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TYPICAL CHALLENGES INCLUDE Disparate User Experience Security & Complexity Device Associations Monitor & Control Troubleshooting Time to Market

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ADVANTAGES INCLUDE Single User Experience Security & Simplicity Device Associations Monitor & Control Troubleshooting Time to Market

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Software Raptor Data Management Business Logic Security Abstraction

Custom Protocol Development Framework (SDK)

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Conditional Event  Interval Triggers and Action - Intelligent Local Control

Protocol and Interface Plugins (Libraries)

Threshold Management - Intelligent Filtering - Prioritisation

Custom Development Framework - Bespoke Logic and Data Management

Role Management - Local Web UI - Mimics (abstraction)

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Leverage off  existing data infrastructure

Connect  |  Transform  |  Analyse  |  Visualise  |  Manage

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Raptor™ Edge Gateways are intelligent devices designed to aggregate, secure, analyse and relay data from diverse sensors and equipment at the edge of the network. These gateways bridge both legacy systems and modern sensors to the internet, helping you to get business insights from the real-time, pervasive data in your machines and equipment. Raptor™ Intelligent Edge Gateway is the first point in creating your organisations digital strategy and future proofing your business. A key feature of the Raptor™ is its ability to agnostically abstract and aggregate data from any system, sensor or device and make it available on one platform.

Protocol Definition There is a wide range of generic protocol plugins available, in order to connect to any edge device protocol, including L2C, SPI, TTL Serial, RS-232, RS-485, RS-422, CAN bus, Digital I/O and analogue devices.

Configuration & Support Options Configuration is manageable from the client portal platform making support and provisioning of most industrial protocols simpler. Access to previous integrations and a catalogue of sensor and machine protocols are also available.

Interface Specification The agnostic nature of Raptor™ is vital when combining data from different sources and making it available on one platform. This structure is scalable, enabling multiple connection interfaces.

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The entire IoT.nxt ®  stack has been designed and developed to operate at the Edge - in the Core or the Cloud. This hybrid platform is designed to suit every operational and business need.

The IoT.nxt ®  Portal offers application management options such as the configuration of users, groups, roles, granular permissions, visualizations, ad-hoc services and business logic configuration.

IoT.nxt ®  Commander is real-time operational dashboard software. Commander enables a consolidated view of entire IoT ecosystems, delivering situational awareness and real-time visualization of all inputs being generated. Commander facilitates alarms, bi-directional monitoring and control as well as visibility and status of equipment or assets.

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IoT.nxt ®  is a unique rapid digitization  technology enabler  that future-proofs enterprises, allowing them to retrofit existing infrastructure investments making them interoperable with new technology, maintain the freedom and agility to incorporate new systems and products, and deploy strategic changes based on real-time information. We protect investments by leveraging off existing technology and infrastructure. We  future-proof  operations by avoiding vendor lock-in with our technology-agnostic offering.

We’ll help clients start realizing a  return on investment  quickly with our  non-disruptive technology. IoT.nxt ®  offers a scalable offering that can be rolled out with a digitalization strategy. We have developed secure technology that will  protect precious data , long into the future. We help increase their bottom line by providing  in-depth, company-wide visibility  and real-time insights .

Intelligent ﬁltering  of data at the edge

Real-time in-shift   optimization of  operations

Integration of  analog and digital,  legacy and new  devices

Quick Implementation with no disruption, retrofitting our technology to create interoperability  between new and legacy infrastructure and equipment

Consolidation of  business-wide  processes  and data

Remote monitoring and management  of businesses

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Software Defined Device Interface The USB SDDI Unit is a High-Speed (480 Mb/s) USB 2.0 controller with 4 device channels (Channel A, B, C & D). Each channel can be controlled individually over USB in the Software Raptor running on a host PC or industrial gateway.

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The SDDI Motherboard provides additional connection interfaces via pluggable SDDI modules/HATS in order to connect to any edge device protocol, including I2C, SPI, TTL Serial, RS-232, RS-485, RS-422, CAN bus, Digital I/O and  analog  devices

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Jump Module ( I2C, SPI, Two Wire, TTL Serial, 8x5V Tolerant Digital Inputs, 8x3.3V Tolerant Digital Outputs) Output Module ( 4x Push Pull Digital Outputs) Input Module (3x Isolated Digital Inputs with 12V feeds) RS485 Module ( Isolated Half duplex serial) One-Wire Module RS232 Module (Isolated RS232 RTS/CTS) CAN Module (Isolated  CANBus )

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First and foremost, many mining equipment, whether underground or on an open cast mine does not have the capability push relevant machine data to the cloud. The advantage of push you data to the cloud is Life data of equipment no matter where you are. Preventative maintenance. Is your machine being used as effective as possible. In many cases, machines are capable to send their data to a SCADA system located in a control room and perhaps sends data to the cloud but utilizing a generic dashboard. We have the capability to change any aspect of a dashboard to give client a more comprehensive dashboard with richer data sets being displayed. Dashboards can also be catered to the clients liking removing unnecessary information and only showing what they need.

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The name Raptor CAN Mine has its heritage in that we use a Dell gateway together with a in – house developed CAN Mine board that plugs into the Dell gateway.

Why we did this? Simple. Mining equipment doesn’t always have the intelligence to push its data to the cloud. We place the intelligence factor of a machine in two categories.  Legacy (Hydraulics/Pneumatics, usually no HMI) CAN bus system which in most cases has an HMI from which we intercept the data before it goes to HMI and then push it to the cloud.

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Detailed explanation on Raptor CAN mine unit

Perception is that the Raptor CAN Mine in itself is a difficult concept to understand. It is not. As we’ve seen in the intro it is actually very easy to comprehend if you understand the unit’s main components. Component breakdown: Dell gateway CAN Mine board  Power harness that supplies Dell with 24 V from input VCC. The enclosure into which everything is fitted. Dependent on your communication preference the RCM can utilize either Ethernet or  WiFi  connection for breakout to To the cloud

Below slides will have pictures of the RCM assembly to give you an in depth understanding on how inside components  communicate and to pretty much make sense of the device at a lower level.

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Continued- CAN Mine board connector pin – out and installation guide line

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Continued- Dell connection points utilized by CAN Mine PCB

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WiFi  connection – extended from Dell’s inside  WiFi  SMA.

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Let take a look at CAN bus. We all know it is a communication bus used mainly but not solely on vehicles. Keeping above in mind, it would be an obvious choice for mining equipment as it is an established protocol and very stable. Main rules of CAN bus: There are 2 important lines – CAN Low and CAN Low. There are numerous ways to determine which is which but voltage measurements are common and straight forward. CAN high fluctuated between 2.5V and 3.5V measuring between wire and common ground. CAN low fluctuates between 2.5V and 1.5V measuring between wire and common ground. Main rules of Legacy machines All functions of machine will start as an analog value which then triggers a relay on the machine. These machines are mostly pneumatic or hydraulically controlled As per machine electrical diagram, decide on points you want to connect to. Your input into the RCM unit will be Boolean.

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As per above pin – out, installation of CAN Bus, is fairly straightforward. Establish where your CAN – High and CAN Low lines are Establish a common ground – you should have this by know as you searched for CAN lines using this point. Utilizing the 5 – pin connector, connect relevant pins to CAN lines, VCC and GND.

Connection done to Vehicle via M12 – 5pin connector

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Connection done to Vehicle via M12 – 12pin  connector

The tricky part in installing a legacy vehicle is that the vehicle wiring needs to be up to date as from this wiring diagram we can determine to which points we have to connect to see e.g. percussion, transmission and alarms to name but a few. Below shows an example of where connection area sits (Normally in the electrical panel of the vehicle)

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Both the above mentioned sensors are extremely easy to install on a hardware level. They make use of MODBUS RS485. In the respective manuals a set of holding and input registers can be found. These registers are then added as scan tags under Raptor Edge gateway portal, under the MODBUS driver. I will provide you with a live example now on what this will look like. There can be up to 32 sensors on one RS485 bus. The Dell has two I/O ports which means a total of 64 sensors can connected to one Raptor. Dell RS485 I/O input config shown below:

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Installation of RCM unit – Legacy example of connection points

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Intro into Industrial Environmental Monitoring

In this training I would also like to present and talk about Environmental monitoring of dust monitors capable of detecting up to  PM2.5 particulates, as well as environmental sensors created for mines.  In the detailed explanation of the two sensors, we’ll have a live demo from ease  of installation, configuring the devices in Raptor, pushing it to the cloud and what it can look like on a life dashboard.

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Industrial environmental monitoring – P50

The P50 is a industrial environmental monitoring system with IP68, military grading for the most harsh conditions. The base unit can measure: Ambient temp Barometric pressure Air velocity Carbon Monoxide Methane Additional sensors can be added to the unit: TVOC Oxygen Hydrogen  Sulphide Hydrogen Carbon Dioxide Smoke detection All this in one compact rugged unit

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Industrial environmental monitoring – D51

As with the P50, this dust monitor is rated at IP68 with a military grading. The monitor measures PM (particulate matter). The accuracy is of the highest standard and a must have on mines. Accuracy levels: PM1.0 PM2.5 PM10 Picture below shows just how fine of a particulate it can measure.

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TECHNICAL PROBLEMS: Our client approached us with a multi-faceted problem.​ Inefficiencies with asses management, security, operational inefficiencies, fragmented databases, limited clarity on incidents and repeat site visits by service providers were all resulting in extremely high operating costs and low productivity. BUSINESS IMPACT: Our client now has the ability to see stock levels on site and manage by exception.​ Equipped with real-time notifications on all sub-systems and their KPI’s, automated workflow for escalations and notifications to drive efficient proactive maintenance and replacement, the client now sees reduced costs and significantly increased productivity. DISRUPTION TO PRODUCTIVITY There was no disruption of productivity as the base stations are typically unmanned and technology is overlaid onto existing infrastructure without any downtime​

PROJECT SOLUTION SUMMARY We developed a seamless base station experience through an aggregated IoT ecosystem that links all their systems and sub-systems, providing real-time, hyper contextualized information that aids business intelligence, process efficiencies, proactive maintenance, reduced manual intervention and proactive incident management.​

Efficiency – Prevention of unnecessary callouts through hyper contextualized information. Risk reduction on assets through RFID tagging, predictive through multi-layered monitoring including cameras, vibration sensors, door contact sensors and PIR, all working together in one ecosystem through automated workflows and escalation protocols​

1X Project Team Lead, 1x Solution Architect, 2x Electronic Engineer, 4-8x Development Resources (Agile), Client cable to cable provision network resources

Secondary Power Sources​ Radios​ Rectifiers​ PIR​ Cameras​ Energy Meters​ RFID Readers

Management, Asset, Security, Energy and Environmental Monitoring

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IoT . nxt ®  Smart Telecommunication Solution

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IoT . nxt ®  Smart Telecoms Base Station Solution

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Intelligent Cell Sites for Delivering Business Value

Save up to  20%  on overall  energy consumption Prescriptive analytics aimed at  reducing maintenance costs by 5% Reduce truck rolls  with predictive maintenance & prescriptive analytics  Extend asset life  by determining optimal operating conditions (assets runs only when necessary) and improved management of spares inventory Consolidated view of entire environment  at scale with intersystem event correlation identification Increase asset visibility  for planning, design  and operation

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Energy Drives Initial Savings  Implementing further use cases increases operational savings

* Assumes 25,000 base stations and they are fully operational at month 0 to achieve accumulated savings

Intelligent Cell Site Use Cases Energy AC Consumption Monitoring  DC Consumption Monitoring HVAC Systems monitoring and control  Humidity monitoring and control Airflow monitoring and control Battery voltage and temperature monitoring  Operational Efficiencies Improve Alarm accuracy through event correlation Asset Health Monitoring of all systems  Systems maintenance analytics  Battery health and end-of-life analytics  Generator operations monitoring  Fuel consumption monitoring  Enhanced Capabilities Site access analytics  Advanced operational analytics

The Energy Savings program funds the IoT.nxt ®  solution

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Achieving Savings through fewer Truck Rolls

2 Fewer Truck Rolls per Year 2K 4.7K 5K 7.3K 10K 15K 20K 25K 1925480 4524878 4813700 7028002 9627400 14441100 19254800 24068500

Model Assumptions All base stations are fully operational  Solution cost @ blended rate of  $53.10/Mo . per scenario 1 (50:50) 5-year solution; excludes energy

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After only a couple of months live on close to 4000 sites running our Intelligent Cell Site solution, we have shown energy savings to the equivalent of:

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More than  1000  vehicles taken off the roads for a year

Driving around the earth over  500  times (up to  21  million kms)

Over  5  million kilograms of carbon dioxide

Almost  90 000  seedling trees growing for  10  years

Over  600  million mobile phone charge cycles

Approximately  200 000  energy saving  bulbs installed

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In 2019 IoT.nxt ®  identified a gap in the IoT gateway market for a small, cost effective gateway that could be customized depending on the required use case. The  Micro Raptor TM  is a very cost-effective device that is easy to install  and provides a highly secure connected method to connect devices and sensors to our Commander IoT Platform. The device is certified for global markets by making use of pre-certified communication modules that can be easily added to the device.  It is easy to configure and install,  provides flexibility in communication over wi-fi, Bluetooth, 2G, 3G, 4G, and NB-IoT.

The Micro Raptor TM  ensures that  everything from security to communication is seamlessly taken care of  as part of the hardware and the integrated firmware embedded on the device.

Commercialization process - months elapsed from concept phase to fully fledged market offering:  Between 6 and 12 months

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Embedded Gateway Module The Micro Raptor TM  Module is a  small footprint gateway with serious capabilities.  The module holds up to 60 GPIO pins which can be used for device integration. It is capable of Wi-Fi and Bluetooth connectivity out of the box with a mini PCIe expansion slot intended for cellular connectivity modems. The module integrates all components needed for secure cloud connectivity, data logging and peripheral control.

Module features include: Footprint size of 35 x 70 mm Remote firmware updates End-to-end encryption [TLS/DTLS] Configuration layer [settings, end-points] Rich set of peripherals Analog sensing I2C CAN Bus SPI UART Selection of cellular compatible modems 2G/3G/4G NB-IOT/CAT-M1

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Our solution addresses the following industry challenges: The epic challenge of the 21st century: filling the gap between energy supply and demand with clean, reliable and inexpensive energy.  While new sources of energy are gradually changing the landscape, most businesses still rely heavily on backup sources such as generators to meet their energy demands and ensure business continuity.  Managing and maintaining this infrastructure can be very costly, and regular inspections are required to check fuel levels, operational efficiency and device health. The IoT.nxt ®  Smart Generator solution helps deliver: Business continuity through monitoring of vital performance and health aspects such as fuel and coolant levels, location, temperature and energy generation. Proactive responses and decreased downtime by providing real-time information about all generators in a network.

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The IoT . nxt ®  Smart Generator Solution Architecture

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With the rapid rate of development  and increase in population growth , more and more energy is required to support economic and  social progress  and build a better quality of life. This has lead to  a larger requirement  for backup capacity in the form of generators, to supplement existing  energy requirements   and provide failover in emergencies . All industries benefit from  sustained energy  supply. The management of backup capacity is the only way to ensure  business continuity .  The IoT.nxt ®  Smart  Generator solution provides a system to  monitor  and manage generator networks, while enabling bi-directional control. This solution will provide  business value  in the form of time, money and resources.

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Integrate with the generator controllers to set alarm thresholds and receive alerts on anomalies that could affect the use of equipment .

Enables monitoring of several generators located at multiple sites using a single dedicated dashboard .

Monitoring fuel levels and understand normal consumption rates, automatically issuing alerts if fuel levels fall below minimum requirements or consumption anomalies are detected.

Remotely access vital information and issue or schedule corrective action from anywhere, anytime.

Track and analyze the performance parameters of individual generators using a single reporting system.

Gain access to a set of reports that offer insight into current and historical information relating to fuel levels, battery levels, hours of run time and location .

The IoT . nxt ®  Smart Generator Solution

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1 │ Virtual Raptor™ Architecture Overview

The Virtual Raptor™ comprises several microservices:

Collector Service Heart of the Raptor™. The Service ID of the collector is the Gateway ID of the Raptor™. Keeps track of registered devices and sends the registration information to the Cloud Service if anything changes. Filters and Routes telemetry from the devices to the Cloud Service. Keeps track of the most recent telemetry values. Transmits Device Commands to the Device Service that handles that device.

Identity Service Provides authentication and authorization services for data in transit. Issues bearer tokens that are used to authenticate communication over the  gRPC  connections. Provides authentication services to the Device Services that require it.

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Communicates with the hardware devices. Provides both Pull (telemetry is pulled from the devices on a scheduled basis) and Push (telemetry is pushed from the device when it changes) telemetry support. Transmits the telemetry to the Collector Service for processing.

2 │ Virtual Raptor™ Architecture Overview

Handles the connection to the IoT.nxt ®  cloud. Translates and transmits the registration and telemetry requests to RabbitMQ. Receives Device Commands from the IoT.nxt ®  cloud and forwards them to the Collector Service for processing.

Devices have two modes of execution, Automatic and Scheduled. Automatic devices handle the reading of telemetry from the hardware internally. Device Scheduler executes the other devices on a configurable schedule.

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Write a driver from scratch using the SDK Includes a template microservice and UI driver template Currently  IoT.nxt  reviews, tests and deploys driver microservice Driver will be deployed to Device Store where it will be available for use

Select existing driver from Device Store Utilize existing drivers to post directly to  IoT.nxt  platform. Configure device/driver to send data in the correct format IoT.nxt  currently handles deployment of the driver.   Later on drivers will be deployed through Raptor Portal

Export existing generic driver code Modify driver code to the specific device requirements to create a device-specific driver Currently  IoT.nxt  reviews, tests and deploys driver code   IoT.nxt  currently handles deployment of the driver.   Later on drivers will be deployed through Raptor Portal

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TECHNICAL PROBLEMS: Our client offers IoT services to clients on a “Software as a Service” Model. Leveraging our component framework, this client is able to deploy IoT in an easy, affordable package with pre-built use cases. Our client wasn't able to integrate all sub-systems and devices into a single platform to bridge the gap between ring-fenced systems and visualizing an entire operation centrally with aggregated data from all operations.  BUSINESS IMPACT: By integrating all devices and systems into a single view, showing processes and building management, the client is able to utilize data to make more intelligent decisions on the edge as well save costs  on utilities. DISRUPTION TO PRODUCTIVITY TBC.

PROJECT SOLUTION SUMMARY We provided a platform to integrate all data centrally. The turnkey, white-labelled IoT solution focuses  on the Facilities and Building Management sector. Web-based, this solution was built specifically with scalability in mind .

Optimization  - Boardroom occupancy monitoring and management. Utility monitoring  - More accurate, real-time data on the edge to decrease utility costs. Productivity and efficiency  - Making more intelligent decisions and utilizing resources better to save costs.

•  1 X Project Team lead   •   1 - 2 X Solutions Architect   •  2 X Electronic Engineers •  4-6 X Development resources (Agile)   •  Outsource cable and network resources •  Outsource Installers

• Electricity Meter Controllers   • Fire Panel – Smoke Detectors   • Generator  •  HVAC Controllers                 • Paradox intrusion alarm system via SDK  • Bosch VMS via SDK   • CEM access control system via API   • Asset management and  ratbox  data capture (using  Sigfox  network)   • Water meter pulse counters (using  Sigfox  network)  • UPS monitoring  • Meeting Room Occupancy System  • Service Desk

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TECHNICAL PROBLEMS: Our client did not have a mechanism to securely integrate and orchestrate data between their lighting, desk booking, meeting room booking, environmental monitoring, BMS, energy metering, occupancy monitoring, real-time occupancy tracking systems. Translating into three main problems: A lack of holistic analytics on environmental conditions and the impact that this has on building zone utilization and occupants. Lack of ability to control the energy consumption based on building utilization (desk bookings, meeting room bookings). Inability to allow the systems above to interoperate with each other to improve the internal comfort and operational efficiency of the building.

PROJECT SOLUTION SUMMARY The following IoT.nxt ®  Solution Components were deployed: Real-time visualization of integrated system data. Analytics and reporting. Kiosk mode interfaces.

Desk booking Meeting room booking Occupancy monitoring Energy metering Real-time people tracking Environmental sensing

A single real-time UI that enables building users to: Tell the occupancy levels of floors. Book desks. Find free meeting rooms, and get meeting room information for bookings. Gauge comfort in different areas of the building. Gain interesting insights into how they can influence building energy usage. Customized analytics reports giving insights into building occupancy, energy use, and environmental conditions. An IoT platform that is easily extensible to include other integrations in future.

An occupancy and utilization project delivered at the head-offices of a global company to give building occupants insights into building statistics and give building managers key information to manage their space more effectively.

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