Miru appoints Susan Koch as Interim CFO. * Published on - June 18, 2026 * Words by - Vedika Daswani Vancouver, Canada - June 18, 2026 - Miru Smart Technologies ("Miru") today announced the appointment of Susan Koch as Interim Chief Financial Officer, further strengthening its executive team as the company advances the commercialization of its dynamic glass platform. Susan brings more than 35 years of financial and operational leadership experience across a variety of hard technology companies. She has built and scaled financial systems for innovative companies, establishing the governance and processes needed to support organizational scale-up. Most recently, Susan served as Chief Operating Officer and Vice President of Accounting, and earlier as Chief Financial Officer, at Carbon Engineering. She has also held senior financial leadership roles at General Fusion, Vaperma and Cellex, bringing extensive experience across multiple stages of company growth. At Miru, Susan will oversee financial strategy and governance, supporting the company's continued expansion across automotive, architecture, wearables, and other applications where adaptive light control can improve energy efficiency, comfort, and optical performance. "Susan understands what it takes to build and scale a hard technology company," said Curtis Berlinguette, Founder and CEO of Miru. "She brings valuable financial leadership and discipline to Miru as we prepare for deployment across multiple markets. Her strategic counsel and partnership has been especially impactful for me and the leadership team as we move into this next stage of scaling our dynamic glass technology." "Miru is at an exciting point in its journey, with a differentiated technology platform and significant opportunities ahead," said Susan Koch. "I look forward to working with the team to advance the financial and operational capabilities that support sustainable growth and long-term value creation as Miru continues to scale." Susan's appointment reflects Miru's continued investment in the leadership and capabilities needed to support the company's long-term commercial growth.

Carbon-Negative engineering: what technologies make it possible? The world faces an urgent challenge: reducing greenhouse gas emissions to slow climate change. While many efforts focus on cutting emissions, a growing number of engineers and scientists aim to go beyond zero. Carbon-negative engineering means removing more carbon dioxide from the atmosphere than is emitted. This approach could help reverse climate damage and restore balance to the planet's carbon cycle. But what technologies make carbon-negative engineering possible? This article explores key methods and innovations driving this important work. Understanding carbon-negative engineering. Carbon-negative engineering involves designing systems and technologies that capture and store more carbon dioxide than they release. Unlike carbon-neutral solutions that balance emissions with offsets, carbon-negative approaches actively reduce atmospheric CO2 levels. This requires combining carbon capture, utilization, and storage with renewable energy and sustainable materials. The goal is to create processes that permanently remove carbon from the air and lock it away safely. This can happen through natural methods like reforestation or engineered solutions such as direct air capture. Achieving carbon negativity at scale demands innovation across multiple fields. Direct air capture technology. One of the most talked-about technologies is direct air capture (DAC). DAC systems use chemical processes to pull CO2 directly from ambient air. The captured carbon can then be stored underground or converted into useful products. How DAC works. * Air passes over chemical sorbents or filters that bind CO2 molecules. * The system heats or depressurizes the sorbents to release concentrated CO2. * Captured CO2 is compressed and transported for storage or use. Examples of DAC projects. * Climeworks in Switzerland operates commercial DAC plants that capture thousands of tons of CO2 annually. * Carbon Engineering in Canada develops DAC technology to produce synthetic fuels from captured CO2. DAC offers a way to remove emissions from hard-to-abate sectors and even capture legacy emissions already in the atmosphere. However, it requires significant energy input, so pairing DAC with renewable energy is essential to keep the process carbon-negative. Bioenergy with carbon capture and storage. Bioenergy with carbon capture and storage (BECCS) combines biomass energy production with carbon capture technology. Plants absorb CO2 as they grow, and when biomass is burned for energy, the resulting emissions are captured and stored underground. Why BECCS matters. * Biomass is renewable and can be sourced sustainably. * Capturing emissions from biomass energy results in net negative carbon emissions. * BECCS can generate electricity or fuels while reducing atmospheric CO2. Real-World applications. * The Drax power station in the UK is converting units to biomass and plans to add carbon capture to become carbon negative. * Several pilot projects worldwide test BECCS for bioethanol and biogas plants. BECCS faces challenges including land use competition and ensuring sustainable biomass supply. Still, it remains a promising route to carbon-negative energy. Enhanced weathering and mineralization. Enhanced weathering accelerates natural processes where minerals react with CO2 to form stable carbonates. This approach spreads finely ground silicate rocks over land or ocean surfaces to capture carbon chemically. How it works. * Minerals like olivine react with CO2 dissolved in water or air. * The reaction forms solid carbonate minerals that lock away carbon permanently. * This process mimics natural rock weathering but at a faster rate. Potential and challenges. * Enhanced weathering could capture gigatons of CO2 annually if scaled. * It improves soil health and ocean alkalinity. * Mining, grinding, and distributing minerals require energy and infrastructure. Research projects in Iceland and elsewhere test mineral carbonation for carbon removal. This method offers a long-term, stable carbon sink. Carbon sequestration in soils and agriculture. Agriculture can play a major role in carbon-negative engineering by improving soil carbon storage. Practices that increase organic matter in soils help trap carbon and improve land productivity. Key practices. * No-till or reduced tillage farming to preserve soil structure. * Cover cropping to add biomass and protect soil. * Agroforestry combining trees with crops or livestock. * Biochar application, which adds stable carbon to soils. Benefits. * Soils can store carbon for decades or centuries. * Improved soil health boosts crop yields and resilience. * These methods reduce emissions from fertilizer and machinery. Farmers worldwide adopt regenerative agriculture to enhance soil carbon. This approach supports food security while removing carbon from the atmosphere. Ocean-Based carbon removal technologies. Oceans absorb about a quarter of human CO2 emissions naturally. Engineering solutions aim to enhance this capacity or create new ways to store carbon in marine environments. Examples of ocean technologies. * Ocean alkalinity enhancement adds minerals to seawater to increase CO2 absorption. * Seaweed farming captures carbon through fast-growing algae, which can be harvested and sunk to the deep ocean. * Artificial upwelling brings nutrient-rich water to the surface, boosting phytoplankton growth and carbon uptake. Ocean-based methods are still experimental but could provide large-scale carbon sinks without competing for land. The role of renewable energy in carbon-negative engineering. Renewable energy underpins all carbon-negative technologies by providing clean power for energy-intensive processes like DAC and mineral grinding. Solar, wind, hydro, and geothermal energy reduce reliance on fossil fuels and lower the carbon footprint of removal technologies. Integrating renewables ensures that carbon capture and storage efforts do not generate additional emissions. This synergy is critical for achieving true carbon negativity. Challenges and future directions. Carbon-negative engineering faces several hurdles: * High costs and energy demands of some technologies. * Need for infrastructure to transport and store captured carbon safely. * Ensuring sustainability and avoiding negative impacts on ecosystems or communities. * Scaling solutions from pilot projects to global deployment. Ongoing research, policy support, and investment will drive improvements. Collaboration between governments, industry, and academia is essential to accelerate progress. Moving toward a carbon-negative future. Carbon-negative engineering offers a path to not just slow climate change but reverse it. Technologies like direct air capture, BECCS, enhanced weathering, and soil carbon sequestration provide tools to remove CO2 from the atmosphere effectively. The key lies in combining these approaches with renewable energy and sustainable practices. While challenges remain, the potential benefits for the planet and future generations are immense. Supporting innovation and adopting carbon-negative solutions can help build a cleaner, healthier world.