

We would like to thank all our sponsors and partners for making this global competition possible.
Three phase program:
• Designed to develop technology from concept to commercially viable product
• Technical & commercial assistance funding available
For additional information:
Gautam Phanse
Strategic Relationship Manager
Chevron Technology Ventures (CTV) gautam.phanse@chevron.com
Gopal Kothari
Program Manager - Chevron Studio
Chevron Technology Ventures (CTV) gopal.kothari@chevron.com
Program Benefits:
Universities & national labs: Convert ideas & concepts to commercial solutions with win-win partnership with aspiring entrepreneurs
Entrepreneurs: Access to curated list of intellectual properties from top institutions
Steven Yackel
Program Manager - Chevron Studio
National Renewable Energy Laboratory (NREL) steven.yackel@nrel.gov www.chevronstudio.com
The MIT Climate and Energy Prize (CEP) is the world's largest and longest running competition for student-led climate start-ups. This year we are celebrating 17 years of climate impact. CEP brings together the best of MIT - innovation, tough-tech, disciplined entrepreneurship and an amazing sense of community to tackle the worlds hardest problems.
Following the last year's CEP expansion into Europe, we further expanded CEP globally, by opening up the CEP application to university and college students anywhere on the planet for the first time in CEP history. As a result, 2024 was our most competitive year so far. We received a record-breaking 166 applications from 44 countries and 94 universities worldwide! The teams who have made it this far demonstrated that their ideas have enormous potential to address climate change and are scalable with the right support at the right time. We are so proud to support these brave and committed founders on their journey.
We wish our qualifying teams all the best for the competition and for their next steps as climate entrepreneurs!
Boston Semi-final
Friday, March 8, 2024
8:30 AM – 3:30 PM EST
MIT Media Lab
75 Amherst St, Cambridge, MA 02139
London Semi-final
Friday, March 15, 2024
8:30 AM – 4:00 PM GMT
DLA Piper London
160 Aldersgate St, Barbican, London EC1A 4HT, UK
Grand Final
Friday, April 19, 2024
8:30 AM – 6:00 PM EST
The Engine
750 Main Street, Cambridge, MA 02139
This year’s MIT Climate and Energy Prize features nine tracks for prospective teams.
Sustainable building materials, low-carbon heating and cooling, prefab construction, energy efficiency, building electrification and energy optimization
Solutions that protect communities and businesses against the consequences of climate change. Resilient infrastructure, wildfire management, climate refugees, resilient crops, insurance solutions, water purification and recycling, heat adaptation, solar radiation modification
Emissions and sustainability reporting, ESG investing and fintech, earth observation through remote sensing, climate risk and intelligence platforms
New generation technologies (e.g., nuclear, solar, geothermal), energy storage, hydrogen and other low-carbon fuels, enabling renewables software, marketplace, and grid management platforms, DER and demand response tools, utility transmission and distribution services
This year’s MIT Climate and Energy Prize features nine tracks for prospective teams.
Alternative proteins, regenerative farming, vertical farming, sustainable fertilizer and animal feed, biodiversity conservation, nature preservation/restoration and ecosystem services, remote sensing for crop yield optimization, autonomous farming equipment, and food waste reduction
Carbon offset marketplace and procurement platforms, carbon utilization, carbon removal and storage technologies, methane mitigation, point-source CCS, verifiers and ratings enablers
Low-carbon cement, chemical and plastics, steel, manufacturing, metals and mining, circular economy commerce, sustainable textiles and packaging, waste and recycling
Battery technologies, EV autos, EV charging and fleet management, electric micromobility and ridesharing, zero-emission planes, boats, and trains, urban public transport
Access to clean drinking water, water tech, ocean conservation, ocean pollution removal, ocean upwelling/fertilization, wastewater reuse and treatment, harvesting rainwater/groundwater, aquaculture sustainability
This year, MIT Climate and Energy Prize received 166 applications from all around the world and selected 18 teams as Semi-finalists.
Connecticut
California
Massachusetts
Washington, D.C
Texas
Sweden
Austria
Italy
Spain
United Kingdom
Hungary
India
Singapore
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
✓
Ammonia production feeds nearly half the world’s population but is environmentally damaging, releasing 2.7 tons of CO2 for each ton produced. Shifting to green ammonia production is hindered by extremely high production costs, typically five times higher than traditional fossil fuel-based methods. Traditional ammonia production requires high pressure and temperature, making it expensive due to the significant costs associated with compression – accounting for 90% of the capital and operational expenses.
Our innovative reactor operates at atmospheric pressure and temperatures below 270°C, significantly outperforming the Haber-Bosch method by producing 14 times more ammonia in lab-scale tests. Additionally, a newly discovered catalyst enhances our process, yielding 15 times more ammonia under these optimized conditions. This method dramatically reduces ammonia synthesis costs by 80% and energy requirements by 88% at scale. Our strategy is to develop and deploy these reactors across distributed production facilities, offering a costeffective ammonia supply to both existing and future customers.
• Lower energy demand per ton of ammonia produced from lower capital and operating costs of the reactor.
• More modular and distributed reactor.
• Stable price and supply of ammonia from distributed production for farmers.
• Reduced risk of supply chain disruptions and guaranteeing that farmers have the essential nutrients they need for crop production all year round.
Dana Vasquez, cofluxpurification@gmail.com
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Dr. Alec Ajnsztajn, CEO, CSO
Jeremy Daum, CTO
Dana Vazquez, CCO
PFAS, or Per- and polyfluoroalkyl substances, infiltrate every part of our lives – we unknowingly interact with it daily. PFAS are in everything from our clothes, cookware, personal health products, and water. The average American has detectible levels of PFAS in their blood, which can lead to long-term health defects, including cancer and infertility. With the global water crises, having access to clean, safe water is essential.
Coflux uses a patent-pending in-stream module that breaks down PFAS using a novel absorbent for chemical-free water. Our solution permanently destroys PFAS in the filtration cycle, using only light and our Photocatalytic Absorbent Foam.
Current solutions do not destroy PFAS, instead they remove it through use of physical media, creating more PFAScontaminated waste. Coflux Purification not only captures, but also destroys PFAS, eliminating the PFAS-contaminated waste product.
David Brown,
dbrown64@mit.edu
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Evan Haas, CEO
David Brown, COO
Dr. Ariel Furst, Head of R&D
Industrial Decarbonization
✓
Carbon capture is critical to the future of our planet, but the high energy demands with converting carbon dioxide into useful chemicals makes it financially infeasible. The results is most captured carbon is buried underground, a method fundamentally unscalable due to its reliance on carbon credits.
Our proprietary catalysis technology drastically lowers the power requirements of carbon dioxide conversion, making it economically feasible to decompose into valuable components and creating carbon-neutral feedstocks that are price competitive in fossil-based markets. Focusing initially on syngas and ethylene, we plan to gradually expand across carbonbased chemicals, replacing fossil fuels as a source of carbon in our economy.
Our proprietary catalysis technology drastically lowers the power requirements of carbon dioxide conversion, making it economically feasible to decompose into valuable components and creating carbon-neutral feedstocks that are price competitive in fossil-based markets. Focusing initially on syngas and ethylene, we plan to gradually expand across carbonbased chemicals, replacing fossil fuels as a source of carbon in our economy.
www.oxylusenergy.com, contact@oxylusenergy.com
Milestones: ✓
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Transportation
The hard-to-abate sectors of aviation, shipping, and petrochemicals represent 11% of current global GHG emissions and have no easy path to decarbonization. This trillion dollar opportunity requires alternative carbon-neutral fuels to decarbonize. Yet current alternative fuel possibilities (ammonia and green hydrogen) would require costly upgrades to infrastructure & CAPEX, are not energy dense, and are possibly toxic. Thus, green methanol is a great chemical to decarbonize these sectors. However, decarbonizing green methanol is currently limited by cost and availability.
Ambient temperature & pressure electrochemical CO2 reduction to green methanol.
Oxylus Energy is a novel carbon conversion and e-fuel startup that creates affordable and scalable e-methanol through CO2 electrolysis. Using a breakthrough electrochemical catalyst, Oxylus Energy converts CO2 at room temperature and pressure to methanol with the highest energy efficiency and highest emission reduction potential. This allows green methanol that is modular and that can provide on-site decarbonization.
Jarren Reid, Jarren@seamind.ai
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Jarren Reid, CoFounder
Abe Getahun, CoFounder
Climate Services & Software
Pre-historic funding and procurement processes for new technology adoption in aquaculture have led to outdated oceanclimate space infrastructure.
We’re building the operating system for climate decision-making. We are automating the funding and procurement process for state and federally-funded Fish & Wildlife facilities. By doing so, we are reducing RFP time, streamlining communication channels, and increasing adoption of ocean-climate technologies.
Streamlining the funding process for state and federally-funded US Fish & Wildlife facilities to adopt sustainable infrastructure. This improves production rates, which in turn drives more revenue for the state and increases wild fish stocks.
Contact@silo.energy
Milestones: ✓
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
The U.S. electricity grid faces unprecedented load growth; a need for longer duration storage as wind and solar penetration increases; and clean energy resources that can circumvent growing backlogs for grid interconnection. This is what we are solving.
We are building long duration thermal energy storage that stores off-peak renewable energy for days and then converts that back to power.
• We can store energy for 100 hours + with less than 1% heat loss per day.
• We are 2-3x cheaper than other clean firm options on the grid (e.g.nuclear, hydrogen, geothermal).
• We cut deployment time for new energy storage resources on the grid from 5 years to 12 months by leveraging existing grid interconnections at coal/gas plants and tapping into existing plant workforce and infrastructure.
Washington, DC, USA
Keeley Erhardt, hello@strobepower.com
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Keeley Erhardt, CEO
✓
Since 2013, there has been a 55% surge in power outage hours. Major outages in the U.S. escalated from less than two dozen in 2000 to over 180 in 2020. This trend is alarming, especially considering that 70% of the U.S. transmission and distribution infrastructure is at or near the end of its 50-year lifespan. To achieve a successful green energy transition, it is crucial to balance decarbonization with enhanced grid reliability.
Strobe's SparkOS is a software platform designed to enhance grid reliability through the digitalization and decentralization of energy storage. SparkOS intelligently manages distributed battery systems, optimizing them for ancillary services, demand response, and peak shaving. This system is underpinned by proprietary algorithms developed from four years of deep learning and neural network research at MIT. Our approach leverages rented mobile battery systems and cloud computing to offer resilience-as-a-service, ensuring operational continuity for businesses and contributing to grid stability.
Strobe's technology anticipates the grid's requirements for power dispatch and reserve and identifies optimal locations for new battery installations. We execute dispatch strategies autonomously at the edge, without requiring feedback from grid operators or customers. Customers engage with us through a simplified contract that provides a resiliency guarantee. We ensure optimal performance tailored to the customer's load profile and facilitate the battery's participation in electrical markets, delivering emergency power assurance, energy savings, and hassle-free backup power management.
Margaret Boreham, maggie.boreham@yale.edu
Milestones: ✓
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
The fashion industry is one of the most environmentally detrimental industries and accounts for roughly 10% of global greenhouse gas emissions. A staggering 92 million tons of textile waste end up burned, landfilled, or shipped to low-income countries every year - this results in annual ghg emissions equivalent to driving over 65 million cars. Unfortunately, sustainability teams are overwhelmed, and rather than focusing on solutions for these problems, businesses are stuck spending most of their resources on data collection. We’re building a more accurate and cost-effective solution.
We're developing a modular software system as a tool for sustainability teams to save time and recommend practical solutions for impact reduction. Our system leverages RFID ethread technology to compile data points along a garment's lifespan and create accurate and verifiable reports and recommendations. Our modules include: Data Analytics, Impact Accounting, Predictive Mitigation, End-of-Life Management.
By bridging the data gap that currently exists in sustainability analytic tools, ThreadMap will help brands save time and money while achieving their climate goals. While most tools currently in use only identify problem areas, we’ll help teams develop a strategy to fix them. Our Predictive Mitigation module will help brands prioritize high impact areas and model potential pathways for reduction before investing in implementation. Our end-of-life management tool will allow sorting facilities to see key data points about a garment, enabling the textile recycling industry to move to automation in the future and ultimately resulting in more garments diverted from landfill.
Cynthia Liao, cliao1@mit.edu
Milestones: ✓
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Cynthia Liao, Commercial Lead
Sharon Hsiah, Technical Lead
Minsik Oh, Technical Lead
Joshua Perozek, Wafer Fab Lead
Dr. Tomas Palacios, Advisor
✓
Data centers consume 1.3% of global energy and produce 2.5% of global greenhouse gas emissions. Rapidly growing driven by trends in AI and cloud computing, data centers are expected to consume 10% of global power by 2030. Siliconbased power converter devices are inefficient due to power lost in conversion. Improving efficiency in high-power conversion is a major energy, cost & carbon reduction opportunity for data center operations and all high-power applications (e.g., EVs)
We are commercializing Vertical Gallium Nitride (GaN) technology, a novel semiconductor device innovation developed from 8+ years of R&D from MIT Palacios Group. We will produce the first Vertical GaN transistor on 8-inch wafers. Compared to silicon & other materials, Vertical GaN devices offer unparallel advantages for high power electronics enabling a smaller device area, higher breakdown voltage, reduced switching and conduction loss, and improved thermal management. Working with industry partners including Qromis, Analog Devices, UC Santa Barbara and MIT Lincoln Lab, we have developed a method to fabricate GaN transistors on engineered substrate. This approach reduces the material cost and enables manufacturing on silicon semiconductor production capacity which drastically reduces the upfront investment.
For a data center, deploying our vertical GaN technology across the power supply system can result in 40% improvement in energy efficiency for powering each server rack. Data centers also spend up to 50% of their energy costs on cooling. Implementing Vertical GaN devices also reduces energy lost as heat, reducing the need for cooling, thereby cutting data center operating expenditures by 20%.
Feb Hillman, aerofluxteam@gmail.com
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
✓
✓
Industrial Decarbonization
The deleterious effect of climate change from green house gas emission is apparent. An immediate solution is critical to inhibit further damages. CO2 accounts for 76% of green house gas emissions, in which 70% are contributed by the heavy industries. The most effective and immediate solution to bring these industries closer to net zero operation is to capture their CO2 emission before mixing with the atmosphere. Hence the importance of effective point source carbon capture solution.
Point source carbon capture through an innovative, costeffective, and space-effective membrane.
We offer 79% reduction in cost, 93% smaller in footprint, a simpler operation, and a more ecofriendly carbon capture solution as compared to the conventional approach by solvent absorption. With wide adoption of carbon capture, our solution can potentially reduce 1 billion ton of CO2 per year from the global emission.
Martin Blomberg, martin@agteria.com
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Björn Lindh,
ChairmanBurping and farting cows are responsible for over 5% of the world’s greenhouse gas emissions. With methane being over 80 percent more potent than CO2, it is a major contributor to global warming. However, with methane breaking down from the air in around 10-20 years, compared to over 100 years for CO2, it presents an opportunity to combat climate change effectively. Yet, current solutions fall short; they are either too expensive to produce or too inefficient to effectively reduce methane emissions. This leaves farmers grappling with the challenge of mitigating methane emissions while remaining economically sustainable and compliant with regulations, hindering progress toward environmental sustainability in agriculture.
A patent pending feed additive that reduces methane emissions by over 70%.
Agteria revolutionizes the fight against climate change with our innovative feed additive, reducing methane emissions by over 70%. Affordable to produce and easy to scale up, our solution empowers dairy and milk companies to embark on significant environmental initiatives while maintaining profitability. By targeting methane emissions from burping and farting cows, Agteria offers one of the most efficient strategies to combat climate change, enabling industries to make tangible environmental strides without compromising their bottom line.
Alessio Iuvara, alessio.iuvara@caelus.com
Alessio Iuvara, info@caelus-nuclear.com
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
In the nuclear sector, projects must meet strict safety standards and provide comprehensive documentation to regulatory bodies, showcasing technology's safety and reliability. Adapting projects for multiple countries is costly, affecting the exportability and scalability of Small Modular Reactors (SMRs). SMRs aim for economic viability, timely and budgeted decarbonized nuclear power delivery to the grid, supporting the Net Zero 2050 goals emphasized at COP28.
The CAELUS Project aims to streamline nuclear project design and documentation processes through automations and digital tools with a special focus on Small Modular Reactors (SMRs).
Alessio Iuvara, Founder, CEO/CTO
Alessio Iuvara, Founder, CEO/CTO
Sara Marsella, Legal Team Leader
Sara Marsella, Legal Team Leader
Francesca Draisci, Project Manager
Francesca Draisci, Project Manager
Davide De Angelis, Business Team Leader
Davide De Angelis, Business Team Leader
Lorenzo Tomassetti, AI Team Leader
Lorenzo Tomassetti, AI Team Leader
• Supports the development of nuclear technology at all stages from design and licensing to decommissioning and waste management.
• Connects digital engineering tools and documents through a single platform.
• Reduces time associated with design, as well as document drafting and updating.
• Offers automation, AI-enhanced document composition, and real-time project management.
• The serverless B2B SaaS model, with a validated MVP, demonstrates industry confidence and readiness for rapid deployment in support of sustainability goals.
Delia Rodriguez Lucas, delia@ekilabs.com
Milestones: ✓
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Nina Eibock, Finance
Les Armstrong, Technology
Andres Olivares, Operations
If you had one hectare of land, would you use it for solar energy or agriculture? The fundamental constraint to scale both is LAND, and the growing tension between them is derailing the transition to renewable energy. In fact, some of the largest solar plants in Europe are being stopped because of conflict with farmers, and this is happening all over the world.
We merge agriculture and solar energy by scaling innovative vertical photovoltaic panels and sharing our revenue with farmers. We unlock millions of acres for clean energy, support our food supply chain, and support rural communities – while generating 10x revenue per hectare.
• Configuration: Standard solar panels are horizontal, and consequently require vast areas of land. In contrast, our solution consists of vertical bifacial panels, which require minimal space – allowing farmers to keep harvesting their lands.
• Production: Horizontal solar configurations produce mostly at noon – in contrast, our innovative configuration of vertical East-West orientated panels allows us to maximize electricity production in the morning and evening – prime times in energy markets.
• Versatility: we accommodate the growth of crops that other agrivoltaic structures cannot handle, crops that thrive in abundant sunlight and require heavy machinery.
Benedek Juhász, bjuhasz7054@gmail.com
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Climate Services & Software
Agrivoltaics—a method combining agriculture with solar energy production—is underutilized by farmers, especially in Middle Eastern Europe. This is largely due to fluctuating regulations and a general lack of accessible, reliable information on implementation.
Our web app uses state-of-the art machine learning and data analytics, giving the users precise insights and answering their questions. Our app includes a chat-bot assistant, energy planning and shadow cover calculation.
• Precise Insights: Our app analyzes agricultural and energy data, giving farmers the precision they need for optimal decision-making.
• Interactive Chat-bot Assistant: Our app features an intuitive chat-bot assistant, ensuring farmers can effortlessly seek information, get real-time advice, and navigate the app easily.
• Energy Planning: Our app assesses farmers' energy needs, recommends optimal locations for agrivoltaic installations, and provides insights on energy efficiency.
• Shadow Cover Calculation: Farmers can take control of their farm's sun exposure. Our app calculates precise shadow cover, allowing them to plan their crops and agrivoltaic installations strategically. Maximizing productivity and energy generation while minimizing potential shading issues.
Georg Breitenberger, breitenberger@parastruct.org
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Georg Breitenberger, CEO
Kilian Rießbeck, Chief Circularity Officer
Dr Freia Ruegenberg, Chief Scientific Officer
Nico Buller, Business Development
Unused material waste requires extracting more raw materials, harming the environment and wasting resources.
ParaStruct has developed a reusable binder for material and biogenic waste, enabling eco-friendly 3D printing of new, recyclable building materials. B2B customers can achieve their sustainability goals while turning trash into cash. The company's beachhead market is the construction waste recycling industry, as they currently do not get a good price for their recycled products.
• Helps businesses achieve environmental goals by turning waste into valuable materials.
• Addresses the low valuation of recycled products by enhancing their quality and appeal.
• Features a recyclable, low-carbon binder for fine-grained mineral and biogenic waste suitable for 3D printing.
• A high-speed 3D printing system that can process 2m³ of waste material per hour.
• Process technology that can process and recycle alternative binders.
• Fully recyclable products for high-volume markets.
• A business model based on licensing that makes the technology accessible to a wide range of users.
Tokelo Khambule, info@philisaenergy.com
Milestones: ✓
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Tokelo Khambule, Strategy Lead
Hugo Mkhize, Funding and Climate Strategy
Pascal Mwenge, Chemical Engineer
Industrial Decarbonization
✓
Mpho Qhubu, Chemical Technologist
High production costs: High cost of raw materials for biodiesel production derived from fossil fuels, coupled with the limited feedstock options, hinders the widespread commercialization of biodiesel. Environmental Impact: The traditional biodiesel production process involves the use of single-use homogeneous catalysts that generate wastewater and have limited reusability, contributing to environmental concerns. Resource Depletion: Lack of efficient utilization of steel industry by-products, specifically steel slag in developing countries, leads to land occupation, environmental pollution, and wasted resources.
Production of biodiesel in an eco-friendly manner by using slags, a waste product from blast furnaces obtained during steel production. Slags are used to produce geopolymer catalysts through modification using alkali solutions. The geopolymer will be produced into powder/ beads/3D-spheres allowing them to be reused multiple times as it is easily recovered. The procedure is cost-effective and eco-friendly and does not require high maintenance procedures. Our biodiesel will be manufactured in a convenient manner of transesterification using waste cooking oil as a source of oil.
• Production of high quality biodiesel through a circular mindset that ensures a cost effective and environmentally friendly energy solution.
Anjali Benny Devadasan, team@treeva.uk
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Transport has the highest reliance on fossil fuels of any sector, accounting for 37% of global emissions. To tackle increasing transport energy supply risks, reliable renewable power is crucial.
Highly efficient vertical-axis wind turbines made from upcycled materials, to generate renewable energy from the turbulent airflow of passing transport.
• High energy efficiencies: x2 of alternative competitors.
• Predictability of Power: know when and how much power will be generated based on the number of trains passing by.
• 3x Reduced CO2 compared to alternatives - combining high efficiency, upcycled materials and reusing parts to reduce resource extraction.
Balachandran Raju, wes@wankel.in
Milestones:
Business Concept
Prototype/MVP Built
Company Incorporated
First External Users/Pilot
First Paying Client(s)
Funding Raised
Team:
Balachandran Raju, CEO
Gautam Subburaj, COO
Dr Vipin Venugopal, CTO
Prof Satyanarayanan Seshadri, Director
Inefficient utilization of steam and waste heat in industrial processes leads to higher energy costs, increased carbon emissions, and environmental degradation. Traditional systems lack the efficiency and adaptability required to harness the full potential of these resources, resulting in lost opportunities for cost savings and sustainability.
Dynamic volumetric control is a cutting-edge feature of WES' patented technology that enhances the efficiency and adaptability of our expanders and compressors. With dynamic volumetric control, our technology intelligently adjusts the internal volume and displacement of the expander or compressor in real time based on factors such as steam pressure, temperature, and flow rate.
• Enhanced Energy Efficiency: Maximize energy recovery from steam and waste heat, allowing industries to optimize their energy usage and reduce consumption.
• Environmental Sustainability: Help industries minimize their carbon footprint, contributing to environmental conservation and sustainability efforts.
• Cost Savings: Enable businesses to lower their energy costs by recovering and reusing otherwise wasted energy, resulting in significant savings on utility bills and operational expenses.
• Reliable Performance: Offer robust and reliable expanders and compressors designed for industrial applications, ensuring continuous operation and minimal downtime for our customers.
We would like to thank all mentors and judges for their expertise.
❖ Agustin Gonzalez
❖ Alex de Sousa
❖ Alexis Garavel
❖ Amrit Jalan
❖ Amy Dai
❖ Benjamin Birnbaum
❖ Benjamin Fox
❖ Brijesh Singh
❖ Byron Kelly
❖ Chris Kong
❖ Daniel Sortica
❖ David Hsu
❖ Elizabeth Troein, PhD
❖ Fabien Duclocher
❖ Gemma Odena Bulto
❖ Himanshu Sharma
❖ Jennifer Turliuk
❖ Jonathan Hinton
❖ Joshua James
❖ Kavita Patel
❖ Kosuke Kobayashi
❖ Manushi Desai
❖ Marc Davidson
❖ Marin Vandamme
❖ Mike Toomey
❖ Nathan Stempel
❖ Naveen Jha
❖ Paul Monroe
❖ Pjotr Van Schothorst
❖ Priya Shah
❖ Prutha Atre
❖ Rahul Meka
❖ Richard Walsh
❖ Ross Palley
❖ Sebastien Leger
❖ Seth Snyder
❖ Taiil Kim
❖ Toshiaki Nishio
❖ Wataru Takada
❖ Yosuke Tsuboi
We would like to thank all mentors and judges for their expertise.
❖ Aakash Shah
❖ Adrian Finzelberg
❖ Agustin Gonzalez de Abiega
❖ Alex Prather
❖ Alexandra Steckmest
❖ Alexis Garavel
❖ Aly Bryan
❖ Amandeep Midha
❖ Amy Dai
❖ Andri Rajaobelina
❖ Anne-Marie Kaluz
❖ Ashwin Bhanot
❖ Atsushi Kato
❖ Becky Wilson
❖ Bernhard Raberger
❖ Chloe Holzinger
❖ Chris Kong
❖ Christopher Goolgasian
❖ Daniel Ketyer
❖ Daniel Sortica
❖ Danny Donovan
❖ David Wilson
❖ David Zug
❖ Devika Kumar
❖ Elizabeth Troein, PhD
❖ Emilia Chojkiewicz
❖ Emily Yedinak
❖ Eric Yao
❖ Evgeny (Gene) Sheenko
❖ Guillermo Altenhordt
❖ Himanshu Sharma
❖ Jake Russell
❖ Jane Lee
❖ Jenny Larios Berlin
❖ Jinchen Zou
❖ Joe Adiletta
❖ Jonathan Axelrad
❖ Joseph Maalouf
❖ Julien Levallois
❖ Juliet Rothenberg
❖ Justin Ashton
❖ Kara Rodby
❖ Katie Clasen
❖ Kavita Patel
❖ Kike Miralles
❖ Kosuke Kobayashi
❖ Lawren Tilney
❖ Leah Bowes
❖ Leonardo Massa
❖ Manushi Desai
❖ Manya Ranjan
❖ Martin Srna
❖ Matt Morris
❖ Melissa Zhang
❖ Micha Ben-Naim
❖ Michael Campos
❖ Miriam Harris
❖ Mohamed Zahran
❖ Natalie Geise
❖ Nathan Stempel
❖ Naveen Jha
❖ Nicholas Van Osdol
❖ Noah Lerner
❖ Parikshit Sharma
❖ Patrick Sarver
❖ Peter Schork
❖ Peter Sopher
❖ Pilar Carvajo Lucena
❖ Pjotr van Schothorst
❖ Rachel Field
❖ Rachit Kejariwal
❖ Richard Walsh
❖ Ryan Masumoto
❖ Ryan Taylor
❖ Scott Burger
❖ Sebastien Leger
❖ Shin Yamazaki
❖ Shohei Yamada
❖ Shyam Bhojwani
❖ Sindhu Balan
❖ Steven Fox
❖ Supratim Das
❖ Vincent Mo
❖ Walter McLeod
❖ Yusuke Fujiwara
We would like to thank all participants in this year’s MIT CEP.
Total participants (167 teams)
❖ 360energy
❖ Aatral Hydrogen Private Limited
❖ AeroFlux
❖ Agastya
❖ AgroCycle Technologies
❖ AgroLim Groceries
❖ Agteria Biotech
❖ AlGreen
❖ Andros
❖ Anise Farms
❖ Aquasaic
❖ AR Green
❖ ARISE
❖ Bag Plastic
❖ Balanced
❖ Bambootroothbrush
❖ Big Mooove
❖ Bloom Technologies
❖ Blue Filter
❖ BOAT
❖ BuildEdge
❖ Buy-Your-Pack
❖ CAELUS
❖ Carbon Infuse
❖ Carbon Shuddhi
❖ Carbonsmith
❖ ChargeNest
❖ Chavdar Kamenarov
❖ Chemotronix Limited
❖ Cimu
❖ Clair Clean Air
Technologies
❖ Clean Code
❖ CLIMxAERO
❖ CLIP Energy
❖ Cloudcrop
❖ Code Wolves
❖ Coflux Purification
❖ ContainerGrid
❖ Corporate Ghana
Strategic lnvestments
Group Limited
❖ CP_VANS
❖ Crop Diagnostix
❖ deScrapped
❖ DetoXyFi
❖ e-charging
❖ EcoChainFin
❖ Ecolution
❖ ECOPRIDE
❖ ECO-Wave Power
❖ Eki Agrivoltaics
❖ Electromaim
❖ ElectroVent
❖ EnerGirrafe
❖ Everdant
❖ EVident Battery
❖ EVolution
❖ EyeLeaf
❖ EYELEAF
❖ Flash
❖ Flint
❖ FlowCellutions
❖ Fly Farmer
❖ Fore Solutions
❖ Geo-Swarm
❖ GLED
❖ Global-winner
❖ Glowing Village Project
❖ Go-CTax
❖ Go-Solar Fresh
❖ GPSolar
❖ Graff Inc
❖ Green Thumb
Agricultural Solutions
❖ GreenChain
❖ Greenlay
❖ GreenRipple
❖ GreNu Energy
❖ Harsh
❖ Helix Carbon
❖ HFL
❖ Incy Tech
❖ Inti Solar
❖ Iontech energy
❖ Jakaba Team
❖ jargoñ.ai
❖ Kinowave
❖ KohlenKraft GmbH
❖ KOTA
❖ Latent
❖ Lemon
❖ Lighthouse Energy
❖ LITER
❖ Mangrove
We would like to thank all participants in this year’s MIT CEP.
Total participants (167 teams)
❖ MeOH
❖ Methain't
❖ MicroAvionics
❖ Monte Caldera
❖ Myfarm Ltd
❖ NET Offset
❖ Net Zero Foundation Inc.
❖ NetaCarbon
❖ New Time Machine
❖ Owanga
❖ Oxylus Energy
❖ Oxylus Energy
❖ PARALLEL
❖ ParaStruct
❖ Particle-N
❖ PayVerve
❖ Pecan Credit
❖ PECOP Project
❖ Philisa Energy
❖ PicKinHub
❖ PlasGRID
❖ PowerPlants
❖ Prospect Growth, Inc.
❖ Pulse Magnetics
❖ ReAxel Technologies
❖ Regreenerate
❖ Rehydrate
❖ Renescout
❖ RESILIFT
❖ Rise Reforming
❖ Samtracs
❖ Saptkrishi
❖ Schrodinger Technologie Ltd
❖ SeaMind AI
❖ SecondSite
❖ Seneca Energy Systems
❖ SenseIT
❖ Silo Energy
❖ SimplyScrapps
❖ Sirius-X Energy
❖ Solar Aqua and Light
❖ Solar Marine
❖ SolarMed
❖ Solidec
❖ Spare Ai
❖ Strobe Power
❖ SunTrace
❖ SustAIn
❖ SustainaCode
❖ Tarragon Systems
❖ TECNO SABER 3000 CA
❖ Teelabs
❖ Thermoelectric Stove Generator
❖ ThreadMap
❖ Tobelli
❖ TraceCycle
❖ TrashTroopers
❖ Treeva Ltd
❖ Tuuli
❖ Unbiased Cathodet
❖ Upcycling+
❖ Vaulterra
❖ Vert
❖ Vertical GaN
❖ Wankel Energy Systems Pvt Ltd
❖ Wastezon
❖ WattShift
❖ WeavInsight
❖ WeeHive
❖ WEFERA
❖ Wiser Machines Inc.
❖ WSU Team
❖ Xcharge Digital
❖ Yotuh Energy
❖ Zero Waste
❖ ZIRAEALINK