"Namibia currently lacks the capacity to monitor e-waste, which makes e-waste hard to track and hampers the setting and assessment of targets that are necessary to move to a more sustainable and circular economy. In line with policy objectives, a draft national policy on management of waste electric
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al electronic equipment (WEEE) was requested to help build a framework to assess baseline data on volumes of electrical and electronic equipment put on the market and e-waste generated, including types, routes and flows. Challenges encountered in Namibia including the lack of a quantification methodology, legislative processes, and the overall e-waste management are identified and a roadmap with recommendations on how to improve e-waste data quality and availability are presented in this report." (Executive summary)
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"This is a guide for governments and other public sector organizations that procure information and communications technology (ICT) equipment, systems and services. It sets out the systems and process requirements for ICT procurement in a way that supports the transition to circular and sustainable
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system solutions. It considers the need for policy and strategy, setting the conditions for and building circular and sustainable design into procurement processes. The guide draws on consultations with governments, suppliers and experts. A validation workshop, attended by 250 participants from 82 countries was held on 14 February, 2023, also contributed to the guide’s contents and themes." (About this guide)
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"Wer KI als Lösung präsentiert, muss auch Beweise dafür liefern. Wir zeigen in der zweiten Ausgabe unseres SustAIn-Magazins, dass KI-Systeme in der Energieversorgung durchaus den Einsatz von erneuerbaren Energien verbessern können. Aber ihr Potenzial kann nur ausgeschöpft werden, wenn eine daf
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r geeignete Infrastruktur existiert. Auch ist immer wieder zu hören, dass autonom fahrende Kleinbusse gut fürs Klima sind. Meistens wird dann aber nicht erwähnt, dass für den Betrieb dieser Kleinbusse viele Ressourcen benötigt werden. KI-Hoffnungsfantasien bringen uns nicht weiter. Wir müssen uns den ganzen Lebenszyklus von KI-Systemen anschauen, wenn wir ihre Nachhaltigkeit bewerten. Wir müssen aufhören, nur nach den CO2-Emissionen zu fragen, wenn wir die Auswirkungen der Systeme auf die Umwelt untersuchen. Und wir müssen KI-Systeme genau, umfassend und unvoreingenommen analysieren, wenn wir ernsthaft versuchen wollen, KI nachhaltiger zu gestalten." (Editorial)
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"The amount of Electrical and Electronic Equipment (EEE) Placed on Market (POM) in the Western Balkans region increased from 0.16 Mt (9 kg/inhabitant) in 2010 to 0.21 Mt (13 kg/inhabitant) in 2021. Likewise, the regional e-waste generated nearly doubled from 0.09 Mt (5.3 kg/inhabitant) in 2010 to 0.
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15 Mt (9.0 kg/inhabitant) in 2021. Large Equipment (Category IVa(1)) and Small Equipment (Category V) are the largest categories of both EEE POM and e-waste generated, at 65% (Category IVa 40%, Category V 25%) and 59% (Category IVa 29%, Category V 30%), respectively. The e-waste generation growth rates in all countries of the region are generally positive, with the exception of Lamps, Small IT, and Screens and Monitors. The Western Balkan countries collected and managed 38.4 kt (2.4 kg/inhabitant) of e-waste in an environmentally sound manner in 2021, which yields a total collection rate of 27%. Environmentally sound e-waste management may be defined as taking all possible steps to ensure that end-of-life products and waste are managed in a manner that will protect human health and the environment, and it involves the separate collection, dismantling, and pollution of hazardous substances and recycling of valuable materials, while other waste-related activities include waste dumping, waste-picking, disposal, etc. and may include the informal sector(2,3). All Western Balkan countries have specific legislation on this currently in force, supporting the environmentally sound management of e-waste. In practice, the environmental sound management of e-waste in the Western Balkans occurs mainly in Serbia, North Macedonia, and Bosnia and Herzegovina." (Executive summary, pages 14-15)
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"KI verschlingt viele Ressourcen und hat oft negative Folgen für unsere Gesellschaft und unsere Umwelt. Um KI nachhaltig und sinnvoll einzusetzen, sind wir alle gefragt: Wir sollten gemeinsam entscheiden, wozu wir KI brauchen – und wozu nicht. Ob in Zukunft KI-Systeme entwickelt werden, die uns a
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llen dienen, hängt auch von den richtigen politischen Rahmenbedingungen ab. Erste europaweit geltende Verpflichtungen, KI-Produkte nachhaltiger zu gestalten, könnten bald mit der KI-Verordnung der Europäischen Union eingeführt werden. Allerdings scheinen die nationalen Regierungen wenig Interesse daran zu haben, in der Verordnung zu verankern, dass Umweltauswirkungen von KI-Technologien gemessen werden müssen. Sie handeln damit fahrlässig und werden ihrer politischen Verantwortung nicht gerecht. Wir werden erst wissen, wie umweltschädlich diese Technologien sind, wenn umfassende Messwerte dazu vorhanden sind. Das Problem verschwindet nicht einfach, wenn wir es ignorieren. Mit aussagekräftigen Daten würden wir das Problem besser verstehen und mehr Druck auf die politischen Entscheidungsträger*innen ausüben können. Aus diesem Grund brauchen wir mehr davon. Wir sollten also einfach mit dem Messen anfangen. Dieses Magazin lädt dazu ein, mehr über konkrete Möglichkeiten nachzudenken, wie die Entwicklung und der Einsatz von KI-Technologien besser reguliert werden könnten: über mehr Transparenz bei ihrem Energie- und Wasserverbrauch, über Verbote schädlicher Anwendungen oder über stärkere Anreize, sie effizienter zu machen." (Editorial, Seite 3)
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"Wie nutzen Individuen, Nichtregierungsorganisationen und Unternehmen digitale Medien, um zu einer nachhaltigen Gesellschaft beizutragen? Die Autorin rekonstruiert in dieser Open-Access-Publikation die sozial-ökologischen Folgen aktueller Digitalisierungsprozesse und zeigt anhand dreier Fallstudien
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, wie verschiedene Akteur*innen Digitalisierung nachhaltiger gestalten (wollen): Neben dem Reparieren von Medientechnologien in Repair Cafés wurde die Produktion und Aneignung fairer Medientechnologien am Beispiel des Fairphones untersucht sowie Onlineplattformen, die für nachhaltigen Konsum werben, am Beispiel von utopia.de. Sind dies Beispiele für Medienpraktiken, die das Ziel der Nachhaltigkeit verfolgen, so werden in der vergleichenden Analyse auch Grenzen und Ambivalenzen dieses Handelns offenbar." (Verlagsbeschreibung)
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"Eine Zahl taucht immer wieder in der Diskussion zur Nachhaltigkeit von KI auf: Die Emissionen, die in der Forschungs- und Entwicklungsphase großer Sprachmodelle anfallen, entsprechen den Emissionen von fünf Autos während ihrer gesamten Laufzeit. Diese Zahl stammt aus einer wegweisenden Analyse v
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on Emma Strubell, Ananya Ganesh und Andrew McCallum. Wenig hilfreich sind jedoch die vielen ungenauen oder falschen Aussagen, die sich seitdem auf diese Berechnung beziehen – oft mit zweifelhaften Aussagen über die CO2-Kosten von KI-Systemen. Die Diskussion über die Nachhaltigkeit von KI verdient mehr Genauigkeit, mehr Differenziertheit, mehr Analyse und mehr Fakten. KI hat ökologische, soziale und wirtschaftliche Kosten zur Folge. Wissenschaft, Industrie, Zivilgesellschaft und Politik müssen dringend auf der Grundlage von Fakten über diese Kosten sprechen und handeln. Mit dem ersten SustAIn-Magazin wollen wir unseren Beitrag zu solch einem Austausch leisten. Das Magazin ist das Ergebnis des Forschungsprojekts SustAIn, in dem wir einen Rahmen zur Bewertung der Nachhaltigkeit von KI-Systemen entwickelt haben. Hier stellen wir Ihnen vor, wie eine nachhaltigere KI in der Praxis bereits umgesetzt wird. Wir brauchen Good-PracticeBeispiele, methodische Innovationen und differenzierte Perspektiven darauf, wo Forschung und politisches Handeln notwendig sind, um nachhaltigere KI zu fördern." (Seite 3)
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"Artificial intelligence (AI) is presented as a solution to the greatest challenges of our time, from global pandemics and chronic diseases to cybersecurity threats and the climate crisis. But AI also contributes to the climate crisis by running on technology that depletes scarce resources and by re
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lying on data centres that demand excessive energy use.Is AI Good for the Planet? brings the climate crisis to the centre of debates around AI, exposing its environmental costs and forcing us to reconsider our understanding of the technology. It reveals why we should no longer ignore the environmental problems generated by AI. Embracing a green agenda for AI that puts the climate crisis at centre stage is our urgent priority." (Publisher description)
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"Wie gezeigt wurde, fällt, über den gesamten Produktzyklus hinweg betrachtet, die Herstellung der digitalen Endgeräte, bzgl. der Menge verursachter Treibhausgasemissionen, besonders schwer ins Gewicht. Für Nutzer*innen liegt somit der größte Hebel für eine Reduzierung der Emissionen im Kauf v
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on passgenauen Geräten bei verantwortungsvollen Anbietern und einer möglichst langen Nutzungsdauer. Doch auch während der Nutzung existieren zahlreiche und einfach anzuwendende Optionen für einen klimafreundlicheren Gebrauch – beginnend bei der Wahl des Stromanbieters, über die Anpassung allgemeiner Nutzungseinstellungen bis hin zu einer Reduzierung der versendeten und empfangenen Datenmenge, der Beseitigung bzw. Reduzierung von überflüssigem Datenmüll und dem vollständigen Ausschalten der Geräte. Auch wenn die Entsorgung von Endgeräten aus Klimagesichtspunkten nicht allzu stark ins Gewicht fällt, ist sie, aufgrund der vom Elektroschrott ausgehenden zahlreichen weiteren Umweltrisiken, dennoch von größter Relevanz und sollte ebenso umsichtig erfolgen." (Schlussbetrachtung, Seite 29)
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"The key statistical findings for the region are that electrical and electronic equipment (EEE) placed on the market (POM) increased by 30 per cent from 3.2 megatons (Mt), or 8.8 kilograms per inhabitant (kg/inh), in 2010 to 4.1 Mt (or 9.5 kg/inh) in 2019. The Arab States mostly import, rather than
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manufacture, EEE; the domestic generation of EEE is therefore very limited, and they rely on imports of EEE POM. Over the same period of time, e waste generation in the region increased by 61 per cent from 1.8 Mt (4.9 kg/inh) in 2010 to 2.8 Mt (6.6 kg/inh) in 2019. The largest e-waste generator is Saudi Arabia, with 595 kilotons (kt) (or 13.2 kg/inh) of e-waste, while the lowest is Comoros (0.6 kt, or 0.7 kg/inh), which reflects the vast diversity of the region. The e-waste generated encompasses a variety of products, with small equipment (category 5 in EU Directive 2012/19/EU, on waste electrical and electronic equipment, also known as the WEEE Directive), temperature exchange equipment (category 1) and large equipment (category 4) comprising the highest share of e-waste generated, for a total of 76 per cent. The annual growth rate is positive for all categories of e-waste, with the exception of screens and monitors (category 2), which shows negative growth rates. Nevertheless, a declining trend has been observed, meaning that the pace of growth has slowed over time for most products. From the information gathered, the Arab States appear to have collected and managed a total of 2.2 kt (0.01 kg/inh) of e-waste in 2019, which equates to a collection rate of 0.1 per cent, compared to e-waste generated. However, it is worth highlighting that data on e-waste collection and on environmentally sound management (ESM) was available for only four Arab States. E-waste collection for ESM takes place in Jordan, the State of Palestine(1), Qatar and the United Arab Emirates. Jordan has the highest e-waste collection rate of 2.6 per cent (equivalent to 0.1 kg/inh), followed by Qatar (0.5 per cent, or 0.07 kg/inh). Egypt has seven licensed treatment facilities for e-waste, but it was unable to provide official data on the amount of e-waste collected and managed." (Executive summary, pages 11-12)
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"This report analyses how governments are building climate and carbon factors into their broadband policies, looks at the consequences of inaction, and suggests policy recommendations towards a greener internet. We compiled publicly available documents for the national broadband plans from the 100 l
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ow- and middle-income countries where A4AI has measured internet affordability for the past three years. From these countries, we conducted a keyword search for their mentions of the environment, climate, energy, electricity, and sustainability. From these results, we contextually analysed each mention and compared keyword mentions and density across plans and conducted additional textual analysis. We found that environmental themes are infrequently mentioned and exist mostly within the margins of broadband policy, if at all. An environmental keyword appeared once every 6-7 pages, on average. Genuine targets and policy reforms were even less frequent. These issues are described as limiting factors (reasons why social and economic situations are not better today) or as future possibilities (positive assumptions about what could happen from greater internet access and ICT use). Frequently, these same words - the regulatory environment, sustainable business models, and the investment climates - were used beyond their original meaning to frame policy debates around systems thinking, and did not relate to climate factors at all. Energy was one of the most common environmental themes across national broadband plans. The countries that had most environmental references in their policies, such as Nepal and Peru, tied their ambitions for greater access to the internet with greater access to electricity. This matches with countries' development paths where internet access and electrification are concurrent efforts." (Executive summary, page 3)
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"This paper has shown the diverse application of digital technologies across the electronics value chain, from raw material production and EEE manufacturing to post-consumer e-waste collection, logistics and recycling. Around the world, there is growing interest in digital technologies - particularl
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y AI, robotics, cloud computing, the IoT and blockchain - as tools to strengthen and support a circular electronics value chain from operational and logistical tasks to communication. Digital solutions were found in all stages of the EEE value chain, with some in widespread use. However, globally, technologies are being applied at various scales and in a heterogenous nature. Digital solutions were also found to be largely aimed at the optimization of existing business processes for improved efficiency.
Digital solutions were found to address the challenges observed in the electronics value chain. They bridge the information gap between stakeholders by building connectivity and communication channels, as well as between devices, facilitating vital information exchange, including tracking, and monitoring of materials and e-waste flows. Digital technologies such as collection applications and online marketplaces provide consumers with the convenience and incentives to turn in their e-waste. Given the logistical requirements of the value chain and the large amount of EEE and e-waste in circulation, digitalisation leverages data analysis to maximize resources, and optimize processes by increasing efficiency and reducing costs. With the emergence of highly automated or autonomous systems, digital technologies can contribute to the improvement of worker health and safety through improved handling of hazardous materials, as well as increase the efficiency and speed of sorting large quantities of EEE and e-waste, increasing the purity of the waste stream and the amount recycled. As functionality and sophistication of digital technologies increase, solutions are more likely to be employed to access data in real time, design new products and services, and with it, transform business models towards circularity.
With the extent of digitalisation varying considerably between and within countries, as well as between private and public entities, it should be noted that digital solutions require resources and an enabling ecosystem to be effectively rolled out across the electronics value chain. Elements such as equal access to digital infrastructure and digital skills, financial viability of the digital applications, the opportunity for public-private partnerships, as well as data security and privacy provisions are important factors in the effectiveness of digital solutions. Furthermore, countries with fledgling e-waste management systems and linear electronics value chains, particularly in LMICs, need to prioritize strengthening linkages between stakeholders and creating robust and circular electronics value chains as a first step. This paper has shown that the electronics value chain and the necessary shift towards a circular economy, can benefit from and be enabled by the use of digital solutions, especially for waste prevention, more transparent producer responsibility and supporting consumer participation. In assessing the potential of digital solutions to strengthen and support the transition towards a circular electronics value chain, it is important to note that such an evolution needs to be complemented with continuing research and efforts to understand its impact on the electronics value chain and its stakeholders, considering the most vulnerable such as those working in the informal sector. Digitalisation comes with numerous benefits, but an unregulated space can alienate some of those involved and potentially underscore inequalities, infringe on privacy and even create more e-waste. Attention should also be paid to the environmental impact of digital technology solutions, from the resources needed for device production, energy consumption during use, and e-waste generation from the solutions themselves. It is important that stakeholders adopting digital solutions consider that they are designed for longevity, taking into consideration the need of future software upgrades, and designed for efficient repair, reuse or refurbishment." (Conclusion)
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"Higher levels of disposable incomes, growing urbanization and mobility, and further industrialization in some parts of the world are leading to growing amounts of EEE. On average, the total weight (excluding photovoltaic panels) of global EEE consumption increases annually by 2.5 million metric ton
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s (Mt). After its use, EEE is disposed of, generating a waste stream that contains hazardous and valuable materials. This waste stream is referred to as e-waste, or Waste Electrical and Electronic Equipment (WEEE), a term used mainly in Europe. This monitor provides the most comprehensive update of global e-waste statistics. In 2019, the world generated a striking 53.6 Mt of e-waste, an average of 7.3 kg per capita. The global generation of e-waste grew by 9.2 Mt since 2014 and is projected to grow to 74.7 Mt by 2030 – almost doubling in only 16 years.
The growing amount of e-waste is mainly fueled by higher consumption rates of EEE, short life cycles, and few repair options. Asia generated the highest quantity of e-waste in 2019 at 24.9 Mt, followed by the Americas (13.1 Mt) and Europe (12 Mt), while Africa and Oceania generated 2.9 Mt and 0.7 Mt, respectively. Europe ranked first worldwide in terms of e-waste generation per capita, with 16.2 kg per capita. Oceania was second (16.1 kg per capita), followed by the Americas (13.3 kg per capita), while Asia and Africa generated just 5.6 and 2.5 kg per capita, respectively. In 2019, the formal documented collection and recycling was 9.3 Mt, thus 17.4% compared to e-waste generated. It grew with 1.8 Mt since 2014, an annual growth of almost 0.4 Mt. However, the total e-waste generation increased by 9.2 Mt, with an annual growth of almost 2 Mt. Thus the recycling activities are not keeping pace with the global growth of e-waste. The statistics show that in 2019, the continent with the highest collection and recycling rate was Europe with 42.5%, Asia ranked second at 11.7%, the Americas and Oceania were similar at 9.4% and 8.8%, respectively, and Africa had the lowest rate at 0.9%. The fate of 82.6% (44.3 Mt) of e-waste generated in 2019 is uncertain, and its whereabouts and the environmental impact varies across the different regions." (Executive summary, pages 13-14)
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"Contrary to widespread claims, consumer electronics and other digital technologies are made in ways that cause some of the worst environmental disasters of our time - conflict-minerals extraction, fatal and life-threatening occupational hazards, toxic pollution of ecosystems, rising energy consumpt
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ion linked to increased carbon emissions, and e-waste. Nonetheless, a greener future is possible, in which technology meets its emancipatory and progressive potential." (Publisher description)
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"The world is facing an unprecedented climate and environmental emergency. Scientists have identified human activity as primarily responsible for the climate crisis, which together with rampant environmental pollution, and the unbridled activities of the extractive and agricultural industries, pose
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a direct threat to the sustainability of life on this planet. This edition of Global Information Society Watch (GISWatch) seeks to understand the constructive role that technology can play in confronting the crises. It disrupts the normative understanding of technology being an easy panacea to the planet’s environmental challenges and suggests that a nuanced and contextual use of technology is necessary for real sustainability to be achieved. A series of thematic reports frame different aspects of the relationship between digital technology and environmental sustainability from a human rights and social justice perspective, while 46 country and regional reports explore the diverse frontiers where technology meets the needs of both the environment and communities and where technology itself becomes a challenge to a sustainable future." (Back cover)
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