Spotify has introduced two new Messages features that let users see what friends are listening to in real time and invite them into shared listening sessions, signalling a deeper shift towards in-app social interaction.

Wider Rollout By Early February

The update, confirmed by Spotify on 7 January, adds Listening Activity and Request to Jam to markets where Messages is already available, with wider rollout expected by early February.

Why Spotify Is Doubling Down On Social Features

For much of its history, Spotify has been a largely solitary experience. For example, while playlists, links, and Wrapped summaries encouraged sharing, that sharing typically happened elsewhere, via WhatsApp, Instagram, or other messaging platforms.

However, the introduction of Messages in August 2025 marked a change in direction. Spotify began experimenting with keeping conversations inside its own ecosystem, rather than acting purely as a content source for other apps.

According to Spotify’s Newsroom, that shift has already shown measurable engagement. The company says that “almost 40 million users have sent nearly 340 million messages” since Messages launched, indicating sustained use rather than novelty adoption.

Listening Activity and Request to Jam build directly on that behaviour, turning private listening into a visible signal and reducing friction between discovery, conversation, and shared playback.

Listening Activity

Listening Activity is an opt-in feature that displays what a user is currently listening to within the Messages interface. If the user is not actively playing audio, their most recently played track is shown instead.

Once enabled (via the Privacy and social settings), activity appears at the top of Messages chats and in the chat row of the side drawer. It is only visible to contacts a user has already messaged on Spotify.

Spotify has been keen to highlight the controllability of Activity sharing, pointing out that it can be turned off at any time, and users can still see other people’s listening activity even if they have not enabled their own, provided the other person has opted in.

Tapping on a friend’s listening activity opens a set of quick actions, including starting playback, saving the track, opening the context menu, or reacting with one of six emojis. The design focuses on immediacy rather than commentary, encouraging lightweight engagement rather than long conversations.

Spotify describes the feature as giving users “a real-time look at what music your friends and family are listening to”, positioning it as a social awareness rather than a performance feature.

Request To Jam And The Growth Of Shared Listening

Alongside visibility, Spotify is also making it easier to act on that awareness through Request to Jam. This is Spotify’s real-time collaborative listening feature, which allows users to share a queue of tracks and listen synchronously from different locations. Spotify says Jam usage has been accelerating, noting that daily active users have “more than doubled year over year”.

Why?

Request to Jam actually addresses one of the main barriers to remote shared listening, i.e., timing. For example, previously, users needed to coordinate externally or guess when friends were available. With Listening Activity, availability becomes visible, and Request to Jam provides a one-tap invitation.

Premium users can send a Jam request directly from a Messages chat. The recipient can accept or decline. If accepted, the recipient becomes the host, and both participants can add tracks to a shared queue.

Suggested Tracks

During a Jam, participants see each other’s display names and receive suggested tracks based on their combined listening profiles. Invitations expire if not accepted, and users can leave sessions at any time.

Spotify frames this as a way to “quickly turn those moments into shared listening sessions”, blending discovery with participation.

Subscription, Age, And Messaging Limits

Spotify says access to the new features is shaped by existing platform constraints. Listening Activity is available to all users with access to Messages, regardless of subscription tier. Request to Jam, however, can only be initiated by Premium users, though Free users can join when invited.

Both features are limited to users aged 16 and over, reflecting Messages’ existing age restriction. Messages themselves remain one-to-one only, and users can only message people they have previously shared content with, such as playlist collaborators or Jam participants.

Messages are encrypted at rest and in transit, though Spotify has confirmed they are not end-to-end encrypted, a point that may matter to privacy-conscious users.

For Spotify

From a commercial perspective, these features support several of Spotify’s core objectives. For example, keeping discovery, conversation, and shared listening inside the app increases time spent on the platform, strengthens habit formation, and reduces reliance on external social networks. Each of those factors contributes to retention, which remains critical in a highly competitive streaming market.

Also, Request to Jam essentially reinforces the value gap between Free and Premium tiers. While Free users can participate, only Premium subscribers can initiate sessions, subtly encouraging upgrades without aggressive prompts.

There is also a data dimension to all this. For example, social listening creates more context around discovery, which may improve recommendation quality over time, especially when combined listening preferences are involved.

Competitive Pressure On Other Streaming Platforms

Spotify’s move further differentiates it from rivals that focus primarily on catalogue and audio quality rather than social interaction.

Apple Music, Amazon Music, and YouTube Music all offer sharing and collaborative playlists, but none have integrated real-time listening visibility and messaging in the same way. Spotify’s approach positions social engagement as a product feature rather than a marketing add-on.

If Listening Activity and Jam continue to grow, competitors may face some pressure to respond, particularly if users begin to associate Spotify with shared experiences rather than individual consumption.

Users And Business

For everyday users, the changes lower the barrier to discovery and shared listening, particularly for people who already use Spotify socially with friends or family.

For businesses, creators, and brands, the implications are more indirect but still relevant. For example, music-led environments such as gyms, retail spaces, cafés, and studios increasingly use Spotify as part of their brand experience. Greater social visibility may influence how playlists spread organically between users.

Artists and podcasters may also benefit if listening activity encourages faster, peer-driven discovery, though Spotify has not yet provided data on how activity visibility affects streaming behaviour at scale.

Criticisms and Challenges

Despite the careful framing, the update is not without potential drawbacks. For example, some users may be uncomfortable with even limited visibility into their listening habits, particularly when content is personal or sensitive. Although Listening Activity is opt-in, social pressure can still influence participation once features become widespread.

There are also privacy questions around how listening data is surfaced, even among known contacts. While Spotify has avoided public feeds, the boundary between awareness and exposure remains subjective.

From a product perspective, Messages is still a relatively constrained system. The lack of group chats and broader discovery limits how far social interaction can scale, and some users may continue to prefer external messaging apps regardless of new features.

It remains unclear at this point how Listening Activity will affect listening behaviour itself. Although visibility can encourage sharing, it can also lead to self-censorship, where users avoid certain content because they know it may be seen.

That said, Spotify’s rollout seems to suggest a confidence that the benefits will outweigh those risks, but real-world adoption will determine whether social listening becomes a core part of the platform or remains a feature used by a smaller subset of engaged users.

What Does This Mean For Your Business?

Spotify’s decision to surface listening behaviour and make shared sessions easier reflects a broader recalibration of what a streaming platform is expected to do. For example, this is no longer just about access to a catalogue or algorithmic recommendations, but about creating moments of interaction that keep users present, engaged, and less likely to drift elsewhere. Listening Activity and Request to Jam both essentially prioritise immediacy, reducing the steps between discovery, response, and participation.

For Spotify, retention matters as much as growth, and social features that sit naturally inside everyday listening habits offer a way to deepen engagement without radically changing how the app works. The measured design choices, opt-in visibility, one-to-one messaging, and Premium-led initiation suggest an attempt to balance expansion with control rather than chasing scale at all costs.

For competitors, this could raise the bar around what shared listening looks like in practice. Collaborative playlists alone may start to feel static if real-time awareness and interaction become more normalised. Whether rivals respond with similar features or take a different approach will shape how social music streaming evolves over the next few years.

UK businesses and organisations that already rely on Spotify as part of their customer or workplace experience may also feel indirect effects. For example, shared listening habits can influence how playlists circulate organically, how music-led environments shape brand perception, and how quickly new content gains traction through peer visibility. For creators, venues, retailers, and service-led spaces, the line between listening and recommendation is becoming shorter and more socially driven.

At the same time, adoption is not guaranteed. Privacy comfort levels, differing attitudes to visibility, and the continued pull of external messaging platforms will all influence how widely these features are used. Spotify’s challenge now is less about launching new tools and more about ensuring they become part of everyday behaviour without creating friction or fatigue.

How users respond over the coming months will determine whether social listening becomes a defining layer of Spotify’s identity or remains a useful but optional enhancement for a more engaged subset of its audience.

Google is reshaping Gmail around its Gemini AI models, introducing a personalised AI Inbox, natural-language AI Overviews in email search, and a wider rollout of writing and summarisation tools designed to help users manage rising email volumes more efficiently.

To Help Manage Information Overload

Google says more than 3 billion people now rely on its email service every day, and the company says the way people use email has changed fundamentally since Gmail launched in 2004. In a blog post published on 8 January 2026, Google argued that the challenge today is no longer sending or receiving messages, but managing information overload and turning large volumes of email into clear actions and answers.

The result is what Google describes as Gmail entering “the Gemini era”, with its latest generation of large language models embedded more deeply across inbox organisation, search, and writing assistance.

From Passive Inbox To Proactive Assistant

Google’s central claim is that Gmail is now shifting from a passive repository of messages into a personal, proactive assistant. AI has already been part of Gmail for years, underpinning features such as Smart Reply, Smart Compose, and spam filtering. The latest update expands that role significantly.

According to Google, email volume is now at an all-time high, and users are spending more time searching, scanning threads, and piecing together information than actually acting on it. The new tools are designed to reduce that friction by summarising conversations, surfacing priorities automatically, and allowing users to ask their inbox direct questions in plain language.

These changes are powered by Gemini (Google’s own AI model family), with Google confirming that many of the new capabilities rely on Gemini 3, its latest model generation.

AI Overviews Come To Gmail Search

One of the most significant additions is AI Overviews inside Gmail search. This feature mirrors the AI Overviews Google has been rolling out in its core search product, but is restricted entirely to a user’s own inbox.

For example, rather than just returning a list of emails based on keywords, Gmail can now generate a direct answer to a question by synthesising information across messages. This means that, e.g., a user can ask, “Who was the plumber that gave me a quote for the bathroom renovation last year?” and receive a concise summary highlighting the relevant name, date, and details pulled from past emails.

Google says this is intended to remove the need to manually search through long email histories or open multiple messages to extract basic facts. Conversation-level summaries are also generated automatically for long email threads, presenting key points at the top of the discussion. If it works like it sounds, it could be quite helpful.

AI Overview summaries for threaded emails are rolling out to all Gmail users at no cost. The ability to ask the inbox direct questions using natural language is being limited to Google AI Pro and Google AI Ultra subscribers, reflecting Google’s broader strategy of reserving more advanced reasoning features for paid tiers.

A New AI Inbox Focused On Priorities

Alongside search, Google says it’s also introducing an entirely new AI Inbox view. Rather than replacing the traditional inbox, this appears as an optional tab that users can toggle on and off.

The AI Inbox is designed to act as a personalised briefing. For example, it highlights what Google believes matters most, based on signals such as who a user emails frequently, who appears in their contacts, and relationships inferred from message content.

In practice, the AI Inbox is split into two main sections. “Suggested to-dos” surfaces high-priority items that require action, such as bills due, appointment reminders, or requests that have not yet been answered. “Topics to catch up on” groups informational updates such as deliveries, refunds, and financial statements into categories like purchases or finances.

In a recent briefing with reporters, Google described this as Gmail “having your back” by showing users what they need to do and when, without requiring them to manually sort or label messages.

Google has stressed that this analysis happens within what it describes as a secure and isolated environment, with personal email data remaining under the user’s control. The AI Inbox is currently being made available to trusted testers, with a broader rollout planned over the coming months.

Writing, Replying And Proofreading With AI

Google is also expanding access to several AI-powered writing tools. “Help Me Write”, which can draft emails from a short prompt or rewrite existing text, is now rolling out to all users at no cost. Suggested Replies, an evolution of Smart Reply, now generate responses based on the full context of a conversation and attempt to match the user’s writing style.

For example, when coordinating an event, Suggested Replies can draft a tailored response that reflects prior messages, which the user can then edit before sending. Google has framed this as a way to save time on routine communication without removing human oversight.

A new Proofread feature adds more advanced grammar, clarity, and style checks. This tool flags incorrect word usage, suggests simpler phrasing, and recommends breaking up complex sentences. Google has been explicit that this is intended to reduce reliance on third-party tools such as Grammarly or copying text into general-purpose AI chatbots for editing.

Proofread is limited to Google AI Pro and Ultra subscribers, reinforcing the company’s tiered approach to AI capabilities.

When And Where Are These Changes Rolling Out?

Google says that many of these features actually began rolling out in the US in January 2026, starting with English language support. Wider language and regional availability is planned over the coming months.

AI Overviews for threaded emails, Help Me Write, and Suggested Replies will be available to all users but AI Inbox and inbox-wide AI search remain gated, either behind testing programmes or paid subscriptions.

Google AI Pro and Ultra pricing varies by region, but these subscriptions sit within Google’s broader push to monetise advanced AI features across Workspace and consumer services.

Business Users And Google’s Competitors

For business users, the changes reflect Google’s attempt to make Gmail a more effective productivity hub rather than just a communication tool. Faster access to information buried in emails, clearer prioritisation of tasks, and reduced time spent drafting responses all align with wider trends in workplace automation.

These features also place Google in more direct competition with Microsoft, which has been embedding Copilot across Outlook, Teams, and the wider Microsoft 365 ecosystem. Both companies are now positioning email as an interface for AI-driven knowledge retrieval rather than a simple inbox.

The inclusion of proofreading and drafting tools also puts pressure on standalone writing assistants, while AI Inbox overlaps with features offered by third-party email management tools that focus on prioritisation and summarisation.

Challenges And Criticism

Despite Google’s assurances, the move has raised some familiar concerns around privacy, transparency, and control. For example, some users and regulators remain sceptical about AI systems analysing personal communications, even when data is processed locally or in isolated environments.

Accuracy is another challenge. AI-generated summaries and answers risk missing nuance, context, or important details, particularly in professional or legal correspondence. Google has positioned these tools as optional and assistive rather than authoritative, but reliance on automated summaries could still introduce errors.

There is also an ongoing debate about subscription-based access to core productivity enhancements. As more advanced features move behind paid tiers, businesses may face pressure to upgrade simply to maintain efficiency parity.

Also, Google’s expansion of AI Overviews continues to attract some scrutiny following mixed reactions to similar features in Search, where early rollouts drew criticism for incorrect or misleading answers. Applying the same concept to private email data may reduce some risks, but expectations around reliability remain high.

Taken together, Gmail’s move into the Gemini era signals Google’s intention to make AI central to everyday digital work, while testing how far users are willing to trust automated systems with the most personal layer of their online activity.

What Does This Mean For Your Business?

What emerges most clearly here is that Google is no longer treating AI in Gmail as a set of optional extras, but as core infrastructure for how email is organised, searched, and acted upon. By introducing Gemini directly into inbox prioritisation, search, and writing, Google is betting that users want fewer messages on screen and clearer signals about what actually needs attention. That approach reflects a broader shift in productivity software away from manual sorting and towards AI-mediated decision support, where the system actively interprets information rather than simply storing it.

For UK businesses, the potential upside is pretty meaningful. For example, faster access to buried information, clearer visibility of tasks, and reduced time spent drafting routine emails could translate into real efficiency gains, particularly for small and mid sized teams already operating under time pressure. At the same time, the growing split between free and paid capabilities raises practical questions around cost, governance, and consistency across organisations, especially where some staff have access to advanced AI features and others do not. Regulators, IT teams, and compliance leaders will also be watching closely to see how Google’s privacy assurances hold up as AI analysis becomes more deeply embedded in everyday business communications.

More broadly, this move reinforces how central email has become as a battleground in the wider AI productivity race. Google is clearly responding to competitive pressure from Microsoft and others, while also testing how comfortable users are with AI interpreting their most personal and professional data. Whether Gmail’s Gemini powered future is seen as genuinely helpful or uncomfortably intrusive will depend less on the ambition of the technology, and more on how accurately, transparently, and reliably it performs once it reaches wider use.

OpenAI has launched ChatGPT Health, a dedicated space for health and wellness conversations that allows users to link personal health data, raising fresh security and privacy concerns around highly sensitive information.

OpenAI says more than 230 million people ask health-related questions on ChatGPT each week, prompting the creation of a separate Health environment with additional protections. Health conversations are isolated from standard chats, encrypted, and excluded from model training, while users can connect data from apps such as Apple Health and other wellness platforms with explicit consent.

Despite these safeguards, ChatGPT Health concentrates medical history, lifestyle data, and behavioural context into a single AI account. If an account is compromised through phishing, weak passwords, or reused credentials, attackers could potentially gain access to deeply personal health information rather than just general chat content. OpenAI also stresses that Health is not intended for diagnosis or treatment, as large language models can still produce inaccurate or misleading responses.

For businesses, the risk lies in staff using AI tools with sensitive personal data on accounts that may not be properly secured. Strong password policies, mandatory multi-factor authentication, and clear guidance on linking personal data to AI services are essential steps to reduce exposure as consumer health features increasingly overlap with everyday work technology.

An international research team has proposed using bacteria to bind Martian soil into concrete-like structures, offering a lower-energy and more sustainable way to build future habitats on Mars.

What The New Research Is Proposing

A new perspective paper published in Frontiers in Microbiology examines whether biomineralisation, a natural process driven by microorganisms, could be adapted for construction on Mars using local materials rather than imported building supplies. The research is led by Shiva Khoshtinat at Politecnico di Milano with collaborators from the University of Central Florida and Jiangsu University.

The researchers (the research is ongoing) are focusing on biocementation, a specific form of biomineralisation in which microbes trigger the formation of calcium carbonate minerals that can bind loose particles together. On Earth, similar processes have been explored for soil stabilisation and experimental low-carbon construction. The paper argues that a carefully engineered version of this approach could be viable on Mars, where energy, materials, and human labour will all be severely constrained.

As the researchers write, “Given the high cost and logistical complexity of transporting construction materials to Mars, the development of autonomous in situ resource utilisation technologies is imperative.”

Why Mars Construction Demands New Thinking

Building on Mars is likely to be fundamentally different from building on Earth. For example, the planet’s atmosphere is extremely thin, surface pressure is less than one percent of Earth’s, and temperatures fluctuate sharply between day and night and across seasons. Radiation exposure is also far higher due to the lack of a global magnetic field.

For future human missions, these conditions will mean habitats must be robust, well-shielded, and ideally constructed using local materials. Transporting large quantities of steel, concrete, or prefabricated components from Earth would simply be prohibitively expensive and energy intensive.

This is why space agencies increasingly focus on in situ resource utilisation, commonly referred to as ISRU, which aims to use local materials such as regolith, ice, and atmospheric gases to support life and infrastructure. The new paper positions biocementation as a potential addition to that toolkit.

Why Conventional Cement Falls Short On Mars

One of the key technical drivers behind the proposal is the chemical mismatch between Martian soil and conventional cement production. For example, Martian regolith contains many familiar oxides, including silica, alumina, iron oxides, and magnesium oxide. Calcium oxide, however, is present at much lower levels than those required to produce Portland cement, which relies heavily on calcium-based compounds.

The researchers have noted that this is likely to make producing a true Portland cement analogue on Mars very difficult without importing large amounts of calcium from Earth, which would undermine both cost efficiency and sustainability. Instead, they argue that calcium carbonate-based binding, supported by microbial activity, may be more compatible with Martian geochemistry.

Biocementation, therefore, appears to offer a way to work with what Mars naturally provides, rather than forcing local materials into Earth-based industrial processes.

How Biocementation Works

Biocementation relies on microorganisms that alter their chemical environment in ways that cause minerals to precipitate, i.e., it is a process where microorganisms form calcium carbonate that binds particles together. In this case, the target mineral is calcium carbonate, the same compound found in limestone and chalk.

When calcium carbonate forms between grains of soil or regolith, it acts as a natural binder. Over time, this process can transform loose material into a solid mass with meaningful compressive strength, without the need for high temperatures or large energy inputs.

The researchers describe this as a potentially low-energy alternative to regolith sintering, which requires heating material to extremely high temperatures to fuse it together.

As their paper explains, “Unlike thermal or microwave-based sintering of regolith reliant on solar, stored electrical, or nuclear energy, biocementation operates at low temperatures with low energy demands, making it suitable for Mars’ limited power systems.”

The Two Micro-organisms At The Heart Of The System

The proposed system centres on a co-culture of two micro-organisms, each chosen for complementary capabilities, which are:

A bacterium that produces the enzyme urease, which breaks down urea into ammonia and carbonate ions. In the presence of calcium, this leads to the formation of calcium carbonate crystals, effectively cementing surrounding particles together. This organism has been widely studied on Earth for biocementation applications.

A cyanobacterium, a photosynthetic microorganism capable of surviving in extreme environments. Certain strains have demonstrated resistance to desiccation, intense radiation, and prolonged exposure to Mars-like conditions, including experiments conducted outside the International Space Station.

In the proposed system, the cyanobacterium plays several roles. For example, through photosynthesis, it consumes carbon dioxide and releases oxygen, helping create a more hospitable micro-environment for its bacterial partner. It also produces extracellular polymeric substances, sticky biological materials that help microbes adhere to surfaces and provide nucleation sites for mineral formation.

Describing this relationship, the researchers write, “Chroococcidiopsis breathes life into its surroundings by releasing oxygen, creating a welcoming microenvironment for Sporosarcina pasteurii. In turn, Sporosarcina secretes natural polymers that nurture mineral growth and strengthen regolith, turning loose soil into solid, concrete-like material.”

From Microbes To 3D Printed Structures

The authors envision this microbial system being integrated with robotic additive manufacturing, essentially large-scale 3D printing adapted for Mars.

In practice, regolith would be mixed with microbial cultures and nutrients inside a controlled, pressurised environment. The resulting slurry could then be extruded layer by layer to form walls, arches, or domed structures designed to withstand internal pressurisation and external dust storms.

Advanced robotic systems would manage mixing, extrusion, and curing, using sensors to monitor moisture levels, pH, temperature, and ion concentrations. Multi-channel nozzles could keep components separate until the final stage of printing, reducing the risk of clogging caused by premature mineral formation.

This approach aligns with broader trends in off-Earth construction, where automation is seen as essential for safety, consistency, and scalability.

Energy Use And Sustainability Considerations

A major sustainability advantage highlighted in the paper is reduced energy demand.

For example, heating regolith to the point where it melts or sinters requires large amounts of power, which early Mars settlements are unlikely to have in abundance. Biological processes, by contrast, operate at ambient or moderately controlled temperatures.

The researchers cite comparative figures suggesting that producing calcium carbonate through biocementation requires far less energy per tonne than thermal sintering, even when compared with lower-energy microwave approaches. While they stress that these numbers are indicative rather than definitive, the contrast underlines why low-temperature chemistry is attractive in a resource-constrained environment.

This energy efficiency also resonates with current challenges on Earth, where cement production now accounts for a significant share (around 8 per cent) of global carbon dioxide emissions and alternatives are actively being explored.

Turning Waste Into Useful Inputs

The proposed system also fits into a wider vision of closed-loop resource use. For example, the urea required for the biocementation process could potentially be sourced from human waste, such as urine. Also, carbon dioxide is abundant in the Martian atmosphere and could feed photosynthesis. Oxygen released by the cyanobacterium could support life support systems, while ammonia produced during urea breakdown may eventually play a role in agriculture.

In their research paper, the authors summarise this integrated approach clearly, stating that biocementation “holds promise not only for infrastructure construction but also for integrated resource cycles, producing oxygen and ammonia as byproducts.”

Key Challenges And Questions

Despite its promise, the paper is careful to emphasise how early-stage the concept remains. Water availability and purification are major concerns, particularly due to the presence of perchlorates in Martian soil and ice, i.e., highly reactive salts that can be toxic to living organisms and interfere with biological processes.

Also, long-term microbial behaviour under reduced gravity is largely unknown, and the combined effects of radiation, temperature swings, and low pressure on co-cultured organisms have not been fully explored.

The lack of returned Martian soil samples also limits experimental validation, forcing researchers to rely on simulants that may not capture all relevant properties.

The researchers acknowledge these uncertainties directly, writing that “without integrated, long-duration testing in analog or space environments, the pathway from concept to application remains highly speculative.”

Other Groups Exploring Biological And Regolith Based Construction

The idea of using biology or low energy chemistry to support off Earth construction is not limited to this one research team. In fact, several space agencies and universities are investigating related approaches, often with a similar sustainability motivation. For example, these include:

– The European Space Agency, which has previously supported the BioRock experiment, led by researchers at the University of Edinburgh, which studied how bacteria interact with basalt under microgravity conditions aboard the International Space Station. While BioRock focused on biomining rather than construction, it demonstrated that microbial processes can still function in reduced gravity environments, a key prerequisite for any biological ISRU strategy.

– NASA has also funded multiple studies into microbially induced calcium carbonate precipitation for soil stabilisation on Earth, including work exploring whether similar processes could one day be adapted for lunar or Martian regolith. These projects have largely remained at the laboratory and modelling stage, yet they provide a growing body of data on how biocementation affects strength, porosity, and durability.

Also, alongside biological approaches, engineering-led programmes are exploring alternative low energy construction routes. For example, NASA’s collaboration with ICON and academic partners has tested large scale 3D printing using simulated Martian and lunar regolith, focusing on structural geometry, automation, and radiation shielding rather than biology. These projects highlight how additive manufacturing and ISRU are increasingly converging across different disciplines.

Together, these parallel efforts suggest that future off Earth construction is unlikely to rely on a single solution. Instead, biological systems like biocementation may sit alongside robotic printing, chemical processing, and regolith based shielding as part of a broader toolkit aimed at reducing energy use, imported materials, and environmental impact during long duration space missions.

What Does This Mean For Your Organisation?

What this research makes clear is that biology is starting to be taken seriously as a practical engineering tool for space, not just a scientific curiosity. The proposal doesn’t promise quick wins or near-term deployment, and the researchers are explicit about the technical and environmental hurdles that remain. Even so, it shows how future Mars infrastructure could be built around low energy chemistry, local materials, and closed-loop systems rather than brute-force industrial processes transplanted from Earth.

That shift matters beyond space exploration. For example, many of the same pressures apply on Earth, where construction faces rising energy costs, tighter carbon targets, and growing scrutiny of cement and concrete. Research into biocementation, low temperature mineral binding, and waste-derived inputs is already influencing experimental construction methods here. For UK businesses working in construction, materials science, robotics, or environmental engineering, this kind of work points to where longer-term innovation and funding interest may head, especially in areas linked to low carbon building materials and automated construction.

For other stakeholders, including space agencies, regulators, and sustainability researchers, the study reinforces the need for interdisciplinary thinking. Mars construction will not be solved by materials science alone, or biology alone, or robotics alone. It will most likely require systems that combine all three in ways that are reliable, scalable, and demonstrably safe.

This research does not claim to have solved that challenge, but it does set out a credible path forward, one where sustainability constraints shape engineering choices from the very start rather than being treated as an afterthought.

This video shows how you can do away with paying for packages like Canva if you want to create visual storyboards, simply by asking Copilot to create your visual storyboards for you … it’s easier than ever!

[Note – To Watch This Video without glitches/interruptions, It may be best to download it first]

Streamline meeting planning in Outlook by creating a poll to find the perfect meeting time, boost attendee turnout, and save hours of back-and-forth emails. Here’s how:

How to do it

– Create a new meeting in Outlook.
– Click ‘New Meeting’, then select ‘Scheduling Poll’ in the toolbar.
– Enter meeting details and select 2 to 5 time slots for attendees to choose from.
– Send the poll; attendees’ responses will help you pick the best time.

Why it helps: Minimise back-and-forth emails, save time, and ensure more people can attend.