text
stringlengths 0
1.59k
|
---|
The 1815 Philadelphia train accident occurred on 31 July 1815, in Philadelphia, County Durham, England, when an early experimental railway locomotive, Brunton's Mechanical Traveller, suffered a boiler explosion. This engine, also known as the Steam Horse, ran on four wheels but was pushed by mechanical feet. This was both the first recorded boiler explosion and the first railway accident causing major loss of life with at least 13 people killed .
|
The accident is not included in many texts because it was on an industrial waggonway or plateway, rather than a public railway. Nevertheless, it predated William Huskisson's fatal accident at Parkside by 15 years, and the death toll was not exceeded by any railway accident until 1842 worldwide , and 1861 in the UK . It also killed more people than any other UK railway boiler explosion of all time, though 26 were killed in a 1912 boiler explosion in San Antonio, USA.
|
Most boiler explosions caused severe mechanical damage but often only the locomotive crew suffered physically; however, Brunton's locomotive was surrounded at the time by a crowd of curious sightseers, who formed the majority of the victims. The first high-pressure steam locomotive, Trevithick's Penydarren engine, had only appeared 11 years earlier in 1804, and engineering understanding of the forces and safety risks involved was still primitive.
|
The Eschede derailment occurred on 3 June 1998, near the village of Eschede in the Celle district of Lower Saxony, Germany, when a high-speed train derailed and crashed into a road bridge with 101 people killed and 88 injured. It remains the worst rail disaster in the history of the Federal Republic of Germany and the worst high-speed-rail disaster worldwide. The cause was a single fatigue crack in one wheel that, when it failed, resulted in a part of the wheel becoming caught in a set of points, effectively changing the setting of the points whilst the train was passing over it. This led to the train's carriages going down two separate tracks, causing the train to derail and crash into the pillars of a concrete road bridge, which then collapsed and crushed two coaches. The remaining coaches and the rear power car crashed into the wreckage.
|
ICE 1 trainset 51 was travelling as ICE 884 "Wilhelm Conrad Röntgen" on the Munich to Hamburg route; the train was scheduled to stop at Augsburg, Nürnberg, Würzburg, Fulda, Kassel, Göttingen, and Hanover before reaching Hamburg. After stopping in Hanover at 10:30, the train continued its journey northwards. About 130 kilometres and forty minutes away from Hamburg: 0:05 and six kilometres south of central Eschede, near Celle, the steel tire on a wheel on the third axle of the first car, fatally weakened by metal fatigue, split and peeled away from the wheel, the momentum of which flattened it and catapulted it upwards, whereby it penetrated the floor of the car, where it then remained embedded.
|
The tyre embedded in the rail car was seen by Jörg Dittmann, one of the passengers in Coach 1. The tyre went through an armrest in his compartment, between where his wife and son sat. Dittmann took his wife and son out of the damaged coach and went to inform a conductor in the third coach. The conductor, who noticed vibrations in the train, told Dittmann that company policy required him to investigate the circumstances before pulling the emergency brake. The conductor took one minute to go to the site in Coach 1. According to Dittmann, the train had begun to sway from side to side by then. The conductor did not show a willingness to stop the train immediately at that point and wished to investigate the incident more thoroughly. Dittmann could not find an emergency brake in the corridor and had not noticed that there was an emergency brake handle in his own compartment. The crash occurred just when Dittmann was about to show the armrest puncture to the conductor.: 13:12
|
As the train passed over the first of two points, the embedded tyre slammed against the guide rail of the points, pulling it from the railway ties. This guide rail also penetrated the floor of the car, becoming embedded in the vehicle and lifting the bogie off the rails. At 10:59 local time , one of the now-derailed wheels struck the points lever of the second switch, changing its setting. The rear axles of car number 3 were switched onto a parallel track, and the entire car was thereby thrown sideways into the piers supporting a 300-tonne roadway overpass, destroying them.
|
Car number 4, likewise derailed by the violent deviation of car number 3 and still travelling at 200 kilometres per hour , passed intact under the bridge and rolled onto the embankment immediately behind it, striking several trees before coming to a stop. Two Deutsche Bahn railway workers who had been working near the bridge were killed instantly when the derailed car crushed them. The breaking of the car couplings caused the automatic emergency brakes to engage and the mostly undamaged first three cars came to a stop.
|
The front power car and coaches one and two cleared the bridge. Coach three hit the bridge, which began to collapse, but cleared the bridge. Coach four cleared the bridge, moved away from the track onto an embankment, and hit a group of trees before stopping. The bridge pieces crushed the rear half of coach five. The restaurant coach, six, was crushed to a 15-centimetre height. With the track now obstructed completely by the collapsed bridge, the remaining cars jackknifed into the rubble in a zig-zag pattern: Cars 7, the service car, the restaurant car, the three first-class cars numbered 10 to 12, and the rear power car all derailed and slammed into the pile.: 34:25 The resulting mess was likened to a partially collapsed folding ruler. An automobile was also found in the wreckage. It belonged to the two railway technicians and was probably parked on the bridge before the accident.: 36:20
|
Separated from the rest of the carriages, the detached front power car coasted for a further three kilometers until it came to a stop after passing Eschede railway station.
|
The crash produced a sound that witnesses later described as "startling", "horribly loud", and "like a plane crash". Nearby residents, alerted by the sound, were the first to arrive at the scene. Erika Karl, the first person to walk into the accident scene, photographed the accident site, which took place close to her home. Karl said that, upon hearing the noise, her husband believed initially that the accident was an aircraft accident. After the accident, eight of the ICE carriages occupied an area slightly longer than the length of a single carriage.: 34:20
|
At 11:02, the local police declared an emergency; at 11:07, as the magnitude of the disaster quickly became apparent, this was elevated to "major emergency"; and at 12:30 the Celle district government declared a "catastrophic emergency" . More than 1000 rescue workers from regional emergency services, fire departments, rescue services, the police and army were dispatched. Some 37 emergency physicians, who happened to be attending a professional conference in nearby Hanover, also provided assistance during the early hours of the rescue effort, as did units of the British Forces Germany.
|
While the driver and many passengers in the front part of the train survived with minor to moderate injuries, there were very few survivors in the rear carriages, which crashed into the concrete bridge pile at a speed of 200 km/h . Including the two railway workers who had been standing under the bridge, 101 people died. ICE 787 had passed under the bridge going in the opposite direction only two minutes earlier.
|
By 13:45 authorities gave emergency treatment to 87 people. 27 of the most severely injured passengers were airlifted to hospitals.
|
Remains of a VW Golf Variant, belonging to the two railway workers killed in the crash, were found beneath the debris of the crashed ICE. Media first speculated that the train had derailed after a collision with the car, a circumstance that caused a train to jackknife in the Ufton Nervet rail crash six years later; this theory was quickly dismissed, however, as the front power car did not receive any damage at all, having continued to coast down the track until it passed the next station.
|
The ICE 1 trains were originally equipped with single-cast wheelsets, known as Monobloc wheels. Once in service it soon became apparent that this design could, as a result of metal fatigue and out-of-round conditions, result in resonance and vibration at cruising speed. Passengers noticed this particularly in the restaurant car, where there were reports of loud vibrations in the dinnerware and of glasses "creeping" across tables.
|
Managers in the railway organisation had experienced these severe vibrations on a trip and asked to have the problem solved. In response engineers decided that to solve the problem, the suspension of ICE cars could be improved with the use of a rubber damping ring between the rail-contacting steel tire and the steel wheel body. A similar design had been employed successfully in trams around the world , at significantly lower speeds. This kind of wheel, dubbed a "wheel-tyre" design, consisted of a wheel body surrounded by a 20-millimetre thick rubber damper and then a relatively thin metal tyre. The new design was not tested at high speed in Germany before it was made operational, but was successful at resolving the issue of vibration at cruising speeds. Decade-long experience at high speed gathered by train manufacturers and railway companies in other European countries and Japan was not considered.
|
At the time, no facilities existed in Germany that could test the actual failure limit of the wheels, and so complete prototypes were never tested physically. The design and specification relied greatly on available materials data and theory. The very few laboratory and rail tests that were performed did not measure wheel behaviour with extended wear conditions or speeds greater than normal cruising. Nevertheless, over a period of years the wheels proved themselves apparently reliable and, until the accident, had not caused any major problems.
|
In July 1997, nearly one year before the disaster, Üstra, the company that operates Hanover's tram network, discovered fatigue cracks in dual block wheels on trams running at about 24 km/h . It began changing wheels before fatigue cracks could develop, much earlier than was legally required by the specification. Üstra reported its findings in a warning to all other users of wheels built with similar designs, including Deutsche Bahn, in late 1997. According to Üstra, Deutsche Bahn replied by stating that they had not noticed problems in their trains.: 39:38
|
The Fraunhofer Institute for Structural Durability and System Reliability in Darmstadt was charged with the task of determining the cause of the accident. It was revealed later that the institute had told the DB management as early as 1992 about its concerns about possible wheel-tyre failure.
|
It was soon apparent that dynamic repetitive forces had not been accounted for in the statistical failure modelling done during the design phase, and the resulting design lacked an adequate margin of safety. The following factors, overlooked during design, were noted:
|
Failing to stop the train resulted in a catastrophic series of events. Had the train been stopped immediately after the disintegration of the wheel, it is unlikely that the subsequent events would have occurred.
|
Valuable time was lost when the train manager refused to stop the train until he had investigated the problem himself, saying this was company policy. This decision was upheld in court, absolving the train manager of all charges. Given that he was a customer service employee and not a train maintainer or engineer, he had no more authority to make an engineering judgment about whether or not to stop the train than did any passenger.
|
About the time of the disaster, the technicians at Deutsche Bahn's maintenance facility in Munich used only standard flashlights for visual inspection of the tyres, instead of metal fatigue detection equipment. Previously, advanced testing machines had been used; however the equipment generated many false positive error messages, so it was considered unreliable and its use was discontinued. During the week prior to the Eschede disaster, three separate automated checks indicated that a wheel was defective. Investigators discovered, from a maintenance report generated by the train's on-board computer, that two months prior to the Eschede disaster, conductors and other train staff filed eight separate complaints about the noises and vibrations generated from the bogie with the defective wheel; the company did not replace the wheel. Deutsche Bahn said that its inspections were proper at the time and that the engineers could not have predicted the wheel fracture.
|
The design of the overbridge may have also contributed to the accident because it had two thin piers holding up the bridge on either side, instead of the spans going from solid abutments to solid abutments. The Granville rail disaster of 1977 had a similar weakness in its bridge. The bridge built after the disaster is a cantilevered design and does not have this vulnerability.
|
Another contributing factor to the casualty rate was the use of welds in the carriage bodies that "unzipped" during the crash.
|
In summary, though the disintegrated resilient wheel was the root cause of the accident, the damage was as severe as it was due to a number of factors, including the proximity to the bridge and flipping point, as well as the position of the wheel on a car near the front of the train, leading to a large number of cars derailing.
|
Immediately after the accident, Deutsche Bahn paid 30,000 Deutsche Marks for each fatality to the applicable families. At a later time Deutsche Bahn settled with some victims. Deutsche Bahn stated that it paid an equivalent of more than 30 million U.S. dollars to the families of victims and survivors.
|
In August 2002, two Deutsche Bahn officials and one engineer were charged with manslaughter. The trial lasted 53 days with expert witnesses from around the world testifying.
|
The case ended in a plea bargain in April 2003. According to the German code of criminal procedure, if the defendant has not been found to bear substantial guilt, and if the state attorney and the defendant agree, the defendant may pay a fine and the criminal proceedings are dismissed with prejudice and without a verdict. Each engineer paid 10,000 euros .
|
Within weeks, all wheels of similar design were replaced with monobloc wheels. The entire German railway network was checked for similar arrangements of switches close to possible obstacles.
|
Rescue workers at the crash site experienced considerable difficulties in cutting their way through the train to gain access to the victims. Both the aluminium framework and the pressure-proof windows offered unexpected resistance to rescue equipment. As a result, all trains were refitted with windows that have breaking seams.
|
Udo Bauch, a survivor who became disabled by the accident, built his own memorial with his own money. Bauch said that the chapel received 5,000 to 6,000 visitors per year. One year after Bauch's memorial was built, an official memorial, funded partly by Deutsche Bahn, was established.
|
The official memorial was opened on 11 May 2001 in the presence of 400 relatives as well as many dignitaries, rescuers and citizens from Eschede. The memorial consists of 101 wild cherry trees each representing one fatality. The trees have been planted along the rails near the bridge and with the switch in front. From the field, a staircase leads up to the street and a gate; on the other side of the street a number of stairs lead further up to nowhere. There is an inscription on the side of the stone gate and an inscription on a memorial wall that also lists the names of the fatalities placed at the centre of the trees.
|
The Eschede derailment, as well as the investigation into the incident, was covered as the fifth episode of the first season of the National Geographic documentary series Seconds from Disaster, entitled "Derailment at Eschede" which was filmed on the Ecclesbourne Valley Railway in Derbyshire, UK.
|
One hundred years before, on 14 August 1897, a fatal train accident occurred at Eschede; the express train from Frankfurt to Hamburg derailed causing three fatalities and nine severe injuries.
|
Coordinates: .mw-parser-output .geo-default,.mw-parser-output .geo-dms,.mw-parser-output .geo-dec{display:inline}.mw-parser-output .geo-nondefault,.mw-parser-output .geo-multi-punct{display:none}.mw-parser-output .longitude,.mw-parser-output .latitude{white-space:nowrap}52°44′04″N 010°13′13″E / 52.73444°N 10.22028°E / 52.73444; 10.22028
|
The Arzamas explosion, also known as the Arzamas train disaster, was a railway accident that occurred on June 4, 1988 in Arzamas, Gorky Oblast, Soviet Union, when an explosion at a railway crossing killed 91 people and injured 1,500.
|
A freight train featuring three goods wagons carrying 118 tons of explosives from Dzerzhinsk to the Kazakh SSR exploded at a railway crossing near the Arzamas-1 train station when hexogen included in the load detonated for unknown reasons, also detonating the other explosives stored in the wagons. The explosion also caused major damage to Arzamas, creating a 26 meter deep crater , destroying or damaging 151 buildings including two hospitals, 49 kindergartens, 14 schools and 69 stores, and leaving around 823 families homeless. It destroyed 250 meters of railway track, an electrical substation, some power lines, and damaged the gas pipeline and the railway station.
|
The officially accepted cause of the explosion is considered to be violation of the rules of loading and transport of explosives. Alternative theories by some, including Governor of Nizhny Novgorod Oblast Gennady Khodyrev, have believed the explosion was planned as a terrorist act or as the actions of foreign special services with the purpose of forcing instability in the Soviet Union. The Arzamas train disaster occurred exactly a year before the Ufa train disaster, one of the deadliest railway accidents in Soviet and Russian history.
|
Coordinates: .mw-parser-output .geo-default,.mw-parser-output .geo-dms,.mw-parser-output .geo-dec{display:inline}.mw-parser-output .geo-nondefault,.mw-parser-output .geo-multi-punct{display:none}.mw-parser-output .longitude,.mw-parser-output .latitude{white-space:nowrap}55°24′43″N 43°47′14″E / 55.41194°N 43.78722°E / 55.41194; 43.78722
|
On 10 December 2016, a freight train derailed, exploded and caught fire in the village of Hitrino in Shumen Province, Bulgaria, killing at least seven people and injuring 29 others.
|
At 05:37 local time on 10 December 2016, a Bulmarket freight train travelling from Burgas to Ruse derailed in Hitrino, Shumen Province, Bulgaria. The train has changed direction of travel in Karnobat and Sindel; has passed through Aytos, Velichkovo, Dalgopol, Provadiya, Kaspichan, Pliska, Velino . Upon entering the area of the railway station cunningly the freight private train, according to the order of the on-duty railway traffic manager, was diverted to a side track - presumably in order to free the main track which had to be temporarily used to pass its oncoming moving train coming from the railway station of Samuel . Kaspichan-Samuel-Ruse railway line is a single . Was to pass at a speed of up to 40 km/h through the diverting element of the railway arrow,actually passing at 78 km/h .The company specialises in transport of fuels over rail and road. Two of the waggons, which were carrying propane-butane and propylene, struck a power line pole, exploded and caught fire, engulfing at least fifty buildings, one of which collapsed, trapping several children. The three train drivers survived the accident. Seven people were killed and 29 injured. An evacuation of the village was ordered as 150 firefighters fought the blaze; it was extinguished by midday. The injured were taken to hospitals in Shumen and Varna; some of them had sustained burns to 90% of their bodies.
|
It was reported that sparks had been seen coming from the locomotive of the train immediately before the accident, possibly indicative of heavy braking.
|
The incident occurred on the oldest railway line in Bulgaria, connecting the country's main riverine port on the Danube in the city of Ruse and the main port on the Black Sea in Varna. The line was built during Ottoman rule by British private investors in the 1860s. The railway station in Hitrino was also the site of the first railway accident in Bulgaria in 1866.
|
The train operator Bulmarket Rail Cargo was founded in 2004 and in the same year acquired a license for railway operations. It operates second-hand Danish and British electric locomotives like those involved in the incident , as its mainline motive rolling stock, as well as diesel-hydraulic locomotives for shunting duties. Bulmarket DM, the mother corporation of Bulmarket Rail Cargo, has its headquarters and main base of operations, with its own railway yard, Bulmarket Port and fuel storage facilities, in the city of Ruse.
|
Bulgaria's Chief Prosecutor opened an investigation into the accident. The owner of Bulmarket DM, Stanko Stankov, expressed his intention to involve an international team of railway incident experts from France, Germany and the Czech Republic to execute an independent investigation into the case. This was rebutted by the Attorney General's Office; it issued a statement that according to Bulgarian law such an investigation has absolutely no legal basis and justification, because the Attorney General's Office and its special division for investigation of severe crimes and incidents — the National Inquiry Service — are the only legal bodies authorized by the country's laws to execute such investigations. On that basis, the police authorities guarding the perimeter denied access to the crash site to technical experts involved by the train operator. Residents were not allowed into their homes as a state of emergency was declared, but volunteers were allowed to be in Hitrino. Bullmarket DM also had to remove cisterns within 15 days.
|
According to the State Agency for National Security the probable trigger for the incident was a railroad switch that had not been properly secured.
|
The investigators from the National Inquiry Service of the Attorney General's Office found that upon derailment at the railroad switch a crash between the fifth and sixth tank wagons led to the towing hook of one of them causing a rupture in the lower frontal part of the gas tank of the other. The discharged gas fumes from the liquid gas reached a bakery located in immediate proximity to the railway station, and its furnaces ignited them, causing the violent explosion. According to ammunition experts, the chain of events led to an equivalent of an oversized thermobaric weapon with blasting energy four to five times greater than the TNT-equivalent.
|
Bulgarian Prime Minister Boyko Borisov visited the scene. He called for people to donate blood as there was a shortage in the local hospitals. Local response alleviated the shortages. Bulgarian Transport Minister Ivaylo Moskovski also visited the site, along with top rail officials. A national day of mourning was declared for 12 December 2016.
|
Subsets and Splits
No community queries yet
The top public SQL queries from the community will appear here once available.