- Rfc8950 - lists.euro-ix.net

Greece Carbon Dioxide Emissions Trajectory Reflects Energy Transition And Lignite Phaseout

by sathesudarshan83＠gmail.com

Carbon dioxide emissions represent the most significant component of anthropogenic greenhouse gas emissions and the primary driver of global climate change, making their measurement and tracking a central concern of international environmental policy and national climate strategies. The Greece Carbon Dioxide Co2 Emissions Total Excluding Lulucf Mt Co2E indicator, compiled from data reported by Greece to the United Nations Framework Convention on Climate Change (UNFCCC) and validated by the European Environment Agency under the EU Monitoring Mechanism Regulation, measures the total annual emissions of carbon dioxide from all economic sectors within Greek territory, expressed in millions of tonnes of CO2 equivalent, with the critical exclusion of emissions and removals from the land use, land use change, and forestry (LULUCF) sector. The LULUCF exclusion is analytically significant because it focuses the indicator on the energy, industrial, transport, agricultural, and waste sectors that are the primary targets of climate mitigation policy, while removing the highly variable and methodologically complex carbon fluxes associated with forest growth, deforestation, wildfires, and soil carbon changes that can fluctuate dramatically from year to year due to natural disturbances. For Greece, a Mediterranean European Union member state with a population of approximately 10.4 million people and a historically carbon-intensive energy system dominated by domestically mined lignite, this indicator provides a critical measure of the country's progress toward its ambitious decarbonization targets under the European Green Deal and the Paris Agreement, particularly given the dramatic acceleration of the lignite phase-out that has been announced by the Greek government in recent years. The structural drivers of Greece's CO2 emissions profile are deeply rooted in the country's energy history, its geographic characteristics, and the composition of its economic activity. For decades, Greece's electricity generation system was overwhelmingly dependent on lignite, a low-grade brown coal that is abundant in the western Macedonian region and the Peloponnese but that produces significantly higher CO2 emissions per unit of energy generated than hard coal, natural gas, or renewable sources. The Public Power Corporation (PPC), the state-owned utility that operated the vast majority of Greece's lignite-fired power plants, was for many years the single largest source of CO2 emissions in the country, and the lignite-dependent regions of Western Macedonia became synonymous with air pollution, environmental degradation, and health problems for local communities. Beyond the power sector, Greece's CO2 emissions are driven by a transport sector that is heavily reliant on road freight and private vehicle use, reflecting the country's mountainous terrain, its fragmented island geography, and the underdevelopment of rail and public transit infrastructure outside the Athens metropolitan area. The maritime sector, which includes both the domestic ferry network connecting the thousands of inhabited Greek islands and the international shipping industry in which Greek-owned vessels represent the world's largest merchant fleet, contributes a significant and growing share of emissions that is particularly difficult to abate due to the technological limitations of alternative marine fuels. The tourism sector, which accounts for approximately 20 to 25 percent of Greek GDP, generates substantial seasonal spikes in energy demand and transport emissions during the summer months, when the population of many Aegean and Ionian islands swells by several multiples of the resident population. The measurement of CO2 emissions in millions of tonnes of CO2 equivalent, excluding LULUCF, follows the standardized reporting methodology established by the Intergovernmental Panel on Climate Change (IPCC) and adopted by all parties to the UNFCCC, ensuring a high degree of international comparability across countries and over time. The CO2 equivalent metric converts all greenhouse gases into a common unit based on their global warming potential relative to CO2 over a 100-year time horizon, though for this particular indicator, which focuses exclusively on CO2, the conversion is straightforward and does not involve the aggregation of methane, nitrous oxide, or fluorinated gases that would be captured in a broader greenhouse gas emissions indicator. The exclusion of LULUCF is particularly important for Greece because the country has experienced devastating wildfires in recent years, including the catastrophic fires of 2007 in the Peloponnese, the 2018 Mati fire near Athens that killed over 100 people, and the massive 2021 and 2023 fire seasons that burned hundreds of thousands of hectares of forest and scrubland across the country. These fire events can release enormous quantities of stored carbon into the atmosphere in a matter of days, creating large spikes in LULUCF emissions that would obscure the underlying trends in energy and industrial emissions if they were included in the total. The indicator captures territorial or production-based emissions, meaning that it reflects the CO2 released within Greece's geographic boundaries regardless of where the consumed goods and services were ultimately used, and does not account for the emissions embodied in imported products, which for a net-importing economy like Greece could represent a significant additional carbon footprint. The outlook for Greece's CO2 emissions trajectory is shaped by one of the most ambitious energy transitions currently underway in the European Union, driven by a combination of EU regulatory pressure, falling renewable energy costs, and a domestic political consensus that has coalesced around the goal of achieving climate neutrality by 2050. The Greek government's National Energy and Climate Plan, updated in 2023, sets a target of reducing greenhouse gas emissions by at least 55 percent by 2030 compared to 1990 levels and accelerating the complete phase-out of lignite-fired power generation by 2028, a dramatic acceleration from the original 2050 timeline that was in place just a few years ago. This lignite phase-out, combined with the rapid expansion of solar photovoltaic and wind power capacity, which has been facilitated by streamlined permitting procedures and competitive auction mechanisms, has already produced a significant decline in power sector CO2 emissions and is expected to drive further reductions in the coming years. The European Union's Just Transition Fund is providing substantial financial support to the lignite-dependent regions of Western Macedonia and Megalopolis to help diversify their economies and retrain workers displaced by the closure of mines and power plants. However, significant challenges remain in decarbonizing the transport and maritime sectors, where the adoption of electric vehicles and alternative fuels is proceeding more slowly, and in managing the emissions implications of Greece's tourism-dependent economic model in a warming Mediterranean climate. As the CO2 emissions indicator evolves over the coming decade, it will serve as the primary quantitative benchmark for assessing whether Greece's energy transition is delivering the deep and sustained emissions reductions required to meet its Paris Agreement commitments and contribute to the EU's collective climate ambition. Source -https://www.wantstats.com/charts-stats/greece-carbon-dioxide-co2-emissions-total-excluding-lulucf-mt-co2e

2 weeks, 5 days

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Comprehensive Strategic Growth Analysis Of The Global NMP Recovery Purification Market

by sathesudarshan83＠gmail.com

The lithium-ion battery manufacturing and semiconductor fabrication industries consume enormous volumes of N-Methyl-2-pyrrolidone, a high-boiling-point polar aprotic solvent essential for electrode coating, wafer cleaning, and polymer processing applications. Within this critical industrial chemicals sector, the global NMP Recovery And Purification Market has emerged as an indispensable sustainability infrastructure enabling manufacturers to reclaim, purify, and reintroduce spent solvent back into production cycles at pharmaceutical-grade purity levels. NMP represents one of the most expensive consumable chemicals in battery manufacturing, and its disposal poses significant environmental hazards due to reproductive toxicity classifications under European REACH regulations. Recovery and purification systems utilize advanced distillation, membrane separation, and adsorption technologies to extract NMP from complex waste streams containing dissolved binder residues, conductive carbon particles, and metallic contaminants. As global electric vehicle production accelerates and semiconductor fabrication capacity expands dramatically, the volume of spent NMP requiring responsible recovery has reached unprecedented levels, transforming solvent reclamation from an optional environmental initiative into a mandatory operational and regulatory requirement across advanced manufacturing supply chains worldwide. The primary catalysts driving market expansion include the explosive growth of lithium-ion battery production, tightening environmental discharge regulations, and the compelling economic case for solvent reclamation versus virgin chemical procurement. Global electric vehicle manufacturing capacity is expanding at extraordinary rates, with gigafactory construction programs across China, Europe, and North America generating massive volumes of NMP-laden exhaust air and liquid waste streams from electrode coating and drying operations. Environmental protection agencies worldwide have classified NMP as a substance of very high concern, imposing strict emission limits and wastewater discharge thresholds that prohibit direct environmental release without comprehensive treatment and recovery. The economic rationale is equally compelling; virgin NMP prices have increased substantially due to feedstock cost pressures and supply chain constraints, making recovery systems capable of achieving ninety-nine percent purity levels financially attractive with payback periods typically under three years. Furthermore, corporate sustainability commitments and environmental, social, and governance reporting requirements compel battery manufacturers and semiconductor fabricators to demonstrate circular solvent management practices, driving widespread adoption of closed-loop NMP recovery systems across global production facilities. From a technical perspective, modern NMP recovery and purification systems integrate multi-stage distillation columns, thin-film evaporation units, and advanced membrane filtration technologies to achieve electronic-grade solvent purity from heavily contaminated waste streams. Primary recovery stages typically employ vacuum distillation to separate bulk NMP from high-boiling-point binder residues and non-volatile particulate contaminants, achieving initial purity levels exceeding ninety-five percent. Secondary purification stages utilize wiped-film evaporators and fractional distillation columns operating under reduced pressure to remove trace moisture, residual amine byproducts, and color-forming impurities that degrade solvent performance in sensitive electrode coating applications. Advanced systems incorporate molecular sieve dehydration units and activated carbon polishing beds to achieve final water content below one hundred parts per million and color specifications meeting semiconductor-grade requirements. Membrane-based nanofiltration technologies are increasingly deployed as energy-efficient alternatives to thermal separation, particularly for dilute aqueous NMP waste streams where conventional distillation proves economically prohibitive. Real-time inline analytical monitoring using near-infrared spectroscopy and gas chromatography ensures continuous quality verification, automatically adjusting process parameters to maintain consistent output purity across variable feedstock compositions and fluctuating production volumes. Geographically, the Asia-Pacific region dominates the NMP recovery and purification market, driven by China's enormous lithium-ion battery manufacturing sector, which accounts for over seventy percent of global production capacity, alongside expanding semiconductor fabrication facilities across South Korea, Taiwan, and Japan. Europe represents a substantial secondary market, propelled by aggressive electric vehicle manufacturing expansion in Germany, Hungary, and Sweden, coupled with the European Union's stringent REACH chemical regulations mandating responsible NMP handling and disposal. North America is experiencing rapid growth as domestic battery gigafactory construction accelerates under Inflation Reduction Act incentives and supply chain onshoring initiatives. The competitive landscape features specialized chemical recovery technology providers and diversified industrial separation equipment manufacturers, including TKS Industrial, Dürr Systems, Buss-SMS-Canzler, and GEA Group. Market leaders compete through recovery efficiency rates, energy consumption optimization, system automation capabilities, and compliance with international solvent purity specifications. Strategic partnerships between recovery system vendors and battery manufacturers are increasingly common, facilitating integrated solvent management solutions embedded within new gigafactory designs. Looking forward, the NMP recovery and purification market is positioned for robust long-term expansion as electric vehicle production scales globally and environmental regulations continue tightening across all major manufacturing economies. Source - https://www.wiseguyreports.com/reports/nmp-recovery-and-purification-market

2 weeks, 6 days

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Quantum High Performance Computing: Transforming the Future of Advanced Computing

by piyushband2002＠gmail.com

Quantum High Performance Computing is emerging as a transformative technology that combines quantum computing capabilities with high-performance computing (HPC) infrastructure to solve complex computational problems. As organizations generate massive volumes of data and face increasingly demanding processing requirements, Quantum High Performance Computing offers new opportunities to accelerate scientific research, improve computational efficiency, and support advanced technological innovation. By integrating quantum processors with classical supercomputers, businesses and research institutions can explore computational challenges that are difficult to address using conventional computing systems alone. The growing demand for faster data processing, advanced simulation, and sophisticated problem-solving is driving interest in Quantum High Performance Computing across several industries. In healthcare, quantum-enhanced computing may help researchers investigate molecular interactions, support drug discovery, and improve pharmaceutical development processes. In financial services, it offers potential applications in portfolio optimization, risk modeling, and complex financial simulations. Similarly, aerospace, automotive, energy, and manufacturing companies are exploring quantum computing to improve material discovery, optimize engineering designs, and address large-scale optimization challenges. Source - https://www.marketresearchfuture.com/reports/quantum-high-performance-compu… Technological advancements are playing an important role in expanding the potential of Quantum High Performance Computing. Improvements in quantum processors, quantum algorithms, hybrid computing architectures, and cloud-based quantum platforms are helping organizations experiment with new computational approaches. Partnerships between technology providers, research laboratories, universities, and government institutions are also supporting innovation and the development of quantum computing ecosystems. Furthermore, integrating quantum systems with existing HPC infrastructure can allow researchers to combine the reliability of classical computing with specialized quantum processing capabilities.

3 weeks, 4 days

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Medical Tourism Market: Transforming Global Healthcare Access Through Cross-Border Care

by anujmrfr1＠gmail.com

The Medical Tourism Market is projected to reach USD 93.9 billion by 2030, registering a CAGR of 23.5% during the forecast period. This remarkable growth trajectory reflects the essential role of medical tourism in addressing the demand for affordable healthcare services, access to advanced treatments, and reduced wait times across the global healthcare landscape. The market is driven by cost savings compared to domestic healthcare, availability of advanced medical technologies, shorter waiting times for procedures, and increasing globalization of healthcare services. A major emerging trend is the shift toward value-based medical tourism, with patients seeking not only cost savings but also quality outcomes and comprehensive care experiences. The expansion of cosmetic surgery tourism is creating new opportunities for growth, with patients traveling abroad for procedures including facelifts, liposuction, and dental work at significantly reduced costs. Investment in international patient infrastructure is gaining traction, with hospitals and clinics establishing dedicated departments to cater to foreign patients with language support, travel assistance, and cultural sensitivity. The growing emphasis on wellness tourism is driving demand, with patients combining medical treatments with spa experiences, yoga retreats, and holistic wellness programs. Additionally, the dual focus on both developed and emerging destinations is expected to enhance the overall market landscape, with countries like Thailand, India, and Mexico competing alongside established destinations like Singapore and South Korea. Do you think medical tourism will eventually become mainstream for common procedures? The integration of digital platforms for price comparison, provider reviews, and telemedicine consultations is transforming how medical tourism services are marketed and accessed. By 2035, the medical tourism market will be more accessible, transparent, and patient-centered than ever before, reflecting evolving healthcare needs and technological innovations in the global healthcare industry. FAQs What is driving growth in the medical tourism market? Key drivers include cost savings compared to domestic healthcare with savings of 50-80% on many procedures, availability of advanced medical technologies in destination countries, shorter waiting times for procedures compared to public health systems, increasing globalization of healthcare services, and growing patient willingness to travel for quality care at affordable prices. How is cosmetic surgery tourism shaping the medical tourism market? Cosmetic surgery tourism represents a significant segment of the medical tourism market, with patients traveling abroad for procedures including facelifts, liposuction, and dental work at significantly reduced costs. This segment is driven by cost savings, privacy, and the combination of surgery with vacation experiences, contributing to the market's projected growth to USD 93.9 billion by 2030. Read more @https://www.marketresearchfuture.com/reports/medical-tourism-market-1975 #MedicalTourismMarket #FutureOutlook #CosmeticSurgery #AffordableHealthcare #GlobalHealthcare

1 month, 1 week

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Medical Tourism Market: Transforming Global Healthcare Access Through Cross-Border Care

by anujmrfr1＠gmail.com

The Medical Tourism Market is projected to reach USD 93.9 billion by 2030, registering a CAGR of 23.5% during the forecast period. This remarkable growth trajectory reflects the essential role of medical tourism in addressing the demand for affordable healthcare services, access to advanced treatments, and reduced wait times across the global healthcare landscape. The market is driven by cost savings compared to domestic healthcare, availability of advanced medical technologies, shorter waiting times for procedures, and increasing globalization of healthcare services. A major emerging trend is the shift toward value-based medical tourism, with patients seeking not only cost savings but also quality outcomes and comprehensive care experiences. The expansion of cosmetic surgery tourism is creating new opportunities for growth, with patients traveling abroad for procedures including facelifts, liposuction, and dental work at significantly reduced costs. Investment in international patient infrastructure is gaining traction, with hospitals and clinics establishing dedicated departments to cater to foreign patients with language support, travel assistance, and cultural sensitivity. The growing emphasis on wellness tourism is driving demand, with patients combining medical treatments with spa experiences, yoga retreats, and holistic wellness programs. Additionally, the dual focus on both developed and emerging destinations is expected to enhance the overall market landscape, with countries like Thailand, India, and Mexico competing alongside established destinations like Singapore and South Korea. Do you think medical tourism will eventually become mainstream for common procedures? The integration of digital platforms for price comparison, provider reviews, and telemedicine consultations is transforming how medical tourism services are marketed and accessed. By 2035, the medical tourism market will be more accessible, transparent, and patient-centered than ever before, reflecting evolving healthcare needs and technological innovations in the global healthcare industry. FAQs What is driving growth in the medical tourism market? Key drivers include cost savings compared to domestic healthcare with savings of 50-80% on many procedures, availability of advanced medical technologies in destination countries, shorter waiting times for procedures compared to public health systems, increasing globalization of healthcare services, and growing patient willingness to travel for quality care at affordable prices. How is cosmetic surgery tourism shaping the medical tourism market? Cosmetic surgery tourism represents a significant segment of the medical tourism market, with patients traveling abroad for procedures including facelifts, liposuction, and dental work at significantly reduced costs. This segment is driven by cost savings, privacy, and the combination of surgery with vacation experiences, contributing to the market's projected growth to USD 93.9 billion by 2030. Read more @https://www.marketresearchfuture.com/reports/medical-tourism-market-1975 #MedicalTourismMarket #FutureOutlook #CosmeticSurgery #AffordableHealthcare #GlobalHealthcare

1 month, 1 week

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Updated invitation: RFC8950 working group @ Every 6 weeks from 15:00 to 16:00 on Monday from Mon 16 Dec 2024 to Sun 3 May (CET) (rfc8950@lists.euro-ix.net)

by André Grüneberg

This event has been updated Changed: Time RFC8950 working group Every 6 weeks from 15:00 to 16:00 on Monday from Monday 16 Dec 2024 to Sunday 3 May Central European Time - Berlin Let's revive our regular working group meeting. Let's meet in Jitsi: https://meet.iki.fi/euro-ix-rfc8950-wg Minutes in GitHub Wiki: https://github.com/euro-ix/rfc8950-ixp/wiki I hope the invitation via via mailinglist works. In case it does not, please let me know and I shall invite you directly. Organiser André Grüneberg andre.grueneberg(a)bcix.de Guests André Grüneberg- organiser eric.nguyenduy(a)ams-ix.net mo(a)linx.net barry.odonovan(a)inex.ie daniel.wagner(a)de-cix.net aleksi.suhonen(a)trex.fi mr(a)nix.cz rfc8950(a)lists.euro-ix.net tim(a)linx.net View all guest info https://calendar.google.com/calendar/event?action=VIEW&eid=NWFvMXE2MXVpcmJ2… Reply for rfc8950(a)lists.euro-ix.net and view more details https://calendar.google.com/calendar/event?action=VIEW&eid=NWFvMXE2MXVpcmJ2… Your attendance is optional. ~~//~~ Invitation from Google Calendar: https://calendar.google.com/calendar/ You are receiving this email because you are an attendee of the event. Forwarding this invitation could allow any recipient to send a response to the organiser, be added to the guest list, invite others regardless of their own invitation status or modify your RSVP. Learn more https://support.google.com/calendar/answer/37135#forwarding

7 months, 3 weeks

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Concluding the RFC8950-IXP Working Group

by Aleksi Suhonen

Hi, In today's meeting we decided to conclude this working group. Or at least we will stop having regular meetings, as the next meeting would have clashed with Euro-IX Forum anyway. RATIONALE We've already achieved most of what we set out to achieve. The remaining things aren't showing much progress over the past year, and the number of people in each meeting hasn't been very high either, so meeting every 6 weeks doesn't feel useful. Let's have a look at our charter[1]: > Define goals and targets of the working group: > > Raise awareness for RFC8950 for interconnection > Raise awareness for interoperability issues > Make vendors aware of bugs / improvement ideas > Create recommendations for operators > Migrate IXP related work to Euro-IX route server WG [x] We have raised awareness. [x] We've been able to get vendors to fix bugs and a few vendors have even implemented stuff based on our work. [v] We now have a few IXPs that run RFC8950 capable route servers, and we have config examples for a bunch of platforms. [x] Whatever IXP work still needs to be done, can be done at the route server WG. We've already given presentations there. I also noticed that our working group isn't even listed on the Euro-IX website, so what the hell... FUTURE We'll keep this mailing list around. We'll keep the mattermost channel[2] around as well. If anything new comes up, we can use these communication channels to talk about it. If it's significant enough, we can start having meetings again as well. The Github repo[1] will stay available, and me and Andre will probably accept pull requests if anyone has something to contribute. ACTION POINTS There are still a few outstanding action points, like I will keep working on an opportunistic implementation on the TREX route servers, and Andre is working with Huawei to verify their RFC8950 peering implementation, which is due to be released in late 2027. Some of these will result in updates on the github repo. In conclusion, it was nice to work with everybody, and I'm pretty proud of what we managed to achieve, despite all the odds against us. And see you around! Kindest Regards, [1] https://github.com/euro-ix/rfc8950-ixp [2] https://mattermost.nog.fi/euro-ix-forum/channels/rfc8950-wg -- +358 44 9756548 / http://www.trex.fi/ Aleksi Suhonen / TREX Regional Exchanges Oy You say "potato", I say "closest-exit."

7 months, 3 weeks

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Meeting Notes 2026-01-12

by André Grüneberg

Dear all, These are our meeting notes from today's meeting: Chair: André Attendees: André, Axu, Tim, Maria, Marian, Carlos Recap: <https://github.com/euro-ix/rfc8950-ixp/wiki/12%E2%80%9001%E2%80%902026-Note…> - André: Presentation at 42nd Euro-IX forum about translation <https://www.euro-ix.net/smedia/filer_private/e5/95/e5958f23-b80b-4559-94bd-…> - Daniel: Presentation at 42nd Euro-IX forum about "route server next-hop translation" <https://www.euro-ix.net/smedia/filer_private/bd/c3/bdc325eb-36fe-4f01-a73a-…> - André: Submitted proposal for RS workshop for more details on translation - André: Huawei promised to send a NE8000 M8 for testing - Maria: Negotiated Capabilities information in filters *maybe* in Bird 3.3 (to avoid warnings if extended next-hop not enabled by peer) - Marian: TCP-AO currently has higher priority (not in stock Debian kernels) - RS Workshop: Tim, André, Ondrej and maybe Marian to join Action Points: <https://github.com/euro-ix/rfc8950-ixp/wiki/12%E2%80%9001%E2%80%902026-Note…> Next Meeting: <https://github.com/euro-ix/rfc8950-ixp/wiki/12%E2%80%9001%E2%80%902026-Note…> 2026-02-09 14:00 UTC / 14:00 GMT / 15:00 CET / 16:00 EET -- André Grüneberg, Managing Director andre.grueneberg(a)bcix.de +49 30 2332195 42 BCIX Management GmbH Albrechtstr. 110 12103 Berlin Germany Geschäftsführer/Managing Directors: Jens Lietzmann, André Grüneberg Handelsregister: Amtsgericht Charlottenburg, HRB 143581 B

10 months

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Updated invitation with note: RFC8950 working group @ Mon 12 Jan 2026 15:00 - 16:00 (CET) (rfc8950@lists.euro-ix.net)

by André Grüneberg

This event has been updated with a note: "Due to year end challenges. :)" Changed: Time RFC8950 working group Monday 12 Jan 2026 ⋅ 15:00 – 16:00 Central European Time - Berlin Let's revive our regular working group meeting. Let's meet in Jitsi: https://meet.iki.fi/euro-ix-rfc8950-wg Minutes in GitHub Wiki: https://github.com/euro-ix/rfc8950-ixp/wiki I hope the invitation via via mailinglist works. In case it does not, please let me know and I shall invite you directly. Organiser André Grüneberg andre.grueneberg(a)bcix.de Guests André Grüneberg- organiser eric.nguyenduy(a)ams-ix.net mo(a)linx.net barry.odonovan(a)inex.ie daniel.wagner(a)de-cix.net mr(a)nix.cz Christopher Rössler arnold.nipper(a)swissix.ch anton.rieger(a)de-cix.net aleksi.suhonen(a)trex.fi rfc8950(a)lists.euro-ix.net tim(a)linx.net View all guest info https://calendar.google.com/calendar/event?action=VIEW&eid=NWFvMXE2MXVpcmJ2… Reply for rfc8950(a)lists.euro-ix.net and view more details https://calendar.google.com/calendar/event?action=VIEW&eid=NWFvMXE2MXVpcmJ2… Your attendance is optional. ~~//~~ Invitation from Google Calendar: https://calendar.google.com/calendar/ You are receiving this email because you are an attendee of the event. Forwarding this invitation could allow any recipient to send a response to the organiser, be added to the guest list, invite others regardless of their own invitation status or modify your RSVP. Learn more https://support.google.com/calendar/answer/37135#forwarding

12 months

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Meeting notes 06‐10‐2025

by André Grüneberg

Hi all, These are the notes from today's working group meeting: Chair: André Attendees: André, Axu, Chris Recap: <https://github.com/euro-ix/rfc8950-ixp/wiki/06%E2%80%9010%E2%80%902025-Note…> - Chris: BCIX has enabled opportunistic RFC8950 on IPv6 route servers; 2 peers were sending IPv4 full table (introduce IXP Manager tag to disable IPv4 AF selectively) - André: Alice-LG 6.2.0 (Go) and lightwatcher 0.9.9 (Rust) have been released -- which properly support dual stack and RFC8950 ("single" table only) - André: EPF presentation <https://github.com/euro-ix/rfc8950-ixp/blob/main/presentations/EPF25%20RFC8…> together with Marian; some people offered help with Huawei -> no results yet - Axu: Also no results from Huawei - André: Presentation (of almost same content) at BCIX round table - Axu: Presentation at BalticNOG; was hyped by previous panel; videos not yet available - André: Draft <https://github.com/euro-ix/rfc8950-ixp/blob/main/presentations/RFC8950%20Tr…> of ideas for translation device Action Points: <https://github.com/euro-ix/rfc8950-ixp/wiki/06%E2%80%9010%E2%80%902025-Note…> - Axu: Prepare slides for VNNOG <https://vnix-nog.vn/en/conference> -- add "how to use RFC8950 in core network" - André/Chris: Create PoC for translation device Next Meeting: <https://github.com/euro-ix/rfc8950-ixp/wiki/06%E2%80%9010%E2%80%902025-Note…> 2025-11-17 14:00 UTC / 14:00 GMT / 15:00 CET / 16:00 EET -- André Grüneberg, Managing Director andre.grueneberg(a)bcix.de +49 30 2332195 42 BCIX Management GmbH Albrechtstr. 110 12103 Berlin Germany Geschäftsführer/Managing Directors: Jens Lietzmann, André Grüneberg Handelsregister: Amtsgericht Charlottenburg, HRB 143581 B

1 year, 1 month

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