Syncrasy Edge

Accelerating solution delivery with:

Customizable Feature Sets
Edge Software
Edge Hardware
Edge Data Processing
Edge Artificial Intelligence (AI)

Customizable Feature Sets

Like an abstraction layer, Syncrasy Feature Sets present the functional capabilities of either single technologies, like “Power Management”, or integrated technologies that create advanced functionality like “Context Awareness”.

By abstracting away the complications of the underlying technologies, new market entrants and innovation teams can focus on leveraging customizable functional capabilities to deliver unique digital solutions.

Global Unique Digital Identities (GUDIs).
Always-On Monitoring for Nearby Positioning Services.
Indoor & Outdoor Real-time Location-based Services.
Spatial Awareness for Precise Localization.
Situational, and Context Awareness.
Nearby Device Experiences.
Edge-2-Cloud Security for Device & Data Integrity.
Air Quality Monitoring with IAQ Index Reporting & Alerts with AI Augmented Gas Sensing
Event Driven Power Management.
Contactless & Handsfree Applications including MIFARE®
Pluggable Sensors for Customized Solutions.

Utilize integrated technologies for faster development.
Reduce complexity, costs, and time-to-market.
Add security and scalability.
Expand device use case capabilities.
Future-proof your investment.

Explore Syncrasy’s Feature Sets

Powering a New Generation of Digital Possibilities.

Global Unique Digital Identities (GUDIs)

GUDIs are unique identifiers for digital entities, ensuring distinct identification globally. They prevent naming conflicts, facilitate data management, and enable efficient retrieval and tracking across systems.

Key aspects of GUDIs:

Uniqueness, with no two digital entities sharing the same identifier.
Structured Format to enhance their readability and manageability.
Interoperability between different systems and databases.
Metadata and Attributes that provide additional information about the digital entity.

GUDI’s also have a wide application range:

Digital Rights Management.
Version Control.
Data Tracking and Audit Trails.
Security as part of access control systems.

Nearby Positioning Services

Nearby Positioning Services offer relative positioning for devices in close proximity, ideal for indoor positioning, asset tracking, and location-based marketing.

Nearby Positioning Services provide a more generalized approach to location and is suitable for applications where high precision is not critical, and approximate relative positions are sufficient.

Combining multiple technologies for increased accuracy and robustness, Nearby Positioning Services have a wide range of applications from enhancing user experiences in retail environments to improving safety and efficiency in mining & industrial settings. They can also be integrated with GPS for seamless outdoor-to-indoor navigation transitions.

Real-time Location-based Services

Real-time Location-based Services (RLBS) are technologies that use data from navigation and location tracking systems to provide services relevant to the geographic location of a user or asset. These services can be divided into two primary categories: indoor and outdoor RLBS, each with distinct technologies and applications.

Indoor Real-time Location-based Services

Indoor RLBS are designed to operate within enclosed spaces where GPS signals may be weak or unavailable. These services use various technologies to pinpoint locations:

Wi-Fi: Utilizes the strength of nearby Wi-Fi signals to determine a device's location within a building.
Bluetooth and BLE Beacons: Small devices that emit a constant signal; mobile devices can gauge their proximity to these beacons to understand their relative location.
Ultra-Wideband (UWB): Offers very accurate distance and location measurements by calculating the time it takes for a radio signal to travel from the transmitter to the receiver.
Infrared and Ultrasonic Sensors: Used in some systems to detect the presence and location of objects or people based on the reflection of waves.

Indoor RLBS are commonly used in malls, airports, hospitals, and museums for navigation, asset tracking, emergency response, and personalized advertising.

Outdoor Real-time Location-based Services

Outdoor RLBS primarily utilize GPS, which offers global coverage and is effective in open environments. These services can be enhanced with:

Cellular Data: Uses the proximity to cell towers to triangulate a device’s position when GPS is unavailable.
Assisted GPS (A-GPS): Improves start-up performance of a GPS-based positioning system. It uses an internet connection to help GPS receivers to fix their position quickly with the data downloaded from an assistance server.
Geofencing: Uses GPS or RFID to create a virtual geographic boundary, enabling software to trigger a response when a mobile device enters or leaves a particular area.

Applications of outdoor RLBS include vehicle tracking, navigation, logistics, and location-specific climate monitoring.

Spatial Awareness for Precise Localization

Spatial Awareness & Precise Localization involves more advanced technologies and sensor fusion algorithms to achieve accurate and absolute positioning of objects in three-dimensional space. This approach is employed in applications where centimeter-level precision and accuracy are essential, such as robotics, precision agriculture, and “Find-My” services.

Depending on the use case, devices may be equipped with a variety of technologies, including:

Ultra Wideband (UWB) wireless technology, providing precision in measuring the time of flight (ToF) of the radio signals, allowing it to determine the position of objects with an accuracy down to a few centimeters.
Assisted GPS (Assisted Global Positioning System).
Inertial Measurement Units (IMUs) that track movement and changes in orientation.
Cameras: Visual data from cameras can be used for object recognition, feature extraction, and environmental mapping.
LiDAR (Light Detection and Ranging) enabling the creation of detailed 3D maps of an environment.
Ultrasonic sensors for obstacle detection.

Situational, and Context Awareness

Situation and Context Awareness integrates location-based data, real-time situational information, and contextual factors generated by add-in sensors to provide relevant insights and personalized responses.

Situational awareness focuses on understanding the immediate situation, while context awareness involves a broader understanding of the environment, including factors that may impact or provide additional insights into the situation. Both concepts are vital for making well-informed decisions and providing tailored services in various domains, including technology, safety, and human interactions.

Applications include collision avoidance in mines, construction sites, hospitals, first responder safety, personalized advertising and hospitality services.

Nearby Device Experiences

Nearby Device Experiences provide interactions and functionalities that become possible when devices or applications can detect and communicate with nearby devices or objects.

Examples of nearby device experiences include:

File Sharing and Content Transfer.
Device Pairing and Setup.
Printing and Scanning.
Wireless Audio Sharing.
Proximity-Based Authentication.
Gaming and Entertainment.
IoT Device Control.
Indoor Navigation and Location-Based Services.
Collaborative Work and Productivity.
Health and Fitness Tracking.

Overall, nearby device experiences enhance convenience, efficiency, and interactivity in various aspects of daily life, making it easier for devices and users to seamlessly interact with their surroundings and with each other.

Edge-2-Cloud Security for Device & Data Integrity

Depending on solution requirements and budget constraints, Syncrasy provides a range of security deployment options including:

Device Authentication: Use of strong, unique credentials for each device to prevent unauthorized access.
Data Encryption: Encryption of data both in transit and at rest to protect sensitive information from being intercepted or accessed by unauthorized parties.
Network Security: Secure networks with firewalls.
Embedding of tamper-resistant hardware circuits (secure elements) in IoT devices, widely recognized as the strongest approach to creating a root of trust and safely store credentials. Each secure element acts as a vault and performs essential tasks, including cryptographic processing, generation of truly random numbers, and secure storage of authentication and attestation keys providing advanced security mechanisms that safeguard credential provisioning, device onboarding, and cloud connectivity.

Air Quality Monitoring with IAQ Index Reporting & Alerts with AI Augmented Gas Sensing

Syncrasy offers integrated sensors for economical, location-based air quality monitoring and reporting. AI augmentation detects various gases, enabling diverse use cases like wildfire detection and hazardous environment reporting.

Sensors detect IAQ index constituents, barometric pressure, humidity and temperature; and soon to be available PM2.5 particulate matter concentrations.

The gas sensors are also trainable to detect Volatile Organic Compounds, Volatile Sulfur Compounds and other use case specific gases such as carbon monoxide and hydrogen, opening the door to wider use case deployments including:

“Sick building” avoidance.
Supply chain spoiled food detection.
Gas & toxic chemical leakage detection.
Early wild-fire detection.
First responder protection.
Hazardous environment reporting.

Syncrasy’s air quality monitoring technologies are tiny, noiseless, fanless, maintenance-free, cloud connected, and can be solar powered.

Event Driven Power Management

Event-driven Power Management extends IoT device battery life, crucial for remote or inaccessible locations.

By optimizing power consumption and activating device functions only when necessary, event-driven power management helps ensure that IoT devices operate efficiently and maximize their battery life.

Key event-driven power management options for IoT devices include:

Low-Power Modes.
Wake-On-Event Mechanisms.
Interrupt-Based Processing.
Scheduled Reporting.
Adaptive Sampling Rates.
Dynamic Voltage and Frequency Scaling (DVFS).
Firmware and Software Optimization.
Energy-Harvesting Solutions.
Battery Optimized Charging Cycles.

By implementing event-driven power management strategies, solution deployments can strike a balance between responsiveness and power efficiency.

For example, an indoor air quality (IAQ) monitor showing high pollution levels might trigger data transfer and an alert only when specific pollution levels are reached.

Contactless & Handsfree Applications including MIFARE®

In the quest for seamless, efficient, and secure technology, Syncrasy Feature Sets not only support NFC based contactless access control, payments and MIFARE® transactions, they also look to the future with support for handsfree applications using Ultra-Wideband (UWB) technologies.

UWB is a cutting-edge wireless communication technology that operates across a wide frequency spectrum. Known for its high accuracy and low power consumption, UWB enables precise location tracking and data transmission, making it ideal for advanced contactless applications.

Applications include:
1. Access Control:

Enable precise and secure entry and exit with our UWB-enabled devices.
Ensure enhanced security through accurate location tracking and authentication.
Efficiently manage access to buildings, rooms, and restricted areas with unprecedented precision.

2. Public Transportation:

Streamline ticketing and fare collection with UWB-enabled systems.
Reduce wait times and enhance passenger experiences with rapid, contactless transactions.
Facilitate seamless contactless and hands-free integration with a single device.

3. Retail and Payment Systems:

Accelerate transactions with UWB-powered payment solutions.
Increase customer satisfaction with faster and more secure checkout processes.

Advantages of UWB-Powered Handsfree Applications

Precision: Benefit from high-accuracy location tracking, ensuring precise control.
Speed: Enjoy rapid data transmission and access, significantly reducing wait times.
Security: Experience advanced security features, including accurate location-based authentication.
Convenience: Utilize handsfree technology for seamless interactions, reducing the need for physical contact.

Pluggable Sensors for Customized Solutions

Pluggable sensor architecture accommodates external sensor add-ons for most use cases, with no or minimal modifications required to manage the different data types and volumes, cost-effectively broadening device functionality and marketability.

Add-on sensors include detection of:

Indoor Air Quality.
AI Augmented Gas Sensing.
PM2.5 particulate matter concentrations. (Coming Soon)
Barometric pressure.
Humidity.
Temperature.
Acoustic, sound, vibration.
Electric, magnetic, radio.
Flow, fluid velocity.
Position, angle, distance, speed, acceleration.
Optical, light, imaging.
Force, density, level.
Thermal, heat.
Proximity, presence and more.

MultiSense Edge Software

Underpinning Syncrasy’s Acceleration Feature Sets.

Lifting the intelligence layer above the hardware layer

To accelerate delivery, Syncrasy provides edge software development services that leverages an API driven software layer of pre-integrated proven and evolutionary technologies that power the digital services delivered by Android & iOS Mobiles, connected machines, wearables, robots and IoT devices.

NFC (Near Field Communication) is a technology that enables simple and safe two-way interactions between electronic devices, allowing users to exchange data with a touch. The benefits of NFC include:

Ease of Use: NFC transactions are completed with a simple tap, making it extremely user-friendly.
Versatility: It can be used for a wide range of applications, including mobile payments, ticketing, and data sharing.
Security: NFC includes built-in security features and enables encrypted data exchange, enhancing transaction safety.
Low Power Consumption: NFC is designed to use minimal power, conserving battery life on devices.
Instant Connectivity: It establishes connections quicker than Bluetooth, leading to instantaneous communication.
Small Footprint: NFC chips are small and can be easily integrated into a variety of devices.

These features make NFC a convenient and secure option for contactless communication between devices over short distances.

Bluetooth Low Energy (BLE) 5 is an advanced version of the Bluetooth protocol that offers several enhancements over its predecessors.

Increased Range: BLE 5 provides a significant increase in operational range, offering four times the range of BLE 4.x versions.
Higher Speed: Data transfer speeds are twice as fast as previous versions, facilitating quicker information exchange.
Improved Capacity: BLE 5 can handle eight times more data in broadcast mode, improving data broadcasting capabilities.
Enhanced Coexistence: Better coexistence with other wireless technologies, reducing potential interference.
Indoor Positioning: BLE 5 includes new features for improved indoor positioning and navigation.
Extended Battery Life: Maintains BLE's low power consumption, enabling longer battery life in devices.
IoT Optimization: Better suited to meet the needs of the Internet of Things (IoT), connecting large networks of devices efficiently.

BLE 5's enhancements make it an excellent choice for a wide range of applications, including IoT devices, beacons, and wearable technology.

Ultra-Wideband (UWB) is a wireless communication protocol that uses low energy levels for short-range, high-bandwidth communications over a large portion of the radio spectrum.

High Precision: Offers highly accurate spatial and directional data, making it ideal for precise location tracking and ranging.
Low Power Consumption: Consumes very little power, making it suitable for battery-operated devices.
High Data Transfer Rates: Can transmit data at high speeds, useful for applications requiring the rapid transfer of large amounts of data.
Strong Security: The wide spectrum and low power make it difficult to intercept, enhancing security.
Minimal Interference: Operates over a wide frequency spectrum causing less interference with other signals.
Penetration Capabilities: Effective at penetrating through obstacles, providing reliable communication in challenging environments.

UWB technology is particularly advantageous for real-time location systems, secure communications, and applications requiring precise indoor positioning.

LoRa (Long Range) is a low-power wireless communication technology that is widely used for the Internet of Things (IoT) devices.

Long Range: Capable of reaching distances of up to 15-20 km in rural areas and 5 km in urban settings, making it suitable for geographically dispersed sensor networks.
Low Power: Designed for minimal energy consumption, which allows devices to operate on battery power for years.
High Capacity: Supports thousands of nodes in a single network, facilitating large-scale deployments.
Robustness: Operates on unlicensed frequencies, offering good penetration through walls and obstacles with a robust signal.
Security: Features end-to-end encryption, ensuring secure data transmission.
Cost-Effective: Low-cost deployment and maintenance, beneficial for a wide range of IoT applications.

LoRa technology is particularly beneficial for smart cities, agricultural monitoring, and any application where devices need to send small amounts of data over long distances without needing a recharge for a long time.

Simultaneous Multi-Regional LTE-M / NB-IoT with concurrent GNSS offers enhanced connectivity and positioning capabilities for IoT devices.

Global Coverage: Supports multiple regions without the need to change hardware, ideal for devices that are mobile or distributed internationally.
Efficient Power Usage: Both LTE-M and NB-IoT are optimized for low power consumption, extending device battery life.
Broadband & Narrowband Flexibility: Offers the option to choose between the higher data rate of LTE-M or the lower bandwidth, energy-efficient NB-IoT, depending on the application's needs.
Accurate Positioning: With concurrent GNSS, devices can obtain precise location data, which is essential for tracking and monitoring applications.
Dual Connectivity: The ability to maintain connections with LTE-M and NB-IoT simultaneously ensures better network reliability and redundancy.
Optimized for IoT: Tailored for the Internet of Things, providing cost-effective, reliable, and secure connectivity for large-scale deployments.

These features make simultaneous Multi-Regional LTE-M / NB-IoT with concurrent GNSS a robust solution for modern IoT ecosystems, enhancing operational efficiency and global scalability.

NXP's embedded Secure Element (eSE) is a dedicated microprocessor designed to safeguard personal data and ensure secure transactions.

Robust Security: eSE offers advanced encryption, secure key storage, and protection against physical tampering, defending against a wide range of security threats.
Multi-Application Support: It can securely host multiple applications, enabling a single device to support various secure services.
Enhanced Performance: Delivers high-speed cryptographic operations and fast transaction times, essential for a smooth user experience.
Global Platform Compliance: Adheres to global industry standards for secure element technology, ensuring compatibility and interoperability.
Flexible Integration: eSE is designed for integration into a variety of devices, from mobile phones to wearables and IoT sensors.
Privacy Protection: It helps in maintaining user privacy by securely handling sensitive data on the device itself, rather than relying on cloud-based storage.

NXP's eSE provides a secure foundation for a multitude of applications, including mobile payments, identification, and connected devices, contributing to the trust and integrity of digital interactions.

Advanced multifactor power management systems that integrate cell, solar, and wireless charging technologies offer a comprehensive approach to energy sustainability and efficiency.

Diverse Energy Sources: Combining solar, cellular, and wireless charging allows devices to harvest energy from multiple sources, ensuring a more consistent power supply.
Enhanced Reliability: With multiple power inputs, systems can remain operational even if one source is compromised or unavailable.
Eco-Friendly: Solar charging harnesses renewable energy, reducing reliance on fossil fuels and lowering carbon footprints.
Convenience: Wireless charging eliminates the need for cables, offering ease of use and the ability to charge devices simply by placing them on a charging pad.
Adaptability: Systems can dynamically switch between energy sources based on availability and need, optimizing energy usage.
Extended Device Life: By managing power efficiently and reducing the need for frequent recharging from traditional sources, the overall lifespan of batteries can be prolonged.
Cost Savings: Utilizing freely available solar energy and reducing waste with wireless charging contribute to long-term cost savings.

Advanced multifactor power management systems represent a step towards smarter, more autonomous, and sustainable energy solutions for electronic devices.

Environmental sensing with Artificial Intelligence. Syncrasy integrates the Bosch BME688, the first gas sensor with Artificial Intelligence (AI) and integrated high-linearity and high-accuracy pressure, humidity and temperature sensors. It is housed in a robust yet compact 3.0 x 3.0 x 0.9 mm³ package and especially developed for mobile & connected applications where size and low power consumption are critical requirements. The gas sensor can detect Volatile Organic Compounds (VOCs), volatile sulfur compounds (VSCs) and other gases such as carbon monoxide and hydrogen in the part per billion (ppb) range.

In addition to providing real-time indoor and outdoor air quality data by location when used in association with Syncrasy’s location sensing technology, use case deployments can include supply chain spoiled food detection, first responder protection and early wild-fire detection.

Multiple Adaptors accommodate external sensor add-ins for most use cases, with no or minimal modifications required to manage the different data types and volumes. Connected external sensors communicating via UWB, BLE, or NFC also inherit Syncrasy’s Chip to Cloud enhanced security.

Occupancy

Motion

Humidity

Audio Output

Light Color

Light Level

Proximity

Temperature

Future-ready Edge Technology

Lifting the intelligence layer above the hardware layer

MultiSense Edge, API driven software customization layer, eradicates the need for all core services firmware development and allows solution developers to focus on building their own unique IP around their specific business offering on top of MultiSense Feature Sets.

Syncrasy’s Edge Hardware engineering team work closely with our Edge Software team to balance design trade-offs between device size and shape constraints, optional security implementations, power management, data transit frequencies and costs, to create optimal device solutions for each use case.

To accelerate use case development, our engineering teams have pre-integrated those technologies that are common across specific classes of use cases, creating pretested Printed Circuit Board (PCB) Reference Designs that optimize cost and adaptability.

Syncrasy’s PCB reference designs provide a valuable resource that reduces development times, minimizes errors, improves efficiency and reliability, speed time to market and reduces the costs of developing new digital products and services.

MultiSense Edge Hardware Reference Designs

NanoSense

IdSense

GeoSense

AirSense

MultiSense

Syncrasy NanoSense

= Default Feature
= Optional Feature

Authenticate & Identify

Functional Overview

NanoSense, available in different form factors to comply with constraint of use cases, enables Very Low Cost, Nearby Secure Authentication, and Identification by Contact Solutions.

Uploaded user data can be personalized, leading to many possible applications in conjunction with any smartphone, and the premium security level ensures secure authentication protecting data accessibility by proximity scanning.

Add-in sensor data can be streamed within the identification message, and because of its low energy usage for broadcasting identification messages, NanoSense PCBs have a long battery life that can also be enhanced with energy harvesting solutions such as solar.

Application Examples

Animal identification & tracking.
Health Monitoring (e.g., skin patches).
Farming, Environment monitoring.
Low-cost Nearby Asset Tracking.
Sensor Monitoring.
Identity Authentication.

Syncrasy IdSense

= Default Feature
= Optional Feature

Authenticate, Identify Sense, Monitor, Record & Locate Indoors

Functional Overview

IdSense inherits all the Nearby Secure Authentication and Identification by Contact capabilities of the NanoSense PCB, and adds additional functionality including:

IoT built in security with embedded Secure Element for highest level of security.
The ability to collect continuous behavior, social interaction and sensors data; and upload when connectivity is available.
Advanced power management features for best battery lifetime.
Indoor geolocation data insights with 2D/3D position by reference to localization infrastructure.

Application Examples

NanoSense Use Cases.
Animal Social Interaction, Behavior.
Roaming TAGs.
Scanning Devices.

Syncrasy GeoSense

= Default Feature
= Optional Feature

Authenticate, Identify Sense, Monitor, Record, Locate Indoors & Outdoors

Functional Overview

GeoSense inherits all the Authenticate, Identify, Sense, Monitor & Record capabilities of the IdSense PCB, and adds additional functionality including:

Outdoor localization of identified object with the addition of Global Positioning using Global Navigation Satellite Systems (GNSS), enabling outdoor localization.
Data collected can be recorded in local memory or accessible through optional IOT connectivity.
In addition to Syncrasy’s Advanced Power Management System for best battery lifetime, GeoSense batteries can be continuously recharged thanks to ambient light in addition to wireless battery charging capabilities.

Application Examples

NanoSense Use Cases.
IdSense Use Cases.
Real-time Location based Use Cases commonly used in malls, airports, hospitals, and museums including:

Indoor navigation, asset tracking, emergency response, and personalized advertising.
Outdoor geofencing, vehicle tracking, navigation, logistics, and location-specific climate monitoring.

Syncrasy AirSense

= Default Feature
= Optional Feature

Authenticate, Identify Sense, Monitor, Record, Locate Indoors, Outdoors, Plus IAQ & VoC + VCC AI Augmented Gas Sensing

Functional Overview

AirSense inherits all the functional capabilities of the GeoSense PCB, and adds additional functionality including:

The Bosch BME688 gas sensor with Artificial Intelligence (AI) and integrated high-linearity and high-accuracy pressure, humidity and temperature sensors.
Location based Indoor Air Quality (IAQ) monitoring of IAQ index constituents, barometric pressure, humidity and temperature.
IAQ Index Reporting & Alerts.
Gas Sensing. Augmented by AI software, this technology is also trainable to detect Volatile Organic Compounds (VOCs), volatile sulfur compounds (VSCs) and other gases such as carbon monoxide and hydrogen in the part per billion (ppb) range.
Coming Soon - PM2.5 particulate matter concentration sensing & reporting.

Syncrasy’s air quality monitoring technologies are tiny, noiseless, fanless, maintenance-free, cloud connected, and can be solar powered.

Application Examples

Personalized, home, businesses, community & Government air quality devices.
Supply chain spoiled food detection.
Gas & toxic chemical leakage detection.
Early wild-fire detection.
First responder protection.
Hazardous environment reporting.
Livestock manure emissions.
Mass transport passenger health monitoring.

Syncrasy MultiSense

= Default Feature
= Optional Feature

Authenticate, Identify Sense, Monitor, Record, Locate Indoors & Outdoors Plus Accurate. Real-time Localization

Functional Overview

MultiSense adds premium features to the GeoSense capabilities including:

3D spatial awareness with centimeter level accuracy.
3D Nearby tracking, compatible with latest generation of iOS & Android smartphones.
Optional global connectivity (Cellular Networks) allows real time data collection.
Contactless digital wallet solutions compatible with payments, transports and other secure transactions.
Migration to hands-free transactions.
Continuous sensor data collection for processing through Edge / Cloud AI Models.
MultiSense can be used to build smart wearables, Anchors or combined with Gateways.

Application Examples

In addition to the GeoSense Sense Use Cases, the following applications leverage MultiSense unique capabilities, including high accuracy, low interference, and secure data transmission.applications include:

Precision Indoor Positioning and Tracking.
Hands Free Access Control and Authentication.
Contactless Transactions, including Payments.
Precision location tracking for robotics and automated guided vehicles in manufacturing.
Underground & surface mining safety applications.

Future-ready Devices

Whether you’re creating the next big consumer device, pet safe services or industrial grade advanced solutions, Syncrasy’s engineering services will help you fast-track the design, testing, manufacture and implementation of the selected electronics and enclosure form factors.

Syncrasy Edge Data Aggregation

Built using MultiSense Technologies, Syncrasy’s Anchors serve as communication hubs for Edge devices:

Centralizing Data: Collecting data from multiple IoT devices.
Positioning: Using technologies like UWB, Bluetooth, or Wi-Fi for precise location tracking.
Connectivity: Bridging IoT devices to larger networks for data transmission.
Real-time Communication: Ensuring quick data transfer for time-sensitive applications.
Security: Providing advanced security features to protect data.
Power Management: Extending IoT device battery life through efficient power management.

In essence, Syncrasy MultiSense wireless anchors enable efficient data collection, accurate positioning, seamless connectivity, real-time communication, enhanced security, and effective power management for IoT networks.

Edge Data Processing

Real-time, local processing for faster, more efficient, and secure data management.

Real-Time Processing: Enables immediate data processing, facilitating real-time decision-making and actions without the latency that comes with data transmission to and from the cloud.

Bandwidth Efficiency: By processing data locally, Edge Computing reduces the volume of data that needs to be sent over the network, alleviating bandwidth constraints and potentially reducing associated costs.

Enhanced Privacy and Security: Local data processing means sensitive information doesn't have to leave the device, which reduces the attack surface for data breaches and ensures privacy.

Operational Reliability: Devices enabled with Edge AI can operate independently of central servers, enhancing reliability particularly in environments with unstable internet connections.

Scalability: Edge Computing allows for the scaling of IoT solutions by adding more devices at the edge rather than overhauling central data centres or cloud infrastructure.

Energy Efficiency: Processing data locally can be more energy-efficient than sending it across a network to a data centre, which is beneficial for battery-powered or remote IoT devices.

Cost-Effective: With reduced data transmission and cloud processing, there can be significant cost savings in cloud services and network infrastructure.

Customization: Edge AI models can be tailored on a per-device basis, allowing for localized and context-aware intelligence that can adapt to the specific conditions of its environment.

Reduced Cloud Dependency: By enabling local decision-making, Edge AI reduces dependency on cloud services, which can improve operational resilience and reduce operational costs.

Compliance with Regulations: By processing data locally, Edge Computing and Edge AI can help comply with data sovereignty and other regulatory requirements by not transmitting potentially sensitive data.

Powered by NVIDIA

Edge Artificial Intelligence (AI)

Building a Quicker, More Intelligent, Interconnected World.

Localized, Real-time Intelligence

Real-time facial and object recognition.
Enhanced predictive maintenance.
Real-time alerts for abnormal readings.
Localized behaviour analysis.
Autonomous navigation, obstacle avoidance, and decision-making without latency.
Energy usage optimization.
Real-time tracking with predictive outcomes.

Generating Opportunities for New and Improved Digital Products & Services

Agricultural Optimization: Edge AI enables real-time monitoring of crop conditions, soil quality, and weather for better irrigation and harvesting decisions.

Environmental Monitoring: Sensors track air and water quality in real-time, alerting authorities to pollution or hazards.

Supply Chain and Logistics: Real-time tracking and predictive analytics for goods and vehicles, improving delivery times and warehousing.

Safety and Security Systems: Real-time facial recognition, anomaly detection, and threat analysis without constant video streaming.

Disaster Response and Monitoring: Processes sensor data in disaster areas, providing early warnings and quick response.

Predictive Maintenance in Manufacturing: Sensors predict equipment failures, reducing downtime and maintenance costs.

Smart Cities: Traffic systems use real-time data to optimize flow, reduce congestion, and enhance safety.

Healthcare Monitoring: Wearable devices monitor vital signs, providing real-time alerts for abnormal readings.

Retail Experience Enhancement: Analyses customer behaviour to optimize inventory and personalize shopping.

Smart Home Devices: IoT devices make immediate decisions on heating, cooling, and security.

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Self-Service Insights from Different Perspectives

Composable Mobile & Web Application Elements

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Syncrasy integrates pre-engineered hardware and software to provide the foundation and solution building applications needed to build early wins, explore opportunities and generate a “Flywheel Effect” that powers enterprise-wide digital transformation.

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