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European Union Launches Starlink Rival: A New Era in Satellite Internet

The European Union (EU), in collaboration with the European Space Agency (ESA), has unveiled its €10.6 billion IRIS² satellite network project. This ambitious initiative is set to launch in 2029 and become fully operational by 2030. IRIS² is designed to address Europe’s reliance on non-European providers, such as Elon Musk’s Starlink, ensuring secure communications for governments and high-speed Internet for underserved areas in Europe and Africa. The project shows that Europe is dedicated to becoming technologically independent. This is happening because there are more political problems between different countries.

Summary

  • The IRIS² satellite network is the European Union’s €10.6 billion initiative to rival Starlink and strengthen its technological independence.
  • Comprising 290 satellites in low-Earth, medium-Earth, and geostationary orbits, the project aims for optimal global coverage.
  • The program ensures secure communications for governments, supports modern warfare needs, and bridges Internet connectivity gaps.
  • Europe faces increasing reliance on commercial satellite providers like Elon Musk’s Starlink, emphasizing the need for IRIS².
  • The IRIS² network will combat Internet “dead zones” in remote European and African regions.
  • Advanced quantum cryptography enhances its security infrastructure, allowing use in border control, crisis management, and more.
  • Leading European companies like Deutsche Telekom, Orange, and Airbus contribute to the SpaceRISE consortium implementing this project.
  • With a combined investment from the EU, ESA, and private partners, IRIS² promises to be operational by 2030, following its planned 2029 launch.
  • IRIS² adds to the EU’s satellite portfolio, which already includes Galileo (navigation) and Copernicus (Earth observation).
  • The initiative underlines Europe’s growing ambitions in the global space industry amid geopolitical tensions and security concerns.

A Strategic Move for Europe’s Future

The European Union’s announcement of the IRIS² satellite network marks a pivotal moment in satellite communication technology. The project, short for Infrastructure for Resilience, Interconnection, and Security by Satellites, represents a direct response to Europe’s increasing dependence on external providers like Elon Musk’s Starlink. Geopolitical tensions, such as the ongoing war in Ukraine, have highlighted the vulnerabilities of Europe’s critical infrastructure.

In September 2023, Starlink’s refusal to activate services over Crimea demonstrated the risks of relying on commercial entities outside Europe. IRIS² aims to solve these problems by providing a homegrown alternative with cutting-edge capabilities. Angelo Vermeulen, a space specialist, summarized the urgency:
“Our modern society depends heavily on satellite infrastructure, and Europe must lead the way in securing its independence.”

Collaboration Across Europe

The success of IRIS² hinges on the SpaceRISE consortium, a collaborative effort involving some of Europe’s leading companies. Key participants include:

Company Specialization
Deutsche Telekom & Orange Telecom services and network expertise
Thales Alenia Space Satellite manufacturing
Airbus Defence & Space Aerospace and defense technology

The EU contributes €6 billion to the project, ESA adds €550 million, and private investors bring in €4 billion. This collaborative funding model reflects Europe’s determination to prioritize technological advancement and independence.

Solving Dead Zones in Connectivity

IRIS² focuses on bridging digital divides across Europe and Africa. While Elon Musk’s Starlink dominates with over 6,000 satellites in operation, the European network will aim for precision coverage, eliminating “dead zones” in hard-to-reach regions.

The planned 290 satellites will operate in:

  • Low-Earth Orbit (LEO): For high-speed Internet and latency-sensitive applications.
  • Medium-Earth Orbit (MEO): For broader regional coverage.
  • Geostationary Orbit (GEO): For stationary and long-term operations.

Such a multi-orbit system ensures robust and reliable connectivity across urban, rural, and underserved areas.

Security Through Innovation

One of IRIS²’s standout features is its advanced quantum cryptography via the European Quantum Communication Infrastructure (EuroQCI). This technology allows the satellite network to serve as a secure backbone for:

  • Government communications.
  • Crisis management during natural disasters.
  • Border control and transportation systems.
  • Secure connections for EU embassies.

With this approach, Europe reaffirms its commitment to secure-by-design architecture, minimizing vulnerabilities from the outset.

A Timeline for Success

Milestone Date
Announcement of IRIS² December 2024
Satellite launches begin 2029
Full operational capacity 2030

Although Europe is years behind Starlink’s deployment, IRIS²’s ambitious timeline demonstrates a realistic yet forward-looking approach. By leveraging its expertise from programs like Galileo and Copernicus, the EU is well-positioned to execute this ambitious plan.

Geopolitical Significance

The war in Ukraine and rising geopolitical instability underline the importance of homegrown satellite networks. Elon Musk’s influence over Starlink’s activation zones raised red flags, particularly when services critical for military and humanitarian purposes were at stake. IRIS² provides Europe the means to reduce reliance on external providers, ensuring operational autonomy and sovereignty.

Facts About Satellite Internet

  • Starlink currently dominates the satellite Internet market, with over 7,000 satellites in orbit.
  • IRIS² will prioritize north-south orbits, which are better suited for covering Europe and Africa.
  • The name IRIS² symbolizes resilience, security, and innovation in satellite communication.

The IRIS² initiative is a testament to Europe’s determination and ingenuity. By addressing vulnerabilities exposed by geopolitical tensions and reliance on non-European providers, the EU and ESA are paving the way for a more self-reliant future. The €10.6 billion project reflects Europe’s ambition to lead in secure satellite communications, bridging gaps in connectivity and bolstering critical infrastructure.

As Europe’s third major satellite network, alongside Galileo and Copernicus, IRIS² is poised to set new standards in global satellite communications. This effort not only strengthens Europe’s position in the space race but also redefines how the world views secure and equitable Internet access.

References

  1. European Commission on IRIS²
  2. ESA’s Role in IRIS²
  3. VRT News Coverage
  4. Business Insider Analysis
  5. IRIS² Official Announcement
#IRIS², #EuropeanSpaceAgency, #SatelliteInternet, #StarlinkAlternative, #EUConnectivity, #SpaceRISE, #QuantumCryptography, #SecureCommunications, #DigitalDivide, #SpaceTechnology, #Galileo, #Copernicus, #InternetAccess, #TechIndependence, #SatelliteNetwork

The Role of Hotspot in NIGCOMSAT’s Rural Connectivity Initiative

Key Takeaways

NIGCOMSAT Limited, Nigeria’s leading provider of satellite communication infrastructure, has entered into a groundbreaking partnership with Hotspot, a technology company specializing in rural connectivity solutions. This strategic collaboration aims to revolutionize access to reliable and affordable internet services in underserved communities across the country.

NIGCOMSAT and Hotspot are collaborating to improve internet connectivity in rural Nigeria. The partnership leverages NIGCOMSAT’s satellite technology and Hotspot’s expertise in rural connectivity. This initiative is part of a larger effort to bridge the digital divide and promote socioeconomic development. The project will roll out in phases, with the first phase targeting select rural areas. The initiative is expected to significantly enhance internet access and digital inclusion in Nigeria.

Summary

  • NIGCOMSAT and Hotspot have formed a strategic partnership to enhance rural connectivity in Nigeria.
  • The collaboration will utilize NIGCOMSAT’s satellite infrastructure and Hotspot’s rural connectivity solutions.
  • The project aims to provide reliable and affordable internet access to underserved communities.
  • The partnership underscores a commitment to bridging the digital divide and fostering socioeconomic growth.
  • NIGCOMSAT’s managing director emphasizes the importance of digital transformation for all Nigerians.
  • Hotspot’s CEO highlights the mission to connect unconnected communities to the digital economy.
  • The initiative is supported by the Universal Service Provision Fund (USPF).
  • The project will use the NigComSat-1R Ka-Band platform for connectivity.
  • Initial roll-out is planned for select rural areas within the next six months.
  • The partnership aims to position Nigeria as a leader in satellite communication technologies.

The Role of Hotspot in NIGCOMSAT’s Rural Connectivity Initiative

Nigeria, like many developing countries, faces significant challenges in providing reliable and affordable internet access to its rural populations. These areas often lack the necessary infrastructure, resulting in a digital divide that hampers socioeconomic development. Recognizing this challenge, NIGCOMSAT Limited has partnered with Hotspot to address the connectivity needs of rural Nigeria. This article explores the strategic collaboration between NIGCOMSAT and Hotspot, detailing its objectives, implementation, and expected impact.

NIGCOMSAT Limited

NIGCOMSAT Limited is Nigeria’s premier provider of satellite communication services. The company operates communication satellites that provide coverage across Africa, parts of Europe, and Asia. NIGCOMSAT’s mission is to deliver reliable satellite communication solutions that support national development and digital inclusion.

Hotspot Network Limited

Hotspot Network Limited specializes in providing networking and telecommunications solutions, particularly in underserved and rural areas. Hotspot’s expertise lies in deploying innovative connectivity solutions that bring internet access to remote communities, thereby fostering digital inclusion and economic growth.

Objectives

The partnership between NIGCOMSAT and Hotspot aims to:

  1. Bridge the Digital Divide: Provide reliable and affordable internet access to underserved rural communities.
  2. Enhance Socioeconomic Development: Empower rural populations by enabling access to digital services and opportunities.
  3. Leverage Technological Expertise: Combine NIGCOMSAT’s satellite infrastructure with Hotspot’s rural connectivity solutions to deliver effective and innovative internet services.

Strategic Importance

This collaboration is strategically important for several reasons:

  • Digital Inclusion: By extending internet access to rural areas, the partnership promotes digital inclusion, ensuring that more Nigerians can participate in the digital economy.
  • Economic Growth: Improved connectivity can drive economic growth by enabling access to markets, information, and services.
  • Education and Healthcare: Enhanced internet access supports education and healthcare delivery in rural areas, improving quality of life and opportunities.

Technological Approach

The project will leverage the NigComSat-1R Ka-Band platform, a high-capacity satellite communication system that provides robust and reliable connectivity. This technology is well-suited for rural deployment due to its wide coverage and resilience.

Phased Roll-Out

The initiative will be rolled out in phases:

  1. Pilot Phase: Initial deployment in select rural areas to test and refine the technology and approach.
  2. Expansion Phase: Broader deployment across more rural communities based on the success and learnings from the pilot phase.
  3. Optimization Phase: Continuous improvement of the connectivity solutions based on feedback and technological advancements.

Expected Impact

By providing internet access to rural areas, the partnership will help bridge the digital divide, enabling rural populations to access information, services, and opportunities that were previously out of reach.

Socioeconomic Development

Improved connectivity will drive socioeconomic development in several ways:

  • Economic Opportunities: Internet access enables small businesses and entrepreneurs to reach new markets and customers.
  • Education: Students and teachers in rural areas will have access to online educational resources and tools, enhancing learning outcomes.
  • Healthcare: Telemedicine and online health information will improve healthcare delivery and outcomes in remote areas.

Empowering Communities

The initiative will empower rural communities by providing them with the tools and resources needed to participate fully in the digital economy. This empowerment will have a ripple effect, driving overall national development.

Tables

Table 1: Phased Roll-Out Plan

Phase Description Timeline
Pilot Phase Initial deployment in select rural areas Next 6 months
Expansion Phase Broader deployment across more rural communities 6-12 months
Optimization Phase Continuous improvement based on feedback Ongoing

Table 2: Expected Benefits of Improved Connectivity

Benefit Description
Economic Opportunities Enables small businesses and entrepreneurs to reach new markets and customers
Education Access to online educational resources and tools, enhancing learning outcomes
Healthcare Telemedicine and online health information improve healthcare delivery and outcomes
Digital Inclusion Ensures rural populations can participate in the digital economy
Socioeconomic Development Drives overall national development through enhanced connectivity and empowerment

Conclusion

The partnership between NIGCOMSAT and Hotspot represents a significant step towards bridging the digital divide in Nigeria. By leveraging advanced satellite technology and innovative connectivity solutions, this collaboration aims to provide reliable and affordable internet access to underserved rural communities. The initiative is expected to drive socioeconomic development, empower rural populations, and position Nigeria as a leader in satellite communication technologies.

Hashtags

#NIGCOMSAT, #Hotspot, #RuralConnectivity, #DigitalInclusion, #Nigeria, #SatelliteTechnology,#InternetAccess, #SocioeconomicDevelopment, #DigitalTransformation, #Telecommunications

Starlink Satellites: SpaceX’s 20-Satellite Launch from Florida on July 3

Key Takeaways

SpaceX is launching 20 Starlink satellites from Cape Canaveral Space Force Station on July 3. 13 of the satellites have direct-to-cell capabilities, enhancing global internet connectivity. The launch window opens at 2:57 a.m. EDT (0601 GMT), and SpaceX will livestream the event. The Falcon 9 rocket’s first stage will land on the droneship “A Shortfall of Gravitas” in the Atlantic Ocean. This launch will mark the 16th flight and landing of this Falcon 9 booster. The mission will be the 67th Falcon 9 launch in 2024. Over 70% of SpaceX’s 2024 launches have been for the Starlink constellation, which currently has more than 6,150 satellites in operation.

Summary

  • Launch Details
    • Scheduled for July 3 from Cape Canaveral Space Force Station.
    • Window opens at 2:57 a.m. EDT (0601 GMT).
    • SpaceX will provide a livestream.
  • Payload
    • 20 Starlink satellites.
    • 13 satellites with direct-to-cell capabilities.
  • Falcon 9 Rocket
    • First stage will land on “A Shortfall of Gravitas.”
    • 16th flight and landing for this booster.
  • Mission Significance
    • 67th Falcon 9 mission of 2024.
    • Over 70% of 2024 launches for Starlink.
    • More than 6,150 operational Starlink satellites.
  • SpaceX’s Broader Efforts
    • One Falcon Heavy launch in 2024.
    • Two test flights of Starship, aimed at future moon and Mars missions.

Introduction

SpaceX is set to launch another batch of its Starlink internet satellites from Florida in the early hours of July 3, 2024. A Falcon 9 rocket carrying 20 Starlink spacecraft, including 13 equipped with direct-to-cell capabilities, is scheduled to lift off from Cape Canaveral Space Force Station. This launch is part of SpaceX’s ongoing effort to build out its Starlink megaconstellation, which aims to provide global internet coverage.

Launch Details

The Falcon 9 rocket is scheduled to launch during a three-hour window that opens at 2:57 a.m. EDT (0601 GMT). SpaceX will livestream the launch on its X (formerly Twitter) account, with coverage starting about five minutes before liftoff. If everything goes according to plan, the Falcon 9’s first stage will return to Earth approximately eight minutes after launch, landing on the droneship “A Shortfall of Gravitas” stationed in the Atlantic Ocean.

This launch will be the 16th flight and landing for this particular Falcon 9 booster. Notably, 10 of its previous 15 flights have been Starlink missions. The Falcon 9’s upper stage will continue its journey to low Earth orbit, deploying the 20 satellites about 61 minutes after liftoff.

The Payload: Starlink Satellites

The payload for this mission consists of 20 Starlink satellites, with 13 of them equipped with direct-to-cell capabilities. These capabilities are designed to enhance global internet connectivity, allowing users to access the internet directly through their mobile devices without the need for ground-based infrastructure. This feature is particularly beneficial for remote and underserved areas where traditional internet service is unavailable or unreliable.

Table 1: Starlink Satellites Overview
Satellite Feature Description
Total Satellites 20
Direct-to-Cell Capabilities 13 Satellites
Purpose Global internet coverage, particularly for remote areas

Falcon 9 Rocket: Reusability and Reliability

The Falcon 9 rocket has become a cornerstone of SpaceX’s launch strategy, thanks to its reusability and reliability. The first stage of the rocket is designed to be reused multiple times, significantly reducing the cost of each launch. This particular booster has already flown 15 missions, making it one of the most frequently used in SpaceX’s fleet.

The ability to reuse the first stage of the rocket also contributes to environmental sustainability by reducing the amount of debris generated by space launches. After the launch, the first stage will land on the droneship “A Shortfall of Gravitas,” which is stationed in the Atlantic Ocean. This recovery process has become a routine part of SpaceX’s missions, showcasing the company’s advancements in rocket technology.

Table 2: Falcon 9 Booster Statistics
Booster Flight Number Previous Missions Landing Success Rate
16 10 Starlink missions, 5 other missions 100%

The Growing Starlink Constellation

As of this launch, the Starlink constellation will have more than 6,150 operational satellites. SpaceX’s ultimate goal is to deploy up to 42,000 satellites to provide comprehensive global internet coverage. The majority of the Falcon 9 launches this year have been dedicated to building out this constellation, highlighting its importance to SpaceX’s overall mission.

Impact on Global Internet Connectivity

The Starlink project aims to provide high-speed internet access to underserved and remote areas around the world. By using a constellation of low Earth orbit (LEO) satellites, Starlink can offer lower latency and faster speeds compared to traditional satellite internet services. This is a significant development for regions where laying fiber-optic cables is impractical or too costly.

SpaceX’s Broader Efforts in 2024

In addition to the numerous Falcon 9 missions, SpaceX has also conducted one launch of its powerful Falcon Heavy rocket and two test flights of Starship in 2024. The Falcon Heavy is capable of carrying much larger payloads than the Falcon 9, making it ideal for missions requiring significant lift capacity. Starship, on the other hand, is SpaceX’s next-generation vehicle designed for deep space exploration, with the goal of helping humanity establish a presence on the moon and Mars.

Falcon Heavy and Starship
  • Falcon Heavy: One launch in 2024, used for missions requiring heavy lift capabilities.
  • Starship: Two test flights in 2024, aimed at future missions to the moon and Mars.

Future Prospects and Challenges

While SpaceX has made significant strides with its Starlink project, there are still challenges to overcome. One major concern is space debris, as the increasing number of satellites in low Earth orbit raises the risk of collisions. SpaceX has implemented measures to mitigate this risk, such as equipping Starlink satellites with autonomous collision avoidance systems and ensuring they can deorbit at the end of their operational life.

Conclusion

SpaceX’s upcoming launch on July 3 is a significant step in the ongoing expansion of the Starlink constellation. With 20 new satellites, including 13 with direct-to-cell capabilities, this mission underscores SpaceX’s commitment to providing global internet coverage. The Falcon 9 rocket’s reusability and the successful recovery of its first stage further demonstrate SpaceX’s innovative approach to spaceflight. As the company continues to push the boundaries of what’s possible in space, the future looks promising for global connectivity and space exploration.

Hashtags

#SpaceX, #Starlink, #Falcon9, #RocketLaunch, #SpaceExploration, #GlobalConnectivity, #InternetAccess, #LowEarthOrbit, #Reusability, #SpaceTechnology

Internet Access by Satellite: Connecting the World from Above

Key Takeaway:

Satellite internet provides global network connectivity using satellites in geostationary orbit or low Earth orbit. It offers high-speed internet access to remote and rural areas where traditional broadband services are unavailable. However, it comes with drawbacks such as high latency, weather dependency, and data limits.

Summary:

  • Satellite Internet Utilizes Satellites in Orbit Around Earth
  • Provides Connectivity to Remote or Rural Areas
  • Two Main Types: Geostationary and Low Earth Orbit (LEO)
  • Geostationary: High Bandwidth but High Latency
  • LEO: Lower Latency, Faster Communication
  • Used in Emergency Response, Maritime, Military, Rural Areas
  • Providers Include Starlink, HughesNet, Viasat, OneWeb, Kuiper Systems
  • Pros: Coverage, Speed, Ease of Deployment, Mobile Connection
  • Cons: Latency, Price, Weather Interference, Data Limits
  • Orbital Pollution: Growing Concern for Space Debris
  • Despite Limitations, Satellite Internet Expected to Expand Access
Internet Access by Satellite Connecting the World from Above
The first Internet service satellite, named HNS-1, was launched in 1996 by Hughes Network Systems. This company was a part of Hughes Electronics, which was later purchased by DirecTV. The HNS-1 satellite enabled customers in North America to access high-speed Internet. This was possible through small satellite dishes installed at their homes or offices.

Internet Access by Satellite

In today’s digital age, reliable and fast internet access is essential for personal and professional purposes. Unfortunately, such civilization benefits are still not available to everyone. In rural or remote areas, in cities that are temporarily left without network access, broadband internet access may not be available or prohibitively expensive. In such circumstances, satellite internet may be the only solution.

Internet Access by Satellite Connecting the World from Above
Satellite Internet has improved a lot recently. It is now more efficient, reliable, and cheaper. More people, especially in rural or remote areas without traditional broadband, can use the internet. Thanks to Low Earth Orbit (LEO) satellite constellations, satellite Internet will likely be as good as traditional broadband in terms of speed, latency, and availability.

What is Satellite Internet?

Satellite internet is a way of organizing access to the global network through satellite communication technologies. A satellite located in the geostationary orbit of the Earth is used to access the global network. Thanks to its engines, it always moves collectively with the planet, and therefore, for an observer from its surface, the satellite is always stationary.

Satellite internet utilizes advanced satellite communication technologies to provide internet access to areas where traditional services are unavailable.

The history of satellite internet dates back to the 1960s when the US Department of Defense began to explore the possibility of using satellites to transmit data between remote locations. In 1962, the first satellite communication system called Telstar 1 was launched, which allowed television signals to be transmitted across the Atlantic Ocean.

Leading Satellite Internet Providers

Several providers offer satellite internet services to consumers, each with distinct offerings:

  • Starlink:

    Backed by SpaceX, Starlink delivers high-speed internet with download speeds ranging from 50 Mbps to 150 Mbps. It has garnered attention for its global coverage and innovative approach.

Internet Access by Satellite Connecting the World from Above

  • HughesNet:

    Established and reliable, HughesNet caters to users in the United States, offering download speeds up to 50 Mbps. It provides various plans tailored to different user needs.

Internet Access by Satellite Connecting the World from Above

  • Viasat:

    Another prominent player in the US market, Viasat offers download speeds up to 100 Mbps, serving users with diverse data requirements.

Internet Access by Satellite Connecting the World from Above

  • OneWeb:

    A newcomer aiming to revolutionize satellite internet, OneWeb is poised to provide global coverage with low latency and high-speed connectivity.

Internet Access by Satellite Connecting the World from Above

  • Kuiper Systems by Amazon:

    Amazon’s foray into satellite internet, Kuiper Systems, holds promise for expanding internet access globally, although it is still in its early stages.

Internet Access by Satellite Connecting the World from Above

How Does Satellite Internet Work?

Satellite internet operates through two-way communication between a ground station or hub and a geostationary satellite that hovers between 300 and 35,000 km above Earth’s surface. The hub communicates with the satellite, relaying the signal to a satellite dish or antenna installed at the client’s premises. The client’s modem then processes the signal, allowing access to the internet.

Internet Access by Satellite Connecting the World from Above

Types of Satellite Internet:

  1. Geostationary Satellite Internet (GEO):
    • High bandwidth but suffers from high latency.
    • Suitable for video streaming, large file downloads.
    • Continuous coverage over a large area.
  2. Low Earth Orbit (LEO) Satellite Internet:
    • Lower latency, faster communication.
    • Utilizes a network of satellites moving closer to Earth’s surface.
    • Provides more coverage and faster speeds.

Applications and Usage

Satellite internet finds applications across various sectors:

  • Emergency Response and Recovery: In disaster-stricken areas where traditional communication networks are compromised, satellite internet offers a lifeline for connectivity and coordination.
  • Maritime and Aviation Industries: Satellite internet facilitates communication for vessels and aircraft traversing remote regions, ensuring connectivity for passengers and crew members.
  • Military and Government Agencies: These sectors rely on satellite communications for secure and reliable connectivity, particularly in remote or hostile environments.
  • Rural and Remote Areas: For inhabitants of isolated regions devoid of traditional broadband infrastructure, satellite internet represents their sole means of accessing high-speed connectivity.

“In a natural disaster, traditional communications networks can be damaged, and satellite internet can be quickly deployed to connect affected areas.”

Pros and Cons of Satellite Internet

Pros:

  • Coverage: Provides access to remote or rural areas.
  • Speed: Offers high-speed internet suitable for various applications.
  • Ease of Deployment: Quickly deployable for emergency response.
  • Mobile Connection: Direct connectivity to mobile devices.

Cons:

  • Latency: High latency in geostationary satellite internet.
  • Price: More expensive than traditional services.
  • Weather Interference: Weather conditions can affect connection quality.
  • Data Limits: Providers often impose data caps.

“Satellite internet offers high-speed connectivity to remote areas but comes with challenges such as latency and weather interference.”

Satellite internet, though facing challenges like latency and weather interference, plays a crucial role in expanding internet access to remote or rural areas. With advancements in technology and the emergence of low Earth orbit satellite networks, satellite internet is expected to become more competitive and accessible in the future. However, concerns regarding orbital pollution from space debris remain a growing issue that requires attention.

Hashtags:

#SatelliteInternet #LEOSatellites #SpaceX #DigitalConnectivity #InternetAccess
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