SR&ED for the Advanced Manufacturing, Engineering and Machining Industry: R&D Tax Credits and Incentives
Canada's advanced manufacturing, engineering and machining industry continues to evolve through advancements in precision manufacturing, industrial automation, robotics, computer numerical control (CNC) machining, advanced materials and innovative production technologies. Manufacturers, engineering firms, machine shops, tooling specialists and industrial technology developers regularly encounter complex technical challenges as they work to improve production efficiency, enhance product performance, achieve tighter tolerances and develop new manufacturing processes and equipment.
Canada's Scientific Research and Experimental Development (SR&ED) tax incentive program provides tax incentives for eligible research and development activities undertaken to achieve scientific or technological advancements. Advanced manufacturing, engineering and machining businesses developing new production technologies, experimenting with machining techniques, designing innovative equipment or investigating unresolved technical challenges may qualify for SR&ED tax credits when their work meets the program's eligibility requirements.
What Type of Activities and Technological Challenges May Qualify?
Advanced machining and precision manufacturing:
Experimenting with new machining techniques, cutting parameters or manufacturing methods to overcome technical challenges involving dimensional accuracy, surface finish, material deformation, tool wear, tolerance requirements or production consistency.
Custom engineering design and prototyping:
Developing, redesigning and testing custom components, mechanical systems or prototypes to address unresolved technological challenges involving structural strength, dimensional stability, mechanical performance, material compatibility or complex design requirements.
Advanced materials and manufacturing processes:
Investigating new methods for machining, forming, joining or processing advanced metals, alloys, composites, polymers and engineered materials to overcome challenges involving material strength, thermal stability, wear resistance, microstructure or performance under varying operating conditions.
CNC machining and process optimization:
Developing or modifying CNC machining processes to address technological uncertainties involving complex geometries, machining precision, vibration, thermal distortion, material removal rates or manufacturing repeatability.
Industrial automation, robotics and control systems:
Developing or improving robotic systems, automated production technologies and industrial control systems to overcome technical limitations involving positioning accuracy, process coordination, sensor integration, system reliability or the automation of complex manual manufacturing processes.
Additive manufacturing and hybrid production:
Experimenting with 3D printing, metal additive manufacturing or hybrid machining technologies to address unresolved challenges involving material properties, dimensional stability, structural integrity, thermal behaviour or production scalability.
Tooling, dies and mould development:
Designing and testing new cutting tools, dies, moulds, fixtures or specialized tooling systems to overcome technological challenges involving material flow, tool wear, heat dissipation, manufacturing precision or the production of complex components.
Welding, joining and fabrication technologies:
Investigating new welding, bonding, brazing or fabrication methods to overcome technical challenges involving joint strength, material compatibility, heat distortion, structural integrity or the reliability of assembled components.
Manufacturing equipment and machinery development:
Designing, modifying and testing industrial machinery, production equipment or mechanical systems to address technological uncertainties involving equipment performance, mechanical reliability, operating efficiency, thermal management or manufacturing capabilities.
Manufacturing process integration and scalability:
Experimenting with new or modified production processes to overcome challenges involving the integration of equipment, materials, automation and control systems while maintaining product quality, manufacturing consistency, reliability and performance at increased production volumes.
What Advanced Manufacturing, Engineering and Machining Costs May Qualify for SR&ED?
Once a project has been identified as potentially eligible for SR&ED, the next step is determining which expenditures are associated with the eligible R&D work. Depending on the nature of the project, potentially qualifying expenditures can include employee labour, materials, contractors and certain lease or capital expenditures.
Labour
Materials
Contractors and Specialized Services
Lease and Capital Expenditures
The key question is whether your business is working to overcome a technological challenge that could not be readily resolved using existing knowledge or standard manufacturing and engineering practices.
If your project involves these types of activities and costs, it may be worth assessing whether the work and associated expenditures qualify for SR&ED.
Not every manufacturing improvement, engineering design, machining modification or equipment upgrade qualifies for SR&ED. Eligible work must involve scientific or technological uncertainty, follow a systematic investigation or search through experimentation or analysis, and seek to achieve scientific or technological advancement. Routine machining operations, standard engineering calculations, conventional tooling modifications, ordinary production optimization and quality-control testing do not automatically qualify for SR&ED tax incentives.
Dive deeperOther Funding Opportunities for Advanced Manufacturing, Engineering and Machining Businesses
Other forms of government funding may also be available to advanced manufacturing, engineering and machining businesses. Depending on the project, company, location and activities involved, additional funding may be available through federal, provincial and regional programs.
Potential sources may include:
NRC IRAP (Industrial Research Assistance Program)
Provides expert advisory services and potential financial support to eligible Canadian small and medium-sized businesses developing innovative technologies, products and processes. Advanced manufacturing, engineering and machining businesses may qualify for assistance with innovative manufacturing technologies, precision machining processes, industrial automation, advanced materials, machinery development and technical R&D.
NGen (Next Generation Manufacturing Canada)
Supports collaborative advanced manufacturing projects involving innovative production technologies, automation, robotics and smart manufacturing systems. Manufacturers, engineering firms and machining businesses may benefit from opportunities supporting advanced production systems, digital manufacturing, intelligent automation, additive manufacturing, advanced materials processing and innovative industrial technologies.
Ontario Automotive Modernization Program (O-AMP):
Provides funding to eligible Ontario automotive parts suppliers undertaking projects to improve competitiveness, productivity and manufacturing capabilities. Potential projects may include advanced manufacturing technology adoption, process optimization, automation and operational improvements.
Ontario Vehicle Innovation Network (OVIN) R&D Partnership Fund:
Supports collaborative research and development projects focused on advancing automotive and mobility technologies. Potential areas include electric and connected vehicles, autonomous systems, advanced vehicle components, automotive software and other innovative mobility solutions.
Mitacs Accelerate
Supports collaborative research internships connecting businesses with academic researchers to address scientific and technological challenges. Potential applications include advanced machining technologies, manufacturing process development, robotics, materials engineering, industrial automation, mechanical design and production optimization research.
Funding programs can have specific eligibility requirements, application periods and eligible-cost rules. In some cases, SR&ED and government funding may interact, so businesses should consider their available incentives when planning and documenting a project.
Additional federal, provincial and regional programs may also be available depending on the company's location and project objectives.
Government funding programs change frequently. Eligibility, application windows and available funding should be reviewed based on the specific project and timing.
How EVAMAX Can Help
Navigating Canada's tax incentives and grants can be complex. Advanced manufacturing, engineering and machining projects may involve research and development, equipment investment, process innovation, automation, commercialization and production expansion, each of which may have different eligibility requirements.
EVAMAX can help your business identify potential SR&ED opportunities, assess eligible R&D activities and expenditures, and explore additional government grants, tax credits and funding programs that may support your manufacturing and engineering initiatives.