26. Provide with durable static dissipative floor tile. Design room for thirty- six

(36), 24” wide x 42” deep equipment racks. Minimum clear space between rack rows when both fronts are facing – 5’. Otherwise 4’ minimum clear space to wall or other equipment.

27. Align racks with cable tray and essential and critical electric ducts located overhead, directly above the racks. Provide ease of accessibility to cables.

28. Design rooms for strict and stable temperature and humidity control isolated from remaining areas of the facility as indicated.

29. Temperature: 73º F stable ± 2º F for periods of 6 hours minimum.

30. Temperature: 35% to 60% R.H. stable ± 5% for periods of 6 hours minimum.

Console Access Room

31. Locate directly beneath the tower cab is required to provide full access to the underside/backside of the tower cab consoles around the entire perimeter.

Cable Shaft

32. Install 2 – 18” wide x 6” deep galvanized cable tray from Equipment Room in shaft to console access room. Ensure cable tray is accessible.

4.3 PARKING REQUIREMENTS

LEB:

FAA site parking requirements call for a minimum of four (4) employee/visitor stalls, two (2) government-vehicle stalls, one (1) motorcycle and two (2) accessible stalls.

HFD:

FAA site parking requirements call for a minimum of ten (16) employee/visitor stalls, two (2) government-vehicle stalls, two (2) motorcycle and two (2) accessible stalls.

ENGINEERING SYSTEMS REQUIREMENTS

Z ENGINEERING SYSTEMS REQUIREMENTS

Z10 GENERAL REQUIREMENTS

The Statement of Work defines a baseline, not an exhaustive checklist. Offerors shall use their professional judgment to expand this baseline and price a turnkey, fully compliant Design-Build delivery. All labor, materials, equipment, studies, permitting, and commissioning—whether expressly noted or reasonably inferable—are the Design- Builder’s responsibility.

Z10.1 Design Guidance

All designs are site-specific and shall integrate the FAA Terminal Facilities Design Standard (TFDS), along with every applicable code or standard cited in the Regulatory & Code Compliance section including seismic analysis and design if necessary.

Minimum facility design life: 50 years with only routine maintenance.

A. Energy & Life-Cycle Performance Airport Traffic Control Tower (ATCT) systems shall be life-cycle-cost-effective and achieve ASHRAE 90.1 baseline values.

B. Equivalent Products Any named product, system, or detail that establishes a quality benchmark may be substituted with equal or superior alternatives, subject to FAA approval.

C. Existing-Condition Verification & BIM Verify all field dimensions and conditions. Coordinate every discipline to eliminate conflicts. Develop and maintain a BIM Project Execution Plan in accordance with the FAA BIM guide and Revit standards.

D. Environmental, Occupational Safety & Health The Design-Builder shall manage all EOSH requirements (OSHA, EPA, FAA Orders, local laws) across design and construction.

E. Quality Management Implement a QA/QC program covering submittals, inspections, testing, and certification. Provide documentation demonstrating that design, materials, and workmanship meet FAA and contract requirements.

F. Security Classification This project is Facility Security Level 1 (FSL-1) Critical Infrastructure (FAA Order 1600.69). Design all physical and electronic security according to security order requirements.

G. Unlisted Work Any work needed to complete a functional facility that is not explicitly stated shall still be executed in accordance with applicable codes, standards, and best practices.

H. Design Deliverables The Design-Builder is fully responsible for the accuracy and coordination of all drawings, specifications, calculations, and estimates, including those by sub-consultants. Follow TFDS and FAA Specifications provided.

I. Submittal Schedule & PPD Submit a detailed design-submittal schedule within 7 days of award and update as required. Because the FAA will not supply a sample PPD, the Design-Builder shall develop its own PPD format meeting TFDS Section 3.8 criteria.

J. Commissioning An independent CxA will be retained by the FAA. Provide all labor, testing, and coordination to support enhanced commissioning from design through acceptance.

Z10.2 Regulatory and Code Compliance

A. Work shall be performed in accordance with the requirements of the latest edition of the International Building Code (IBC) and NFPA 101 at the time of design, as well as all applicable requirements of the FAA Terminal Facilities Design Standard (TFDS), SECTION 12.7.(H), THE EGRESS REQUIREMENTS OF NFPA

101 TAKES PRECEDENCE OVER THE REQUIREMENTS OF THE IBC EGRESS CHAPTER

REQUIREMENTS. WHERE NFPA 101 DOES NOT ADDRESS A DESIGN OR

COMPLIANCE ISSUE, THE IBC EGRESS CHAPTER REQUIREMENTS SHALL APPLY.

B. The design developed by the Design-Builder, including all materials and workmanship, shall conform to the following primary documents/codes, as well as references to federal, state, and local regulations, industry standards, utility company regulations, and specific requirements (latest edition at the time of design) contained in each.

C. Building Codes and Standards International Code Council (ICC) standards o IBC, International Building Code, 2021 edition.

o IFC, International Fire Code, 2024 edition.

o IPC, International Plumbing Code, 2024 edition.

o IMC, International Mechanical Code, 2024 edition.

• American Society of Civil Engineers (ASCE) standards o ASCE 7, Minimum Design Loads and Associated Criteria for

Buildings and Other Structures, 2022 edition.

o ASCE 24, Flood Resistant Design and Construction, 2024 edition.

o ASCE 49, Wind Tunnel Testing for Buildings and Other Structures, 2021 edition.

• American Concrete Institute (ACI) standards o Building Code Requirements for Structural Concrete (ACI 318), 2019 edition.

o Guide to Design of Slabs-on-Ground (ACI 360), 2010 edition.

• American Institute of Steel Construction (AISC) Steel Construction

Manual, 16th edition, 2023.

• American Welding Society (AWS) Structural Welding Code – Steel

(AWS D1.1), 2020 edition.

• Precast/Prestressed Concrete Institute (PCI) Design Handbook (PCI

MNL-120), 2017 edition.

o The Masonry Society (TMS) Building Code Requirements and

Specification for Masonry Structure (TMS 402/602), 2022 edition.

o ACI 530-11/ACI5/TMS 402 BUILDING CODE REQUIREMENTS FOR

MASONRY

• National Fire Protection Association (NFPA) Standards o NFPA 1, The Fire Code, 2024 edition.

o NFPA 10, Standard for Portable Fire Extinguishers, 2022 edition.

o NFPA 13, Standard for the Installation of Sprinkler Systems, 2025 edition.

o NFPA 14, Standpipe and Hose Systems, 2024 edition.

o NFPA 20, Standard for the Installation of Stationary Pumps for Fire

Protection, 2022 edition.

o NFPA 22, Standard for Water Tanks for Private Fire Protection, 2023 edition.

o NFPA 24, Standard for the Installation of Private Fire

Service Mains and Their Appurtenances, 2022 edition.

o NFPA 70, National Electrical Code, 2023 edition.

o NFPA 70E, Standard for Electrical Safety in the Workplace, 2024 edition.

o NFPA 72, National Fire Alarm and Signaling Code, 2022 edition.

o NFPA 75, Standard for the Fire Protection of Information

Technology Equipment, 2024 edition.

o NFPA 80, Standard for Fire Doors and Other Opening Protectives, 2022 edition.

o NFPA 90A, Standard for the Installation of Air-Conditioning and

Ventilating Systems, 2024 edition.

o NFPA 92, Standard for Smoke Control Systems, 2024 edition.

o NFPA 101, The Life Safety Code, 2024 edition.

o NFPA 105, Standard for Smoke Door Assemblies and Other

Opening Protectives, 2022 edition.

o NFPA 110, Standard for Emergency and Standby Power Systems, 2025 edition.

o NFPA 241, Standard for Safeguarding Construction, Recommended Practice for Water Flow Testing and Marking of Hydrants, 2022 edition.

o NFPA 1225, Standard for Emergency Services Communications, 2022 edition.

• American Society of Heating, Refrigerating and Air Conditioning Engineers (ASHRAE) o ASHRAE 90.1, Energy Standard for Sites and Buildings Except

Low-Rise Residential Buildings, 2022 edition.

o ASHRAE 62.1, Ventilation and Acceptable Indoor Air Quality

Standard, 2022 edition.

o ASHRAE 55, Thermal Environmental Conditions for Human

Occupancy, 2023 edition.

o ASHRAE 52.2, Method of Testing General Ventilation Air-

Cleaning Devices for Removal Efficiency by Particle Size, 2017 edition.

o ASHRAE 135, BACnet™--A Data Communication Protocol for Building Automation and Control Networks, 2020 edition.

o ASHRAE 111, Testing, Adjusting, and Balancing of Building HVAC Systems, 2008 edition.

o ASHRAE 70, Method of Testing for Rating the Performance of Air Outlets and Inlets, 2023 edition.

• American Society of Mechanical Engineers (ASME) standards o ASME A17.1, Safety Code for Elevators and Escalators, 2022 edition.

o ASME A17.2, Guide for Inspection of Elevators, Escalators, and

Moving Walks, 2020 edition.

o ASME B16.18, Cast Copper Alloy Solder Joint Pressure Fittings

Standard, 2021 edition.

o ASME B16.22, Wrought Copper and Copper Alloy Solder-Joint

Pressure Fittings Standard, 2021 edition.

• ANSI (American National Standard Institute)/MSS SP-58, Pipe Hangers and Supports, Materials, Design, Manufacture, Selection, Application, and Installation.

• Sheet Metal and Air Conditioning Contractors' National Association (SMACNA), HVAC Duct Design and Construction Standards

• STEEL DECK INSTITUTE STANDARD PRACTICE DETAILS SP02

• Air Movement and Control Association International Inc. (AMCA), Product Rating Manual for Air Control Devices (AMCA 511), 2021 edition.

• Master Painters Institute (MPI) Architectural Painting Specification manuals and guides

• Department of Transportation Federal Highway Administration’s

(DOT/FHWA) Manual on Uniform Traffic Control Devices (MUTCD), 2023 edition

• Guiding Principles for Sustainable Federal Buildings and Associated Instructions of the Council of Environmental Quality, 2020 edition.

FAA Standards

• TFDS, FAA Terminal Facilities Design Standard, version 2.4.

• FAA Order 1600.69, FAA Facility Security Management Program

• FAA-C-1217, Electrical Work - Interior and Premises

• FAA-STD-002, Facilities Engineering Drawings Preparation

• FAA-STD-019, Lightning and Surge Protection, Grounding, Bonding and Shielding Requirements for Facilities and Electronic Equipment

• FAA Order JO 6950.2, Electrical Power Policy Implementation at

National Airspace System Facilities

• FAA Order JO 6950.27, Power System Studies

• FAA Order JO 6980.11, Maintenance of Engine Generators

• FAA Order JO 3900.76, Management of Indoor Air Quality (IAQ) at Air

Traffic Organization (ATO) Facilities

• FAA-C-1391, Installation, Termination, Splicing, and Transient/Surge

Protection of Underground Electrical Distribution System Power Cables

• FAA Order 1053.1, Energy and Water Management Program for FAA Buildings and Facilities

• FAA Order JO 3900.36 ATO Fall Protection Program

• FAA Order JO 3900.61A, Drinking Water Testing at Air Traffic

Organization Facilities

FAA Guidelines

• BIM Guide Version 5 – Development of BIM model

• BIM Project Execution Plan Version 1.0 Accessibility

• ABA, Architectural Barriers Act of 1968 Standards

• ADA, Americans with Disabilities Act of 1990 Standards Occupational Health and Safety

• Occupational Safety and Health Administration Regulations - Federal and State

• 29 CFR PART 1910 - OCCUPATIONAL SAFETY AND HEALTH STANDARDS

• 29 CFR PART 1926 - SAFETY AND HEALTH REGULATIONS FOR

CONSTRUCTION

D. Unless the solicitation includes more stringent requirements, applicable construction industry standards have the same force and effect as if bound or copied directly into the contract documents to the extent referenced.

E. Where FAA documents and other referenced documents have conflicting requirements, FAA documents must take precedence. In the event of a conflict between any of the other reference documents, the strictest requirement shall take precedence. The most stringent code applied will be at the discretion of the Lead project Engineer.

F. Requests for deviations from Standard Drawings, instructions, FAA criteria, or building codes must be submitted for review and approval in accordance with TFDS Section 2.4 – Deviation/Alternative Approach. Deviations from less stringent requirements are prohibited.

G. Attachments:

• Siting Reports: The FAA has conducted a siting study in accordance with TFDS

Section 7.1.4 – Siting Study. The Cab Orientation with precise coordinates for the proposed New ATCTs at each location is attached.

• Geotechnical Investigation: A geotechnical investigation has been conducted and the report is included in this solicitation to be used for bidding/informational purposes only.

• Standard Design Drawings: The information contained in the Standard Design Drawings is intended to convey standard concepts and design basis for the site-adapted design of airport traffic control towers (ATCTs) throughout various locations in United States and its territories. To the greatest extent possible, requirements indicated on the drawings reflect reasonable worst-case scenarios based on preliminary design criteria applicable for all locations throughout the United States.

As such, the intent is that basic configurations and details shown in these drawings will not require to be modified or changed as part of the site adaptation process for each site.

• The ATCT prototype in this drawing set is documented at the shortest height. The Standard Design Drawings are attached. The Cab floor Elevation for HFD and LEB are 80’10” AGL.

• Site Proposed Layout drawings: All existing underground utilities, structures and land features, shown on these drawings, are approximate and may not represent their complete extent. The Design-Builder shall be responsible for optimizing final layout, verifying exact location, depth, size, type and other relevant information of utilities, structures and land features on site and contacting the pertinent utility company or responsible authority to have all site structures and features located and marked.

SECTION A SUBSTRUCTURE

SECTION A: SUBSTRUCTURE

SECTION A10 FOUNDATIONS

Foundations shall be fully designed by the Design-Builder based on site-specific conditions. The Design-Builder is free to use the soils investigation reports furnished by the FAA for this purpose. If they choose to perform additional testing (for subsurface exploration, investigation, testing, and analysis for the design and construction of features such as the building foundations, pavement section(s), stormwater management facilities, and utility structure foundations), it will be at the Contractor's expense. Submit any reports including laboratory analysis of samples and recommendations for foundation and pavement design, signed and sealed by a registered Geotechnical Engineer.

Subsurface Soils Information Provided with RFP

Any provided subsurface soil information is included for the Contractor’s information only and is not guaranteed to fully represent all subsurface conditions. The data included in this RFP is to assist in proposal preparation and not to be used for design or construction of the new facility.

A10.1 STANDARD FOUNDATIONS

As determined by the Designer of Record to be applicable, provide a Standard foundation. "Standard Foundations" are shallow or deep foundations as specifically addressed in the International Building Code (IBC) Chapter 18.

A. The Design-Builder must assume that only the following may be located underground: Elevator pit and/or dewatering systems.

Any exterior walls below the ground floor level of the building, including walls that are below grade, elevator pits, and other pits shall be constructed of cast-in-place concrete or precast concrete. Provide waterproofing of all basement walls.

SECTION B SHELL

SECTION B: SHELL

SECTION B10 SUPERSTRUCTURE

1. The superstructure includes the framing system, elevated slab construction, roof construction, and catwalk.

2. All such equipment must be elevated above the base flood elevation in accordance with applicable local, state, and federal codes.

3. Provide the superstructure in accordance with the applicable codes in Section Z10 - General Requirements and all referenced standards and codes contained in each.

4. Design the superstructure to comply with or exceed the minimum loading criteria in TFDS Table 8-2. Design Loads and Events and any additional loads as required by design codes and guidelines.

5. Design must conform to Risk Category IV and other structural performance categories in TFDS Table 8-1. Structural Performance Levels and Categorizations and must be able to withstand the most critical load combinations in accordance with ASCE 7, TFDS, and IBC. Where conflicting loading requirements exist, the most stringent must apply.

6. Load assumptions, environmental load criteria, and design events must be specific to the location of the project, in accordance with IBC and ASCE 7.

7. Fire resistance rating requirements for all structural members shall comply with IBC Table 601. Fire resistance rating requirements for all exterior non-bearing walls must be site-specific and dependent on the fire separation distance, in accordance with IBC Table 705.5.

8. Provide catwalk access to the exterior of the cab of the ATCT per TFDS.

9. Provide a framing system as follows:

9.1. Provide a force-resisting framing system in accordance with loading requirements in ASCE 7 for a minimum design life of 50 years.

9.2. Materials must meet or exceed the minimum requirements in TFDS Section

8.7 – Structural Systems and Materials.

10. Provide elevated slab construction as follows:

10.1. The elevated slab construction shall meet or exceed the minimum requirements in TFDS Section 8.7 and Section 8.9-B – Elevated Slabs.

10.2. Elevated slabs must be supported by structural framing members meeting minimum loading requirements per ASCE 7.

10.3. The Design-Builder’s design team shall verify that the weight of selected and

Government-furnished equipment (GFE) does not exceed floor loading criteria and shall evaluate if the effect of such equipment exceeds any established criteria.

11. Provide roof construction as follows:

11.1. Provide reinforced concrete roof deck in accordance with TFDS Section

8.9-C - Roof.

11.2. All roof decks must be supported by structural framing members meeting the minimum loading requirements per ASCE 7.

11.3. Structural design of cab mullions shall minimize obstruction of the line of sight for air traffic control operations and allow concealment of service distribution components, including piping, conduit, and wiring in accordance with the requirements in TFDS Section 7.3.4 - Interior and Perimeter Columns, Section 8.8 – Control Cab Framing System, Section 12.9- F.

11.4. Provide a catwalk around the Control Cab, including guardrails, to allow for safe access for glazing cleaning, maintenance, and replacement in accordance with IBC, OSHA 1910 Subpart D Walking-Working Surfaces, and TFDS Section 7.3.8 – Catwalk and Section 8.6-D – Cab Catwalk.

SECTION B20 EXTERIOR ENCLOSURE

1. Provide a complete exterior enclosure—including all vertical and horizontal closures, doors, and windows—that deliver continuous air, water, vapor, and thermal control layers for the facility.

2. Applicable codes and standards include current editions of IBC, ASCE 7, NFPA 70, and ASHRAE 90.1 (cab glazing exempt from § 90.1 envelope). Additional references cited in Section Z10 – General Requirements.

3. Provide fire-resistance ratings no less than those in IBC Table 601.

4. Exterior non-bearing wall ratings shall be determined by site-specific fire-separation distances per IBC Table 705.5.

5. Exterior walls, roof, and fenestration assemblies shall, at a minimum, meet the envelope criteria of ASHRAE 90.1 for the project’s climate zone.

6. The following exterior enclosure items are to be incorporated in the design:

a) Cab glazing must follow FAA-provided Specification 08 88 58-ATCT Cab Glass.

b) The number and location of Cab Columns/Mullions will be provided by FAA in the site-specific Siting Report.

7. Provide exterior walls as follows:

7.1. Design must conform to Risk Category IV and other structural performance categories in TFDS Table 8-1. Structural Performance Levels and Categorizations and must safely withstand the superimposed applicable loads per ASCE 7, TFDS, and IBC. Where conflicting loading requirements exist, the most stringent must apply.

7.2. Marine-Environment Corrosion Restriction – Because the project site is classified as a C5 exposure per ISO 12944, exterior façade systems that rely on exposed metal skins, panels, or framing (e.g., aluminum or steel rainscreens, sheet-metal siding, corrugated metal panels, or similar metal cladding) are prohibited. All primary exterior cladding shall be: non-metallic, non-combustible, and inherently corrosion-resistant (such as precast concrete, GFRC, fiber-reinforced polymer, or other FAA-approved equal). The system shall provide a minimum 25-year service life without major repair or recoating.

7.3. Provide non-combustible exterior wall materials or assembly of materials to comply with or exceed the minimum requirements in IBC Chapter 14 and in accordance with requirements and restrictions in TFDS Chapter 6 – Architectural Enclosures.

7.4. Any exterior wall system must provide protection against site-specific weather phenomena and achieve continuity and full redundancy of critical control functions of enclosures (water, air, vapor, and heat flow control) to meet or exceed the minimum performance requirements in TDFS, ASHRAE 90.1, and federal, state, and local energy codes.

7.5. Exterior Painting and Special Coatings

Provide a complete exterior coating system that:

a) Durability & Exposure – Withstands a severe environment (ISO 12944

Category C5-High or equivalent) and delivers a minimum 15-year service life without chalking, peeling, blistering, or loss of adhesion.

b) Exterior paint systems: select via the MPI Architectural Painting Decision Tree; choose a system rated for “Aggressive” exposure.

c) Corrosion & UV Resistance – Protects all coated substrates from corrosion and ultraviolet degradation for the full-service life, maintaining color and gloss within manufacturer-stated tolerances.

d) System Compatibility – Includes surface preparation, primers, intermediate, and finish coats that are mutually compatible as recommended by the coating manufacturer for the specified exposure.

e) Third-Party Qualification – Is listed by MPI (or an equivalent independent authority) for “Aggressive” exterior conditions or is otherwise certified by the manufacturer to meet or exceed those criteria.

f) Verification – Is supported by manufacturer data and warranty documentation demonstrating compliance with the above performance requirements.

The Design-Builder is responsible for selecting, detailing, and applying the coating assembly to achieve these outcomes.

7.6 Exterior Joint Sealants

A. Provide sealants meeting ASTM C920, Type S/NS, Grade NS, Class 25 (or better).

7.7 Control Cab exterior walls must be as follows:

A. Cab and occupied-space glazing shall meet the acoustic transmission, visual acuity, and glare-control values defined in TFDS Section 7.

B. The cab-level exterior enclosure must consist of a glazing system able to withstand load requirements in IBC Section 2404 and TFDS Section 8.6- F.2 – Cab Glass and Critical Areas.

C. Provide a glazing system that meets or exceeds acoustic, glass, framing, shades, and maintenance requirements in TFDS Section 7.3 – Cab Architectural Exterior Enclosure.

c) The cab’s glazing mullions must be sized and adapted to maximize visibility from the cab and to receive services distribution components including piping, conduit, and wiring in accordance with the requirements in TFDS Section 7.3.4 – Interior and Perimeter Columns, Section 8.9 – Concrete Slabs and Flooring, Section 12.9-F – Cab Fire Sprinkler Feed.

7.8 Provide removable louvers and screens, where necessary, to allow maintenance and replacement of larger equipment.

7.9 Provide parapets integrated with the roof. Design moisture control requirements for roof systems in IBC Chapter 15 and ASHRAE 90.1 must also be considered in the parapet wall design.

8 Provide exterior windows (other than Cab windows) as follows:

8.7 Daylighting & Energy Contribution

Install fenestration in all regularly occupied spaces so that daylighting and passive solar benefit occupant comfort and the building’s overall energy performance, without sacrificing visual acuity, glare control, or ease of maintenance.

8.8 Structural & Impact Resistance

Engineer each glazing assembly to resist the design wind, impact, and other factored loads required by IBC Section 2404 and TFDS Section 8.6-F.1 for administrative and non-critical areas, maintaining integrity and serviceability under those conditions.

8.9 Physical Security

For any window with a sill within 16 ft (4.9 m) of finished grade, provide intrusion-resistant construction and hardware that meet or exceed the Facility Security Level 1 (Critical Infrastructure) requirements of FAA Order 1600.69.

9. Exterior Doors, Frames & Hardware — Performance-Based Requirements

9.1 Provide complete door, frame, and hardware assemblies that satisfy

Facility Security Level 1 (Critical Infrastructure) criteria in FAA Order 1600.69.

Assemblies shall resist forced entry, impact, and tampering for the durations and tool sets defined for FSL-1 openings.

9.2 Structural & Environmental Durability

a) Assemblies exposed to exterior air shall incorporate corrosion protection suitable to a C5 environment (e.g., hot-dip galvanizing ≥ G60, alloyed stainless steel, or FAA-approved equal).

b) Glazed doors in the exterior envelope shall utilize safety glazing— tempered, laminated, or filmed—to meet ANSI Z97.1/CPSC 16 CFR 1201 and to deter burglary per ASTM F1233 or equivalent.

c) Where required by the life-safety plan, provide fire-rated and smoke-control door assemblies that comply with NFPA 101 Chapter 8, NFPA 80, and NFPA 105 for the specified rating of each opening.

9.3 Hardware Performance

a) All operational hardware (locks, hinges, closers, etc.) shall be

BHMA/ANSI Grade 1 and verified for a minimum of 1,000,000 cycles without loss of function.

b) Exterior-leaf hinges shall be interior-mounted or otherwise engineered to prevent door removal from the unprotected side.

10. Door clearances, operating forces, and hardware shall comply with ADA/ABA Accessibility Guidelines and any more stringent local requirements.

11. Design & Coordination

a. Hardware schedules must be prepared or peer-reviewed by a consultant certified by the Door and Hardware Institute (DHI).

b. The Design-Builder shall confirm the final security classification and any site-specific requirements with the FAA during design development and adjust assemblies accordingly.

c. Outcome: Exterior doors must deliver long-term corrosion resistance, life-safety performance, accessibility, and intrusion resistance consistent with FAA Order 1600.69 (FSL-1), while remaining fully warrantable for a minimum 15-year service life

SECTION B30 ROOFING

1. Roofing includes roof coverings, insulation, flashings, trims, gutters, downspouts, openings, and other related features.

2. The design and construction of the roofing system must be in accordance with the applicable codes in Section Z10 – General and all referenced standards and codes contained in each.

3. The roofing system must be designed considering the ATCT as an essential facility (Risk Category IV), per IBC. The fire-resistance rating requirements for roofing members must comply, at a minimum, with construction Type I-B, in accordance with IBC Table 601.

4. Load assumptions, environmental load criteria, and design events must be site-specific. The design must comply with TFDS, IBC, and ASCE 7. Where conflicting loading requirements exist, the most stringent will apply.

5. Provide structural capability for antennas to be located on the Control Cab roof and lower-level roofs. The number and location of antennas must be as directed by the FAA during the design phase.

6. Provide high-traffic walkway pads, where required, to grant access for servicing and maintenance of antennas and other roof-mounted equipment.

7. Provide roofing systems for the Control Cab and at the Console Access Level with a minimum 25-year design life.

8. Provide a high-wind roof system warranty with no dollar limit for 20 years.

9. Provide roof covering as follows:

9.1. Provide a single-ply roofing system to comply with the following insulation requirements:

A. Roof covering systems must comply with all applicable design requirements in IBC Chapter 15.

B. Provide continuous insulation through a single-ply membrane to minimize thermal bridging at the Control Cab in accordance with TFDS Section 7.3.10 – Thermal Barrier Continuity at Cab Structure. The membrane system specified for use in the roofing system must meet the requirements referred to in IBC Section 1507.12.

C. Install walk pads as part of the Cab roofing system to provide access to antennas and other roof-mounted equipment. The number and location of antennas must be directed by the FAA during the design phase.

D. Provide vapor retarder/barrier, water‐resistive barrier, and air barrier, based on site-specific climate conditions, in accordance with applicable ASHRAE 90.1 calculations, to meet or exceed FAA’s and federal energy savings requirements.

E. Moisture control requirements for roof systems in IBC Chapter 15 and ASHRAE 90.1 must also be considered in the design of parapet walls.

9.2. Provide roofing systems to comply with the following drainage requirements:

A. Provide a primary roof drainage system designed and installed in accordance with IBC Section 1502, ASCE 7 Chapter 8, and other applicable local codes.

B. Provide primary and secondary roof drainage systems designed to accommodate rain loads in accordance with IBC Section 16.11, ASCE 7 Chapter 8, and other applicable local codes. For the design of secondary roof drainage systems (scuppers) assume blockage of the primary system, per ASCE 7 and IBC.

C. The cab roof must drain via an interior stormwater drain and must be concealed inside glazing mullions/columns to avoid obstructions of the line of sight from the Control Cab. Mullions/columns used for roof drains must be designed and constructed to prevent condensation, freezing, and rusting from taking place.

D. Flexible stainless-steel piping must be used for the cab roof drain and must be concealed within the mullion/column.

E. The roof drainage system must be insulated in accordance with the noise and thermal requirements in TFDS Section 10.2-E – Noise Insulation and Section 10.2-G – Drain and Downspout Insulation.

9.3. Provide roofing systems to comply with the following roof opening requirements:

A. Provide a roof hatch to access the roof from the Cab operating floor.

B. Flashings must be carefully designed and installed to comply with the requirements in IBC Section 1503 and TFDS Section 7.3.10 – Thermal Barrier Continuity at Cab Structure.

SECTION C INTERIOR

SECTION C: INTERIOR

SECTION C10 INTERIOR CONSTRUCTION

1. Design and construct all interior elements—space programming, partitions, doors, finishes, and fixed fittings—so that the completed facility meets the functional, code, security, durability, acoustical, and life-safety requirements defined in this Contract.

2. Comply with all interior construction provisions referenced in Section Z10 – General, including current editions of the IBC, NFPA, ADA/ABA Accessibility Guidelines, and any additional standards referenced therein.

3. Coordinate site-specific requirements with applicable interior construction requirements in TFDS Section 5.8 through 5.13, considering the following exceptions:

3.1. Interior construction requirements for Lobbies in TFDS Section 5.8.1 do not apply.

3.2. Interior construction requirements for Connecting Link in TFDS Section 5.8.2 do not apply.

3.3. Interior construction requirements in TFDS Section 5.10.1 apply to the Lounge & Locker Room. Comply with the requirements in Items 1 through 4 in TFDS Section 5.10.1-B. In Item 3, provide a microwave oven and refrigerator only.

Items 5 through 7 do not apply.

3.4. Construction requirements for Loading Docks in TFDS Section 5.11.9 do not apply.

3.5. Interior construction requirements for TRACON Operation Rooms in TFDS Section 5.12.1 do not apply.

3.6. Interior construction requirements for ATCT Tower Shaft Use and Occupancy in TFDS Section 5.13.1 do not apply.

4. Comply with the following FAA-specific interior construction requirements:

a) Design floor-to-floor heights to a minimum of 9’-4” per floor (excluding junction, console, and cab levels)

b) Clear ceiling heights per TFDS.

c) Provide room adjacencies that support FAA operational workflows.

d) Maintain cab sill height not exceeding TFDS operational limit.

a. Cab and Console Access Level floor plans: Provide rated fire protection for the Cab & Console Access Level per code and

TFDS.

SECTION C15 INTERIOR SPACES

Provide space programming as follows:

1. Provide program areas, adjacencies, and maintenance clearances that satisfy

FAA’s operational workflows, and meet the minimum net areas listed in Section

4.0 Building Requirements, while meeting TFDS, codes, security, accessibility, acoustical, lighting, and thermal requirements.

2. The Design-Builder must conduct space programming and design charrette collaborative workgroups with the FAA to establish the actual space requirements and plan a building layout based on the minimum space requirements provided by the FAA in Part 4.0 of this document.

3. Provide interior partitions as follows:

3.1 Partition assemblies shall maintain required clear floor areas and code clearances. Where greater wall thickness is required to fulfill structural, insulation, utility concealment needs, code-mandated clearances and tolerances, etc.; walls shall expand outwards.

3.2 Provide fixed interior partitions that extend from the floor slab to the underside of the floor or roof structure above, except where floor‐to‐ ceiling demountable or retractable partitions are specifically required.

3.3 Provide control joints and apply installation techniques as recommended by the manufacturer.

3.4 Deflection of all interior wall assemblies shall not exceed L/360.

3.5 Sound‐rated partition assemblies shall comply with the minimum Sound

Transmission Coefficient (STC) as indicated in TFDS Table 5-7 Acoustic Design Criteria Matrix.

4. Provide fire and smoke barriers as required in TFDS Section 12.6-B – Cab/Cable Access Ring Smoke Barrier Scheme, except where a Console Access Ring is not mandatory in those cases, NFPA 75 requirements apply. Provide interior doors as follows:

4.1 Install door assemblies complete with hardware for fully operable rooms.

4.2 Provide standardized interior doors to the maximum extent practical with a design and finish compatible with the interior architectural character of the building. Where rooms with different door requirements are connected by a door, provide a door type that meets the security and durability as well as finish requirements of both spaces.

4.3 Provide interior doors and hardware and physical access control systems (PACS) to control access to employee entrance doors meeting the security requirements of a Facility Security Level (FSL)-1 Critical Infrastructure Facility per FAA Order 1600.69 and TFDS Section 11.29 – Security Systems. However, the Design-Builder must coordinate the final security level determination and associated requirements with the FAA.

4.4 Door clearances, operating forces, and hardware shall comply with ADA/ABA Accessibility Guidelines and any more stringent local requirements.

5. Design & Coordination

5.1 Hardware schedules must be prepared or peer-reviewed by a consultant certified by the Door and Hardware Institute (DHI).

a) Provide doors and their accompanying frames in accordance with materials and system requirements in IBC Section 1010 and TFDS Section 5.4- E – Doors and Frames, and door hardware as per TFDS Section 5.4-F – Door Hardware.

b) Provide acoustically rated door assemblies for doors leading to sound-sensitive rooms, as required in TFDS Table 5-7. Include light‐proof gasketing for room functions that require darkness.

6. Provide specialties as follows:

6.1 Architectural specialties (toilet partitions, lockers, fire-stopping, casework, floor grilles, etc.) including furniture and furniture systems, in accordance with TFDS Chapter 5 – Architectural Interiors and to meet code, accessibility, durability, and finish requirements.

SECTION C20 STAIRS

1. Provide interior egress stairs that meet all life-safety, accessibility, and maintenance requirements.

2. Pressurize stair enclosures. Follow TFDS requirements and FAA Specification 23 15 71, Stair Pressurization System.

3. The ATCT design must have two means of egress serving the tower from the lowest floor level, through the shaft, up to the Console Access Level. The stairs must provide access to intermediate levels, mechanical access, subjunction, junction and console access levels.

4. Provide a single egress stair from the Cab to the Console Access Level.

Provide stair construction as follows:

4.1 Provide permanently fixed interior stairs. Stair components such as structure, platform, and landing – excluding handrails –must be constructed of non-combustible materials in accordance with NFPA 101.

4.2 Minimum width as well as other dimensional criteria, including tolerances, must comply with the requirements for new stairs in NFPA 101 Chapter 7, except for overhead clearance, where TFDS specifically requires a greater dimension than the minimum specified in NFPA 101. Minimum width requirements for ATCT Stairs in TFDS Section 5.13.2 – ATCT Stairs do not apply.

5. Provide stairs finish as follows:

5.1 Provide handrails on both sides of the stairwell to meet all requirements for fall protection, dimension, clearance, loading, and other applicable criteria in NFPA 101 Chapter 7, OSHA 1910.28, and 1910.29.

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