
25,000-year-old mammoth hunting site discovered in Austria
Share on Facebook
Share on Messenger
Share on Messenger
Share on X
Share on Whatsapp
Archaeologists from the Austrian Academy of Sciences (ÖAW) have made a significant discovery in Langmannersdorf, Lower Austria, uncovering a prehistoric hunting ground used for mammoths.
Excavations in this area, located northeast of St. Pölten, revealed the remains of at least five mammoths dating back 25,000 years, along with stone tools.
Researchers believe that dozens of these animals were processed here, with their meat utilised and ivory crafted by ancient hunters.
In February, a team led by Marc Händel from the Austrian Archaeological Institute (ÖAI) undertook further excavations slightly away from previous sites as part of the European research project MAMBA, which focuses on mammoth bone accumulations in Central Europe. \
They identified two zones, approximately 15 metres apart, containing multiple layers of bones, along with stone tools and waste from tool production.
While neither zone contained complete skeletons, one area revealed remains of at least three animals, including intact and fragmented tusks, but few vertebrae and long bones.
This suggests that ivory was likely processed there, possibly to create spear points. The second zone lacked ivory but included vertebrae and long bones from at least two additional mammoths.
Notably, both locations lacked rib bones, indicating that the ancient hunters sorted the remains.
Additionally, signs of Upper Paleolithic habitation have been found, such as fire pits and pits, which suggest that while butchering mammoths, the hunters remained in the area and left behind traces of their presence.
Händel noted that 25,000 years ago, during the late Ice Age, mammoth herds roamed Central Europe, utilising the Perschling Valley in Langmannersdorf as a transit and grazing area.
Hashtags

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles


Arabian Post
5 days ago
- Arabian Post
Innovative Technologies Revolutionising River Pollution Control
Arabian Post Staff Rivers across the globe are receiving new attention with a wave of innovative technologies designed to tackle plastic and other pollutants more efficiently than ever before. These emerging systems focus on smart, targeted solutions rather than brute-force methods, achieving significant gains in waste removal while minimising harm to aquatic ecosystems. Four technologies stand out for their unique approaches and effectiveness in various water environments. The Bubble Barrier system is transforming river pollution management by creating a subtle yet effective method for directing floating debris. Rather than installing physical barriers that can harm fish and disrupt natural flow, this system releases a curtain of fine bubbles along the riverbed. These bubbles generate an upward current that gently pushes plastic waste toward the riverbank, where it can be collected safely. Designed with marine life preservation as a priority, the Bubble Barrier operates quietly and with minimal energy, making it sustainable and scalable. Its implementation in European waterways has demonstrated substantial reductions in plastic load downstream, underscoring the potential for global application. ADVERTISEMENT Another breakthrough is the WasteShark drone, an autonomous surface vehicle designed to seek out and collect plastic waste and biomass. Powered entirely by electric batteries, WasteShark operates silently and emission-free, making it suitable for sensitive environmental zones. Its shark-inspired design allows for agile manoeuvrability in narrow or complex waterways where traditional clean-up vessels cannot reach. This technology continuously scans the water surface, collecting debris into its internal storage, which is then offloaded for proper disposal or recycling. Trials conducted in urban canals and small rivers show WasteShark's capacity to reduce floating waste accumulation significantly, while also cutting labour costs associated with manual cleaning. Seabin technology complements these innovations with a more stationary but highly effective approach. Installed in harbours and marinas, Seabins function as water intake devices that draw water inward using low-energy pumps. As water passes through, floating debris, oil residues, microplastics, and even some suspended particles are trapped inside the device's netting system. This process mimics a natural whirlpool, preventing contaminants from drifting into open water bodies. The adaptability of Seabins to different aquatic environments and their ease of installation have led to their adoption in various coastal cities worldwide, where they provide crucial filtration services in high-traffic zones vulnerable to pollution. The Collec'Thor system offers a robust solution designed for the most heavily polluted and challenging river environments. This high-capacity waste collection unit operates continuously, 24 hours a day, removing massive quantities of surface waste that traditional methods struggle to handle. Engineered to withstand strong currents and debris-heavy waters, Collec'Thor is deployed in industrial zones and urban river stretches prone to significant contamination. Its capacity to extract large volumes of waste ensures that less pollution travels downstream, mitigating environmental and public health risks. Recent installations in Southeast Asian waterways demonstrate the system's efficacy in reducing plastic and other pollutants during monsoon seasons, when river pollution typically spikes. Together, these four technologies form a comprehensive, multi-tiered approach to river cleaning that addresses different types of pollution and environmental challenges. While each system excels in its particular niche, their combined deployment creates an interconnected network capable of targeting plastic pollution throughout a river's course, from upstream sources to estuaries. Experts emphasise the significance of moving away from heavy machinery and static nets, which can cause collateral damage to river ecosystems and are limited in reach. Instead, the focus has shifted towards solutions that work in harmony with natural water dynamics and biodiversity. Environmental engineers highlight that intelligent design in waste management systems, such as bubble curtains or autonomous drones, reduces disturbance to aquatic life while enhancing efficiency. Despite their promise, challenges remain. Scaling these technologies to cover entire river systems requires substantial investment and coordination among multiple stakeholders, including governments, environmental groups, and private enterprises. Maintenance and proper waste disposal infrastructure are critical to ensure collected materials do not re-enter waterways or cause secondary pollution. Additionally, the effectiveness of each technology depends on local conditions such as river size, flow rates, and pollution types, necessitating customised deployment strategies.


Broadcast Pro
25-05-2025
- Broadcast Pro
How a Europe-Middle East alliance could shape the future of space
Combining Europes strengths in R&D with the Middle Easts ability to deploy capital at scale would benefit both regions. When it comes to space, Europe is something of a paradox. It has world-class research institutions, a strong engineering tradition, and a legacy of technological breakthroughs. Yet when it comes to scaling those innovations into commercially viable companies, it lags behind the US. Investment is scarce, procurement is slow, and governments remain ambivalent about the role of private industry in defense-related space tech. If Europe doesnt act, it will fall behind not only the US and China, but also emerging powers in the Middle East. The United Arab Emirates (UAE) and Saudi Arabia have cast themselves as serious players in the global space race. Over the past decade, theyve invested $25bn in satellites and space projects a figure set to triple to $75bn by 2032, according to Euroconsult/now NovaSpace. These nations have a clear ambition. They see space as a strategic priority for economic growth and geopolitical influence, and understand that investments in the sector will pay for themselves many times over. Europe, by contrast, has room to invest further in space technology, particularly in dual-use applications those with both commercial and defense potential. While the US has improved procurement processes to support private-sector involvement in defense innovation, European governments have been more hesitant. Investors remain cautious, often viewing defense-linked startups as reputational liabilities instead of strategic assets. Some promising European space companies, seeking the resources to grow, have already relocated or considered doing so. One major obstacle is fragmentation. European space funding is divided between national agencies, the ESA, and the EU, each with its own priorities, budgets, and political considerations. This leads to duplication of efforts, slow decision-making, and a lack of coordinated support for private-sector innovation. Meanwhile, the US benefits from strong coordination between NASA, the Department of Defense, and private industry a model that has helped companies like SpaceX thrive. A partnership between Europe and the UAE could offer a solution. Combining Europes strengths in R&D with the Middle Easts ability to deploy capital at scale would benefit both regions. The UAE could provide targeted investment in European startups, while European firms could deliver the cutting-edge technology the UAE needs to expand its space sector. The UAEs Mars Hope Probe was a landmark mission, showcasing its ambition, yet it still relies heavily on foreign technology. This partnership could take many forms: dedicated UAE investment funds for European space startups; joint satellite or launch infrastructure projects; and supportive government policies to encourage joint ventures and technology-sharing agreements. Crucially, such a partnership would help Europe build the strategic capabilities it needs. With the US signalling a reduced willingness to lead abroad, particularly in military aid, Europe can no longer depend on American military-industrial leadership. Building its own space-based defense and intelligence infrastructure is now essential. The commercialisation of space is accelerating, with new applications in telecommunications, Earth observation, and deep-space exploration. Europe has the technical expertise but needs capital to remain competitive. The Middle East, with its deep investment pools and appetite for innovation, is an ideal partner. The economic logic is clear. Space technology drives innovation across industries from global internet access to climate monitoring. The companies that lead will shape the future and reap the rewards. Europe faces a choice: continue letting its most promising startups struggle, or seize the opportunity to forge a bold new partnership one that combines European research with Middle Eastern investment to build a stronger, more competitive space industry. Its a win-win. And it reflects a simple truth: the future of space will belong not only to those with the best ideas, but to those with the means to realise them.


Broadcast Pro
08-05-2025
- Broadcast Pro
ST Engineering iDirect leads Phase 2 of European Protected Waveform project
Backed by 35m from the European Defence Fund, Phase 2 unites 22 organisations from 12 EU nations to prototype a secure, interoperable waveform aligned with IRIS² and GovSatCom initiatives. ST Engineering iDirects EU Satcom Centre of Excellence, based in Sint-Niklaas, Belgium, has announced the launch of Phase 2 of the European Protected Waveform (EPW) project. The initiative, led by Belgiums Ministry of Defence with ST Engineering iDirect Europe as the consortium lead, marks a major step forward in Europes pursuit of secure, resilient and autonomous satellite communication systems. The EPW project is a collaborative effort involving 22 organisations from 12 EU Member States, bringing together expertise from the public sector, industry and academia. Its objective is to develop an advanced, end-to-end waveform solution tailored to meet the complex demands of military and critical government communications, particularly in contested and evolving operational environments. Building on the foundational work completed in Phase 1, which laid the groundwork for the waveforms design, the second phase of the project will focus on prototyping and integrating the EPW system. A key aim is to ensure that the system is fully secure and interoperable, aligning with the strategic priorities of major European initiatives such as the upcoming IRIS² satellite constellation and the EUs GovSatCom programme. Theo Francken, Belgian Minister of Defence, said: 'Together with ST Engineering iDirect Europe, we are investing in the backbone of modern military operations: secure and reliable communication. With support from the European Defence Fund, we are advancing technological innovation, strengthening strategic autonomy, and enhancing the safety of our troops. In todays uncertain world, European cooperation in research and development is not a luxury its an absolute necessity. This project aligns perfectly with our broader mission to modernise Defence and deepen European collaboration in R&D.' Koen Willems, Vice President, EU Programmes, at ST Engineering iDirect Europe, added: 'The advancement to EPW Phase 2 underscores the strategic importance of this initiative to bolster European autonomy in secure satellite communications. This recognition by the European Defence Fund demonstrates the urgent necessity to address emerging threats and foster resilience for critical operations across Europe.' The total investment in the EPW project now stands at 65m, with 35m dedicated to Phase 2 following the 30m allocation in Phase 1. This investment highlights Europes commitment to advancing protected satellite communications and strengthening collaborative defence capabilities among its Member States.