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This Solicitation opportunity from Government of Canada was posted on June 4, 2026. The submission period has ended. Browse the details below for market research, or find similar active opportunities.

Amendment #1, 26-58018 Laboratory Wind Wall System

Closed
26-58018 Amendment 1 ModificationInternational

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The National Research Council of Canada's Aerospace Research Centre is seeking a turnkey Laboratory Wind Wall System to support the Drone and Flight Autonomy Laboratory in Mirabel, Quebec. The system is designed for research on mid-size unmanned aircraft operating in complex aerodynamic environments, such as urban wind fields and ship airwakes. The base requirement specifies a 5m x 5m open-jet test section positioned 3m above ground level, capable of achieving maximum axial wind speeds of 21-22 m/s and adjustable turbulence intensity from 7% to 25%. Technical specifications include a ramp-up acceleration of at least 10 m/s², a ramp-down deceleration of -5 m/s² or less, and a non-dimensional swirl number of 0.5 or less at the test plane. The system must be self-supporting, compliant with the National Building Code of Canada, and operational in temperatures ranging from -20 °C to +30 °C with IP 34 protection standards. The contract includes an option for the NRC to expand the system to 7m x 7m, and bidders must provide separate pricing for this configuration. Evaluation is based on a weighted score consisting of technical merit (60%), Canadian value-added (25%), and price (15%), with mandatory technical criteria serving as pass/fail gates. The successful contractor is responsible for the design, fabrication, delivery, and commissioning of the system, including the supply and installation of the grade-level foundation. All deliverables must be provided in both English and French, with a final delivery deadline of March 31, 2028. The contract also mandates a minimum one-year warranty and requires that all electrical equipment be CSA certified and compliant with the Canadian Electrical Code.

General Info

Design, delivery, and commissioning of a customizable Laboratory Wind Wall for aerospace research.

Agency

Government of Canada → National Research Council of CanadaView Agency

NAICS

333413 - Industrial and Commercial Fan and Blower and Air Purification Equipment ManufacturingView NAICS

Place of Performance

Canada, CAN

Set-Aside

NONE

Documents

(21)

RFP 26-58018 Système De Mur De Vent Pour Laboratoire

PDF76 pagesrfp

RFP 26-58018 Système De Mur De Vent Pour Laboratoire

PDF76 pagesrfp

Amendment 001 to RFP 26-58018 Laboratory Wind Wall System

PDF2 pagesamendment

RFP 26-58018 Laboratory Wind Wall System Amendment 005

PDF2 pagesamendment

Solicitation 26-58018 Wind Wall System Q&A June 9, 2026

PDF3 pagesq-and-a

Solicitation 26-58018 Amendment 004 for Wind Wall System

PDF2 pagesamendment

Solicitation 26-58018 Amendment 003 for Système De Mur De Vent Pour Laboratoire

PDF2 pagesamendment

Amendment 003 to RFP 26-58018 Laboratory Wind Wall System

PDF2 pagesamendment

Q&A for Solicitation 26-58018 Wind Wall System

PDF2 pagesq-and-a

Modification 001 to RFP 26-58018 Système De Mur De Vent Pour Laboratoire

PDF2 pagesamendment

Solicitation 26-58018 Amendment 002 for Système De Mur De Vent Pour Laboratoire

PDF2 pagesamendment

Solicitation 26-58018 Amendment 006

PDF2 pagesamendment

Q&A for RFP 26-58018 Wind Wall System

PDF1 pageq-and-a

RFP 26-58018 Laboratory Wind Wall System

PDF71 pagesrfp

RFP 26-58018 Laboratory Wind Wall System Amendment 004

PDF2 pagesamendment

Solicitation 26-58018 Amendment 006 for Système De Mur De Vent Pour Laboratoire

PDF2 pagesamendment

RFP 26-58018 Laboratory Wind Wall System Amendment 002

PDF2 pagesamendment

Q&A for RFP 26-58018 Wind Wall System

PDF1 pageq-and-a

Solicitation 26-58018 Amendment 005 for Système De Mur De Vent Pour Laboratoire

PDF2 pagesamendment

Q&A for RFP 26-58018 Laboratory Wind Wall System

PDF2 pagesq-and-a

RFP 26-58018 Laboratory Wind Wall System

PDF71 pagesrfp

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Timeline

PhaseClosed
Posted

Solicitation

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Organization & Contact Information

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AgencyGovernment of Canada → National Research Council of Canada
Contacts1 person available
OfficeN/A
Organization / Agency
Government of Canada → National Research Council of Canada
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Office AddressN/A
Contacts
Katie HomuthContracting Authority

Full Description

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Amendment #1 RFP 26-58018 Laboratory Wind Wall for Unmanned Aircraft Complex Flow Testing This amendment is issued to modify the solicitation following Question and Answer #1 posted on Canada Buys 06 June 2026. See the modification to the solicitation below. MODIFICATIONS TO THE SOLICITATION ____________________________________________________________________________________________________ At Annex Statement of Requirement, sub-section 1.1 Technical Requirement/Specifications, 1.1.2 Wind Wall Airflow Performance: DELETE: section e. in its entirety; and REPLACE with: e. The System must achieve ramp‑up acceleration ≥ 10 m/s² and ramp‑down deceleration ≤ −5 m/s². The swirl number at the TP must be ≤ 0.5 (non‑dimensional). ALL OTHER TERMS AND CONDITIONS REMAIN THE SAME __________________________________________________________________________________________________________________________________________________________________________ RFP 26-58018 Laboratory Wind Wall for Unmanned Aircraft Complex Flow Testing The National Research Council of Canada’s - Aerospace Research Centre (NRC AERO) has a requirement for the design, fabrication, delivery, and commissioning of a Laboratory Wind Wall System (The System). The System will support NRC’s Drone and Flight Autonomy Laboratory (DFAL) in research focused on the performance, control, and safety of mid‑size unmanned aircraft (drones) operating in complex aerodynamic environments, such as ship airwakes and urban wind fields, across all Canadian seasons. The System must provide controlled, repeatable, and configurable airflow conditions for testing unmanned aircraft in free flight. BACKGROUND: The aerodynamic performance and stability of unmanned aircraft operating in complex wind environments are not yet fully understood, particularly across different propulsion configurations. NRC’s research program requires a large‑scale Wind Wall System capable of generating controlled wind and turbulence conditions for outdoor free‑flight testing of mid‑size unmanned aircraft. The System will form part of a new outdoor test capability at NRC’s Drone and Flight Autonomy Laboratory (DFAL) located at the NRC Mirabel site. This facility will enable the evaluation of aircraft systems and Small and Medium Enterprise (SME) developed technologies under controlled aerodynamic conditions representative of operational environments in Canada, including ship airwakes and urban wind fields. DEFINITIONS: Wind Wall A vertically stacked array of fans that generate a horizontal wind flow-field exiting from one vertical face. The overall Wind Wall dimensions in this document refer to the exit face width and exit face height of the fan array. The Wind Wall depth includes only the fans and supporting structure (no airflow contractions or surrounding building) to minimize the System footprint. Marketable Wind Wall System A finished, polished version that meets quality standards, is compliant with regulations, and is ready for sale at scale or customized. Turbulence Intensity Turbulence intensity refers to local turbulence intensity for which the reference wind speed is measured locally. 1.0 REQUIREMENT: The Offeror must design, manufacture, deliver, and commission a turnkey Laboratory Wind Wall System that meets or exceeds the technical and operational requirements defined in this Statement of Requirement (SOR). The System must be capable of generating controlled, repeatable, and complex airflow conditions suitable for unmanned aircraft free flight testing. 1.1 Technical Requirements/Specifications 1.1.1 Wind Wall System i. The System must include an open‑jet test section to allow for free‑flight testing of aircraft. ii. The Wind Wall jet face must have nominal dimensions of 5 m × 5 m (± 0.25 m tolerance). iii. The bottom of the jet face must be positioned 3 m above ground level, and the center of the test region must be 5.5 m above ground. iv. The Test Plane (TP) must be located 5 – 6 m downstream of the Wind Wall, with a minimum of 4 m x 4 m of uniform jet flow. v. The design must allow for an optional expansion of the Wind Wall to 7 m × 7 m (± 0.25 m in width and height), as described in Section 1.1.6 Optional Expansion Scope. - The bottom of the Wind Wall must remain 3 m above ground level. - The increase in width must be symmetric about the lateral centre of the Wind Wall exit face, and the height extension must occur upward from the top edge of the existing structure. - The additional fan modules required for the optional configuration must be equivalent in size, capacity, and performance to those used in the 5 m × 5 m base Wind Wall system. - The optional expansion must be structurally and functionally compatible with the base Wind Wall foundation, controls, and safety systems. 1.1.2 Wind Wall Airflow Performance a. The maximum axial wind speed at the TP must be 21–22 m/s, with maximum axial turbulence intensity of ≤ 7%. b. The System must provide adjustable turbulence intensity at the TP ranging from 7% to 25% in the streamwise component, while maintaining a maximum wind speed of ≥ 15 m/s. c. The minimum axial wind speed at the TP must be 1 m/s. d. The fan array design must support gradients of 2 m/s per metre (horizontal or vertical) and integral length scales of 2–50 m. e. The System must achieve ramp‑up acceleration ≥ 10 m/s² and ramp‑down deceleration ≤ −5 m. The swirl number at the TP must be ≤ 0.5 m/s². f. Each fan must support independent and synchronized control, with incremental speed changes ≤ 0.2 m/s. 1.1.3 Equipment and System Requirements The System must: • operate without performance derating from 0 °C to +30 °C; • have minimal performance derating from −20 °C to +30 °C; • be suitable for cold starts (−20 °C to +20 °C) for ≥ 800 cycles; • be storable from −20 °C to +60 °C; • be designed, constructed, and tested so it can operate normally and safely in light rain or snow conditions, without loss of performance, safety, or durability, and must meet at least IP 34 protection standards; • have a minimum operational lifespan of 20,000 hours; • be delivered as a turnkey solution, fully operational upon commissioning and compliant with all specified requirements. The System’s high‑voltage components (> 750 V) must be enclosed in an IP 65‑rated cabinet. The Wind Wall electrical system must be compatible with standard North American industrial electrical systems operating at 60 Hz. The Offeror must specify the required electrical service for the system, including voltage, phase configuration, total connected load (kW), apparent power (kVA), and power factor at full load. Where the proposed system requires a voltage different from typical Canadian building distribution systems (for example, 600/347 VAC or 208/120 VAC), the Offeror must provide the necessary transformers, converters, or other power conditioning equipment as part of the Wind Wall System. The Offeror must provide the estimated peak electrical demand and total connected load for the Wind Wall System as part of the proposal so that NRC can assess compatibility with the available site electrical infrastructure. All electrical equipment supplied as part of the Wind Wall System must be certified by the Canadian Standards Association (CSA) or by another certification body accredited for use in Canada and acceptable to the authority having jurisdiction. The electrical installation and equipment must comply with the Canadian Electrical Code (CSA C22.1) and all applicable provincial regulations. 1.1.4 Structural Support and Grade-Level Surface Interface Requirements a. The grade level foundation and support framing must be supplied and installed by the Offeror. The design must be structurally engineered to safely withstand all static loads (including system weight and terrestrial wind conditions) and dynamic loads generated during wind-on testing under all anticipated operational conditions. b. The Wind Wall support framing must be mechanically anchored to the grade level foundation (pad) using fastening and reinforcement methods appropriate for the loading conditions described in paragraph (a). c. The Offeror must ensure that all foundation, structural, and anchoring details comply with applicable Canadian building codes, engineering standards, and site-specific geotechnical recommendations. d. All design calculations, load assessments, and anchoring specifications must be sealed by a licensed professional engineer and included in the Offeror’s submission for NRC review and approval prior to fabrication and installation. e. The structure of the Wind Wall system must: • be self supporting and capable of being anchored to an engineered foundation; and • comply with the wind load requirements of the National Building Code of Canada (NBCC) and any other applicable codes and standards. 1.1.5 Operational Requirements • Control Software Compatibility: The control software must be compatible with common operating systems such as, but not limited to, Microsoft Windows 10 or 11 (Professional or Enterprise editions) and current Linux distributions (for example, Ubuntu LTS, Red Hat Enterprise Linux, or Debian). Other platforms may be considered if full functionality, interoperability, and technical support are demonstrated. • Information Security and Data Protection: The System must adhere to recognized information security and data protection practices to safeguard operational and research data. All communications and data transfers must use secure, encrypted protocols (such as HTTPS, SFTP, or TLS 1.2 or higher) to ensure confidentiality and integrity. • Data Output and Synchronization: Wind profile output data must be GPS timestamped. The software must support an external trigger for synchronized data logging and must allow automation, storage, and repetition of Test Plane (TP) wind profiles for consistent experimental conditions. • System Reliability and Redundancy: The system must allow continued operation in the event of an individual fan failure without compromising overall airflow control or test stability. • Safety Controls: An emergency stop system must be installed at the operator location, providing immediate system shutdown capability in accordance with applicable electrical and mechanical safety standards. 1.1.6 Optional Expansion Scope The National Research Council of Canada (NRC) reserves the right to exercise an option to obtain a larger Wind Wall system at the time of contract award or during the contract period by way of a contract amendment. a. Scope of the Option • The design of the base Wind Wall must allow for an optional expansion to 7 m × 7 m (± 0.25 m in width and height). • The bottom of the Wind Wall must remain 3 m above ground level in both the base and expanded configurations. • The increase in width must be symmetric about the lateral center of the Wind Wall exit face, and the height extension must occur upward from the top edge of the existing structure. • The additional fan modules required for the optional configuration must be equivalent in size, capacity, and performance to those used in the 5 m × 5 m base Wind Wall system. • The optional expansion must be structurally and functionally compatible with the base Wind Wall foundation, support framing, controls, power distribution, and safety systems. • The expanded system must maintain equivalent design, safety, and performance standards as the base Wind Wall system, with proportional scaling of structural and control components. • The optional configuration must be capable of achieving wind speeds exceeding 21 m/s and supporting applications consistent with small aviation testing and/or wind simulation in research environments. b. Bidder Requirements Bidders must include technical specifications and design drawings for the optional configuration and pricing details for the 7 m × 7 m Wind Wall in Annex Basis of Payment, Optional Table 1. Pricing for the optional system must be identified separately from the base system pricing in the financial proposal. Bidders must indicate any lead time, production schedule, or delivery considerations associated with the larger configuration. The optional design must remain interoperable with the base system’s control software, data interfaces, and safety features. c. Contractual Option The NRC may, at its sole discretion, exercise this option in whole or in part at the time of contract award or at a later date during the contract period. Exercising the option will be subject to the same terms and conditions as the base contract, except where otherwise specified and agreed upon in writing. The Offeror must honour the proposed pricing and delivery commitments for the optional configuration for a period of up to 14 months following contract award. 2.0 WARRANTY AND SUPPORT: • Minimum one (1) year warranty covering all parts and labour. • Offeror must provide technical support (phone and email) for the duration of the warranty. 3.0 MAINTENANCE AND HARDWARE SUPPORT: The Offeror must provide hardware support throughout the warranty period, including: • Replacement of defective components; • Troubleshooting and repair assistance; • Access to a technical support team by phone or email; • A detailed maintenance and service manual must be provided with the System. 4.0 TECHNICAL DOCUMENTATION: The Offeror must supply a comprehensive technical manual, including system diagrams, maintenance and troubleshooting procedures, and instructions for live and recorded data collection. 4.1 References • National Building Code of Canada, latest edition; • Applicable Canadian Standards Association (CSA) standards for electrical equipment and industrial control panels; • Canadian Electrical Code (CSA C22.1), latest edition; • International Electrotechnical Commission (IEC) and European Norm (EN) (IEC/EN) standards applicable to electrical safety and Ingress Protection (IP) ratings. 5.0 DELIVERY ADDRESS: National Research Council Canada YMX Innovation Centre 9800 Rue Irénée-Vachon Mirabel, Québec J7N 3C5 Canada 6.0 LANGUAGE OF WORK: • All deliverables, including reports, documentation, and training materials, must be provided in both English and French, in accordance with the Official Languages Act. • Meetings and communications will be conducted primarily in English, with French language support provided for stakeholders as required. 7.0 LOCATION OF WORK: • Manufacturing of sub-assemblies: at the Offeror’s facilities. • Final assembly and integration: at NRC’s Mirabel laboratory site adjacent to the wind wall foundation. • For construction site access, if NRC visitor requirements apply during the assembly period, Persons Granted Access (PGA) requirements must be arranged prior to on-site work activities. 8.0 TRAVEL AND DELIVERY: • All travel and delivery costs are to be included in the Offeror’s pricing. • No travel reimbursement will be provided. • Any additional travel must be pre approved in writing by the Project Authority and comply with the Government of Canada Travel Directive.

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