Kyle Alberti Email & Phone Number

Auckland, New Zealand

• In this role, I led and managed the direction, planning, and execution of the company's hardware platform development, providing guidance to a diverse team of mechanical, electronics, and firmware professionals. I.
• Developed and implemented a comprehensive roadmap for the next generation of hardware platform, serving as the foundation for future advancements.
• Orchestrated the end-to-end process of developing, validating, manufacturing, and launching a cutting-edge monitoring instrument. This involved integrating in-house technology with third-party components, while.
• Mentored and guided a team of five engineers, empowering them to enhance their skills and knowledge for ongoing professional growth, along with direct management of one.
• Served as a pivotal liaison between the hardware development team and other departments within the organization, including product management, operations, and support teams.
• Responsible for planning and prioritizing the work – ensuring the team is working on the right things at the right time for timely delivery.

Auckland, New Zealand

• Reporting to the Vice President of Product Development, I was responsible for leading a series of product improvements and new product introductions with a primary focus on designing a battery-powered, handheld.
• Responsible for driving product development from ideation and concept development through production, compliance, validation, testing, and release for the Portable Outdoor Air Quality Monitoring Platform.
• Led the research, design, and development of the new handheld product line to replace legacy design in collaboration with a 6-member industrial design and firmware development consulting team.
• Coordinated the development of application firmware across a team of 5 internal firmware developers.
• Specified the technical constraints and requirements for the new product then worked with the design consulting team to ensure the device was fit for use in the industrial hygiene market.
• Coordinated with the design team, the internal manufacturing and procurement departments, and a contract manufacturer to ensure production occurred on time in the face of global supply chain shortages.

Auckland, New Zealand

• Reporting to the Chief Technology Officer, I was responsible for leading hardware and software design projects focused on the expansion of the AQS and AQM product line capabilities, the integration of new air pollution.
• Developed a data visualization web application using R, Shiny, and Leaflet to create heat maps based on static images that enabled users to see the changes of individual data points over time with 10s of millions of.
• With the strategic objective of creating solutions for construction clients required to comply with Emissions Rule 1466, developed a web application using Shiny and R to measure in real time the concentration of.
• Developed a correction algorithm in R to improve pollutant sensor accuracy using intrinsic sensor properties which extended sensor lifetime from 3 months to 1 year.
• Developed an online dashboard which allowed remote monitoring and management of AQY Field Array Networks, detecting instrument errors and failures in real-time, allowing for prompt repair which improved network.

Auckland, New Zealand

• Reporting to the Chief Technology Officer, I was responsible for the research and development of stationary low-cost multi-pollutant gas and airborne particle detection instruments, specifically the AQY Product Line.
• Led the development and validation of algorithms in R used to verify the accuracy of NO2, Ozone, Airborne Particulates, Temperature, and Humidity measurement modules deployed across the AQM 65 product line.
• Led the coordination and deployment of three high-density, high-resolution field sensor arrays with a 100-unit AQM 65 array in Los Angeles, CA, and two 10-unit arrays in Christchurch and Auckland, NZ.
• Developed a new test method to verify the quality of the heated metal oxide semiconductor sensors used in the AQY product line. As a result, this testing method enabled rapid production testing iterations used to.

Auckland, New Zealand

Medford, MA

During my PhD research my primary project was focused on developing a fabrication technique that would allow me to utilize the well-defined hierarchical collagen structure of tendon for a number of biomedical applications. This work involved developing a microtome-based sectioning process, along with evaluating several crosslinking techniques to optimize.

In my role at CWRU I developed an interpenetrating polymer (IPN) network comprised of Cyclodextrin and silicone, and studied the release kinetics of model drugs. Following this I explored its vascular biocompatibility with a goal of using the IPN in stents.

Doctor Of Philosophy (Phd), Biomedical Engineering

Bs, Bioengineering