Mayflower Communications Company Inc. Awarded Multi-Million Dollar Military GPS User Equipment (MGUE) Phase III contract for GPS Receiver Modernization

Logo TransparentBEDFORD, MA – April 2016 Mayflower Communications Company, Inc. (Mayflower) has been awarded a Phase III SGUE (Small GPS User Equipment) contract with the United States Air Force Research Laboratory sponsored by the Space and Missile Systems Center/GPS Directorate (SMC/GPSD), to develop a small SWaP (Size, Weight, and Power) security certifiable Common GPS Module (CGM) for the Air Force’s Modernized GPS User Equipment (MGUE) Program.

Mayflowers’ small SWaP GPS receiver technology will allow the Department of Defense (DoD) and Agencies to benefit from increased competition, enhanced capability, and reduction in overall program costs to DoD Program Managers and Platform Prime Contractors in upgrading their navigation systems to the modernized M-Code Receiver (MGUE).

Mayflower’s SGUE program is aimed at the development of advanced GPS receiver technology to support future military GPS requirements.   The goal of the program is to develop a NAVWAR (Navigation Warfare) compatible CGM form factor that will support SWaP-constrained military users. The SGUE CGM development effort will expand Mayflower’s Military GPS Receiver product line to include modernized NavAssure-M™ product offering so our current customers will have a form-fit-function upgrade path from SAASM to MGUE.
“Mayflower is a leader in small SWaP and miniaturized military GPS receiver and Anti-Jam products.   I am confident in the quality and innovation expertise of our GPS engineering team to successfully develop the SGUE CGM,” said Dr. Triveni Upadhyay, Founder and CEO of Mayflower Communications Company, Inc.  “The development of small SWaP MGUE form-factors, enabled by SGUE CGM, will have a significant impact in the M-Code Market, providing secure modernized GPS signals to the warfighters and lowering total ownership costs on many military programs.”

“The Air Force is very pleased to see innovative GPS technology developed under its SBIR Program to find commercialization opportunity in the MGUE Market. Mayflower has performed well and we are confident of the SGUE Program success”, said Dana Howell, Air Force Research Laboratory (AFRL) Program Manager.

“The AFRL/GPSD objective in the SGUE Program is to advance MGUE technology and make it affordable to the warfighter. The SGUE Program fits the need and will lower the cost to the user by increased competition enabled by the SGUE Program” said Eddy Emile, Chief, Advanced Technology and International Branch, GPS Directorate.

According to Mayflower, the NavAssure-M™ MGUE receiver form-factors, focused toward small SWaP GPS receiver applications, will be backward compatible to SAASM, therefore, lowering the platform integration cost and total life-cycle cost.

About Mayflower Communications Company, Inc.:

Mayflower Communications Company, a privately held company, based in Bedford, MA, is a technology and innovation leader specializing in small Size, Weight, and Power Global Positioning System (GPS) products and technologies. With a history of innovation spanning 30 years, Mayflower provides state-of-the-art Anti-Jam Electronics and is at the forefront of Military SAASM and MGUE GPS Receiver development and production. Mayflower is designated by the GPS Directorate (GPSD) as an “Authorized SAASM P(Y) Code GPS receiver manufacturer” – one of the seven companies to be recognized. Mayflower is at the cutting edge of Wireless Communication Technologies and has a proven track record in developing innovative solutions for the military and commercial communication market. Mayflower had a successful spin-off, Envoy Networks, Inc., with the backing of leading venture capitalists, to focus on mobile wireless cellular infrastructure market. Envoy Networks was since acquired by Texas Instruments.

Joint Navigation Conference 2016: Session C7: Military GPS/Antenna Technologies and Interference Mitigation

Joint nav conference

Session C7: Military GPS/Antenna Technologies and Interference Mitigation

Jammer Detection and Angle-of-Arrival Estimation Capability in GPS Anti-Jam Antenna System (GAJAS)

By: Huan-Wan Tseng, Christopher Zarowski and Naresh Babu Jarmale, Mayflower Communications Company; Patrick Pitoscia, US Army
Location: Room 306
Alternate Number 1

Mayflower’s GPS Anti-Jam Antenna System (GAJAS), being designed to operate with co-located U.S. Army PM-PNT Pseudolites (PL), is an integrated NAVWAR Electronic Protection (EP) system for use in protecting reference GPS receiver onboard PL transmitter platform against various interference sources such as strong co-site PL transmission, Blue Force Electronic Attack (BFEA), and hostile jamming. The GAJAS system is being modified and upgraded to provide jammer detection and angle-of-arrival (AOA) estimation capability to provide useful Electronic Support (ES) information for NAVWAR situation awareness with minimal size, weight, and power (SWaP) impact to the host PL platform. The GAJAS system is being implemented on an FPGA/microprocessor based antenna electronics (AE) prototype together with small controlled reception pattern antenna (s-CRPA).
In this paper, we will present a system-level architecture for the jammer detection (i.e. estimate the number of jammers) and AOA estimation along with GPS anti-jam with supporting simulation results and preliminary laboratory test results. The jammer detection is based on theoretical information criterion, and the AOA estimation is based on subspace signal processing methods.

Joint Navigation Conference 2016: Session C6 Military GPS Receivers and Military GPS Receiver Technology

Joint nav conference

Session C6: Military GPS Receivers and Military GPS Receiver Technology

Chip-Scale Atomic Clock (CSAC)-augmented Military GPS Receiver

By:  Christopher Zarowski and Naresh Babu Jarmale, Mayflower Communications Company, Inc.; Yoonkee Kim, US Army

A GPS-disciplined Chip-Scale Atomic Clock (CSAC) can affordably provide precision time to C4ISR system relying on synchronization to operate in a very small Size, Weight, and Power (SWAP) even if GPS signals are lost. Conversely, a GPS receiver can utilize an external clock input from a CSAC to aid for navigation. CERDEC and Mayflower Communications Company, Inc. (Mayflower) has developed a CSAC-augmented NavAssure® SAASM GPS receiver to demonstrate the feasibility of its concept. This presentation will include unclassified laboratory test/demonstration results of benefits of augmenting a military GPS receiver with a precise source of time from a CSAC.

Joint Navigation Conference 2015 Session C5: GPS in Military Applications/NAVWAR 2

SWAP Constrained SAASM GPS Solution for Rifleman Radio AN/PRC-154

Mr. Daniel Weinman from the U.S. Army Communications-Electronics RD&E Center (CERDEC) and Mr. M. Sayeed Hasan from the Tactical Radios (PM TR), PEO C3T, Mr. Naresh Babu Jarmale, Mayflower Communications Company, Inc. and Mr. Wade Owen, Thales Defense & Security, Inc. participated in the advanced Research and Development of the SAASM GPS Dongle. After the multi-year program Mayflower developed an attachment for the Rifleman Radio that brings SAASM to the handheld radio and can network within the US Army Nett Warrior system.

Mr Weinman briefed the results of the program at the Joint Navigation Conference June 2015 at the Renaissance Orlando at SeaWorld, Orlando, Florida. In the briefing it discussed how GPS receivers serve as a great utility to the warfighter providing critical position location information (PLI) data and accurate time. The value of these receivers has not gone unnoticed as they are now being utilized in a wide range of military applications. One such device taking advantage of the benefits of a GPS receiver is the Rifleman Radio. Embedded in the Rifleman Radio is a commercial GPS receiver capable of tracking C/A code. Unfortunately, with the proliferation of GPS receivers in use by the military, there has been an increase in the desire to disrupt or deny the GPS signal. As a result, the Army has mandated that all GPS receivers in use be SAASM compliant, as per section C6.11 of the GPS Security Policy. In order to comply with this mandate, the existing Rifleman Radio would have to undergo costly hardware changes or face replacement. However, in an SBIR effort for PM Tactical Radios, Mayflower Communications Company, Inc. and Thales Defense and Security, Inc. developed a dongle attachment solution for the Rifleman Radio. The dongle utilizes the side connector port to bypass the internal GPS receiver and supply SAASM generated PLI data to the Rifleman Radio. This SAASM GPS dongle addresses challenges associated with the size, weight and power consumption (SWAP) while ensuring that the radio’s performance remained unaffected. Cosite interference was also a concern as the power emitted by the radio is much greater than the received GPS signals. Tests were conducted by Mayflower and CERDEC with support from PM TR to determine the effects the Rifleman Radio and SAASM dongle had on each other, and whether the addition of the SAASM dongle increased the reliability of the PLI data. Field tests of Rifleman Radio and SAASM dongle were conducted by CERDEC at Fort Huachuca, AZ in GPS jamming and the results compared with DAGR. The Rifleman Radio with GPS dongle performance was comparable to DAGR performance in jamming. Our test results show that the dongle solution is a viable approach for secure communications in a tactical environment. The design characteristics and results of testing will be the main focus of this discussion.

Mayflower Communications Names (retired) US Army Major Joseph Thomas Director of Government Programs

Logo Transparent

Mr-Joseph-P-Thomas

Burlington, MA., March 10, 2015: Mr. Thomas brings extensive senior government program management expertise and will drive the next-generation strategic planning efforts of Mayflower’s Global Positioning Systems (GPS) programs. As a former warfighter, Mr. Thomas is uniquely qualified to ensure that the ‘voice of the warfighter’ continues to be recognized and incorporated within Mayflower’s GPS solutions.

“Designing high-performance size, weight and power (SWaP)-optimized, affordable and practical GPS solutions has been a cornerstone of Mayflower’s focus. As we expand our military GPS business in handheld, PGM (precision guided munitions), and the small UAS (unmanned autonomous systems) market, Joe’s diverse background as a warfighter and as a requirements subject matter expert in modernized GPS programs, will help secure Mayflower’s leadership position in this important growing market”, said Dr. Triveni Upadhyay, CEO of Mayflower Communications.

Mr. Thomas will direct and serve as the capture lead for Mayflower’s GPS programs. He is responsible for driving growth of Mayflower’s GPS portfolio, which includes military GPS receivers and the anti-jam suite of products. He will leverage his expertise in managing national level security assets, multiple forms of secure, unsecured, and civilian communications architectures, product development and financial management to expand the use of Mayflower’s products especially in environments with undefined and unique operational environments, and those with complex technical, logistical and implementation challenges.

“The ability to lead strategic planning and growth efforts for best-in-class GPS technology is exciting and humbling.” said Joseph Thomas. “The full potential of Mayflower’s GPS suite of products has yet to be realized. I look forward to driving that effort.”

Previously Mr. Thomas served as the Director of the Position, Navigation and Timing Branch for the US Air Force and as a US Army subject matter expert on the multi-billion dollar GPS program responsible for all military and civilian agency requirements in support of the GPS Space, Ground Control, and User Equipment Segments for the DoD GPS Enterprise Modernization effort. He served on the US Air Force Space Force Working Group in support of the DoD Air-Sea Battle and Anti-Access Area Denial concepts.

Retired after 20 years as a US Army Ranger, Mr. Thomas is also member of Special Mission Units, and as a Space Operations Officer where he managed military, civilian, and contracted employees.

Mr. Thomas’s qualifications include: Bachelor of Arts in History from The Citadel; Masters in Military Operational Art and Science/Studies from US Army Command and General Staff College; Certification in Space Flight/Orbital Mechanics from the National Security Space Institute; Certification in DoD Requirements Management from Defense Acquisition University.

Mayflower Communications Company Inc.is a technology leader in advanced radio navigation, anti-jam and wireless communications technologies. Mayflower is at the forefront of GPS receiver technology with a broad portfolio of product solutions for government and commercial customers. For over twenty-eight years, Mayflower has been leading technology and product development of high-performance size, weight and power (SWaP)-optimized, affordable solutions to address evolving military technology needs in challenged operational environments.

Inside GNSS article on GPS Anti-Jam Antennas for Use on Small UAVs

Inside GNSSRecent tests of GPS anti-jam antennas on small unmanned aerial vehicles (UAVs) at a Naval Air Systems Command (NAVAIR) facility at Patuxent River, Maryland, showed encouraging results for preventing interruption of mission-critical data.

From July 10 to 24, the Communications and GPS Navigation Program Office (PMW/A 170), headquartered in San Diego, mounted a small antenna system (SAS) on an Aerostar unmanned aircraft, then placed the small UAV in a room lined with signal-absorbent material at the FARM (Facilities for Antenna and RCS Measurements), where it was subjected to GPS jamming signals.

PMW/A 170 engineers modified the Aerostar with the SAS antenna and antenna electronics (AE) along with a Defense Advanced GPS Receiver (DAGR), representing a Selective Availability Anti-spoofing Module (SAASM)-capable GPS receiver. The SAS AE was then connected simultaneously to the DAGR and the UAV’s existing GPS receiver.

Jamming signals directed  toward the Aerostar in various configurations simulated both the GPS satellite constellation signals as well as multiple GPS jammers, according to Mark Burroughs, Air GPS Navigation Integrated Product Team Lead. The Aerostar, manufactured by Aeronautics Ltd. in Israel, was tested in a fixed position, but dynamic air tests are planned in mid-August at Fort Polk, Louisiana.

“We are still analyzing the data but observations during the [FARM] test show favorable results,” said Burroughs.

Although the Aerostar has an integrated GPS/INS navigation system, the inertial component was not part of the antijam tests. The SAS AE had a direct connection to the UAV’s flight management system, Burroughs said.

“If an enemy is trying to jam, or interfere, with the GPS frequency, this antenna allows us to be able to track and acquire the true GPS satellites even in the midst of this jamming and interference,” said Eric Stevens, the unmanned aircraft systems communications and navigation lead for PMW/A-170, which supplied the antenna system. “What we are doing is demonstrating and quantifying the value of this antenna on small UAVs,” he added.

PMW/A-170, aligned under the NAVAIR at Naval Air Station Patuxent River, Maryland, and the Space and Naval Warfare Systems Command (SPAWAR) in San Diego partnered with Naval Test Wing Atlantic, which supplied the Aerostar, to conduct the July testing.  Personnel and teams from the Maritime Unmanned Development and Operations (MUDO); the Navy and Marine Corps Small Tactical Unmanned Air Systems Program Office (PMA 263); and an engineering team from the Naval Air Warfare Center Aircraft Division’s Radar and Antenna Systems Department also supported the event.

Personnel involved in the testing were optimistic about the results.

“We are hoping to gain some ground and show there are smaller GPS protection solutions out there,” said Michelle Jackson, an electronics engineer with experience in testing SAS systems on other platforms.

Equipped with the SAS, the Aerostar will be also used to support a U.S. Army pre-deployment war-game scenario conducted at Fort Polk in August, said Donn Rushing, the project lead for MUDO. The Aerostar has an 8.5-meter wingspan, a 4.5-meter length, and maximum takeoff weight of 220 kilograms (485 pounds). With a payload capacity up to 50 kilograms (110 pounds), the UAV has a range of 250 kilometers (155 miles) at speeds up to 110 knots.

Rushing participated in the Fort Polk exercises last year and said the addition of the GPS anti-jamming antenna will give the “good guys” an edge this year.

“This new anti-jam system decreases the footprint normally required of such a system, which is now ideal for UAV incorporation and service,” Rushing said. “What makes us smarter is knowing our enemies are smart and that we have to stay one step ahead of them. The SAS development is the latest GPS anti-jam capability to aid the war fighter in combating the bad guys.”

NAVAIR teams test GPS anti-jamming device on small UAV

The Navy’s Communications and GPS Navigation Program Office (PMW/A 170) mounted a Small Antenna System on an Aerostar unmanned aircraft then placed it in a room lined with signal-absorbent material, where it was subjected to GPS jamming signals at Naval Air Station Patuxent River, Md. Part of an initiative to protect GPS technologies on small unmanned aerial vehicles, the Navy conducted the tests in July to demonstrate how miniaturized GPS protection devices can prevent interruption of the mission-critical global positioning data. (U.S. Navy photo)

The Navy’s Communications and GPS Navigation Program Office (PMW/A 170) mounted a Small Antenna System on an Aerostar unmanned aircraft then placed it in a room lined with signal-absorbent material, where it was subjected to GPS jamming signals at Naval Air Station Patuxent River, Md. Part of an initiative to protect GPS technologies on small unmanned aerial vehicles, the Navy conducted the tests in July to demonstrate how miniaturized GPS protection devices can prevent interruption of the mission-critical global positioning data. (U.S. Navy photo)

NAVAL AIR SYSTEMS COMMAND, PATUXENT RIVER, Md. — Part of an initiative to protect GPS technologies on small unmanned aerial vehicles (UAV), the Navy recently conducted tests to demonstrate how miniaturized GPS protection devices can prevent interruption of this mission-critical global positioning data.

From July 10 to 24, the Communications and GPS Navigation Program Office (PMW/A 170), headquartered in San Diego, mounted a Small Antenna System (SAS) on an Aerostar unmanned aircraft, then placed the small UAV in a room lined with signal-absorbent material at the FARM (Facilities for Antenna and RCS Measurements), where it was subjected to GPS jamming signals.

Equipped with model jammers, the FARM facility was used as a stage for the “enemy” to jam the GPS signal and try to knock the UAV off course, said Eric Stevens, the Unmanned Aircraft Systems Communications and Navigation lead for PMW/A-170, which supplied the antenna system. Knocked off course, the UAV would not be able to relay critical intelligence back to the ground control station — disrupting communications among U.S. and allied forces’ ships, aircraft and submarines. In a worst-case scenario, GPS jamming could even cause UAVs to crash.

“If an enemy is trying to jam, or interfere, with the GPS frequency, this antenna allows us to be able to track and acquire the true GPS satellites even in the midst of this jamming and interference,” Stevens said. “What we are doing is demonstrating and quantifying the value of this antenna on small UAVs.”

PMW/A-170, aligned under the Naval Air Systems Command (NAVAIR) at Naval Air Station Patuxent River, Md., and the Space and Naval Warfare Systems Command in San Diego partnered with Naval Test Wing Atlantic, which supplied the Aerostar, to conduct July’s testing.  Personnel and teams from the Maritime Unmanned Development and Operations (MUDO); the Navy and Marine Corps Small Tactical Unmanned Air Systems Program Office (PMA 263); and an engineering team from the Naval Air Warfare Center Aircraft Division’s Radar and Antenna Systems Department also supported the event.

Personnel involved in the testing were optimistic about the results.

Part of an initiative to protect GPS technologies on small unmanned aerial vehicles, the Navy recently conducted tests on an Aerostar unmanned aircraft at Naval Air Station Patuxent River, Md., to demonstrate how miniaturized GPS protection devices can prevent interruption of the mission-critical global location data. (U.S. Navy photo)

Part of an initiative to protect GPS technologies on small unmanned aerial vehicles, the Navy recently conducted tests on an Aerostar unmanned aircraft at Naval Air Station Patuxent River, Md., to demonstrate how miniaturized GPS protection devices can prevent interruption of the mission-critical global location data. (U.S. Navy photo)

“We are hoping to gain some ground and show there are smaller GPS protection solutions out there,” said Michelle Jackson, an electronics engineer with experience in testing SAS systems on other platforms.

Equipped with the SAS, the Aerostar will be also used to support a U.S. Army pre-deployment war-game scenario conducted at Fort Polk, La., in August, said Donn Rushing, the project lead for MUDO. Rushing participated in the Fort Polk exercises last year and said the addition of the GPS anti-jamming antenna will give the “good guys” an edge this year.

“This new anti-jam system decreases the footprint normally required of such a system, which is now ideal for UAV incorporation and service,” Rushing said. “What makes us smarter is knowing our enemies are smart and that we have to stay one step ahead of them. The SAS development is the latest GPS anti-jam capability to aid the warfighter in combating the bad guys.”

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U.S. Patent for GPS-based Roll Rate and Roll Angle Measurements in the Absence of Jamming

U.S. Patent for GPS-based Roll Rate and Roll Angle Measurements in the Absence of Jamming Issued to Mayflower Communications Company, Inc.

U.S. Patent for Anti-Jam Protected GPS-based Measurement of Roll Rate and Roll Angle of Spinning Platforms

U.S. Patent for Anti-Jam Protected GPS-based Measurement of Roll Rate and Roll Angle of Spinning Platforms issued to Mayflower Communications Company, Inc.

U.S. Patent for Multimode Wireless Radio Access Network with Distributed Processing

U.S. Patent for Multimode Wireless Radio Access Network with Distributed Processing Issued to Mayflower Communications Company, Inc.