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December 2000 |
Market
Analysis:
Lane Departure Warning and Lateral Guidance Systems
Gathering up recent articles and sales literature, IVsource takes a look at the potential market for lane departure warning and lateral guidance systems for the car, bus, and truck markets. Information on key players and their market focus is provided here, along with estimates of market size in focused application areas. |
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The analysis herein is based on information available as of Fall 2000 -- things are changing rapidly in this field, so we expect our next analysis to be available in mid-2001. Information is provided in four sections:
Overview comments are provided for each area, and then key points from articles, sales literature, and government documents are noted. Many of the articles come from IV Quarterly / IVsource and are available on the IVsource.net website; some of the others can be provided by IVsource upon request (Editor@IVsource.net). [Top]
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II. Driver assistance systems such as night vision and adaptive cruise control are now entering the market for consumers, and collision warning has been available to heavy truck operators for several years. The willingness of consumers and commercial vehicle operators to invest in these early systems strongly correlates with their likely future investment decisions in lateral sensing/guidance systems. For driver assistance systems, the decision criteria for investment -- whether it be for night vision or for lane departure warning -- are essentially as follows: do I feel safer? (consumer), does it reduce my driving stress? (consumer and professional driver), is my fleet measurably safer? (commercial fleet operator), and does it reduce my operating costs and boost profitability? (commercial fleet operator). For commercial fleet operators, the answer to these questions has been "Yes" for forward-looking collision warning systems. This is evidenced by Eaton VORAD, which has sold roughly 50,000 of these units to date and continues to move "thousands" per year, according to an EV source. Very positive safety improvements have been seen by their customers. EV is now offering Adaptive Cruise Control to commercial fleets. Adaptive Cruise Control for automobiles entered the Japanese market in 1997 and has been popular there. ACC entered the European market in 1999 and approximately 5,000 equipped vehicles are on the road. Regarding the US, most car-makers are watching consumer reaction and system performance in Europe before introducing similar systems to the more litigious side of the Atlantic; but Mercedes Benz began selling ACC in the Detroit area in August 2000, Toyota's Lexus made ACC available in October 2000, and Nissan, BMW, and Jaguar are expected to follow in 2001.
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III. Lane and road departures are the number one cause of fatalities on US roadways. Product development and market introductions are moving forward at a healthy pace for lane departure warning systems. Depending on the government's effectiveness in stimulating this process, the "stretch goals" that US Secretary of Transportation Rodney Slater announced in July for the IVI program could be significant. Goals which are relevant to this report are:
Additionally, the Federal Motor Carrier Safety Administration has set a goal of a 50% reduction in heavy-vehicle-related fatalities by 2010. Achievement of these goals will be based on the sale of millions of IV systems over the next ten years. Most car and truck OEMs are now, at minimum, developing a product development strategy and examining supplier systems. How might this LDWS market develop over the coming years? IVsource believes it is fair to say that LDWS will sell at least at 1/2 the rate/volumes of the ACC market, and probably at 1/2 the unit cost. This equates to a $202M market by 2007 (using the Tier One market report info which showed an $805M market for ACC). Differentiating factors are:
LDWS may be offered within a "bundle" of services, rather than as a stand-alone product. As a further indicator of the perceived strength of this product area, the International Standards Organization (ISO) has been working on an LDWS standard for some time at a preliminary level. A basic standard is in the balloting process for acceptance as a New Work Item, which means it is moving into the formal stages of standardization. According to their March 2000 Business Plan, USDOT's Intelligent Vehicle Initiative program has Road Departure Collision Avoidance listed as one of eight problem areas targeted. Light vehicles (LVs) are the key focus, as this is where the majority of crashes occur; other platforms will be involved as "stepping stones" to LV deployment. Benefits of LDWS, as listed in the Business Plan, include reduction of crashes by 30% (road departure). Section 8.2.3 describes the approach to Road Departure Collision Avoidance, with operational testing during 2002-04 and deployment beginning in 2008 (IVsource sees this as a super-conservative deployment estimate, as Ford is due to equip cars beginning in 2003). NHTSA invested in a six-year project with Carnegie-Mellon University to develop and validate performance specifications for road departure collision avoidance. Several government programs worldwide are either evaluating LDWS or going so far as to conceptualize advanced systems. In the Netherlands, one of three recently-approved pilot projects is "Lane Departure Warning Assistant," planned from 2000-2002. Information on this and other projects is expected to be published soon.
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IV. The benefits of precision docking for transit buses include reduced tire scuffing (tire replacement is a major cost for bus fleets), and more rapid loading/unloading of passengers, especially those "with wheels" (e.g., strollers, wheelchairs). Rapid and reliable loading times are essential to maintaining the reliable schedules that passengers demand. Also, level loading and the absence of "curb gap" greatly reduce the occurrence of mishaps and stumbles that can occur at bus stops, which translate into lawsuits for bus operators. (The annual liability/legal costs for US transit systems is in the range of $800M, so the financial incentive is there to equip buses.) For electronically guided bus systems within a Bus Rapid Transit scenario, costs for electronic guidance are typically less than half that needed for a light rail system, with the added advantage that the buses have the flexibility to leave the route to circulate in neighborhoods and office parks. The key is to make bus service "feel" like rail service to customers, as rail has the higher customer appeal. Systems like Civis (marketed by Irisbus) and Phileas (being implemented in Eindhoven, Netherlands) are doing an impressive job of this. In terms of the underlying technology, electronic bus guidance is being implemented with systems incorporating buried wires, magnetic reference markers, and machine vision. The US Transit IVI Working Group has recommended to USDOT a stretch goal of equipping 10% of all new transit buses with IV systems by 2010. 5000 new buses were delivered to US transit agencies in 1998; assuming this volume remains constant, then a 10% market equals 500 buses annually. Typical IV package equipment costs can be estimated at $5000, so a conservative market estimate is $2.5M. However, IVsource expects that precision docking easily could be a retrofit item, and thus nearly any of the 75,000 buses in operation in the US are candidates, as are hundreds of thousands more overseas (where bus usage is significantly greater). We believe it is reasonable to say that, within five years, 20 cities worldwide will adopt precision docking systems. Assuming (conservatively) that this capability is installed on 100 buses per city, then 2000 buses are equipped. Assuming a $5000 equipment package, then this constitutes a $10M market in the near term for precision docking. For guided bus systems, IVsource estimates that 30 systems will be either operating or in implementation within five years, worldwide (roughly ten systems each in Europe, the Americas, and Asia). Each project will range around $100M for the total system, including vehicles and infrastructure improvements. For the electronic guidance portion, $10,000 per bus and another $10,000 per mile is estimated. Using average figures of 30 buses per system and 20 miles each, this equates to $300,000 per site for buses and $200,000 per site for mileage, or $500,000 per deployment. For 30 systems, this comes to $15M. Major participants in this arena are 3M, the US Federal Transit Administration, Frog, Irisbus, London Transport, Washington Group International, PATH, and Toyota. 3M has commercialized a Lane Awareness System consisting of magnetic roadway marking tape, vehicle sensors, and a driver interface, which they are marketing primarily for snowplow guidance but also is applicable to transit bus operations. Irisbus is by far the most active player in marketing a total system (Civis) worldwide. Frog can be expected to market their system concept worldwide as well, based on observing their marketing for port automation. Washington Group International (the new conglomeration of Morrison Knudsen and Raytheon's civil engineering unit) may seek to expand their concept to other locations, but the company focus is much broader and a specific marketing of precision maneuvering for buses is unlikely. Toyota's approach will most likely stay in Japan. FTA and London Transport are obviously important players as advocates and implementers of systems. PATH is very active in marketing its capabilities within the US; however, they do not have a commercial product or a service/support capability (they may have a commercial spinoff in mind, though). Thus, there exists an opportunity for other players to step into this arena as either a total system provider of BRT systems (competing primarily with Irisbus) and/or as a focused provider of electronic guidance systems for precision maneuvering.
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Copyright 2000: IVsource.net and Richard Bishop Consulting (RBC). All Rights Reserved. |
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December 2000 |