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Bitfinity, a blockchain network, secures $7 million in funding across two rounds, with a valuation of $130 million. The Bitcoin Layer 2 network, built on the Internet Computer protocol (ICP), allows for faster and more scalable transactions, making it an appealing platform for developers and users alike.
Bitfinity's funding rounds, featuring prominent investors like Polychain Capital and Warburg Serres, highlights the growing interest in Bitcoin Layer 2 solutions. The project's focus on enhancing decentralized finance activities on the Bitcoin blockchain aligns with broader trends shaping the crypto landscape.
Bitfinity Co-founder Max Chamberlin emphasizes the project's potential, stating, "Bitfinity will not only handle Bitcoin Ordinals and BRC-20 tokens but also EVM assets. The Bitfinity EVM will enable the deployment of EVM dApps with speeds 100 times faster than Ethereum and at a fraction of the cost."
With the mainnet launch scheduled for late January or early February, the transition from the testnet phase marks a crucial milestone.
Because Bitfinity is built on the ICP, one of the advantages is it is compatible with the Ethereum Virtual Machine (EVM), enabling 100 times faster deployment of decentralized applications (dApps) compared to Ethereum at a lower cost.
Several dApps, including Sonic, Synthetix, and Liquity, have already joined Bitfinity, attracted by its support for the EVM. This integration opens new possibilities for developers, bridging the gap between Bitcoin's security and the Internet's speed.
Ahead of the mainnet launch, Bitfinity plans to expand its team and the native token is expected to be listed on several cryptocurrency exchanges. Bitfinity is well-positioned to capitalize on Bitcoin's evolving functionality through layers like Ordinals and BRC-20, presenting itself as a leading platform for developers crafting advanced dApps.
While Bitfinity boasts impressive speed and cost advantages, the industry will closely watch its ability to maintain security standards amidst rapid growth.
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The rise of renewable energy demands a substantial increase in battery production, presenting environmental risks such as greenhouse gas pollution and ethical concerns in the supply chain, particularly in mining operations for raw materials like cobalt. The Global Battery Alliance (GBA) is promoting the use of battery passports—digital records that meticulously trace the origin of each battery component while assessing its environmental and social impact. This ensures the way for a sustainable and socially responsible battery industry.
The battery passport seeks to mitigate environmental and social risks, providing much-needed transparency and accountability in an industry critical for a sustainable future.
In January of last year, the GBA released the first proof of concept for the battery passport, focusing on evaluating greenhouse gas emissions, human rights, and child labor. The initiative plans to expand its scope to include additional factors like biodiversity and indigenous peoples' rights.
"How can we scale this industry in a way that meets the targets of the green transition, but at the same time doesn’t cause collateral damage that would ultimately offset what we’re trying to achieve?" - Inga Petersen, Executive Director of the Global Battery Alliance.
The success of the battery passport could influence other sectors grappling with supply chain transparency issues, such as the US Department of Labor's identification of products suspected of being produced with child or forced labor.
Despite advancements, challenges persist, and the implementation of the battery passport will need to navigate complexities in supply chains and information accessibility.
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It is a known fact that data centers are always on and emit a lot of heat. Administrators diligently manage equipment to prevent overheating but a notable trend is emerging where certain data centers opt to repurpose their generated heat rather than releasing it. Numerous organizations are adopting innovative strategies to reuse the heat generated by their data centers, warming other facilities, residences in neighboring communities, and even swimming pools in environmentally friendly ways.
London-based startup, Deep Green, installs small data centers at energy-intensive sites, turning waste heat from computers into hot water for swimming pools. They recently secured a £200 million investment from Octopus Energy to scale up its technology and expand its services to more swimming pools across England.
Despite the environmental and economic benefits, challenges such as high infrastructure startup costs, geography, technological complexities, and potential energy losses during transmission hinder the widespread adoption of data center heat reuse. Optimal monitoring and optimization of heat cycling, liquid cooling, and airflow dynamics are crucial considerations.
As the demand for data centers rises, the efficient reuse of heat emerges as a vital component of the circular economy. Overcoming challenges through technological advancements and a global focus on heat reuse is essential for mitigating the environmental impact of energy-intensive data centers.
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