By Ifeoma Asika, Correspondent Campuses
As COVID-19 disrupts Societies And Irrevocably changes certain aspects of daily life, the education sector has been particularly hard-hit by the fall-out of the pandemic.
Frequent lockdowns, strict curbs on movement and a slew of health guidelines have prevented students and teaching staff from returning to classrooms, leaving many anxious about their future.
According to the United Nations (UN), nearly 1.6 billion learners in more than 190 countries have been adversely affected due to the coronavirus-related restrictions. The closure of schools and other educational institutions impacted 94 per cent of the world’s student population and nearly 99 per cent in low and lower-middle income countries.
“The crisis is exacerbating pre-existing education disparities by reducing the opportunities for many of the most vulnerable children, youth, and adults – those living in poor or rural areas, girls, refugees, persons with disabilities and forcibly displaced persons – to continue their learning,” the UN warned in a policy brief.
Technology spearheads innovation in education
The challenges faced by the educational sector are myriad, but the pandemic has also spurred the adoption of innovative techniques that are helping to maintain a semblance of normalcy. From virtual classrooms, online exams and performance assessments to monitoring mental well-being, schools and universities have put in place several unique programs to engage with pupils at multiple levels.
IT-enabled learning is providing students with the critical tools to carry on with their studies despite being deprived of the opportunity to attend classes in person.
In all this, connectivity has been the game-changer. The rationale for reducing the digital divide has never been so pressing, more so in developing nations where hundreds of millions of children are yet to gain access to affordable internet services.
“We can overcome the digital divide by accelerating access, connecting schools and finding the most innovative ways to provide learning materials and experience,” said the Executive Director of UNICEF Finland, Marja-Riitta Ketola,.
Connecting schools in Kenya
To give a boost to digital learning and improve the quality and equity of education for young people, particularly girls and children with disabilities, UNICEF Kenya, the Finnish National Committee for UNICEF and Nokia, officially launched the shared value-partnership in June 2019 in Kenya. The partnership, however, traces its origins back to 2018.
The initiative, which targeted the northern counties and urban informal settlements in the capital Nairobi, helped children gain access to digitally-enabled learning through several strategies.
First, accessible digital content that is aligned with the new competency-based curriculum, including a digital textbook, was developed and tested with partners in several schools.
Second, teachers were trained on the meaningful integration and use of digital learning materials in their teaching and learning processes.
And third, connecting selected disadvantaged primary schools to the internet using Nokia’s Fixed Wireless Solution. All these activities were conducted in close partnership with the government of Kenya, local mobile network providers and teachers. The exercise gave valuable insights on how to expand digital learning techniques and internet connectivity to even more schools in the county.
Empowering classrooms with the internet
As part of the COVID-19 response, UNICEF Kenya worked with the government to ensure continuity of learning and advocated for the safe re-opening of schools. To provide 21st century digital education to children, the first ten schools were connected to the internet through the shared-value partnership with Nokia.
This connectivity is currently reaching more than 1,000 students who have already returned to classrooms during the partial re-opening and will cover more than 6,000 students, once schools fully re-open in Kenya in January 2021.
The Valley Bridge Primary School in Mathare, Nairobi was the first to experience the benefits of connected digital learning. Marilyn Hoar, Chief of Education at UNICEF Kenya pointed out that “Internet connectivity can be a fundamental enabler for digital learning and is helping to achieve inclusive and quality education in Kenya.”
Kenya aspires to connect half of its 23,000 primary schools to the internet by 2023 and all other schools by 2030 under the National Broadband Strategy. Under the National Digital Literacy Project more than one million tablets have been distributed in order to facilitate primary education. The Kenyan government’s objectives are in line with UNICEF’s and ITU’s initiative called Giga, which aims to connect all the schools in the world to the internet.
Connecting the unconnected to inclusive digital learning in Kenya
Head of the Central, East and West Africa Market Unit at Nokia, Rajiv Aggarwal said: “At Nokia, we believe ‘broadband for all’ is key to achieve sustainable development worldwide, and are committed to providing a versatile array of advanced network technologies to ‘connect the unconnected’”.
Private Wireless, 5G, and the introduction of Supply Chain 4.0
“Macro drivers such as the rapid growth in e-commerce and the introduction of Industry 4.0 are fueling a boon in logistics. 4.9 and 5G private wireless networks are helping operators stay competitive and help their customers take just-in-time management to another level,” said Head of Logistics Vertical at Nokia, Venkatesh Ramakrishnan.
Five mega trends are impacting the logistics industry. First, there has been major consolidation over the last decade driven by cost pressures, customer expectation for reduced deliver times and improved quality of service.
Second, geopolitical tensions and trade disputes in the past few years have caused some global supply chains to consider moving manufacturing and distribution facilities closer to their customers (near-shoring).
Third is the drive for environmentally sustainable solutions, which also drives a more decentralized supply network and solutions like rail transportation where possible.
Fourth is the new additional strain that COVID-19 has put on the global supply chain. Pre-COVID, some businesses wanted to optimize their supply chain by using warehouses in lower cost jurisdictions and relying on effective logistics to manage spikes. But the pandemic caused abrupt breakages in the chain, forcing businesses to think again and get more resilient to ever changing market dynamics.
Fifth is new competition. Amazon and Alibaba have shown what is possible with supply chain management and operate their own distribution businesses.
Private wireless networks, starting with 4.9G (super-charged 4G) and migrating to 5G as business needs emerge, bring a number of enablers—ultra-low latency, high bandwidth, wide coverage and mobility—which, combined with simple deployment of IoT devices provide the perfect platform on which Logistics businesses can drive digital transformation.
For instance, cost pressures can be managed by automating processes and using robots. These require low latency which can’t be provided by WiFi, but can be delivered on private wireless networks. Digital twins of the supply chain process can give customers the confidence they need in a parcel’s logistics journey. Enabled by IoT and analytics platforms, logistics operators can provide a step-by-step trace of where a package originated, how long it sat in a warehouse and how it was handled in transport. As operators continue their digital journey they can upgrade to higher bandwidth 5G to scale warehouse automation and enable augmented reality and 4K drone inspections for improved quality of service.
Governments are recognizing the opportunity that private wireless and 5G brings to business. Many countries have released spectrum for private wireless indsutrial site use and Ofcom in the UK, and Bundesnetzagentur in Germany, are now providing license spectrum suitable for 5G private wireless.
Digitization and Automation
As the world ships more goods, logistics operators are grappling to reduce delivery time, waste and costs. At the same time, they are seeking to give customers transparency in the supply chain, they are having to adapt to changing levels of demand and supply, and they need to be able to offer customized solutions and higher quality service.
These goals will be achieved using digitization and automation in what the industry is calling Supply Chain 4.0. And it’s being made possible by new telecom networks and the Internet of Things (IoT) where sensors can be connected to almost anything. In this new world order, all goods are connected, machines are controlled remotely or autonomously, and big data analytics creates self-optimizing networks fueled by artificial intelligence.
In a typical supply chain, materials travel from the supplier to the customer factory where they are assembled into goods and then sent to a distribution center. 4.9G and 5G private wireless networks and IoT have a role in digitizing and automating the factory, warehousing and transportation environments. Processes that were done manually such as packing, moving, and controlling inventory can now be completely automated. Augmented and Virtual Reality can remove the operator from the immediate vicinity.
5G and IoT also support the last mile delivery whether that be to the retailer, another factory or directly to the end consumer. Goods can travel by sea, plane, rail, road, and increasingly by drones. Asset management services such as indoor ultra-precise positioning, global tracking and condition monitoring provide operators with asset localization and supply chain control.
Wi-Fi vs Private Wireless
Factories, warehouses and ports share similar challenges. All require dynamic changes to the physical layout which would be impractical if fixed cables were used for connectivity. Likewise, the heavily metallic environments create Wi-Fi blind-spots since signals can’t penetrate through the shelves, production line equipment or containers. And all environments rely on automation which requires low latency and reliability in the network which Wi-Fi can’t provide.
Private wireless offers greater capacity, a more robust signal, lower latency, greater security and can be used when connected devices are on the move.
Transitioning to a private wireless network also simplifies the technology for logistics operators by replacing all the existing networks such as Wi-Fi for data, voice solutions over the public network, an IoT network such as LORA and separate ultra-wideband networks for indoor positioning.
And Private Wireless can start today with 4.9G for reliable connectivity for critical use cases and be migrated to 5G as needs are expanded.
Moreover, private wireless enables network slicing whereby a dedicated slice of the network can be allocated for particular services, or in the case of a logistics park, the park owner can provide private wireless for the whole park and offer individual businesses their own dedicated slice of the private wireless network.
- Private wireless network advantage over Wi-Fi
- Higher reliability with fewer blind spots and better signal penetration
- WiFi works better when devices are stationary. Wireless networks are also designed to connect devices which are on the move
- Greater capacity. Private wireless network can handle several thousand devices per cell, whereas Wi-Fi can only handle up to 15 devices per access point
- Most importantly, lower latency, even with 4.9G, for more sophisticated use cases such as robotics which work to Service Level Agreements (SLAs)
- Operators can start with a 4.9G network and upgrade to 5G with a software patch to add capacity and lower latency as required
The early adoption of a private wireless network at Nokia’s Oulu facility enabled the company to maintain productivity and delivery for its customers during the pandemic. Robots can add telepresence and material transport to the production line, multiple sensors utilize the network for communication and video analysis assists quality assurance without having people physically present on-site.
Welcome to Nokia Oulu factory
5G difference
While 4.9G private wireless networks can support many of today’s use cases for logistics operators, as their digital needs develop, operators can easily upgrade to 5G.
As warehouses and factories are automated, operators can reduce costs by migrating to edge computing which requires the ultra-low latency and ultra-high reliability of 5G. Here the bulk of the computing power of the robots is moved to the network core, meaning robots can be lighter, more agile, use less energy and are less expensive. 5G also enables the deployment of Virtual and Augmented Reality, 4K camera based applications which can be used for ultra precise monitoring and in-built indoor geo-positioning capabilities to help track assets.
Simplification is crucial when security is considered. With more connected devices, the rate of attempted attacks is increasing. According to the Nokia Threat Intelligence Report published in October 2020, there has been a 100 per cent increase in IoT malware infections since 2018, and IoT devices now make up roughly 33 percent of infected devices, up from about 16 percent in 2019. By adopting network slicing over 5G, operators can create virtual private networks for insecure devices thereby securing them on by default.
5G also provides a sustainability advantage. 5G is more energy efficient and can potentially provide 100 times more traffic with the same energy.
Asset management
A whole ecosystem exists for sensors which can be attached to packages and machines which can be tracked and monitored through services such as Nokia’s Worldwide IoT Network Grid (WING). At the basic end sensors enable operators to track location and motion and can also provide geofencing whereby a response is triggered when the device enters or leaves a particular area. In the automotive world, car makers (OEMs) subcontract the manufacture of many parts, but the OEM retains ownership of the tools, for example the die used to press a door. Using IoT geolocation they can monitor the tools, which is essential for tax and production oversight. At the top end, operators can monitor condition of packages through temperature and vibration checks.
Nokia’s role in Private Wireless
Nokia has more than 220 private wireless enterprise customers worldwide, of which 30 comprises 5G. In July 2020 the company announced the first commercial 5G standalone (SA) private wireless networking solutions for enterprise customers, paving the way to accelerate digitalization in the most demanding of use cases, where cloud, robotics and autonomous machine operations create mission-critical demands for reliable low latency and high data rate.
For a typical logistics operation of 5,000 m2 plus, the equipment to operate the network would fit in a suitcase including the radio antenna for inside and outside and with ranges of a few metres to 50km. Nokia’s Digital Automation Cloud (Nokia DAC) plug-and-play solution is an industrial-grade digital automation service platform that provides a reliable, secure, and high-performance private wireless network. A compact system with automation enablers, it comprises network equipment and a cloud-based operation monitoring system. With Nokia DAC, users can securely collect, process and host all generated proprietary data on site. For more complex operations, logistics operators can customize their network according to needs with Nokia Modular Private Wireless. Both solutions are available in 5G.
Alibaba’s Cainiao
Nokia has deployed a private wireless network at Alibaba’s Cainiao smart logistics network warehouse in China to control multiple automated guided vehicles (AGVs) operating at the facility. Communication control with the AGVs improved dramatically with reduced latency in the network to below 50Ms
Network Intelligence Report 2020
A detailed report on service provider traffic and consumption trends in the year of COVID-19
2020 was a year like no other for communications service providers. With COVID-19 driving radical shifts in customer behaviour, almost every service provider saw huge increases in traffic across their networks.
Nokia Deepfield helped our customers to monitor the changes as they happened. Drawing on traffic data kindly provided by many of our customers worldwide, as well as data from our own patented Deepfield Genome, we’ve compiled our insights into one definitive 2020 report.
The report traces network traffic trends throughout the year as lockdowns started and eased, and as people adopted new digital habits for work, play and relaxation – some of which may now become permanent.
