Merge pull request #2 from qpdb/gburd/update-peg-dep

rust-peg parser updates
This commit is contained in:
Gregory Burd 2020-01-23 11:19:25 -05:00 committed by GitHub
commit 8aec4048b9
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22 changed files with 535 additions and 579 deletions

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@ -5,10 +5,10 @@ workspace = ".."
[dependencies]
chrono = { version = "0.4", features = ["serde"] }
enum-set = "0.0.8"
failure = "0.1.1"
indexmap = "1.3.1"
ordered-float = { version = "1.0.2", features = ["serde"] }
enum-set = "0.0"
failure = "0.1"
indexmap = "1.3"
ordered-float = { version = "1.0", features = ["serde"] }
uuid = { version = "0.8", features = ["v4", "serde"] }
[dependencies.core_traits]

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@ -32,9 +32,8 @@ pub use chrono::{
Timelike, // For truncation.
};
pub use edn::{Cloned, FromMicros, FromRc, Keyword, ToMicros, Utc, ValueRc};
pub use edn::parse::parse_query;
pub use edn::{Cloned, FromMicros, FromRc, Keyword, ToMicros, Utc, ValueRc};
pub use cache::{CachedAttributes, UpdateableCache};

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@ -11,8 +11,8 @@ path = "lib.rs"
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.1"
failure_derive = "0.1.1"
failure = "0.1"
failure_derive = "0.1"
[dependencies.edn]
path = "../edn"

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@ -7,18 +7,18 @@ workspace = ".."
license = "Apache-2.0"
repository = "https://github.com/mozilla/mentat"
description = "EDN parser for Project Mentat"
build = "build.rs"
readme = "./README.md"
[dependencies]
chrono = "0.4.10"
itertools = "0.8.2"
num = "0.2.1"
ordered-float = "1.0.2"
pretty = "0.9.0"
chrono = "0.4"
itertools = "0.8"
num = "0.2"
ordered-float = "1.0"
pretty = "0.9"
uuid = { version = "0.8", features = ["v4", "serde"] }
serde = { version = "1.0", optional = true }
serde_derive = { version = "1.0", optional = true }
peg = "0.6"
[dev-dependencies]
serde_test = "1.0"
@ -26,6 +26,3 @@ serde_json = "1.0"
[features]
serde_support = ["serde", "serde_derive"]
[build-dependencies]
peg = "0.5"

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@ -1,15 +0,0 @@
// Copyright 2016 Mozilla
//
// Licensed under the Apache License, Version 2.0 (the "License"); you may not use
// this file except in compliance with the License. You may obtain a copy of the
// License at http://www.apache.org/licenses/LICENSE-2.0
// Unless required by applicable law or agreed to in writing, software distributed
// under the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR
// CONDITIONS OF ANY KIND, either express or implied. See the License for the
// specific language governing permissions and limitations under the License.
extern crate peg;
fn main() {
peg::cargo_build("src/edn.rustpeg");
}

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@ -1,491 +0,0 @@
/* -*- comment-start: "//"; -*- */
/* vim: set filetype=rust.rustpeg */
// Copyright 2016 Mozilla
//
// Licensed under the Apache License, Version 2.0 (the "License"); you may not use
// this file except in compliance with the License. You may obtain a copy of the
// License at http://www.apache.org/licenses/LICENSE-2.0
// Unless required by applicable law or agreed to in writing, software distributed
// under the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR
// CONDITIONS OF ANY KIND, either express or implied. See the License for the
// specific language governing permissions and limitations under the License.
use std::collections::{BTreeSet, BTreeMap, LinkedList};
use std::iter::FromIterator;
use std::f64::{NAN, INFINITY, NEG_INFINITY};
use chrono::{
DateTime,
TimeZone,
Utc
};
use num::BigInt;
use ordered_float::OrderedFloat;
use uuid::Uuid;
use entities::*;
use query;
use query::FromValue;
use symbols::*;
use types::{SpannedValue, Span, ValueAndSpan};
// Goal: Be able to parse https://github.com/edn-format/edn
// Also extensible to help parse http://docs.datomic.com/query.html
// Debugging hint: test using `cargo test --features peg/trace -- --nocapture`
// to trace where the parser is failing
// TODO: Support tagged elements
// TODO: Support discard
pub nil -> SpannedValue = "nil" { SpannedValue::Nil }
pub nan -> SpannedValue = "#f" whitespace+ "NaN" { SpannedValue::Float(OrderedFloat(NAN)) }
pub infinity -> SpannedValue = "#f" whitespace+ s:$(sign) "Infinity"
{ SpannedValue::Float(OrderedFloat(if s == "+" { INFINITY } else { NEG_INFINITY })) }
pub boolean -> SpannedValue
= "true" { SpannedValue::Boolean(true) }
/ "false" { SpannedValue::Boolean(false) }
digit = [0-9]
alphanumeric = [0-9a-zA-Z]
octaldigit = [0-7]
validbase = [3][0-6] / [12][0-9] / [2-9]
hex = [0-9a-fA-F]
sign = [+-]
pub raw_bigint -> BigInt = b:$( sign? digit+ ) "N"
{ b.parse::<BigInt>().unwrap() }
pub raw_octalinteger -> i64 = "0" i:$( octaldigit+ )
{ i64::from_str_radix(i, 8).unwrap() }
pub raw_hexinteger -> i64 = "0x" i:$( hex+ )
{ i64::from_str_radix(i, 16).unwrap() }
pub raw_basedinteger -> i64 = b:$( validbase ) "r" i:$( alphanumeric+ )
{ i64::from_str_radix(i, b.parse::<u32>().unwrap()).unwrap() }
pub raw_integer -> i64 = i:$( sign? digit+ ) !("." / ([eE]))
{ i.parse::<i64>().unwrap() }
pub raw_float -> OrderedFloat<f64> = f:$(sign? digit+ ("." digit+)? ([eE] sign? digit+)?)
{ OrderedFloat(f.parse::<f64>().unwrap()) }
pub bigint -> SpannedValue = v:raw_bigint { SpannedValue::BigInteger(v) }
pub octalinteger -> SpannedValue = v:raw_octalinteger { SpannedValue::Integer(v) }
pub hexinteger -> SpannedValue = v:raw_hexinteger { SpannedValue::Integer(v) }
pub basedinteger -> SpannedValue = v:raw_basedinteger { SpannedValue::Integer(v) }
pub integer -> SpannedValue = v:raw_integer { SpannedValue::Integer(v) }
pub float -> SpannedValue = v:raw_float { SpannedValue::Float(v) }
number -> SpannedValue = ( bigint / basedinteger / hexinteger / octalinteger / integer / float )
// TODO: standalone characters: \<char>, \newline, \return, \space and \tab.
string_special_char -> &'input str = "\\" $([\\"ntr])
string_normal_chars -> &'input str = $([^"\\]+)
// This is what we need to do in order to unescape. We can't just match the entire string slice:
// we get a Vec<&str> from rust-peg, where some of the parts might be unescaped special characters,
// and we join it together to form an output string.
// E.g., input = r#"\"foo\\\\bar\""#
// output = [quote, "foo", backslash, "bar", quote]
// result = r#""foo\\bar""#
// For the typical case, string_normal_chars will match multiple, leading to a single-element vec.
pub raw_text -> String = "\"" t:((string_special_char / string_normal_chars)*) "\""
{ t.join(&"").to_string() }
pub text -> SpannedValue
= v:raw_text { SpannedValue::Text(v) }
// RFC 3339 timestamps. #inst "1985-04-12T23:20:50.52Z"
// We accept an arbitrary depth of decimals.
// Note that we discard the timezone information -- all times are translated to UTC.
inst_string -> DateTime<Utc> =
"#inst" whitespace+ "\"" d:$( [0-9]*<4> "-" [0-2][0-9] "-" [0-3][0-9]
"T"
[0-2][0-9] ":" [0-5][0-9] ":" [0-6][0-9]
("." [0-9]+)?
("Z" / (("+" / "-") [0-2][0-9] ":" [0-5][0-9]))
)
"\"" {?
DateTime::parse_from_rfc3339(d)
.map(|t| t.with_timezone(&Utc))
.map_err(|_| "invalid datetime") // Oh, rustpeg.
}
inst_micros -> DateTime<Utc> =
"#instmicros" whitespace+ d:$( digit+ ) {
let micros = d.parse::<i64>().unwrap();
let seconds: i64 = micros / 1000000;
let nanos: u32 = ((micros % 1000000).abs() as u32) * 1000;
Utc.timestamp(seconds, nanos)
}
inst_millis -> DateTime<Utc> =
"#instmillis" whitespace+ d:$( digit+ ) {
let millis = d.parse::<i64>().unwrap();
let seconds: i64 = millis / 1000;
let nanos: u32 = ((millis % 1000).abs() as u32) * 1000000;
Utc.timestamp(seconds, nanos)
}
inst -> SpannedValue = t:(inst_millis / inst_micros / inst_string)
{ SpannedValue::Instant(t) }
uuid_string -> Uuid =
"\"" u:$( [a-f0-9]*<8> "-" [a-f0-9]*<4> "-" [a-f0-9]*<4> "-" [a-f0-9]*<4> "-" [a-f0-9]*<12> ) "\"" {
Uuid::parse_str(u).expect("this is a valid UUID string")
}
pub uuid -> SpannedValue = "#uuid" whitespace+ u:uuid_string
{ SpannedValue::Uuid(u) }
namespace_divider = "."
namespace_separator = "/"
// TODO: Be more picky here
// Keywords follow the rules of symbols, except they can (and must) begin with :
// e.g. :fred or :my/fred. See https://github.com/edn-format/edn#keywords
symbol_char_initial = [a-zA-Z0-9*!_?$%&=<>]
symbol_char_subsequent = [+a-zA-Z0-9*!_?$%&=<>-]
symbol_namespace = symbol_char_initial symbol_char_subsequent* (namespace_divider symbol_char_subsequent+)*
symbol_name = ( symbol_char_initial+ symbol_char_subsequent* )
plain_symbol_name = symbol_name / "..." / "."
keyword_prefix = ":"
pub symbol -> SpannedValue =
ns:( sns:$(symbol_namespace) namespace_separator { sns })?
n:$(plain_symbol_name)
{ SpannedValue::from_symbol(ns, n) }
/ #expected("symbol")
pub keyword -> SpannedValue =
keyword_prefix
ns:( sns:$(symbol_namespace) namespace_separator { sns })?
n:$(symbol_name)
{ SpannedValue::from_keyword(ns, n) }
/ #expected("keyword")
pub list -> SpannedValue = "(" __ v:(value)* __ ")"
{ SpannedValue::List(LinkedList::from_iter(v)) }
pub vector -> SpannedValue = "[" __ v:(value)* __ "]"
{ SpannedValue::Vector(v) }
pub set -> SpannedValue = "#{" __ v:(value)* __ "}"
{ SpannedValue::Set(BTreeSet::from_iter(v)) }
pair -> (ValueAndSpan, ValueAndSpan) =
k:(value) v:(value) {
(k, v)
}
pub map -> SpannedValue = "{" __ v:(pair)* __ "}"
{ SpannedValue::Map(BTreeMap::from_iter(v)) }
// It's important that float comes before integer or the parser assumes that
// floats are integers and fails to parse
pub value -> ValueAndSpan =
__ start:#position v:(nil / nan / infinity / boolean / number / inst / uuid / text / keyword / symbol / list / vector / map / set) end:#position __ {
ValueAndSpan {
inner: v,
span: Span::new(start, end)
}
}
/ #expected("value")
atom -> ValueAndSpan
= v:value {? if v.is_atom() { Ok(v) } else { Err("expected atom") } }
// Clojure (and thus EDN) regards commas as whitespace, and thus the two-element vectors [1 2] and
// [1,,,,2] are equivalent, as are the maps {:a 1, :b 2} and {:a 1 :b 2}.
whitespace = #quiet<[ \r\n\t,]>
comment = #quiet<";" [^\r\n]* [\r\n]?>
__ = (whitespace / comment)*
// Transaction entity parser starts here.
pub op -> OpType
= ":db/add" { OpType::Add }
/ ":db/retract" { OpType::Retract }
raw_keyword -> Keyword =
keyword_prefix
ns:( sns:$(symbol_namespace) namespace_separator { sns })?
n:$(symbol_name) {
match ns {
Some(ns) => Keyword::namespaced(ns, n),
None => Keyword::plain(n),
}
}
/ #expected("keyword")
raw_forward_keyword -> Keyword
= v:raw_keyword {? if v.is_forward() { Ok(v) } else { Err("expected :forward or :forward/keyword") } }
raw_backward_keyword -> Keyword
= v:raw_keyword {? if v.is_backward() { Ok(v) } else { Err("expected :_backword or :backward/_keyword") } }
raw_namespaced_keyword -> Keyword
= keyword_prefix ns:$(symbol_namespace) namespace_separator n:$(symbol_name) { Keyword::namespaced(ns, n) }
/ #expected("namespaced keyword")
raw_forward_namespaced_keyword -> Keyword
= v:raw_namespaced_keyword {? if v.is_forward() { Ok(v) } else { Err("expected namespaced :forward/keyword") } }
raw_backward_namespaced_keyword -> Keyword
= v:raw_namespaced_keyword {? if v.is_backward() { Ok(v) } else { Err("expected namespaced :backward/_keyword") } }
entid -> EntidOrIdent
= v:( raw_basedinteger / raw_hexinteger / raw_octalinteger / raw_integer ) { EntidOrIdent::Entid(v) }
/ v:raw_namespaced_keyword { EntidOrIdent::Ident(v) }
/ #expected("entid")
forward_entid -> EntidOrIdent
= v:( raw_basedinteger / raw_hexinteger / raw_octalinteger / raw_integer ) { EntidOrIdent::Entid(v) }
/ v:raw_forward_namespaced_keyword { EntidOrIdent::Ident(v) }
/ #expected("forward entid")
backward_entid -> EntidOrIdent
= v:raw_backward_namespaced_keyword { EntidOrIdent::Ident(v.to_reversed()) }
/ #expected("backward entid")
lookup_ref -> LookupRef<ValueAndSpan>
= "(" __ "lookup-ref" __ a:(entid) __ v:(value) __ ")" { LookupRef { a: AttributePlace::Entid(a), v } }
/ #expected("lookup-ref")
tx_function -> TxFunction
= "(" __ n:$(symbol_name) __ ")" { TxFunction { op: PlainSymbol::plain(n) } }
entity_place -> EntityPlace<ValueAndSpan>
= v:raw_text { EntityPlace::TempId(TempId::External(v).into()) }
/ v:entid { EntityPlace::Entid(v) }
/ v:lookup_ref { EntityPlace::LookupRef(v) }
/ v:tx_function { EntityPlace::TxFunction(v) }
value_place_pair -> (EntidOrIdent, ValuePlace<ValueAndSpan>)
= k:(entid) __ v:(value_place) { (k, v) }
map_notation -> MapNotation<ValueAndSpan>
= "{" __ kvs:(value_place_pair*) __ "}" { kvs.into_iter().collect() }
value_place -> ValuePlace<ValueAndSpan>
= __ v:lookup_ref __ { ValuePlace::LookupRef(v) }
/ __ v:tx_function __ { ValuePlace::TxFunction(v) }
/ __ "[" __ vs:(value_place*) __ "]" __ { ValuePlace::Vector(vs) }
/ __ v:map_notation __ { ValuePlace::MapNotation(v) }
/ __ v:atom __ { ValuePlace::Atom(v) }
pub entity -> Entity<ValueAndSpan>
= __ "[" __ op:(op) __ e:(entity_place) __ a:(forward_entid) __ v:(value_place) __ "]" __ { Entity::AddOrRetract { op, e: e, a: AttributePlace::Entid(a), v: v } }
/ __ "[" __ op:(op) __ e:(value_place) __ a:(backward_entid) __ v:(entity_place) __ "]" __ { Entity::AddOrRetract { op, e: v, a: AttributePlace::Entid(a), v: e } }
/ __ map:map_notation __ { Entity::MapNotation(map) }
/ #expected("entity")
pub entities -> Vec<Entity<ValueAndSpan>>
= __ "[" __ es:(entity*) __ "]" __ { es }
// Query parser starts here.
//
// We expect every rule except the `raw_*` rules to eat whitespace
// (with `__`) at its start and finish. That means that every string
// pattern (say "[") should be bracketed on either side with either a
// whitespace-eating rule or an explicit whitespace eating `__`.
query_function -> query::QueryFunction
= __ n:$(symbol_name) __ {? query::QueryFunction::from_symbol(&PlainSymbol::plain(n)).ok_or("expected query function") }
fn_arg -> query::FnArg
= v:value {? query::FnArg::from_value(&v).ok_or("expected query function argument") }
/ __ "[" args:fn_arg+ "]" __ { query::FnArg::Vector(args) }
find_elem -> query::Element
= __ v:variable __ { query::Element::Variable(v) }
/ __ "(" __ "the" v:variable ")" __ { query::Element::Corresponding(v) }
/ __ "(" __ "pull" var:variable "[" patterns:pull_attribute+ "]" __ ")" __ { query::Element::Pull(query::Pull { var, patterns }) }
/ __ "(" func:query_function args:fn_arg* ")" __ { query::Element::Aggregate(query::Aggregate { func, args }) }
find_spec -> query::FindSpec
= f:find_elem "." __ { query::FindSpec::FindScalar(f) }
/ fs:find_elem+ { query::FindSpec::FindRel(fs) }
/ __ "[" f:find_elem __ "..." __ "]" __ { query::FindSpec::FindColl(f) }
/ __ "[" fs:find_elem+ "]" __ { query::FindSpec::FindTuple(fs) }
pull_attribute -> query::PullAttributeSpec
= __ "*" __ { query::PullAttributeSpec::Wildcard }
/ __ k:raw_forward_namespaced_keyword __ alias:(":as" __ alias:raw_forward_keyword __ { alias })? {
let attribute = query::PullConcreteAttribute::Ident(::std::rc::Rc::new(k));
let alias = alias.map(|alias| ::std::rc::Rc::new(alias));
query::PullAttributeSpec::Attribute(
query::NamedPullAttribute {
attribute,
alias: alias,
})
}
limit -> query::Limit
= __ v:variable __ { query::Limit::Variable(v) }
/ __ n:(raw_octalinteger / raw_hexinteger / raw_basedinteger / raw_integer) __ {?
if n > 0 {
Ok(query::Limit::Fixed(n as u64))
} else {
Err("expected positive integer")
}
}
order -> query::Order
= __ "(" __ "asc" v:variable ")" __ { query::Order(query::Direction::Ascending, v) }
/ __ "(" __ "desc" v:variable ")" __ { query::Order(query::Direction::Descending, v) }
/ v:variable { query::Order(query::Direction::Ascending, v) }
pattern_value_place -> query::PatternValuePlace
= v:value {? query::PatternValuePlace::from_value(&v).ok_or("expected pattern_value_place") }
pattern_non_value_place -> query::PatternNonValuePlace
= v:value {? query::PatternNonValuePlace::from_value(&v).ok_or("expected pattern_non_value_place") }
pattern -> query::WhereClause
= __ "["
src:src_var?
e:pattern_non_value_place
a:pattern_non_value_place
v:pattern_value_place?
tx:pattern_non_value_place?
"]" __
{?
let v = v.unwrap_or(query::PatternValuePlace::Placeholder);
let tx = tx.unwrap_or(query::PatternNonValuePlace::Placeholder);
// Pattern::new takes care of reversal of reversed
// attributes: [?x :foo/_bar ?y] turns into
// [?y :foo/bar ?x].
//
// This is a bit messy: the inner conversion to a Pattern can
// fail if the input is something like
//
// ```edn
// [?x :foo/_reversed 23.4]
// ```
//
// because
//
// ```edn
// [23.4 :foo/reversed ?x]
// ```
//
// is nonsense. That leaves us with a nested optional, which we unwrap here.
query::Pattern::new(src, e, a, v, tx)
.map(query::WhereClause::Pattern)
.ok_or("expected pattern")
}
// TODO: this shouldn't be checked at parse time.
rule_vars -> BTreeSet<query::Variable>
= vs:variable+ {?
let given = vs.len();
let set: BTreeSet<query::Variable> = vs.into_iter().collect();
if given != set.len() {
Err("expected unique variables")
} else {
Ok(set)
}
}
or_pattern_clause -> query::OrWhereClause
= clause:where_clause { query::OrWhereClause::Clause(clause) }
or_and_clause -> query::OrWhereClause
= __ "(" __ "and" clauses:where_clause+ ")" __ { query::OrWhereClause::And(clauses) }
or_where_clause -> query::OrWhereClause
= or_pattern_clause
/ or_and_clause
or_clause -> query::WhereClause
= __ "(" __ "or" clauses:or_where_clause+ ")" __ {
query::WhereClause::OrJoin(query::OrJoin::new(query::UnifyVars::Implicit, clauses))
}
or_join_clause -> query::WhereClause
= __ "(" __ "or-join" __ "[" vars:rule_vars "]" clauses:or_where_clause+ ")" __ {
query::WhereClause::OrJoin(query::OrJoin::new(query::UnifyVars::Explicit(vars), clauses))
}
not_clause -> query::WhereClause
= __ "(" __ "not" clauses:where_clause+ ")" __ {
query::WhereClause::NotJoin(query::NotJoin::new(query::UnifyVars::Implicit, clauses))
}
not_join_clause -> query::WhereClause
= __ "(" __ "not-join" __ "[" vars:rule_vars "]" clauses:where_clause+ ")" __ {
query::WhereClause::NotJoin(query::NotJoin::new(query::UnifyVars::Explicit(vars), clauses))
}
type_annotation -> query::WhereClause
= __ "[" __ "(" __ "type" var:variable __ ty:raw_keyword __ ")" __ "]" __ {
query::WhereClause::TypeAnnotation(
query::TypeAnnotation {
value_type: ty,
variable: var,
})
}
pred -> query::WhereClause
= __ "[" __ "(" func:query_function args:fn_arg* ")" __ "]" __ {
query::WhereClause::Pred(
query::Predicate {
operator: func.0,
args: args,
})
}
pub where_fn -> query::WhereClause
= __ "[" __ "(" func:query_function args:fn_arg* ")" __ binding:binding "]" __ {
query::WhereClause::WhereFn(
query::WhereFn {
operator: func.0,
args: args,
binding,
})
}
where_clause -> query::WhereClause
// Right now we only support patterns and predicates. See #239 for more.
= pattern
/ or_join_clause
/ or_clause
/ not_join_clause
/ not_clause
/ type_annotation
/ pred
/ where_fn
query_part -> query::QueryPart
= __ ":find" fs:find_spec { query::QueryPart::FindSpec(fs) }
/ __ ":in" in_vars:variable+ { query::QueryPart::InVars(in_vars) }
/ __ ":limit" l:limit { query::QueryPart::Limit(l) }
/ __ ":order" os:order+ { query::QueryPart::Order(os) }
/ __ ":where" ws:where_clause+ { query::QueryPart::WhereClauses(ws) }
/ __ ":with" with_vars:variable+ { query::QueryPart::WithVars(with_vars) }
pub parse_query -> query::ParsedQuery
= __ "[" qps:query_part+ "]" __ {? query::ParsedQuery::from_parts(qps) }
variable -> query::Variable
= v:value {? query::Variable::from_value(&v).ok_or("expected variable") }
src_var -> query::SrcVar
= v:value {? query::SrcVar::from_value(&v).ok_or("expected src_var") }
variable_or_placeholder -> query::VariableOrPlaceholder
= v:variable { query::VariableOrPlaceholder::Variable(v) }
/ __ "_" __ { query::VariableOrPlaceholder::Placeholder }
binding -> query::Binding
= __ "[" __ "[" vs:variable_or_placeholder+ "]" __ "]" __ { query::Binding::BindRel(vs) }
/ __ "[" v:variable "..." __ "]" __ { query::Binding::BindColl(v) }
/ __ "[" vs:variable_or_placeholder+ "]" __ { query::Binding::BindTuple(vs) }
/ v:variable { query::Binding::BindScalar(v) }

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@ -8,13 +8,12 @@
// CONDITIONS OF ANY KIND, either express or implied. See the License for the
// specific language governing permissions and limitations under the License.
#![allow(ellipsis_inclusive_range_patterns)]
extern crate chrono;
extern crate itertools;
extern crate num;
extern crate ordered_float;
extern crate pretty;
extern crate peg;
extern crate uuid;
#[cfg(feature = "serde_support")]
@ -38,10 +37,6 @@ pub mod utils;
pub mod value_rc;
pub use value_rc::{Cloned, FromRc, ValueRc};
pub mod parse {
include!(concat!(env!("OUT_DIR"), "/edn.rs"));
}
// Re-export the types we use.
pub use chrono::{DateTime, Utc};
pub use num::BigInt;
@ -49,9 +44,485 @@ pub use ordered_float::OrderedFloat;
pub use uuid::Uuid;
// Export from our modules.
pub use parse::ParseError;
pub use types::{
FromMicros, FromMillis, Span, SpannedValue, ToMicros, ToMillis, Value, ValueAndSpan,
};
pub use symbols::{Keyword, NamespacedSymbol, PlainSymbol};
use std::collections::{BTreeSet, BTreeMap, LinkedList};
use std::iter::FromIterator;
use std::f64::{NAN, INFINITY, NEG_INFINITY};
use chrono::{
TimeZone,
};
use entities::*;
use query::FromValue;
// Goal: Be able to parse https://github.com/edn-format/edn
// Also extensible to help parse http://docs.datomic.com/query.html
// Debugging hint: test using `cargo test --features peg/trace -- --nocapture`
// to trace where the parser is failing
// TODO: Support tagged elements
// TODO: Support discard
pub type ParseError = peg::error::ParseError<peg::str::LineCol>;
peg::parser!(pub grammar parse() for str {
pub rule nil() -> SpannedValue = "nil" { SpannedValue::Nil }
pub rule nan() -> SpannedValue = "#f" whitespace()+ "NaN" { SpannedValue::Float(OrderedFloat(NAN)) }
pub rule infinity() -> SpannedValue = "#f" whitespace()+ s:$(sign()) "Infinity"
{ SpannedValue::Float(OrderedFloat(if s == "+" { INFINITY } else { NEG_INFINITY })) }
pub rule boolean() -> SpannedValue
= "true" { SpannedValue::Boolean(true) }
/ "false" { SpannedValue::Boolean(false) }
rule digit() = ['0'..='9']
rule alphanumeric() = ['0'..='9' | 'a'..='z' | 'A'..='Z']
rule octaldigit() = ['0'..='7']
rule validbase() = ['3']['0'..='6'] / ['1' | '2']['0'..='9'] / ['2'..='9']
rule hex() = ['0'..='9' | 'a'..='f' | 'A'..='F']
rule sign() = ['+' | '-']
pub rule raw_bigint() -> BigInt = b:$( sign()? digit()+ ) "N"
{ b.parse::<BigInt>().unwrap() }
pub rule raw_octalinteger() -> i64 = "0" i:$( octaldigit()+ )
{ i64::from_str_radix(i, 8).unwrap() }
pub rule raw_hexinteger() -> i64 = "0x" i:$( hex()+ )
{ i64::from_str_radix(i, 16).unwrap() }
pub rule raw_basedinteger() -> i64 = b:$( validbase() ) "r" i:$( alphanumeric()+ )
{ i64::from_str_radix(i, b.parse::<u32>().unwrap()).unwrap() }
pub rule raw_integer() -> i64 = i:$( sign()? digit()+ ) !("." / (['e' | 'E']))
{ i.parse::<i64>().unwrap() }
pub rule raw_float() -> OrderedFloat<f64> = f:$(sign()? digit()+ ("." digit()+)? (['e' | 'E'] sign()? digit()+)?)
{ OrderedFloat(f.parse::<f64>().unwrap()) }
pub rule bigint() -> SpannedValue = v:raw_bigint() { SpannedValue::BigInteger(v) }
pub rule octalinteger() -> SpannedValue = v:raw_octalinteger() { SpannedValue::Integer(v) }
pub rule hexinteger() -> SpannedValue = v:raw_hexinteger() { SpannedValue::Integer(v) }
pub rule basedinteger() -> SpannedValue = v:raw_basedinteger() { SpannedValue::Integer(v) }
pub rule integer() -> SpannedValue = v:raw_integer() { SpannedValue::Integer(v) }
pub rule float() -> SpannedValue = v:raw_float() { SpannedValue::Float(v) }
rule number() -> SpannedValue = ( bigint() / basedinteger() / hexinteger() / octalinteger() / integer() / float() )
// TODO: standalone characters: \<char>, \newline, \return, \space and \tab.
// rule string_standalone_chars() ->
rule string_special_char() -> &'input str = "\\" c:$(['\\' | '"' | 'n' | 't' | 'r']) { c }
rule string_normal_chars() -> &'input str = c:$((!['\"' | '\\'][_])+) { c }
// This is what we need to do in order to unescape. We can't just match the entire string slice:
// we get a Vec<&str> from rust-peg, where some parts might be unescaped special characters and
// we join it together to form an output string.
// E.g., input = r#"\"foo\\\\bar\""#
// output = [quote, "foo", backslash, "bar", quote]
// result = r#""foo\\bar""#
// For the typical case, string_normal_chars will match multiple, leading to a single-element vec.
pub rule raw_text() -> String = "\"" t:((string_special_char() / string_normal_chars())*) "\""
{ t.join(&"").to_string() }
pub rule text() -> SpannedValue
= v:raw_text() { SpannedValue::Text(v) }
// RFC 3339 timestamps. #inst "1985-04-12T23:20:50.52Z"
// We accept an arbitrary depth of decimals.
// TODO: Note that we discard the timezone information -- all times are translated to UTC. Should we?
rule inst_string() -> DateTime<Utc> =
"#inst" whitespace()+ "\"" d:$( ['0'..='9']*<4> "-" ['0'..='2']['0'..='9'] "-" ['0'..='3']['0'..='9']
"T"
['0'..='2']['0'..='9'] ":" ['0'..='5']['0'..='9'] ":" ['0'..='6']['0'..='9']
("." ['0'..='9']+)?
("Z" / (("+" / "-") ['0'..='2']['0'..='9'] ":" ['0'..='5']['0'..='9']))
)
"\"" {?
DateTime::parse_from_rfc3339(d)
.map(|t| t.with_timezone(&Utc))
.map_err(|_| "invalid datetime") // TODO Oh, rustpeg.
}
rule inst_micros() -> DateTime<Utc> =
"#instmicros" whitespace()+ d:$( digit()+ ) {
let micros = d.parse::<i64>().unwrap();
let seconds: i64 = micros / 1000000;
let nanos: u32 = ((micros % 1000000).abs() as u32) * 1000;
Utc.timestamp(seconds, nanos)
}
rule inst_millis() -> DateTime<Utc> =
"#instmillis" whitespace()+ d:$( digit()+ ) {
let millis = d.parse::<i64>().unwrap();
let seconds: i64 = millis / 1000;
let nanos: u32 = ((millis % 1000).abs() as u32) * 1000000;
Utc.timestamp(seconds, nanos)
}
rule inst() -> SpannedValue = t:(inst_millis() / inst_micros() / inst_string())
{ SpannedValue::Instant(t) }
rule uuid_string() -> Uuid =
"\"" u:$( ['a'..='f' | '0'..='9']*<8> "-" ['a'..='f' | '0'..='9']*<4> "-" ['a'..='f' | '0'..='9']*<4> "-" ['a'..='f' | '0'..='9']*<4> "-" ['a'..='f' | '0'..='9']*<12> ) "\"" {
Uuid::parse_str(u).expect("this is a valid UUID string")
}
pub rule uuid() -> SpannedValue = "#uuid" whitespace()+ u:uuid_string()
{ SpannedValue::Uuid(u) }
rule namespace_divider() = "."
rule namespace_separator() = "/"
// TODO: Be more picky here.
// Keywords follow the rules of symbols, except they can (and must) begin with :
// e.g. :fred or :my/fred. See https://github.com/edn-format/edn#keywords
rule symbol_char_initial() = ['a'..='z' | 'A'..='Z' | '0'..='9' | '*' | '!' | '_' | '?' | '$' | '%' | '&' | '=' | '<' | '>']
rule symbol_char_subsequent() = ['+' | 'a'..='z' | 'A'..='Z' | '0'..='9' | '*' | '!' | '_' | '?' | '$' | '%' | '&' | '=' | '<' | '>' | '-']
rule symbol_namespace() = symbol_char_initial() symbol_char_subsequent()* (namespace_divider() symbol_char_subsequent()+)*
rule symbol_name() = ( symbol_char_initial()+ symbol_char_subsequent()* )
rule plain_symbol_name() = symbol_name() / "..." / "."
rule keyword_prefix() = ":"
pub rule symbol() -> SpannedValue =
ns:( sns:$(symbol_namespace()) namespace_separator() { sns })?
n:$(plain_symbol_name())
{ SpannedValue::from_symbol(ns, n) }
/ expected!("symbol")
pub rule keyword() -> SpannedValue =
keyword_prefix()
ns:( sns:$(symbol_namespace()) namespace_separator() { sns })?
n:$(symbol_name())
{ SpannedValue::from_keyword(ns, n) }
/ expected!("keyword")
pub rule list() -> SpannedValue = "(" __ v:(value())* __ ")"
{ SpannedValue::List(LinkedList::from_iter(v)) }
pub rule vector() -> SpannedValue = "[" __ v:(value())* __ "]"
{ SpannedValue::Vector(v) }
pub rule set() -> SpannedValue = "#{" __ v:(value())* __ "}"
{ SpannedValue::Set(BTreeSet::from_iter(v)) }
pub rule pair() -> (ValueAndSpan, ValueAndSpan) =
k:(value()) v:(value()) {
(k, v)
}
pub rule map() -> SpannedValue = "{" __ v:(pair())* __ "}"
{ SpannedValue::Map(BTreeMap::from_iter(v)) }
// Note: It's important that float comes before integer or the parser assumes that floats are integers and fails to parse.
pub rule value() -> ValueAndSpan =
__ start:position!() v:(nil() / nan() / infinity() / boolean() / number() / inst() / uuid() / text() / keyword() / symbol() / list() / vector() / map() / set()) end:position!() __ {
ValueAndSpan {
inner: v,
span: Span::new(start, end)
}
}
/ expected!("value")
rule atom() -> ValueAndSpan
= v:value() {? if v.is_atom() { Ok(v) } else { Err("expected atom") } }
// Clojure (and thus EDN) regards commas as whitespace, and thus the two-element vectors [1 2] and
// [1,,,,2] are equivalent, as are the maps {:a 1, :b 2} and {:a 1 :b 2}.
rule whitespace() = quiet!{[' ' | '\r' | '\n' | '\t' | ',']}
rule comment() = quiet!{";" (!['\r' | '\n'][_])* ['\r' | '\n']?}
rule __() = (whitespace() / comment())*
// Transaction entity parser starts here.
pub rule op() -> OpType
= ":db/add" { OpType::Add }
/ ":db/retract" { OpType::Retract }
rule raw_keyword() -> Keyword =
keyword_prefix()
ns:( sns:$(symbol_namespace()) namespace_separator() { sns })?
n:$(symbol_name()) {
match ns {
Some(ns) => Keyword::namespaced(ns, n),
None => Keyword::plain(n),
}
}
/ expected!("keyword")
rule raw_forward_keyword() -> Keyword
= v:raw_keyword() {? if v.is_forward() { Ok(v) } else { Err("expected :forward or :forward/keyword") } }
rule raw_backward_keyword() -> Keyword
= v:raw_keyword() {? if v.is_backward() { Ok(v) } else { Err("expected :_backward or :backward/_keyword") } }
rule raw_namespaced_keyword() -> Keyword
= keyword_prefix() ns:$(symbol_namespace()) namespace_separator() n:$(symbol_name()) { Keyword::namespaced(ns, n) }
/ expected!("namespaced keyword")
rule raw_forward_namespaced_keyword() -> Keyword
= v:raw_namespaced_keyword() {? if v.is_forward() { Ok(v) } else { Err("expected namespaced :forward/keyword") } }
rule raw_backward_namespaced_keyword() -> Keyword
= v:raw_namespaced_keyword() {? if v.is_backward() { Ok(v) } else { Err("expected namespaced :backward/_keyword") } }
rule entid() -> EntidOrIdent
= v:( raw_basedinteger() / raw_hexinteger() / raw_octalinteger() / raw_integer() ) { EntidOrIdent::Entid(v) }
/ v:raw_namespaced_keyword() { EntidOrIdent::Ident(v) }
/ expected!("entid")
rule forward_entid() -> EntidOrIdent
= v:( raw_basedinteger() / raw_hexinteger() / raw_octalinteger() / raw_integer() ) { EntidOrIdent::Entid(v) }
/ v:raw_forward_namespaced_keyword() { EntidOrIdent::Ident(v) }
/ expected!("forward entid")
rule backward_entid() -> EntidOrIdent
= v:raw_backward_namespaced_keyword() { EntidOrIdent::Ident(v.to_reversed()) }
/ expected!("backward entid")
rule lookup_ref() -> LookupRef<ValueAndSpan>
= "(" __ "lookup-ref" __ a:(entid()) __ v:(value()) __ ")" { LookupRef { a: AttributePlace::Entid(a), v } }
/ expected!("lookup-ref")
rule tx_function() -> TxFunction
= "(" __ n:$(symbol_name()) __ ")" { TxFunction { op: PlainSymbol::plain(n) } }
rule entity_place() -> EntityPlace<ValueAndSpan>
= v:raw_text() { EntityPlace::TempId(TempId::External(v).into()) }
/ v:entid() { EntityPlace::Entid(v) }
/ v:lookup_ref() { EntityPlace::LookupRef(v) }
/ v:tx_function() { EntityPlace::TxFunction(v) }
rule value_place_pair() -> (EntidOrIdent, ValuePlace<ValueAndSpan>)
= k:(entid()) __ v:(value_place()) { (k, v) }
rule map_notation() -> MapNotation<ValueAndSpan>
= "{" __ kvs:(value_place_pair()*) __ "}" { kvs.into_iter().collect() }
rule value_place() -> ValuePlace<ValueAndSpan>
= __ v:lookup_ref() __ { ValuePlace::LookupRef(v) }
/ __ v:tx_function() __ { ValuePlace::TxFunction(v) }
/ __ "[" __ vs:(value_place()*) __ "]" __ { ValuePlace::Vector(vs) }
/ __ v:map_notation() __ { ValuePlace::MapNotation(v) }
/ __ v:atom() __ { ValuePlace::Atom(v) }
pub rule entity() -> Entity<ValueAndSpan>
= __ "[" __ op:(op()) __ e:(entity_place()) __ a:(forward_entid()) __ v:(value_place()) __ "]" __ { Entity::AddOrRetract { op, e: e, a: AttributePlace::Entid(a), v: v } }
/ __ "[" __ op:(op()) __ e:(value_place()) __ a:(backward_entid()) __ v:(entity_place()) __ "]" __ { Entity::AddOrRetract { op, e: v, a: AttributePlace::Entid(a), v: e } }
/ __ map:map_notation() __ { Entity::MapNotation(map) }
/ expected!("entity")
pub rule entities() -> Vec<Entity<ValueAndSpan>>
= __ "[" __ es:(entity()*) __ "]" __ { es }
// Query parser starts here.
//
// We expect every rule except the `raw_*` rules to eat whitespace
// (with `__`) at its start and finish. That means that every string
// pattern (say "[") should be bracketed on either side with either a
// whitespace-eating rule or an explicit whitespace eating `__`.
rule query_function() -> query::QueryFunction
= __ n:$(symbol_name()) __ {? query::QueryFunction::from_symbol(&PlainSymbol::plain(n)).ok_or("expected query function") }
rule fn_arg() -> query::FnArg
= v:value() {? query::FnArg::from_value(&v).ok_or("expected query function argument") }
/ __ "[" args:fn_arg()+ "]" __ { query::FnArg::Vector(args) }
rule find_elem() -> query::Element
= __ v:variable() __ { query::Element::Variable(v) }
/ __ "(" __ "the" v:variable() ")" __ { query::Element::Corresponding(v) }
/ __ "(" __ "pull" var:variable() "[" patterns:pull_attribute()+ "]" __ ")" __ { query::Element::Pull(query::Pull { var, patterns }) }
/ __ "(" func:query_function() args:fn_arg()* ")" __ { query::Element::Aggregate(query::Aggregate { func, args }) }
rule find_spec() -> query::FindSpec
= f:find_elem() "." __ { query::FindSpec::FindScalar(f) }
/ fs:find_elem()+ { query::FindSpec::FindRel(fs) }
/ __ "[" f:find_elem() __ "..." __ "]" __ { query::FindSpec::FindColl(f) }
/ __ "[" fs:find_elem()+ "]" __ { query::FindSpec::FindTuple(fs) }
rule pull_attribute() -> query::PullAttributeSpec
= __ "*" __ { query::PullAttributeSpec::Wildcard }
/ __ k:raw_forward_namespaced_keyword() __ alias:(":as" __ alias:raw_forward_keyword() __ { alias })? {
let attribute = query::PullConcreteAttribute::Ident(::std::rc::Rc::new(k));
let alias = alias.map(|alias| ::std::rc::Rc::new(alias));
query::PullAttributeSpec::Attribute(
query::NamedPullAttribute {
attribute,
alias: alias,
})
}
rule limit() -> query::Limit
= __ v:variable() __ { query::Limit::Variable(v) }
/ __ n:(raw_octalinteger() / raw_hexinteger() / raw_basedinteger() / raw_integer()) __ {?
if n > 0 {
Ok(query::Limit::Fixed(n as u64))
} else {
Err("expected positive integer")
}
}
rule order() -> query::Order
= __ "(" __ "asc" v:variable() ")" __ { query::Order(query::Direction::Ascending, v) }
/ __ "(" __ "desc" v:variable() ")" __ { query::Order(query::Direction::Descending, v) }
/ v:variable() { query::Order(query::Direction::Ascending, v) }
rule pattern_value_place() -> query::PatternValuePlace
= v:value() {? query::PatternValuePlace::from_value(&v).ok_or("expected pattern_value_place") }
rule pattern_non_value_place() -> query::PatternNonValuePlace
= v:value() {? query::PatternNonValuePlace::from_value(&v).ok_or("expected pattern_non_value_place") }
rule pattern() -> query::WhereClause
= __ "["
src:src_var()?
e:pattern_non_value_place()
a:pattern_non_value_place()
v:pattern_value_place()?
tx:pattern_non_value_place()?
"]" __
{?
let v = v.unwrap_or(query::PatternValuePlace::Placeholder);
let tx = tx.unwrap_or(query::PatternNonValuePlace::Placeholder);
// Pattern::new takes care of reversal of reversed
// attributes: [?x :foo/_bar ?y] turns into
// [?y :foo/bar ?x].
//
// This is a bit messy: the inner conversion to a Pattern can
// fail if the input is something like
//
// ```edn
// [?x :foo/_reversed 23.4]
// ```
//
// because
//
// ```edn
// [23.4 :foo/reversed ?x]
// ```
//
// is nonsense. That leaves us with a nested optional, which we unwrap here.
query::Pattern::new(src, e, a, v, tx)
.map(query::WhereClause::Pattern)
.ok_or("expected pattern")
}
// TODO: This shouldn't be checked at parse time.
rule rule_vars() -> BTreeSet<query::Variable>
= vs:variable()+ {?
let given = vs.len();
let set: BTreeSet<query::Variable> = vs.into_iter().collect();
if given != set.len() {
Err("expected unique variables")
} else {
Ok(set)
}
}
rule or_pattern_clause() -> query::OrWhereClause
= clause:where_clause() { query::OrWhereClause::Clause(clause) }
rule or_and_clause() -> query::OrWhereClause
= __ "(" __ "and" clauses:where_clause()+ ")" __ { query::OrWhereClause::And(clauses) }
rule or_where_clause() -> query::OrWhereClause
= or_pattern_clause()
/ or_and_clause()
rule or_clause() -> query::WhereClause
= __ "(" __ "or" clauses:or_where_clause()+ ")" __ {
query::WhereClause::OrJoin(query::OrJoin::new(query::UnifyVars::Implicit, clauses))
}
rule or_join_clause() -> query::WhereClause
= __ "(" __ "or-join" __ "[" vars:rule_vars() "]" clauses:or_where_clause()+ ")" __ {
query::WhereClause::OrJoin(query::OrJoin::new(query::UnifyVars::Explicit(vars), clauses))
}
rule not_clause() -> query::WhereClause
= __ "(" __ "not" clauses:where_clause()+ ")" __ {
query::WhereClause::NotJoin(query::NotJoin::new(query::UnifyVars::Implicit, clauses))
}
rule not_join_clause() -> query::WhereClause
= __ "(" __ "not-join" __ "[" vars:rule_vars() "]" clauses:where_clause()+ ")" __ {
query::WhereClause::NotJoin(query::NotJoin::new(query::UnifyVars::Explicit(vars), clauses))
}
rule type_annotation() -> query::WhereClause
= __ "[" __ "(" __ "type" var:variable() __ ty:raw_keyword() __ ")" __ "]" __ {
query::WhereClause::TypeAnnotation(
query::TypeAnnotation {
value_type: ty,
variable: var,
})
}
rule pred() -> query::WhereClause
= __ "[" __ "(" func:query_function() args:fn_arg()* ")" __ "]" __ {
query::WhereClause::Pred(
query::Predicate {
operator: func.0,
args: args,
})
}
pub rule where_fn() -> query::WhereClause
= __ "[" __ "(" func:query_function() args:fn_arg()* ")" __ binding:binding() "]" __ {
query::WhereClause::WhereFn(
query::WhereFn {
operator: func.0,
args: args,
binding,
})
}
rule where_clause() -> query::WhereClause
// Right now we only support patterns and predicates. See #239 for more.
= pattern()
/ or_join_clause()
/ or_clause()
/ not_join_clause()
/ not_clause()
/ type_annotation()
/ pred()
/ where_fn()
rule query_part() -> query::QueryPart
= __ ":find" fs:find_spec() { query::QueryPart::FindSpec(fs) }
/ __ ":in" in_vars:variable()+ { query::QueryPart::InVars(in_vars) }
/ __ ":limit" l:limit() { query::QueryPart::Limit(l) }
/ __ ":order" os:order()+ { query::QueryPart::Order(os) }
/ __ ":where" ws:where_clause()+ { query::QueryPart::WhereClauses(ws) }
/ __ ":with" with_vars:variable()+ { query::QueryPart::WithVars(with_vars) }
pub rule parse_query() -> query::ParsedQuery
= __ "[" qps:query_part()+ "]" __ {? query::ParsedQuery::from_parts(qps) }
rule variable() -> query::Variable
= v:value() {? query::Variable::from_value(&v).ok_or("expected variable") }
rule src_var() -> query::SrcVar
= v:value() {? query::SrcVar::from_value(&v).ok_or("expected src_var") }
rule variable_or_placeholder() -> query::VariableOrPlaceholder
= v:variable() { query::VariableOrPlaceholder::Variable(v) }
/ __ "_" __ { query::VariableOrPlaceholder::Placeholder }
rule binding() -> query::Binding
= __ "[" __ "[" vs:variable_or_placeholder()+ "]" __ "]" __ { query::Binding::BindRel(vs) }
/ __ "[" v:variable() "..." __ "]" __ { query::Binding::BindColl(v) }
/ __ "[" vs:variable_or_placeholder()+ "]" __ { query::Binding::BindTuple(vs) }
/ v:variable() { query::Binding::BindScalar(v) }
});

View file

@ -60,7 +60,7 @@ impl Value {
let i = vs
.into_iter()
.map(|v| v.as_doc(allocator))
.intersperse(allocator.space());
.intersperse(allocator.line());
allocator
.text(open)
.append(allocator.concat(i).nest(n))
@ -84,8 +84,8 @@ impl Value {
let xs = vs
.iter()
.rev()
.map(|(k, v)| k.as_doc(pp).append(pp.space()).append(v.as_doc(pp)).group())
.intersperse(pp.space());
.map(|(k, v)| k.as_doc(pp).append(pp.line()).append(v.as_doc(pp)).group())
.intersperse(pp.line());
pp.text("{")
.append(pp.concat(xs).nest(1))
.append(pp.text("}"))

View file

@ -23,10 +23,7 @@ use num::traits::{One, Zero};
use ordered_float::OrderedFloat;
use chrono::{TimeZone, Utc};
use edn::parse::{self, ParseError};
use edn::symbols;
use edn::types::{Span, SpannedValue, Value, ValueAndSpan};
use edn::utils;
use edn::{parse, symbols, types::{Span, SpannedValue, Value, ValueAndSpan}, utils, ParseError};
// Helper for making wrapped keywords with a namespace.
fn k_ns(ns: &str, name: &str) -> Value {

View file

@ -13,10 +13,10 @@ sqlcipher = ["rusqlite/sqlcipher"]
syncable = ["tolstoy_traits", "hyper", "serde_json"]
[dependencies]
failure = "0.1.6"
failure_derive = "0.1.6"
http = "0.2.0"
tokio-core = "0.1.17"
failure = "0.1"
failure_derive = "0.1"
http = "0.2"
tokio-core = "0.1"
uuid = "0.8"
[dependencies.rusqlite]
@ -49,7 +49,7 @@ path = "../tolstoy-traits"
optional = true
[dependencies.hyper]
version = "0.13.1"
version = "0.13"
optional = true
[dependencies.serde_json]

View file

@ -8,8 +8,8 @@ name = "query_algebrizer_traits"
path = "lib.rs"
[dependencies]
failure = "0.1.1"
failure_derive = "0.1.1"
failure = "0.1"
failure_derive = "0.1"
[dependencies.edn]
path = "../edn"

View file

@ -12,9 +12,7 @@ use std; // To refer to std::result::Result.
use core_traits::{ValueType, ValueTypeSet};
use edn::parse::ParseError;
use edn::query::PlainSymbol;
use edn::{ ParseError, query::PlainSymbol };
pub type Result<T> = std::result::Result<T, AlgebrizerError>;

View file

@ -11,8 +11,8 @@ path = "lib.rs"
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.1"
failure_derive = "0.1.1"
failure = "0.1"
failure_derive = "0.1"
[dependencies.rusqlite]
version = "0.21"

View file

@ -7,8 +7,8 @@ workspace = ".."
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.1"
indexmap = "1.3.1"
failure = "0.1"
indexmap = "1.3"
[dependencies.rusqlite]
version = "0.21"

View file

@ -8,8 +8,8 @@ name = "query_pull_traits"
path = "lib.rs"
[dependencies]
failure = "0.1.1"
failure_derive = "0.1.1"
failure = "0.1"
failure_derive = "0.1"
[dependencies.core_traits]
path = "../core-traits"

View file

@ -4,7 +4,7 @@ version = "0.0.1"
workspace = ".."
[dependencies]
rusqlite = "0.21.0"
rusqlite = "0.21"
[dependencies.edn]
path = "../edn"

View file

@ -7,8 +7,8 @@ workspace = ".."
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.1"
ordered-float = "1.0.2"
failure = "0.1"
ordered-float = "1.0"
[dependencies.rusqlite]
version = "0.21"

View file

@ -27,7 +27,7 @@ use mentat_transaction::{
CacheAction, CacheDirection, InProgress, InProgressRead, Pullable, Queryable,
};
use super::conn::Conn;
use crate::conn::Conn;
use public_traits::errors::Result;
@ -37,7 +37,7 @@ use mentat_transaction::query::{PreparedResult, QueryExplanation, QueryInputs, Q
use mentat_tolstoy::{SyncFollowup, SyncReport, SyncResult};
#[cfg(feature = "syncable")]
use super::sync::Syncable;
use crate::sync::Syncable;
/// A convenience wrapper around a single SQLite connection and a Conn. This is suitable
/// for applications that don't require complex connection management.
@ -97,7 +97,7 @@ impl Store {
/// supplied. Fails unless linked against sqlcipher (or something else that
/// supports the Sqlite Encryption Extension).
pub fn open_with_key(path: &str, encryption_key: &str) -> Result<Store> {
let mut connection = ::new_connection_with_key(path, encryption_key)?;
let mut connection = crate::new_connection_with_key(path, encryption_key)?;
let conn = Conn::connect(&mut connection)?;
Ok(Store {
conn: conn,
@ -109,7 +109,7 @@ impl Store {
/// rekey`). Fails unless linked against sqlcipher (or something else that supports the Sqlite
/// Encryption Extension).
pub fn change_encryption_key(&mut self, new_encryption_key: &str) -> Result<()> {
::change_encryption_key(&self.sqlite, new_encryption_key)?;
crate::change_encryption_key(&self.sqlite, new_encryption_key)?;
Ok(())
}
}

View file

@ -11,9 +11,9 @@ path = "lib.rs"
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.1"
failure_derive = "0.1.1"
http = "0.2.0"
failure = "0.1"
failure_derive = "0.1"
http = "0.2"
hyper = "0.13"
serde_json = "1.0"
uuid = { version = "0.8" }

View file

@ -9,20 +9,20 @@ authors = ["Grisha Kruglov <gkruglov@mozilla.com>"]
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.6"
failure = "0.1"
futures = "0.3"
hyper = "0.13"
hyper-tls = "0.4.1"
hyper-tls = "0.4"
http = "0.2"
log = "0.4"
mime = "0.3.16"
mime = "0.3"
#tokio = { version = "0.2", features = ["full"] }
tokio-core = "0.1"
serde = "1.0"
serde_json = "1.0"
serde_cbor = "0.11.1"
serde_cbor = "0.11"
serde_derive = "1.0"
lazy_static = "1.4.0"
lazy_static = "1.4"
uuid = { version = "0.8", features = ["v4", "serde"] }
[dependencies.edn]

View file

@ -19,19 +19,19 @@ doc = false
test = false
[dependencies]
combine = "4.0.0-beta.2"
dirs = "2.0.2"
env_logger = "0.7.1"
failure = "0.1.6"
failure_derive = "0.1.6"
combine = "4.0"
dirs = "2.0"
env_logger = "0.7"
failure = "0.1"
failure_derive = "0.1"
getopts = "0.2"
lazy_static = "1.4.0"
linefeed = "0.6.0"
lazy_static = "1.4"
linefeed = "0.6"
log = "0.4"
tabwriter = "1"
tempfile = "3.1.0"
termion = "1"
time = "0.2.2"
tempfile = "3.1"
termion = "1.5"
time = "0.2"
[dependencies.rusqlite]
version = "0.21"

View file

@ -7,7 +7,7 @@ workspace = ".."
sqlcipher = ["rusqlite/sqlcipher"]
[dependencies]
failure = "0.1.1"
failure = "0.1"
[dependencies.edn]
path = "../edn"