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[email protected] om Steve Skutnik, Ph.D. Dept. Nuclear Engineering Click to add Co- Investigator(s) PORTABLE RADIATION DETECTOR Michael Willis and Howard Hall, Ph.D.

[email protected] Steve Skutnik, Ph.D. Dept. Nuclear Engineering Click to add Co-Investigator(s) PORTABLE RADIATION DETECTOR (Note: plan for 30 seconds

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Page 1: Utrf@tennessee.com Steve Skutnik, Ph.D. Dept. Nuclear Engineering Click to add Co-Investigator(s) PORTABLE RADIATION DETECTOR (Note: plan for 30 seconds

[email protected]

Steve Skutnik, Ph.D.Dept. Nuclear Engineering

Click to add Co-Investigator(s)

PORTABLE RADIATION DETECTOR

Michael Willis and Howard Hall, Ph.D.

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TECHNOLOGY DESCRIPTION

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TECHNOLOGY DESCRIPTION

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• The RadCompass system is currently at TRL-5 (rapidly approaching TRL-6)– A functioning prototype with live readout has been

developed & tested– Further development of the DAQ system (currently in-

progress) would push the system to TRL-6 and beyond

• The RadCompass algorithms have been tested both through computational simulations & field tests with realistic source terms, both of which support the viability of this system

• The RadCompass algorithm is ready for commercial deployment– Further development is now focused on demonstrating

the performance of the integrated system through a functioning prototype

TECHNOLOGY OPPORTUNITY

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TECHNOLOGY LEADERSHIP

• Unique to the RadCompass design is its ability to detect the relative bearing of a radiation source in real time for a diversity of radiation sources using existing, commercial off-the-shelf components

• Key performance indicators of the RadCompass include our battery of realistic simulations & tests detailing the performance limits of this system– e.g., max. source distance & min. source

activity

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Viability of the RadCompass concept has been demonstrated and is fully developed; focus is now on design improvements & performance characterization through realistic testing to enable potential licensees to more rapidly move to market

RESEARCH & DEVELOPMENT PLAN

Full patent filed

FY15 Q2

FY15 Q3

FY15 Q4

FY16 Q1

FY16 Q2

Develop user interface & standalone electronics

Conduct live field tests with vehicle-mounted prototype

Finalize unit performance benchmarks

First commercial product

Develop field-scale prototype unit

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• Finalized design/data within a few months– Current R&D effort focused on development of a viable

prototype, including enhanced UI and device performance characterization

• Targeting a licensing strategy– Can be on market within 1-2 years of license– Minimal additional development required

• Technology could be developed by a startup, but likely a licensing target for established companies – Companies with vehicle mounted systems already on

market– Companies looking to break into this market

COMMERCIALIZATION PLAN

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APPLICATIONS/TARGET CUSTOMERS/CURRENT PRACTICE

Application Description

Target Customers Current Practice

Application #1 Public event monitoring

Government contractors & local law enforcement

Vehicle mounted detectors with GPS tracking; personal “pager” detectors

Application #2 Illicit radiation source smuggling / theft

Transportation industries / DHS / law enforcement

Stationary portal monitors & hand-held detectors

Application #3 Military / WMD & illicit source detection

Government Wide area sweep / “hot-cold” search

Application #4 Nuclear accident cleanup

Government contractors

Hand-held radiation monitors

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COMPETITIVE DIFFERENTIATION

Radiationmonitorin

g

GPSlogging Modular 360°

operationSource

direction

RadCompass ✔ ✔ ✔ ✔ ✔

Product #1 ✔ ✔ ✔ ✔

Product #2 ✔ ✔ ✔

Product #3 ✔ ✔

Product #4 ✔ ✔ ✔

Product #5 ✔ ✔

Product #6 ✔ ✔ ✔ ✔

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MARKET OPPORTUNITY

• Radiation detector market (2013): $25B

• 14% of that is safety/monitoring: $3.5B

• 5% CAGR

*Nanomarkets report