Category: Mobile

6G Network

The 6G network will be the next big step in mobile technology, expected to launch around 2030. Currently in the research phase, it promises to go far beyond 5G and 4G with faster speeds, lower latency, greater capacity, and better connectivity. Using THz frequencies for higher bandwidth, AI for smarter networks, and quantum communication for advanced security, 6G will power exciting applications like holographic communication, brain-machine interfaces, autonomous systems, and the Internet of Everything (IoE), paving the way for a highly connected and intelligent future.

The foundational advancement of 6G indicates significant performance enhancements over previous generations:

  1. Spectrum Efficiency: With 5–10x improvement over 5G, 6G will maximise the spectrum use, enabling high-capacity transmissions for increasing network demands.
  2. Peak Data Rates: Exceeding 1 Tb/s, 6G will support next-generation applications like holographic communications and high-resolution immersive experiences.
  3. Latency: Reduced to 10–100 µs for over-the-air (OTA) transmissions, 6G enables ultra-reliable real-time applications such as brain-machine interfaces, autonomous systems, and tactile internet.
  4. Mobility: With support for 1000 km/h speed, 6G supports high-speed transportation systems like hypersonic travel and advanced railway systems.
  5. Connectivity Density: Connecting >10⁷ devices/km² will support dense IoT ecosystems, including smart cities, industrial automation, and ambient intelligence.
  6. Energy Efficiency: Efficiency to be improved 100 times, emphasising sustainability and minimising the environmental impact of the growing digital ecosystem.
  7. Traffic Capacity: With an area traffic capacity of up to 1 Gbps/m², 6G will provide consistent performance in densely populated urban centres and during high-traffic events.

6G technology is designed to address diverse and futuristic use cases, grouped into key verticals:

  1. Enhanced eMBB (FeMBB)
    • Holographic Verticals: Real-time holographic telepresence for virtual meetings, education, and entertainment.
    • Full-Sensory Digital Sensing and Reality: Immersive experiences that incorporate multiple senses in digital interactions.
    • UHD/SHD/EHD Videos: Ultra-high-definition video streaming for cinematic-quality remote collaborations.
    • Tactile/Haptic Internet: Real-time transmission of touch and feedback for applications like telemedicine and virtual reality.
  2. Enhanced Ultra-Reliable Low-Latency Communications (ERLLC)
    • Fully Automated Driving: Safe and reliable real-time communication for autonomous vehicles in urban and highway settings.
    • Industrial Internet: High-precision and responsive connectivity for smart factories, robotics, and industrial IoT systems.
  3. Massive Machine-Type Communications (umMTC)
    • The Internet of Everything (IoE) will become a reality with comprehensive integration of devices, systems, and environments, driving smart cities and personalised services.
  4. Enhanced Low Power Communications (ELPC)
    • Internet of Bio-Nano-Things: Advanced nanoscale connectivity for healthcare and biological systems.
  5. Long-Distance High-Mobility Communications (LDHMC)
    • Space Travel: Reliable communication for interplanetary exploration and space tourism.
    • Deep-Sea Sightseeing: Advanced communication systems for underwater exploration and operations.
    • Hyperspeed Railways: Seamless connectivity for passengers traveling at speeds greater than 1000 km/h.
  6. Energy Efficiency and Environmental Goals
    • Energy Harvesting: Devices will capture energy from ambient sources such as solar power or electromagnetic waves, reducing dependence on batteries.
    • Zero-Power Communications: Some devices will operate solely on harvested energy, making them ideal for IoT in remote or inaccessible locations.
    • AI-Driven Energy Management: Artificial intelligence will optimize resource allocation across the network, ensuring minimal power usage without compromising performance.

IEEE Presidential Roundtable on Climate Change

It is not a regular occasion of any serving IEEE President to visit Indonesia. In our official note, the first serving IEEE President to visit Indonesia was Prof Peter Staecker in 2013 — he visited Bali for an IEEE Educational Program awareness while I was only days starting my service as the IEEE Indonesia Section Chair. This year, Prof Saiful Rahman, the current IEEE President, is visiting Indonesia for a couple days. The visit is related to the IEEE campaigns in climate change; so it is also the theme of his visit. He is visiting Indonesia accompanied by the current IEEE Indonesia Section Chair, Prof Gamantyo, and the IEEE Malaysia Chair-Elect, Bernard Lim.

As one of the programs within his visit, the IEEE Indonesia Section co-organise with TVRI, an on-air discussion titled the IEEE ASEAN Roundtable on Climate Change. The event was carried out today in TVRI, with the IEEE President Prof Saifur Rahman as the main speaker, and teens of other speakers from the industry, universities, research centres, and government agencies as participants in round table discussion form — including yours truly, representing the IEEE Indonesia Section Advisory Committee, and the IEEE TEMS Regional Leadership Subcommittee. The organiser is TVRI, led by Dr Agnes Irwanti, a member of its Supervisory Board; and Mr Iman Brotoseno, the CEO.

I explored the opportunity of using currently available or currently developed technology to reduce and overcome the impact of the climate change. Climate change is always one of the motivations behind many collaborative innovations in the development of technology and technology-based business.

Since I work in telecommunications industry, I started by giving an example in mobile industry. The use of cognitive radio and dynamic spectrum access (CR/DSA) may optimise green technology by improving the efficiency and utilisation the spectrum by dynamic adaptation to changing network conditions and environmental factors. In urban areas with high network congestion, CR can switch to less crowded frequency bands, reducing power consumption and improving network performance; and it could also optimised to choose the most green-powered network infrastructure available. CR device can lower its power when communicating over shorter distances, conserving energy. CR also enables dynamic spectrum sharing among different technologies. For example, a cognitive radio network can share spectrum with existing cellular networks during peak traffic hours and switch to alternative bands during off-peak times. This optimises resource usage and reduces energy consumption in both networks. With the use of blockchain, spectrum may be shared among operators with easier accounting and cost-sharing.

In more applicative approach in the industry, the paradigm of of ecosystem-based business growth has motivated enterprises to share capabilities, resources, opportunities, so they can reduce the cost and risk, while also reduce the cost for the environment by many sharing methods used in business ecosystems, facilitated by massive digitalisation that enables process and capabilities to be modularised, reused, integrated, improved, and orchestrated among collaborative or event competitive businesses.

The use of technology like the AI and robotics play important roles in addressing climate change in various ways. Some examples:

  • The technology might be used for autonomous sensor-equipped robots, drones, and satellites to monitor and collect data on climate-related parameters such as temperature, humidity, carbon emissions, deforestation, and more. These technologies help in obtaining real-time and accurate data for climate analysis.
  • AI facilitates the analysis of huge amounts of climate data, helping researchers build more accurate climate models. These models are crucial for understanding climate change, its causes, and predicting future climate trends.
  • AI to optimise energy consumption in various sectors, including transportation, manufacturing, and buildings. Smart grids and energy management systems use AI to balance energy supply and demand, reduce wastage, and integrate renewable energy sources effectively.
  • AI-based integrated logistics management (4PL / 5PL) may orchestrate logistics services to share the logistics resources they have, with better supply chain model, supported by better demand and production prediction. It will also reduce the use of fuel and environmental cost to expand the transportation facilities.
  • AI to support agricultural practices, reducing greenhouse gas emissions and improving crop yields. Additionally, robots can assist in precision agriculture, reducing chemical usage and improving sustainability.

There are many more aspect of technology to be used to improve the environmental conditions, including the power management, traffic management, personalised education, etc. Other speakers also explored what we can do in the aspects of education, government policy, and others.

Even after the formal discussion, we still continue the discussion during the lunch session, after Friday-prayer session. I think it is also my first experience to accompany an IEEE President to a mosque to attend a Friday prayer session.

We closed the day with a more relaxing discussion during dinner at Plaza Senayan.

Mobile Monday

Mobile Monday was carried out yesterday (08-08-2011), at FX Senayan. I guess FX itself stands for Flaza Xenayan. The traffic of Central Jakarta was not friendly, so I was late more than 1 hour :(. Anyway, I was still able to see some great presentations.

The 1st I saw was MENOO, by Sandy Colondam. It is a location-based service (LBS) social-network-service (SNS) for resto directory. Some common 2011 mobile features were forcefully embedded to the app: social media, badges, augmented reality, etc. I guess I need to try the app before judge it. Will do :).

Then, BOUNCITY, by Kevin Osmond. Kevin and Wenas visited my office about two weeks ago to tell about this app, and I have installed it myself to my BB. So this is not quite new for me. Bouncity is an LBS SNS offered for malls, brands, organisers, to attract and engage the community to their program. The users are offered some challenges (defined by brand owners) to get badges and other benefits. Recommended to try, both for brand owners and for us users.

The next presentation, surprisingly, is also about an app I have used: Blue Bird’s Taxi Reservation app, presented by Seatech Mobile. This is only the first phase of the apps, launched to celebrate the anniversary of Blue Bird. Reservation using this app could reduce the reservation processing time, from 15 mins to be less than 5 mins. Personally I have proven it :). I could work well because the Blue Bird Group itself has a great infrastructure in car locating (8000 of their cars have been equipped with GPS) and reservation. Another interesting feature is that the customer could easily locate the taxi and estimate the time the car reachs him. nd Next we had the honor see a different kind of application. This one is from Seatech Mobile, presented by Tjuk Indarsin. They worked closely with BlueBird group to develop the first taxi ordering application in Indonesia.

Last, I talked to the Mobile Monday’s co-founder, Andy Zain, about the Jakarta Founder Institute. Then, home 🙂

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