Virtualized Routers for 5G Transport: Webinar Replay Now Available

If you want to learn more about how virtual routers, or vRouters, will be used to meet the demands of 5G transport and other next-gen services, check out the on-demand recording of the webinar, “Virtual Routers for Flexible, Future-Proof 5G Transport.” Click here to listen to the free recorded session, and you’ll also be able to download the presentations, a special market report by IHS Markit Executive Director Heidi Adams, and a number of other resources on this topic.

The 60-minute webinar, co-sponsored by Fujitsu, first aired on December 10, 2019, and was hosted by IHS Markit, the London-based data and information services firm. Allen Tatara, Senior Manager at IHS Markit, served as moderator. A Q&A session followed the presentations.

Presenters included: Joseph Mocerino, Principal Solutions Architect, Optical Networking, Fujitsu Network Communications; Heidi Adams, Executive Director, Network Infrastructure Research, IHS Markit; and Hugh Kelly, Vice President of Marketing, Volta Networks.

The global audience included network operators, service providers, equipment manufacturers, and enterprise end users. The presentations and Q&A covered a number of topics, including:

  • The market trends driving IP network evolution;
  • An introduction to virtualized routing architectures and virtual routers;
  • The strategies for supporting the delivery of network slices for 5G services;
  • The challenges facing this network evolution; and
  • Several use cases and deployment examples.

5G will bring the promise of ultra-broadband speeds, ultra-reliable low-latency services, and the ability to massively scale communications for a wide range of devices and next-gen applications like Internet of Things (IoT), Smart Cities, telemedicine, and connected cars. But these services will also place new demands on the underlying IP transport infrastructure impacting how we will design our networks in the future.  

In particular, the way routing is delivered into the network must evolve. In response, the implementation of new solutions – such as cloud-native virtualized routers – are emerging to enable higher-capacity, more flexible, and less costly IP networks. In fact, a recent survey by IHS Markit revealed that 95% of service providers had plans to virtualize at least one or more of their network functions or applications. All these topics and more are covered in the webinar, so don’t miss this opportunity to learn about how cloud-native virtualized routers will play a leading role in meeting 5G transport requirements. Click here to listen to the free recorded session and download additional market insights on these emerging topics.

Demystifying 400ZR and ZR+ Coherent Optical Technology: Webinar Replay Now Available

If you missed the Fujitsu co-sponsored webinar, “400ZR and ZR+: Enabling Next-Generation Data Center Connectivity” or want to listen again, an on-demand recording is now available. Click here to listen to the recorded session. You’ll also be able to download the presentations, a special report from IHS Markit, and the application note, “400G ZR – Enabling Data Center Evolution” by Rehan Zaki, Principal Architect, DCI Strategy and Planning from Fujitsu Network Communications.

The original 60-minute webinar aired on November 12, 2019, and examined the coherent optical solutions enabled by the new and developing standards: 400ZR and ZR+. The session was hosted by IHS Markit, the London-based data and information services firm. Allen Tatara, Senior Manager at IHS Markit, served as moderator. A Q&A session followed the presentations.

Attendees came from around the globe and across industry sectors including data center operators, service providers, cable network operators, mobile network operators, transceiver and transponder vendors, coherent optics companies, and financial analysts.

Presenters included: Rehan Zaki, Principal Architect, DCI Strategy and Planning, Fujitsu Network Communications; Joerg Pfeifle, Solution Manager for Coherent Test, Keysight Technologies; Scott Swail, Vice President, Business Development, Lumentum; and Timothy Munks, Principal Research Analyst, Optical Networking Technology at IHS Markit.

The presentations and Q&A covered a number of topics, including:

  • Insights from these industry leaders on standardized and interoperable 400G pluggable coherent optics and strategies for testing these new transceivers;
  • The value proposition and use cases for 400G ZR and 400G Open ROADM transponders;
  • Applications for pluggable and interoperable transponders from data center interconnect (DCI) to long haul; and
  • The unique challenges of optimizing equipment and processes for this new set of coherent modems during their manufacturing and deployment at data centers.

Data center bandwidth is growing from 20-40 percent year over year, according to IHS Markit estimates, driven by applications like video streaming, industrial IoT, 5G backhaul and cloud services. And as the demand for data center capacity grows, so will the number of data center interconnect (DCI) networks.

To accommodate future network requirements, 400G+ technologies are forecast to support about 50 percent of the deployed bandwidth by 2022 enabled by the 400ZR and ZR+ standards. These new standards, developed by the Optical Internetworking Forum (OIF), define the implementation of coherent technology. They promise to substantially increase bandwidth capacity between data centers, while reducing footprint, power consumption, and the cost per bit for coherent transport. If you want to learn more about these new technologies and and how they will impact your operations, don’t miss this opportunity to get up to speed with the latest market insights into 400G ZR compliant optics. Click here to listen to the on-demand session.

Five Community Benefits to Build the Case for Broadband Network Investment

Widespread access to broadband is changing the way we live, work and design our cities. But not every community is benefiting from this sweeping change. This is especially true across rural America, where the digital divide threatens to leave many smaller communities behind.

For these communities and the rural electric co-ops that serve them, access to high-speed broadband services can be a game-changer. All too often, what stands in their way is a question of stakeholder buy-in. To answer typical hesitancy around the price tag, the best starting point is clear information about the community benefits and economic impacts.  

In summer 2018, Purdue University’s Center for Regional Development released a study[i] indicating the state of Indiana could generate a $12 billion economic impact over 20 years with a meaningful investment in bringing broadband access to rural areas. The report, commissioned by Indiana Electric Cooperatives and Tipmont REMC, estimated that every dollar invested in broadband returns nearly four dollars to the economy. By any measure, a 400% ROI is impressive.

While electric co-ops and public power utilities are well aware of the potential benefits for their communities, the decision to invest in fast broadband requires consensus from multiple stakeholders. Depending on the organization, this can include obtaining buy-in from board members, local government and key community leaders. That means overcoming the fear, uncertainty and doubt (a.k.a. “FUD Factor”) inherent in any significant change.

The most crucial step in any rural or municipal broadband initiative is always the first one—building the case. The “go, no-go” decision typically comes down to a rigorous cost/benefit analysis. Stakeholders must understand why investment in broadband makes sense and realize that by not investing, they are doing a disservice to the communities and customers they serve. It is up to the utility to illustrate the power of the technology and the value of the investment in it.

Entire books have been devoted to the benefits of broadband access. Boosting broadband in rural and smaller communities can spark growth in diverse areas including education, economic and workforce development, innovation, consumer savings and farm income. Below are five broad areas where the effects are especially keenly felt.

Improved quality of life: Telecommuting, for example, allows individuals to choose where they live based on the quality of the community, not its proximity to their office. According to the 2017 Virtual Vocations Year-End Report, one in four US workers now telecommute thanks to accessible, affordable broadband. Broadband also enables a wide range of benefits such as telemedicine, distance learning and improved access to content and social media, all of which translate to better health and quality of life.

More responsive, efficient civic leadership: In cities large and small, local governments are using broadband to significantly improve how they respond to changing needs in their communities. This includes using broadband’s high-speed video capabilities to host virtual town halls. Affordable community-wide access also encourages convenient online self-service, so that residents can renew their driver’s license, pay property taxes and utility bills, and get updates on municipal construction, all without leaving their homes. By enabling mobile technologies such as geofencing, a broadband infrastructure allows public safety officials to share critical information regarding weather and potential emergencies. It also provides real-time data transmission that helps police track and respond to public safety threats.

Modernized electric system: A fiber-based infrastructure enables utilities to create a smarter, more resilient grid that can scale in size, scope and services as the community grows. One result is improved overall service reliability that reduces power disruptions and speeds outage restorations. Using remote technologies to monitor the smart grid, utilities are also able to reduce peak energy loads to save operational costs. Electric co-ops can also generate new revenue from additional fiber services to offset flat or declining electricity revenue.

Enhanced business services: Access to super-fast fiber infrastructure is vital for business productivity and growth. It enables businesses of all sizes to take advantage of the Internet of Things (IoT), automation, workforce mobility, and improved research. Perhaps more importantly, broadband opens doors for local businesses to access global markets and sell their goods and services to consumers and suppliers around the world. 

Long-term community growth: A digital infrastructure that is both utilized and evolving is a leading indicator of a vibrant and growing community. Connected schools and libraries, an educated workforce, virtual medical services and more efficient use of resources all make communities more attractive to new businesses and families, while enabling existing residents and businesses to keep flourishing.

This list represents a tiny sample of benefits that can bolster a strong case for rural and municipal broadband investment. Each utility must pick and choose the benefits that best apply to their communities. Once the benefits have been articulated, they are measured, and the results evaluated. The process of building the case has the added benefit of helping the utility or co-op clarify its vision, goals and strategies to ensure that the community-inspired project delivers the right results.

A successful broadband initiative is founded on community consensus and support. Building a broad and strong base begins by developing a business case that is both aspirational and impossible to ignore from a cost/benefit perspective. At Fujitsu, helping utilities and co-ops make the strongest possible case for broadband infrastructure and getting stakeholders to rally around a shared vision is a big part of what we do. Our vision?  Obliterate the digital divide, one community at a time. For more information, visit us at https://www.fujitsu.com/us/products/network/industries/utility/index.html


[i] Estimation of the Net Benefits of Indiana Statewide Adoption of Rural Broadband; Purdue University Center for Regional Development, research study; August 2018

So, you’re ready to design and build a CBRS LTE network?

Citizens Band Radio Service (CBRS) has arrived and with it, 150 MHz of prime 3.5GHz spectrum in a low-cost shared spectrum model with few barriers to entry. Described by the FCC as “the innovation band”, CBRS LTE has attracted a variety of existing and new network operators. They include traditional small, medium and large service providers, as well as municipal public broadband operators, private enterprises and vertical markets such as utilities, education and transportation.

The initial view of CBRS 3.5GHz shared spectrum shows great potential for many exciting, new use-cases. While the opportunities are numerous and diverse this new ecosystem presents many operational challenges. For starters, planning, designing and deploying a CBRS LTE network involves more capabilities and resources than most organizations can provide.

What’s involved?

Companies ready to invest in owning and operating a CBRS LTE network already have a vision of what they want it to do. But the process of designing, engineering, building, provisioning, testing and ultimately turning up the network involves multiple layers of inter-dependent complexities. The following is a partial list of what’s involved:

The skills and experience needed for a company looking to own and operate a CBRS network present significant challenges. Designing the radio access network (RAN), for example, typically involves as many as half a dozen vendors or more—radio heads, baseband unit, outside plant, EPC, licensing, etc. And while LTE is a relatively mature technology, CBRS has attracted several new pure-play suppliers who must be engaged and vetted as well.

For non digital-native organizations, like public utilities and municipalities, the lack of technical expertise and vendor relationships create even more challenges. These organizations, however, typically realize that they do not have the technical chops and resources to pull off a CBRS network design/deployment project by themselves. It’s often the smaller and mid-sized service providers who are most likely to wade into a design/build project alone only to find that they have bitten off a bit more than they’re equipped to handle.

Third-party Services Integration (SI)

An alternative to the in-house approach is to outsource part or all of the project management to a third-party services integration partner. An experienced, well-equipped SI partner not only enables you to free up internal resources, they often have existing tools, processes and relationships that can accelerate the project and generate greater cost savings.

As with any outsourced relationship, finding the right fit is critical. At Fujitsu, we have completed hundreds of full and partial network SI management projects. Based on our experience, here are a few recommendations for finding and selecting an SI project partner.

  • Vendor-neutral: This is key to ensuring you have access to the technology and services of all available vendors, not just those your SI partner works with. At the very least, if your partner does not have an active agreement with a potential vendor, they should commit to obtaining it.   
  • Needs-based a la carte services: The contracted scope of services should be dictated by your needs and in-house capabilities. The ability to pick and choose the services you need will deliver greater value and enable you to allocate internal resources as you see fit.   
  • Holistic release management: Any multi-vendor inter-operational solution involves a vast range of software and hardware components that must be integrated into the final product and managed going forward. A holistic release management approach ensures that any inter-operational conflicts are handled within the context of the entire project.

Ask, ask, ask

Finally, a good partner will work with you to define the project’s goals, scope, requirements and sequence. This means checking in repeatedly to make sure you understand what they are proposing and why. Don’t be afraid to ask questions. The process is complicated and the technology, complex; they may have been brought in for their technical and project management expertise, but you own and are ultimately responsible for your CBRS network. The more you know, the more successful it will be.   

Headed to Mobile World Congress in Anaheim? Please visit Fujitsu in the CBRS Alliance OnGo Pavillion . We’d welcome the chance to speak with you about your plans for CBRS LTE integration. To learn more about what we offer, check out our Services Integration portfolio.   

Expanding the Scope of Data Center Network Automation

In the data center world, downward pressure on operations costs, coupled with the demands of managing large numbers of devices, has produced an approach to configuration management that prioritizes efficiency, simplicity, and automation. Essentially, data center operators must make it easy not just to configure large numbers of new devices, but also to monitor and manage clean device configuration data over time, particularly with reference to change control.

Data center operations staff are increasingly using open-source network automation tools to manage configuration data stored in a network-wide master data center database that models the entire network and is separate from the data specific to individual devices. Configuration data is periodically refreshed, by re-applying the data in the master database to the devices, ensuring their configuration matches the records in the master database.

Many data center operators are working towards automating all operations, not just configuration management. While some develop their own platforms, most utilize Ansible as their automation framework. Developed in Python, the Ansible automation platform allows a data center operator to automate the configuration, upgrade and orchestration of their servers, databases, and networking devices.

Network vendors providing solutions to data centers need to provide comprehensive support for the open source platforms and technologies used by data center operators to automate routine procedures such as configuration monitoring or data refresh. As discussed in our technology brief about automating data center operations, Ansible, RANCID and Oxidize are enabling development of increasingly sophisticated automation tools.

Tools for applications such as automated analytics and telemetry are expected to become commonplace in the near future as data centers expand the range and sophistication of their automation capabilities. The Fujitsu FSS2 system software platform, which is built into the 1FINITY family of optical network products, incorporates modules and plug-ins that support Ansible. Ansible is an automation tool that the data center market uses to monitor their devices and what changes may occur on them. These plug-ins are a set of python scripts, which data center customers can install into the Ansible tool that the customer has on their server.   We expect to continue building on this set of plug-ins, as well as to collaborate with customers using our GitHub website to develop more advanced tools that go beyond configuration management. A set of Ansible tools is in the late stages of development and these will be available on this GitHub server in the coming weeks.

Evolving your FLASHWAVE 9500 Network with the Fujitsu 1FINITY™ Platform

Today’s telecom service providers are confronting powerful market drivers that are challenging their network operations and business models. First, a plethora of new technology options are now available to upgrade legacy networks, but this creates interoperability issues between existing and new hardware and software. Second, constant growth in customer demand for bandwidth is challenging service providers to create networks that can economically keep pace. Lastly, continuous innovation in the services and applications that customers require adds another layer of complexity. Designing an agile network that can quickly accommodate new end-user services is critical.

The good news is for those service providers that have an existing Fujitsu FLASHWAVE® 9500 network: they are in a much better position to evolve their network than those based on other legacy infrastructure. 

To facilitate this evolution, Fujitsu has developed the 1FINITY™ platform to take service providers and their networks into the future. 1FINITY is an open, modular blade-based portfolio of products that provides flexibility, scalability and programmability to customers in a pay-as-you-grow business model.

A key product in the 1FINITY family is the S100, a 1.2 Tbps Ethernet switch capable of supporting 1GbE, 10GbE or 100GbE interfaces. There are three different scenarios that illustrate how a FW9500 network can leverage the S100 to effectively grow and meet future demands.

SONET Configuration

Consider a network where each FW9500 is configured as a SONET multiservice provisioning platform (MSPP). Most service providers have found that as their network grows, it is more economical to convert the protocol from SONET to Ethernet as soon as possible and add support for Ethernet switching functions. With the FW9500, you can add an Ethernet over Anything (EoX) gateway that performs this protocol conversion. Then, you can augment the FW9500 with a 1FINITY S100 to provide Ethernet switching to a 10GbE or 100GbE interface. The FW9500 can also provide DWDM capabilities if that function is needed.

Packet-Optical Configuration

Consider a FW9500 network deployed as a 10GE packet-optical transport platform (POTP) for wireless backhaul or business services. In this scenario, the FW9500 is a converged platform equipped with a switch fabric that provides Ethernet switching and DWDM functionality. As demand grows, the need for 100G outstrips the FW9500 10G capabilities. However, by augmenting the FW9500 with the S100, you can provide 10GbE to 100GbE aggregation and a direct connection to the FW9500 ROADM by using the 100GbE DWDM narrow-band module. This enables the FW9500 100G lambda capability to carry these aggregated services on a DWDM network while increasing the capacity of the existing ROADM network tenfold. Additionally, you free up card slots on the FW9500 because it becomes a ROADM-only system.

In an earlier application note, “Mobile Backhaul 100GbE Migration,” Fujitsu demonstrated how service providers can achieve a savings up to 44% in capital expenditure over the present mode of operation using this augmented network approach.

DWDM Configuration

Consider a FW9500 network that is deployed as a 10G ROADM network. In this scenario, the FW9500 simply provides DWDM functionality. As demand grows, the need for 100G and Ethernet switching services outstrips the FW9500 10G ROADM capabilities. By adding the S100 with a 100GbE DWDM narrow-band module, the network is transformed into a POTP network that provides carrier Ethernet services, such as E-Line and E-LAN, as well as 100G lambda services over the FW9500 ROADM.

Managing Your Network with the Fujitsu Virtuora Network Control (NC) Solution

In all of these scenarios, both the FLASHWAVE 9500 and 1FINITY S100 platforms can be managed by the Fujitsu Virtuora Network Control (NC) solution, a range of software products that enable you to build and grow a virtualized, programmable network. The Virtuora NC solution encompasses control, planning and design, operations and management, and service fulfillment and assurance functions.

Summary These three scenarios clearly show that starting your network evolution with Fujitsu’s FW9500 network has significant advantages. A FW9500 network enables you to meet the demand for interoperability, scalability and service innovation when upgrading your network. Augmenting an existing FW9500 network with the 1FINITY S100 allows you to leverage your infrastructure investment, grow your network economically and pave the way to 100G traffic based on packet switching technology.

Do You Have the Bandwidth to Manage Your Broadband Network? Part 2

The second installment of our two-part blog on network management, we look at why small broadband service providers— such as tier 2/3 telecommunications providers, electric co-ops, and public power utilities—might choose to outsource their network operations center (NOC) rather than setting up and operating their own.

A Little NOC Refresher

In case you missed Part 1, the NOC is the network’s command center. It houses the personnel, equipment and processes necessary to monitor and manage network operations and respond to issues in the field as they occur. The NOC is also responsible for maintaining and implementing a disaster recovery protocol in case of a catastrophic network failure. For this same reason, each network is typically supported by two NOC facilities to ensure full redundancy.

Some of the critical functions of the NOC include:  

  • Network monitoring and incident response
  • Monitoring and managing SLAs to ensure compliance with performance and quality standards
  • Managing hardware and software version updates
  • Maintaining uninterrupted power supply, redundant fiber paths, and sufficient network capacity
  • Securing the network with firewalls, intrusion prevention systems, threat analysis, and antivirus filtering

As discussed in Part 1, creating, staffing and equipping a full-service NOC capable of 24×7×365 monitoring and response can quickly become cost-prohibitive for smaller broadband service providers. The alternative is a contract with a third-party provider for outsourced NOC services.

Outsourcing NOC Services to a Managed Services Partner

Outsourcing a NOC typically involves the managed services partner’s redundant centralized remote facilities connecting to your network via highly secure, redundant high-speed connections. Each of the partner’s NOC facilities is equipped with the personnel, equipment and processes needed to provide complete network monitoring, incident/fault response, field service help, and disaster recovery procedures.

Aside from the obvious upside of not having to build and run your own redundant NOC, a third-party arrangement offers other attractive benefits:

  • Economies of scale: A provider with the resources and capacity to deliver managed NOC services to multiple customers can enable cost savings and performance improvements that you can’t achieve operating on your own. 
  • Staff utilization: A third-party arrangement enables you to allocate your in-house staff where they are most needed. 
  • Customization and control: Third-party managed service providers generally have extensive technical expertise and resources, giving them greater ability to customize solution designs and configurations precisely for your network.
  • Reduced risk: The certified NOC engineers employed by a managed services provider have breadth of experience and knowledge that ultimately reduces your business risks.

Understanding Your Managed NOC Service Options

Providers of managed network operations offer an array of choices that let you get the biggest bang for your buck. It’s worthwhile to allow yourself time for comparison shopping and negotiation.

At one end of the spectrum is a full-service contract that offers 24×7×365 monitoring and response, with full NOC facility redundancy. If you’re thin on qualified personnel, this may be the right option that more than justifies the price tag. Even if your NOC services provider is “handling everything,” you’ll typically retain control over many areas, such as reporting requirements, thresholds for elevating service tickets, etc.

At the other end of the spectrum, highly customizable NOC management plans allow you to control pricing by picking and choosing the capabilities you need. Most plans provide a basic set of services and capabilities that you can supplement with value-added or customizable service selections. Your service provider might, for example, enable you to build a NOC management plan around back-office functions, such as performance and alarm monitoring, after-hours support, and disaster recovery. 

Typical add-on managed NOC services include:

  • Spare parts management: Onsite replacement of hardware within four hours
  • Back-office systems: Monitoring, ticketing and management dashboards
  • Network operations: Fault management, performance optimization, and cybersecurity
  • Smart hands: Experienced technicians deployed onsite for installation, testing and replacement

Tips for Creating an Outsourced Program that Works

Regardless of the range of choices available, the most important choice is a program and provider that works best for you. Making the right choice of provider and plan begins with having a clear understanding of what your needs are. With that in mind, here are a few tips for selecting the right provider and service.

  • Define your short-term and long-term goals. Examples might be managing for the best combination of co-op growth, for technology migration or for financial stability.
  • Map your existing skill sets, operational processes, and resources against the complete list of needed roles and responsibilities to identify gaps.
  • Target and prioritize areas to be outsourced.
  • Select the provider and level of partnership that most closely aligns with your needs and goals.
  • Expect a high level of ongoing involvement and communication from candidate providers and ensure they fully understand your needs and challenges.

By using a fully vetted NOC provider, along with a strategically designed and customized service plan, smaller broadband service providers can manage their next-generation networks for growth and revenue without breaking the bank.

Fujitsu Managed Network Services offers quality and reliability, plus the peace of mind that comes with dependable protection. We work with you and within your budget to align our end-to-end capabilities with your specific needs. For more information on our NOC management services, visit the Network Services section on the Fujitsu website.

OSS and Orchestration Challenges in a 5G World

The 5G network is virtualized through a complex interlinking of individual components running as Virtual Network Functions (VNFs), and network slicing. While VNFs have been around for a while, network slicing presents itself as the next step in SDN technology—amounting to full virtualization of the network from radio to core. The separation of the network into VNFs and Network Slicing provides a huge leap forward in network flexibility, but the price of this advancement is that it will make orchestration and management much more complex.

My earlier blog, “A Domain Approach Could Simplify 5G Network Management,” examined the potential benefits of domain-based management as a remedy for the inherent complexity of 5G networks. In this article, I’m looking at the real-world OSS and orchestration challenges we’re encountering as we work with customers towards full 5G roll-out, including the timelines and best practices to prepare the 5G operations toolset.

Breaking Down the Challenges

5G OSS and orchestration present challenges in three primary areas: 

  • Mobile network: Virtualization of the Radio Access Network, the new 5G core, transport architectures built for slicing, and large-scale virtualized infrastructure
  • Software platforms: SDN/NFV management for increasingly prevalent open source in the OSS, as well as for Linux Foundation networking and edge initiatives
  • 5G services: A new, distributed approach to enable management for ultra-reliable, low-latency, and massive machine communication services

The Timing

According to Heavy Reading’s March 2019 survey of 5G operators, almost 80% of them expect to deploy 5G technology in the next two years. At least half expect to start transport upgrades for 5G by the end of 2019. Finally, by 2022, these operators expect to see the arrival of massive machine type communications and network slicing. 

The evolution of OSS and orchestration should focus first on new radio and transport, followed by vRAN, and then on new services and slicing.

Key Functional Areas

Key functional areas within a domain-based management approach include:

  • vRAN and radio management and control
  • Transport network management and control
  • Virtualized infrastructure orchestration and management
  • Core network management
  • End-to-end: inventory, service orchestration, policy management and assurance
  • Network slice management
  • Design, planning and testing

These areas align with the expected rollout of 5G, as shown in the table below:

Enabling Technologies

Enabling technologies we expect to see include the following: which align with the notional rollout of 5G:

  • Linux Foundation networking and edge open source (i.e. ONAP, ODL, Akraino):
  • AI and machine learning
  • O-RAN – Radio intelligence controller and open APIs
  • Virtualized infrastructure management and orchestration: open-source MANO, OpenStack, Kubernetes, Akraino
  • Standards from 5GPP, ETSI and others.

The Linux Foundation provides a useful summary of these inputs in their Open Source Networking Landscape diagram, as reproduced below (Source: Heather Kirksey, VP Linux Foundation):

What’s Next?

The current state of open-source networking technology means that operators must move carefully, since it is not clear which projects will gain stable traction in the market. There’s no guarantee what direction the market will take, and competing projects risk wasting valuable resources. A phased approach is necessary, with transport and requirements specific to 5G NR taking precedence.

AI and machine learning have become critical due to the scale and real-time nature of 5G. Defining AI use cases and using machine learning to tune AI solutions for 5G will be essential, and the 5G core needs to be managed as part of the end-to-end solution, which also includes coordination of network slicing across all parts of the network.

When it comes to the edge of the network, Multi-Access Edge Computing and IoT will bring new requirements for management:

  • Edge management provides low latency 
  • Coordination between IT resources at the edge, and the vRAN and transport networks ensure real-time demands can be met.
  • IoT brings a high volume of devices to the network that require new approaches to bring high volume, energy efficient management.

Conclusion

Each phase of mobile networking across initial roll-outs of 2G, 3G and 4G, introduced OSS and orchestration to manage that specific network’s infrastructure and services. In the past, these deployments often took place after the fact, and were typically built independently for each part of the network. This led to the creation of OSS silos for each part of the network, with little correlation between them. This process won’t work for the 5G network.

5G needs a new way of thinking about end-to-end management. Openness, virtualized infrastructure, real-time services, and the volume of devices and cell sites all play a role. A careful, planned, and timely rollout out is needed for OSS and orchestration. Only then can operators deliver a successful 5G experience.

Top Four Takeaways About 5G Transport You Need to Know

With the promise of massively increased speed and capacity, there is a lot riding on the success of next-generation 5G technology. To be more accurate, one might say there is a lot riding on the 5G transport network specifically, given the critical role that transport will play in enabling high-bandwidth, ultra-reliable and ultra-low latency applications for 5G.

As communication service providers (CSPs) urgently plan their commercial 5G deployments, the most important first step is mapping out the backhaul, fronthaul and midhaul transport architectures to ensure the best possible customer experience. In order to gain valuable insight into the current and future state of 5G transport, Fujitsu partnered with analyst firm Heavy Reading to conduct an in-depth survey of CSPs from around the world. Here are just a few noteworthy findings from this comprehensive 5G research.

5G is open for business —Survey results clearly indicate interest in moving toward open interoperability with 5G. A large majority of respondents reported that RAN interoperability between radio unit (RU) and baseband unit (BBU) equipment was at least “very important” to them, with a sizeable number citing RAN interoperability as a “critical” requirement.

Appetite for bandwidth —According to the survey, the need for more capacity is the primary driver behind the desire to upgrade midhaul and backhaul networks. In fact, nearly 30% more respondents cited capacity versus those that selected latency, the second highest response.

A central theme —Although some CSPs adopted centralized RAN (C-RAN) with advanced 4G, for most operators this approach means transitioning to a completely new architecture for 5G. Despite the challenge that represents, survey results show growing interest in RAN centralization across a number of regions.

When do we want it — To meet expectations for commercial 5G services, CSPs will first need to have a robust transport network in place. When asked in what timeframe they will begin launching 5G, more than 50% of respondents said they expect to launch initial mass-market services by 2020. To learn more about the state of 5G transport, click here to download a complimentary copy of the 2019 Heavy Reading Survey: “Operator Strategies for 5G Transport.”

How to Make Your Utility Smarter … And What You Stand to Gain

With the advent of 5G, the Internet of Things (IoT), and cloud technologies, smart infrastructure enabled by high-speed connectivity is now closer than ever to being truly ubiquitous. These trends are driving a variety of advancements across a wide range of industries — from cost-efficiency and better customer service, to enhanced safety and security. The utility industry, in particular, is in a prime position to put smart infrastructure technologies to good use.

Many of today’s utilities — whether they are public power, investor-owned, or rural electric cooperatives — are struggling with how to evolve their business model in response to several imperatives:

  • De-carbonization – Reducing current and future carbon footprints by leveraging renewable energy resources
  • De-centralization – Expanding energy solutions to include wind, solar, hydro, micro-grids and other distributed energy resources
  • Digital transformation – Increased data harvesting to inform key decision-making

By embracing smart technology, utilities stand to benefit from the potential positive impacts of trusted data on their business operations, including service offerings that were not previously possible. These benefits offer utilities opportunities to preserve capital, increase revenue, build stronger customer engagement, and strengthen future viability to meet new or unforeseen challenges head-on.

Yet for some utilities, the path forward remains uncertain. What are the requirements for building out smart infrastructure, and what is the best route forward?

Building Blocks of a Smarter Future

Alongside the recent evolution of power transmission technologies, many utilities have modernized their communications infrastructure, for example by deploying advanced 100G networks to replace the old standard of 40 Mbps transmission. Investments of this type have provided greater network speed and capacity, creating a bedrock on which power providers can deploy the essential building blocks of a smart utility.

In order to benefit from this bedrock communications infrastructure, a utility needs trustworthy and actionable operating data.  Trusted data is harvested, analyzed and contextualized only by putting in place all (five) smart infrastructure blocks, of which high-speed connectivity is one. Being a smart utility therefore is more than having a fast network, it is about having smart infrastructure. The essential infrastructure blocks of the smart utility include:

  • Sensing Block – Gathers data from IoT devices and sensors, such as cameras, drones, and microphones. Key metrics gathered using sensors might include the speed and direction of turbine blade rotation, system voltage or current, outage detection, suspicious persons, weather conditions, tower pitch, or network connectivity status.
  • Network Infrastructure Block – Fiber and wireless network infrastructure transmits data between IoT devices, cameras, microphones, data management systems and cloud services. Traditional interconnected networks include SCADA, AMI, fiber, core, FTTx, microwave and 4G/ LTE mobile networks. Newer technology options include 5G and Low Power Wide Area Network (LPWAN) technologies.
  • Data Infrastructure Block – Data from the sensing layer is aggregated, stored and processed in the data infrastructure block, making it available for use. Data management consumes significant compute power both in the cloud and on premises, and requires high-availability databases, often referred to as data lakes, that are both secure and scalable.
  • Cloud Services Block – The services block combines cybersecurity, managed network services, artificial intelligence (AI), and big data analytics to ensure data integrity; protect devices; secure and optimize the network; and extract insights. The cybersecurity layer is vital for compliance with NERC-CIP requirements designed to protect critical infrastructure, customer data, and community safety, especially in light of increased cyber and physical attacks aimed at utilities.
  • Smart Applications Block – Smart applications are the user interfaces through which utility executives and employees consume actionable insights, such as real-time dashboards for energy consumption, flow control, leakage detection, and load monitoring.

By deploying these essential building blocks, utilities can infuse their operations with real-time trusteddata. Trusted data can help them increase productivity; improve reliability and efficiency; streamline regulatory compliance; reduce costs and risks; deliver new services; and enhance the quality of customer experience. Consider, for example, how smart technologies could be used to leverage thermal imaging data and the power of AI to identify overheated equipment, or spot emerging fire threats at remote utility substations.

Creating a Smarter Future

At Fujitsu, we’ve seen firsthand how smart infrastructure technologies can make a substantial difference to a utility company’s business and operations models — and their bottom line. As a full-service integration company, we recognize every utility’s unique situation and we help them develop a sensible business plan to deploy the building blocks of a smart utility, making the digital transformation journey together.

To learn more about how to build a smarter utility with the right infrastructure in place to inform better, faster decision-making, contact us to discuss your business case.