Tag: GNSS industry

  • Hemisphere GPS Sells Precision Business to Chinese UniStrong

    On January 31, Hemisphere GNSS Inc., a subsidiary of Beijing UniStrong Science & Technology Co. Ltd., purchased the Precision Products business and related GNSS technology and intellectual property from Hemisphere GPS Inc. for $15 million US. In a related press release, Hemisphere GPS Inc. has announced the intention to change its company name to AgJunction.

    As part of the transaction, Hemisphere GNSS acquired all of the high-precision GNSS product lines, all related intellectual property rights and the Hemisphere GPS trademarks and brands. The Precision Products segment generated revenues of approximately $13.3 million in 2012 serving marine, land survey, construction, mapping, and OEM segments.

    Hemisphere GNSS will operate its business headquarters out of Scottsdale, Arizona, and will maintain its operations in Calgary, Alberta, Canada.

    Phil Gabriel has been appointed president of Hemisphere GNSS Inc. and will also serve as a board member. Gabriel has more than 15 years of experience with Hemisphere GPS, serving for the past six years as the vice president and general manager of the Precision Products business.  “We are truly excited about our future growth prospects as a fully focused GNSS products and technology provider,” Gabriel said. “I would like to assure all our global distribution partners, suppliers and customers that it remains business as usual as we take our first steps forward with the strong backing of UniStrong.”

    With this acquisition, UniStrong is expanding its capabilities in the high-precision GNSS business and also expects to promote commercial applications of China’s BeiDou Navigation System. UniStrong is listed on the Shenzhen Stock Exchange under ticker 002383.

    Business analysts have reported in China that this is the first acquisition of an internationally renowned enterprise initiated by a domestic enterprise in China’s satellite navigation industry and represents an important milestone in the development of the industry. “The acquisition will create an international route enabling UniStrong to expand its global business outlook, enhance our ability to attract international talent, and lay the foundation for international growth and profitability,” stated Xingping Guo, president and CEO of UniStrong.

    As part of the agreement, Hemisphere GNSS and AgJunction have formed a strategic alliance and a collaborative business relationship covering supply chain management, customer support, technology development and cross-licensing. “Having already established a relationship with UniStrong as one of our resellers made our new alliance a win-win for both parties,” said Rick Heiniger, president and CEO of AgJunction. “I am very pleased to be working together in this close technology-sharing relationship.”

    Hemisphere GNSS’s newly appointed board of directors brings additional GNSS industry experience to the company. The board is chaired by Jonathan W. Ladd, former president and CEO of NovAtel Inc. Also joining the board is Werner Gartner, former executive vice president and CFO of NovAtel Inc.

    “Hemisphere’s talented team will leverage its core GNSS capabilities and product marketing knowledge with UniStrong’s high quality, low cost GNSS product design and development resources,” said Ladd. “Hemisphere’s existing and future customers and partners will most certainly benefit from the resulting rapid, cost-effective product innovation across multiple product lines.”

    Beijing UniStrong is focused on GNSS industry, with R&D, production, engineering, sales and service facilities. Its technical solutions and products cover GPS/GLONASS/COMPASS receivers, multi-system navigation and positioning, high-accuracy surveying, GNSS data post-processing, and system integration.

    The re-branding of Hemisphere GPS as AgJunction is an integral part of the strategic re-focusing of the company’s resources on precision agriculture, and part of the restructuring initiated in September 2012. The company maintains ownership of its key patents and leading agricultural brands including AgJunction, Outback Guidance, and Satloc.

  • China Industry Report: “Amazing Growth” in Mobile Market

    A new China Navigation Map Industry Report, 2012-2014, released by Sino Market Insight, predicts that the revenue of Chinese navigation electronic  map industry will reach RMB 2.1 billion in 2014.

    Started in 2002, the navigation industry in China is still in the  initial stage of development compared with the international market, the report says. China’s car navigation market, PND navigation market and mobile phone navigation market are in the stage of rapid development, while the markets of LBS service, real-time traffic information service and value-added electronic map application services based on mobile communication technology are still in the initial stage of development.

    From 2006 to 2011, the sales volume of car navigation in China maintained high-speed growth, with CAGR hitting 47.5%. However, the penetration rate of car navigation is still low, so China’s car navigation  market still embraces huge space. Meanwhile, the growth speed of GPS mobile phone market in China is amazing, the report says. The sales volume of GPS mobile phone in China approximated 100 thousand sets in 2006, and skyrocketed to more than 50 million sets in 2011. Mobile Internet is an important development direction for the navigation map industry in future.

    According to the report, the global electronic navigation map market presents distinct regional and local characteristics. Major navigation application markets around the world, such as USA, Europe, Japan and South Korea, all have many regional electronic map suppliers which have competitive advantages in diversified segments and possess stable client groups.

    The navigation map market in China is led by AutoNavi and NavInfo. In particular, NavInfo is the pioneer, for it got approved to do navigation map business in the early 21st century. Joining the competition after 2006, AutoNavi captured the high-end brand automobile market quickly by virtue of advanced technologies, and penetrated into the medium-end automobile market thereafter. After 2010, the two companies launched fierce competition in the emerging mobile phone navigation market. In future, the competition in China’s car navigation and mobile phone navigation market will be fiercer, and the collision among navigation map enterprises in different sectors will be more frequent.

    China Navigation Map Industry Report, 2012-2014 covers the following contents:

    • Current status of China navigation map industry;
    • Development of China navigation map market;
    • Market status of navigation map in major regions worldwide;
    • Brief introduction, financial highlight, revenue structure by segment and by region, prospects and performance prediction, clients, etc. of 15 leading navigation map enterprises in China and around the globe.
  • Topcon’s Ray O’Connor Receives Honorary Doctorate

    The Dublin Institute of Technology (DIT) has conferred the award of honorary doctorate on Ireland native Ray O’Connor, president and CEO of Topcon Positioning Systems.

    The award was conferred in recognition of O’Connor’s outstanding achievements in international business and innovation. Originally from County Kildare and now based in California, O’Connor attended the ceremony accompanied by his wife Nancy, as well as several family members who are living in Ireland and in the United Kingdom.

    Past recipients of honorary doctorates from DIT include: Pierce Brosnan, actor and philanthropist; Mary Robinson, former president of Ireland; Arthur Ryan, chairman of Penneys; Phil Coulter, musician, composer and music ambassador; Angela Brady, president of the Royal Institute of British Architects; and Dr. Martin McAleese, Irish peace activist.

    The honorary doctorate award is conferred on a small number of individuals who have made an exceptional contribution in their field.  The award is conferred at the annual DIT graduation ceremony and recipients are introduced as standard bearers for DIT graduates starting out on their careers.

    In his speech to the assembly, the DIT president, Professor Brian Norton welcomed O’Connor back to DIT, where he had completed his studies in construction in the early 1980s.

    About O’Connor, Norton said, “Your positive, forward-looking approach to developing new businesses, and your ability to work across geographical and cultural borders, provide a real example to us as educators and to our graduates as young professionals.”

    O’Connor traveled to the U.S. when he finished his studies at DIT. He worked for a number of different companies before joining Topcon America, a division of the Tokyo-based Topcon Corporation in 1993. Outlining his career path, Murphy said O’Connor had joined a Topcon team of 40 people, and now leads a company employing more than 800 worldwide.

    “O’Connor was the first person who was not Japanese or of Japanese descent to receive the prestigious Toshiba Business Performance Award for his superior leadership and performance,” Mike Murphy, dean of the College of Engineering and Built Environment, said.

    In addition to his role as president and CEO of Topcon Positioning Systems, earlier this year Ray O’Connor was appointed senior managing executive officer of Topcon Corporation. O’Connor said, “It is indeed a distinctive honor and humbling experience to be included in this extraordinary group of world leaders in receiving this special award from DIT.”

    O’Connor was conferred in the company of DIT graduates of the Department of Engineering and Built Environment, accompanied by their families. The Dublin Institute of Technology (DIT) is one of the largest institutes of higher education in the country with more than 19,000 students and a staff of about 2,000.

  • Hemisphere GPS Cuts Non-Agriculture Business

    Hemisphere GPS, Inc., has announced a new corporate strategy that focuses exclusively on the agriculture business. The company, which appointed Rick Heiniger chief executive in September, said it expects to save $7 million annually from the restructuring. The workforce will be reduced from 273 to about 170, and the headquarters will be moved from Calgary, Alberta, Canada, to Hiawatha, Kansas, where Hemisphere GPS’s agricultural operations are located.

    Hemisphere GPS said diversification into marine, construction, and other industries had increased costs, absorbed cash, and distracted management focus from its core agriculture business. The agriculture business contributed 81 percent of the company’s revenue in the first nine months of 2012. Hemisphere’s agriculture products include the Outback line, OEM boards and antennas, and precision agriculture systems.

    The company has hired an investment banking firm to pursue strategic alternatives for the Precision Products (non-agriculture) business. “Given the agricultural focus of the Company, the board believes that the Precision Products business can grow more quickly with another organization that is more strategically aligned,” the company stated.

    “The agricultural industry is entering a period of exceptional opportunity. We’re in the early stages of transformational adoption of high-definition production practices,” said Hemisphere GPS’ new CEO, Rick Heiniger. “We are a data driven society, and agriculture is no different. Agronomic specialized data-management and cloud information services, combined with a new generation of connected devices and machines, will not only enable emerging technologies, but will simplify existing workflows and deliver productivity gains for the industry. We will be wholly focused on the essential core technologies while at the same time assisting the industry in its adoption.”

  • Expert Advice: GNSS in the Global Economy

    By Irving Leveson.

    The $100 billion GNSS industry is already stressed. How deeply and how long the pressures persist depends to a great extent on the performance of the world economy. In a time of extraordinary uncertainty and change, the industry faces great challenges over the next 2–3 years and beyond: potential delays in availability of satellites and ground support, adaptation to multiple constellations, shifts associated with the proliferation of portable electronics, and fluctuating demands from governments, businesses, and consumers. Vulnerabilities are already increased with the weakening of the slow U.S. recovery, with recession in Europe, and slowdowns in many other nations. Potential shocks could cause economic conditions to deteriorate further.

    Outcomes for the GNSS industry will depend very much on developments in the U.S. and global economy and associated government decisions. Effects on the industry will be far-reaching. Of course, non-economic factors will weigh in as well, but are beyond the present scope.

    At mid-summer 2012, the economic environment is too fluid to rely on a single forecast. To explore the issues, I compare four scenarios in a discussion that considers what the scenarios depend on, their likelihood, and their consequences for the GNSS industry.

    At the time of this writing, the consensus is that the U.S. and Europe will muddle through and that economic growth will be somewhat higher in 2013 than in 2012. This is evident in the forecasts of the Organization for European Cooperation and Development (OECD) and the International Monetary Fund (IMF). For example, the IMF in its July report expects world gross domestic product (GDP) growth to slow to 3.5 percent in 2012 from 3.9 percent in 2011, but then to rise to 3.9 percent in 2013. It expects GDP in advanced economies to be up to 1.9 percent in 2013 from 1.4 percent in 2012. This is in spite of a greater decline in public consumption.

    I consider global recession scenarios to be more probable than such a rebound. Moreover, there is a risk of a severe world recession led by developments in both Europe and the United States. In all four scenarious outlined here, serious long-run problems remain unresolved.

    Scenario Traits and Probabilities

    Table 1 lists the four scenarios and suggested probabilities, contributing factors, and global manifestations. A fuller description of each scenario comes in the next section.

    In the two Global Recession scenarios, the problems in the United States and/or Europe lead to worldwide recession, which is defined by a sharp slowdown in global growth. The Europe- and U.S.-led global recession scenarios are associated with greater government budget cuts and tax increases than in the other scenarios, and with greater political uncertainty, gridlock, and substantial contagion effects. Governments are less able to act, and some policies may be ineffective or counterproductive. Output declines in the U.S., Europe, and Japan, and slowdowns in growth occur in developing countries.

    The recession scenarios are negative for consumer spending, business investment, hiring, and risk-taking. Information technology spending is cut back. While cost pressures abate, companies have little ability to influence pricing; profitability declines.

    In the Muddling Through scenario, crises go to the brink, and little is done to immediately solve fundamental problems, but policies temporarily prevent severe economic and financial disruption. The Rebound scenario is facilitated by the most extensive delays in spending cuts and tax increases, together with increased confidence from agreement on long-term solutions. Serious but incomplete efforts are made to reduce impediments to growth and adjustment.

    As of mid-summer, I rate the probability of a Europe-led global recession and a U.S.-led global recession each at 25–30 percent, with global recession most likely fully underway some time in 2013 in each case. The probability of a more severe global recession led by both Europe and the United States I put at 30–40 percent. The probability for muddling through is 25–30 percent, and for the rebound scenario it is 15–20 percent.

    Developments and impacts are not quantified here, nor are longer-term prospects considered. More extreme possibilities are not addressed; these include wars, a major breakup of the euro in the next two or three years, a large energy price shock, massive immediate U.S. budget cuts beyond the sequester, extensive increases in U.S. regulation after the election, or a Chinese economic collapse.

    I now turn to elaboration and discussion of each scenario.

    Europe-Led Global Recession

    Efforts by European institutions and the IMF to prevent debt defaults by southern European countries by extending credit only delay financial crises into 2013 or early 2014. With a major problem of insolvency (liabilities greater than assets) and not simply liquidity, a Europe without a fiscal union, common banking rules or even deposit insurance is unable to implement new structures in time to forestall severe adjustment. Increased bank capital requirements on January 1, 2013 also restrain lending. Financial market contagion spreads with rising interest rates on debt of already stressed countries, accelerated bank runs, and capital flight.

    These problems spill over to the United States and the rest of the world through declining securities values, losses of financial institutions that are then less able to lend, and declining trade. U.S. business is adversely affected by a strong currency as investors seek relative safety in the dollar. This slows U.S. exports and eventually expands exports from Europe and other countries into the United States. It also leads to lower overseas earnings for U.S. companies as a result of less favorable currency translation.

    Efforts to reduce debt in Europe create ongoing financial pressures on many countries, including Brazil, India, and China, and other countries whose economies are already slowing. While the greatest problems are in southern Europe, many other impacted countries including the United States take years to return to pre-crisis levels of growth.

    Source: GPS
    Table 1. Global economic scenarios.
    Source: GPS
    Figure 1. General government gross financial liabilities as a percent of gross domestic product (GDP), with OECD projections to 2013.

    U.S.-Led Global Recession

    The U.S. economy is thrown into recession by a combination of tax increases and budget cuts (the sequester) that together constitute the January 1, 2013 so-called fiscal cliff. Tax and spending changes are modified, but the remaining tax increases from the end of the Bush tax cuts, together with those in the Affordable Care Act, weaken incentives to save, invest, and take risks. Additional pressures come from increased bank capital requirements and other financial regulations that restrain lending.

    The recession in Europe and slowdowns in other countries further weaken the U.S. economy. High debt and unfunded obligations limit the ability to stimulate the economy with additional spending and limit the effectiveness of additional stimulation. Congressional gridlock prevents strong action, and the Federal Reserve has little additional room to stimulate the economy. The U.S. recession exacerbates the recession in Europe and weakens the global economy. U.S. and European recovery is very slow.

    Muddling Through

    The U.S. manages to “kick the can down the road” with enough policy changes to avoid the worst crises, but is unable to stimulate much growth. Tax increases and budget cuts are largely delayed in response to high and rising levels of unemployment but hold back recovery when they return. Economic and policy uncertainty and high levels of financial and business regulation continue to restrain growth and employment. However, underlying technological change is strong and enables continuation of modest growth, along with very low interest rates. Recovery in construction is limited.

    Europe also is able to delay the worst crises, such as would occur if there were insufficient resources to prevent major bank failures or one or more countries abandoning the euro. However, it must work through a recession that is severe in some countries and dampening growth in others. The United States, France, Japan, India, and China institute additional economic stimulus.

    Rebound

    In this scenario the United States temporarily avoids a recession by delaying most tax increases and budget cuts and delaying or modifying some of the most intrusive regulations. A new round of stimulus measures that includes major tax restructuring and infrastructure spending is instituted. A bipartisan plan for long-term fiscal discipline increases confidence. Businesses and consumers take advantage of technological opportunities, low interest rates, and moderated energy prices. Construction begins to recover with renewed housing demand and increased government spending on infrastructure. U.S. banks, with strong balance sheets and modest amounts of loans to Europe, are not heavily affected by the European financial crises and recession. Strong equity prices, bolstered by demand from foreigners seeking a safe haven, boost confidence and add purchasing power. Businesses are willing to take more risks.

    Improved U.S. growth somewhat tempers problems in Europe and elsewhere. Europe manages to implement policies to get through its challenges without a deep crisis or creating severe contagion effects. Counterproductive labor rules in Europe are modified, and tax avoidance is reduced. Austerity is modified and more emphasis is place on growth. The slowdown in the world economy abates, facilitated by the temporary resolution of problems and increased public and private investment in several countries.

    Implications for GNSS

    The most severe consequences for the GNSS industry come in the case of combined U.S.-led and Europe-led recessions, a prospect with a 30–40 percent probability. The reduced contribution of the GNSS industry will in turn impact economies, for which GNSS benefits are great. The effects of deep recession can be seen in the behavior of GPS equipment revenues in North America, which grew 7.9 percent in 2008 and declined by 3.6 percent in 2009, after earlier increases of 17.3 percent in 2006 and 14.5 percent in 2007. Table 2 summarizes the broad implications of the current possibilities for the industry.

    Source: GPS
    Table 2. Implications of global economic scenarios for GNSS.

    Overall Influences

    Even if the budget cuts from the U.S. sequestration are delayed or reduced, the Department of Defense faces severe pressures from the remaining 2013 budget and in out years that are likely to cause launches of GPS satellites to be stretched out. Efforts by House and Senate Appropriations Committees to dramatically reduce the civilian portion of GPS funding in the Federal Aviation Administration FY2013 budget, threatening the timing of civil signals and the ground support system, are a sign of things to come. Delays and modifications are greatest in the recession scenarios. In global recession, plans for GPS III crosslink and spot beam capabilities are dropped.

    The Air Force has requested funding to develop dual-launch capability for GPS III in its 2013 budget. Budget pressures could lead to a more final decision to proceed with dual-launch within the next two or three years if it can be shown to reduce costs. That could make up for the delays later on, but not before several years of falling behind schedules. Budget-induced delays in other programs could alleviate a shortage of launch capacity in the United States, offsetting some of the impacts of shortages on GPS. However, a slowdown in ordering launch vehicles could negate the lessening of delays. Budget pressures also could result in a reduction in the number of satellites in the GPS constellation below 30, as satellites age and replacement slows. Only 24 GPS satellites are guaranteed. Only in the rebound scenario could launches be on track for the next couple of years.

    Budget stringency also affects research and development and production for capabilities that are planned for later years. Military GPS user equipment purchases are stretched out by funding constraints to various degrees depending on budget levels. Military developments could change any aspects of the outlook.

    Budget pressures from the European recession could cause Galileo satellite launches to be stretched out and/or the constellation to stop short of 30 satellites. Russia’s GLONASS program is unaffected by budget pressures as long oil prices do not fall dramatically below the $80 level. China’s Compass program is not likely to be subjected to delays due to funding even if the Chinese economy slows dramatically. However, economic weakness does cause delays in Japan’s QZSS system and India’s IRNSS system.

    Government budget pressures on both sides of the Atlantic, which are greatest in the recession scenarios, could make resolution of the MBOC patent dispute on the common GPS-Galileo civil signal more difficult and drawn out, adding uncertainty and delaying efforts to take advantage of the common signal.

    The impact of economic weakness on private R&D funding for user equipment and services could be substantial in all countries. The private GNSS investment climate is favored by low interest rates, rapid technological change in the industry and in information technology generally, by the evolution of several GNSS systems, and by the growth of markets in developing countries. However, with economies slowing, investment risk remains high.

    In the United States, investment in GNSS product and production process development is hampered by political/policy uncertainty, including satellite deployment, spectrum issues, and European licensing demands. Capital investment and merger and acquisition incentives depend significantly on prospects for scheduled tax increases on capital gains and dividends, and for investment and R&D tax credits, but the composition of tax revisions is not predictable in the present political climate. In Europe, private investment is adversely affected by recession and uncertainty about the economic and policy outlook.

    Business costs decline in the recession scenarios as demand for materials weakens from many industries and the labor market loosens. Company borrowing costs remain low from low interest rates but can rise because of higher risk premiums from lender concerns about the health of borrowers. Costs start to increase in the recovery scenario.

    Percentage swings in profits are much greater than those in revenue, and some firms move from profit to loss when economic conditions deteriorate. Profits fall sharply in the recession scenarios as effects of weakening demand on revenue and unit costs greatly exceed the benefits of lower input costs.

    Prices of products such as chips, antennas, and receivers that have been declining over time fall more rapidly in recession. In the early stages of recession, inventories can pile up, but production cutbacks are incomplete at first because of uncertainty about demand. This contributes to declining profits. More extensive cutbacks that follow are insufficient to offset the allocation of fixed costs over a smaller production base for most companies. Competition intensifies as companies adjust inventories and vie for a shrinking market or one that is growing less rapidly than expected.

    Mergers and acquisitions tend to be most prevalent at the ends of the economic spectrum. When the industry is in recession, some companies merge to obtain cost savings. In early stages of recovery, it is less expensive for companies to acquire existing assets and companies than to build new. When times are good, mergers often occur because the value of the more successful acquirer’s stock is high relative to the stock of the acquired company, and because of a desire to obtain scarce technology and talent. There may be greater interest in bringing a product that has had a limited market to the acquiring company’s larger customer base when the market is growing more rapidly. Over the last century, merger booms in the United States have largely occurred during stock market booms. Initial public offerings of stock also are more frequent during periods of generally high stock prices.

    Mergers and acquisitions can permanently alter the structure of the industry, leading to fewer, more dominant players and redefining customer, partner, and supplier relationships. Some acquisitions may increase pricing power in the long run. More GNSS companies will be owned by firms providing instrumentation, information technology, and other products. Some companies such as Trimble and Hexagon have strategies of making numerous strategic acquisitions; their pace of acquisitions may not vary as much with business conditions as those of more opportunistic acquirers.

    Prices of stocks in companies in the industry tend to move with trends in overall stock markets, but also reflect specific industry developments such as product cycles, technology shifts, and sources of competition. For example, some companies that have thrived with GPS may not be the same ones that are most successful in offering GPS+GLONASS receivers to industry. Some European companies may get a head start in making user equipment that takes full advantage of Galileo. However, a slow product market may give some suppliers a chance to catch up in product development.

    The shift from consumer receivers to smartphones has reduced the stock prices of consumer receiver manufacturers such as Garmin and TomTom. The Navteq division of Nokia and the TeleAtlas division of TomTom that supply maps have had to face great pressures from new sources of competition from Google, Microsoft, Apple, and others just when they had to deal with economic slowdowns.

    Application Sector Impacts

    Both business and consumer demand for user equipment decline in the global recession scenarios. In the muddling through scenario, consumer demand for receivers and smartphones is saturating. Commercial demand continues at a moderate pace, spurred by opportunities for multi-constellation equipment. Demand from both businesses and consumers improves in the rebound scenario.

    Recession scenarios adversely impact demand for GNSS equipment for survey and construction around the world. A U.S. recession would reverse the mid-2012 fledgling start of a housing recovery, but increased spending on infrastructure would raise public construction spending. In the rebound scenario, U.S. private construction picks up along with other investments. Greater construction spending increases demand for survey and construction applications, with public construction heaviest on road paving and building, and private construction heavier on energy and other engineering construction projects. Telecommunications and information technology are encouraged as part of the emphasis on infrastructure.

    A severe outcome for the European economy in the Europe-led global recession scenario stalls growth. Demand for equipment to take advantage of Galileo is slow in the next 2–3 years. In the rebound scenario, European stimulus has only limited impacts on construction because of financial constraints and an overhang of supplies from overbuilding and weakened demand. Financial problems of regional and local governments, for example in the United States, Germany, and Spain, adversely impact construction, especially in recession scenarios. Demand for GIS systems depends both on construction and on government use and is especially sensitive to economic and government budget conditions.

    Economic rebound raises commodity prices, increasing demand for agricultural and mining GNSS equipment. In a stronger U.S. subsidy-cutting environment and/or if there are large declines in commodity prices from economic weakness, demand for GNSS agricultural equipment is reduced. Demand for GNSS mining equipment is closely aligned with the behavior of commodity prices, which are very sensitive to economic conditions.

    Demands for aviation and marine systems are subject to cyclical influences in both transportation and recreation uses. Demand for scientific uses is heavily influenced by government budgets.

    In the rebound scenario, the shift from consumer receivers to smartphones is accelerated as more households are able to afford data plans, and more businesses take advantage of mobile connectivity. In the recession scenarios, receiver markets become saturated more quickly as demand ebbs. Some consumers switch to smartphone use of GPS where it is free, to avoid the cost of purchasing receivers. Nevertheless, smartphone use of GPS grows less rapidly because of a slower shift from unconnected phones to connected smartphones. Purchase of new or upgraded vehicle GNSS systems is more cyclical than the already highly cyclical demand for vehicles, and is further impacted in recession by the availability of phone-based alternatives. Location-based services continue to grow rapidly in all scenarios, with the rate of growth moderated by conditions in the various economies.

    Conclusion

    The overall outlook is cautious in the face of large potential threats and uncertainties. However, the industry has weathered many storms before, and its long-term outlook remains strong.


    Irving Leveson of Leveson Consulting is an economist and strategic planner who has worked extensively on GNSS markets, benefits, and financing. He previously served as director of economic studies of the Hudson Institute and senior vice president and director of research of Hudson Strategy Group. He received his Ph.D. from Columbia University.

     

  • China’s Beidou/Compass System Expected to Spur Growth in Nav Industry

    China’s Beidou/Compass system will spur the country’s economic development in the satellite-navigation industry, geoinformation, and location-based services, according to an article in China Daily. China’s civil navigation providers are likely to experience rapid growth during the 12th Five-Year Plan (2011-15) period.

    According to the article, “Earlier this month, Wang Chunfeng, deputy director-general of the National Administration of Surveying, Mapping and Geoinformation, said the government is likely to introduce policies to help the geoinformation industry grow.

    “In addition, the nation’s self-developed satellite navigation network, the Beidou Navigation System, will come into commercial use by the end of this year, a move that may stimulate the development of the geoinformation industry in China.”

    Read more at China Daily.

  • Samsung Buys CSR’s Mobile Chip Technology

    Samsung Electronics Co. has acquired the mobile-technology business of U.K.-based Cambridge Silicon Radio PLC for $310 million. The agreement includes patents to the firm’s Bluetooth, Wi-Fi, and GPS location innovations. Samsung said the move would allow its semiconductor unit to strengthen its line-up of mobile-device processors.

    Samsung competes for business from other handset makers against the chip-makers Qualcomm, Texas Instruments and Intel, reports BBC News. The firm’s chips are used in its Galaxy handsets as well as Apple’s iPhones and iPads.

    Joep van Buerden, CSR’s chief executive, said his firm offered important technologies, but was aware of a trend in which larger firms were acting to integrate many functions into a single chipset, reducing demand for specialist parts, BBC News reported.

    “I believe under Samsung’s ownership the handset operations will be in a better place to prosper in the global handset market,” Buerden said. “I would like to thank all our colleagues who will be transferring to Samsung for their outstanding service.”

    CCS Insight analyst Geoff Blaber pointed out in a Yahoo! article that Samsung’s move came soon after the acquisition of Nanoradio, a Swedish Wi-Fi chipset company, which happened June 1. “It underlines Samsung’s commitment to strengthening its vertical advantage by extending silicon capability most notably in Wi-Fi and GPS,” he said.

    About 310 members of CSR’s technology and handset team will move over to the South Korean firm.

    SiRF founder Kanwar Chadha, who had been with CSR for three years after its acquisition of SiRF in June 2009, left CSR earlier this summer and is rumored to be starting a new venture.

  • The Patent Brouhaha

    Two British technologists backed by the U.K. Ministry of Defense have filed patents on the future interoperable GPS and Galileo signal designs that severely disrupt modernization plans for both systems and suddenly, unexpectedly place receiver manufacturers in a highly uncertain and unfavorable situation. Some of the patents have been granted in the U.K. and in Europe, and applications are pending in U.S. patent court, with a ruling expected at any time.

    Companies in the United States and outside the country are being approached and asked to pay royalties, on the basis of the patent filings, for use of the European E1 Open Service signal and the modernized GPS L1C signal. Should such initiatives prevail, costs would presumably be passed along to end users of GPS and Galileo — the same taxpayers who have already paid once for the systems.

    The purveyor of the royalty solicitations is Jim Ashe, vice president for sales and intellectual property at Ploughshare Innovations Ltd., Hampshire, UK. The patents, if successfully used to collect fees from satellite manufacturers or receiver manufacturers, would have a chilling effect on the use of the new interoperable signals that all parties have labored so hard, for so long, to design. They could quite possibly lead to a return to a BOC(1,1) structure for these signals, losing the benefits of MBOC.

    “There’s quite an argument going on,” said one person familiar with the controversy. “Some of the methods of arguing have not been too kind.”

    The Background. A great deal of work was accomplished cooperatively between the United States and the European Union (EU) to develop the landmark 2004 signal agreement that emerged from the Galileo Signal Task Force, formalizing cooperation on satellite navigation between the United States and more than two dozen European countries, including the U.K. Part of that agreement concerned a common signal structure (spectrum) for the civilian signals for both the E1 Open Service (OS) signal — the Galileo equivalent of GPS L1 — and the new U.S. GPS L1C signal to be implemented on the GPS III satellites, coming as early as 2015.

    The EU said during that process, in effect, “Even though we have agreed on this, Europe wants to be able to optimize the E1 OS signal beyond the agreement on that civilian signal being a binary offset carrier BOC(1,1) signal.” Both international entities had agreed that would be the waveform or the spectrum of the new signal.

    The Europeans began to evaluate methods of optimizing their signal. They had some designs called composite binary coded symbols (CBCS), a mechanism of putting a higher frequency componenent into the signal structure, and also a version called CBCS*, meaning that they found there was a bias generated by that extra signal, and so they had to invert every other one of its repetitions.

    The signal structure that they were playing with was centered on a plus and a minus 5-MHz component. (Actually five times 1.023, because of the inherent clock of GPS, you can think of it as 1.023 MHz. Everyone in doing compatible or interoperable signals agreed upon that; when reference is made to 5 or 10 MHz, or an even 5 or an even 10, it means that number multiplied by 1.023).

    The Europeans were were putting an additional BOC signal on top of the BOC 1,1, and it would have plus or minus 5 MHz as the centers of those two BOC peaks, and then some kind of waveform to modulate that.

    The United States pushed back against that to some degree, and proposed adoption of the so-called MBOC waveform, in which case the U.S. signal was equally optimized with a concept called time-multiplexed BOC (TMBOC). The Europeans used the CBOC approach. So, very different ways of doing this. In the European way, they transmitted a continuous but very low-power BOC(6,1) term. The U.S approach transmits four BOC(6,1) chips out of every 33 chips of code (see “Future Wave” sidebar).

    A chip in this case means a part of the spreading code, so each signal has its spreading codes, just like the C/A code is a spreading code, meaning a pseudorandom code modulating the carrier. L1C and E1 OS have a pseudorandom spreading code.

    The U.S. approach does not put BOC(6,1) components onto the data; that’s what is commonly called MBOC. The U.S. approach is TMBOC, on the pilot carrier only, not on the data component. The European system is like two separate signals, the BOC(1,1) signal having both pilot and data, and a BOC(6,1) signal having both pilot and data. They’ve put the (6,1) into both data and pilot components.

    Cue the Antagonists. Part of the task force from Europe and the United States considering the future signals’ make-up were Tony Pratt and John Owen, who works for the U.K. Ministry of Defense and whose office sponsored Pratt’s work. The two participated heavily in all these signal discussions. They stated in early meetings they planned to file patents in some areas.

    “Frankly,” states one source, “people should have paid more attention when they said that, and asked ‘What do you mean, and how’s it going to work, etcetera?’ And secondly, there probably should have been a written agreement between parties that nobody will take advantage or patent any of these ideas that we are developing.”

    Pratt and Owen filed a number of patents domestically, in the U.K., and and in the European Union, in 2003 and in 2006, and in other places around the world, such as Japan, Canada, and in the United States as well. Some of the U.K. and European patents have been granted. The first of some of those U.S. patents may be issued in the near future.

    The original patent filings were later amended to include new claims. The new claims were much more specifically oriented toward TMBOC and CBOC, whereas the original claims were more generally oriented toward modulated methods. The claims have been modified over the years; this is fairly standard patent practice.

    As a result, the original 2003 patent doesn’t necessarily read on a particular signal, but its early filing date has precedence. The claims have been updated and modified, and if the patent office issues those, as a true patent, then the new claims apply. Plenty of big patent battles have been fought over just such issues.

    Once the patent is issued, a satellite or receiver  manufacturer must assume that it is valid, and has only two responses to make, other than acquiescing to royalty claims. The manufacturer can either say, if building a product, “No, my product does not infringe, and I will prove that it doesn’t.’” The other choice for manufacturers is to go back into the patent office and sue the patent filer (and grantee) in the patent courts and prove that the patent was invalid in the first place that the patentee should not have been granted it.

    The United States and others were taken off-guard when the U.K. company Ploughshare, which is owned and controlled by a part of the British MoD called Defense Science and Technology Laboratory (DSTL), started making claims on manufacturers. The DSTL is similar to the U.S. Defense Advance Research Products Agency (DARPA), which is credited with inventing the Internet. If taxpayer money goes into something new and interesting, it is considered in some circles legitimate to file patents on those and attempt to recover taxpayer money through royalties on that taxpayer investment. That concept is not being challenged. Questions as to whether the patents are legitimate are very much in discussion.

    Ploughshare has contacted companies, saying, “If you use these signals coming from either the European satellites or the U.S. satellites, we will go after companies using these signals.” There are different patents issued, one by the European Patent Office, applying to most of the EU countries, that applies directly to the TMBOC signal, the E1 OS signal, and possibly also to Europe’s E5 signal, which is E5a and E5b; and there is also a patent for GPS III, the L1C signal.

    The Devil. For details on the various patents, see Application 10594128 and Application 12305401. See also European patent specification EP 1 664 827 B1, and International Application WO2007/148081. These are examples; there are other applications as well. It is to be argued in some future court as to how those patents are to be interpreted.

    “If you take the patent that hits TMBOC, and you take the broadest possible interpretation of that patent against receiver companies, it says: if you bring into your antenna and process that signal, whether you use all parts of it or not, for instance if you use the BOC(1,1) and not the BOC(6,1) part — then you infringe the patent. Others argue that if you don’t use both components, you don’t infringe.

    “But the claim is written broadly enough that it would apply to any receiver receiving and processing the signal. Nobody says what processing means. The patent says if you receive and process the TMBOC signal, as defined in the prior claim, you infringe the patent.

    “There is confusion as to whether that will apply or not apply — some people expect that it doesn’t and some people think that it might. That’s up in the air.”

    George Is Getting Upset. Various factions in the United States are upset by and trying to figure out what to do about the impasse. From a government point of view, there are three paths that the U.S. government can follow:

    • Put pressure on the U.K. diplomatically. That would be up to the State Department to put pressure on the EU or the U.K. in particular. The EU and the continental Europeans are equally furious at the British for doing this, as far as parties in the U.S. understand. This can’t be stated as a fact but is widely understood and thought to be the case. The diplomatic approach has its limits, obviously.
    • Go into Europe and fight the patents in European patent court and try to prove them invalid, to invalidate the patents. Companies could do the same thing, go into various courts, whether they be U.S. or European or Japanese, and say: “Our receivers don’t infringe,” and then have to prove that to the court; or say “The whole patent should not have been allowed, and I’ll fight the legitimacy of the patent.”
    • Some believe — and there is controversy and anger on this point — that, just as Galileo’s IOV satellites have the capability to transmit without the BOC(6,1) component, the United States should be able to do that with the GPS III satellites as well. Because if the signal is not there, and if the receivers are therefore not designed to process the signals that are not there, then the patent no longer has any relevance.

    “If we are to turn off the BOC(6,1) term for a period of time until the legal or diplomatic or other approaches worked, then we would be able to turn the BOC(6,10) term back on again, and return to the original agreed MBOC and TMBOC signals. That requires some coordination between the United States and Europe, and it requires some work to make that possible in the GPS III satellites, putting a switch in the GPS III satellites to permit the operators to turn that (6,1)BOC on and off. This is being hotly debated.”

    Some parties object, stating that L1C is too important a signal to mess with, and this proposal runs the risk of slowing down the program, and/or making it more expensive. They believe strongly that the off/on switch is not the best or most far-sighted option: why should the United States be forced to change its signal design due to an illegitimate patent, and in the end wind up with a less capable system?

    It is not publicly known whether the Air Force is or is not looking into that option.

    During the week of June 25 there was Working Group-A meeting in Washington D.C. followed by a plenary meeting between the EU and United States. The patent controversy was presumably discussed in some fashion, but whether formally addressed or lurking in the background is unknown at this time.

    “There is some naivete around this,” said the magazine’s soure. “It’s a serious threat. People think maybe they’ll only go after the high-end receivers, and maybe the royalties won’t be so bad. Ploughshare is trying to lull people into a false sense of security. The impact of this will be great unless it is defeated.”


    Future Wave

    Excerpted from the “Future Wave” article on L1C, GPS World, April 2011:

    “The L1C waveform originally was to have been a pure BOC(1,1) (a 1.023 MHz square wave modulated by a 1.023 MHz spreading code). Negotiations between the U.S. and the European Union (EU) at that time resulted in an agreement that both GPS and Galileo would use a baseline BOC(1,1) signal. However, the EU reserved the right to further optimize their signal within certain bounds. Some of the optimization proposals were known as CBCS and CBCS*. However, in further EU/US discussions it was decided that L1C and the Galileo E1 open service signal should have identically the same spectrum. This was a significant challenge because of different baseline signal structures and existing designs.

    “The breakthrough came when [U.S. representative] John Betz proposed what is called MBOC. The MBOC waveform has 10/11th of its power in BOC(1,1) and 1/11th in BOC(6,1). However, L1C and E1 OS achieve this result in very different ways. The Galileo technique is called CBOC. The GPS technique is called TMBOC. Whereas Galileo has a 50/50 power split between pilot and data and includes the BOC(6,1) component in each, GPS includes the BOC(6,1) waveform only in the pilot component by modulating four of every 33 spreading code chips with a 6 MHz square wave and 31 chips with a 1 MHz square wave. With 75 percent of the power in the pilot, the result is 3/4 x 4/33 or 1/11, as required. It is likely the BOC(6,1) signal component will be ignored by consumer-grade GNSS receivers where a narrow RF bandwidth is preferred. Fortunately that is a loss of only 12 percent (0.56 dB) of the L1C pilot power. However, for commercial and professional grade receivers, the extra waveform transitions (wider Gabor bandwidth) can be used to improve code tracking signal-to-noise ratio, and with certain advanced techniques it should be possible to improve multipath mitigation. This final point depends on careful control or calibration of the transmitted code timing and symmetry.”

  • Out in Front: State of the Industry

    It’s not been done before, so we’re going to do it now.

    In the September issue of this magazine will appear the very first State of the Industry report. On the GNSS industry, of course. It will cover such topics as:

    The Global Economy and how it affects business in your sector. Customers’ availability of capital to invest is top-of-mind for most industry professionals, whether designers, manufacturers, integrators, suppliers/dealers, or end users.

    Industry Confidence in the road ahead. Is the prolonged recession over and are we on the road to recovery, or is it best to remain cautious and conservative? Just reading the stock market reports and the latest from the U.S. Bureau of Economic Analysis or the G8 Summit doesn’t give the level of specific detail to GNSS that sound business navigation requires.

    Investment for Return. How are savvy marketers implementing their business outlook? Are they ramping up advertising, web presence, search-engine optimization, exhibits and shows, deep cultivation of existing or past customer base — any or all of these? Something new?

    Issues of Concern. To what extent do industry leaders take into account the following as well as further factors, and has their respective weightings of these changed since this time last year?

    • Pricing and competitive issues;
    • GNSS jamming, spoofing, other RF interference;
    • (Lack of) compatibility or interoperability of GNSSs: GPS, GLONASS, Compass, Galileo;
    • (Lack of) sufficient government funding for satellite system development or modernization;
    • (Lack of) R&D funding, whether government or private, driving application development for downstream markets, to encourage GNSS adoption.

    Watch for It. On July 1, the State of the Industry survey form will go live at env-gpsworld-integration.kinsta.cloud. We’ll collect input for about three weeks, and send ample notifications during that period. These will prominently feature the incentives for participating in the survey: entry into drawings for fab gear, likely to include one or more of the latest electronic wizard gizmos, a pair of tickets to GPS World’s Leadership Dinner in Nashville during ION-GNSS, a let’s-make-a-deal surprise, and the odd coffee-shop gift card.

    Participation in the survey is naturally open to all who participate in the GNSS industry, whether as givers or takers, suppliers or end users. A subscription to this magazine is not required — though a free subscription to the Digital Edition, if you do not already have one, will be encouraged at the end of the survey.

    Read It and Profit. The survey, complete with helpful infographics, will appear in the September issue and receive wide distribution at ION-GNSS, InterGeo, and other outlets.

  • GSA Releases 2012 SatNav Market Report

    The European GNSS Agency (GSA) has published its second Global Satellite Navigation System (GNSS) Market Report, providing key information to entrepreneurs in the satellite navigation sector.

    GNSS market forecasting is of great interest to private and public GNSS stakeholders, for business and strategic planning and policymaking, according to the GSA. According to the 2012 GSA Market Monitoring Report, the worldwide GNSS market is growing fast and the total market size is expected to increase at an average of 13 percent per year until 2016.

    The total enabled GNSS market size is expected to stabilise in the latter half of the decade due to market saturation, price erosion and platform convergence. Global shipments of GNSS devices are lower than previously forecasted up until 2015 yet are forecasted to continue growing to over 1.1 billion units per year.

    Expanding coverage. Following up on the first GNSS Market Report published in 2010, the GSA’s 2012 Report includes an analysis of two new sectors: maritime and surveying. Relevant examples from EU research projects have also been included for each sector.

    2012 Report Highlights

    Road and location-based services (LBS) still in the lead. Road and LBS dominate GNSS device sales (54% and 44% respectively). LBS constitutes 87% of the total GNSS market in terms of units sold and GNSS penetration in smartphones is set to increase from 30% today to almost 100% in 2020. For road navigation, traditional Personal Navigation Devices (PNDs) will gradually disappear from the European market yet remain present in other regions in the form of low cost OEM products. Smartphones and in-vehicle devices will be the preferred means of navigation.

    Commercial aviation use will grow. In the Aviation sector, the segment that will see the greatest growth in terms of GNSS equipment revenues will be Commercial Aviation, surpassing general and business aviation by 2018.

    GNSS use in agriculture continues to rise. In agriculture the current positive growth trend will continue; low cost precision agriculture solutions based on EGNOS are driving GNSS adoption by farmers in Europe.

    Surveying: a growing opportunity. In surveying, the construction segment is dominating the market in terms of units and value. North America is leading in terms of market penetration but the other regions will catch up by 2020 as GNSS is rapidly replacing the traditional surveying and mapping methods in Europe and around the world.

    Safer seas with GNSS. In the open sea segment, shipments of search-and-rescue (SAR) beacons will exceed those of other categories making the SAR segment the largest in terms of shipments and second largest in terms of market size.

    The 2012 GSA Market Monitoring Report can be downloaded for free.

  • Hexagon Acquires Norwegian Software Company myVR

    Hexagon AB announced it has acquired all shares in the Norwegian company My Virtual Reality Software AS (myVR).

    According to the announcement, myVR provides software that offers a solution for 2D, 3D and 360-degree viewing for desktop and mobile. The company has developed a patented technology platform that enables high-resolution real-time viewing of interactive maps over networks with limited bandwidth. The platform makes it possible to view large-scale models on any 3D hardware-supported client platform, including mobile phones and tablets.

    myVR 3D Map

    "The acquisition of myVR will be of great value for Hexagon's current offerings. Everything is going mobile, including our customer offerings," said Ola Rollén, President and CEO, Hexagon AB. "In the past, the problem with displaying 3D data on a mobile device such as a tablet has been size limitations of data transfers, and also the ability to handle the transfer in a real-time environment. myVR has a unique solution to this problem, and Hexagon will make use of its technology in all of our divisions."

    Founded in 2003, myVR provides real-time, 3D virtual technology to the Oil & Gas, Building & Construction, Government and Web Portals industries, as well as other traditional and emerging digital markets.

    Hexagon announced that myVR will be fully consolidated as of today. The acquisition will not have any visible impact on Hexagon's earnings in the short-term.