AI-POWERED AIRPORTS
AI-READY ATOMIC EVENTS
Dynamic System of Systems
BEAMable systems can be seamlessly connected to form a dynamic system of systems supporting new business models and holistic BEAM-powered environments. These dynamic, interoperable environments can create synergies and value far beyond siloed systems. A BEAM-powered system of systems, including digital twins and agentic systems, is a resource optimization strategy capable of unlocking significant, sustainable value.
BEAM Powered
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Smart Device Systems

Model the internal systems of devices and equipment such as the air flow, heating and cooling systems of an Air Handling Unit for building HVAC systems. Derive a digital twin from the modeled systems to provide real-time actionable insights to optimize performance.

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Smart Building Systems

Design BEAMable systems based on a common Product Model and shared Building Ontology to unify Building Information Modeling (BIM) and Building Automation Systems (BAS). Model connections between HVAC and lighting subsystems to create a digital twin for an entire built environment that can optimize building operations and equipment maintenance.

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Smart City Systems

Extend BEAMable systems from buildings to mission-critical municipal systems and autonomous vehicles with real-time information exchange that improves public safety and convenience while optimizing city infrastructure. Businesses, devices, buildings, and humans modeled as BEAMable systems and subsystems can dynamically connect and interact in real-time, forming a complete, interdependent and interoperable city ecosystem.

From Smart Airport to Smart City
An airport ecosystem comprises people and cross-industry organizations working together to serve a common customer – the passenger. An extensible reference implementation of a BEAM-powered smart airport can accelerate the global adoption of cross-industry interoperability standards within international airports, which can also extend to smart cities. Ease of extensibility of the implementation within a common infrastructure can evolve an ecosystem of collaborators spanning multiple industries, use cases, and communication frameworks.
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Contactless Shopping

With the Personal Portal, airport shoppers can check into stores using their smartphones, order food and services, and make payments without touching Point-of-Sale devices. BEAMable retail systems streamline the in-store shopping experiences when passenger safety is a priority and every minute counts before departure.

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Baggage Management

BEAM-powered Baggage Management can replace disparate and isolated airline enterprise applications and systems with a single solution to better handle smart baggage across the airline and aviation ecosystems. These real-time, interoperable systems can reduce the instances of delayed, damaged and lost bags; track baggage location and weight changes to prevent theft and loss; and improve customer satisfaction through real-time status updates.

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Building Management

BEAM-powered building equipment and edge gateways are able to work well with each other, enabling much more than analytics dashboards. Any door sensor can trigger any light to turn on – regardless of the device manufacturer. And any HVAC unit can trigger a service request or trigger an order for a replacement air filter. The ontology-based event-driven architecture supports business and device processes and eliminate the cost and complexity of custom systems built around the proprietary middleware of system integrators.

A Personal Portal for a Digital Life
Remote control and an intelligent edge can make traveling, working, and shopping smarter, safer, and more convenient. The Personal Portal supports a continuum of dynamic services tailored to each traveler's intents.


On-Demand Apps.
Simply Check In.

Eliminate the need to install a smartphone app for every in-location experience. BEAM a personalized, branded app upon entering any airport concession or service location.


Epic. Application. Failure.
"Today’s computing systems were not really designed for a world driven by pervasive information flow and are falling far short of enabling adaptable real-time intelligence. Today’s systems will not be able to scale and interact effectively where there are billions of nodes involved. This is the move we’ve been waiting for, the transition to a truly distributed architecture."
Read Analysis >
Smart. Powerful. Simple.
Intelligent Automation
Continually refine automated processes based on intelligent insights that leverage knowledge and practical experience at unrivaled scale.
Real-Time Responsiveness
React to events as they occur to ensure responsiveness, from triggering an alarm when a door is opened, to re-routing a passenger to avoid a reported incident.
Human-Machine Collaboration
Automatically assign role-based tasks that provide the context and instructions needed to maximize user productivity when reacting to real-time events.
"When you first start off trying to solve a problem, the first solutions you come up with are very complex, and most people stop there. But if you keep going, and live with the problem and peel more layers of the onion off, you can often times arrive at some very elegant and simple solutions.”

— Steve Jobs
Simply Unify Commerce Systems
By implementing a common API coupled with a common ontology, BEAMable systems can connect and interact in real-time, composing a complete, interdependent and interoperable commerce ecosystem.

Common API

The BEAM API can be implemented within every network node as the single entry point for all real-time streaming data and messages from other nodes. By exposing a single common API as the “front door” for all nodes, the complexity of disparate systems is abstracted away.

Common Ontology

The BEAMable Commerce Ontology blends commerce concepts and semantic identifiers from schema.org, gs1.org, unece.org, and omg.org to enable interoperable e-commerce and supply chain management systems across industries.

Simply Optimize
Asset Performance
Enhancing Asset Value through Digital Twins
Executing an effective asset optimization strategy has become central to survival in today’s competitive world. From design to predictive analytics, the use of digital twins is becoming more prevalent, where a twin is a digital representation of a real-world asset, process or system. The digital twin can reflect the current state of its real-world counterpart through distributed state management capabilities. Use digital twins to proactively repair equipment, plan manufacturing processes, predict equipment failure, and increase operational efficiency. Any asset coupled to IoT sensors can be modeled as a system to derive a digital twin for optimizing performance.
Product Lifecycle Management
BEAM-powered Product Lifecycle Management enables design teams to deliver greater innovation and higher quality at lower cost. Digital twins are used throughout the product lifecycle to simulate, predict, and optimize the product by invoking changes in the state of its counterpart. BEAM events form the digital "thread" that is woven into all stages of the product lifecycle, providing product developers and operators with a continuum of actionable insights.
BEAM Powered
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DESIGN

Device & System Modeling

BEAMable device and system models provide a holistic information pool that enables automation of many life cycle tasks from design to commissioning and operation.

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BUILD

Quality Management

Embed the BEAM RT runtime system as the device engine and the digital twin can monitor and model every part of the production process to identify where quality issues may occur.

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OPERATE

Health Monitoring

Use digital twins to monitor equipment health from real-time sensor measurements, predict failures, and perform condition-based maintenance and repairs at the exact moment it's needed, prior to failure. BEAM Events continually refine and update system processes.

The Product Model
Ontology-Based Design

A digital twin starts with product design. Simply model a device as a product subclass based on the BEAMable Commerce Ontology. Then model its internal systems based on the BEAMable System Model. When the product is built with an embedded BEAM RT runtime system, the products instances become assets with a built-in digital twin.


The Event Model
Distributed State Management

A BEAM Event is an irreducible unit for managing information. It is ideal for distributed state management supporting digital twins. This time-stamped canonical data model incorporates identifiers for asset classes, attributes, and instances, providing real-time actionable insights in a standardized format. BEAM events are also used to define and update any class of entity, including BEAMable systems and models.


The Device Engine
Dynamic Event Processing

With a tiny footprint, BEAM RT™ portable runtime system provides the needed architecture for edge-to-cloud computing. The runtime supports a dynamic ecosystem of BEAMable systems for a truly interoperable and autonomous edge that simply scales. BEAM events are produced and consumed by the Runtime’s Message Processor. The Runtime is continually sensing, computing, and acting in real-time.

Simply Model
Domain Knowledge
Ontologies provide a common information model
for highly interoperable systems
Enabling Cross-Industry Semantic Interoperability
A key challenge to digital transformation is the ability to enable end-to-end interoperability across different industries, each having its own environments and interdependent use cases. BEAMable systems are coupled to BEAMable ontologies that can be distributed to all subscribers in real-time as concepts evolve - from a top-level cross-industry ontology to domain-specific extensions developed by domain experts and artificial intelligence. Thousands of tables and columns within a legacy ERP system can be simplified into a few hundred ontology classes and attributes.

The Entity Model
Classify and Describe

BEAMable ontologies are based on an Entity Model that provides a hierarchy of cross-domain classes. Each class represents a general category of like entities with common attributes. Collectively, these classes represent physical entities, information entities, and ontology entities themselves. The Entity Model is abstracted away from any object-oriented programming language (e.g., Java).

Design Principles >

The Knowledge Base
Store and Distribute

BEAMable systems and entity state are stored and distributed as BEAM Events, where each event describes an attribute of an entity at a point in time. This time-stamped atomic event model incorporates decentralized identifiers from a common ontology and offers a simplified, temporal, machine-optimized alternative to OWL ontologies and RDF statements.

Atomic events representing basic statements of fact are appended to an event-driven system's knowledge base, serving as the authoritative source of data. This enables intelligent services to recognize patterns and build previous, current, and predicted states from a consistent source of historic events.

The Firmware that eliminates Software
With a tiny footprint, BEAM RT portable runtime system provides the needed architecture for far-edge to cloud computing. The runtime supports a dynamic ecosystem of event-defined distributed systems for a truly interoperable and autonomous edge that simply scales.
Simplicity in Design
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The Power of Autonomous, Interoperable Systems
Codeless
Replace containers and coded microservices with codeless microsystems that eliminate the constraints and inefficiencies of programming languages.
Extensible
Add additional functionality with ease to support any data-centric use case, from device control panels to websites to mission-critical and autonomous systems.
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Scalable
Implement an irreducible framework with a tiny footprint that can scale from cloud servers to edge gateways to billions of far-edge microcontrollers.
Model-based
Rapidly build systems from a common information model that extends to industry-specific ontologies. This model-first approach provides the highest level of system interoperability.
Distributed
Enable peer-to-peer information exchange AND system updates through a single unified event format. Autonomous device systems can be continuously refined without human intervention.
Event-driven
React to events, from a temperature change to an aircraft landing, by creating new events that are distributed to other systems, enabling a chain of reactions.