How are MNOs and MVNOs harnessing AI for their IoT operations?
- Artificial Intelligence
- AI
- Internet of Things
- IoT
- Communications Service Providers
- CSPs
- Mobile Network Operators
- MNO
- Mobile Virtual Network Operators
- MVNO
- Machine Learning
- ML
- chatbots
- LLM
- generative AI
In June 2024, Transforma Insights will publish its annual Communications Service Provider IoT Peer Benchmarking Report, examining all the facets of the strategies and capabilities of over 25 Mobile Network Operators and MVNOs in addressing IoT, both connectivity and more broadly. As part of the research this year we have asked companies about their experience of using Artificial Intelligence/Machine Learning to support their IoT operations. In this report we aggregate the findings of the research to show the main approaches that are dominating and which are gaining traction. The report identifies nine main ways in which Communications Service Providers are using AI, ranging from administration to networks to commercial.
- 1NCE
- AT&T
- BICS
- Deutsche Telekom IoT
- Deutsche Telekom
- Emnify
- Eseye
- floLIVE
- KORE
- KPN
- NTT
- NTT DATA
- Ooredoo
- Orange
- Pelion
- Semtech
- Sierra Wireless
- Singtel
- Soracom
- T-Mobile US
- Tele2
- Telefonica
- Telenor
- Telia Company
- Telit Cinterion
- Velos IoT
- Verizon Communications
- Vodafone
- Wireless Logic
- Internet of Things
- Hyperconnectivity
- Artificial Intelligence
- Information & Communication
Position Paper - Key considerations for Enterprises looking to adopt SGP.32
- Internet of Things
- IoT
- connectivity
- eSIM
- remote SIM provisioning
- SGP.32
This report, sponsored by Eseye, examines the new SGP.32 ("IoT") standard for Remote SIM Provisioning (RSP) and the ways in which enterprises should be considering its use. SGP.32 is not a magic wand. It does not solve all of the challenges of deploying multi-country IoT connectivity. For most enterprise deployments it is optimally done as part of a managed service which handles all aspects of managing the connectivity besides just the eSIM profile switching. Furthermore, as it is not yet available, any company considering deploying SGP.32 today will need to ensure that a connectivity provider offers a well-considered roadmap for evolving to using that particular standard. The SGP.32 ("IoT") standard for Remote SIM Provisioning was unveiled in May 2023, promising a more streamlined and user-friendly mechanism for enterprises to manage the connectivity on their cellular devices. As an evolution on the previous SGP.02 ("M2M") and SGP.22 ("Consumer") standards, it certainly represents several steps forward, resolving many of the technical limitations on supporting constrained devices and offering a simplified mechanism for handling switch-over of connections between operators. But that is just one element of the story. This report starts with a brief background on eSIM and remote SIM provisioning, with a particular focus on how SGP.32 is an improvement on previous standards. The main focus of the report is on addressing some of the myths and misunderstandings associated with the technology. It is not, on its own, a magic wand that can be used to seamlessly provide unlimited access to every network. The truth is more complicated. Commercial contracts need to be negotiated with network operators, and back-end processes and settings need to be updated to reflect a change of connectivity provider. It's not just as simple as flipping a switch and changing from operator A to operator B. And, equally importantly, SGP.32 is not actually available today and likely won't be until 2025. Therefore anyone looking to deploy IoT imminently will need to use a different option and seek support to migrate to the new standard when it's available. We expect that most SGP.32 deployments will be handled not by the enterprise itself but by a managed service provider (most obviously the existing connectivity providers) handling the orchestration of connectivity changes and providing a managed transition to SGP.32 when the time comes. In the final section we consider what the profile should be of such an SGP.32 managed service provider. There is a very significant risk with SGP.32 that the real (and perceived) benefits will blind enterprises to the realities of the intricacies of managing the overall IoT solution deployment and the requirements for a migration path to get there.
- Hyperconnectivity
- Internet of Things
Generation: Mature power generation contrasts with high-growth micro-generation opportunities
- Generation
- Power Stations
- Solar
- Power Generation
- Wind
- Groundsource
- Cogeneration
- Renewable Energy
- Smart Grid
- Microgeneration
- Wind Energy
- Wind Turbines
- Hydro Electric Dams
- Electricity
- Electrical Power
This report provides Transforma Insights’ view on the Generation market. This segment comprises Power Generation and Microgeneration. Climate change is a major cause of concern as temperatures across the world are rising rapidly causing a series of natural disasters impacting human lives adversely. The need for sustainable sources of energy has grown to help countries achieve their sustainability targets. This has led to high adoption of clean energy production and a growth in these energy-producing facilities. The adoption of clean energy technology solutions will also increase the use of IoT to properly manage them throughout their life. Sensors functioning on a range of long and short-range technologies will be deployed on energy-producing equipment to gain insights into their proper utilisation and function. These solutions will ensure that devices are working at their optimal capacity at all times and provide timely alerts around any maintenance needs to ensure that downtime is reduced. The report provides a detailed definition of the sector, analysis of market development and profiles of the key vendors in the space. It also provides a summary of the current status of adoption and Transforma Insights’ ten-year forecasts for the market. The forecasts include analysis of the number of IoT connections by geography, the technologies used (including splits by 2G, 3G, 4G, 5G, LPWA, short range, satellite, and others), as well as the revenue split between module, value-added connectivity, and services. A full set of forecast data, including country-level forecasts, sector break-downs and public/private network splits, is available through the IoT Forecast tool.
- Green Mountain Energy
- NextEra Energy
- Siemens Gamesa
- Suzlon Energy
- Tata Power Solar
- Internet of Things
- Hyperconnectivity
- Electricity, Gas, Steam & A/C
- Consumer
Inventory Management & Monitoring: 3 billion connected devices by 2033 with Electronic Shelf Labels accounting for the largest share
- Automated Guided Vehicle
- AGV
- Automated Mobile Robot
- AMR
- Bluetooth ESL
- Electronic Shelf Labels
- ESL
- Fill Level Sensor
- Inventory Management
- Logistics
- RFID
- Stock Level Monitoring
- Storage
- Warehouse Automation
- Warehouse Management
- Warehousing
- Suruchi Dhingra
- Matt Arnott
This report provides Transforma Insights’ view on the Inventory Management & Monitoring market. This segment comprises Stock Level Monitoring, Electronic Shelf Labels and Warehouse Management Systems. As is common for many commercial IoT applications efficiency improvements are the primary driver behind the adoption of Inventory Management & Monitoring solutions. There are considerable benefits for reducing the workload on employees, freeing them up for other higher skilled tasks and reducing the errors associated with manual inventory tracking. Greater knowledge of the stored quantity of goods and their flow enables the optimisation of inventories, allowing businesses to operate with a leaner inventory reducing the space and capital dedicated to inventory, or for a greater variety of goods for a given floor space. The growth of e-commerce has also put considerable pressure on improvements in logistics and supply chain processes with customers expecting greater speed of delivery and accelerated fulfilment times compelling companies to adopt inventory management and warehouse automation solutions. One obstacle to adoption is that many of the tasks that Inventory Management & Monitoring automate can be achieved by suitably equipped employees and extensive use of barcodes. Other IoT solutions such as drones and AI-based video monitoring solutions are also being increasingly used for inventory management, which will limit the market to an extent. The report provides a detailed definition of the sector, analysis of market development and profiles of the key vendors in the space. It also provides a summary of the current status of adoption and Transforma Insights’ ten-year forecasts for the market. The forecasts include analysis of the number of IoT connections by geography, the technologies used (including splits by 2G, 3G, 4G, 5G, LPWA, short range, satellite and others), as well as the revenue split between module, value-added connectivity and services. A full set of forecast data, including country-level forecasts, sector break-downs and public/private network splits, is available through the IoT Forecast tool.
- 6 River Systems
- Boston Dynamics
- Fetch Robotics
- Haltian
- Hanshow
- Locus Robotics
- Milesight
- Nanolike
- Pricer
- StockVUE
- Vusion Group
- Internet of Things
- Hyperconnectivity
- Accommodation & Food Service
- Administrative
- Construction
- Health & Social Care
- Manufacturing
- Mining & Quarrying
- Transportation & Storage
- Retail & Wholesale
In-Vehicle Infotainment: A USD20 billion market by 2033 underpinned by increasingly sophisticated and versatile devices
- Internet of Things
- IoT
- Hyperconnectivity
- Connected Vehicles
- Automotive
- Connected Car
- Dashboard
- Hotspot
- In-Vehicle Aftermarket
- In-Vehicle Audio
- Head Unit
- In-Vehicle Infotainment
- In-Vehicle Video
- In-Vehicle Wi-Fi
- Infotainment
This report provides Transforma Insights’ views on the In-Vehicle Infotainment market, accessed through the Vehicle Head Unit or through aftermarket devices. In-vehicle Wi-Fi and media streaming has become increasingly popular amongst consumers over the past decade. In-vehicle Wi-Fi allows passengers to stream media, download applications and internet access. It also allows for media consumption in the vehicle. Previously, media used to be owned, nowadays many consumers choose to stream this media. To make use of this media whilst in a moving vehicle users will require a reliable, high bandwidth connection, driving demand for in-vehicle infotainment. This trend is likely to continue in the future as bandwidth becomes cheaper. However, the ubiquitous smartphone is likely to limit the size of this market, particularly in vehicles with Apple CarPlay or Android Auto installed. Vehicles compatible with smartphone mirroring can take advantage of the vehicle’s controls to access their media. Some drivers will simply choose to use their smartphones to browse the internet or stream media instead. Nonetheless, drivers are increasingly being discouraged from the distractions of smartphone usage whilst driving. Those who wish to lower their risk of an accident or falling foul of local traffic laws will be keen to make use of In-Vehicle Infotainment on the Vehicle Head Unit. The report provides a detailed definition of the sector, analysis of market development and profiles of the key vendors in the space. It also provides a summary of the current status of adoption and Transforma Insights’ ten-year forecasts for the market. The forecasts include analysis of the number of IoT connections by geography, the technologies used (including splits by 2G, 3G, 4G, 5G, LPWA, short range, satellite and others), as well as the revenue split between module, value-added connectivity and services. A full set of forecast data, including country-level forecasts, sector break-downs and public/private network splits, is available through the IoT Forecast tool.
- Alpine Electronics
- Amazon
- Apple
- Audi
- AutoPacific
- BMW
- Continental AG
- Denso Corporation
- Ford
- General Motors
- GM
- Google
- Harman International
- Hyundai
- Kenwood Corporation
- Kia
- Mercedes Benz
- Mitsubishi Electric Corporation (MELCO)
- Montrex
- National Highway Safety and Traffic Administration (NHSA)
- Nissan
- Pioneer
- Rivian
- Sony
- Tesla
- Toyota
- Toyota
- Volkswagen
- Internet of Things
- Hyperconnectivity
Unlocking the true potential of quantum computing
- Quantum Computing
- Qubits
- Quantum Gates
- Quantum Algorithms
- Quantum Circuits
- Quantum Hardware
- Quantum Software
- Quantum Computers
- Quantum Middleware
- Q-day
- Quantum Encryption
- Quantum Cryptography
- Quantum Cloud
- Hybrid Quantum Computing
- Quantum Annealing
The development of quantum computers is well under way. Even though these machines are still in quite early development stages it will not be long before they become mainstream in many industries. Over the past few years, some remarkable milestones have been achieved by different tech giants in this field. For instance, Google was able to construct a quantum computer in 2019 which could do a mathematical calculation in 3 minutes 20 seconds, that would have taken a regular supercomputer 10,000 years to solve. The latest and the most advanced development has been the IBM Quantum Condor processor with a 1,000-qubit capacity. Quantum computing increasingly provides great opportunities to enterprises, especially in the field of new drug discovery, financial trading, and supply chain optimisations. In this report we analyse the contexts in which quantum computing (potentially) has advantages compared to classical computing and the leading use cases for quantum computing. The report highlights ways in which organisations can leverage the advantages of quantum computing already today and also talks about the technologies being leveraged today to apply quantum computing to practical problems and achieve enhanced results. It discusses in detail the use, advantages, and disadvantages of quantum computers in the field of financial services, the insurance industry, medical and drug discovery, climate change, automotive, energy, and telecommunications, and how governments are investing into the technology to aid these developments.
- Amazon Web Services
- Atom Computing
- AXA
- BMW
- Cambridge Quantum Computing
- D-Wave Systems
- Denso Corporation
- E. ON
- EDF
- ENI
- Ford
- Goldman Sachs
- Google Quantum AI
- Honeywell
- HSBC
- Hyundai
- IBM
- Infosys
- IonQ
- JP Morgan
- Mercedes-Benz
- Microsoft Azure
- Pasqal
- Quantinuum
- SE
- Standard Chartered
- Toyota
- Volkswagen
- Willis Towers Watson
- Artificial Intelligence
- Future Technologies
Quantum Computing: Industry Structure and Vendor Profiles
- Quantum Computing
- Quantum Hardware
- Quantum Software
- Quantum Middleware
- Quantum Consultation
- Quantum Cloud
- Qubits
This report discusses the leading players in the quantum computing industry, including companies that provide hardware and software for quantum computing. Vendors are profiled in three categories: Quantum Hardware Providers, including companies specialising in the design, development, and manufacturing of quantum computing hardware. Collectively, these hardware players form the backbone of today’s quantum computing industry, drive much of the progress, and enable transformative advancements. As they continue to refine and scale quantum processors, the potential for quantum computing to revolutionise fields such as cryptography, materials science, and drug discovery becomes increasingly tangible. The Quantum Software/Cloud Service Providers group is comprised of companies that provide relevant software to perform operations on quantum hardware. These companies specialise in developing sophisticated algorithms, programming languages, and software frameworks that enable users to leverage the unique capabilities of quantum computers. The role of quantum software providers extends beyond code development and aims to build an ecosystem that supports the growth of quantum applications. As the quantum computing industry matures, the collaboration between hardware and software providers becomes increasingly crucial to unlock the true potential of quantum computers. Quantum Algorithm Developers/Consultation Providers, providing users with pre-built quantum algorithms to help them accelerate their quantum development plans. They offer educational and training services to enlighten customers about the possibilities of quantum computing in their industry and the most effective ways to use this technology in its nascent stage. The report also highlights development timelines of some of the key vendors in the quantum computing space and different ongoing partnerships between technology providers and industry players and how these partnerships are specifically leveraging quantum computing to strengthen their position in the market.
- 1QBit
- Aliro Quantum
- Atom Computing
- Classiq
- D-Wave Systems
- Fujitsu
- IBM
- Intel
- IonQ
- Pasqal
- Phasecraft
- Quanscient
- Quantinuum
- Rigetti Computing
- RiverLane
- Strangeworks
- Xanadu
- Artificial Intelligence
- Future Technologies
Introducing Transforma Insights’ Artificial Intelligence Market Framework
- Artificial Intelligence
- AI
- Rohan Bansal
- Brad Canham
- Jim Morrish
- Paras Sharma
Two key factors are driving the evolution and diversification of the vendor landscape for Artificial Intelligence (AI). Firstly, AI technologies, and the market overall, are at a relatively early stage of development. Meanwhile the development, deployment and operation of AI-enabled solutions is a complex endeavour in which niche specialist capabilities can significantly enhance outcomes, or efficiency. As a result, the market for products, services, and solutions that incorporate artificial AI capabilities has grown in complexity in recent years. Transforma Insights has developed an ‘AI Market Framework’ which captures the different types of vendors present in today’s AI market. The framework spans three main aspects of AI: Services, Hardware, and Context. Each of these aspects is further divided into a number of functions, which are themselves split into vendor types. This report presents the Transforma Insights AI Market Framework and provides a definition of each vendor type included within it, along with examples of leading vendors for each vendor type.
- Accenture
- AI Planet
- Alan Turning Institute (The)
- Allen Institute for AI
- Amazon
- AMD
- Ansys
- Anyscale
- Apache
- AT&T
- AWS
- Azure
- Berkeley AI Research Lab
- Bosch
- BSI
- Chakray
- Cisco
- DataRobot
- Dataone
- Dynatrace
- European Commission
- Federal Trade Commission
- Fujitsu
- Genesys
- Google
- gravityAI
- Hanshow
- HIPAA
- Hugging Face
- IBM
- Incredibuild
- institute for Ethical AI & Machine Learning (The)
- ISO
- Meta
- Microsoft
- Mistral AI
- New Relic
- Nvidia
- Open.AI
- PTC
- Puppet
- Pytorch
- Qualcomm
- Radair
- Samsung
- Salesforce
- Saudi Authority for Data and Artificial Intelligence
- SK Hynix
- Seldon
- Silo.ai
- SiMa
- Softchoice
- Tensorflow
- TSMC
- University College London
Regulatory landscape for the Internet of Things
- Internet of Things
- IoT
- regulation
- directive
- law
- device
- import
- export
- environment
- product safety
- permanent roaming
- privacy
- security
- data sovereignty
- compliance
This report provides a guide to the various regulations that affect deployments of the Internet of Things and the associated provision of connectivity, device functionality, and management of data, as well as regulatory drivers and barriers to adoption. The report draws heavily on the Transforma Insights Regulatory Database, which details the key aspects of regulations (the ‘DNA of Regulations’) that apply in a range of new and emerging technology domains, such as the Internet of Things, Hyperconnectivity, Artificial Intelligence, Data Sharing, Distributed Ledger, Additive Manufacturing, and Autonomous Robotic Systems. A further domain relates to Privacy, which will often need to be considered alongside any technology-specific regulations. The report pulls together and summarises those areas related to the Internet of Things in seven major areas: hardware and spectrum, licensing and permanent roaming, privacy, security, data sovereignty and data access/portability, national resilience, and regulations in vertical sectors.
- Internet of Things
- Hyperconnectivity
The role of digital technologies in promoting Circular Economy
- 3D Printing and Additive Manufacturing
- IoT
- Artificial Intelligence
- Distributed Ledger
- Autonomous Robotic Systems
- Blockchain
- Circular Economy
- Digital Product Passports
- DPPs
- Eco-Design
- ESG
- European Union
- EU Batteries Regulation
- Recycling
- Reuse
- Regenerate
- Regulations
- Supply Chain Transparency
- Sustainability
- Smart Packaging
- Waste Management
The concept of a circular economy is becoming a priority for governments and organisations as they become increasingly aware of the environmental consequences associated with traditional linear waste disposal processes. Although regulations supporting the transition towards a circular economy began to emerge in the early 1990s, it is only now that they have become more defined and have started incorporating the use of new digitally transformative technologies. Digital technologies hold tremendous potential to enable the circular economy objectives of governments and corporate and other organisations. From advanced techniques which optimise product designs (that reduce waste) to intelligent interconnected systems (that optimise resource use), the possibilities are endless. By integrating these technologies, businesses can benefit from improved resource management, extended life of products, increased degree of recycling and reuse, appropriate waste disposal practices at the end-of-life, and more. For example, by analysing datasets related to product design materials and recycling processes, AI algorithms can suggest product designs that are aligned with circular economy principles. In this report, we focus on the role of digital technologies such as IoT, AI, Distributed Ledger, Autonomous Robotic Systems, 3D Printing and Additive Manufacturing, and Data Sharing in enabling a circular economy transition. Solutions using these technologies will make business models, products, and manufacturing processes more circular by facilitating knowledge exchange and connecting different stakeholders in the value chain. By integrating these technologies, businesses can benefit from improved resource management, extended life of products, increased degree of recycling and reuse, appropriate waste disposal practices at the end-of-life, and more.
- Adidas
- Algramo
- Amcor
- AMP Robotics
- Bosch
- Blue Ocean
- Circularise
- eRent
- Hewlett Packard
- Kaer
- ionQ
- Loop
- LyondellBasell
- Maersk
- Nestle
- r3
- Samsonite
- Signify
- ThredUp
- Winnow Vision
- 3D Printing and Additive Manufacturing
- Internet of Things
- Artificial Intelligence
- Distributed Ledger
- Autonomous Robotic Systems
- Agriculture, Forestry & Fishing
- Mining & Quarrying
- Manufacturing
- Electricity, Gas, Steam & A/C
- Water Supply & Waste Management
- Construction
- Retail & Wholesale
- Transportation & Storage
- Accommodation & Food Service
- Information & Communication
- Consumer
Below is a list of Transforma Insights' research reports on Digital Transformation, IoT, AI and other disruptive technologies. Our 'Essential' subscribers can access a select sub-set of the reports as 'Essential Reading'. User Group members can access exclusive 'User Group' content. Some reports (e.g. Peer Benchmarking) are only available to 'Corporate' users. For details on how to upgrade your subscriptions, check your Profile page. If you would like to speak with our analysts about the content of any report, or any other topic, please contact enquiries@transformainsights.com.