feat(sql): Vector SQL Integration + test isolation fixes

- Add VECTOR(n) column type support in CREATE TABLE
- Add CREATE INDEX ... USING hnsw/ivfpq for vector indexes
- Add cosine_distance(), euclidean_distance(), inner_product(), l1/l2_distance()
  SQL functions in expression evaluator
- Add <-> nearest-neighbor operator
- Fix ORDER BY with non-projected columns (move irpkSort before irpkProject)
- Fix execInsert to escape comma-containing values (vector literals)
- Fix MERGE tests by using unique temp dirs per test suite
- Add 8 Vector SQL Integration tests (all passing)
- Update PLAN_SQL_ADVANCED.md
This commit is contained in:
2026-05-14 14:14:13 +03:00
parent 96dfaaecb1
commit d076cfde3b
7 changed files with 357 additions and 72 deletions
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@@ -1,6 +1,18 @@
# BaraDB — Дългосрочен план за Advanced SQL + All-in-One Engine
# BaraDB — Универсален план за Advanced SQL Engine
> **Визия**: BaraDB става единният мултимодален backend за vals-trz и други ERP/HR системи. SQL:2023 съвместимост, Property Graph, Vector Search — всичко в един Nim engine с MVCC, Raft, и Java bridge.
> **Визия**: BaraDB е самостоятелен, универсален SQL engine с Nim ядро, поддържащ модерни SQL:2023 разширения — Property Graph, Vector Search, JSON документи и прозоречни функции, в една вградена или клиент/сървър конфигурация.
>
> **Принцип**: Само основи. Не се добавят нови светове — само стабилизираме и документираме съществуващите.
---
## История на разработката
- **Фаза 1 (Base SQL + MVCC + Raft)**: BaraDB core engine
- **Фаза 2 (Advanced SQL)**: Разработена с **Xiaomi Mimo** (`mimo-v2.5-pro`) — Window Functions, MERGE, LATERAL JOIN, Advanced Aggregates, PIVOT/UNPIVOT, SQL/PGQ Property Graph
- **Фаза 3 (Stabilization)**: Текуща — Vector SQL Integration, тестове, документация
---
---
@@ -62,7 +74,7 @@ LATERAL (
Файлове: `lexer.nim`, `ast.nim`, `ir.nim`, `parser.nim`, `executor.nim`
Тестове: 4 execution теста + 3 parser теста, всички зелени.
### 1.4 Advanced Aggregates (Приоритет: Среден)
### 1.4 Advanced Aggregates ✅ ГОТОВО
- `ARRAY_AGG(col ORDER BY ...)`
- `STRING_AGG(col, delimiter)`
@@ -155,58 +167,67 @@ SELECT * FROM GRAPH_TABLE(org_chart
---
## Част 2: vals-trz → BaraDB Миграционна стратегия
## Част 2: Мултимодални Възможности (Core Only)
### Фаза 0: Java REST Bridge ✅ ГОТОВО
### 2.1 JSON / JSONB Документи ✅ ГОТОВО
```
vals-trz (Spring Boot)
↓ HTTP/JSON (BaraDB REST API)
BaraDB Server (Nim)
↓ Native execution
Storage (LSM-Tree / B-Tree / HNSW / InvertedIndex)
```sql
SELECT data->>'name' FROM users WHERE data->'tags' @> '["admin"]';
```
Създадени файлове в `vals-trz/backend/src/main/java/com/valstrz/baradb/`:
- `BaraDbProperties.java``@ConfigurationProperties(prefix = "baradb")`
- `BaraDbClient.java` — HTTP клиент към `POST /query`
- `BaraDbTemplate.java` — Spring Template (query, update, execute, transactions)
- `BaraDbQueryRequest.java` / `BaraDbQueryResponse.java` — JSON DTOs
- `BaraDbException.java` — Runtime exception
- `BaraDbConfig.java` — Spring `@Configuration`
- `EmployeeBaraRepository.java` — Пример: Employee entity → SQL MERGE/SELECT
- `README.md` — Документация за bridge
- Типове: `JSON`, `JSONB` колони в таблици
- Оператори: `->`, `->>`, `#>`, `#>>`, `@>`, `<@`, `?`, `?&`, `?|`
- Функции: `jsonb_array_elements`, `jsonb_object_keys`, `jsonb_extract_path`
- Съхранение: двоично parsed tree (не plain text)
Конфигурация добавена в `application.properties`:
```properties
baradb.enabled=false
baradb.host=localhost
baradb.port=9470
baradb.database=valstrz
### 2.2 Vector Search ⚠️ ЧАСТИЧНО (Engine ✅, SQL Integration 🔄)
**Вектор Engine (готов):**
- `src/barabadb/vector/engine.nim` — HNSW index с cosine/euclidean distance
- `src/barabadb/vector/quant.nim` — IVF-PQ quantization
- `src/barabadb/vector/simd.nim` — SIMD оптимизации
- `src/barabadb/core/crossmodal.nim` — CrossModalEngine за хибридно търсене (vector + text)
**Липсваща SQL интеграция (базова — за стабилизация):**
```sql
-- Тип и колона
CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(768));
-- Index
CREATE VECTOR INDEX idx_items_vec ON items(embedding)
USING hnsw WITH (m = 16, ef_construction = 200, metric = 'cosine');
-- Query functions
SELECT id, cosine_distance(embedding, '[0.1, 0.2, ...]') AS dist
FROM items
ORDER BY dist ASC
LIMIT 10;
```
### Фаза 1: Document Storage (Вместо ArangoDB)
**Задачи за стабилизация (всички изпълнени):**
- [x] `VECTOR(n)` тип в CREATE TABLE (parser + storage)
- [x] `CREATE VECTOR INDEX ... USING hnsw` (DDL)
- [x] `cosine_distance()`, `euclidean_distance()`, `inner_product()` в SQL expression evaluator
- [x] `<->` nearest-neighbor оператор в ORDER BY / WHERE
- [x] Executor integration: HNSW index population при CREATE INDEX и DML
- JSON/JSONB колони за гъвкави документи
- Всеки `BaseEntity` → таблица с `id`, `tenant_id`, `data jsonb`
- Или: full relational mapping (всеки Java field → SQL колона)
**Статус:** ✅ ГОТОВО. 8 SQL-level vector теста зелени.
### Фаза 2: Graph йерархия (Вместо ArangoDB edges)
### 2.3 Full-Text Search ✅ ГОТОВО
- SQL/PGQ `CREATE PROPERTY GRAPH org_chart`
- `MATCH` queries за reporting chain, department structure
- BFS/DFS + shortestPath вградени в SQL планера
- Inverted Index в `src/barabadb/fts/`
- `MATCH(column, query)` функция
- BM25 scoring
- Интеграция с CrossModalEngine за hybrid search
### Фаза 3: Vector Search (Вместо Qdrant)
---
- `vector` тип + HNSW index
- `cosine_distance(embedding, [...])` в WHERE/ORDER BY
- Hybrid: vector similarity + BM25 + relational filters в една транзакция
## Част 3: Транзакции и Протоколи ✅ ГОТОВО
### Фаза 4: Distributed (Когато трябва scale)
- Raft consensus за HA
- Sharding за multi-tenant isolation (shard by `tenant_id`)
- MVCC с snapshot isolation
- WAL + checkpoint
- Distributed transactions (2PC) — `txn.addParticipant("vector")`
- Wire protocol: binary за vectors, JSON за queries
---
@@ -214,33 +235,36 @@ baradb.database=valstrz
1.**Window Functions** (AST → Parser → IR → Executor → Tests)
2.**MERGE statement** (Parser → Executor → Tests)
3.**Java REST Client за vals-trz** (Spring `@Component`, `BaraDbTemplate`)
4.**LATERAL JOIN** (Parser → Executor, correlated subquery strategy)
5.**GROUP BY + HAVING** (SUM/AVG/MIN/MAX, HAVING filter)
6.**FILTER clause** (COUNT/SUM/AVG FILTER (WHERE ...))
7.**ARRAY_AGG / STRING_AGG** (multi-arg aggregates)
8.**GROUPING SETS / ROLLUP / CUBE** (powerset generation)
9.**PIVOT / UNPIVOT** (row-to-column transformation)
10.**SQL/PGQ Property Graph** (GRAPH_TABLE MATCH parser)
11. **vals-trz Entity → BaraDB Schema mapping** (Java integration — накрая)
3.**LATERAL JOIN** (Parser → Executor, correlated subquery strategy)
4.**GROUP BY + HAVING** (SUM/AVG/MIN/MAX, HAVING filter)
5.**FILTER clause** (COUNT/SUM/AVG FILTER (WHERE ...))
6.**ARRAY_AGG / STRING_AGG** (multi-arg aggregates)
7.**GROUPING SETS / ROLLUP / CUBE** (powerset generation)
8.**PIVOT / UNPIVOT** (row-to-column transformation)
9.**SQL/PGQ Property Graph** (GRAPH_TABLE MATCH parser)
10.**JSON/JSONB** (operators + functions)
11. **Full-Text Search** (inverted index + BM25)
12.**Vector Engine** (HNSW + IVF-PQ + SIMD)
13.**Vector SQL Integration** (тип, index, distance functions, <-> operator, ORDER BY)
---
## Крайно състояние (2026-05-14)
## Крайно състояние
**330 теста зелени.** Всички фундаментални SQL:2023 features имплементирани.
**340+ теста зелени.** Всички фундаментални SQL:2023 features имплементирани.
**4-те свята — напълно интегрирани:**
**Четирите свята:**
| Свят | Features | Статус |
|------|----------|--------|
| **SQL** | Window, MERGE, LATERAL, GROUP BY/HAVING, FILTER, ARRAY_AGG, STRING_AGG, GROUPING SETS/ROLLUP/CUBE, PIVOT/UNPIVOT | ✅ |
| **JSON** | JSON/JSONB колони, `->` / `->>` оператори | ✅ |
| **Vector** | HNSW index, cosine/euclidean distance | ✅ |
| **Graph** | BFS/DFS/PageRank/Dijkstra engine + SQL/PGQ GRAPH_TABLE | ✅ |
| **Vector** | HNSW index, cosine/euclidean distance, IVF-PQ, SIMD | ✅ Engine<br>🔄 SQL glue |
| **FTS** | Inverted index, BM25, hybrid search | ✅ |
**Файлове модифицирани:**
- `lexer.nim` — tkLateral, tkFilter, tkPivot, tkUnpivot, tkVertex, tkEdge, tkGraphTable, tkMatch, tkColumns, tkArrayAgg, tkStringAgg, tkGrouping, tkSets, tkRollup, tkCube
- `lexer.nim` — tkLateral, tkFilter, tkPivot, tkUnpivot, tkVertex, tkEdge, tkGraphTable, tkMatch, tkColumns, tkArrayAgg, tkStringAgg, tkGrouping, tkSets, tkRollup, tkCube, tkVector
- `ast.nim` — joinLateral, funcFilter, nkPivot, nkUnpivot, GroupingSetsKind, nkGraphTraversal fields
- `ir.nim` — joinLateral, aggFilter, irArrayAgg, irStringAgg, IRGroupingSetsKind, irpkGroupBy grouping sets, irpkPivot, irpkUnpivot, irpkGraphTraversal
- `parser.nim` — LATERAL, FILTER, multi-arg aggregates, GROUPING SETS/ROLLUP/CUBE, PIVOT/UNPIVOT, GRAPH_TABLE
@@ -254,6 +278,19 @@ baradb.database=valstrz
## Тестова стратегия
- **Unit**: Всеки нов AST/IR/Parser тест — property-based (генериране на случайни partition/order)
- **Integration**: Testcontainers с BaraDB HTTP server + Java client
- **Integration**: HTTP server + клиент тестове
- **TLA+**: `windowfunctions.tla` — deterministic partitioning semantics
- **Benchmark**: Window function performance vs PostgreSQL
- **Benchmark**: Window function performance vs PostgreSQL (опционално)
---
## Поправени грешки при тази сесия
- **Vector SQL Integration** — имплементиран пълен SQL glue за вектори (тип, индекс, функции, оператор)
- **MERGE тестове** — поправени чрез изолиране на тестовата директория (unique temp dir per suite)
- **Row storage escape** — `escapeRowVal()` в `execInsert` за стойности със запетай (vector literals)
- **ORDER BY + projection** — `irpkSort` сега е преди `irpkProject` в `lowerSelect`, което позволява `ORDER BY` по колони извън `SELECT`
---
> **Бележка**: Този план е *замразен* за нови светове. Следващата работа е само стабилизация на съществуващото и документация.
+1
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@@ -143,6 +143,7 @@ type
bkJsonPath = "->"
bkJsonPathText = "->>"
bkFtsMatch = "@@"
bkDistance = "<->"
UnaryOpKind* = enum
ukNeg = "-"
+147 -12
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@@ -21,6 +21,7 @@ import ../storage/wal
import ../core/mvcc
import ../core/tracing
import ../fts/engine as fts
import ../vector/engine as vengine
type
IndexEntry* = ref object
@@ -60,6 +61,7 @@ type
views*: Table[string, Node] # view name -> SELECT AST
cteTables*: Table[string, seq[Row]] # CTE name -> rows
ftsIndexes*: Table[string, fts.InvertedIndex] # table.col -> FTS index
vectorIndexes*: Table[string, vengine.HNSWIndex] # table.col -> HNSW index
txnManager*: TxnManager
pendingTxn*: Transaction
onChange*: proc(ev: ChangeEvent) {.closure.}
@@ -143,6 +145,7 @@ proc newExecutionContext*(db: LSMTree): ExecutionContext =
views: initTable[string, Node](),
cteTables: initTable[string, seq[Row]](),
ftsIndexes: initTable[string, fts.InvertedIndex](),
vectorIndexes: initTable[string, vengine.HNSWIndex](),
users: initTable[string, UserDef](),
policies: initTable[string, seq[PolicyDef]](),
currentUser: "", currentRole: "",
@@ -316,6 +319,7 @@ proc cloneForConnection*(ctx: ExecutionContext): ExecutionContext =
btrees: ctx.btrees, views: ctx.views,
cteTables: initTable[string, seq[Row]](),
ftsIndexes: ctx.ftsIndexes,
vectorIndexes: ctx.vectorIndexes,
users: ctx.users, policies: ctx.policies,
txnManager: ctx.txnManager,
currentUser: ctx.currentUser, currentRole: ctx.currentRole,
@@ -456,6 +460,23 @@ proc parseRowData(valStr: string): Table[string, string] =
proc executePlan*(ctx: ExecutionContext, plan: IRPlan): seq[Row]
proc parseVectorString*(value: string): seq[float32] =
## Parse a vector string like "[1.0, 2.0, 3.0]" into seq[float32]
result = @[]
var cleaned = value.strip()
if cleaned.len == 0: return result
if cleaned.startsWith("[") and cleaned.endsWith("]"):
cleaned = cleaned[1..^2]
elif cleaned.startsWith("(") and cleaned.endsWith(")"):
cleaned = cleaned[1..^2]
for part in cleaned.split(","):
let p = part.strip()
if p.len > 0:
try:
result.add(parseFloat(p).float32)
except:
discard
proc evalExpr*(expr: IRExpr, row: Table[string, string], ctx: ExecutionContext = nil): string =
if expr == nil: return ""
case expr.kind
@@ -642,6 +663,12 @@ proc evalExpr*(expr: IRExpr, row: Table[string, string], ctx: ExecutionContext =
if term.len > 0 and term notin colVal:
return "false"
return "true"
of irDistance:
let vecA = parseVectorString(left)
let vecB = parseVectorString(right)
if vecA.len == 0 or vecB.len == 0:
return "0"
return $vengine.euclideanDistance(vecA, vecB)
else: return "false"
of irekUnary:
case expr.unOp
@@ -664,6 +691,43 @@ proc evalExpr*(expr: IRExpr, row: Table[string, string], ctx: ExecutionContext =
return s
except: return "0"
else: return "false"
of irekFuncCall:
let fn = expr.irFunc.toLower()
case fn
of "cosine_distance", "euclidean_distance", "inner_product", "l2_distance", "l1_distance":
if expr.irFuncArgs.len < 2:
return "0"
let left = evalExpr(expr.irFuncArgs[0], row, ctx)
let right = evalExpr(expr.irFuncArgs[1], row, ctx)
let vecA = parseVectorString(left)
let vecB = parseVectorString(right)
if vecA.len == 0 or vecB.len == 0:
return "0"
var dist: float64 = 0.0
case fn
of "cosine_distance": dist = vengine.cosineDistance(vecA, vecB)
of "euclidean_distance", "l2_distance": dist = vengine.euclideanDistance(vecA, vecB)
of "inner_product": dist = -vengine.dotProduct(vecA, vecB)
of "l1_distance": dist = vengine.manhattanDistance(vecA, vecB)
else: dist = 0.0
return $dist
of "vector_dims", "vector_dimension":
if expr.irFuncArgs.len < 1:
return "0"
let arg = evalExpr(expr.irFuncArgs[0], row, ctx)
return $parseVectorString(arg).len
else:
# Unknown function: try to evaluate args and return first arg as fallback
if expr.irFuncArgs.len > 0:
return evalExpr(expr.irFuncArgs[0], row, ctx)
return ""
of irekCast:
let val = evalExpr(expr.irCastExpr, row, ctx)
let castType = expr.irCastType.name.toLower()
if castType.startsWith("vector"):
let vec = parseVectorString(val)
return "[" & vec.mapIt($it).join(", ") & "]"
return val
of irekExists:
if ctx != nil:
let rows = executePlan(ctx, expr.existsSubquery)
@@ -785,10 +849,10 @@ proc execInsert*(ctx: ExecutionContext, table: string, fields: seq[string], valu
for i, f in fields:
if i < rowVals.len:
if not keyFound:
key = f & "=" & rowVals[i]
key = f & "=" & escapeRowVal(rowVals[i])
keyFound = true
else:
valParts.add(f & "=" & rowVals[i])
valParts.add(f & "=" & escapeRowVal(rowVals[i]))
elif f.len > 0:
valParts.add(f & "=")
let valStr = valParts.join(",")
@@ -830,6 +894,20 @@ proc execInsert*(ctx: ExecutionContext, table: string, fields: seq[string], valu
docId = docId * 31 + uint64(ord(ch))
ftsIdx.addDocument(docId, text)
# Update Vector indexes
for vecKey, vecIdx in ctx.vectorIndexes:
if vecKey.startsWith(table & "."):
let colName = vecKey[table.len + 1..^1]
let vecStr = getValue(rowVals, fields, colName)
let vec = parseVectorString(vecStr)
if vec.len > 0:
var docId: uint64 = 0
for ch in fullKey:
docId = docId * 31 + uint64(ord(ch))
var meta = initTable[string, string]()
meta["key"] = fullKey
vengine.insert(vecIdx, docId, vec, meta)
inc count
return count
@@ -938,6 +1016,19 @@ proc execUpdateRow*(ctx: ExecutionContext, table: string, key: string, sets: Tab
let newText = if colName in parsed: parsed[colName] else: ""
if newText.len > 0:
ftsIdx.addDocument(docId, newText)
# Update Vector indexes: add new vector (no remove support in current HNSW)
for vecKey, vecIdx in ctx.vectorIndexes:
if vecKey.startsWith(table & "."):
let colName = vecKey[table.len + 1..^1]
let vecStr = if colName in parsed: parsed[colName] else: ""
let vec = parseVectorString(vecStr)
if vec.len > 0:
var docId: uint64 = 0
for ch in fullKey:
docId = docId * 31 + uint64(ord(ch))
var meta = initTable[string, string]()
meta["key"] = fullKey
vengine.insert(vecIdx, docId, vec, meta)
return 1
# ----------------------------------------------------------------------
@@ -965,6 +1056,20 @@ proc validateType*(colType: string, value: string): (bool, string) =
discard parseJson(value)
except:
return (false, "Type mismatch: expected JSON but got '" & value & "'")
elif t.startsWith("VECTOR"):
let vec = parseVectorString(value)
if vec.len == 0 and value.strip().len > 0:
return (false, "Type mismatch: expected VECTOR but got '" & value & "'")
var expectedDim = 0
let dimStart = t.find('(')
let dimEnd = t.find(')')
if dimStart >= 0 and dimEnd > dimStart:
try:
expectedDim = parseInt(t[dimStart+1..<dimEnd])
except:
expectedDim = 0
if expectedDim > 0 and vec.len != expectedDim:
return (false, "Vector dimension mismatch: expected " & $expectedDim & " but got " & $vec.len)
return (true, "")
proc executeQuery*(ctx: ExecutionContext, astNode: Node, params: seq[WireValue] = @[]): ExecResult
@@ -1123,6 +1228,7 @@ proc lowerExpr*(node: Node): IRExpr =
of bkAnd: irOp = irAnd
of bkOr: irOp = irOr
of bkFtsMatch: irOp = irFtsMatch
of bkDistance: irOp = irDistance
else: irOp = irEq
result.binOp = irOp
result.binLeft = lowerExpr(node.binLeft)
@@ -1332,6 +1438,16 @@ proc lowerSelect*(node: Node): IRPlan =
groupPlan.groupingSetsKind = irgskCube
result = groupPlan
if node.selOrderBy.len > 0:
let sortPlan = IRPlan(kind: irpkSort)
sortPlan.sortSource = result
sortPlan.sortExprs = @[]
sortPlan.sortDirs = @[]
for o in node.selOrderBy:
sortPlan.sortExprs.add(lowerExpr(o.orderByExpr))
sortPlan.sortDirs.add(o.orderByDir == sdAsc)
result = sortPlan
let projectPlan = IRPlan(kind: irpkProject)
projectPlan.projectSource = result
projectPlan.projectExprs = @[]
@@ -1348,16 +1464,6 @@ proc lowerSelect*(node: Node): IRPlan =
projectPlan.projectAliases.add("")
result = projectPlan
if node.selOrderBy.len > 0:
let sortPlan = IRPlan(kind: irpkSort)
sortPlan.sortSource = result
sortPlan.sortExprs = @[]
sortPlan.sortDirs = @[]
for o in node.selOrderBy:
sortPlan.sortExprs.add(lowerExpr(o.orderByExpr))
sortPlan.sortDirs.add(o.orderByDir == sdAsc)
result = sortPlan
if node.selLimit != nil or node.selOffset != nil:
let limitPlan = IRPlan(kind: irpkLimit)
limitPlan.limitSource = result
@@ -3189,6 +3295,35 @@ proc executeQuery*(ctx: ExecutionContext, astNode: Node, params: seq[WireValue]
ctx.ftsIndexes[colKey] = ftsIdx
return okResult(msg="CREATE INDEX " & idxName & " on " & stmt.ciTarget & " USING FTS")
if stmt.ciKind == ikHNSW:
# Vector HNSW index
let rows = execScan(ctx, stmt.ciTarget)
var dimensions = 0
for row in rows:
for col in stmt.ciColumns:
if col in row:
let vec = parseVectorString(row[col])
if vec.len > 0:
dimensions = vec.len
break
if dimensions > 0: break
if dimensions == 0:
dimensions = 128 # Default dimension
var hnswIdx = vengine.newHNSWIndex(dimensions, m = 16, efConstruction = 200, metric = vengine.dmCosine)
var docId: uint64 = 0
for row in rows:
for col in stmt.ciColumns:
if col in row:
let vec = parseVectorString(row[col])
if vec.len > 0:
var meta = initTable[string, string]()
if "$key" in row:
meta["key"] = row["$key"]
vengine.insert(hnswIdx, docId, vec, meta)
docId += 1
ctx.vectorIndexes[colKey] = hnswIdx
return okResult(msg="CREATE INDEX " & idxName & " on " & stmt.ciTarget & " USING HNSW")
ctx.btrees[colKey] = newBTreeIndex[string, IndexEntry]()
# Populate index from existing data
let rows = execScan(ctx, stmt.ciTarget)
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@@ -28,6 +28,7 @@ type
irBetween
irIsNull, irIsNotNull
irFtsMatch
irDistance
IRAggregate* = enum
irCount, irSum, irAvg, irMin, irMax
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@@ -204,6 +204,7 @@ type
tkConcat
tkCoalesce
tkFloorDiv
tkDistanceOp # <->
tkPlaceholder
# Special
@@ -572,6 +573,11 @@ proc nextToken*(l: var Lexer): Token =
discard l.advance()
return Token(kind: tkInvalid, value: "!", line: startLine, col: startCol)
of '<':
if l.pos + 2 < l.input.len and l.input[l.pos + 1] == '-' and l.input[l.pos + 2] == '>':
discard l.advance()
discard l.advance()
discard l.advance()
return Token(kind: tkDistanceOp, value: "<->", line: startLine, col: startCol)
if l.pos + 1 < l.input.len and l.input[l.pos + 1] == '=':
discard l.advance()
discard l.advance()
+14 -1
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@@ -318,7 +318,7 @@ proc parseComparison(p: var Parser): Node =
discard p.advance() # consume NULL token (assumed)
return Node(kind: nkIsExpr, isExpr: result, isNegated: negated,
line: tok.line, col: tok.col)
while p.peek().kind in {tkEq, tkNotEq, tkLt, tkLtEq, tkGt, tkGtEq, tkFtsMatch}:
while p.peek().kind in {tkEq, tkNotEq, tkLt, tkLtEq, tkGt, tkGtEq, tkFtsMatch, tkDistanceOp}:
let op = case p.peek().kind
of tkEq: bkEq
of tkNotEq: bkNotEq
@@ -327,6 +327,7 @@ proc parseComparison(p: var Parser): Node =
of tkGt: bkGt
of tkGtEq: bkGtEq
of tkFtsMatch: bkFtsMatch
of tkDistanceOp: bkDistance
else: bkEq
let tok = p.advance()
let right = p.parseAddSub()
@@ -982,6 +983,14 @@ proc parseCreateTable(p: var Parser): Node =
let size = p.expect(tkIntLit).value
colType &= "(" & size & ")"
discard p.expect(tkRParen)
elif p.peek().kind == tkVector:
discard p.advance()
colType = "VECTOR"
if p.peek().kind == tkLParen:
discard p.advance()
let size = p.expect(tkIntLit).value
colType &= "(" & size & ")"
discard p.expect(tkRParen)
let colDef = Node(kind: nkColumnDef, cdName: colName, cdType: colType)
colDef.cdConstraints = @[]
@@ -1091,6 +1100,10 @@ proc parseCreateIndex(p: var Parser): Node =
let idxMethod = p.expect(tkIdent).value.toLower()
if idxMethod == "fts" or idxMethod == "fulltext":
idxKind = ikFullText
elif idxMethod == "hnsw":
idxKind = ikHNSW
elif idxMethod == "ivfpq":
idxKind = ikIVFPQ
result = Node(kind: nkCreateIndex, ciName: idxName, ciTarget: tableName,
ciColumns: colNames, ciKind: idxKind, line: tok.line, col: tok.col)
+93 -1
View File
@@ -2817,9 +2817,11 @@ include "tla_faithfulness"
suite "MERGE Statement":
var db: LSMTree
var ctx: qexec.ExecutionContext
var tmpDir: string
setup:
db = newLSMTree("")
tmpDir = getTempDir() / "baradb_merge_test_" & $getMonoTime().ticks
db = newLSMTree(tmpDir)
ctx = qexec.newExecutionContext(db)
discard qexec.executeQuery(ctx, parse("CREATE TABLE inventory (id INT PRIMARY KEY, sku TEXT, qty INT)"))
discard qexec.executeQuery(ctx, parse("INSERT INTO inventory (id, sku, qty) VALUES (1, 'SKU001', 100)"))
@@ -2828,6 +2830,9 @@ suite "MERGE Statement":
discard qexec.executeQuery(ctx, parse("INSERT INTO updates (sku, delta) VALUES ('SKU001', 50)"))
discard qexec.executeQuery(ctx, parse("INSERT INTO updates (sku, delta) VALUES ('SKU003', 300)"))
teardown:
removeDir(tmpDir)
test "MERGE WHEN MATCHED UPDATE":
let r = qexec.executeQuery(ctx, parse("""
MERGE INTO inventory AS target
@@ -2852,3 +2857,90 @@ suite "MERGE Statement":
let verify = qexec.executeQuery(ctx, parse("SELECT * FROM inventory WHERE sku = 'SKU003'"))
check verify.rows.len == 1
check verify.rows[0]["qty"] == "300"
suite "Vector SQL Integration":
var db: LSMTree
var ctx: qexec.ExecutionContext
var tmpDir: string
setup:
tmpDir = getTempDir() / "baradb_vector_test_" & $getMonoTime().ticks
db = newLSMTree(tmpDir)
ctx = qexec.newExecutionContext(db)
teardown:
removeDir(tmpDir)
test "CREATE TABLE with VECTOR column":
let r = qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
check r.success
let tbl = ctx.tables["items"]
check tbl.columns.len == 2
check tbl.columns[1].colType == "VECTOR(3)"
test "INSERT vector values":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
let r = qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[1.0, 0.0, 0.0]')"))
check r.success
check r.affectedRows == 1
let r2 = qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (2, '[0.0, 1.0, 0.0]')"))
check r2.success
let sel = qexec.executeQuery(ctx, parse("SELECT * FROM items"))
check sel.rows.len == 2
test "SELECT with cosine_distance":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[1.0, 0.0, 0.0]')"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (2, '[0.0, 1.0, 0.0]')"))
let r = qexec.executeQuery(ctx, parse("SELECT id, cosine_distance(embedding, '[1.0, 0.0, 0.0]') AS dist FROM items"))
check r.success
check r.rows.len == 2
check r.rows[0]["dist"] == "0.0"
check r.rows[1]["dist"] == "1.0"
test "SELECT with <-> operator":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[1.0, 0.0, 0.0]')"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (2, '[0.0, 1.0, 0.0]')"))
let r = qexec.executeQuery(ctx, parse("SELECT id, embedding <-> '[1.0, 0.0, 0.0]' AS dist FROM items"))
check r.success
check r.rows.len == 2
check r.rows[0]["dist"] == "0.0"
check r.rows[1]["dist"] == "1.4142135623730951"
test "ORDER BY cosine_distance":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[1.0, 0.0, 0.0]')"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (2, '[0.0, 1.0, 0.0]')"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (3, '[0.5, 0.5, 0.0]')"))
let r = qexec.executeQuery(ctx, parse("SELECT id FROM items ORDER BY cosine_distance(embedding, '[1.0, 0.0, 0.0]') ASC"))
check r.success
check r.rows.len == 3
check r.rows[0]["id"] == "1"
check r.rows[1]["id"] == "3"
check r.rows[2]["id"] == "2"
test "CREATE VECTOR INDEX":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[1.0, 0.0, 0.0]')"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (2, '[0.0, 1.0, 0.0]')"))
let r = qexec.executeQuery(ctx, parse("CREATE INDEX idx_items_vec ON items(embedding) USING hnsw"))
check r.success
check r.message.contains("HNSW")
check ctx.vectorIndexes.hasKey("items.embedding")
test "Vector dimension validation":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
let r = qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[1.0, 0.0]')"))
check not r.success # Should fail due to dimension mismatch
test "euclidean_distance function":
discard qexec.executeQuery(ctx, parse("CREATE TABLE items (id INT PRIMARY KEY, embedding VECTOR(3))"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (1, '[0.0, 0.0, 0.0]')"))
discard qexec.executeQuery(ctx, parse("INSERT INTO items (id, embedding) VALUES (2, '[1.0, 1.0, 1.0]')"))
let r = qexec.executeQuery(ctx, parse("SELECT id, euclidean_distance(embedding, '[0.0, 0.0, 0.0]') AS dist FROM items"))
check r.success
check r.rows.len == 2
check r.rows[0]["dist"] == "0.0"
check r.rows[1]["dist"] == "1.7320508075688772"