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A Functional Language for Logarithmic Space (2004)  (Make Corrections)  
Peter Møller Neergaard



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Abstract: More than being just a tool for expressing algorithms, a welldesigned programming language allows the user to express her ideas e#- ciently. The design choices however e#ect the e#ciency of the algorithms written in the languages. It is therefore important to understand how such choices e#ect the expressibility of programming languages. (Update)

Active bibliography (related documents):   More   All
2.1:   A Functional Language for Logarithmic Space - Neergaard (2004)   (Correct)
0.9:   BC_ε: Recursion-Theoretic Characterization of LOGSPACE - Neergaard (2004)   (Correct)
0.5:   A Bargain for Intersection Types: A Simple Strong Normalization.. - Neergaard   (Correct)

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0.6:   Conservation and Uniform Normalization in Lambda Calculi.. - Neergaard, Sørensen (2002)   (Correct)
0.5:   How Light Is Safe Recursion? Compositional Translations.. - Neergaard, Mairson (2001)   (Correct)
0.3:   Types, Potency, and Idempotency: Why Nonlinearity and.. - Neergaard, Mairson (2004)   (Correct)

BibTeX entry:   (Update)

@misc{ neergaard-functional,
  author = "Peter Møller Neergaard",
  title = "A Functional Language for Logarithmic Space",
  url = "citeseer.ist.psu.edu/725685.html" }
Citations (may not include all citations):
1074   The Definition of Standard ML (context) - Milner, Tofte et al. - 1997  ACM
729   The Lambda Calculus: Its Syntax and Semantics (context) - Barendregt - 1984
362   ML for the Working Programmer (context) - Paulson - 1996  ACM
211   Languages that capture complexity classes - Immerman - 1987  ACM   DBLP
96   A new recursion-theoretic characterization of the polytime f.. (context) - Bellantoni, Cook - 1992
58   Linear type and non-size-increasing polynomial time computat.. - Hofmann - 1999
26   Predicative Recursion and Computational Complexity - Bellantoni - 1992  ACM
21   Light linear logic - Girard - 1998  ACM   DBLP
16   Relating typability and expressibility in finite-rank inters.. (context) - Kfoury, Mairson et al. - 1999
12   Characterizing complexity classes by higher type primitive r.. (context) - Goerdt - 1992  ACM   DBLP
4   Pure versus impure lisp - Pippenger - 1996  ACM   DBLP
3   New recursion-theoretic characterizations of well-knwon comp.. (context) - Kristiansen
3   Computatational Complexity (context) - Papadimitriou - 1994
3   An example SML implemenation of a logspace linear bc evaluat.. (context) - Neergaard - 2003
3   The expressive power of higher-order types (context) - Jones - 2001
2   and impotency: Why nonlinearity and amnesia make a type syst.. (context) - Neergaard, Mairson et al. - 2004
2   Complexity Aspects of Programming Language Design--- From Lo.. (context) - Neergaard - 2004
2   Can safe recursion be interpreted in light logic (context) - Murawski, Ong - 2000
1   Two simple intrinsic characterizations of main complexity cl.. - Voda

Documents on the same site (http://www.church-project.org/reports/electronic/):   More
Types, Potency, and Idempotency: Why Nonlinearity and.. - Neergaard, Mairson (2004)   (Correct)
Principality and Type Inference for Intersection Types Using.. - Kfoury, Wells (2003)   (Correct)
Meta-Programming through Typeful Code Representation - Chen, Xi (2003)   (Correct)

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