2008
DOI: 10.1063/1.2973048
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Limit curve theorems in Lorentzian geometry

Abstract: The subject of limit curve theorems in Lorentzian geometry is reviewed. A general limit curve theorem is formulated which includes the case of converging curves with endpoints and the case in which the limit points assigned since the beginning are one, two or at most denumerable. Some applications are considered. It is proved that in chronological spacetimes, strong causality is either everywhere verified or everywhere violated on maximizing lightlike segments with open domain. As a consequence, if in a chrono… Show more

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Cited by 59 publications
(115 citation statements)
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“…The next result joins two theorems, one by Kriele [14, Theorem 4] who improved previous results by Tipler [29] and the other by the author [15].…”
Section: The Non-chronological Casementioning
confidence: 74%
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“…The next result joins two theorems, one by Kriele [14, Theorem 4] who improved previous results by Tipler [29] and the other by the author [15].…”
Section: The Non-chronological Casementioning
confidence: 74%
“…For the proof that the setsĊ α are disjoint I refer the reader to [15]. Instead, I elaborate on Kriele's argument by giving a slightly different proof that the boundaries B αk are non-compact.…”
Section: The Non-chronological Casementioning
confidence: 99%
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“…There is a sequence of closed timelike curves that accomulates on r. Each element of the sequence can be considered as an inextendible curve, it suffice to choose the parametrization so as to cover the image of the curve several times. By the limit curve theorem [18,19] there is an inextendible causal curve which passes through r and stays in [b]. It is easy to prove that either the half-curve in the future of r is achronal and contained in ∂[b] or so is the half-curve in its past.…”
Section: Kriele's Theoremmentioning
confidence: 99%