Google Fixes Major Password Manager Issue — Still Not Perfect

The Evolution of Google Password Manager

When it comes to password management, many people tend to overlook the options available in their preferred platforms. However, it's not surprising that Google's password manager hasn't made the cut for top recommendations. While it isn't inherently bad at its job, it has often been a source of frustration for users due to its cumbersome interface.

The primary issue with Google's password manager has always been its placement within the labyrinth of menus across various Google services. On Android, accessing the password manager required navigating through multiple settings and account pages, making it an inconvenient process. This design choice, while understandable from a technical standpoint, led to a poor user experience.

Google initially aimed for a system that could work autonomously, using autofill to enter passwords whenever needed. Over time, they introduced a shortcut option on the Android home screen, but this still required users to dive deep into settings to find it. By that point, many had already given up on using Google's built-in password manager and opted for third-party alternatives.

A New Approach to Password Management

Recently, there have been signs of improvement with the launch of the Pixel 10 and Android 16. One of the most notable changes is the introduction of Google Password Manager as a standalone app on the Play Store. This means users can now download it directly, making it more accessible than before. Although the functionality remains largely the same, the convenience of having it as an app is a step in the right direction.

The shift to a Play Store app also allows Google to enforce a rule requiring Android manufacturers to include the password manager by default. This could significantly increase its adoption rate, especially if users are encouraged to set up complex passwords instead of reusing them across accounts.

However, despite these improvements, the core features of Google Password Manager haven't evolved much. Other free password managers offer additional functionalities beyond just securing login details. For instance, they often provide secure notes, document storage, and contact management—features that are essential for comprehensive security.

Learning from Apple’s Approach

Apple's Password Manager, launched alongside iOS 18, has set a new standard for what a password manager should be. It's not just a tool for storing login credentials; it also includes authenticator codes, Wi-Fi passwords, and alerts about data breaches. This integration into a single, secure location makes it incredibly convenient and user-friendly.

While Apple's solution has its limitations, such as the lack of secure note storage, the fact that everything is centralized and protected by biometric authentication makes it a compelling option. The convenience of having all security-related information in one place encourages users to take advantage of these features, especially since it's free and works seamlessly across all Apple devices.

Google would benefit greatly from adopting a similar approach. Merging its existing features into a single, secure location could enhance user experience and make the password manager more appealing. Additionally, focusing on surpassing Apple's offerings could help Google compete more effectively with dedicated password managers like NordPass.

Conclusion

As the digital landscape continues to evolve, the need for robust and user-friendly password management solutions becomes increasingly important. While Google has taken some steps to improve its password manager, there is still room for growth. By learning from Apple's successful model and incorporating additional features, Google can create a more compelling product that meets the needs of modern users. The sooner this happens, the better it will be for both users and the broader cybersecurity community.

Google Fixes Major Password Manager Issue — Still Not Perfect

The Evolution of Google Password Manager

When it comes to password management, many people tend to overlook the options available in their preferred platforms. However, it's not surprising that Google's password manager hasn't made the cut for top recommendations. While it isn't inherently bad at its job, it has often been a source of frustration for users due to its cumbersome interface.

The primary issue with Google's password manager has always been its placement within the labyrinth of menus across various Google services. On Android, accessing the password manager required navigating through multiple settings and account pages, making it an inconvenient process. This design choice, while understandable from a technical standpoint, led to a poor user experience.

Google initially aimed for a system that could work autonomously, using autofill to enter passwords whenever needed. Over time, they introduced a shortcut option on the Android home screen, but this still required users to dive deep into settings to find it. By that point, many had already given up on using Google's built-in password manager and opted for third-party alternatives.

A New Approach to Password Management

Recently, there have been signs of improvement with the launch of the Pixel 10 and Android 16. One of the most notable changes is the introduction of Google Password Manager as a standalone app on the Play Store. This means users can now download it directly, making it more accessible than before. Although the functionality remains largely the same, the convenience of having it as an app is a step in the right direction.

The shift to a Play Store app also allows Google to enforce a rule requiring Android manufacturers to include the password manager by default. This could significantly increase its adoption rate, especially if users are encouraged to set up complex passwords instead of reusing them across accounts.

However, despite these improvements, the core features of Google Password Manager haven't evolved much. Other free password managers offer additional functionalities beyond just securing login details. For instance, they often provide secure notes, document storage, and contact management—features that are essential for comprehensive security.

Learning from Apple’s Approach

Apple's Password Manager, launched alongside iOS 18, has set a new standard for what a password manager should be. It's not just a tool for storing login credentials; it also includes authenticator codes, Wi-Fi passwords, and alerts about data breaches. This integration into a single, secure location makes it incredibly convenient and user-friendly.

While Apple's solution has its limitations, such as the lack of secure note storage, the fact that everything is centralized and protected by biometric authentication makes it a compelling option. The convenience of having all security-related information in one place encourages users to take advantage of these features, especially since it's free and works seamlessly across all Apple devices.

Google would benefit greatly from adopting a similar approach. Merging its existing features into a single, secure location could enhance user experience and make the password manager more appealing. Additionally, focusing on surpassing Apple's offerings could help Google compete more effectively with dedicated password managers like NordPass.

Conclusion

As the digital landscape continues to evolve, the need for robust and user-friendly password management solutions becomes increasingly important. While Google has taken some steps to improve its password manager, there is still room for growth. By learning from Apple's successful model and incorporating additional features, Google can create a more compelling product that meets the needs of modern users. The sooner this happens, the better it will be for both users and the broader cybersecurity community.

SK's Chey Tae-won Meets Bill Gates on Nuclear and Biotech Collaboration

Key Players in Nuclear and Biotechnology Collaboration

At a recent meeting in Seoul, several prominent figures from the energy and biotechnology sectors gathered to discuss future collaborations. Among those present were Kim Moo-hwan, head of the energy solution business at SK Innovation; Chris Levesque, president and CEO of TerraPower; Bill Gates, chair of TerraPower and the Gates Foundation; Chey Tae-won, chair of SK Group; Chey Yoon-chung, head of business development at SK Biopharm; and Ahn Jae-yong, CEO of SK bioscience.

This meeting highlighted the growing partnership between one of South Korea's largest conglomerates, SK Group, and TerraPower, an advanced nuclear startup led by Microsoft co-founder Bill Gates. The discussions centered around expanding cooperation in nuclear energy and biotechnology, aiming to strengthen ties between these key players.

Focus on Advanced Nuclear Technology and Vaccine Development

The talks focused on TerraPower’s Natrium small modular reactor (SMR), which is partially funded by the U.S. Department of Energy. This technology represents a significant step forward in nuclear energy, offering a low-carbon alternative that could meet the rising electricity demand driven by AI data centers and other energy-intensive industries.

In addition to nuclear energy, the collaboration also included vaccine development programs between SK bioscience and the Gates Foundation. These efforts have been ongoing since 2013, with Gates expressing confidence in SK’s potential to contribute to the commercialization of TerraPower’s advanced nuclear designs.

Chey Tae-won, chairman of SK Group, emphasized the importance of nuclear power in addressing energy demands, stating that it is essential for the future. He also highlighted the critical role that SK and Korea can play in advancing TerraPower’s vision.

Government Engagement and Regulatory Support

Following the dinner, Gates, TerraPower CEO Chris Levesque, Chey Tae-won, and senior SK executives met with officials from the Ministry of Trade, Industry and Energy. The purpose of this meeting was to discuss the development of a Korea–U.S. supply chain for SMRs. The companies urged the government to create incentives and regulatory frameworks to accelerate the adoption of this technology, which is becoming increasingly relevant as countries seek sustainable energy solutions.

SK’s holding company, SK Inc., and energy and chemicals firm SK Innovation invested $250 million in TerraPower in 2022, making them major shareholders. This investment underscores the commitment of SK Group to support the development of advanced nuclear technologies.

Ongoing Collaborations and Future Projects

The state-run Korea Hydro & Nuclear Power, SK Innovation, and TerraPower have been working together on the demonstration and development of commercial reactors for the Natrium technology under a memorandum of understanding signed in 2023. This partnership aims to bring innovative nuclear solutions to market.

TerraPower broke ground on its first commercial-scale plant in Wyoming last year, with plans for completion around 2030. This project marks a significant milestone in the advancement of SMR technology.

Chris Levesque, CEO of TerraPower, expressed gratitude for SK’s support since their investment in 2022. He noted the strong alignment between TerraPower’s technology solutions and SK’s industry-leading businesses.

Kim Moo-hwan, head of SK Innovation's energy solutions business, emphasized the importance of SMRs in achieving both carbon reduction and energy security. He stated that SK Innovation will play a leading role in building the domestic SMR ecosystem and entering the global market through its strategic partnership with TerraPower.

SK's Chey Tae-won Meets Bill Gates on Nuclear and Biotech Collaboration

Key Players in Nuclear and Biotechnology Collaboration

At a recent meeting in Seoul, several prominent figures from the energy and biotechnology sectors gathered to discuss future collaborations. Among those present were Kim Moo-hwan, head of the energy solution business at SK Innovation; Chris Levesque, president and CEO of TerraPower; Bill Gates, chair of TerraPower and the Gates Foundation; Chey Tae-won, chair of SK Group; Chey Yoon-chung, head of business development at SK Biopharm; and Ahn Jae-yong, CEO of SK bioscience.

This meeting highlighted the growing partnership between one of South Korea's largest conglomerates, SK Group, and TerraPower, an advanced nuclear startup led by Microsoft co-founder Bill Gates. The discussions centered around expanding cooperation in nuclear energy and biotechnology, aiming to strengthen ties between these key players.

Focus on Advanced Nuclear Technology and Vaccine Development

The talks focused on TerraPower’s Natrium small modular reactor (SMR), which is partially funded by the U.S. Department of Energy. This technology represents a significant step forward in nuclear energy, offering a low-carbon alternative that could meet the rising electricity demand driven by AI data centers and other energy-intensive industries.

In addition to nuclear energy, the collaboration also included vaccine development programs between SK bioscience and the Gates Foundation. These efforts have been ongoing since 2013, with Gates expressing confidence in SK’s potential to contribute to the commercialization of TerraPower’s advanced nuclear designs.

Chey Tae-won, chairman of SK Group, emphasized the importance of nuclear power in addressing energy demands, stating that it is essential for the future. He also highlighted the critical role that SK and Korea can play in advancing TerraPower’s vision.

Government Engagement and Regulatory Support

Following the dinner, Gates, TerraPower CEO Chris Levesque, Chey Tae-won, and senior SK executives met with officials from the Ministry of Trade, Industry and Energy. The purpose of this meeting was to discuss the development of a Korea–U.S. supply chain for SMRs. The companies urged the government to create incentives and regulatory frameworks to accelerate the adoption of this technology, which is becoming increasingly relevant as countries seek sustainable energy solutions.

SK’s holding company, SK Inc., and energy and chemicals firm SK Innovation invested $250 million in TerraPower in 2022, making them major shareholders. This investment underscores the commitment of SK Group to support the development of advanced nuclear technologies.

Ongoing Collaborations and Future Projects

The state-run Korea Hydro & Nuclear Power, SK Innovation, and TerraPower have been working together on the demonstration and development of commercial reactors for the Natrium technology under a memorandum of understanding signed in 2023. This partnership aims to bring innovative nuclear solutions to market.

TerraPower broke ground on its first commercial-scale plant in Wyoming last year, with plans for completion around 2030. This project marks a significant milestone in the advancement of SMR technology.

Chris Levesque, CEO of TerraPower, expressed gratitude for SK’s support since their investment in 2022. He noted the strong alignment between TerraPower’s technology solutions and SK’s industry-leading businesses.

Kim Moo-hwan, head of SK Innovation's energy solutions business, emphasized the importance of SMRs in achieving both carbon reduction and energy security. He stated that SK Innovation will play a leading role in building the domestic SMR ecosystem and entering the global market through its strategic partnership with TerraPower.

The AI privacy paradox: personalization without exposure

The Rise of Hyper-Personalized AI in the Workplace

Hyper-personalized artificial intelligence is reshaping the modern workplace, offering a more tailored and human-like experience compared to traditional automation. By learning from individual user behaviors, this advanced form of AI enables businesses to customize interactions in ways that feel more personal and engaging. This not only helps streamline operations but also enhances overall efficiency and improves the user experience.

For employees, hyper-personalized AI can offer valuable insights into how they can boost their productivity. It automates repetitive tasks and provides real-time suggestions based on their work patterns. In contact centers, for example, AI systems can seamlessly transition from an automated response to a live conversation with a human agent when dealing with complex or nuanced issues. This ensures that customers receive the right level of support at the right time.

In the retail sector, AI-powered assistants are revolutionizing customer interactions by making personalized recommendations and offering timely discounts based on past purchases, browsing behavior, and market trends. These interactions create a sense of being understood and valued, which can lead to spontaneous buying decisions. This evolving digital experience is redefining what it means to interact with a brand in a digital space.

According to Gartner, companies that invest in hyper-personalization are seeing a 16% increase in commercial outcomes. The ability of AI to adapt and improve in real-time makes it a powerful tool for business growth. However, as AI becomes more integrated into daily operations, concerns about privacy and security are growing.

Ensuring Privacy and Security in AI Systems

The very nature of hyper-personalized AI presents a paradox: the more data it has, the better its recommendations. But this also raises questions about surveillance, consent, and the potential misuse of personal information. Without proper governance, AI systems could retain sensitive data, increasing the risk of unauthorized access, data breaches, and regulatory non-compliance.

Regulations such as the General Data Protection Regulation (GDPR) and the California Consumer Privacy Act (CCPA) already impose strict rules on how businesses handle data. Non-compliance can result in legal penalties and damage to a company's reputation. Some organizations are also pushing for additional AI-specific legislation, like the EU’s AI Act, to provide more targeted protections.

There is also an ethical dimension to consider. Poorly designed AI systems can unintentionally reinforce biases or expose confidential information. If employees and customers lose trust in these systems, the benefits of hyper-personalization may be lost. To succeed, companies must find a balance between leveraging AI’s power and maintaining strong privacy protections.

Balancing AI Innovation with Privacy

Businesses don’t have to choose between AI-driven efficiency and data privacy—they can achieve both. The key lies in embedding privacy-first principles into AI strategies from the start. Here are some essential steps:

• Anchor core, long-lasting principles: Build ethical and trustworthy AI systems by prioritizing transparency, inclusiveness, and ongoing monitoring.
• Establish robust governance: Define clear policies, conduct risk assessments, and assign dedicated roles to ensure compliance and ethical practices.
• Ensure data integrity: Use high-quality, unbiased data to deliver fair and accurate AI outcomes across all user groups.
• Adhere to compliance needs: Proactively address regulations with strong governance and data protection measures to reduce legal risks.
• Test and monitor consistently: Regular testing and continuous monitoring help align AI with ethical standards and performance goals.
• Optimize tools effectively: Use advanced features like retrieval mechanisms and feedback loops to enhance transparency and ethical behavior.

Human oversight is also crucial in building trust in AI systems. For instance, in Agentic Workflows, AI breaks down tasks into smaller steps, while humans review critical decisions before final actions are taken. This combination of speed and human judgment creates a system that is not only efficient but also reliable and adaptable.

The Future of AI and Privacy

Businesses that integrate privacy-first thinking into their AI strategies are likely to thrive in the long run. Building a governance framework that meets regulatory standards and fosters trust among employees and customers is essential. One of the first steps is ensuring AI tools are rigorously assessed before deployment, including evaluating how data is processed, stored, and used.

Pilot programs can help identify potential privacy concerns and risks before full-scale implementation. Working with trusted providers to define and configure algorithms is also important to prevent unintended biases and ensure fairness across different user groups. AI should be designed to evolve responsibly, integrating smoothly into workflows while maintaining strong privacy protections.

Clear Visibility and Traceability

Observability and traceability are critical components of responsible AI. Users should have clear visibility into how AI makes decisions and be able to challenge or verify outputs through real-time tracing, explainable AI decision paths, and thought streaming. Organizations should actively monitor and optimize AI agent performance using comprehensive analytics that track metrics like latency, workflow success, and operational efficiency.

Ultimately, AI should serve as an enabler rather than a replacement for human expertise. Companies that combine AI’s analytical capabilities with human judgment will be better positioned to innovate while upholding ethical and privacy standards. With the right safeguards in place, businesses can unlock the full potential of hyper-personalized AI without compromising security or trust.

The AI privacy paradox: personalization without exposure

The Rise of Hyper-Personalized AI in the Workplace

Hyper-personalized artificial intelligence is reshaping the modern workplace, offering a more tailored and human-like experience compared to traditional automation. By learning from individual user behaviors, this advanced form of AI enables businesses to customize interactions in ways that feel more personal and engaging. This not only helps streamline operations but also enhances overall efficiency and improves the user experience.

For employees, hyper-personalized AI can offer valuable insights into how they can boost their productivity. It automates repetitive tasks and provides real-time suggestions based on their work patterns. In contact centers, for example, AI systems can seamlessly transition from an automated response to a live conversation with a human agent when dealing with complex or nuanced issues. This ensures that customers receive the right level of support at the right time.

In the retail sector, AI-powered assistants are revolutionizing customer interactions by making personalized recommendations and offering timely discounts based on past purchases, browsing behavior, and market trends. These interactions create a sense of being understood and valued, which can lead to spontaneous buying decisions. This evolving digital experience is redefining what it means to interact with a brand in a digital space.

According to Gartner, companies that invest in hyper-personalization are seeing a 16% increase in commercial outcomes. The ability of AI to adapt and improve in real-time makes it a powerful tool for business growth. However, as AI becomes more integrated into daily operations, concerns about privacy and security are growing.

Ensuring Privacy and Security in AI Systems

The very nature of hyper-personalized AI presents a paradox: the more data it has, the better its recommendations. But this also raises questions about surveillance, consent, and the potential misuse of personal information. Without proper governance, AI systems could retain sensitive data, increasing the risk of unauthorized access, data breaches, and regulatory non-compliance.

Regulations such as the General Data Protection Regulation (GDPR) and the California Consumer Privacy Act (CCPA) already impose strict rules on how businesses handle data. Non-compliance can result in legal penalties and damage to a company's reputation. Some organizations are also pushing for additional AI-specific legislation, like the EU’s AI Act, to provide more targeted protections.

There is also an ethical dimension to consider. Poorly designed AI systems can unintentionally reinforce biases or expose confidential information. If employees and customers lose trust in these systems, the benefits of hyper-personalization may be lost. To succeed, companies must find a balance between leveraging AI’s power and maintaining strong privacy protections.

Balancing AI Innovation with Privacy

Businesses don’t have to choose between AI-driven efficiency and data privacy—they can achieve both. The key lies in embedding privacy-first principles into AI strategies from the start. Here are some essential steps:

• Anchor core, long-lasting principles: Build ethical and trustworthy AI systems by prioritizing transparency, inclusiveness, and ongoing monitoring.
• Establish robust governance: Define clear policies, conduct risk assessments, and assign dedicated roles to ensure compliance and ethical practices.
• Ensure data integrity: Use high-quality, unbiased data to deliver fair and accurate AI outcomes across all user groups.
• Adhere to compliance needs: Proactively address regulations with strong governance and data protection measures to reduce legal risks.
• Test and monitor consistently: Regular testing and continuous monitoring help align AI with ethical standards and performance goals.
• Optimize tools effectively: Use advanced features like retrieval mechanisms and feedback loops to enhance transparency and ethical behavior.

Human oversight is also crucial in building trust in AI systems. For instance, in Agentic Workflows, AI breaks down tasks into smaller steps, while humans review critical decisions before final actions are taken. This combination of speed and human judgment creates a system that is not only efficient but also reliable and adaptable.

The Future of AI and Privacy

Businesses that integrate privacy-first thinking into their AI strategies are likely to thrive in the long run. Building a governance framework that meets regulatory standards and fosters trust among employees and customers is essential. One of the first steps is ensuring AI tools are rigorously assessed before deployment, including evaluating how data is processed, stored, and used.

Pilot programs can help identify potential privacy concerns and risks before full-scale implementation. Working with trusted providers to define and configure algorithms is also important to prevent unintended biases and ensure fairness across different user groups. AI should be designed to evolve responsibly, integrating smoothly into workflows while maintaining strong privacy protections.

Clear Visibility and Traceability

Observability and traceability are critical components of responsible AI. Users should have clear visibility into how AI makes decisions and be able to challenge or verify outputs through real-time tracing, explainable AI decision paths, and thought streaming. Organizations should actively monitor and optimize AI agent performance using comprehensive analytics that track metrics like latency, workflow success, and operational efficiency.

Ultimately, AI should serve as an enabler rather than a replacement for human expertise. Companies that combine AI’s analytical capabilities with human judgment will be better positioned to innovate while upholding ethical and privacy standards. With the right safeguards in place, businesses can unlock the full potential of hyper-personalized AI without compromising security or trust.

Council uses AI to determine elder care placements amid funding crisis

The Role of AI in Decision-Making for Elderly Care

In an effort to manage limited resources, a local authority has turned to artificial intelligence (AI) to assist in determining when elderly residents require care. Derby City Council has developed an algorithm that analyzes data related to adult services to provide recommendations on the type of care that should be offered. These suggestions are then reviewed and adjusted by human professionals before being implemented.

The AI system is also expected to play a role in various other decisions, such as care reviews, applications for supported living, placements, and the allocation of blue badges for disabled drivers. However, this approach has raised concerns among charities, who emphasize that individuals requiring these services are among the most vulnerable. They argue that trusting AI with such critical decisions may not be appropriate at this stage.

Dennis Reed, director of Silver Voices, a campaign group focused on older people's issues, expressed his concerns about the use of AI in this context. He stated that the council is "running before we can walk" with AI, using older and vulnerable individuals as a test bed without proper safeguards. He questioned the idea of a bot assessing care needs, suggesting that it could lead to serious consequences.

Caroline Abrahams, a charity director at Age UK, acknowledged that AI is here to stay and can potentially benefit public services if used correctly. She emphasized the need for caution, noting that while AI could help local authorities manage tight budgets, it is still early days for the technology. "We are still finding out what it can do really well and what it can't," she said.

Challenges and Concerns

Derby City Council’s adult services were previously rated as needing improvement by the Care Quality Commission (CQC). Faced with financial constraints, the council turned to AI as a solution to address staffing shortages. As part of a £7 million contract, the council has commissioned AI tools from ICS.AI to support its operations.

Documents obtained through freedom of information requests suggest that the council aims to save £6 million in adult services alone by using AI. Councillor Hardyal Dhindsa, who spoke about the initiative, described it as a "wholesale AI digital innovation across the council" aimed at addressing funding cuts from the government.

He explained that the council took a comprehensive approach to implementing AI solutions to tackle the challenges faced by local authorities. "We went for a roots and all, hearts and minds approach to delivering innovative AI solutions to the challenges that local authorities face," he said.

Ongoing Debate

Despite the potential benefits, there are ongoing debates about the impact of AI on human-staffed services. Some question whether the council's futuristic AI initiatives could lead to job losses, especially as they aim to save millions through automation. Others argue that concerns about AI-driven job loss may be exaggerated or based on fear rather than facts.

There are also discussions about how AI could revolutionize public services, particularly in areas like healthcare and social work. For instance, some wonder if Keir Starmer’s vision for AI could help reduce administrative burdens, such as form-filling and missed appointments, while ensuring that privacy concerns are addressed.

However, there are risks involved. Reliance on AI could lead to errors in decision-making, particularly in sensitive areas like NHS care. If not properly managed, this could result in patient dissatisfaction and breaches of privacy.

As AI continues to evolve, the challenge will be to strike a balance between leveraging its capabilities and ensuring that it serves the best interests of the most vulnerable members of society.

Council uses AI to determine elder care placements amid funding crisis

The Role of AI in Decision-Making for Elderly Care

In an effort to manage limited resources, a local authority has turned to artificial intelligence (AI) to assist in determining when elderly residents require care. Derby City Council has developed an algorithm that analyzes data related to adult services to provide recommendations on the type of care that should be offered. These suggestions are then reviewed and adjusted by human professionals before being implemented.

The AI system is also expected to play a role in various other decisions, such as care reviews, applications for supported living, placements, and the allocation of blue badges for disabled drivers. However, this approach has raised concerns among charities, who emphasize that individuals requiring these services are among the most vulnerable. They argue that trusting AI with such critical decisions may not be appropriate at this stage.

Dennis Reed, director of Silver Voices, a campaign group focused on older people's issues, expressed his concerns about the use of AI in this context. He stated that the council is "running before we can walk" with AI, using older and vulnerable individuals as a test bed without proper safeguards. He questioned the idea of a bot assessing care needs, suggesting that it could lead to serious consequences.

Caroline Abrahams, a charity director at Age UK, acknowledged that AI is here to stay and can potentially benefit public services if used correctly. She emphasized the need for caution, noting that while AI could help local authorities manage tight budgets, it is still early days for the technology. "We are still finding out what it can do really well and what it can't," she said.

Challenges and Concerns

Derby City Council’s adult services were previously rated as needing improvement by the Care Quality Commission (CQC). Faced with financial constraints, the council turned to AI as a solution to address staffing shortages. As part of a £7 million contract, the council has commissioned AI tools from ICS.AI to support its operations.

Documents obtained through freedom of information requests suggest that the council aims to save £6 million in adult services alone by using AI. Councillor Hardyal Dhindsa, who spoke about the initiative, described it as a "wholesale AI digital innovation across the council" aimed at addressing funding cuts from the government.

He explained that the council took a comprehensive approach to implementing AI solutions to tackle the challenges faced by local authorities. "We went for a roots and all, hearts and minds approach to delivering innovative AI solutions to the challenges that local authorities face," he said.

Ongoing Debate

Despite the potential benefits, there are ongoing debates about the impact of AI on human-staffed services. Some question whether the council's futuristic AI initiatives could lead to job losses, especially as they aim to save millions through automation. Others argue that concerns about AI-driven job loss may be exaggerated or based on fear rather than facts.

There are also discussions about how AI could revolutionize public services, particularly in areas like healthcare and social work. For instance, some wonder if Keir Starmer’s vision for AI could help reduce administrative burdens, such as form-filling and missed appointments, while ensuring that privacy concerns are addressed.

However, there are risks involved. Reliance on AI could lead to errors in decision-making, particularly in sensitive areas like NHS care. If not properly managed, this could result in patient dissatisfaction and breaches of privacy.

As AI continues to evolve, the challenge will be to strike a balance between leveraging its capabilities and ensuring that it serves the best interests of the most vulnerable members of society.

Londoners, embrace tech or watch others take your place

London’s Tech Scene: A Global Leader at a Crossroads

London's tech scene is undeniably one of the most dynamic and influential in the world. As you walk through the Square Mile, you’re not just stepping into a city rich in history and culture, but also witnessing a global financial hub that has consistently pushed the boundaries of innovation. For centuries, the City of London has been a beacon for progress, embracing emerging technologies and creating frameworks that shape the future of finance, climate action, and financial inclusion.

This year, we will be celebrating the achievements of the tech sector and its remarkable workforce during the annual Innovation and Technology Dinner at Mansion House. The event, which will be attended by the science, innovation, and technology secretary, Peter Kyle, is a testament to the incredible work being done in this field.

A Leading Global Tech Hub

London stands as a leading global tech hub, not only as Europe’s largest tech center but also because of its vibrant startup community and the presence of major global tech companies. The ecosystem thrives on a combination of world-class talent, strong investment, and an environment that fosters responsible and scalable technological growth. Home to domestic success stories like Revolut and Monzo, as well as international giants such as Anthropic and OpenAI, London boasts twice as many AI-based companies as any other European country. In fact, it ranks second only to the San Francisco Bay area when it comes to attracting top tech talent.

However, despite these accomplishments, there is no room for complacency. The rapid pace of technological change means that the status quo can quickly become outdated.

New Technologies Are Transforming Everyday Life

New technologies are reshaping how we do business, interact with each other, learn, fight crime, and even diagnose illnesses. The government has launched several initiatives aimed at using technology to boost productivity and improve public services. For example, in the NHS, AI is helping reduce the administrative burden on medical professionals, allowing them to focus more on patient care. Similarly, efforts to combat crime are benefiting from real-time data sharing between police, councils, and social services, making it easier to identify and respond to threats.

In the Square Mile, the City of London Police is leading the way in using technology to tackle online fraud, which accounts for 43% of all crime. Their innovative approaches highlight the critical role that technology plays in maintaining security and safety.

The Tech Sector Must Go Further

A key part of my mayoral theme, "Growth Unleashed," has been encouraging businesses to embrace new technologies to give British firms a competitive edge. To support this, the Scale-up Showcase series has connected promising British tech companies seeking funding with potential investors. Additionally, the upcoming Quantum Hackathon, in partnership with IBM, will bring together cross-disciplinary teams to solve complex challenges in areas like market simulation and risk management.

Despite the UK’s success in the tech sector, there is still much to be done. Innovation often leaves the country due to a lack of domestic capital investment. Others are eager to capitalize on this gap.

A Brighter Outlook for Investment

While the state of public markets has been a topic of discussion, the overall picture is not entirely bleak. Investors and private equity firms continue to view the UK as an attractive destination. Mergers and acquisitions activity, along with share buybacks, indicate renewed confidence in UK PLC.

One significant initiative aimed at addressing the investment gap is the Mansion House Accord. This commitment from 17 of the UK’s largest workplace pension providers seeks to allocate 10% of default defined contribution funds to alternative investments by 2030, potentially unlocking £100 billion in investment. Half of these funds will be directed toward the UK, supporting tech businesses in their growth and success.

Succeed We Must

For both economic prosperity and national security, we cannot afford to become mere consumers of others’ innovations. It is imperative that we continue to invest in and nurture our own tech ecosystem. London’s position as a global leader in technology must be maintained through sustained effort, strategic investment, and a willingness to adapt to the ever-changing landscape of innovation.

Londoners, embrace tech or watch others take your place

London’s Tech Scene: A Global Leader at a Crossroads

London's tech scene is undeniably one of the most dynamic and influential in the world. As you walk through the Square Mile, you’re not just stepping into a city rich in history and culture, but also witnessing a global financial hub that has consistently pushed the boundaries of innovation. For centuries, the City of London has been a beacon for progress, embracing emerging technologies and creating frameworks that shape the future of finance, climate action, and financial inclusion.

This year, we will be celebrating the achievements of the tech sector and its remarkable workforce during the annual Innovation and Technology Dinner at Mansion House. The event, which will be attended by the science, innovation, and technology secretary, Peter Kyle, is a testament to the incredible work being done in this field.

A Leading Global Tech Hub

London stands as a leading global tech hub, not only as Europe’s largest tech center but also because of its vibrant startup community and the presence of major global tech companies. The ecosystem thrives on a combination of world-class talent, strong investment, and an environment that fosters responsible and scalable technological growth. Home to domestic success stories like Revolut and Monzo, as well as international giants such as Anthropic and OpenAI, London boasts twice as many AI-based companies as any other European country. In fact, it ranks second only to the San Francisco Bay area when it comes to attracting top tech talent.

However, despite these accomplishments, there is no room for complacency. The rapid pace of technological change means that the status quo can quickly become outdated.

New Technologies Are Transforming Everyday Life

New technologies are reshaping how we do business, interact with each other, learn, fight crime, and even diagnose illnesses. The government has launched several initiatives aimed at using technology to boost productivity and improve public services. For example, in the NHS, AI is helping reduce the administrative burden on medical professionals, allowing them to focus more on patient care. Similarly, efforts to combat crime are benefiting from real-time data sharing between police, councils, and social services, making it easier to identify and respond to threats.

In the Square Mile, the City of London Police is leading the way in using technology to tackle online fraud, which accounts for 43% of all crime. Their innovative approaches highlight the critical role that technology plays in maintaining security and safety.

The Tech Sector Must Go Further

A key part of my mayoral theme, "Growth Unleashed," has been encouraging businesses to embrace new technologies to give British firms a competitive edge. To support this, the Scale-up Showcase series has connected promising British tech companies seeking funding with potential investors. Additionally, the upcoming Quantum Hackathon, in partnership with IBM, will bring together cross-disciplinary teams to solve complex challenges in areas like market simulation and risk management.

Despite the UK’s success in the tech sector, there is still much to be done. Innovation often leaves the country due to a lack of domestic capital investment. Others are eager to capitalize on this gap.

A Brighter Outlook for Investment

While the state of public markets has been a topic of discussion, the overall picture is not entirely bleak. Investors and private equity firms continue to view the UK as an attractive destination. Mergers and acquisitions activity, along with share buybacks, indicate renewed confidence in UK PLC.

One significant initiative aimed at addressing the investment gap is the Mansion House Accord. This commitment from 17 of the UK’s largest workplace pension providers seeks to allocate 10% of default defined contribution funds to alternative investments by 2030, potentially unlocking £100 billion in investment. Half of these funds will be directed toward the UK, supporting tech businesses in their growth and success.

Succeed We Must

For both economic prosperity and national security, we cannot afford to become mere consumers of others’ innovations. It is imperative that we continue to invest in and nurture our own tech ecosystem. London’s position as a global leader in technology must be maintained through sustained effort, strategic investment, and a willingness to adapt to the ever-changing landscape of innovation.

Battery Tech Rivalry Drives EV Evolution

The Evolution of Battery Technology and Its Impact on the Future of Electric Vehicles

The global race to develop new battery technologies is accelerating, with startups and established companies alike exploring alternatives to traditional lithium-ion batteries. These innovations aim to reduce costs, minimize reliance on critical minerals, and support the growing demand for electric vehicles (EVs). As the EV market expands, so does the need for diverse and sustainable energy storage solutions.

Current Battery Technologies in Use

Several battery types are currently being used or explored for different applications. Some of these have been around for decades, while others are emerging as potential game-changers.

Lead Batteries

Lead batteries are commonly used in conventional internal combustion engine vehicles for starting the engine. They are inexpensive and perform well in extreme conditions. However, they are heavy and have low energy density, making them unsuitable for modern EVs.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable but have largely been replaced by more advanced technologies. Nickel-metal hydride batteries were used in early hybrid vehicles, such as Toyota's first Prius in 1997. They offer better performance than Ni-CD but still fall short compared to newer options.

Sodium-Nickel Chloride

This type of battery has been used in the Venturi Automobiles fleet for the French postal service. It is compact and can be integrated into existing vehicle designs without major modifications. However, its top speed and range are limited, making it suitable for short-range applications.

Lithium Metal Polymer (LMP)

LMP batteries were used in the Bolloré Pininfarina BlueCar and Autolib car-sharing service in Paris, both of which have since been discontinued. Today, this technology is mainly used for stationary storage and public transportation. It offers a "dry" design that simplifies the manufacturing process, but it requires careful temperature control.

Lithium-Ion: The Dominant Force

Lithium-ion batteries are the most widely used today, found in everything from smartphones to electric cars. First commercialized in 1991 by Sony, they offer high energy density, fast charging capabilities, and no memory effect. However, they are sensitive to temperature changes and vibrations, and their liquid electrolyte poses risks of overheating.

Two key families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries provide high energy density, making them ideal for larger vehicles. However, they rely heavily on cobalt, which is primarily sourced from the Democratic Republic of Congo. The extraction of cobalt raises significant ethical and strategic concerns.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, making them more affordable and safer. They are particularly suited for smaller vehicles. However, their energy density is lower than that of NMC batteries.

Emerging Alternatives

As the industry seeks alternatives to lithium-ion, several promising technologies are under development.

Sodium-Ion

Sodium-ion batteries replace lithium with sodium, which is more abundant and less expensive. They are non-flammable, can withstand up to 50,000 recharge cycles, and are easier to source. However, their energy density is lower, and the supply chain for this technology is still in its infancy.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the high energy density of NMC with the cost-effectiveness and safety of LFP. It also promises faster charging times. However, it is still in the development phase and not yet commercially available.

Lithium-Sulfur

Lithium-sulfur batteries have the potential to double the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, reducing dependency on rare materials. This technology is backed by U.S. startup Lyten and is expected to be deployed by 2028.

Solid-State Batteries

Solid-state batteries use a solid electrolyte instead of a liquid one, offering higher energy density, lighter weight, and improved safety. Despite these advantages, they are still in the research and development stage, with no large-scale production yet.

The Road Ahead

As the automotive industry continues to evolve, the development of alternative battery technologies will play a crucial role in shaping the future of electric mobility. While lithium-ion remains dominant, the push for sustainability, cost reduction, and resource independence is driving innovation across the board. The coming years will likely see a diversification of battery options, each tailored to specific needs and applications.

Battery Tech Rivalry Drives EV Evolution

The Evolution of Battery Technology and Its Impact on the Future of Electric Vehicles

The global race to develop new battery technologies is accelerating, with startups and established companies alike exploring alternatives to traditional lithium-ion batteries. These innovations aim to reduce costs, minimize reliance on critical minerals, and support the growing demand for electric vehicles (EVs). As the EV market expands, so does the need for diverse and sustainable energy storage solutions.

Current Battery Technologies in Use

Several battery types are currently being used or explored for different applications. Some of these have been around for decades, while others are emerging as potential game-changers.

Lead Batteries

Lead batteries are commonly used in conventional internal combustion engine vehicles for starting the engine. They are inexpensive and perform well in extreme conditions. However, they are heavy and have low energy density, making them unsuitable for modern EVs.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable but have largely been replaced by more advanced technologies. Nickel-metal hydride batteries were used in early hybrid vehicles, such as Toyota's first Prius in 1997. They offer better performance than Ni-CD but still fall short compared to newer options.

Sodium-Nickel Chloride

This type of battery has been used in the Venturi Automobiles fleet for the French postal service. It is compact and can be integrated into existing vehicle designs without major modifications. However, its top speed and range are limited, making it suitable for short-range applications.

Lithium Metal Polymer (LMP)

LMP batteries were used in the Bolloré Pininfarina BlueCar and Autolib car-sharing service in Paris, both of which have since been discontinued. Today, this technology is mainly used for stationary storage and public transportation. It offers a "dry" design that simplifies the manufacturing process, but it requires careful temperature control.

Lithium-Ion: The Dominant Force

Lithium-ion batteries are the most widely used today, found in everything from smartphones to electric cars. First commercialized in 1991 by Sony, they offer high energy density, fast charging capabilities, and no memory effect. However, they are sensitive to temperature changes and vibrations, and their liquid electrolyte poses risks of overheating.

Two key families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries provide high energy density, making them ideal for larger vehicles. However, they rely heavily on cobalt, which is primarily sourced from the Democratic Republic of Congo. The extraction of cobalt raises significant ethical and strategic concerns.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, making them more affordable and safer. They are particularly suited for smaller vehicles. However, their energy density is lower than that of NMC batteries.

Emerging Alternatives

As the industry seeks alternatives to lithium-ion, several promising technologies are under development.

Sodium-Ion

Sodium-ion batteries replace lithium with sodium, which is more abundant and less expensive. They are non-flammable, can withstand up to 50,000 recharge cycles, and are easier to source. However, their energy density is lower, and the supply chain for this technology is still in its infancy.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the high energy density of NMC with the cost-effectiveness and safety of LFP. It also promises faster charging times. However, it is still in the development phase and not yet commercially available.

Lithium-Sulfur

Lithium-sulfur batteries have the potential to double the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, reducing dependency on rare materials. This technology is backed by U.S. startup Lyten and is expected to be deployed by 2028.

Solid-State Batteries

Solid-state batteries use a solid electrolyte instead of a liquid one, offering higher energy density, lighter weight, and improved safety. Despite these advantages, they are still in the research and development stage, with no large-scale production yet.

The Road Ahead

As the automotive industry continues to evolve, the development of alternative battery technologies will play a crucial role in shaping the future of electric mobility. While lithium-ion remains dominant, the push for sustainability, cost reduction, and resource independence is driving innovation across the board. The coming years will likely see a diversification of battery options, each tailored to specific needs and applications.

Oppo Find X9 Ultra leaks reveal display, camera specs ahead of release

Upcoming Oppo Find X9 Ultra: Display and Camera Specifications Revealed

Oppo is set to introduce the Find X9 and Find X9 Pro models in China this October, with the Find X9 Ultra expected to launch in the first half of 2026. Before its official debut, some early details about the Ultra version have been shared by a reliable tipster, Digital Chat Station. These insights are based on an engineering prototype currently undergoing testing.

Display Features of the Find X9 Ultra

The Find X9 Ultra is rumored to feature a 6.8-inch flat OLED LTPO display with a 2K resolution. This screen is also said to be covered with 2.5D glass, offering a premium feel and enhanced visual quality. The design suggests that the phone will maintain a sleek and modern appearance, suitable for both daily use and high-end performance.

Camera Configuration

One of the most notable aspects of the Find X9 Ultra is its camera setup. Unlike the Find X9 Pro, which is expected to have a single 200-megapixel periscope unit, the Ultra model is reported to include a dual periscope telephoto system. This setup combines a mid-tier and a flagship-grade sensor, providing greater zoom versatility and enhancing the overall photography experience.

The rear camera configuration is also speculated to include a 200-megapixel main sensor with a 1/1.1-inch sensor size. Additionally, there is mention of another periscope telephoto unit, which uses a 1/1.3-inch large sensor. This combination aims to deliver a multi-focal zoom experience, allowing users to capture detailed shots from various distances.

Battery Capacity and Software

In terms of battery life, the Find X9 Ultra is tipped to house a capacity of around 7,000mAh. The Find X9 Pro, on the other hand, could feature a slightly larger 7,500mAh battery. Both models are expected to run on ColorOS 16, which is based on Android 16. This software update is anticipated to bring improved performance, enhanced features, and better user experience.

Launch Timeline

The Find X9 Ultra is expected to make its debut in Q2 2026. This timeline aligns with Oppo’s usual product release schedule, ensuring that the company remains competitive in the smartphone market. Alongside the Find X9 series, the Reno 15 lineup is also expected to launch with the same operating system.

Additional Information

For those interested in staying updated with the latest developments in the tech world, there are several ways to stay informed. Regular updates can be found in the News Section, while joining a Telegram community or signing up for a daily newsletter can provide access to top stories and exclusive insights.

As the release date approaches, more details about the Find X9 Ultra are expected to surface, giving consumers a clearer picture of what to anticipate from this upcoming flagship device. With its advanced display, powerful camera system, and robust battery life, the Find X9 Ultra is poised to make a significant impact in the smartphone industry.

Oppo Find X9 Ultra leaks reveal display, camera specs ahead of release

Upcoming Oppo Find X9 Ultra: Display and Camera Specifications Revealed

Oppo is set to introduce the Find X9 and Find X9 Pro models in China this October, with the Find X9 Ultra expected to launch in the first half of 2026. Before its official debut, some early details about the Ultra version have been shared by a reliable tipster, Digital Chat Station. These insights are based on an engineering prototype currently undergoing testing.

Display Features of the Find X9 Ultra

The Find X9 Ultra is rumored to feature a 6.8-inch flat OLED LTPO display with a 2K resolution. This screen is also said to be covered with 2.5D glass, offering a premium feel and enhanced visual quality. The design suggests that the phone will maintain a sleek and modern appearance, suitable for both daily use and high-end performance.

Camera Configuration

One of the most notable aspects of the Find X9 Ultra is its camera setup. Unlike the Find X9 Pro, which is expected to have a single 200-megapixel periscope unit, the Ultra model is reported to include a dual periscope telephoto system. This setup combines a mid-tier and a flagship-grade sensor, providing greater zoom versatility and enhancing the overall photography experience.

The rear camera configuration is also speculated to include a 200-megapixel main sensor with a 1/1.1-inch sensor size. Additionally, there is mention of another periscope telephoto unit, which uses a 1/1.3-inch large sensor. This combination aims to deliver a multi-focal zoom experience, allowing users to capture detailed shots from various distances.

Battery Capacity and Software

In terms of battery life, the Find X9 Ultra is tipped to house a capacity of around 7,000mAh. The Find X9 Pro, on the other hand, could feature a slightly larger 7,500mAh battery. Both models are expected to run on ColorOS 16, which is based on Android 16. This software update is anticipated to bring improved performance, enhanced features, and better user experience.

Launch Timeline

The Find X9 Ultra is expected to make its debut in Q2 2026. This timeline aligns with Oppo’s usual product release schedule, ensuring that the company remains competitive in the smartphone market. Alongside the Find X9 series, the Reno 15 lineup is also expected to launch with the same operating system.

Additional Information

For those interested in staying updated with the latest developments in the tech world, there are several ways to stay informed. Regular updates can be found in the News Section, while joining a Telegram community or signing up for a daily newsletter can provide access to top stories and exclusive insights.

As the release date approaches, more details about the Find X9 Ultra are expected to surface, giving consumers a clearer picture of what to anticipate from this upcoming flagship device. With its advanced display, powerful camera system, and robust battery life, the Find X9 Ultra is poised to make a significant impact in the smartphone industry.

DIYer 3D-Prints Fix for Mini PC's Major Flaw — You Can Too

A 3D-Printed Solution to Mini PC Overheating

Mini PCs have become increasingly popular due to their compact size and powerful performance. However, one of the biggest challenges they face is overheating. Unlike larger desktops, mini PCs often lack sufficient space for robust cooling systems, making them more susceptible to heat buildup, especially during intensive tasks. Fortunately, a creative solution has emerged in the form of a 3D-printed bottom cover designed to improve airflow and keep components cooler.

This innovative fix was created specifically for the ZB-MN57 mini PC, but the design can be adapted for other models as well. The project's creator, @lixxus_3568380, developed a custom cooling plate that replaces the original bottom cover without adding extra bulk. The goal was to enhance cooling efficiency while maintaining the structural integrity of the device.

How It Works

The key to this solution lies in its design. The 3D-printed cover features honeycomb cutouts with tapered walls, which allow for improved air circulation around critical components like NVMe drives. This increased airflow helps dissipate heat more effectively, reducing the risk of overheating. Despite replacing the stock cover, the creator claims that the new design doesn’t compromise the rigidity or strength of the mini PC.

The material used for the cover is also an important factor. Instead of standard 3D printing plastics like PLA, the project uses PETG (Polyethylene Terephthalate Glycol), a material known for its durability and heat resistance. This ensures that the cover remains sturdy even under prolonged use.

Customization and Accessibility

While the design was originally tailored for the ZB-MN57, it’s not limited to that model. Users who own different mini PCs can customize the design by adjusting the parameters to match their specific dimensions. The creator has provided OpenSCAD code, which makes it easier for users to modify the design without needing to write new code from scratch.

For those interested in creating their own cooling plate, all necessary model files are available for download. These files can be used with any 3D printer that supports PETG material. Even if you don’t have a 3D printer, the project highlights the practical applications of this technology in personal computing.

Benefits for PC Enthusiasts

This DIY approach offers several advantages. It allows users to take control of their mini PC’s cooling system, potentially extending the lifespan of their hardware. Additionally, it showcases how 3D printing can be used for customization and problem-solving in the tech world.

For enthusiasts looking to build or upgrade their systems, a 3D printer can be a valuable tool. Whether it’s for creating cooling solutions or other custom parts, having access to 3D printing opens up a range of possibilities.

Conclusion

The 3D-printed cooling cover is a prime example of how innovation can address common issues in modern technology. By improving airflow and using durable materials, this solution offers a practical way to manage heat in mini PCs. With the right tools and some customization, anyone can implement this fix and enjoy a cooler, more efficient system.

DIYer 3D-Prints Fix for Mini PC's Major Flaw — You Can Too

A 3D-Printed Solution to Mini PC Overheating

Mini PCs have become increasingly popular due to their compact size and powerful performance. However, one of the biggest challenges they face is overheating. Unlike larger desktops, mini PCs often lack sufficient space for robust cooling systems, making them more susceptible to heat buildup, especially during intensive tasks. Fortunately, a creative solution has emerged in the form of a 3D-printed bottom cover designed to improve airflow and keep components cooler.

This innovative fix was created specifically for the ZB-MN57 mini PC, but the design can be adapted for other models as well. The project's creator, @lixxus_3568380, developed a custom cooling plate that replaces the original bottom cover without adding extra bulk. The goal was to enhance cooling efficiency while maintaining the structural integrity of the device.

How It Works

The key to this solution lies in its design. The 3D-printed cover features honeycomb cutouts with tapered walls, which allow for improved air circulation around critical components like NVMe drives. This increased airflow helps dissipate heat more effectively, reducing the risk of overheating. Despite replacing the stock cover, the creator claims that the new design doesn’t compromise the rigidity or strength of the mini PC.

The material used for the cover is also an important factor. Instead of standard 3D printing plastics like PLA, the project uses PETG (Polyethylene Terephthalate Glycol), a material known for its durability and heat resistance. This ensures that the cover remains sturdy even under prolonged use.

Customization and Accessibility

While the design was originally tailored for the ZB-MN57, it’s not limited to that model. Users who own different mini PCs can customize the design by adjusting the parameters to match their specific dimensions. The creator has provided OpenSCAD code, which makes it easier for users to modify the design without needing to write new code from scratch.

For those interested in creating their own cooling plate, all necessary model files are available for download. These files can be used with any 3D printer that supports PETG material. Even if you don’t have a 3D printer, the project highlights the practical applications of this technology in personal computing.

Benefits for PC Enthusiasts

This DIY approach offers several advantages. It allows users to take control of their mini PC’s cooling system, potentially extending the lifespan of their hardware. Additionally, it showcases how 3D printing can be used for customization and problem-solving in the tech world.

For enthusiasts looking to build or upgrade their systems, a 3D printer can be a valuable tool. Whether it’s for creating cooling solutions or other custom parts, having access to 3D printing opens up a range of possibilities.

Conclusion

The 3D-printed cooling cover is a prime example of how innovation can address common issues in modern technology. By improving airflow and using durable materials, this solution offers a practical way to manage heat in mini PCs. With the right tools and some customization, anyone can implement this fix and enjoy a cooler, more efficient system.

Samsung Galaxy S26 Ultra Leak Reveals Rounded Corners

Design Evolution: Samsung's Galaxy S26 Ultra Takes a Step Further in Ergonomics

Samsung has made a noticeable shift in the design of its flagship Galaxy S25 Ultra, moving away from the sharp, square edges that characterized previous models. Instead, the company introduced rounded corners, which significantly enhance the phone’s comfort when held in the hand. This change, though subtle, marks a major improvement in user experience, especially for those who prefer one-handed use or frequently carry their phones in pockets.

The issue with sharp edges has been a recurring point of criticism among users of Samsung’s Ultra series, including the S22 Ultra and S23 Ultra. These models, while powerful, often felt uncomfortable due to their angular design. The sharp corners could press into the palm, making them harder to grip, particularly for extended periods. Additionally, the rigid edges made it challenging to fit the phone into tight spaces like jeans pockets.

In contrast, most other leading Android flagships have long embraced rounded edges, which contribute to a more natural and comfortable grip. Samsung’s decision to adopt this design for the S25 Ultra was a positive step forward. Now, it seems the company is taking things even further with the upcoming Galaxy S26 Ultra, which is rumored to feature even more curved corners. This evolution is expected to improve ergonomics even further, offering a smoother and more pleasant user experience.

Alongside the enhanced design, the Galaxy S26 Ultra is also expected to bring a thinner profile, giving the device a sleeker and more modern appearance. This combination of a more curved design and a slimmer build could make the S26 Ultra stand out as a more refined and user-friendly option compared to its predecessors.

Minor Changes That Could Make a Big Difference

While the Galaxy S26 lineup is still several months away from release, recent leaks have already provided insight into some of its key features. One notable aspect is the battery, which is expected to remain at 5,000mAh, maintaining the same capacity as previous Ultra models. However, the phone may compensate with faster wired charging speeds, potentially reaching 60W. This could significantly reduce charging times, offering users a more efficient power-up experience.

Another area of interest is the camera system. The main camera sensor, a 200MP HP2 unit, will likely stay the same for another year. However, there are rumors that Samsung might pair it with a brighter f/1.4 aperture. Compared to the S25 Ultra’s f/1.7 lens, this upgrade could allow for more light intake, resulting in better low-light performance. Additionally, the 3x telephoto camera might see a resolution bump from 10MP to 50MP, delivering sharper and more detailed images.

One of the more intriguing rumors involves a new "Flex Magic Pixel" OLED panel for the Galaxy S26 Ultra. This display technology is said to leverage AI to enhance privacy by adjusting screen visibility based on the user's environment. While details are still scarce, this feature could offer an innovative way to protect sensitive information on the go.

These changes, though seemingly minor, could collectively elevate the Galaxy S26 Ultra into a more compelling choice for consumers looking for both style and functionality. As the launch date approaches, more details about the device are expected to emerge, providing further clarity on what users can expect from Samsung’s latest flagship.

Samsung Galaxy S26 Ultra Leak Reveals Rounded Corners

Design Evolution: Samsung's Galaxy S26 Ultra Takes a Step Further in Ergonomics

Samsung has made a noticeable shift in the design of its flagship Galaxy S25 Ultra, moving away from the sharp, square edges that characterized previous models. Instead, the company introduced rounded corners, which significantly enhance the phone’s comfort when held in the hand. This change, though subtle, marks a major improvement in user experience, especially for those who prefer one-handed use or frequently carry their phones in pockets.

The issue with sharp edges has been a recurring point of criticism among users of Samsung’s Ultra series, including the S22 Ultra and S23 Ultra. These models, while powerful, often felt uncomfortable due to their angular design. The sharp corners could press into the palm, making them harder to grip, particularly for extended periods. Additionally, the rigid edges made it challenging to fit the phone into tight spaces like jeans pockets.

In contrast, most other leading Android flagships have long embraced rounded edges, which contribute to a more natural and comfortable grip. Samsung’s decision to adopt this design for the S25 Ultra was a positive step forward. Now, it seems the company is taking things even further with the upcoming Galaxy S26 Ultra, which is rumored to feature even more curved corners. This evolution is expected to improve ergonomics even further, offering a smoother and more pleasant user experience.

Alongside the enhanced design, the Galaxy S26 Ultra is also expected to bring a thinner profile, giving the device a sleeker and more modern appearance. This combination of a more curved design and a slimmer build could make the S26 Ultra stand out as a more refined and user-friendly option compared to its predecessors.

Minor Changes That Could Make a Big Difference

While the Galaxy S26 lineup is still several months away from release, recent leaks have already provided insight into some of its key features. One notable aspect is the battery, which is expected to remain at 5,000mAh, maintaining the same capacity as previous Ultra models. However, the phone may compensate with faster wired charging speeds, potentially reaching 60W. This could significantly reduce charging times, offering users a more efficient power-up experience.

Another area of interest is the camera system. The main camera sensor, a 200MP HP2 unit, will likely stay the same for another year. However, there are rumors that Samsung might pair it with a brighter f/1.4 aperture. Compared to the S25 Ultra’s f/1.7 lens, this upgrade could allow for more light intake, resulting in better low-light performance. Additionally, the 3x telephoto camera might see a resolution bump from 10MP to 50MP, delivering sharper and more detailed images.

One of the more intriguing rumors involves a new "Flex Magic Pixel" OLED panel for the Galaxy S26 Ultra. This display technology is said to leverage AI to enhance privacy by adjusting screen visibility based on the user's environment. While details are still scarce, this feature could offer an innovative way to protect sensitive information on the go.

These changes, though seemingly minor, could collectively elevate the Galaxy S26 Ultra into a more compelling choice for consumers looking for both style and functionality. As the launch date approaches, more details about the device are expected to emerge, providing further clarity on what users can expect from Samsung’s latest flagship.

Factbox: Battery Rivals Drive the EV Revolution

The Evolution of Battery Technology for Electric Vehicles

As the demand for electric vehicles (EVs) continues to grow, startups around the world are actively exploring new battery technologies that utilize materials like sodium and sulfur or other innovative chemistries. These efforts aim to reduce costs and decrease reliance on critical minerals, which have long been a point of concern in the EV industry.

China currently dominates the global battery cell production landscape, controlling 85% of the market. Additionally, it accounts for 90% of the processing of raw materials used in two lithium-ion variants that currently dominate the EV market. Despite this dominance, battery technology is evolving rapidly, though the fundamental principles remain largely unchanged. A typical battery consists of three key components: a cathode, an anode, and an electrolyte.

With carmakers evaluating long-term options, various battery types are either in use or under development. Let’s explore some of these technologies:

Lead Batteries

Lead batteries have been traditionally used in 6 or 12-volt systems to power car starters. They offer advantages such as being inexpensive and functional in extreme conditions. However, they are heavy and have low energy capacity, making them less suitable for modern EV applications.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable and have been used in various applications. Nickel-metal hydride batteries were notably used in Toyota's first Prius model in 1997, serving as a precursor to hybrid technology.

Sodium-Nickel Chloride

This type of battery has found use in the Venturi Automobiles fleet for the French postal service. It offers advantages such as a smaller size, allowing it to be fitted into existing vehicles without requiring major modifications. However, its performance is limited, with a top speed of 100 km/h and a range of only 100 km.

Lithium-Metal Polymer (LMP)

Once used in models like the Bolloré Pininfarina BlueCar and the Parisian car-sharing service Autolib, LMP technology is now primarily used for stationary storage, buses, and trams. Its "dry" technology, based on the capacitor principle, makes it easier to produce industrially. However, it requires preheating and maintaining a specific temperature, which can be a drawback.

Lithium-Ion Batteries

Lithium-ion batteries are the most widely used today, found in phones, laptops, electric cars, and other devices. First commercialized in 1991 by Sony, they offer high energy density and versatile charging options. However, they are sensitive to external conditions like cold weather and vibrations, and their liquid nature poses risks of overheating.

Two Dominant Lithium-Ion Technologies

Two families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries offer high energy density but come at a higher cost, making them more suitable for larger vehicles. Cobalt, a key component, is mainly sourced from the Democratic Republic of Congo, where ethical and strategic concerns about mining practices persist.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, offering a more affordable option suitable for smaller vehicles. However, their energy density is lower compared to NMC batteries.

Sodium-Ion Batteries

Sodium-ion batteries present a promising alternative by eliminating the need for lithium, nickel, and cobalt. These metals are currently in high demand, while sodium is more abundant and cheaper to extract. Sodium-ion batteries are non-flammable and can withstand up to 50,000 recharge cycles, significantly more than lithium-ion batteries. However, they currently face challenges with lower energy density and limited supply.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the energy density of NMC, the cost and safety of LFP, and fast recharge times of less than 15 minutes. While promising, this technology is still in the development phase.

Lithium-Sulfur Batteries

Lithium-sulfur batteries, backed by companies like Lyten, claim to offer more than twice the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, providing greater independence due to the potential for local sourcing of raw materials. However, large-scale deployment is expected no earlier than 2028.

Solid-State Batteries

Solid-state batteries replace the liquid electrolyte in traditional lithium-ion batteries with a solid one, such as polymer or ceramic. This design offers higher energy density, lighter weight, and improved safety. However, they are still under development and have not yet reached large-scale production.

As the automotive industry continues to evolve, the development of new battery technologies will play a crucial role in shaping the future of electric mobility.

Factbox: Battery Rivals Drive the EV Revolution

The Evolution of Battery Technology for Electric Vehicles

As the demand for electric vehicles (EVs) continues to grow, startups around the world are actively exploring new battery technologies that utilize materials like sodium and sulfur or other innovative chemistries. These efforts aim to reduce costs and decrease reliance on critical minerals, which have long been a point of concern in the EV industry.

China currently dominates the global battery cell production landscape, controlling 85% of the market. Additionally, it accounts for 90% of the processing of raw materials used in two lithium-ion variants that currently dominate the EV market. Despite this dominance, battery technology is evolving rapidly, though the fundamental principles remain largely unchanged. A typical battery consists of three key components: a cathode, an anode, and an electrolyte.

With carmakers evaluating long-term options, various battery types are either in use or under development. Let’s explore some of these technologies:

Lead Batteries

Lead batteries have been traditionally used in 6 or 12-volt systems to power car starters. They offer advantages such as being inexpensive and functional in extreme conditions. However, they are heavy and have low energy capacity, making them less suitable for modern EV applications.

Nickel-Cadmium (Ni-CD) and Nickel-Metal Hydride (Ni-MH)

Nickel-cadmium batteries are rechargeable and have been used in various applications. Nickel-metal hydride batteries were notably used in Toyota's first Prius model in 1997, serving as a precursor to hybrid technology.

Sodium-Nickel Chloride

This type of battery has found use in the Venturi Automobiles fleet for the French postal service. It offers advantages such as a smaller size, allowing it to be fitted into existing vehicles without requiring major modifications. However, its performance is limited, with a top speed of 100 km/h and a range of only 100 km.

Lithium-Metal Polymer (LMP)

Once used in models like the Bolloré Pininfarina BlueCar and the Parisian car-sharing service Autolib, LMP technology is now primarily used for stationary storage, buses, and trams. Its "dry" technology, based on the capacitor principle, makes it easier to produce industrially. However, it requires preheating and maintaining a specific temperature, which can be a drawback.

Lithium-Ion Batteries

Lithium-ion batteries are the most widely used today, found in phones, laptops, electric cars, and other devices. First commercialized in 1991 by Sony, they offer high energy density and versatile charging options. However, they are sensitive to external conditions like cold weather and vibrations, and their liquid nature poses risks of overheating.

Two Dominant Lithium-Ion Technologies

Two families of lithium-ion batteries dominate the EV market:

NMC (Nickel Manganese Cobalt)

NMC batteries offer high energy density but come at a higher cost, making them more suitable for larger vehicles. Cobalt, a key component, is mainly sourced from the Democratic Republic of Congo, where ethical and strategic concerns about mining practices persist.

LFP (Lithium Iron Phosphate)

LFP batteries eliminate the need for cobalt, offering a more affordable option suitable for smaller vehicles. However, their energy density is lower compared to NMC batteries.

Sodium-Ion Batteries

Sodium-ion batteries present a promising alternative by eliminating the need for lithium, nickel, and cobalt. These metals are currently in high demand, while sodium is more abundant and cheaper to extract. Sodium-ion batteries are non-flammable and can withstand up to 50,000 recharge cycles, significantly more than lithium-ion batteries. However, they currently face challenges with lower energy density and limited supply.

LNMO (Lithium Nickel Manganese Oxide)

Renault is developing LNMO technology, which aims to combine the energy density of NMC, the cost and safety of LFP, and fast recharge times of less than 15 minutes. While promising, this technology is still in the development phase.

Lithium-Sulfur Batteries

Lithium-sulfur batteries, backed by companies like Lyten, claim to offer more than twice the energy density of lithium-ion batteries. They also eliminate the need for nickel, cobalt, and manganese, providing greater independence due to the potential for local sourcing of raw materials. However, large-scale deployment is expected no earlier than 2028.

Solid-State Batteries

Solid-state batteries replace the liquid electrolyte in traditional lithium-ion batteries with a solid one, such as polymer or ceramic. This design offers higher energy density, lighter weight, and improved safety. However, they are still under development and have not yet reached large-scale production.

As the automotive industry continues to evolve, the development of new battery technologies will play a crucial role in shaping the future of electric mobility.

Q2 Earnings: 10x Genomics vs. Life Sciences Leaders

Overview of the Life Sciences Tools & Services Sector

The life sciences tools and services sector plays a crucial role in supporting biotech and pharmaceutical research and development (R&D) as well as commercialization. These companies provide essential lab equipment, data analytics solutions, and clinical trial services that are vital for scientific innovation. The sector benefits from recurring revenue streams and high margins on specialized products. Looking ahead, the industry is poised to benefit from several tailwinds, including advancements in genomics, the rise of personalized medicine, and the increasing use of artificial intelligence in drug discovery.

However, the sector also faces challenges. A key concern is its reliance on the R&D budgets of large pharmaceutical companies, which can be volatile. Additionally, smaller biotech firms often experience fluctuations that impact the demand for tools and services. Future headwinds may include uncertain research funding and pricing pressures from cost-conscious customers.

Q2 Earnings Performance

In the second quarter, the 20 life sciences tools & services stocks we track delivered strong results. As a group, revenues exceeded analysts’ consensus estimates by 4.2%, while next quarter’s revenue guidance was slightly below by 0.6%. Despite these mixed signals, the sector has performed well overall, with share prices rising by an average of 10.5% since the latest earnings reports.

10x Genomics: A Standout Performer

Founded in 2012 by scientists looking to overcome limitations in traditional biological research methods, 10x Genomics (NASDAQ:TXG) develops instruments, consumables, and software that enable researchers to analyze biological systems at single-cell resolution and spatial context.

In Q2, 10x Genomics reported revenues of $172.9 million, representing a 12.9% year-over-year increase. This result significantly exceeded analysts' expectations by 24%. The company also beat EPS estimates, making it the top performer in the sector. Following the strong results, the stock rose 13.4% and currently trades at $14.49.

West Pharmaceutical Services: Strong Results and Positive Outlook

West Pharmaceutical Services (NYSE:WST), founded in 1923, serves as a critical link in the pharmaceutical supply chain by manufacturing specialized packaging, containment systems, and delivery devices for injectable drugs and healthcare products.

The company reported Q2 revenues of $766.5 million, up 9.2% year-over-year. This outperformed analysts’ expectations by 5.6%, and the full-year EPS and revenue guidance also exceeded forecasts. The market responded positively, with the stock rising 9% and currently trading at $247.85.

Bruker: Disappointing Performance and Weak Guidance

Bruker (NASDAQ:BRKR), with roots in nuclear magnetic resonance technology, develops and manufactures high-performance scientific instruments for researchers and industrial analysts.

In Q2, Bruker reported revenues of $797.4 million, which remained flat year-over-year. The company fell short of analysts’ expectations by 1.5% and missed full-year EPS guidance significantly. As a result, the stock declined by 5.6% and now trades at $35.86.

PacBio: Strong Growth and Technological Innovation

PacBio (NASDAQ:PACB), known for its "HiFi long-read sequencing" technology, has been recognized as Nature Methods' method of the year for 2022. The company develops advanced DNA sequencing systems that offer unprecedented accuracy and completeness in genome analysis.

Q2 revenues reached $39.77 million, up 10.4% year-over-year, surpassing analysts’ expectations by 7.6%. The company also beat EPS estimates, leading to a 9.1% stock increase. Currently, the stock trades at $1.38.

Avantor: Mixed Results and Steady Performance

Avantor (NYSE:AVTR), with a history dating back to 1904, provides mission-critical products and services to customers in biopharma, healthcare, education, and advanced technology industries.

In Q2, Avantor reported revenues of $1.68 billion, down 1.1% year-over-year. However, the results beat analysts’ expectations by 0.6%. The stock remained flat after the report, with a current price of $13.51.

Market Update and Economic Outlook

The Federal Reserve's interest rate hikes in 2022 and 2023 helped cool post-pandemic inflation, bringing it closer to the 2% target. Inflationary pressures have eased without triggering a recession, suggesting a soft landing for the economy. Recent rate cuts—0.5% in September 2024 and 0.25% in November 2024—have contributed to a strong year for the stock market in 2024. Major indices reached record highs following Donald Trump’s presidential victory, but uncertainty remains regarding the direction of economic policy, particularly with potential tariffs and corporate tax changes in 2025.

For investors seeking growth opportunities, focusing on companies with strong fundamentals can be a strategic move. With a growing focus on AI and market trends, staying informed about top-performing stocks is essential.