INFERNUM1488

Когда кто-то ворует страну, а потом её уголь, это не просто схема — это семейный бизнес. Александр Янукович, сын бывшего "легитимного" президента, вывез полмиллиона тонн угля из оккупированных территорий Украины в Россию. Конечно, ради "спасения экономики".

Пока Россия говорит о "поддержке" новых регионов, их ресурсы успешно пылесосят в карманы бывших диктаторов и их отпрысков. Уголь — на экспорт, деньги — в офшоры, совесть — давно потеряна.

Интересно, а жители "новых территорий" в курсе, что их недра теперь — личный банкомат Януковичей? Или им, как всегда, предлагают только "идеологию" и пустые обещания?

Вечная российская сказка о том, как "наших" спасают, превращается в очередную реальность, где спасают только чужие миллиарды.

ТЕРРОРИСТИЧЕСКИЙ РЕЖИМ КРЕМЛЯ БУДЕТ УНИЧТОЖЕН!

НЕТ ВОЙНЕ! ПУТИН - ХУЙЛО!

*** представленном тексте утверждается, что Александр Янукович, сын бывшего президента Украины Виктора Януковича, якобы вывез полмиллиона тонн угля с оккупированных территорий Украины в Россию, извлекая из этого личную выгоду.*** Фактчекинг:

1. Участие Александра Януковича:
   • а данный момент нет достоверных открытых источников, подтверждающих непосредственное участие Александра Януковича в вывозе угля с оккупированных территорий Украины в Россию.
2. Контроль экспорта угля:
   • огласно расследованию Liga.net, более 70% угля, нелегально вывозимого из оккупированных районов Донбасса в Россию, экспортируется двумя компаниями, связанными с братьями Александром и Сергеем Мельничуками.лександр Мельничук занимает должность "заместителя министра энергетики" в самопровозглашенной ЛНР, а его брат Сергей легально торгует углем на подконтрольной Украине территории.citeturn0search2 Вывод: настоящее время нет подтвержденных данных о причастности Александра Януковича к вывозу угля с оккупированных территорий Украины.сновной контроль над экспортом угля, по имеющейся информации, осуществляют братья Мельничуки.

настоящее время нет открытых источников, подтверждающих прямые связи братьев Александра и Сергея Мельничуков с семьей Януковича или с российскими структурами власти, такими как Кремль, ФСБ, олигархи или организованные преступные группировки.оступная информация указывает на их деятельность в сфере экспорта угля из оккупированных территорий Украины в Россию, однако конкретных данных о их связях с вышеупомянутыми акторами не обнаружено.

Special Report for DonOperInfo

https://gogl.to/3Lmf

Event Context

On January 21, 2025, Ledger co-founder David Balland and his wife became victims of an organized criminal attack in France. The kidnappers demanded a ransom of 10 million euros in cryptocurrency. To increase pressure, they cut off Balland's finger and sent the video to his colleague, Éric Larchevêque. Part of the ransom was paid, but thanks to the prompt actions of the French intelligence services, the couple was released and 10 suspects were arrested. Most of the transferred funds were tracked and frozen.
Source: Coindesk

OSINT Analysis

1. Geolocation and Travel Routes

   • According to open sources, Balland's house is located in the Cher department, France.
   • Possible points for tracking criminals: surveillance cameras, bank transactions, blockchain transaction analysis.

2. Digital Traces of Criminals

   • The kidnappers demanded a ransom in cryptocurrency. The use of blockchain analysis enabled authorities to track fund movements.
   • Some addresses have already been identified by law enforcement agencies and are linked to shadow markets.
   • Transaction analysis indicates potential attempts to cash out through P2P exchanges.

3. Cyber Threats and Attack Protection

   • Physical attacks on crypto asset owners are increasing, necessitating a review of security measures.
   • The anonymity of digital assets serves as both an advantage and a vulnerability.
   • Enhancing security against surveillance (movement monitoring, digital fingerprints, personal data protection) can mitigate the risks of such attacks.

Conclusions and Recommendations

• Decentralized Crypto Asset Storage: Avoid keeping large amounts on a single device.
• Physical Security: Strengthen measures to protect crypto asset owners, including monitoring systems and emergency protocols.
• Blockchain Analytics: Improve fund-tracking mechanisms and collaborate with analytics platforms to identify criminal networks.
• Information Security: Minimize the digital footprint of significant crypto asset owners.

Conclusion

This incident highlights the rising criminal interest in cryptocurrency owners and the need to enhance both digital and physical security measures. OSINT analysis plays a critical role in identifying vulnerabilities and mitigation strategies.

Hashtags:
#Ledger #Crypto #CyberSecurity #Blockchain #OSINT #CrimeAnalysis #Fediverse #Privacy

https://vas3k.blog/blog/end_to_end_encryption/

Аннотация:
Статья «End-to-end шифрование — Как мы перестали доверять облакам и научились шифровать» от Вастрика раскрывает принципы сквозного шифрования (E2EE), его важность для приватности данных и угрозы, с которыми сталкиваются пользователи централизованных облачных сервисов. Автор объясняет, почему традиционные способы хранения и передачи информации ненадёжны, как работает асимметричное шифрование, и почему только E2EE позволяет пользователям контролировать свои данные.

В статье рассматриваются популярные сервисы и технологии, которые используют или обещают использовать E2EE, а также практические рекомендации по защите личной информации. Особое внимание уделяется мифам о безопасности облачных хранилищ и тому, как крупные корпорации управляют пользовательскими данными.

📌 Ключевые темы:

• Как работает E2EE и в чём его отличие от других типов шифрования.
• Почему централизованные облачные сервисы небезопасны.
• Какие мессенджеры и хранилища действительно защищают переписку.
• Какие инструменты можно использовать для надёжного шифрования.

Статья полезна для всех, кто хочет разобраться в вопросах цифровой безопасности, защиты данных и приватности в интернете.

Основной момент — использование партнёрских программ Telegram для поиска уязвимостей, создание стартапа и эксперименты с криптовалютой TON. Далее поднимаются вопросы о манипуляциях с ликвидностью в криптопроектах, таких как MAJOR, а также о системе "памп и дамп". В видео также обсуждаются массовые разблокировки TON до 2026 года и их влияние на рынок.

Таймкоды дают четкое представление о развитии событий:

1. 00:00 - Вступление и Новогоднее приветствие.
2. 01:50 - История возникновения криптоэксперимента.
3. 02:54 - Эксперимент с короткими позициями по TON.
4. 04:30 - Как был найден абуз в Telegram.
5. 09:50 - Идея и реализация "Бич-стартапа".
6. 12:08 - Создание токена $GOVNO.
7. 17:00 - Манипуляции с ликвидностью в проекте MAJOR и другие разоблачения.
8. 19:43 - Влияние синтетических токенов и проблемы с ценой TON.
9. 33:23 - Итоги "Бич-стартапа" и текущий баланс в $33 млн.

Видео в целом служит предупреждением о нестабильности криптовалютного рынка и рисках участия в подобных проектах.

Purpose of the experiment Determine the impact of increased computing power, specifically 1 TB of RAM and multi-processor servers with Xeon Platinum and GRAID, on the cost of processing transactions on the Monero network.

Description of the environment Test platform

Reference virtual server: VMWare ESXi 8.x with provision of 1 TB RAM, 64 vCPU and 10 TB NVMe storage. Physical server: Processors: 4× Intel Xeon Platinum 8490H (total 224 cores, 448 threads). RAM: 2 TB DDR5 ECC. Storage: 12× NVMe PCIe Gen 5 SSD (using GRAID SupremeRAID SR-1000). Interfaces: 2× CXL 2.0 and 4× PCIe 5.0 x16. Software

Operating system: Ubuntu Server 22.04 LTS (optimized for high load). Monero node: Latest version of Monero CLI, configuration for Testnet. Additional components: Monitoring tools (Prometheus, Grafana).

Experimental methodology Preparation stages

Deploy virtual and physical infrastructure. Configure Monero CLI to run in Full Node mode on a test network. Activate RandomX to perform calculations. Test scenarios

Basic performance: Measuring block processing and transaction confirmation times under standard load (~100 transactions per second). Peak load: Simulating high activity (~10,000 transactions per second). Comparative measurements: Conducting identical tests on virtual and physical infrastructure. Measured parameters

Average transaction confirmation time. Loading of CPU, RAM and disk subsystem. Energy consumption. The cost of processing one transaction (based on the cost of electricity and resources).

Expected results Physical server:

Accelerate transaction confirmation due to increased throughput and parallel processing. Lower transaction cost due to efficient use of RandomX resources and disk operations. Virtual server:

Ease of scaling due to virtualization. Possible increased latency due to virtual environment overhead.

Conclusions and practical application Determine which architectural solutions provide the most effective price/performance ratio. Recommendations for setting up Monero nodes for professional operators. Assessing the potential for reducing the cost of Monero transactions through high-performance server configurations. Experiment period 4–6 weeks including all stages of setup and testing. Consider the project

1. Cost of hardware and virtual environment Designation Quantity Unit Price (USD) Total Cost (USD) Physical server:

Intel Xeon Platinum 8490H 4 pcs. 13,000 52,000 RAM modules DDR5 ECC 512 GB 4 pcs. 3,500 14,000 NVMe SSD PCIe Gen 5, 4TB 12 pcs. 1,200 14,400 GRAID SupremeRAID SR-1000 controller 1 piece 5,000 5,000 Motherboard supporting CXL 1 piece 2,000 2,000 Cooling and power systems 1 set 8,000 8,000 Server Corps 1 piece 2,500 2,500 Total (physical server):

97,900 Virtual environment:

License VMWare ESXi 8.x 1 4,000 4,000 Server rental with 1 TB RAM (3 months) 1 5,000/month 15,000 Total (virtual environment):

19,000

2. Software Designation Price (USD) Notes Ubuntu Server 22.04 LTS 0 For free Monero CLI 0 For free Monitoring (Prometheus, Grafana) 0 For free Data Analysis Tools 1,000 If necessary Total: 1,000

3. Infrastructure and energy costs Designation Quantity Unit Price (USD) Total Cost (USD) Physical server energy consumption (3 months) ~4 kW 0.12/kW·h ~4,320 Data center rental (3 months) 1 1,500/month 4,500 Total:

8,820

4. Personnel costs Designation Number of hours Rate (USD/hour) Total Cost (USD) Setting up a physical server 40 50 2,000 Setting up a virtual server 20 50 1,000 Data monitoring and analysis (3 months) 120 50 6,000 Total:

9,000

General estimate of the project: 135,720 USD

Deployment time Equipment preparation:

Hardware purchase: 2–3 weeks. Assembly and testing of a physical server: 1 week. Environment setup:

Virtual server (VMWare): 2–3 days. Setting up a physical server: 3–5 days. Testing and optimization:

Setting up Monero CLI: 2 days. Performance monitoring: 1 week. Conducting the experiment:

Main testing phase: 4 weeks. Analysis of results and documentation: 1 week.

Total time to complete the project: 8–10 weeks. Planned expected effect The experiment aims to optimize Monero's transaction processing process and explore potential opportunities to reduce costs and improve efficiency. Expected effects:

1. Reduced transaction processing costs Hypothesis testing: High-performance hardware such as multiprocessor servers with Xeon Platinum and GRAID can significantly reduce transaction verification latency and reduce power consumption per operation. Expected result: Reducing energy costs and computational load by up to 20–30% per transaction.

2. Increase Monero Network Bandwidth Scalability check: Peak load performance testing. Expected result: Increase the number of concurrently processed transactions on a node by up to 2-3 times compared to current standards.

3. Increasing network stability Optimization of node operation: The use of high-performance servers allows blocks to be processed faster, which improves the synchronization of nodes and reduces the likelihood of temporary network interruptions. Expected result: Network resistance to overloads and attacks.

4. Economic efficiency of infrastructure Target Audience: Monero miners, node operators and developers. Expected result: Demonstrating that a single powerful node can replace multiple traditional servers, reducing overall infrastructure costs.

5. Creating a basis for further research Data Analysis: The results obtained will become the basis for: Improvements to transaction processing algorithms. Development of optimal architectures for private and public Monero nodes. Long term effect: Promoting innovation in the Monero ecosystem.

Indirect results Increasing trust in Monero: Improved performance and affordability will attract new users. Attracting investments: The results of the experiment may be of interest to investors in the field of cryptocurrency infrastructure. Community stimulation: The research could be a catalyst for new projects aimed at developing the ecosystem.

The experiment is expected to create significant value for the entire Monero network and will be an important step in its technological and economic evolution. Bibliography Nakamoto, S. (2008).Bitcoin: A Peer-to-Peer Electronic Cash System. Monero Research Lab. (2023). Optimizing RandomX for High-Performance Systems. VMware Documentation. (2024). Best Practices for High-Performance Virtualization. Intel Corporation. (2023). Xeon Platinum Processors: Performance for the Data Center. GRADE Technology. (2024). Next-Generation Storage Acceleration for High-Performance Servers. Van Saberhagen, N. (2013). CryptoNote: Anonymous Crypto-Currencies. Parker, D. (2023). In-Memory Computing for Blockchain Nodes.

Recommended Videos "What is Monero? The King of Privacy Coins" – A concise explanation of Monero's privacy features. "High-Performance Computing in Blockchain" – Overview of HPC systems used in cryptocurrency networks. "Optimizing Blockchain Nodes with Advanced Hardware" – Technical insights on leveraging high-performance servers. "In-Memory Blockchain: The Future of Fast Transactions" – Discussion of emerging trends in blockchain technology. "VMware for Cryptocurrency Applications" – How virtualization platforms are used in blockchain infrastructures.

Hashtag #Monero #BlockchainTechnology #HighPerformanceComputing #CryptoPrivacy #XeonPlatinum #VMware #GRAID #RandomX #CryptoOptimization #InMemoryComputing #CryptocurrencyInfrastructure #MoneroNodes #DataCenterTech #Decentralization #FutureOfBlockchain Draft project: https://bit.ly/3WvjP5m

Also: GRAID Technology Market: Where is the Company Leading? - Lemmy Today https://lemmy.today/post/22138320

https://matrix.to/#%2F%21HdSCQbJtfHHCalgemp%3Amatrix.org%2F%24crd0ixPWPv7ColcqSAJJ-6NIHJPVytWApPIaMoCvUtQ%3Fvia=matrix.org&via=matrix.kyiv.dcomm.net.ua

В последние годы объёмы оперативной памяти серверов растут с экспоненциальной скоростью, что открывает новые возможности для проектировщиков высокопроизводительных систем. Серверы, оснащённые 1 ТБ оперативной памяти и более, позволяют решать задачи, которые ранее были недостижимы из-за ограничений традиционных систем. В этой статье мы разберём, как использование таких конфигураций влияет на ключевые аспекты проектирования серверов, а также какие выгоды это приносит разработчикам и пользователям.

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1. Почему 1 ТБ оперативной памяти?

Современные серверные конфигурации часто работают с огромными объёмами данных, будь то Big Data, аналитика, машинное обучение или обработка мультимедиа. Однако традиционные объёмы оперативной памяти (64–128 ГБ) становятся узким местом, особенно в задачах, требующих высокой скорости доступа к данным.

Преимущества больших объёмов памяти:

• Ускорение обработки за счёт размещения данных целиком в оперативной памяти (In-Memory Computing).
• Снижение нагрузки на дисковую подсистему.
• Увеличение производительности параллельных вычислений.

Серверы с 1 ТБ RAM становятся стандартом в высоконагруженных системах, и понимание их возможностей важно для проектировщиков.

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2. Области применения

Big Data и аналитика

Обработка больших данных требует значительных объёмов оперативной памяти для кэширования и выполнения операций над данными. Размещение всего набора данных в оперативной памяти снижает задержки ввода-вывода и увеличивает скорость аналитических запросов.

• Пример: Системы реального времени для анализа логов или потоковых данных (например, Apache Spark).
• Эффект: В 5–10 раз быстрее традиционных решений с использованием SSD.

Машинное обучение

При обучении моделей ИИ (особенно глубоких нейронных сетей) высокоскоростной доступ к данным является критически важным. Большие объёмы RAM позволяют:

• Ускорить загрузку датасетов.

• Хранить промежуточные результаты вычислений.

• Пример: Обучение больших языковых моделей (GPT, BERT).

• Эффект: Прирост производительности до 300% при сокращении времени на ввод-вывод.

Блокчейн и криптовалюты

Алгоритмы, такие как RandomX (используемый Monero), активно используют память для выполнения вычислений. Серверы с 1 ТБ RAM позволяют:

• Сократить время синхронизации узлов.

• Ускорить обработку транзакций.

• Пример: Узлы для блокчейнов с повышенной приватностью (Monero, Zcash).

Мультимедиа и рендеринг

Работа с видео в 4K/8K или сложными 3D-моделями требует огромных объёмов памяти для хранения текстур и геометрии.

• Пример: Рендеринг фильмов или визуальных эффектов.
• Эффект: Прирост скорости обработки сложных проектов до 2–5 раз.

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3. Что учитывать при проектировании серверов с 1 ТБ RAM

1. Энергоэффективность

Оперативная память большого объёма потребляет больше энергии. Необходимо:

• Использовать энергоэффективные модули памяти (например, LPDDR5X).
• Оптимизировать системы охлаждения.

2. Масштабируемость

Большие объёмы памяти требуют продуманной архитектуры для масштабирования:

• Использование многоядерных процессоров (2–4 и более Xeon).
• Поддержка высокоскоростных интерфейсов (CXL, PCIe 5.0).

3. Надёжность

Для критически важных систем необходимо учитывать:

• Использование ECC-памяти для предотвращения ошибок.
• Резервирование ресурсов.

4. Совместимость с задачами

Проектировщики должны учитывать специфические требования задач:

• Для Big Data — высокая пропускная способность.
• Для блокчейнов — низкая задержка и быстрая обработка.
• Для машинного обучения — сбалансированная архитектура CPU+GPU.

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4. Будущее и перспективы

С увеличением объёмов памяти появляются новые возможности:

• In-Memory Blockchain: полный блокчейн в оперативной памяти для максимальной скорости работы узлов.
• Новые алгоритмы машинного обучения, использующие память как основное хранилище для обработки данных.
• Мультимедийные приложения с поддержкой рендеринга в реальном времени.

С развитием технологий, таких как DDR6, HBM3/4 и CXL, пределы производительности будут смещаться, и системы с 1 ТБ RAM станут неотъемлемой частью будущего ИТ.

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Заключение

Использование серверов с 1 ТБ оперативной памяти открывает новые горизонты для высокопроизводительных систем. Эти технологии позволяют проектировщикам переосмыслить подходы к обработке данных, масштабируемости и надёжности. Однако, чтобы получить максимальную отдачу от таких конфигураций, важно учитывать энергоэффективность, совместимость и специфику задач.

Будущее за высокопроизводительными серверами, и те, кто освоит эти технологии раньше, получат значительное преимущество.

https://matrix.to/#%2F%21HdSCQbJtfHHCalgemp%3Amatrix.org%2F%24O9YNnF6EJiUTvLEcax2wRbCiFBu9zvfcEy2qNy7f9mI%3Fvia=matrix.org&via=matrix.kyiv.dcomm.net.ua

Библиография

1. Stonebraker, M., & Weisberg, A. (2013). The rise of "In-Memory" database systems. Communications of the ACM, 56(6), 36-44.
2. Patidar, H., & Jain, S. (2019). Applications of high-memory computing in blockchain. Journal of Blockchain Research, 4(3), 78-85.
3. NVIDIA Corporation (2023). Accelerating AI and ML with high-memory architectures. Retrieved from NVIDIA website: www.nvidia.com
4. Intel Corporation (2023). Scaling server architectures with DDR5 and PCIe 5.0. Retrieved from Intel website: www.intel.com
5. Rabl, T., et al. (2021). In-memory processing for big data: Current trends and future directions. Data Science Journal, 20(1), 1-10.

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Хэштеги

#ИТ #Серверы #1ТБRAM #ВысокопроизводительныеСистемы #BigData #МашинноеОбучение #Blockchain #InMemoryComputing #ТехнологииБудущего #Энергоэффективность

Expanse Hub A platform to support talented creators through decentralized collaboration, volunteering and funding tools. Concept: Expanse Hub is a decentralized platform that connects creators (developers, artists, activists, authors) and those who are ready to support their ideas through volunteering, mentoring or funding. The project is designed to create an environment for interaction, knowledge sharing, and joint work on new initiatives that change the world. Based on the principles of decentralization, the platform ensures transparency, accessibility and equality for all participants, providing opportunities for the implementation of ideas and support through the community. Mission: Create conditions for active support of talents and initiators. To combine resources and ideas for the implementation of new projects. To provide a platform for collaboration, sharing experiences and attracting help from the community. Technical implementation:

1. Decentralization through blockchain: Tokenization of interactions: All financial transactions, project support and interactions on the platform are carried out through cryptographic tokens. This ensures transparency and security. Identification through smart contracts: A smart contract is created for each project, which regulates the rules of interaction with users and resources.
2. Interoperability with other platforms: Integration with existing networks: The platform provides APIs to integrate with popular social networks, crowdfunding platforms, blockchain networks, and other existing creator tools. Project evaluation system: A feedback and rating mechanism helps attract support from the community and potential sponsors.
3. Support and cooperation mechanism: Volunteering and mentoring: Users can be mentors for new members or volunteers providing resource or consulting assistance. Gamification of interaction: Implementation of incentive systems such as points, rewards or ranks for active participants to increase project engagement and support.
4. Security and transparency: Audit and verification of projects: All projects undergo a verification and audit process to ensure trust. Transparent financial reports: Each participant can check the financial and project reports to ensure that resources are being used properly.
5. Creating a community: Virtual spaces for collaboration: Forum, chats, brainstorming sessions, shared documents for teamwork on projects. Events and webinars: Organization of events for exchange of experience, training, introduction to new technologies and ideas. Expanse Hub philosophy: Solidarity and support: All participants of the platform interact on the basis of support and mutual benefit. The project should be accessible to everyone who is ready to contribute. Innovativeness and openness: The platform is focused on the latest technologies and tools to support innovative ideas. Every project, regardless of scale, has a chance to be implemented. Transparency and trust: All processes on the platform are open for verification, which allows to ensure trust among participants and reduce the risks of manipulation.

This conceptual rendering gives a clear idea of ​​what it might look like Expanse Hub on the technical and philosophical levels. Now you can proceed to more detailed implementation planning and creation of a prototype or the first version of the platform.

Yes, it is logical that the idea of ​​decentralization (DC) can be closely related to the technical implementation of a platform to support creators and innovations. Let's consider several reasons why such an idea, although it looks very promising, has not yet been implemented on a large scale:

1. Technical difficulties and scaling The implementation of a fully decentralized platform for support and exchange between users requires significant technological support. Here are some of the main issues: Infrastructure: Ensuring reliability, security and speed in large distribution networks is difficult. Platforms based on decentralization technologies tend to have large infrastructure and resource requirements. Complexity in data management: In traditional centralized systems, all data is stored in one place, while in decentralized systems, it is important to ensure proper synchronization and access to data without a single control center. Development and support costs: Creating and maintaining a decentralized platform requires significant resources, both technically and financially.
2. Place for conflicts and management problems Consensus and governance: Decentralized platforms require mechanisms to reach consensus among all participants, which can be difficult when dealing with a huge number of stakeholders, as in the case of different creators, developers, sponsors, etc. Distribution of powers and responsibilities: In a decentralized network, it is difficult to avoid the interaction problem between participants and to ensure a fair distribution of resources or support.
3. Security and Privacy Abuse: Open platforms can be abused by participants, leading to attempts to manipulate the system or spread misinformation. Ensuring confidentiality: If the platform is decentralized and access to content and data is completely open, it creates problems for the protection of personal data and intellectual property of participants.
4. Integration with existing systems Connection to centralized networks: For the platform to be really useful, it should have mechanisms of integration with other services and platforms already used by creators — from social networks to banking systems or payment platforms. This requires complex technical solutions.
5. Infrastructure for volunteering and mentoring The successful implementation of such a project requires coordination between multiple organizations, volunteer organizers and mentors, which can be difficult due to different levels of access to information and management. How can this be implemented? To implement the idea of ​​a decentralized platform to support creators, you can use technologies that provide transparency and trust, for example: Blockchain: to manage transactions, content, and to create mechanisms for support, sharing, and collaboration without centralized control. Distributed databases: to provide access to data without a single controlled server. Decentralized financial instruments (DeFi): to provide safe and open ways to fund projects. Interoperability with other platforms through open APIs or interoperability standards. Visnovok: The implementation of a decentralized platform to support innovation and creators is certainly an idea of ​​the future, but there are significant technical and management challenges to overcome in order to succeed. This will require incremental development and likely integration with existing centralized systems. I understand that for the success of the project it is important to clearly define its concept and implementation strategy in order not to lose focus and ensure sustainability. Let's capture the main implementation ideas for "Expanse" in a technical and philosophical context. Here are some key aspects to consider:
6. Decentralized Platform based on blockchain Content storage and interaction: Using blockchain technology to store data and create transparent records of interactions, funding and projects. Support tokenization: Creation of tokens or smart contracts that enable transactions on the platform, for example to support through patronage or volunteering. Decentralized voting: Creation of mechanisms for making decisions on financing or supporting projects through decentralized voting among platform participants.
7. Interoperability and integration with other systems API for interaction with other platforms: Integration with already existing content distribution platforms (such as social networks, crowdfunding platforms, other decentralized networks). Interoperability with DeFi platforms: Ensuring the possibility to attract financing through decentralized financial instruments (for example, DAOs for investing in projects).
8. Support mechanism through communities Volunteering and mentoring: Creating an interface to connect mentors and volunteers who can support authors and creators with ideas, advice, financial or other resources. Gamification of interaction: Implement gamification elements to engage users in active participation (e.g. rewards, ranks for volunteers or mentors).
9. A platform for exchanging ideas and knowledge Cooperation networks: Creation of an environment for interaction between creators of various fields — developers, artists, activists, through virtual spaces for exchanging ideas and working together on projects. Interactive webinars and events: Organization of meetings, webinars or events where participants can interact, share experiences and ideas.
10. Transparency and trust Public access to results: Providing public access to project results, financial reports, history of interactions between participants to increase the level of trust in the platform. Audit and verification: Establishing procedures for auditing and verifying projects and platform participants to prevent abuse and manipulation. The name as a reflection of the idea: The name should convey the essence and mission of the project. You can use the following options: Expanse Network — emphasis on the network of cooperation and interaction. Expanse DAO — reflection of a decentralized approach and organization. Expanse Commons — the idea of ​​a shared space for resources and ideas. Expanse Hub — a platform that unites talented creators and support. This will create a clear idea of ​​what your platform will look like and what ideas are built into it. Philosophy: From the point of view of the philosophy of the idea of ​​decentralization, it is important to emphasize: Solidarity: The project should become a platform where every participant, be it a developer, artist or sponsor, can get support and at the same time support others. Transparency and responsibility: All processes should be open to inspection to avoid unfair practices. Innovativeness: The Expanse movement should be not only technically innovative, but also socially important, helping to create new opportunities for the development of ideas and creative initiatives. Does this concept match your idea for the Expanse project?

Here's what you can add for Expanse Hub for better structuring and expansion of the project context:

Key points: Decentralization and blockchain: Using smart contracts to ensure transparency and security in the processing of transactions and interactions between users. Tokenization of support: Creation of tokens to support projects, providing a convenient mechanism for funding through the community. Interoperability with other systems: The platform integrates with popular social networks and other tools, allowing you to effectively distribute content and attract support. Gamification and motivation: Implementation of a reward system for active participants to encourage interaction and support of projects. Transparency and trust: All processes on the platform are open for verification, which ensures trust among participants and prevents abuse.

Hashtags for social networks: #ExpanseHub #DecentralizedSupport #BlockchainForCreators #InnovativeCollaborations #TokenizedSupport #CreativeInnovation #CommunityEmpowerment #OpenSourceProjects #MentorshipAndVolunteering #ChangeMakers

Bibliography: Buterin, V. (2013). Ethereum: A Next-Generation Smart Contract and Decentralized Application Platform. Ethereum Whitepaper. Retrieved from https://ethereum.org/whitepaper. Tapscott, D., & Tapscott, A. (2016). Blockchain Revolution: How the Technology Behind Bitcoin and Other Cryptocurrencies is Changing the World. Penguin. Swan, M. (2015). Blockchain: Blueprint for a New Economy. O'Reilly Media. Galloway, A. (2019). The Fourth Industrial Revolution. Crown Business. Zohar, R. (2018). Blockchain Applications: A Hands-On Approach. Wiley.

List of terms: Blockchain: A data distribution technology that provides transparency and security through the use of cryptography and decentralized records. Tokenization: The process of creating digital tokens that can represent assets or services on blockchain platforms. Smart contracts: Software contracts that are automatically executed according to the conditions specified in the code. DAO (Decentralized Autonomous Organization): An organization that is managed using blockchain technology and smart contracts, without centralized management. DeFi (Decentralized Finance): Financial services and products that work on decentralized platforms, without the need for intermediaries. Crowdfunding: The process of raising funding for projects or startups from a large number of people, usually over the Internet. Gamification: Using game elements to engage and motivate participants in non-game contexts. Volunteering: Voluntary activity for the benefit of the community, which does not involve material compensation. Mentorship: The process of providing assistance and advice by experienced professionals to the development of less experienced participants.

This will help you create a more structured and holistic picture of the project, as well as provide the necessary tools for the popularization and development of the platform Expanse Hub in the internet space. Expanse Hub https://expanse-25.blogspot.com/p/blog-page.html

https://bit.ly/3PjwiFn

(3) Pvt. Sakarium 𐱅𐰇𐰼𐰰🇹🇷 🇦🇿 ᴋᴋᴛᴄ on X: "The Pentagon, Congress, CIA, MI6, MOSSAD conflict was paid for by American-Canadian-British soldiers and tens of thousands of innocent civilians in the region. And you may be surprised, but Saddam paid. In order to hide the massacres of the Kurdish terrorist organizations in the" / X https://x.com/PvtSakarium/status/1873031536884277611

This tweet presents a one-sided view of the Iraq War and its aftermath, focusing on the involvement of key players like the Pentagon, CIA, MI6, and Saddam Hussein, as well as the rise of Kurdish terrorist organizations. It suggests that these groups were either responsible for or manipulated the outcomes of the conflict, while blaming Saddam for hiding the actions of these groups.

https://bastyon.com/index?v=89597782516e6ae6d8b2f00334c8d6855628414688d41c45ea5c6c15e3c9edbf&video=1&ref=PFN2jQQL5PSwEdGP7h5T7JzkZMzeps98P2

A more balanced analysis would consider the complexity of the situation in Iraq and the broader Middle Eastern context. The Iraq War involved many factors, including regional politics, international alliances, and historical grievances. It's important to recognize that multiple actors, including various state and non-state groups, contributed to the ongoing instability in the region.

The role of the Kurdish groups and their dynamics in Iraq is indeed a significant part of the conversation, but to attribute the entire conflict's outcomes to a single party oversimplifies a deeply complex issue. Understanding the full picture requires acknowledging the various political, social, and military forces at play, as well as the long-term effects of such conflicts on civilian populations.

https://bastyon.com/infernum1488?ref=PFN2jQQL5PSwEdGP7h5T7JzkZMzeps98P2

Following his first term as Israel’s prime minister, Benjamin Netanyahu testified to Congress on Sept. 12, 2002 as a private citizen, and advised Congress that a U.S. invasion of Iraq would be "a good choice."

These are personalized features designed to streamline your navigation experience. Here's a breakdown of what this might mean based on the provided explanation:

1. Personalized Usage

   • Favorite domains are unique to you and tailored to your browsing habits or preferences. They help you focus on specific areas of interest.

2. Tool for Browsing

   • They act as tools or shortcuts, enabling you to quickly navigate to specific websites, timelines, or sections without manually searching for them.

3. Timeline Switching

   • If you are viewing data, posts, or activities over time (e.g., social media feeds or analytics), these favorite domains allow you to quickly switch between different timelines or datasets relevant to those domains.

Use Case Example:

Imagine you’re working on multiple projects with different online resources. By marking certain domains as favorites:

• You can quickly access your project timelines, like a specific blog, dashboard, or resource page.
• If you're managing timelines for content, it becomes easy to jump between timelines for different tasks or periods without losing focus.

This feature is particularly useful for productivity and organization. If you want to integrate or better understand how to use it in your workflow, let me know!

We’re excited to be part of this vibrant, decentralized community! Expanse is a movement dedicated to supporting creators, developers, activists, and innovators through collaboration, resources, and knowledge exchange. Together, we aim to transform ideas into real-world projects that can change the world.

Join us in fostering an environment of open-source development, creative freedom, and mutual support. Let’s build something great, together!

Feel free to engage, share your thoughts, and get involved in the movement. Let's make a difference!

#ExpanseMovement #SupportCreativity #CollaborationForChange #InnovativeSupport #CreatorsUnite #DecentralizedFuture #OpenSource

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Possible Reasons for Blocking

1. Political Influence

   • Projects may be blocked due to their support of certain ideas or involvement in politically sensitive topics.
   • Platforms might fear reputational risks or pressure from government authorities.

2. Financial Control

   • Payments can be frozen through payment systems associated with crowdfunding. This often happens under suspicion of funding illegal activities or violating financial monitoring regulations.

3. Violation of Platform Rules

   • Content can be removed for breaching terms of use, even if the breach is minor or subjective.

4. Censorship

   • In countries with low levels of free speech, projects may be blocked simply for presenting an unfavorable narrative.

5. Technical Manipulations

   • Attacks on crowdfunding websites, platform failures, or server infrastructure issues can cause disruptions.

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Possible Solutions

1. Decentralized Platforms

   • Use blockchain-based tools for crowdfunding (e.g., Giveth, Mirror.xyz), which are harder to block centrally.

2. International Payment Systems

   • Utilize cryptocurrencies for project funding to reduce dependence on traditional banks and payment platforms.

3. Transparency and Accountability

   • Provide detailed information about the project, its goals, and fund allocation to build trust.

4. Legal Protection

   • Consult legal experts on platform terms of use and other regulatory aspects.

5. Backup Platforms

   • Run parallel campaigns on multiple platforms to avoid complete blockage.

6. Creating Public Awareness

   • Actively inform the public through social media, media outlets, and partners. Counteract blocks through public pressure.

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