Market Size and Overview:
The Global Connected Logistics Market was valued at USD 33.94 billion and is projected to reach a market size of USD 62.59 billion by the end of 2030. Over the forecast period of 2025-2030, the market is projected to grow at a CAGR of 13.02%.
Real-time data from sensors, GPS trackers, and IoT gateways fed into cloud-hosted systems enables end-to-end visibility, dynamic routing, and predictive maintenance through end-to-end visibility. To design inventory flows, lower dwell times, and maximize asset use, these systems connect with TMS (Transport Management Systems), WMS (Warehouse Management Systems), and ERP suites. Hardware (UAVs, trackers, gateways), Software (analytics, dashboards, blockchain ledgers), and Services (implementation, managed support, consulting) make up the market.
Key Market Insights:
Early IoT and TMS adoption gives North America a 32.9% share in 2024. Driven by India's SMAM subsidies and China's paddy-field experiments, Asia Pacific is the fastest expanding (≈ 15 % CAGR).
For trackers and sensors, hardware dominates revenues; as companies outsource complexity and seek managed analytics, Services is the fastest expanding sub-segment.
With Fleet Management growing the fastest as carriers implement AI-driven telematics to save fuel costs by up to 20% and enhance ETA accuracy by 30%, Inventory Tracking commands the most application share.
Low CapEx and smooth upgrades give cloud-based systems 18% CAGR growth (2025–2030); therefore, by 2027, they will exceed on-premise in fresh applications.
Connected Logistics Market Drivers:
In recent years, IoT and AI-driven visibility are seen as great market growth drivers.
To allow constant, end-to-end shipment tracking, the logistics industry has installed upwards of 16.6 billion IoT devices—sensors, RFID tags, and GPS trackers. A PwC study estimates that centralized systems powered by real-time telemetry 80% so increase supply-chain visibility, therefore lowering blind spots and unnecessary actions. Through automatic alerts and corrective workflows, deviation-detection algorithms notify operators of anomalies (e.g., a 2 °C drop in cold-chain transport), therefore reducing spoilage incidents by 23%. AI-driven demand-sensing models provide up to 92% forecast accuracy, enabling proactive inventory repositioning and 25% fewer stockouts. Machine learning-powered predictive-maintenance analytics flag vehicle health problems, therefore reducing unplanned breakdowns by 15% and spare-parts costs by 10%. By 15% in average delivery times and 12% in idle-time costs, DHL's MySupplyChain and FedEx's Control Tower use AI bots to maximize vehicle assignments. Per journey, fuel-optimization systems powered by real-time routing data can help to align sustainability objectives with cost savings by 10-15%. Integrations for yard management combine gate cohorting and dynamic dock scheduling enabled by IoT event streams to reduce freight dwell time by 20%. Immutable IoT data is recorded on blockchain, which guarantees tamper-proof records and audit trails throughout multi-party supply chains. Edge computing at depots processes important sensor data locally, therefore maintaining low-latency warnings even when cloud connections fail, thereby increasing resilience in remote regions.
The growth of the E-Commerce sector has led to explosive growth of this market, being a major market driver.
With online-order frequency growing 20 % annually, last-mile delivery now accounts for over 53 % of total logistics costs. Mobile driver applications ingest real-time traffic, weather, and delivery schedules and improve per-driver stop capacity by 18 % through optimised dispatching. Cargo-tracking solutions interface through APIs with e-retail systems to automate dynamic route planning and order-status updates across omnichannel networks. Predictive-ETA engines achieve 95 % on-time accuracy, reducing failed delivery attempts by 35 % and raising customer satisfaction. Features of proof-of-delivery (photo, geotag, digital signature) cut delivery disputes by 40 % and speed invoice settlements by 25 %. Flex capacity during peaks enables gig-economy integrations, lowering operational overhead by 12 % versus dedicated fleets. Smart pickup solutions and parcel lockers lift first-attempt delivery rates by 22 % and shrink reverse-logistics volumes by 15 %. AI crowd-routing algorithms match drivers to stops, trimming route lengths by 10 % and fuel use by 8 %. Piloting across metropolitan regions are drone deliveries and automated last-mile robots intended to increase capacity by 30% and help to solve driver shortages.
The growing focus on green logistics and sustainability has helped the market to expand.
7% of worldwide CO₂ emissions come from logistics operations, which drives the adoption of linked solutions to maximize route and load efficiency. AI consolidation lowers route emissions by 10–20% for each shipment by backhaul matching, reducing empty miles by 15%. On urban circuits, connected EV fleets— orchestrated via telematics— offer zero tailpipe emissions and 30% lower TCO. Sustainability dashboards calculate carbon footprints per delivery, enabling participation in carbon-credit markets and accurate Scope 3 reporting. AI-controlled cold-chain chillers cut energy use by 18 % while ensuring perishables stay within spec. Dynamic load planning integrated with WMS boosts space utilization by 25 %, reducing required trips by 12 %. Smart warehouse robotics with energy recovery schemes reduces facility power consumption by 20 %, complementing rooftop solar installations. Blockchain-backed carbon-credit exchanges offer carriers new revenue (~3–5 % monthly) by tokenizing verified emission reductions. Digital twins model low-carbon scenarios, helping operators pre-test strategies to slash projected emissions by 20 % before rollout. Cargo-sharing platforms under connected systems raise truck utilization from 70 % to 90 %, shrinking per-shipment carbon footprints.
The pressure of competition has acted as a growth driver for the market, helping it to improve.
CTPAT and similar programmes reduce inspection hold-times by 30% and simplify cross-border flows by requiring carriers to share real-time shipment data with customs. Through pre-validated cargo manifests, voluntary data-sharing trials like the Global Quality Traceability System cut cross-border delays by 15%. Integrated compliance modules automatically apply HS codes and tariff rates, erasing manual entry errors and audit lane penalty exposure to zero percent. Digital-native disruptors (e.g., Flexport) use connected APIs to onboard shippers 40% faster, capturing 20% market share within two years. E-commerce behemoths (Amazon, JD.com) deploy proprietary last-mile networks, driving conventional 3PLs toward linked solutions to satisfy same-day SLA. Joint analytics centres with customs authorities use connected data to resolve clearance issues 40% faster, enhancing trade fluidity. Compliance-driven RFPs now list digital-traceability proofs as mandatory, making connected logistics an essential precondition for major contract awards.
Connected Logistics Market Restraints and Challenges:
The market faces challenges from high levels of costs related to the implementation and customization of the market.
According to total-cost-of-ownership studies, per-asset costs for trackers, sensors, and gateways, including procurement, connection provisioning, and basic configuration, often range from USD 100 to USD 250 per unit. Businesses starting connected-logistics projects confront significant early device and integration costs. Minimum investment usually calls for USD 50,000 and can go beyond USD 250,000 in initial solution development if custom analytics or challenging connections are needed. Beyond hardware, hidden infrastructure costs from edge-compute nodes, secure connectivity solutions, and constant firmware upgrades add 20–30% in extra expenses over project lifecycles. Custom middleware to link TMS, WMS, ERP, and IoT systems may incur specialist consulting charges totaling hundreds of hours of development at market rates of USD 100–200/hour. Particularly, SMEs find it difficult to spread these fixed expenses over small fleets, which explains why 47 % of smaller logistics companies put off or abandon digital-transformation initiatives due to funding limitations. Furthermore, while lowering CapEx, per-user or per-device cloud analytics subscriptions bring recurring OPEX loads that can increase support staff expenses, as alerts and dashboards need constant adjustment. Even well-funded carriers sometimes begin initiatives without moving on to enterprise-wide rollouts, therefore stalling return on investment and postponing whole digital maturity.
The high data security and privacy risk related to this market act as a major challenge for the market.
Across carriers, warehousers, customs agents, and consumers, connected-logistics platforms compile sensitive data—shipment manifests, location telemetry, and temperature logs to amplify the attack surface. Driven by more sophisticated threat vectors and regulatory fines, IBM's Cost of a Data Breach Report estimates the worldwide average breach cost to be USD 4.88 million, a 10 % year-over-year increase. With often spanning several data centres and demanding complicated cross-jurisdictional incident response, 82 % of breaches nowadays take place in cloud environments, where many logistics systems reside. Sixty percent of companies are impacted by third-party breaches, from IoT device suppliers or systems integrators; thus, rigorous supplier risk evaluations are highlighted. Highlighting that perimeter security is no longer adequate, malicious insider attacks alone average USD 4.99 million per incident. Extending time-to-deploy by 8–12 weeks for data-privacy impact assessments, compliance frameworks (GDPR, CCPA, NIS2) mandate end-to-end encryption, thorough audit trails, and fast breach-notification protocols. Logistics firms report that 39% of cloud-related incidents stem from misconfigured APIs or human error, necessitating continual security-awareness training. Increasingly required zero-trust architectures, role-based access control, and SOC 2/ISO 27001 certifications add both CapEx and OpEx burdens to connected-logistics rollouts.
The complexity involved in technical integration is seen as a major challenge faced by the market.
90 % of manufacturers and logistics companies say integration is their primary obstacle to effective IoT adoption. Creating custom middleware to interpret different data formats is sometimes needed to achieve interoperability; this process can consume 200+ development hours per integration point and calls for extensive end-to-end testing. Modern APIs may be absent in legacy on-premise systems, which would compel companies to either retrofit proprietary connectors or use an enterprise service bus; every extension increases the risk of versioning disagreements and breakage during upgrades. Integration workflows have to elastically scale since the volumes of data produced by IoT can surge unexpectedly, therefore, many companies are using hybrid designs, which aggravate network topology and security policy management.
The resistance to change by people and the skill gap are both great challenges faced by this market, hampering its growth.
Seventy percent of digital-transformation initiatives still fall short of their goals, mostly because of poor change-management procedures and mediocre executive support, despite the promise of connected logistics. In logistics per se, 76 % of supply chain leaders report workforce shortages; 37 % characterize these as “high to extreme,” and 58 % note detrimental effects on service levels—elements that reduce interest in new technology deployments. Many operators and planners lack “digital-pedagogy” skills, therefore, they cannot fully utilize sophisticated dashboards, resulting in adoption rates below 50 % even following deployment. Research by NationaLease shows that without continuous training and reinforcement, initial LMS and IoT platform instruction decays quickly—knowledge retention drops by 40 % within a month without continuous learning initiatives. Leadership teams that do not present business cases or connect KPIs with adoption milestones find it difficult to obtain cross-functional support, therefore, pilots languish. Furthermore, only 25% of companies report providing regular upskilling courses on new digital technologies, indicating significant gaps in operator competency and therefore underinvesting in talent development. Therefore, friction from entrenched legacy systems and employee anxiety might slow down or even reverse digital-logistics projects, harming morale and long-term return on investment.
Connected Logistics Market Opportunities:
The recent emergence of the use of blockchain technology is seen as a great opportunity for this market.
Immutable, permissioned blocks created by blockchain platforms like IBM Food Trust and Oracle Blockchain record every handoff from farm to fork, thereby enabling tamper-proof tracking of goods and simplified legal compliance. All actors, from producers to retailers, get a single source of truth by keeping provenance data on a shared blockchain, therefore greatly lowering disagreements and manual reconciliation workloads. Walmart's IBM-powered Hyperledger Fabric system reduced traceability times from 7 days to 2.2 seconds in high-profile pilots with fresh produce (mangoes) and pork, so limiting the window for spoilage and recall-related waste. Low-cost IoT sensors are used in Intel's Transparent Path solution in conjunction with a blockchain-backed ledger to continuously monitor temperature and humidity, therefore enabling proactive interventions that have reduced perishable-goods losses and food waste. Preliminary studies show that Dole and Carrefour's use of IBM Food Trust for dairy products and leafy greens results in end-to-end traceability in seconds, enabling fast quarantine of at-risk batches and helping to reduce 18% spoilage.
The increasing use of 5G and Edge Computing presents a growth opportunity for the market.
Key logistics corridors, ports, highways, and urban distribution hubs—cut data-transmission latency by 90% versus 4G, therefore facilitating sub-second insight into vehicle placements, container status, and environmental conditions. Critical sensor data is processed on-site by edge-computing nodes co-located with IoT gateways at depots, guaranteeing that alerts for temperature excursions or route deviations fire instantly even if cloud connections fail—a need for cold-chain and high-value shipments. When AR-guided instructions run on edge-hosted metadata streams, early adopters report 12% reductions in yard dwell times and 18% increases in pick-and-pack accuracy. Dynamic load-balancing and 5 G-enabled telematics also enable real-time route re-optimization around traffic or weather disturbances, therefore cutting average delivery times by 15% and greatly lowering gasoline costs. The combination of 5G and edge computing is expected to become the default norm for resilient, low-latency logistics operations as carriers introduce private 5G slices for mission-critical uses.
The use of digital twin technology and simulation has helped improve the performance of the market.
By creating virtual replicas of physical logistics networks, including vehicles, warehouses, and ports, digital-twin technology lets planners conduct “what-if” experiments for disturbances like port closures or demand rises. Early implementations reported by market-leading 3PLs have seen 25% quicker disturbance-response times as digital twins model alternate routing, inventory reallocation, and staffing plans by ingesting real-time IoIo telemetry and historical performance data. To maximize multi-modal flows, assessing rail versus road versus sea options, 10% lower transportation costs and 20% fewer stock-out incidents across complex worldwide supply chains result from manufacturers and retailers using twin-driven simulations. Planners can now forecast congestion build-up hours in advance, triggering automatic reroutes and load shifts that keep goods moving even under extreme network demand, thanks to high-fidelity twins driven by AI.
The recent emergence of robotics and autonomous technology has led to the growth of this market.
Operating around the clock and ranging from self-driving highway trucks to delivery drones and warehouse AGVs (Automated Guided Vehicles), autonomous technologies promise to address ongoing labor shortages. While U.S. warehouse deployments of AGVs have increased order-picking speed by 40%, European pilot deployments of autonomous delivery pods on campus-scale routes have reduced labor expenses by 30%. With predictive-maintenance systems lowering downtime and extending fleet usage to 23 hours per day, autonomous long-haul trucks currently log 800–1,200 miles per recharge cycle. Driven by real-time digital-twin data, robotic integration in warehouses allows for dynamic aisle reconfiguration and load-balancing, which lowers average order-processing times by 25% and error rates by 35%. These autonomous solutions will go from regulated pilots to widespread applications as regulations change and safety certifications develop, providing significant labor-cost savings and throughput increases across the logistics spectrum.
Connected Logistics Market Segmentation:
Market Segmentation: By Component
• Hardware
• Software
• Services
The Hardware segment dominates the market, covering edge gateways and related devices, RFID tags, GPS trackers, and IoT sensors. Real-time asset-tracking equipment is heavily used by businesses, therefore, it ruled the market with around 46 % of revenues. The Software segment is the fastest-growing segment, which includes blockchain ledgers, AI-driven optimization engines, analytics dashboards, and cloud solutions. Driven by the boom in SaaS implementations and sophisticated data-management demands, it is the fastest-expanding element. Consulting, system integration, implementation, and managed-services contracts make up the services segment. As businesses delegate difficult IoT and analytics rollouts, sales are steadily rising.
Market Segmentation: By Application
• Inventory Tracking
• Fleet Management
• Warehouse Management
• Yard Management
• Others
The inventory tracking segment dominates the market. Real-time stock visibility via RFID/IoT helps companies to lower stockouts and shrink carrying costs, thus, this segment is dominant. The fleet management segment is the fastest-growing segment of the market. Projected at 15.6 % CAGR through 2029, it's the fastest-growing application as e-commerce boosts last-mile delivery demands.
The warehouse management includes robot integration, smart shelving, and automation for in-warehouse inventory flows. The Yard Management segment includes gate planning, dock coordination, and yard-event monitoring that helps to maximize freight dwell times. Predictive maintenance, cargo-integrity monitoring, and end-to-end delivery tracking come under the others segment.
Market Segmentation: By Transportation Mode
• Roadway
• Railway
• Airway
• Seaway
The roadways segment dominates this market, as it does the market due to its flexibility. The Airway segment is said to be the fastest-growing segment. For time-sensitive, high-value items, air freight is fastest-growing at 12.5% CAGR, supported by premium express services and tariff-driven rushes.
When it comes to the Railway segment, it maintains a consistent share. Recent UK rail-freight experiments show rail's developing role as a quicker, more environmentally friendly replacement for long-distance goods vehicles. Maritime shipping for bulk and containerized cargo comes under the Seaway segment. Volume is important, but digital-integration uptake is slower than for other modes.
Market Segmentation: By End-Use Industries
• Retail & E-Commerce
• Manufacturing
• Automotive
• Healthcare
• Others
The Retail & E-Commerce segment dominates this market as online retail volumes propel significant real-time tracking and last-mile solution investment. The healthcare segment is growing at a faster pace, owing to cold-chain, pharmaceutical distribution requirements, and more outsourced healthcare logistics.
The Manufacturing segment has a significant share for supplier coordination and just-in-time production flow. The Automotive segment is rising with tier-one supply-chain digitization and connected-vehicle logistics. The others segment includes aerospace and defense, energy, electronics and semiconductors, and non-perishables.
Market Segmentation: By Deployment Mode
• On-Premises
• Cloud-Based
• Hybrid
The On-Premises segment is considered the dominant one; it remains dominant, particularly in regulated sectors. Under this segment, the companies host their systems in-house for data sovereignty and connection with legacy systems. The Cloud-based segment here is the fastest-growing segment of the market. This segment is projected to grow at 14.9 % CAGR through 2030, due to rapid scalability and automatic updates. Among companies moving to digital-first solutions, the hybrid segment that combines on-premises control with cloud scalability is gaining popularity.
Market Segmentation: By Region
• North America
• Asia-Pacific
• Europe
• South America
• Middle East and Africa
North America is considered the leader of the market. Advanced IoT infrastructure, early technology adoption, and robust e-commerce make North America the biggest market. Whereas, the Asia-Pacific region is considered the fastest-growing region, driven by government subsidies (e.g., India's SMAM), China's megacity smart-logistics initiatives, and high e-commerce penetration.
EU digital-agenda funding, GDPR-compliant platforms, and smart-city logistics experiments make the European region the second-largest market. Emerging adoption in Brazil, Mexico, and Argentina for e-commerce and urban logistics makes South America an emerging region. The MEA region is characterized by slow development supported by special economic zones, mega-projects, and rising smart-port investments.
COVID-19 Impact Analysis on the Global Connected Logistics Market:
The early 2020s onset of COVID-19 brought about countrywide lockdowns that required factories and warehouses to operate at limited capacity or close down completely, therefore disrupting the supply chain across all industry sectors. The suspension of global trade revealed the weaknesses of just-in-time logistics concepts as border closures and quarantine measures prevented the movement of raw materials and finished products. Further aggravating delays in loading, unloading, and last-mile delivery processes was the unavailability of labor resulting from worker health concerns and social-distancing policies. Ninety percent of transportation and logistics firms said in reaction that they had quickened or intended to quicken IoT rollouts to obtain real-time visibility and remote monitoring features. Mid-2020 saw 49% of those who had already fast-tracked IoT adoption, 28% intending to do so over the following year. Generally speaking, COVID-19 turned logistics from a nice-to-have technology into essential infrastructure, reshaping capital priorities, speeding digital roadmaps, and showing that real-time visibility is absolutely vital for handling next worldwide disturbances.
Latest Trends/ Developments:
Embedding artificial intelligence models into their Internet of Things systems, logistics companies analyze real-time sensor data, temperature, location, and vehicle health, to provide demand forecasts with 92% accuracy that lower stockouts by 25%. Advanced machine-learning algorithms automatically reroute shipments around possible delays, hence reducing average delivery times by 15% and eliminating dwell-time costs.
5G networks' arrival in important logistics channels is cutting data-transmission latencies by up to 90%, therefore allowing real-time telematics, geofencing, and AR-guided operations at ports and depots. Edge-computing nodes co-located with IoT gateways process critical telemetry on-site, therefore guaranteeing continuous analytics even if cloud connection fails, key for mission-critical supply-chain events.
Being tested to produce unchangeable shipment records is blockchain ledgers, therefore lowering freight-fraud conflicts and paperwork by 18% in perishable-goods supply chains. Digital twins, virtual replicas of end-to-end logistics networks, meanwhile, enable planners to model disturbances (e.g., port closures) and evaluate remedial strategies, therefore enhancing response times by 25%.
Regular operations of driverless trucks on commercial routes such as Aurora's semi-autonomous fleet between Dallas and Houston have started to help with labor shortages and raise average haul efficiency by 20%. Also progressing from pilot projects into real usage are drones and autonomous forklifts, which permit around-the-clock operations and lower human-error occurrences in high-volume environments.
Key Players:
• DHL International GmbH
• FedEx Corporation
• United Parcel Services, Inc.
• Cisco Systems, Inc.
• IBM Corporation
• Honeywell International Inc.
• Oracle Corporation
• SAP SE
• Zebra Technologies Corporation
• Kuehne + Nagel International AG
Chapter 1. CONNECTED LOGISTICS MARKET – Scope & Methodology
1.1. Market Segmentation
1.2. Assumptions
1.3. Research Methodology
1.4. Primary Sources
1.5. Secondary Sources
Chapter 2. CONNECTED LOGISTICS MARKET – Executive Summary
2.1. Market Size & Forecast – (2023 – 2030) ($M/$Bn)
2.2. Key Trends & Insights
2.3. COVID-19 Impact Analysis
2.3.1. Impact during 2023 - 2030
2.3.2. Impact on Supply – Demand
Chapter 3. CONNECTED LOGISTICS MARKET – Competition Scenario
3.1. Market Share Analysis
3.2. Product Benchmarking
3.3. Competitive Strategy & Development Scenario
3.4. Competitive Pricing Analysis
3.5. Supplier - Distributor Analysis
4.1. Case Studies – Start-up/Thriving Companies
4.2. Regulatory Scenario - By Region
4.3 Customer Analysis
4.4. Porter's Five Force Model
4.4.1. Bargaining Power of Suppliers
4.4.2. Bargaining Powers of Customers
4.4.3. Threat of New Entrants
4.4.4. Rivalry among Existing Players
4.4.5. Threat of Substitutes
Chapter 5. CONNECTED LOGISTICS MARKET - Landscape
5.1. Value Chain Analysis – Key Stakeholders Impact Analysis
5.2. Market Drivers
5.3. Market Restraints/Challenges
5.4. Market Opportunities
Chapter 6. CONNECTED LOGISTICS MARKET – By Component
6.1. Hardware
6.2. Solutions
6.3. Services
Chapter 7. CONNECTED LOGISTICS MARKET – By Software
7.1. Asset Management
7.2. Warehouse IoT
7.3. Security
7.4. Data Management
7.5. Network Management
7.6. Streaming Analytics
Chapter 8. CONNECTED LOGISTICS MARKET – By Technology
8.1. Bluetooth
8.2. Cellular
8.3. Wi-Fi
8.4. ZigBee
8.5. NFC
8.6. Satellite
Chapter 9. CONNECTED LOGISTICS MARKET – By Devices
9.1. Gateways
9.2. RFID Tags
9.3. Sensor Nodes
Chapter 10. CONNECTED LOGISTICS MARKET – By Transportation Mode
10.1. Roadways
10.2. Railways
10.3. Airways
10.4. Seaways
Chapter 11. CONNECTED LOGISTICS MARKET – By End Use Industry
11.1. Automotive
11.2. Manufacturing
11.3. Oil and Gas
11.4. IT and Telecom
11.5. Healthcare
11.6. IT and Telecommunication
11.7. Retail
11.8. Food and Beverage
11.9. Others
Chapter 12 . CONNECTED LOGISTICS MARKET – By Region
12.1. North America
12.2. Europe
12..3. Asia-P2acific
12..4. Latin America
12..5. The Middle East
12..6. Africa
Chapter 13. CONNECTED LOGISTICS MARKET – By Companies
13.1. Companies 1
13.2. Companies 2
13.3. Companies 3
13.4. Companies 4
13.5. Companies 5
13.6. Companies 6
13.7. Companies 7
13.8. Companies 8
13.9. Companies 9
13.10. Companies 10
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Frequently Asked Questions
At a 13.02% CAGR, the market is projected to increase from USD 33.94 billion in 2025 to USD 62.59 billion by 2030.
Driven by government mechanization and e-commerce explosion, North America is expected to lead with almost 32.9 % share in 2024, while Asia Pacific is the fastest-growing region (approximately 15 % CAGR).
Driven by sensor and device needs, hardware dominates (about 60 percent share); managed analytics and consulting are fastest–growing (17 percent CAGR) as businesses outsource challenges.
Lockdowns upset materials and labor; therefore, 90% of logistics firms sped up IoT implementations for resilience, while contactless delivery and remote monitoring became normal operating procedures.
Emphasis on blockchain for secure traceability, artificial intelligence analytics for predictive operations, digital twins for simulation, and 5G/edge computing for ultra-low-latency, real-time control are some of the latest trends related to this market.