a |
abstract interpretation | Parametric Strategy Iteration |
amortized analysis | Towards an amortized type system for JavaScript |
c |
constraint | A refutation procedure for proving satisfiability of constraint specifications on XML documents |
Coq | Machine Learning of Coq Proof Guidance: First Experiments |
d |
doxastic logic | PDT Logic for Stream Reasoning in Multi-agent Systems |
e |
epistemic logic | PDT Logic for Stream Reasoning in Multi-agent Systems |
f |
formal mathematics | Machine Learning of Coq Proof Guidance: First Experiments |
i |
interactive theorem proving | Machine Learning of Coq Proof Guidance: First Experiments |
j |
JavaScript type system | Towards an amortized type system for JavaScript |
m |
machine learning | Machine Learning of Coq Proof Guidance: First Experiments |
mobile applications | Towards an amortized type system for JavaScript |
p |
parametric program analysis | Parametric Strategy Iteration |
probabilistic logic | PDT Logic for Stream Reasoning in Multi-agent Systems |
proof advice | Machine Learning of Coq Proof Guidance: First Experiments |
r |
Refutation procedure | A refutation procedure for proving satisfiability of constraint specifications on XML documents |
resource bounds | Towards an amortized type system for JavaScript |
resource usage | Towards an amortized type system for JavaScript |
s |
strategy iteration | Parametric Strategy Iteration |
Stream Reasoning | PDT Logic for Stream Reasoning in Multi-agent Systems |
t |
temporal logic | PDT Logic for Stream Reasoning in Multi-agent Systems |
type system | Towards an amortized type system for JavaScript |
type theory | Machine Learning of Coq Proof Guidance: First Experiments |
x |
XML document | A refutation procedure for proving satisfiability of constraint specifications on XML documents |
XPath pattern | A refutation procedure for proving satisfiability of constraint specifications on XML documents |