merge
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commit
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@ -36,7 +36,7 @@ before_install:
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- make travis-setup
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script:
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- curl -L https://raw.githubusercontent.com/MestreLion/git-tools/master/git-restore-mtime | python
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- travis_retry curl -L https://raw.githubusercontent.com/plfa/git-tools/master/git-restore-mtime | python
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- agda --version
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- acknowledgements --version
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- make test-offline # disable to only build cache
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158
courses/icfp/icfp19-tutorials-form.txt
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158
courses/icfp/icfp19-tutorials-form.txt
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----------------------------------------------------------------------
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ICFP 2019
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24th ACM SIGPLAN International Conference on Functional Programming
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August 18 - 23, 2019
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Berlin, Germany
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https://icfp19.sigplan.org/
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TUTORIAL PROPOSAL FORM
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----------------------------------------------------------------------
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This form is due May 10th, 2019.
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NAME OF THE TUTORIAL:
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Programming Language Foundations in Agda
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PRESENTER(S):
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(Please complete the following table for each presenter.)
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Name : Philip Wadler
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Address : LFCS, School of Informatics, University of Edinbugh
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Email : wadler@inf.ed.ac.uk
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Phone : +44 131 650 5174 (after 21 July)
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Mobile : +55 71 99652 2018 (before 13 July)
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+44 7976 507 543 (after 14 July)
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ABSTRACT:
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This course is in two parts, each three hours long. Part I is an
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introduction to formal methods in Agda, covering datatypes,
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recursion, structural induction, indexed datatypes, dependent
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functions, and induction over evidence; with focus on formal
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definitions of naturals, addition, and inequality, and their
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properties. Part II is an introduction to formal models of
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simply-typed lambda calculus in Agda, including reduction, type
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rules, and progress and preservation, and (as a consequence)
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evaluation of lambda terms. Part II depends on Part I, but Part I
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can be skipped by those already familiar with Agda.
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The textbook is freely available online:
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Programming Language Foundations in Agda
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plfa.inf.ed.ac.uk
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github.com/plfa/plfa.github.io/
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The books has been used for teaching by me at:
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University of Edinburgh (Sep-Dec 2018)
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Pontifícia Universidade Católica do Rio de Janeiro (PUC-Rio) (Mar-Jul 2019)
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University of Padova (Jun 2019)
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and by others at
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University of Vermont
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Google Seattle.
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The book is described in a paper (of the same title) at the XXI
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Brazilian Symposium on Formal Methods, 28--30 Nov 2018, which is
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available here:
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http://homepages.inf.ed.ac.uk/wadler/topics/agda.html#sbmf
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The paper won the SBMF 2018 Best Paper Award, 1st Place.
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REQUIRED PARTICIPANT BACKGROUND:
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(What background knowledge and skills will be assumed? Is the
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tutorial primarily intended for industrial users of functional
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programming, researchers in functional programming, or some other
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audience?)
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No prerequisites required. Any or all of the following will be
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helpful:
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* Familiarity with functional programming, particularly
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data types, recursion, and pattern matching.
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* Familiarity with proof by induction.
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* Familiarity with a proof assistant.
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* Familiarity with Emacs.
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LEARNING OUTCOMES:
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(What will participants be able to do after the tutorial?)
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Part I: Formulate and prove in Agda properties of
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operations of naturals (such as addition and multiplication), and
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relations on naturals (such as inequality), using structural
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induction and induction over evidence of a relation.
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Part II: Formulate and prove in Agda formal models of simply-typed
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lambda calculus in Agda, including reduction, type rules, and
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progress and preservation, and (as a consequence) evaluation of
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lambda terms.
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SPECIAL REQUIREMENTS:
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(Does the tutorial need Internet access for the presenter? For the
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participants?)
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If the participants follow the instructions under 'Participant
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Preparation' in advance, then no internet access is required.
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SCHEDULING CONSTRAINTS:
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(Are there any days on which you cannot hold the tutorial?)
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None
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PARTICIPANT PREPARATION:
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(What preparation is required? Do participants need to bring
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laptops? If so, do they need to have any particular software?)
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Clone the repository at
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https://github.com/plfa/plfa.github.io/
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This is the textbook for the course.
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Install Agda, the Agda standard library, and configure the
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plfa library. This can be done by following the instructions
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under the heading
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Getting Started with PLFA
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at
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https://plfa.github.io/GettingStarted/
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PLANS FOR PUBLICITY:
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(Including, but not limited to, web pages, mailing lists, and
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newsgroups.)
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I will advertise on my home page and blog, and on the home page for
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the textbook, and mail to Types and other standard lists.
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ADDITIONAL INFORMATION:
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(If there is any additional information that you would like
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to make us aware of, please include the details here.
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For example, you may wish to indicate a preference for particular
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dates, or that the tutorial should not be run in parallel with
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certain workshops; in such cases, please also include the
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reasons for your preference.)
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None.
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@ -72,7 +72,7 @@ Terms have seven constructs. Three are for the core lambda calculus:
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Three are for the naturals:
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* Zero `` `zero ``
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* Successor `` `suc ``
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* Successor `` `suc M ``
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* Case `` case L [zero⇒ M |suc x ⇒ N ] ``
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And one is for recursion:
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@ -1315,7 +1315,7 @@ there is at most one `A` such that the judgment holds:
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```
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The typing relation `Γ ⊢ M ⦂ A` is not injective. For example, in any `Γ`
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the term `ƛ "x" ⇒ "x"` has type `A ⇒ A` for any type `A`.
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the term `` ƛ "x" ⇒ ` "x" `` has type `A ⇒ A` for any type `A`.
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### Non-examples
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