Abstract
I overview the work of the Tbilisi school on intuitionistic modal logics of well-founded/scattered structures and its connections with contemporary Theoretical Computer Science. Fixed-point theorems and their consequences are of particular interest.
To the memory of Leo Esakia and Dito Pataraia
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Notes
- 1.
- 2.
Speaking of [57], footnote 4 provides an argument that the plural form intended by Grothendieck was toposes rather than topoi. I stick to the same convention, also because—as a quick Google search shows—the form toposes is used mostly by mathematicians, whereas topoi seems prevalent for unrelated notions in the humanities. Besides, this was the form used by Leo, Mamuka and Dito.
- 3.
Note that toposes very rarely happen to mimic sets in having enough global elements to determine all subobjects; such special toposes are called well-pointed.
- 4.
Reader should be warned that in most of categorical literature, presheaves are assumed to be contravariant, but see, e.g., [39] for an example of the covariant convention.
- 5.
The corresponding theorem in [30] contained also an additional statement about density of the support of the fixed-point subobject, but this does not seem essential for us here.
References
Abadi M (2007) Access control in a core calculus of dependency. Electr. Notes Theor. Comput. Sci. 172:5–31
Aczel P (2001) The Russell-Prawitz modality. Math Struct Comput Sci 11(4):541–554
Adámek J, Milius S, Moss L, Sousa L (2012) Well-pointed coalgebras (extended abstract). In: Proceedings of 15th international conference on foundations of software science and computation structures (FoSSaCS’12). Lecture notes in computer science (ARCoSS), vol 7213, pp 89–103
Alberucci L, Facchini A (2009) On modal \(\mu \)-calculus and Gödel-Löb logic. Studia Logica 91(2):145–169
Alechina N, Mendler M, de Paiva V, Ritter E (2001) Categorical and Kripke semantics for constructive S4 modal logic. In: Fribourg L (ed) CSL. Lecture notes in computer science, vol 2142. Springer, Berlin, pp 292–307
Amerbauer M (1996) Cut-free tableau calculi for some propositional normal modal logics. Studia Logica 57(2/3): 359–372
Appel A, Melliès P, Richards C, Vouillon J (2007) A very modal model of a modern, major, general type system. In: Hofmann M, Felleisen M (eds) POPL. ACM, pp 109–122
Atkey R, McBride C (2013) Productive coprogramming with guarded recursion. In: ICFP 2013 Proceedings, pp 197–208
Bellin G, de Paiva V, Ritter E (2001) Extended Curry-Howard correspondence for a basic constructive modal logic. In: Proceedings of methods for modalities
Benton P, Bierman G, de Paiva V (1998) Computational types from a logical perspective. J Funct Program 8(2):177–193
Benton N, Tabareau N (2009) Compiling functional types to relational specifications for low level imperative code. In: Kennedy A, Ahmed A (eds) TLDI. ACM, pp 3–14
Bezhanishvili G, Jansana R (2013) Esakia style duality for implicative semilattices. Appl Categorical Struct 21:181–208
Bierman G, de Paiva V (2000) On an intuitionistic modal logic. Studia Logica 65(3):383–416
Birkedal L, Møgelberg R, Schwinghammer J, Støvring K (2012) First steps in synthetic guarded domain theory: step-indexing in the topos of trees. Logical Meth Comput Sci 8:1–45
Birkedal L, Møgelberg R (2013) Intensional type theory with guarded recursive types qua fixed points on universes. In: Proceedings of LICS (2013)
Blackburn P, de Rijke M, Venema Y (2001) Modal logic. Cambridge University Press, Cambridge
Blok W, Pigozzi D (1989) Algebraizable logics. Memoirs AMS 77:396
Boolos G (1993) The logic of provability. Cambridge University Press, Cambridge
Boolos G, Sambin G (1991) Provability: the emergence of a mathematical modality. Studia Logica 50:1–23
Boz̆ić M, Dos̆en K (1984) Models for normal intuitionistic modal logics. Studia Logica 43(3):217–245
Burris S, Sankappanavar H (1981) A course in universal algebra. Graduate texts in mathematics. Springer, New York
Celani S, Jansana R (1999) Priestley duality, a Sahlqvist theorem and a Goldblatt-Thomason theorem for positive modal logic. Logic J IGPL 7(6):683–715
Chagrov A, Zakharyaschev M (1997) Modal logic. No. 35 in Oxford logic guides. Clarendon Press, Oxford
Crole R (1993) Categories for types. Cambridge mathematical textbooks. Cambridge University Press, Cambridge
Curry H (1952) The elimination theorem when modality is present. J Symbolic Logic 17(4):249–265
de Jongh D, Visser A (1996) Embeddings of Heyting algebras. In: Logic: from foundations to applications (Staffordshire, 1993), 187–213, Oxford Sci Publ, Oxford University Press, New York
de Paiva V, Ritter E (2011) Basic constructive modality. In: Beziau J, Coniglio M (eds) Logic without frontiers—Festschrift for Walter Alexandre Carnielli on the occasion of his 60th birthday. College Publications, pp 411–428
Di Gianantonio P, Miculan M (2004) Unifying recursive and co-recursive definitions in sheaf categories. In: Walukiewicz I (ed) Foundations of software science and computation structures. Lecture notes in computer science, vol 2987. Springer, Berlin/Heidelberg, pp 136–150
Došen K (1985) Models for stronger normal intuitionistic modal logics. Studia Logica 44(1):39–70
Esakia L, Jibladze M, Pataraia D (2000) Scattered toposes. Ann Pure Appl Logic 103(1–3):97–107
Esakia L (2006) The modalized Heyting calculus: a conservative modal extension of the intuitionistic logic. J Appl Non-Class Logics 16(3–4):349–366
Fairtlough M, Mendler M (1997) Propositional lax logic. Inf Comput 137(1):1–33
Fine K (1985) Logics containing K4. part II. J Symbolic Logic 50(3):619–651
Font J (2006) Beyond Rasiowa’s algebraic approach to non-classical logics. Studia Logica 82(2):179–209
Font J, Jansana R, Pigozzi D (2003) A survey of abstract algebraic logic. Studia Logica 74(1–2):13–97
Font J, Jansana R, Pigozzi D (2009) Update to “A survey of abstract algebraic logic”. Studia Logica 91(1):125–130
Garg D, Abadi M (2008) A modal deconstruction of access control logics. In: Amadio R (ed) FoSSaCS. Lecture notes in computer science, vol 4962. Springer, Berlin, pp 216–230
Garg D, Pfenning F (2006) Non-interference in constructive authorization logic. In: IEEE computer society CSFW, pp 283–296
Ghilardi S (1989) Presheaf semantics and independence results for some non-classical first-order logics. Arch Math Logic 29:125–136
Goldblatt R (2003) Mathematical modal logic: a view of its evolution. J Appl Logic 1(5–6):309–392
Goldblatt R (2006) Topoi: the categorial analysis of logic. In: Dover books on mathematics. Dover Publications, New York
Goldblatt R (1981) Grothendieck topology as geometric modality. Math Logic Q 27(31–35):495–529
Goldblatt R (2010) Cover semantics for quantified lax logic. J Logic Comput 1035–1063
Horn A (1962) The separation theorem of intuitionist propositional calculus. J Symbolic Logic 27(4):391–399
Iemhoff R (2001) Provability logic and admissible rules. PhD thesis, University of Amsterdam
Jaber G, Tabareau N, Sozeau M (2012) Extending type theory with forcing. In: Proceedings of LICS’12, Dubrovnik, Croatia, pp. 395–404
Johnstone P (2002) Sketches of an elephant: a topos theory compendium. In: Oxford logic guides. Clarendon Press, Oxford
Köhler P (1981) Brouwerian semilattices. Trans Am Math Soc 268(1):103–126
Krishnaswami N, Benton N (2011) A semantic model for graphical user interfaces. In: Chakravarty M, Hu Z, Danvy O (eds) ICFP. ACM, pp 45–57
Krishnaswami N, Benton N (2011) Ultrametric semantics of reactive programs. In: LICS. IEEE Computer Society, pp 257–266
Kuznetsov A, Muravitsky A (1986) On superintuitionistic logics as fragments of proof logic extensions. Studia Logica 45(1):77–99
Kuznetsov A (1979) On algebras of open sets. In: The 4th Tiraspol symposium on general topology and its applications, Kishinev. Abstracts, Kishinev (Russian), pp 72–75
Lambek J, Scott P (1986) Introduction to higher order categorical logic. No. 7 in Cambridge studies in advanced mathematics. Cambridge University Press, Cambridge
Litak T (2007) The non-reflexive counterpart of Grz. Bull Sect Logic 36:195–208
MacLane S, Moerdijk I (1992) Sheaves in geometry and logic: a first introduction to topos theory, corrected edn. Springer, Berlin
McBride C, Paterson R (2008) Applicative programming with effects. J Funct Program 18(1):1–13
McLarty C (1990) The uses and abuses of the history of topos theory. Br J Philos Sci 41(3):351–375
Milne P (2010) Subformula and separation properties in natural deduction via small Kripke models. Rev Symbolic Logic 3(02):175–227
Moss L (2007) Finite models constructed from canonical formulas. J Philos Logic 36:605–640
Muravitsky A (1981) Finite approximability of the calculus \({{I}}^{\Delta }\) and the nonmodelability of some of its extensions. Mat Zametki 29(6):907–916
Muravitsky A (2014) Logic KM: a biography (this volume)
Nagaoka K, Isoda E (1997) Incompleteness results in Kripke bundle semantics. Math Logic Q 43(4):485–498
Nakano H (2000) A modality for recursion. In: LICS. IEEE Computer Society, pp 255–266
Nakano H (2001) Fixed-point logic with the approximation modality and its Kripke completeness. In: Kobayashi N, Pierce B (eds) TACS. Lecture notes in computer science, vol 2215. Springer, Berlin, pp 165–182
Pfenning F, Davies R (2001) A judgmental reconstruction of modal logic. Math Struct Comput Sci 11(4):511–540
Prawitz D (1965) Natural deduction: a proof-theoretical study. PhD thesis, Almqvist & Wiksell
Rasiowa H (1974) An algebraic approach to non-classical logics. North Holland
Sambin G (1976) An effective fixed-point theorem in intuitionistic diagonalizable algebras (The algebraization of the theories which express Theor, IX). Studia Logica 35(4):345–361
Simmons H (1982) An algebraic version of Cantor-Bendixson analysis. In: Banaschewski B (ed) Categorical aspects of topology and analysis. Lecture notes in mathematics, vol 915. Springer, Berlin / Heidelberg, pp 310–323
Simmons H (2014) Cantor-Bendixson properties of the assembly of a frame (this volume)
Simpson A (1994) The proof theory and semantics of intuitionistic modal logic. PhD thesis, University of Edinburgh
Skvortsov D (2012) Kripke sheaf completeness of some superintuitionistic predicate logics with a weakened constant domains principle. Studia Logica 100:361–383
Smorynski C (1979) Calculating self-referential statements, I: explicit calculations. Studia Logica 38(1):17–36
Solovay R (1976) Provability interpretations of modal logic. Israel J Math 25:287–304
Sotirov V (1984) Modal theories with intuitionistic logic. In: Mathematical logic, proc. conf. math. logic dedicated to the memory of A. A. Markov (1903–1979), Sofia, 22–23 Sept 1980, pp 139–171
ten Cate B, Fontaine G, Litak T (2010) Some modal aspects of XPath. J Appl Non-Class Logics 20(3):139–171
Ursini A (1979) A modal calculus analogous to K4W, based on intuitionistic propositional logic, I-. Studia Logica: Int J Symbolic Logic 38(3):297–311
van Benthem J (1991) Reflections on epistemic logic. Logique et Anal 34:5–14
van Benthem J (2006) Modal frame correspondences and fixed-points. Studia Logica 83(1–3):133–155
Visser A (2005) Löb’s logic meets the \(\mu \)-calculus. In: Middeldorp A, van Oostrom V, van Raamsdonk F, de Vrijer R (eds) Processes, terms and cycles. Lecture notes in computer science, vol 3838. Springer, Berlin, pp 14–25
Wolter F, Zakharyaschev M (1997) On the relation between intuitionistic and classical modal logics. Algebra and Logic 36:121–125
Wolter F, Zakharyaschev M (1998) Intuitionistic modal logics as fragments of classical modal logics. In: Orlowska E (ed) Logic at work, essays in honour of Helena Rasiowa. Springer, Berlin, pp 168–186
Wolter F, Zakharyaschev M (2014) On the Blok-Esakia theorem (this volume)
Acknowledgments
Special thanks are due to: the anonymous referee for careful reading and many helpful comments; Guram Bezhanishvili, for an invitation to write this chapter, but also his tolerance, understanding and patience during the whole process; Alexander Kurz for his support, interest and numerous discussions; Mamuka Jibladze and the late Dito Pataraia, particularly for all the discussions we had in Kutaisi. Apart from this, the list of people who provided feedback and/or suggestions include (in no particular order) Lars Birkedal, Rasmus Møgelberg, Stefan Milius, Thomas Streicher, Sam Staton, Alex Simpson, Gordon Plotkin, Johan van Benthem, Ramon Jansana, Achim Jung, Andrew Pitts, Conor McBride, Nick Benton, Guilhem Jaber, Dirk Pattinson, Drew Moshier, Nick Bezhanishvili, Alexei Muravitsky, Fredrik Nordvall Forsberg, Ben Kavanagh, Oliver Fasching, participants of Domains X, TYPES 2011, MGS 2012 and seminars at the University of Leicester. During most of the write-up, I was supported by the EPSRC grant EP/G041296/1.
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Litak, T. (2014). Constructive Modalities with Provability Smack. In: Bezhanishvili, G. (eds) Leo Esakia on Duality in Modal and Intuitionistic Logics. Outstanding Contributions to Logic, vol 4. Springer, Dordrecht. https://doi.org/10.1007/978-94-017-8860-1_8
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