About Intellectual Property IP Training IP Outreach IP for… IP and... IP in... Patent & Technology Information Trademark Information Industrial Design Information Geographical Indication Information Plant Variety Information (UPOV) IP Laws, Treaties & Judgements IP Resources IP Reports Patent Protection Trademark Protection Industrial Design Protection Geographical Indication Protection Plant Variety Protection (UPOV) IP Dispute Resolution IP Office Business Solutions Paying for IP Services Negotiation & Decision-Making Development Cooperation Innovation Support Public-Private Partnerships The Organization Working with WIPO Accountability Patents Trademarks Industrial Designs Geographical Indications Copyright Trade Secrets WIPO Academy Workshops & Seminars World IP Day WIPO Magazine Raising Awareness Case Studies & Success Stories IP News WIPO Awards Business Universities Indigenous Peoples Judiciaries Genetic Resources, Traditional Knowledge and Traditional Cultural Expressions Economics Gender Equality Global Health Climate Change Competition Policy Sustainable Development Goals Enforcement Frontier Technologies Mobile Applications Sports Tourism PATENTSCOPE Patent Analytics International Patent Classification ARDI – Research for Innovation ASPI – Specialized Patent Information Global Brand Database Madrid Monitor Article 6ter Express Database Nice Classification Vienna Classification Global Design Database International Designs Bulletin Hague Express Database Locarno Classification Lisbon Express Database Global Brand Database for GIs PLUTO Plant Variety Database GENIE Database WIPO-Administered Treaties WIPO Lex - IP Laws, Treaties & Judgments WIPO Standards IP Statistics WIPO Pearl (Terminology) WIPO Publications Country IP Profiles WIPO Knowledge Center WIPO Technology Trends Global Innovation Index World Intellectual Property Report PCT – The International Patent System ePCT Budapest – The International Microorganism Deposit System Madrid – The International Trademark System eMadrid Article 6ter (armorial bearings, flags, state emblems) Hague – The International Design System eHague Lisbon – The International System of Appellations of Origin and Geographical Indications eLisbon UPOV PRISMA Mediation Arbitration Expert Determination Domain Name Disputes Centralized Access to Search and Examination (CASE) Digital Access Service (DAS) WIPO Pay Current Account at WIPO WIPO Assemblies Standing Committees Calendar of Meetings WIPO Official Documents Development Agenda Technical Assistance IP Training Institutions COVID-19 Support National IP Strategies Policy & Legislative Advice Cooperation Hub Technology and Innovation Support Centers (TISC) Technology Transfer Inventor Assistance Program WIPO GREEN WIPO's Pat-INFORMED Accessible Books Consortium WIPO for Creators WIPO ALERT Member States Observers Director General Activities by Unit External Offices Job Vacancies Procurement Results & Budget Financial Reporting Oversight

Aurelius Environmental

It would be easy to think that if almost all of a common industrial material is recycled, it is completely sustainable. But such a conclusion overlooks the nature and effects of the recycling process itself.

Lead acid batteries are widely used in our society – in cars and other vehicles, for emergency lighting, and as power backups for hospitals. The basic design and the materials used to make them have not changed much since the 1800s, with a standard battery consisting of a plastic casing, a quantity of acid, and lead terminals that sit in the acid. All these ingredients are widely recycled, with most G7 nations achieving recycling rates of over 95 percent, but unfortunately, the industry that recycles the lead is a major contributor to carbon emissions.

(Photo: Getty/Bet_Noire)

Why is this? It’s because of the intense heat required to melt the lead terminals into lead bullion, ready to be used again. Melting furnaces need to reach temperatures of more than 1100°C, which requires large amounts of power. This means that for every 10,000 tonnes of lead acid batteries recycled, as much as 4,500 tonnes of CO2, 4 tonnes of SO2, 2 tonnes of NO2 and 1 tonne of lead particulates may be produced.

About the company

Aurelius Environmental was founded in 2014 to work towards a world without waste, using technology to create a better world. Its co-founders combine extensive knowledge of the commercial battery market and recycling technology with expertise in chemistry and intellectual property (IP) to create innovative solutions to current sustainability challenges.

The core inventor of Aurelius’ process Professor Vasant Kumar (first from left), from the University of Cambridge, and CEO Miles Freeman receiving the Rushlight Resource Innovation Award in January 2019. (Photo: Courtesy of Aurelius Environmental)

Aurelius Environmental’s FenixPb process can recover the active material in batteries (the so-called “leady oxide,” which is a mixture of lead metal and lead oxide) while reducing the carbon footprint by more than 85 percent. It is a zero-waste process, and substantially reduces the energy used because the process takes place in cold water instead of in a furnace.

Furthermore, the active material produced through the recycling process has a higher porosity and lends itself to superior batteries – as it is more energy dense in comparison to batteries produced from mined lead metal.

IP has been fundamental to Aurelius’ success so far, with the underlying IP giving the founders confidence to build the business from zero to a GBP5 million plus turnover partly through their own personal investment. This IP position has enabled Aurelius Environmental to engage with investors and licensees all over the world, with more than 40 expressions of interest from around the globe. The company is currently negotiating licenses in all key global markets.