81 Unfallstatistik
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Internationally, the need is expressed for harmonized traffic accident data collection (PSN, PENDANT, etc.). Together with this effort of harmonization, traffic accident investigation moves more and more in the direction of accident causation. As current methods only partly address these needs, a new method was set up. The main characteristics of this method are: • Accident/injury causation (associated) factors can objectively be identified and quantified, by comparison with exposure information from a normal population. • All relevant accident and exposure data can be included: human-, vehicle-, and environmental related data for the pre-crash, crash and postcrash situation (the so-called Haddon matrix). The level of detail can be chosen depending on interest and/or budget, which makes the method very flexible. In this paper the accident collection and control group method are presented, including some of the achieved results from a pilot study on 30 truck accidents and 30 control locations. The data were analyzed by using cross-tabulations and classification-tree analysis. The method proved useful for the identification of statistically significant causational aspects.
In Germany, in-depth accident investigations are carried out in the Hannover area since 1973. In 1999 a second region was added with surveys in Dresden and the surrounding area. Internationally, the acronym GIDAS (German In-Depth Accident Study) is commonly used for these surveys. Compared to many other countries, the sample sizes of the GIDAS surveys are much larger. The goal is to collect 1.000 accidents involving personal injuries per year and region. Data collection takes place by using a sampling procedure, which can be interpreted as a two-stage process with time intervals as primary units and accidents as secondary units. An important question is, to what extend these samples are representative for the target population from which they are drawn. Analyses show, for example, that accidents with persons killed or seriously injured are overrepresented in the samples compared to accidents with slightly injured persons. This means, that these data are subject to biases due to uncontrolled variation of sample inclusion probability. Therefore, appropriate weighting and expansion methods have to be applied in order to adjust or correct for these biases. The contribution describes the statistical and methodological principles underlying the GIDAS surveys with respect to sampling procedure, data collection and expansion. In addition, some suggestions regarding potential improvements of study design are made from a methodological point of view.
Annually within the European Union, there are over 50,000 road accident fatalities and 2 million other casualties, of which the majority are either the occupants of cars or other road users in collision with a car. The European Commission now has competency for vehicle-based injury countermeasures through the Whole Vehicle Type Approval system. As a result, the Commission has recognised that casualty reduction strategies must be based on a full understanding of the real-world need under European conditions and that the effectiveness of vehicle countermeasures must be properly evaluated. The PENDANT study commenced in January 2003 in order to explore the possibility of developing a co-ordinated set of targeted, in-depth crash data resources to support European Union vehicle and road safety policy. Three main work activity areas (Work Packages) commenced to provide these resources. This paper describes some of the outcomes of Work Package 2 (WP2, In-depth Crash Investigations and Data Analysis). In WP2, some 1,100 investigations of crashes involving injured car occupants were conducted in eight EU countries to a common protocol based on that developed in the STAIRS programme. This paper describes the purposes, methodology and results of WP2. It is expected that the results will be used as a co-ordinated system to inform European vehicle safety policy in a systematic, integrated manner. Furthermore, the results of the data analyses will be exploited further to provide new directions to develop injury countermeasures and regulations.
The need for improved EU level accident information and data was identified in the EU White Paper on Transport Policy (2001)1 and detailed in the Road Safety Action Plan (2003)2. The plan specifies that the EC will develop a road safety observatory to coordinate data collection within an integrated framework.
Electronic Stability Program (ESP) aims to prevent the lateral instability of a vehicle. Linked to the braking and powertrain systems, it prevents the car from running wide on a corner or the rear from sliding out. It also helps the driver control his trajectory, without replacing him, in the case of loss of control where the driver is performing an emergency manoeuvrer (confused and exaggerated steering wheel actions). A new ESP function optimizes ESP action in curves with hard under steering (situations in which the front wheels lose grip and the vehicle slides towards the outside of the curve). A complementary feature prevents the wheels from spinning when pulling away and accelerating. The name given to the ESP system varies according to the vehicle manufacturer, but other terms include: active stability control (ASC), automotive stability management system (ASMS), dynamic stability control (DSC), vehicle dynamic control (VDC), vehicle stability control (VSC) or electronic stability Control (ESC). This paper proposes an evaluation of the effectiveness of ESP in terms of reduction of injur accidents in France. The method consists of 3 steps: - The identification, in the French National injury accident census (Gendarmerie Nationale only), of accident-involved cars for which the determination of whether or not the car was fitted with ESP is possible. A sample of 1 356 cars involved in injury accidents occurred in 2000, 2001, 2002 and 2003 was then selected. But we had to restrict the analysis to only 588 Renault Lagunas. - The identification of accident situations for which we can determine whether or not ESP is pertinent (for example ESP is pertinent for loss of control accidents whilst it is not for cars pulling out of a junction). - The calculation, via a logistic regression, of the relative risk of being involved in an ESPpertinent accident for ESP equipped cars versus unequipped cars, divided by the relative risk of being involved in a non ESP-pertinent accident for ESP equipped cars versus unequipped cars. This relative risk is assumed to be the best estimator of ESP effectiveness. The arguments for such a method, effectiveness indicator and implicit hypothesis are presented and discussed in the paper. Based on a few assumptions, ESP is proved to be highly effective. Currently, the relative risk of being involved in an ESP pertinent accident for ESP-equipped cars is lower (-44%, although not statistically significant)rnthan for other cars.rn
This paper reviews briefly the evolution of the investigation of transport accidents from the early beginnings when individual events were studied but systematic data was not collected. In the transport modes other than on the roads, accident investigation early on, even of single events, was important in introducing safety improvements. Road accidents, however, evolved enormously with the growth of car ownership without any comparable political response to the consequent deaths and injuries, equivalent to what happened with the other modes. From the 1950s data bases started to contribute to our knowledge of the epidemiology of road traffic injuries, and in-depth sample studies have contributed much to the body of knowledge in the last 30 years. However, even the basic input and output variables of a crash, its severity and the seriousness of the outcomes in terms of injuries and their consequences are not complete or agreed upon. Issues of experimental design and sampling are discussed. It is proposed that the most important area for current research to address is the effect of population variations on injury outcomes. The need for the establishment of good data bases for active safety issues is emphasised with the consequent need for better links between the research community and the police.
Traffic accidents were ranked the third among the major causes of death in Thailand. About 13,438 deaths and the death rate from traffic accident was 21.5 per 100,000 of population in 2002. The deaths and death rate varied upon the economic situation. After the economic crisis, traffic accidents were increased as well as the period of the bubble economy. In the Central region of Thailand numbers of road traffic crashes were lower than Bangkok Metropolis, but the highest in the number of deaths, death rate and serious injuries in 2002. Men aged 15"29 years old had higher numbers of deaths than men in other age groups and higher than women. Deaths and injuries from road traffic crashes were the highest in April and January, because there was a long weekend in those months. About 80 percent of road traffic crashes were caused by private car and motorcycle. In 2000 about 51 percent of traffic accidents took place on the straight way, followed by the junction and curves. In 2002, about 97 percent of road traffic crashes were caused by human factors including improper passing, speeding and disregarding to traffic signal, however, the identification of causes of traffic accident needed to improve. Drunk driving, disregarding on safety equipment usage, inefficiency of law enforcement and discontinuing of road safety programs were the deepest causes of traffic accidents. Research based information, a broad coalition of stakeholder and urban planning policy were needed to incorporate for a comprehensive road safety policy formulation and actions.
This report gives an overview of pedestrian accidents on Japanese roads. Database used for the analysis is national traffic accident data based on police reports. Relevant measures and background information ranging from vehicle safety, engineering and education are briefly reviewed, and area for further improvement is discussed.rn
Road safety is a major preoccupation of the European Commission and the road transport industry and depends on numerous significant factors. In order to improve road safety and to plan effective safety improvement actions for truck transport, we must first identify the problems to be addressed, i.e. what are the main causes of truck accidents. The ETAC project, initiated by the European Commission and the IRU, was launched in order to set up a heavy goods vehicle accident causation study across European countries to identify future actions which could contribute to the improvement of road safety. The results will be based on a detailed analysis of truck accident data collected in seven European countries according to a common methodology which has been elaborated through numerous national and European projects. This paper describes the common methodology used to collect the information on the scene of the accident and to analyse the data so that the reconstruction of the crash events may be carried out. CEESAR proposes a methodology using its experience gained from over 10 years of accident data collection. This methodology is based on an in-depth investigation of the parameters involved in-an accident and linked to the driver, the vehicle, the road and their environment. In-depth investigation requires accident investigator presence on the scene of the accident in order to collect volatile information such as marks on the road, weather conditions, visibility, state and equipment of the vehicle, driver interview. Later, passive and active information is gathered, either at the hospital for the driver, at the garage for the vehicle or on the spot for the road geometry. A reconstruction carried out with the help of specific software and the analysis of the data collected and calculated enables the identification of the main causes of the accident and the future actions to plan in order to improve road safety as regards truck traffic.
Motorcycle riders are one of the most vulnerable road users. Annually, on estimate 6000 people are killed in motorcycle accidents in the former 15 EU countries. The objective of this research was to investigate and analyze the main aspects and causes of this vulnerability and the accidents in general. For this aim around 70 accidents in The Netherlands were investigated in the framework of an international research program (MAIDS). Also a control group of motorcycles with riders was investigated so that exposure could be taken into account. An important result is that human failure is in 82% of the cases the main cause of the accident, in 52% this is due the other vehicle driver. Perception and decision failures are the most common failures. The most injuries are caused by the environment but they are typically only less severe (AIS1). Injuries caused by the car (front and side) are typically severe injuries (AIS4+). Previous convictions of the MC rider seem to be related to the chance to get involved in an accident. It was shown that the Dutch and the total MAIDS accident sample are comparable.
Portugal has the highest rate of road fatalities in Europe (2002 and for Eur-15 - CARE database). For this highest rate, the accidents involving pedestrians and motorcycle occupants have a higher contribution than the European average. In the last years, especially accidents involving motorcycles have been investigated and currently two different projects are being carried out, one related with motorcycles accidents and the other with pedestrian accidents. In these projects, countermeasures among others to reduce the fatalities between these two types of road users are being studied. These accidents are investigated with the commercial accident reconstruction software PCCRASH but also new methodologies based on multibody dynamics are in development in order to more accurately study these two types of accidents. In this paper, the methodologies in use for accident reconstruction and new methodologies in development are presented. Speeding his found to be one of the major causes of road fatalities for pedestrians and motorcycle occupants. In the case of motorcycle accidents, these involve mainly young drivers. Aspects as social behavior are also important to understand the causes of some of these accidents. Some examples of accidents occurring in Portugal, involving especially motorcycles and pedestrians are presented and discussed.
Data concerning accidents involving personal injury which have been collected in the context of in-depth investigations on scene in the Hannover area since 1973 and in the Dresden area since 1999 represent an important basis for empirical traffic safety research. At national and international level various analyses and comparisons are carried out on the basis of "in-depth data" from the above mentioned investigations. In-depth data play a decisive role e.g. within the validation of EuroNCAP results on secondary safety (crashworthiness) of individual passenger car models. Thus, statistically sound methods of data analysis and population parameter estimation are of high importance. Since the 1st of August 1984 the "in-depth investigations on scene" in the Hannover area have been carried out according to a sampling plan developed by HAUTZINGER in the context of a research project on behalf of BASt. In the meantime a second region of in-depth investigation on scene was added with surveys in Dresden and the surrounding area. Internationally, the acronym GIDAS (German In-Depth Accident Study) is commonly used for the two above mentioned surveys. The objective of a current research project (topic of this contribution) is, among other things, to examine and adjust the previous weighting and expansion method for the two regional accident investigations to the current general conditions.
Due to recent years accident avoidance and crashworthiness on Austrian roads were mostly developed on national statistics and on-scene investigation respectively. Identification and elimination of black spots were main targets. In fact many fatal accidents do not occur on such black spots and black-spot investigation has reached a limit. New methods are required and therefore the Austrian Road Safety Programme was introduced by the Austrian Ministry of Transport, Innovation and Technology. The primary objective is the reduction of fatalities and severe injuries. Graz University of Technology initiated the project ZEDATU (Zentrale Datenbank tödlicher Unfälle) with the goal to identify similarities in different accident configurations. A matrix was established which categorizes risk and key factors of participating parties. Based on this information countermeasures were worked out.
NASS: the glass is half full
(2007)
The National Accident Sampling System (NASS) was born in the late 1970s. It was based on a substantial amount of experience and analysis of what was needed in the United States to understand the safety challenges of our highways. This work also showed how to collect high quality and useful crash data efficiently. Unfortunately, when Ronald Reagan - a President who believed in limited government - was elected, any hope of full funding for NASS was lost. The concept of 75 teams investigating about 18,000 serious crashes in detail annually was never realized. The system got up to 50 teams, then was cut to 36, and finally to 24 teams investigating fewer than a quarter of the originally anticipated number of crashes per year. Despite this, the NASS investigations provide a rich source of data, collected according to a sophisticated statistical sampling system to facilitate detailed national estimates of road casualties on our nation- highways and their causes. In addition, changes have been made in recent years to increase the number of more serious crashes of recent model vehicles to make the results more relevant to improving vehicle safety. A recent, detailed examination of hundreds of rollovers has provided considerable insight into rollover casualties and into what can be done to reduce them. Some of these results will be presented that show the value of the NASS system. Our experience with NASS and the Fatal Accident Reporting System (FARS) suggests a number of improvements that could be made in the United States" crash data systems. It also provides justification for a doubling or tripling of our national expenditures on crash data collection.
In recent years the boundaries between active and passive safety blurred more and more. Passive safety in the traditional term includes all safety aspects to prevent occupants to be injured or at least injury severity should be reduced. Passive Safety starts with the collision (first vehicle contact) and ends with rescue (open vehicle doors). Within this phase the occupant has to be protected by the passenger compartment whereby no intrusion should occur. Active safety on the other side was developed to interact prior to the collision whereby the goal is to prevent accidents. The extensive interaction between active and passive safety led to the terminologies "Primary" and "Secondary" safety whereas the expression Integrated Safety Concept was generated. Within this study the most well documented single vehicle accidents with cars not equipped with ESP were identified from the PENDANT database and reconstructed. Additional cases were found in the database ZEDATU of TU Graz. In comparison each case was simulated with the assumption that the cars were equipped with ESP. The differences regarding accident avoidance or crash severity as well as reduction of injury risk were analysed.
The accident research project in Dresden was founded in July 1999. To date over 6.000 crash investigations have been undertaken. About 10.000 vehicles have been documented and over 13.000 participants have been debriefed. But there is much more than this scientific success. Because of the interdisciplinary character between the medical and technical focus, the project affords an important contribution for the education of the involved students. Over 200 students of different fields of study have got experiences not only for the occupational career. This lecture describes the additional effects of the accident research project regarding the education of the students, the capacity for teamwork and learning about dealing with accident casualties.
Um die zukünftige Entwicklung von Fahrzeugen mit alternativem Antrieb, z.B. Hybrid-, Elektro- und Brennstoffzellenfahrzeuge, in Deutschland verfolgen und analysieren zu können, hatte die Bundesanstalt für Straßenwesen (BASt) im Jahr 2010 die Einrichtung einer langfristigen Beobachtung des Fahrzeugmarktes und einer konzentrierten Beobachtung des Unfallgeschehens initiiert, mit den Zielen, die tatsächliche Umsetzung des technologischen Fortschritts in marktgängige Produkte zu verfolgen, frühzeitig genaue Kenntnis über die sich der technologischen Entwicklung anschließenden tatsächlichen Marktentwicklung zu gewinnen, und mögliche Fehlentwicklungen - insbesondere mit Blick auf die Verkehrssicherheit zeitnah zu identifizieren. Auf Basis der bisherigen Marktentwicklung ist die Analyse des Unfallgeschehens naturgemäß noch wenig aussagekräftig. Die deutliche Zunahme der Unfallbeteiligung von Hybridfahrzeugen um 95% von 2007 bis 2010 wird durch einen Bestandsanstieg von 117% in diesem Zeitraum relativiert und deutet daher eher auf ein unterdurchschnittliches Risiko, wobei keine Informationen über die durchschnittliche Fahrleistung in die Interpretationen einbezogen werden können. Der relativ hohe Anteil von Innerortsunfällen ist vor allem vor dem Hintergrund der Nutzung der Fahrzeuge zu interpretieren.
Ziel des Forschungsprojektes war die quantitative Vorausschätzung des Straßenverkehrsunfallgeschehens der Jahre 2015 und 2020 in Deutschland mit Hilfe eines eigens entwickelten Prognoseverfahrens. Das Verfahren sollte eine größtmögliche Differenzierung des zukünftigen Unfallgeschehens nach Schweregrad, Art der Verkehrsbeteiligung und Alter der Verkehrsteilnehmer erlauben. Das Modell sollte grundsätzlich in der Lage sein, Ursache - Wirkungszusammenhänge differenzierter als in herkömmlichen Ansätzen der Zeitreihenanalyse und deren Trendfortschreibung abzubilden. Den Prognosehorizont bilden die Jahre 2015 und 2020. Im Rahmen des vorliegenden Projekts erfolgte für Deutschland erstmals eine Prognose der Unfall- und Verunglücktenzahlen über eine Risikoanalyse maßgebender Unfallkonstellationen. Dabei wurde sowohl nach Ortslagen, Unfallbeteiligten und Alter der Verkehrsteilnehmer unterschieden. Mit Hilfe des vorgestellten Prognosemodells lässt sich der künftige Grad der Straßenverkehrssicherheit differenziert beurteilen. Auswirkungen der sich ändernden Rahmenbedingungen auf das Unfallgeschehen werden sowohl auf der Ebene der Unfallentstehung als auch auf der Ebene der Unfallschwere berücksichtigt. Dabei kann insbesondere der Einfluss aus Demografie und sich verändernder Zugangsvoraussetzungen zu Verkehrsmitteln auf das Unfallgeschehen abgebildet werden. Der vorgestellte erste Entwicklungsstand des Modells bietet daher bereits sehr gute Möglichkeiten, Wirkungsanalysen bei veränderten Einflussgrößen durchzuführen. Das Unfallprognosemodell wurde modular aufgebaut. Dadurch konnte eine logische und hierarchische Modellstruktur realisiert werden. In der Folge werden die einzelnen Module im Gesamtmodell sequentiell durchlaufen, sind in sich geschlossen und folgen eigenen Berechnungsvorschriften. Eine Umsetzung des Modells erfolgte auf Basis verknüpfter Excel-Dateien mit Hilfe von VBA-Makros. Hierbei wurde auf eine stark getrennte Struktur der einzelnen Berechnungsschritte Wert gelegt, um die einzelnen Dateien übersichtlich und nachvollziehbar zu gestalten. Gleichzeitig erfüllt das Modell die Forderung einer größtmöglichen Variabilität. So können sowohl geänderte Eingangsdaten zugrundegelegt werden als auch die Auswahl der differenzierten Trendberechnung beliebig getroffen werden. Im Ergebnis ist auf Basis der getroffenen Annahmen, der historischen Entwicklung und der konstellationenfeinen Fortschreibung der Risikofaktoren ein deutlicher Rückgang der Unfall- und Verunglücktenzahlen in Deutschland für den Prognosezeitraum gegenüber 2006 zu erwarten. Bei den Unfällen mit Personenschaden ist bis 2020 mit einer Abnahme um nahezu 30 % zu rechnen, bei den Verunglückten kann von einer Reduzierung um 13 % ausgegangen werden. Die Zahl getöteter Personen sinkt dabei voraussichtlich von ca. 5.100 Personen (2006) auf 2.700 Personen (2020). In Bezug auf die Schwerverletzten ist im gleichen Zeitraum mit einem Rückgang um ca. 33.000 Personen zu rechnen (2006: 74.500 Personen). Ebenso sinkt gegenüber dem Analysejahr 2006 die Anzahl Leichtverletzter um etwa 6 % auf etwa 326.000 Personen. Die Rückgänge der Verunglücktenzahlen liegen zwischen 2006 und 2015 sowie zwischen 2015 und 2020 zahlenmäßig auf einem vergleichbaren Niveau (55.000 bzw. 58.000 V). Somit wird etwa die Hälfte der Gesamtrückgänge im Prognosezeitraum allein in den letzten fünf Jahren der insgesamt fünfzehnjährigen Zeitspanne erreicht.
Die Bundesanstalt für Straßenwesen ermittelt jährlich auf der Grundlage eines Berechnungsmodells die Kosten, die durch Straßenverkehrsunfälle entstehen. Um den Veränderungen der wirtschaftlichen Eingangsparameter und der Entwicklung des Wissensstands zur Bewertung von Unfallschäden gerecht zu werden, wurde dieses Modell im Rahmen eines Forschungsprojektes in Bezug auf das Jahr 2005 überarbeitet und fortgeschrieben. Demnach ergeben sich für das Jahr 2008 volkswirtschaftliche Kosten in Höhe von 31 Mrd. € durch Personen- und Sachschäden infolge von Straßenverkehrsunfällen in Deutschland. Gegenüber dem Vorjahr sind die Unfallkosten damit um ca. 3 Prozent (= 970 Mio. €) gesunken.
Zwischen 1998 und 2008 hat die Zahl der bei Unfällen mit Personenschäden Beteiligten unter Alkoholeinfluss um rund 32 Prozent abgenommen. Im gleichen Umfang hat sich auch die Anzahl der Alkoholunfälle mit Personenschaden reduziert. Nach wie vor am häufigsten tritt bei Pkw-Fahrern Alkohol als Unfallursache in der Altersgruppe der 21- bis 24-jährigen Männer auf, mit Abstand gefolgt von den Gruppen der männlichen 18- bis 20-jährigen Fahrer und der 25- bis 34-jährigen. Der Anteil der an Unfällen mit Personenschaden beteiligten alkoholisierten männlichen Pkw-Fahrern fällt gut sechsmal so hoch aus wie der der weiblichen. Alkoholunfälle mit Personenschaden ereignen sich am häufigsten in den Abendstunden und insbesondere in den Wochenendnächten. Unter den Verursachern dieser nächtlichen Freizeitunfälle sind junge Erwachsene überproportional vertreten. Die Gefährdung der Verkehrssicherheit durch drogenbeeinflusste Kraftfahrer hat in den letzten Jahren an Bedeutung gewonnen. Daher wurden Ausbildungsmaßnahmen für Polizeibeamte zur besseren Erkennung einer Drogenwirkung auf den Kraftfahrer begonnen. In den Jahren 1998 und 1999 traten darüber hinaus verschiedene gesetzliche Neuregelungen in Kraft. Vor diesem Hintergrund ist die Dokumentation der Unfallursache "andere berauschende Mittel" mit Ausnahme der Jahre 2005 und 2006 kontinuierlich angestiegen. Die zukünftige Umsetzung wissenschaftlicher Erkenntnisse zur Anwendung von Schnelltestverfahren lassen im Bereich der Verdachtsgewinnung einer Drogenwirkung auf den Kraftfahrer auf weitere Verbesserungen hoffen, so dass die Entdeckungswahrscheinlichkeit einer Drogenfahrt weiter ansteigen wird.