The R&D Tax Credit Aspects of Physical Security Technology



By and


Physical-Security         Physical security is a highly complex, multifaceted challenge. It encompasses all of the physical measures designed to safeguard personnel; to prevent unauthorized access to equipment, installations, material, and documents; and to protect against numerous threats, such as theft and damage.   The diversity of potential menaces to physical security calls for multilayered, flexible solutions that use innovative technology to keep up with ever-changing risks. The present article will explore recent developments in physical security for both facilities and personnel and discuss how companies engaged in physical security innovation can take advantage of federal R&D tax credits.  


The Research & Development Tax Credit

        Enacted in 1981, the federal Research and Development (R&D) Tax Credit allows a credit of up to 13% of eligible spending for new and improved products and processes. Qualified research must meet the following four criteria:

  • New or improved products, processes, or software
  • Technological in nature
  • Elimination of uncertainty
  • Process of experimentation

        Eligible costs include employee wages, cost of supplies, cost of testing, contract research expenses, and costs associated with developing a patent.  On December 18, 2015, President Obama signed the bill making the R&D Tax Credit permanent. Beginning in 2016, the R&D credit can be used to offset Alternative Minimum tax and startup businesses can utilize the credit against $250,000 per year in payroll taxes.


Protecting People: Personal Physical Security

        Physical security accessories, such as Tasers, bulletproof vests, and body-worn cameras, can save lives and reduce exposure to injuries. They constitute invaluable assets for numerous professionals, particularly security personnel and police officers. The following sections discuss recent innovation trends in technology designed for personal protection.

Non-Lethal Weapons
        Electroshock weapons temporally incapacitate neuromuscular transmission, disrupting voluntary muscle control through the stimulation of sensory and motor nerves. This kind of weaponry is often preferred to other less-lethal force options due to its overall effectiveness, which presents virtually no variation relative to the subject’s pain tolerance, drug use, or body size. Electroshock weapons are often divided into three categories, namely, 1) those that work through direct contact, such as stun guns and cattle prods; 2) the so-called conducted electrical weapons (CEW), which fire dart-like electrodes that deliver shocks through thin wires that remain connected to the gun; and 3) wireless long-range electroshock weapons.

        Though undoubtedly an important means of self-defense and law enforcement, non-lethal weapons are often subject to criticism. When it comes to technical shortcomings, the first two categories have obvious limitations of range, which is restricted to the arm’s reach, in one case, and to the length of the wire, in the other. The third type, though capable of reaching more distant targets, presents higher risks of death and serious injuries, due to the speed of the projectile and the inability to control the shock after firing. Costly ammunition and an inconveniently large size are also drawbacks of long-range non-lethal weapons.

        Numerous innovative companies are entering the $8.5 billion non-lethal weaponry market with the objective of overcoming the limitations of existing technology. For instance, Lenexa, Kansas-based Digital Ally is working on a wirelessly controlled electronic weapon that is more compact and easier to carry than those currently available. Other proposed improvements include enhanced accuracy, reduced projectile speed, and post-firing control of the shock via radio frequency.    

        A more traditional player in this market, Scottsdale, Arizona-based TASER International is also innovating through the development of a line of smart weapons designed to save lives and reduce injuries. With advanced firing logs, these weapons enable highly accurate reports that help understand the reasoning behind the decisions made in the field. Sensor technology registers, for instance, how long a weapon was armed and when the trigger was held. Other technical improvements incorporated into TASER’s latest CEW products include dual lasers for enhanced accuracy, an audible warning to facilitate voluntary surrender, and a smart cartridge that reduces accidental discharge. More importantly, there is the possibility of a backup shot, which is a major breakthrough in a field dominated by single-shot weapons.

Bulletproof Vests
        Bullet-resistant vests are designed to absorb the impact and stop or reduce penetration of firearm-fired projectiles and fragments from explosions. They work by dispersing the energy from incoming projectiles across multiple layers of material. The very strong fibers in their composition “trap” the bullet and slow it down to a full stop.

        There are generally two kinds of bulletproof vests: 1) “Soft vests” are usually made of para-aramids, which are essentially plastics woven into fibers, or of Ultra-High-Molecular-Weight Polyethylene (UHMWPE), a gel-spun, multi-filament fiber also made from plastic. Though presenting very high levels of strength-to-weight ratio, these materials remain flexible and are capable of absorbing significant amounts of energy, thus being effective against most kinds of small-caliber ammunition. 2) “Hard vests”, on the other hand, are designed to offer protection in extreme situations involving higher-caliber threats, including rifle rounds. In addition to the fibers used in soft vests, these reinforced armors incorporate plates of ceramic, steel, or titanium. Because of the extra layers of protection, hard vests are heavier and thicker than soft ones.

        Despite the general distinction between hard and soft vests, more technical classifications, such as the one from the US National Institute of Justice (NIJ), refer to different ballistic levels. The choice of armor to wear should take into consideration the likely threats to be faced. Recent events involving the deaths of police officers point to an increasing use of hard vests. For instance, Texas Lt. Gov. Dan Patrick recently asserted that he would ask legislators for up to $20 million to provide 40,000 police officers with reinforced vests.  

        In addition to ballistic protection, a growing number of body armors offer spike and stab threat protection. Spike threats refer to sharp pointed objects, such as needles and ice picks, while stab threats take the form of edged blade attacks. Protection against both of these menaces is important to various professionals, such as prison guards, bouncers, and bodyguards.
Innovation in body armors is key for enabling enhanced protection and greater comfort. Outstanding challenges include the development of thinner, lighter, and more flexible vests that maintain high levels of ballistic protection. Improved ergonomics as well as cooling systems are also priorities, especially when targeting prolonged users in hot or humid conditions. Promising areas for body armor innovation include the field of “biomimetics”, which draws inspiration from nature (such as the scales of fish). This line of research can take advantage of 3D printing technology, which has emerged as a valuable asset in the quest of understanding how materials are formed and utilized in nature.

        With offices in Rogersville, Missouri, worldwide manufacturer and distributer of body armors Safeguard Armor illustrates the importance of continuous innovation. The company points to the immense potential of unusual materials, such as wood pulp, which can be used to create ballistic-resistant nanocellulose, and graphene, a sheet of single carbon atoms that can absorb considerably more energy than currently available materials.  

        Among the most exciting recent developments in bulletproof vests are “liquid” body armors. Polish company Moratex has developed an innovative material called Shear-Thickening Fluid (STF), which constitutes a lighter and more flexible alternative to traditionally used materials. STF increases in viscosity when exposed to impact, behaving like a solid when struck with fast-moving projectiles. It is further designed to reduce indentation when hit by bullets, thereby lessening the impact felt by the wearer and reducing risks of injury.

Body-Worn Cameras
        Video evidence systems are designed to work not only as a deterrent mechanism but to help increase both the transparency and accountability of police officers and security personnel. Despite the ongoing proliferation of such systems, recent events have brought their effectiveness into question. In this scenario, innovation is key to enabling the necessary improvements to existing technology. The following paragraphs present recent advancements by innovative companies in the field of body-worn security cameras, whose work exemplify the kinds of efforts that could potentially qualify for federal R&D tax credits.

        In October 2016, Axon, a business unit of TASER International, unveiled a new generation of police body cameras, designed to overcome the limitations of previous solutions. The innovative Axon Flex 2 automatically turns on in certain predetermined situations, such as opening a car door, unlocking a weapon, or turning on the overhead lights and siren. In addition, there is a “buffer” that starts recording up to two minutes before the officer pushes the start button. These features aim to overcome common criticisms to existing technologies that often rely on the discretion of the user to be turned on and off, leaving many unanswered questions.   

        With offices in Huntersville, North Carolina, British security and investigations company Reveal Media has also invested in new technologies for video evidence. With award-winning design, the RS2 body camera features a front facing screen and an intuitive one-touch record function. Besides providing enhanced low light performance and clearer sound, the solution uses advanced compression technology to facilitate the upload and storage of files as well as an AES-256 encrypted memory for improved security.  

        Headquartered in Logan, Utah, Safety Innovations designs highly resistant body-worn cameras that can withstand even the toughest working conditions. The company’s innovative VidMic VX integrates a radio microphone with the camera, allowing for a lighter duty gear load while keeping the equipment practical and discreet. The solution is compatible with over 200 models of commonly used radios.

        Another important provider of video evidence solutions is Newark, New Jersey-based Panasonic Corporation of North America, subsidiary of Japanese Panasonic Corporation. The company has experienced a 180 percent year over year growth in its mobile evidence capture division, which includes products such as the Arbitrator 360° HD, an in-car digital video recording system that supports up to five cameras working simultaneously to generate full 360-degree views and maximize situation awareness.   Panasonic also produces the Arbitrator BWC, a body-worn solution that provides 130 degrees of evidence capture with GPS metadata, pre- and post-event recording, and WiFi for easy offloading. Designed to make the most of the available visual data, a unified evidence management system brings together the company’s mobile and fixed video solutions, allowing users to analyze and preserve every link in the chain of evidence.  

        Also a provider of law enforcement video systems, WatchGuard Video is a four-time winner of the Dallas 100 Award honoring the fastest growing, privately held businesses in the Dallas area. Located in Allen, Texas, it has a longstanding commitment to R&D, which has resulted in 12 issued U.S. patents plus 12 additional pending patents. Innovative capabilities include the record-after-the-fact feature, which enables users to gather critical evidence with up to one-day delay, and the ultra-wide dynamic range, a solution to common problems, such as blown-out, overexposed, and underexposed images. WatchGuard’s technology dramatically improves nighttime video quality through a dual-exposure mechanism that takes two separate images (a dark exposure and a light exposure) and automatically blends the two images into a single video frame.


Protecting Spaces: Perimeter Security Systems

        Physical perimeter security is understood as the use of mechanical or electronic systems to protect people and assets within a facility, making intrusions less likely. It refers to the outermost layer of security and includes fences, walls, and other physical barriers as well as intrusion detection systems and electronic surveillance. The effectiveness of a perimeter security system is directly affected by its adequacy to the risks requiring protection, the sophistication of potential intruders, and the probable means of penetration. According to a 2016 report by Research and Markets, the global perimeter security market is expected to grow at an 8 percent compound annual growth rate between 2015 and 2021, reaching $21,000 million in 2020. The study asserts that emerging technologies are among the most important drivers of growth, as “companies are majorly focusing on R&D and investments in development of new technologies in order to expand the scope of perimeter security systems.”  

        When it comes to physical perimeter security, there are several aspects to be considered, besides the ability to prevent intrusion. Desired aesthetics and visibility, ease of installation, and adequacy to the local weather and topography are just a few examples of important concerns. In the case of fences, for instance, installation alone can account for roughly 1/3 of the entire cost involved while a variety of naturally occurring threats, such as water intrusion, corrosion, and freezing, can significantly decrease their lifespan. Reducing costs and increasing reliability of perimeter security systems must remain a priority for companies in this industry.

        Important areas for innovation in physical perimeter security include anti-cut and anti-climb mechanisms, customization against specific threats, as well as the mechanical distribution of potential impacts as a means to increase overall strength. Producer of non-metallic, non-conductive, and radar-friendly fences, Birmingham, Alabama-based AMICO Security stands out for its innovative efforts, which exemplify the kinds of initiatives that would likely qualify for R&D tax benefits. The company’s patent pending Amiguard system utilizes a proprietary continuous rail design that bolts together the entire length of the fence, making sure that any impact is distributed throughout the system, thereby enhancing strength and working as a unified curtain wall barrier.

        Innovative perimeter security solutions combine physical barriers with technology designed to detect and monitor intruders’ movements. Examples of such technology include next-generation fence-mounted sensors, infrared, and integrated fiber-optic solutions. Thermal cameras, video analytics, and intrusion detection technologies, such as microwave, seismic sensors, and radar, are also interesting allies in physical security strategies. 

        Fence-mounted sensing technology includes various cable-type solutions that can be attached directly to fence structures in order to detect attempts of cutting, climbing, or lifting. The most common type of data used in these cases is vibration, which requires varying levels of sensitivity, according to the threats at hand. Sophisticated digital processing systems are used to analyze the collected data, assess the existence of an actual menace, and identify its nature. Smart perimeter security with sensing technology has gained ground as a crucial element of integrated security strategies, which aim for a holistic approach to security.

        Examples of companies investing in this field include Derwood, Maryland-based RBtec, provider of the longest fiber-optic monitoring capabilities on the market, with up to 62 miles through a single fiber-optic cable. RBtec’s RaySense illustrates the advantages of innovative fiber-optic solutions for long-range, total perimeter coverage. With no gaps between sensors, it is capable of detecting and locating within 3 meters over the entire perimeter and can be networked to provide unlimited reach. The system offers seven different levels of sensitivity that optimize performance according to the targeted infrastructure. Fiber-optic systems are also resistant to moisture and electromagnetic interference, which facilitates maintenance.


Monitoring and Surveillance

        Another important aspect of physical security is video surveillance. In addition to allowing for the verification and analysis of past incidents, surveillance cameras often act as a deterrent to potential assailants. In a recent article published by IFSEC Global, Quantum’s Vice President of surveillance and security solutions Wayne Arvidson pointed out that, by 2019, video surveillance will capture over 3.3 trillion hours daily.  The article lists five major drivers of growth in this highly dynamic market:

        I.  Video Analytics: analyzing video-based data can help identify useful patterns and trends. For instance, video analytics can be used for intrusion detection, going beyond traditional motion detection and intelligently distinguishing actual threats from disturbances caused by animals and weather events. When combined with advanced alarm systems, this kind of analytics enhances security while reducing the nuisance of false alarms.

        II.  Intelligent Cameras: recent developments in sensor technology allow cameras to be used in new and exciting ways.  The fast-growing adoption of intelligent cameras embedded with sensors will require sophisticated, multi-tiered storage strategies capable of supporting an unprecedented influx of data. There will also be a growing need for enhanced capabilities, including compression, streaming, and analytics.

        III.  Biometrics: the use of biometric data to identify people has become increasingly complex and in turn, increasingly valuable to many industries.  The integration of biometrics capabilities, such as face recognition, and video surveillance is expected to widen the scope of potential applications of video security systems.

        IV.  The Internet of Things: innovative strategies must be used to merge IoT sensor data with video surveillance data. The emergence of the IoT has been accompanied by an unprecedented surge in the number of connected devices, which are expected to reach at least forty billion over the next decade.  The correlation of video information with input from such smart IoT devices can contribute to greater physical security. For instance, motion detectors, which are traditionally used for turning lights on and off and adjusting temperature, can now communicate with video and security systems in order to control for unauthorized movements.

        V.  Video Surveillance as a Service: aggregated service models will help companies automate functions and optimize their resources. 

        The five aspects highlighted above point to a common, underlying trend: integration. In fact, it is safe to say that integration is at the essence of physical security innovation, particularly when it comes to video surveillance and monitoring. The idea is to make the most of available technologies by allowing them to work together. Security control panels that use information from various devices, such as motion detectors, video surveillance, access readers, etc., are a great example of this overarching trend.

        No-camera security systems are also a promising area, due to recent improvements in motion-detection technology. Canadian company Cognitive Systems Corp. recently announced a system capable of protecting and monitoring spaces without the use of cameras. Arguably the first smart home security system of its kind, Aura uses patented technology to monitor the disruption of wireless signals caused by movement. In addition to differentiating human and non-human motion, it sends notifications to household members in case of unauthorized movements. 

        A recent article in Security Sales & Integration magazine has pointed out that innovation in motion detection has allowed for an unprecedented level of detail, thanks to which there is practically instant response to intruders. This is made possible by the incorporation of microprocessors that “intelligently analyze the signals produced by motion to make a very fast but accurate alarm decision.” Advancements that simplify installation have also contributed to enhanced reliability, particularly when it comes to features that minimize installation errors, including integrated end-of-line (EOL) resistors and bubble levels, and lift-gate terminal strips. 


Conclusion

        Recent developments in physical security technology illustrate how innovation can improve the reliability and enhance the performance of security systems. R&D tax credits are available for innovative companies engaged in protecting people, spaces, and material resources.
 

Article Citation List

   


Authors

Charles R Goulding Attorney/CPA, is the President of R&D Tax Savers.

Andressa Bonafé is a Tax Analyst with R&D Tax Savers.


Similar Articles
The R&D Tax Credit Aspects of Driverless Cars
The R&D Tax Credit Aspects of SaaS Start-Ups
The R&D Tax Credit Aspects of Emotion-Recognition Technology
The R&D Tax Credit Aspects of AI in the Insurance Industry
The R&D Tax Credit Aspects of Emerging AV Trends
Enhanced R&D Tax Credits for Specialized Co-Shared Spaces
Ethereum's Impact on Digital Contracting Creates R&D Tax Credit Opportunities
The R&D Tax Credit Aspects of Geofencing
The R&D Tax Credit Aspects of Distribution Center Automation
The R&D Tax Credit Aspects of Law Firm Artificial Intelligence
The R&D Tax Credit Aspects of Avionics
The R&D Tax Credit Aspects of Telemedicine
State & Local Tax Jurisdictions Address Media Streaming and Cloud Services
Federal Government Provides Faster Approvals and Tax Credits for Consumer FinTech Products
The R&D Tax Credit Aspects of Voice-Activated Software
The R&D Tax Credit Aspects of Artificially Intelligent Hedge Funds
The R&D Tax Credit Aspects of LiDAR
The R&D Tax Credit Aspects of Educational Technology (EdTech)
The R&D Tax Credit Aspects of Cyber Security Start-Ups
The R&D Tax Credit Aspects of Construction Industry IoT
R&D Tax Credits Provide New Opportunities for Artificial Intelligence Start-Ups
The R&D Tax Credit Aspects of NYC Start-Ups
The R&D Tax Credit Aspects of Virtual Reality Technology
The R&D Tax Credit Aspects of Water Analytics
The R&D Tax Aspects of Artificial Intelligence Robo-Advisors
The R&D Tax Credit Aspects of Natural Language Processing (NLP) Innovation
The R&D Tax Credit Aspects of Video Compression Technology
The R&D Tax Credit Aspects of Automated Coding
The R&D Tax Credit Aspects of Payment Technology
The R&D Tax Credit Aspects of Restaurant Technology
R&D Tax Credits and the Second Wave of Cloud Adoption
The R&D Tax Aspects of Data Storage Startups
The R&D Tax Credit Aspects of Cyber Security
The R&D Tax Credit Aspects of Mobile Applications
R&D Tax Credits for the Modern Insurance Industry
The R&D Tax Credit Aspects of the Internet of DNA
The R&D Tax Credit Aspects of Modern Dental Labs
The R&D Tax Credit Aspects of Concussion Technology
The R&D Tax Credit Aspects of Schizophrenia
The R&D Tax Credit Aspects of IoT Communication
The R&D Tax Credit Aspects of Bitcoin and Blockchain Technology
The R&D Tax Aspects of Near Field Communication
The R&D Tax Aspects of the New FDA Mobile Apps Requirements
Tapping the Power of Big Data and R&D Tax Credits for Utility Companies
The R&D Tax Credit Aspects of the Medical Software Industry
The R&D Tax Aspects of Computer Enabled Human Identification
The R&D Tax Credit Aspects of New York City's Engineering Education and Googlization
The R&D Tax Credit Aspects of Software Modeling Analytics
The R&D Tax Credit Aspects of Logistics Software and Process Innovation
The R&D Tax Aspects of Cameras of the 21st Century
The R&D Tax Credit Aspects of Network Security
R&D Tax Aspects of DNA Identification
R&D Tax Credit Aspects of Cyber Security and Homeland Protection
Financial Product Trading Platform Artificial Intelligence R&D Tax Credits
Gig City Startups and R&D Tax Credits
The Internet of Things Creates R&D Tax Credit Opportunity
The R&D Tax Credit Aspects of Mobile Banking Applications
The R&D Tax Credit Aspects of In-Image Advertising
R&D Tax Credits for Hybrid Call Centers - Airline, Hotel, and Car Rental Industries
The R&D Tax Aspects of Advertising Science
The R&D Tax Aspects of Data Science
R&D Tax Aspects of Radio Frequency Identification
The R&D Tax Aspects of Advanced Driver Assist Systems
The R&D Tax Aspects of the Internet of Residential Things
The R&D Tax Aspects of Web Television
R&D Tax Credit Aspects of Medical Robotics
R&D Tax Credit Aspects of Industrial Robotics
R&D Tax Credit Aspects of Service Robotics
Yes Alice, Patents and R&D Tax Credits Remain Available for the Internet of Things!
How Salesmen Can Use R&D Tax Credits to Sell Today's Software Products Engagements
The R&D Tax Aspects of Cloud Computing
The R&D Tax Credit Aspects of Hybrid Call Centers for Health Insurers
Now Every Business is a Software Business
The R&D Tax Aspects of Robot Software
The R&D Tax Aspects of Machine-to-Machine (M2M) Innovation
The R&D Tax Aspects of Financial Technology Services
Beacons Create R&D Tax Credit Opportunity
Fast Growth of Sharing Economy Impacts Tax Reporting
The R&D Tax Credit Aspects of Retail Technology
The R&D Tax Credit Aspects of Improving Virtual Reality Technology
The R&D Tax Credit Opportunities for Mobile Devices
The R&D Tax Credit Aspects of Wearable Technology
The R&D Tax Aspects of Big Data
R&D Tax Credit Fundamentals
Los Angeles Tech Boom Creates Large R&D Tax Incentive Opportunities
The R&D Tax Aspects of Software Development