AUTOMOTIVE MULTIMEDIA AND COMMUNICATIONS

Detailed system and semiconductor demand analysis for in-vehicle infotainment, telematics and vehicle-device connectivity features.

October 22, 2010 15:10 rlanctot
The battle is on to capture the most and the most accurate traffic incident data on a global scale. Several strategies are being deployed to collect this information including traditional journalistic traffic reporting and a growing variety of technology-based solutions including GPS-based probe solutions or GPS Floating Vehicle Data (GFVD) from smartphone and connected PND makers and carriers to cellular network-based probes (CFVD), video cameras, mobile phone camera probes and crowdsourcing. GPS-based probe data networks are particularly popular with companies ranging from TomTom and Nokia to Inrix, Google and RIM. The significance of the emergence of probe data is the fact that any organization with connected devices, applications or vehicles on the road is a candidate for delivering probe data. The industry is facing a proliferation of probe data sources encompassing everyone from Waze, Skobbler and Navigon to OnStar, TeleNav and TeleCommunications Systems. The CFVD crowd includes TomTom, AirSage, iTIS Holdings, Cellint, Intellione, TrafficCast and a few others. The inaccuracy of probe data, GPS or otherwise, is stimulating interest in license plate scanners, tolling networks and Bluetooth roadside scanners from companies such as Bluetoad. In fact, TrafficCast has already deployed or received approval to deploy Bluetoad scanners in 20 states. The Bluetoad technology with its range of up to 200 feet picks up signals from passing Bluetooth devices which have become nearly ubiquitous in mobile devices. The beauty of Bluetooth scanners is that they can precisely identify both the roadway and speed, making them ideally suited to creating flow data. The downside, of course, as with all sensor-based sources, is the high cost of deployment – usually borne largely by local DOTs who gain access to the data – and the not infrequent failures to which they are prone. Of course, all of these solutions are only really able to act as proxies for identifying incidents as they can only identify the results and not the causes of backups. That is where cameras and observers and journalistic data from companies such as Clear Channel, Westwood One and Navteq’s Traffic.com come into the picture. Two years ago this analyst was a strong believer in the power that video could bring to the traffic data reporting and interpretation game. When I met the team at TrafficLand I came to believe that I had found the ultimate solution for the driving public: show people what the traffic disturbance is rather than tell them. TrafficLand had – and has – a near monopoly on DOT traffic camera installations, but its real value add is managing those images on the back end. TrafficLand not only captures most of the data but it also serves it up to handheld devices and Websites and, soon, to automotive head units. Alas, a lot can change in two years. Cameras do play an important role in traffic reporting and interpretation, but the cameras that are likely to make a difference are not the ones mounted along highways. Front-facing mobile phone cameras are the new frontier waiting for a clever entrepreneur. More than one industry executive has talked to me about the potential power of a network of camera probes transmitting real-time traffic camera information from the road. The user interface is a potential issue as is the required bandwidth, but what is a market changing proposition without a few challenges? There is more than one way to make such a network come to pass, these executives suggest, including everything from a dedicated dashboard camera to a smartphone-mounted device to a forward-facing camera on a PND or even the use of existing on-board cameras. Solutions already exist. Navigon has shown augmented reality navigation solutions using forward-facing cameras and Imaginyze has a lane-departure warning app based on a similar device. There is even a company, Apollo Video Technology, with an iPhone app to allow transit officials to view live video feeds from buses, trains, police cars and transit vehicles. Even the execs working on the Next Generation 911 solution for the U.S. are looking for ways to integrate video and text reporting of incident information from smartphones or other devices. It shouldn't be too long before a crowd-sourced traffic solution is introduced for smartphones that allows for the automatic uploading of photos and video stills from a dashboard perspective of traffic conditions under predetermined circumstances. To make such a crowd-sourced solution effective requires a sufficiently large and connected network of users and an automated application. In fact, it is almost shocking that neither TomTom nor Nokia have taken the leap into crowd-sourced traffic video feeds. Or is it? While I was a big fan of integrating traffic video feeds into navigation solutions two years ago, with today's emphasis on mitigating distracted driving the idea has lost significant traction. In fact, U.S. Transportation Secretary Ray LaHood is on a personal jihad to ban even voice calls while driving. Video is important and can be powerful, but the time is not right and the concepts currently in the oven - including Visteon's TrafficLand app - need more time to reach maturity. What is available today, however, is crowd-sourced traffic data from Inrix via its iPhone app (and soon on Android). The app-based Inrix system is the most complete solution, designed around one-touch incident reporting along with the ability to validate the entries of nearby drivers as well as to share the resulting data with local departments of transportation. Aha Mobile has been combining its own crowd sourced inputs with Inrix flow and Clear Channel incident data since late 2009. In fact, Inrix's approach stands as a model for future crowd-sourced traffic solutions with its tools for ranking participants and identifying "trusted sources" and the integration with local traffic authorities. Since June, 47 of 50 state DOTs in the U.S. have adopted Inrix's agency model for sharing this user-generated data, which the DOTs are able to view on the large screens in their traffic operations centers and then check by dispatching their own responders. Inrix says it is processing these crowd-sourced traffic feeds in real time thereby revolutionizing traffic reporting. In this way, Inrix is distancing itself from the existing competition through the integration of an entirely new source of data and a closed loop approach. The challenge for Inrix, though, is the limited size of its probe network, based on users of the downloadable iPhone app.  To have an impact Inrix, mainly seen as a white box supplier to the industry, will need a little help from its industry friends. Crowd-sourced traffic information has become the new standard and Inrix is setting the bar. Waze may claim to have the largest user population worldwide, but the company has chosen not to integrate other corroborating traffic information sources. Fusion of multiple types of data sources is a critical foundation for using crowd-sourced data, along with building  validation processes. Inrix has the largest North American population of users and has recently rolled out its apps in Europe. It is collaborating with ClearChannel in North America and other incident providers internationally for journalistic data. Crowd-sourcing of traffic data is nothing new. Crowd-sourcing by mobile phone users has been around for decades. It is only recently, though, that smartphone apps have enabled the automation of the process and, now, with Inrix's system, the integration of crowd-sourced data into local DOT traffic feeds - although Inrix traffic app users get the data right away, including inputs from nearby drivers. What is curious is that Inrix, while not the first to market with crowd-sourced traffic, is the first to take it to a level where it is integrated with official traffic feeds. While the crowd inputs are validated or rejected by other users on the network, the local DOT is also involved in the validation process. The open line of communication with local DOTs also means that real time street closings and openings can be transmitted along with incident validation. Inrix is not alone. TeleNav has a crowd-sourcing function for its app and TrafficTalk has been testing a crowd-sourced offering. Harman's Aha Mobile and competing mobile platforms will no doubt seek to bring their own offerings to market as well. Looking at the Inrix model, one has to wonder why TomTom, OnStar, ATX, Google, Nokia, RIM, TCS or TeleNav haven't moved in the same direction. OnStar has its good Samaritan function for reporting accidents, but there is no provision for instantly integrating an OnStar user-reported accident on the in-vehicle navigation/traffic display  - let alone sharing it with public authorities in real-time. The same is true for ATX. Conclusion: The automotive environment is ripe for crowd-sourced applications, which already include the reporting of speed traps (Trapster). The world of thumbs up/thumbs down, check-ins and trusted providers of reviews/data is rapidly proliferating on mobile devices and migrating into embedded automotive solutions. It is fitting that traffic information lead this migration since this form of data is of the highest relevance to drivers and rapidly changing. The power of crowd-sourcing of traffic data has the dual effect of creating a new source of incident data along with its own validation process. One of the greatest challenges to creating reliable traffic information systems is validating journalistic data inputs. The crowd is able to view live traffic data, create new data and validate that data. The next step is to open the taps to other data types from parking and gas pricing to weather and event information. Eventually, crowd-sourced video will work its way into the mix as well - and probably sooner than anyone expects. Additional insights: http://bit.ly/dniNxa - Navigation Heuristic Evaluation: Telmap5 – Schreiner – Automotive Consumer Insights http://bit.ly/95NCoW - Automotive DMB Digital Radio: Marketing Strategies an Increasing Priority – Blight – Automotive Multimedia and Communications Service http://bit.ly/dtRE5C - Automotive Telematics Services: Shifts in Pricing and Monetization Expected – Canali – Automotive Multimedia and Communications Service http://bit.ly/bwdwcW - Connected Vehicle and Vehicle Device Connectivity System Database by Feature, Region, and Price 2010 – Canali – Automotive Multimedia and Communications Service http://bit.ly/d0aLhq - Connected Vehicle Telematics: Car Maker Profiles – Canali – Aumotive Multimedia and Communications Service http://bit.ly/deumcd -# Traffic Data Quality Will Determine #Telematics Winners - Lanctot - blog - Strategy Analytics

October 19, 2010 05:10 rlanctot
Microsoft intends to clear the air at Convergence in Detroit this week with the launch of Windows Embedded Automotive 7.0, the merged automotive operating system that takes the place of MS Auto and Windows Automotive – in all their versions. An earlier version of the OS, Windows Embedded Automotive, will be featured in the information hub in Nissan’s Leaf electric vehicle, according to Microsoft, and will be joined in the spotlight by Silverlight for Windows Embedded, Microsoft’s alternative to Flash. Also highlighted at Convergence by Microsoft will be Fiat’s plans to bring the Fiat 500 to the U.S. along with its Blue&Me 2.0 (not it's official name) interface with support for the iPod. Ford and Kia will likely be making announcements related to their Microsoft implementations and Microsoft noted its participation in 12 different device platforms over the next 12 months from a number of different car makers reflecting the company’s continuing commitment to the automotive business. The announcements and enhanced presence at Convergence concludes multiple reorganizations at Microsoft which saw the departures of senior executives on the automotive team and a consolidation of all embedded activities under a Server and Tools group. Existing OEM and Tier One partners with Microsoft solutions include Ford, Fiat, Chrysler, Kia, Mercedes, Honda, Nissan, Alpine, Mitsubishi, and Clarion. Microsoft will use Convergence to demonstrate various Silverlight development tools for handling prototyping and to accelerate testing within the development and approval process while allowing OEMs to create executable specifications for suppliers. Tools will also be shown for a thread priority-based tuning system that allows for handling and logging errors during development. Microsoft will also highlight advances in its Tellme embedded speech product, currently being deployed by Kia in the Uvo. The new recognizer can handle eight languages with speaker independence while providing for the tuning of recognition for individual users. Also new for the embedded Tellme is an SMS reply function capable of performing fuzzy logic matches to a set of predetermined responses. Separate from the Convergence activities, Microsoft is pursuing automotive opportunities for its Bing search engine as well as for Tellme as a server-based voice recognizer. Both the Ford and Fiat Microsoft solutions provide for application downloads and updates, though Microsoft has not created its own automotive app store model. The Nissan Leaf information hub is the most significant of the announcements at Convergence. The hub will handle navigation, charging, radio and HVAC functionality in the car. The hub implementation suggests the potential for a wider Microsoft engagement with both Nissan and Clarion. As Nissan moves closer to realizing its connected vehicle vision outside of Japan, the company can be expected to move beyond its current reliance on VxWorks. Conclusion: Microsoft remains a credible alternative to QNX and the various versions of Linux distributions in the automotive industry. The MeeGo operating system created from the merged elements of Nokia’s Maemo and Intel’s Moblin platforms and adopted by the Genivi Alliance is not expected to be available in even a beta version until April 2011. Some Genivi members say an automotive version of the OS may be out before the end of the year. Google and its Android operating system continue to flirt with the automotive industry – playing hard to get. Google is interested in the automotive industry for the emerging search-related opportunities and for the potential to sell traffic and cloud-based location-aware applications, but the company still refuses to certify or support Android for embedded use. In spite of Android’s orphaned status in automotive, Continental and Parrot continue to carry the flag, secure in the knowledge that Android can still claim the largest and fastest growing developer community – key to unlocking app store opportunities. Microsoft’s step by step, implementation by implementation, customer-focused approach has left some customers and potential customers scratching their heads about the company’s long-term commitment to automotive. The headquarters reorganizations continue to raise questions, and yet Microsoft forges on, enhancing and refining its solutions and adding to its portfolio. Just the past year has seen Silverlight and Bing added to the mix along with Tellme. After years of wavering it appears that Microsoft has finally taken its vows and accepted its automotive market responsibilities. By now, the company has learned that the automotive contest is not always won by the swiftest, but by the supplier with the most staying power – and it looks like MS is in for the long haul. Further insight: Smartphone Market Evolution and the Automotive Opportunity Implications – Mark Fitzgerald – Automotive Multimedia and Communications Service - http://tinyurl.com/34hldb5 Automotive Connectivity: Beyond Bluetooth Solutions – Mark Fitzgerald – Automotive Multimedia and Communications Service - http://tinyurl.com/2gx88eo

October 10, 2010 09:10 rlanctot
Europe is one of the most competitive markets for traffic data and TomTom claims pan-European market leadership by virtue of its HD Traffic solution. The power of HD Traffic lies in its use of cell signaling data to identify traffic jams and notify drivers who may need to be rerouted or who may want to change their driving plans completely. This analyst is a big fan of HD Traffic, having used it in recent European travels, but the company makes a claim in its latest press announcements that raise questions about HD Traffic even as they call attention to the power of the solution. Taken along with TomTom’s Traffic Manifesto (http://bit.ly/9IHHDj) one wonders if the company is more interested in bravado than actually advancing the art and science of properly interpreting traffic data. It is no small feat for TomTom to be such a standout player in the European market. There are multiple market players in Europe with GPS probe-based solutions, cell signaling solutions and all manner of offerings based on public, private, historic and real-time data “algorithmed” into elegant predictive models. And new predictive models and routing schemes seem to emerge on a regular basis. But TomTom was first on the continent with a multi-country cell signaling solution – HD Traffic – and the company has had it in devices and in use for more than two years with admirable results. Competitors, most notably iTIS Holdings in the cell signaling space, and Nokia Navteq and Inrix with probe-based solutions, are threatening, but the TomTom HD Traffic solution, thus far, remains dominant. All three competitors also integrate other real-time and historical traffic data. At the Paris Auto Show two weeks ago, TomTom announced the release of its next generation traffic data system across Europe. Called HD Traffic 4.0, TomTom says it is the first pan-European solution to use historic, real-time and predictive traffic data to deliver the most accurate traffic navigation available. While there are other traffic providers in Europe that use cell signaling data and similar data sources and types as TomTom, the company remains the only one with its scope of market coverage and with a commercially available retail product. The company says HD Traffic 4.0 covers more of the road network and reports traffic jams with more accuracy, giving drivers the most precise traffic information in Europe. The company says existing HD Traffic customers “will experience the benefits immediately, without the need for any software upgrade.” But at this point in the TomTom press release, the company introduces a bit of murk that both shines a light on its technology and raises questions. TomTom says its real-time and predictive traffic technology “now detects traffic jams that other services are unable to:”“HD Traffic 4.0 reports traffic jams with higher accuracy, reporting up to 200% more traffic jams during rush hours than previously, in particular on urban roads.” –TomTom press release. This claim raises a host of questions about the relative merits of cell signaling data and the very definition of a traffic jam or the quality and accuracy of congestion detection. The critical determining evaluative criterion both academically (see BMW’s Qkz traffic quality standard methodology) and intuitively is: Does this traffic solution detect what I am or what I, as a driver, may experience/perceive/consider to be “congestion?” Cell signaling data, based on triangulation of handset signal strength, is some of the most powerful available traffic data for reasons related to the ubiquity of handsets and the universality of cell signaling. Anyone with a mobile handset that is within range of a cell tower is automatically transmitting location data, which can be interpolated from the cell signals. While advocates of probe data are quick to point out the low level of accuracy of this signal interpolation – perhaps as poor as 100-200 meters – suppliers continue to refine their models and algorithms. The proof is in the pudding. AirSage in the U.S., TrafficCast in China, IntelliOne in Toronto, Cellint in Israel and TomTom and iTIS Holdings in Europe have all produced usable and commercially available traffic flow solutions based on cell signaling. (In fact, the data is not just used in traffic solutions for drivers it is also used in urban planning and in the selection of locations for billboards, stores and cell towers, among numerous other applications.) In contrast, handset GPS probe data not only requires the presence of a GPS module in the handset, but also requires the user to turn the GPS receiver on. The rapid battery consumption of GPS modules guarantees that GPS based solutions, though more accurate, will necessarily be based on a smaller data set.In this context the TomTom claim breaks down two ways. Either TomTom is claiming that it is capable of detecting 3X more (+200%) traffic/congestion incidents than competing solutions on THE SAME roads, or it is claiming to detect 3X more traffic/congestion incidents because its roadway coverage is broader. Further, it appears that the claim is associated with HD Traffic 4.0, which is most likely an enhancement of the existing data interpretation algorithm. Since TomTom appears to be mainly concerned with detecting jams on major roadways, the claim is clearly associated with detecting 3X as many jams on those roads as the competition. The fundamental problem with this claim is that it exposes the single weakest aspect of cell signaling data: FALSE POSITIVES. Because of the combination of the huge volume and low accuracy of cell signaling data, the technology has always been prone to generating false positives. False positives are indications of traffic jams that, in fact, do not exist and are actually misinterpretations of the cell signaling – ie. parked cars mistaken for a jam. In this analysts’ experience, TomTom devices identify multiple jams on the roadway ahead (something not all technologies or devices are able to do) which, more often than not, disappear before the driver arrives at the identified location. In other words, it is not clear whether the multiple congestion points being reported ever really existed. Other detection technologies are equally vulnerable to false positives, but it is the volume of data and the number of false positives that uniquely distinguishes cell signaling-based solutions. To look at the TomTom claim with an even more cynical eye, it is possible to suggest that TomTom simply changed its definition of an accident in order to claim a threefold increase in reported jams. BMW’s Qkz traffic quality standard uses 50Km/h as a measure of congestion detection accuracy. If the standard were raised to 60Km/h, the number of detected points of congestion would increase in a corresponding fashion. TomTom wants to get drivers to their destinations faster by helping them avoid jams. The company claims a 15% improvement in travel time based on its technology. It is time for TomTom to close the gap in logic and explain more precisely and honestly how it is achieving travel time improvements, if it is in fact doing so. By now, most drivers know from painful experience that traffic, like a balloon, is a zero sum game – squeeze it on one side and it simply bulges out the other. It would be good to know whether TomTom’s claims are something more than hot air. Additional insights:http://tinyurl.com/2bz9zq6 - Google, Nokia and New Entrant Positioning in Automotive Infotainment - Lanctot – Automotive Multimedia and Communications Service http://bit.ly/dniNxa - Navigation Heuristic Evaluation: Telmap5 – Schreiner – Automotive Consumer Insights http://bit.ly/95NCoW - Automotive DMB Digital Radio: Marketing Strategies an Increasing Priority – Blight – Automotive Multimedia and Communications Service http://bit.ly/dtRE5C - Automotive Telematics Services: Shifts in Pricing and Monetization Expected – Canali – Automotive Multimedia and Communications Service http://bit.ly/bwdwcW - Connected Vehicle and Vehicle Device Connectivity System Database by Feature, Region, and Price 2010 – Canali – Automotive Multimedia and Communications Service http://bit.ly/d0aLhq - Connected Vehicle Telematics: Car Maker Profiles – Canali – Aumotive Multimedia and Communications Service http://bit.ly/deumcd -# Traffic Data Quality Will Determine #Telematics Winners - Lanctot - blog - Strategy Analytics

October 6, 2010 16:10 rlanctot
TomTom’s marketing machine was in overdrive last week with announcements of a new OEM relationship (Mazda) and advances with existing partners (Toyota, Renault), enhancements to its (European) market-leading traffic solution (HD Traffic) and a traffic manifesto. But undoing all that positive spin was the note that the company still wants to charge about $50/year for its Live Services. It looks like TomTom didn’t get the latest email about automotive value propositions. As connectivity comes to more vehicles, drivers (and passengers) will get more of their content and services from the “cloud.” What this means is that car makers will increasingly have in place systems for sending, receiving, processing and managing all types of vehicle data – the “back end.” (This is not unlike what is happening at your average NASCAR or Formula One event every weekend – without the parking space availability and Internet radio.) The value of this data is manifest to the car makers for better understanding the performance of their vehicles on the road as well as better understanding how consumers use and abuse their cars. The implications for cost avoidance, warranty and recall management are in the millions of dollars of savings. There is no immediate or obvious benefit to the driver. For this reason, this kind of vehicle connectivity ought to be free. (On the other hand, OnStar and others have demonstrated that people will pay for safety and security.) As more drivers shift to smartphones (with mandatory data plans) with access to a wide range of content and services, they will be less likely to pay for any service from the car (or PND) maker that is available for free (or for which they are already paying) via their mobile phone. So how is the industry (and TomTom) going to monetize all this connectivity? Enter the back end value proposition. Auto makers and Tier Ones have gotten the message and recognize that driver and passenger eyeballs and “click-throughs” have value. A driver asking for directions to a restaurant or movie has economic value. A system that knows the location of the driver has value. Beyond this, a system that is able to provide a broader “cloud” perspective of all location-related activity – including everything from prosaic traffic information to “heat” maps of gatherings of people, weather, etc. – has other value-add implications for drivers, passengers and roadway systems and public transportation overall. But in the short-term, vehicle related information for diagnostics, safety and entertainment take priority. Continental, Harman, Visteon, Delphi and Pioneer clearly understand this. All of these companies have introduced systems or platforms that seek to leverage vehicle location information for commercial opportunities. Even Best Buy’s connected PND delivered sponsored links in its Google Search. Unfortunately, Tier Ones face an uphill struggle in trying to get a piece of this action. The telematics eco-system consists mainly of a telematics service provider (ie. ATX), a carrier (ie. Sprint or Verizon) and a system integrator (ie. TCS). Each of these operators is interested in the other’s business – with the possible exception of the call center. (No one wants the call center hot potato – too much cost.) While the call center tends to be shunned, the data back end tends to be either misunderstood or underestimated. But the back end system is rapidly becoming the backbone of the system altering the competitive landscape. The power and influence of back end systems is visible to the consumer in the growing variety of free content and services via smartphones. Google probably has the largest back end system currently influencing developments in the automotive market. With its free navigation, traffic and search and an open source operating system, Google has rattled the industry mightily over the past two years. Carriers, meanwhile, are trying to fight there way in – not content to be simply white label suppliers of bandwidth. Among the carriers sniffing around the telematics back end opportunity are Verizon, Sprint, T-Mobile, Telenor, Orange, AT&T Mobility, Vodafone and Ericsson. All of these companies recognize that their servers are as valuable as their networks. Some of these companies fancy themselves Tier One players. At least three handset makers have the potential to rise to the Google challenge: Nokia, Apple and RIM. Like Google, Nokia is offering free navigation while also seeding the market with open source development tools (Qt), operating system softare (MeeGo) and smartphone connectivity technology (Terminal Mode). But Nokia remains ambivalent about the automotive opportunity. MeeGo is not ready for market and Ovi has not been designed for automotive opportunities. RIM brings a unique value proposition combining its smartphone system experience with its newly acquired QNX automotive expertise. RIM represents the most immediate threat to Google’s potential dominance in the automotive market because of its potential to deploy navigation and traffic applications (based on handset probe data) and its ability to monitor, manage and mine its network data traffic. Apple’s strength lies in its secure systems for managing commerce for downloading applications and enabling the purchase of content. For these reasons, Apple and RIM both have the scope and scale to add value to automotive opportunities. The massive giveaway of content and services by both Google and Nokia is a setup for capturing click-through traffic and back end processing opportunities for creating metrics and analytic output. Google already has the analytic tools in place, unlike Nokia. The current landscape for back end services is highly fragmented and includes companies such as TeleNav, Airbiquity, Hitachi, TeleCommunications Systems, Hughes Telematics, WirelessCar, Oracle and IBM, along with the previously mentioned wireless carriers, RIM and Apple. (Strangely, Microsoft seems to have disqualified itself – having disbanded its automotive business unit. The original vision defined by Microsoft at multiple industry events included integrating more and more Microsoft solutions such as Bing, Tellme, and Silverlight into automotive platforms, but the complete vision – including back end services – never materialized. The one exception to this no-show for Microsoft are the company's ongoing efforts to capitalize on the Bing search engine.) The value proposition of back end service providers revolves around secure management and processing of vehicle and driver data for applications ranging from vehicle performance and safety to content and infotainment and, ultimately, commerce opportunities. Neither OEMs nor Tier Ones are equipped to manage this opportunity and traditional telematics providers lack the scale. The lack of scale is one reason Airbiquity has partnered with Hitachi to service Nissan’s connectivity needs around the world. It is likely that companies such as Hughes and TeleNav will seek partnerships with larger integrators such as IBM or Oracle for the same reason. Nokia, like RIM, already has the scope and scale and like Apple already has the commerce platform (Ovi) but, unlike Apple, has done little beyond the introduction of terminal mode to optimize its offerings for automotive. TomTom is another player in need of a partner to provide the scope and scale necessary to compete in the connected space. The larger organizations that are able to monetize the connectivity proposition will force out smaller players dependent on subscription revenue. If TomTom can enhance its navigation and infotainment platform to include safety and security telematics, it will greatly improve its value proposition and the likelihood of building a devoted subscriber base. Conclusion Google and RIM are best positioned to leverage the back end data processing opportunity presented by the automotive industry. Google faces trepidation among potential OEM customers who are suspicious of the company’s motives and objectives. Google’s failure to validate its Android OS for automotive applications is another stumbling block. Nokia has discrete elements of a solution in place but so far lacks the commitment and execution to challenge either Google or RIM. Apple is a wild card player in a market that remains fragmented with the door open to new entrants. Microsoft's Bing search engine is another contender gaining traction, but, in the end, Microsoft is more of an arms supplier to the contesting parties. Winners in the battle for the back end will be those companies able to bring security and state-of-the-art analytics and commerce management to the automotive industry. Google knows analytics. RIM knows security and network management. It remains to be seen whether Nokia or some dark horse will step forward to challenge these two dominant players, but the race is on. Additional Insight: http://bit.ly/c0OLhT - Consumer Implications for Smartphone-Vehicle Connectivity  - Chris Schreiner - Automotive Consumer Insights http://bit.ly/c1nvTq - Consumer Interest High for Connected Safety and Security Services - Chris Schreiner - Automotive Consumer Insights http://bit.ly/aGJHDj - Smartphone Market Evolution and the Automotive Opportunity Implications -Fitzgerald - Automotive Multimedia & Communications

October 1, 2010 19:10 rlanctot
At a time when radio struggles with its role as the red-headed stepchild of the broadcast industry it was refreshing to discover a group of enthusiastic radio marketing executives discussing what the organizers of the event described as the arrival of the fourth golden age of radio. The discussion was occurring at the RAIN (Radio and Internet Newsletter) Summit in connection with the Radio Advertising Bureau event in Washington, DC., this week. Kurt Hanson, CEO of AccuRadio.com and Publisher of RAIN, defined the vision of the fourth golden age of radio as that period following the first (1935-55), second (1960-75 = Top 10, emergence of FM), and third (1976-99, listener fatigue, consolidation). Hanson pointed to Internet radio as a transformative force creating new value for radio advertising and content. For these executives, the hand-wringing regarding the impact (read: threat) of Internet radio is past, replaced by an intensifying embrace of a technology that is transforming the industry. Broadcasters left the event with the newfound conviction that Internet radio was a valuable tool for enhancing their influence and reinforcing their ties to listeners – and the mobile phone and the automobile are increasingly important venues via which to pursue that opportunity. For these broadcasters, the so-called fourth golden age of radio is characterized by the emergence of Internet radio and five aspects defined by the event organizer as: 1.                   Personalization and control manifested in pause, fast forward and thumbs up/thumbs down functionality; 2.                   Variety in the form of thousands of available stations targeted at all forms of regional and genre/sub-genre-based interest; 3.                   Lower spot load – ie. fewer ads – but better targeting of ads – and the corollary of more detailed and accurate metrics; 4.                   Ubiquity – Internet radio is accessible via televisions, mobile phones, standalone radios and, soon, automobiles; 5.                   Global/National reach vs. local – after all, listeners can be anywhere. Internet radio use currently stands at a 3.8% share of radio listening, according to data from Ando Media referenced at the event, representing the equivalent share of radio listening captured by FM radio in 1971. Arbitron data shows the percentage of online radio listening (% who have listened to online radio in the past week) as steady at 17% between 2009 and 2010 (equivalent to 43M listeners). Pandora, the most successful online music provider to date, showed an increase in # of listeners per average quarter hour (AQH) from 257K in January to 366K in July. At the same time the total AQH for the top 20 online radio sources was 780K and the total online radio listening figure was 1.3M. The numbers indicate that Pandora has a 28% share of all online radio listening, according to Hanson, and an overall radio listening market share of 1% - equivalent to 1% of listening in every market in the U.S. The trend, according to Pandora’s own data, continues upward with the number of hours of listening on Pandora growing from 200M in January to 275M in July. And the majority of the increase is coming from mobile users, who now account for more than half of those listening hours. Pandora’s overwhelming brand recognition in the space was reflected both in the listener data and in research presented by Coleman Insights which found Pandora, Slacker and iHeartRadio as the only brands with any significant unaided recognition. The larger message from the Coleman study was that Pandora may have strong recognition but does not yet have a dominant image in the minds of consumers – ie. the market is still fairly fragmented and an open opportunity. The implications for the automotive and mobile device markets come through loud and clear here and in Strategy Analytics’ own data where interest in and usage of Internet radio on mobile devices is on the rise. Not surprisingly, auto makers are seeking to capitalize including front runners BMW, Ford and Mercedes-Benz. Only a year ago, Internet radio in the car was greeted with skepticism and derision for a variety of reasons including: 1.                   Cost – As unlimited data plans begin to disappear, the perception is that Internet radio will become prohibitively expensive to mobile users; 2.                   Network capacity – Cell towers have limited ability to support an unlimited number of data users, which is what Internet radio users are; 3.                   User experience – Capacity and signal issues have created a listening environment carried by drop outs and lost signals. All of these objections have either been resolved or will soon be resolved: 1.                   Cost – Do the math. Taking AT&T’s tiered plan as an example, the $30 for 2.4GB likely represents MUCH more than enough time and bandwidth for all but the most out-of-control mobile listener. Cost is NOT an issue. 2.                   Network capacity – Carriers are adding smaller cells and Wi-Fi access points in major metro areas to alleviate the capacity issues. AT&T complaints have almost (I say “almost.”) completely stopped. 3.                   User experience – There will always be challenges in delivering music consistently, but the creators of these solutions are providing for caching and buffering at the receiving end while broadcasters are filtering content to lower-bandwidth alternatives at the broadcast end. The dominant mode of delivery for Internet radio in the car will be the smartphone in the short term. And with a growing population of smartphones in the marketplace, the opportunity is large and growing. But the concept of an embedded telematics infotainment system with access to Internet radio is no longer anathema in the industry. In fact, the Mercedes-Benz MyComand concept of such an embedded solution shown a year ago at Telematics Munich now looks not only doable but downright prescient. Some bumps in the road remain.  Music service-type Internet radio, such as Pandora and Slacker, will have a user experience advantage over true Internet radio platforms such as RadioTime and vTuner. Because of their personalized nature, Pandora and Slacker will have the advantage of leveraging buffering and caching to preserve the listening experience where cell connections are lost. (Slacker, of course, is primarily a caching-based service and, by definition, won’t lose connection mid-song.) Nevertheless, with carrier network improvements and the transition to LTE technology, the radio aggregators such as RadioTime and vTuner may gain the upperhand by facilitating access to a wider range of content with more creative means to manage and discover new music. RadioTime, for example, has deployed a song search feature able to locate a song being played on any of its participating radio stations. These aggregators also have the advantage of making podcasts and other non-radio content available while also integrating terrestrial sources such as analog AM/FM and HD Radio sources using location data. Competing Radio Platforms It is no coincidence that Sirius XM is making its content available via the Internet. Sirius XM clearly recognizes the competitive threat posed by Internet radio. To respond to the content searching and sorting functions of some Internet radio services and the ability to store or buffer some music, however temporarily, Sirius XM can be expected to bring content management enhancements to its Satellite Radio 2.0 platform due late in 2011. (Sirius XM has raised its subscriber guidance, forecasting 20.1M U.S. subscribers by the end of 2011.) Sirius XM already offers smartphone app functionality already widely deployed by Internet and terrestrial broadcasters. (In fact, much of the talk at RAB revolved around leveraging these apps for advertising and promotional engagement with the listener.) But with the enhancements in satellite radio requiring further hardware investments by OEMs, Sirius XM will have to continue to subsidize its OEM customers. HD Radio will continue to see widening deployment via automotive OEMs, especially since the required hardware investment is substantially less than for satellite radio. According to a recent Twice magazine report HD Radio is built into 5% of new cars sold in the U.S. reflecting deployment by 15 brands on 86 vehicle lines and as standard equipment on 36 car models. There are 2,085 converted stations and 1,226 multicast channels. More than  3M HD systems of all types have been shipped, according to iBiquity Digital, and efforts are underway to see HD Radio technology integrated in handsets. Conclusions The two challenges for OEMs will be to monetize the Internet radio opportunity and to solve the user interface challenge of accessing multiple radio sources safely in a vehicle. From a monetization standpoint, the goal will be to enable users to purchase songs and to enable access to premium content. In addition, the integration of Internet radio into embedded systems will make a powerful and positive contribution to the perceived value of telematics infotainment systems. Smartphone integration continues to advance and a variety of approaches will be tried, no single one of which is likely to dominate. As an example, BMW’s Mini Connect integration reproduces the smartphone display in the instrument cluster, while the solution in the 1 Series lets the driver use the smartphone’s interface. The latter approach is used by Mercedes in its Smart integration product. The bottom line is that Internet radio in the car is much closer to a reality than it appeared just 12 months ago, and it will likely contribute positively to convincing consumers to pay for telematics systems. http://bit.ly/c0OLhT - Consumer Implications for Smartphone-Vehicle Connectivity  - Chris Schreiner - Automotive Consumer Insights http://bit.ly/c1nvTq - Consumer Interest High for Connected Safety and Security Services - Chris Schreiner - Automotive Consumer Insights http://bit.ly/aGJHDj - Smartphone Market Evolution and the Automotive Opportunity Implications -Fitzgerald - Automotive Multimedia & Communications http://bit.ly/bD5RzL - Automotive DMB Digital Radio: Marketing Strategies an Increasing Priority - Blight - Automotive Multimedia & Communications