In this task, you're given a question, along with three passages, 1, 2, and 3. Your job is to determine which passage can be used to answer the question by searching for further information using terms from the passage. Indicate your choice as 1, 2, or 3.
Q: Question: How many days did the battle last where James served against the Duke of Monmouth? Passage 1:The son of Thomas Butler, 6th Earl of Ossory and his wife Emilia (née van Nassau-Beverweerd), and grandson of James Butler, 1st Duke of Ormonde, Butler was born in Dublin and was educated in France and afterwards at Christ Church, Oxford. On the death of his father on 30 July 1680 he became Baron Butler in the English peerage and Earl of Ossory by courtesy. He obtained command of a cavalry regiment in Ireland in 1683, and having received an appointment at court on the accession of James II, he served against the Duke of Monmouth at the Battle of Sedgemoor in July 1685. Having succeeded his grandfather as Duke of Ormonde on 21 July 1688, he was appointed a Knight of the Order of the Garter on 28 September 1688. In 1688 he also became Chancellor of Trinity College, Dublin and Chancellor of the University of Oxford.
 Passage 2:Snyder was born in Kankakee, Illinois, the daughter of Idelle (Bonham) and John Marshall Snyder, Sr., a director of research. She opened in Jules Feiffer's comedy, Knock Knock, and went on to win the Clarence Derwent Award for the "most promising female [actor] on the metropolitan scene" for the 1975–76 season. She won Best Actress in the 1977–78 season in the annual awards given by the Outer Critics Circle for her role in Fifth of July. From 1978–1983, she was a regular on the ABC soap opera, One Life to Live, playing a hooker with a heart of gold, Katrina Karr. She appeared in the Lanford Wilson play, Angels Fall, in 1982, which was nominated for a Tony Award, and in Wilson's Book of Days at the Signature Theater in 2002.
 Passage 3:In March 1996, a group of scientists at Lawrence Livermore National Laboratory reported that they had serendipitously produced the first identifiably metallic hydrogen for about a microsecond at temperatures of thousands of kelvins, pressures of over , and densities of approximately . The team did not expect to produce metallic hydrogen, as it was not using solid hydrogen, thought to be necessary, and was working at temperatures above those specified by metallization theory. Previous studies in which solid hydrogen was compressed inside diamond anvils to pressures of up to , did not confirm detectable metallization. The team had sought simply to measure the less extreme electrical conductivity changes they expected. The researchers used a 1960s-era light-gas gun, originally employed in guided missile studies, to shoot an impactor plate into a sealed container containing a half-millimeter thick sample of liquid hydrogen. The liquid hydrogen was in contact with wires leading to a device measuring electrical resistance. The scientists found that, as pressure rose to , the electronic energy band gap, a measure of electrical resistance, fell to almost zero. The band-gap of hydrogen in its uncompressed state is about , making it an insulator but, as the pressure increases significantly, the band-gap gradually fell to . Because the thermal energy of the fluid (the temperature became about due to compression of the sample) was above , the hydrogen might be considered metallic.

A:
1