Add filtering capabilities to ExpandOne request (#581)

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gvolfing 2022-10-20 17:51:44 +02:00 committed by GitHub
parent f89a2bbf42
commit 281cebd386
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4 changed files with 319 additions and 77 deletions

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@ -399,13 +399,14 @@ struct ExpandOneRequest {
std::optional<std::vector<PropertyId>> src_vertex_properties;
// The empty optional means return all of the properties, while an empty list means do not return any properties
std::optional<std::vector<PropertyId>> edge_properties;
// QUESTION(antaljanosbenjamin): Maybe also add possibility to expressions evaluated on the source vertex?
// List of expressions evaluated on edges
std::vector<Expression> expressions;
std::vector<std::string> vertex_expressions;
std::vector<std::string> edge_expressions;
std::optional<std::vector<OrderBy>> order_by;
// Limit the edges or the vertices?
std::optional<size_t> limit;
std::optional<Filter> filter;
std::vector<std::string> filters;
};
struct ExpandOneResultRow {

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@ -12,6 +12,7 @@
#include <algorithm>
#include <functional>
#include <iterator>
#include <unordered_set>
#include <utility>
#include "parser/opencypher/parser.hpp"
@ -50,6 +51,24 @@ using conversions::ToPropertyValue;
namespace {
namespace msgs = msgs;
using AllEdgePropertyDataSructure = std::map<PropertyId, msgs::Value>;
using SpecificEdgePropertyDataSructure = std::vector<msgs::Value>;
using AllEdgeProperties = std::tuple<msgs::VertexId, msgs::Gid, AllEdgePropertyDataSructure>;
using SpecificEdgeProperties = std::tuple<msgs::VertexId, msgs::Gid, SpecificEdgePropertyDataSructure>;
using SpecificEdgePropertiesVector = std::vector<SpecificEdgeProperties>;
using AllEdgePropertiesVector = std::vector<AllEdgeProperties>;
using EdgeAccessors = std::vector<memgraph::storage::v3::EdgeAccessor>;
using EdgeFiller = std::function<bool(const EdgeAccessor &edge, bool is_in_edge, msgs::ExpandOneResultRow &result_row)>;
using EdgeUniqunessFunction = std::function<EdgeAccessors(EdgeAccessors &&, memgraph::msgs::EdgeDirection)>;
struct VertexIdCmpr {
bool operator()(const storage::v3::VertexId *lhs, const storage::v3::VertexId *rhs) const { return *lhs < *rhs; }
};
std::vector<std::pair<PropertyId, PropertyValue>> ConvertPropertyMap(
std::vector<std::pair<PropertyId, Value>> &&properties) {
std::vector<std::pair<PropertyId, PropertyValue>> ret;
@ -392,7 +411,8 @@ std::optional<std::map<PropertyId, Value>> FillUpSourceVertexProperties(const st
}
std::optional<std::array<std::vector<EdgeAccessor>, 2>> FillUpConnectingEdges(
const std::optional<VertexAccessor> &v_acc, const msgs::ExpandOneRequest &req) {
const std::optional<VertexAccessor> &v_acc, const msgs::ExpandOneRequest &req,
const EdgeUniqunessFunction &maybe_filter_based_on_edge_uniquness) {
std::vector<EdgeAccessor> in_edges;
std::vector<EdgeAccessor> out_edges;
@ -404,7 +424,8 @@ std::optional<std::array<std::vector<EdgeAccessor>, 2>> FillUpConnectingEdges(
req.transaction_id.logical_id);
return std::nullopt;
}
out_edges = std::move(out_edges_result.GetValue());
out_edges =
maybe_filter_based_on_edge_uniquness(std::move(out_edges_result.GetValue()), msgs::EdgeDirection::OUT);
break;
}
case msgs::EdgeDirection::IN: {
@ -415,7 +436,7 @@ std::optional<std::array<std::vector<EdgeAccessor>, 2>> FillUpConnectingEdges(
.logical_id]);
return std::nullopt;
}
in_edges = std::move(in_edges_result.GetValue());
in_edges = maybe_filter_based_on_edge_uniquness(std::move(in_edges_result.GetValue()), msgs::EdgeDirection::IN);
break;
}
case msgs::EdgeDirection::BOTH: {
@ -425,7 +446,7 @@ std::optional<std::array<std::vector<EdgeAccessor>, 2>> FillUpConnectingEdges(
req.transaction_id.logical_id);
return std::nullopt;
}
in_edges = std::move(in_edges_result.GetValue());
in_edges = maybe_filter_based_on_edge_uniquness(std::move(in_edges_result.GetValue()), msgs::EdgeDirection::IN);
auto out_edges_result = v_acc->OutEdges(View::NEW);
if (out_edges_result.HasError()) {
@ -433,24 +454,14 @@ std::optional<std::array<std::vector<EdgeAccessor>, 2>> FillUpConnectingEdges(
req.transaction_id.logical_id);
return std::nullopt;
}
out_edges = std::move(out_edges_result.GetValue());
out_edges =
maybe_filter_based_on_edge_uniquness(std::move(out_edges_result.GetValue()), msgs::EdgeDirection::OUT);
break;
}
}
return std::array<std::vector<EdgeAccessor>, 2>{in_edges, out_edges};
}
using AllEdgePropertyDataSructure = std::map<PropertyId, msgs::Value>;
using SpecificEdgePropertyDataSructure = std::vector<msgs::Value>;
using AllEdgeProperties = std::tuple<msgs::VertexId, msgs::Gid, AllEdgePropertyDataSructure>;
using SpecificEdgeProperties = std::tuple<msgs::VertexId, msgs::Gid, SpecificEdgePropertyDataSructure>;
using SpecificEdgePropertiesVector = std::vector<SpecificEdgeProperties>;
using AllEdgePropertiesVector = std::vector<AllEdgeProperties>;
using EdgeFiller = std::function<bool(const EdgeAccessor &edge, bool is_in_edge, msgs::ExpandOneResultRow &result_row)>;
template <bool are_in_edges>
bool FillEdges(const std::vector<EdgeAccessor> &edges, const msgs::ExpandOneRequest &req, msgs::ExpandOneResultRow &row,
const EdgeFiller &edge_filler) {
@ -467,8 +478,101 @@ bool FillEdges(const std::vector<EdgeAccessor> &edges, const msgs::ExpandOneRequ
return true;
}
std::optional<msgs::ExpandOneResultRow> GetExpandOneResult(Shard::Accessor &acc, msgs::VertexId src_vertex,
const msgs::ExpandOneRequest &req) {
std::optional<msgs::ExpandOneResultRow> GetExpandOneResult(
Shard::Accessor &acc, msgs::VertexId src_vertex, const msgs::ExpandOneRequest &req,
const EdgeUniqunessFunction &maybe_filter_based_on_edge_uniquness, const EdgeFiller &edge_filler) {
/// Fill up source vertex
const auto primary_key = ConvertPropertyVector(std::move(src_vertex.second));
auto v_acc = acc.FindVertex(primary_key, View::NEW);
auto source_vertex = FillUpSourceVertex(v_acc, req, src_vertex);
if (!source_vertex) {
return std::nullopt;
}
/// Fill up source vertex properties
auto src_vertex_properties = FillUpSourceVertexProperties(v_acc, req);
if (!src_vertex_properties) {
return std::nullopt;
}
/// Fill up connecting edges
auto fill_up_connecting_edges = FillUpConnectingEdges(v_acc, req, maybe_filter_based_on_edge_uniquness);
if (!fill_up_connecting_edges) {
return std::nullopt;
}
auto [in_edges, out_edges] = fill_up_connecting_edges.value();
msgs::ExpandOneResultRow result_row;
result_row.src_vertex = std::move(*source_vertex);
result_row.src_vertex_properties = std::move(*src_vertex_properties);
static constexpr bool kInEdges = true;
static constexpr bool kOutEdges = false;
if (!in_edges.empty() && !FillEdges<kInEdges>(in_edges, req, result_row, edge_filler)) {
return std::nullopt;
}
if (!out_edges.empty() && !FillEdges<kOutEdges>(out_edges, req, result_row, edge_filler)) {
return std::nullopt;
}
return result_row;
}
EdgeUniqunessFunction InitializeEdgeUniqunessFunction(bool only_unique_neighbor_rows) {
// Functions to select connecting edges based on uniquness
EdgeUniqunessFunction maybe_filter_based_on_edge_uniquness;
if (only_unique_neighbor_rows) {
maybe_filter_based_on_edge_uniquness = [](EdgeAccessors &&edges,
memgraph::msgs::EdgeDirection edge_direction) -> EdgeAccessors {
std::function<bool(std::set<const storage::v3::VertexId *, VertexIdCmpr> &,
const memgraph::storage::v3::EdgeAccessor &)>
is_edge_unique;
switch (edge_direction) {
case memgraph::msgs::EdgeDirection::OUT: {
is_edge_unique = [](std::set<const storage::v3::VertexId *, VertexIdCmpr> &other_vertex_set,
const memgraph::storage::v3::EdgeAccessor &edge_acc) {
auto [it, insertion_happened] = other_vertex_set.insert(&edge_acc.ToVertex());
return insertion_happened;
};
break;
}
case memgraph::msgs::EdgeDirection::IN: {
is_edge_unique = [](std::set<const storage::v3::VertexId *, VertexIdCmpr> &other_vertex_set,
const memgraph::storage::v3::EdgeAccessor &edge_acc) {
auto [it, insertion_happened] = other_vertex_set.insert(&edge_acc.FromVertex());
return insertion_happened;
};
break;
}
case memgraph::msgs::EdgeDirection::BOTH:
MG_ASSERT(false,
"This is should never happen, memgraph::msgs::EdgeDirection::BOTH should not be passed here.");
}
EdgeAccessors ret;
std::set<const storage::v3::VertexId *, VertexIdCmpr> other_vertex_set;
for (const auto &edge : edges) {
if (is_edge_unique(other_vertex_set, edge)) {
ret.emplace_back(edge);
}
}
return ret;
};
} else {
maybe_filter_based_on_edge_uniquness = [](EdgeAccessors &&edges,
memgraph::msgs::EdgeDirection /*edge_direction*/) -> EdgeAccessors {
return std::move(edges);
};
}
return maybe_filter_based_on_edge_uniquness;
}
EdgeFiller InitializeEdgeFillerFunction(const msgs::ExpandOneRequest &req) {
EdgeFiller edge_filler;
if (!req.edge_properties) {
@ -521,43 +625,9 @@ std::optional<msgs::ExpandOneResultRow> GetExpandOneResult(Shard::Accessor &acc,
};
}
/// Fill up source vertex
const auto primary_key = ConvertPropertyVector(std::move(src_vertex.second));
auto v_acc = acc.FindVertex(primary_key, View::NEW);
auto source_vertex = FillUpSourceVertex(v_acc, req, src_vertex);
if (!source_vertex) {
return std::nullopt;
}
/// Fill up source vertex properties
auto src_vertex_properties = FillUpSourceVertexProperties(v_acc, req);
if (!src_vertex_properties) {
return std::nullopt;
}
/// Fill up connecting edges
auto fill_up_connecting_edges = FillUpConnectingEdges(v_acc, req);
if (!fill_up_connecting_edges) {
return std::nullopt;
}
auto [in_edges, out_edges] = fill_up_connecting_edges.value();
msgs::ExpandOneResultRow result_row;
result_row.src_vertex = std::move(*source_vertex);
result_row.src_vertex_properties = std::move(*src_vertex_properties);
static constexpr bool kInEdges = true;
static constexpr bool kOutEdges = false;
if (!in_edges.empty() && !FillEdges<kInEdges>(in_edges, req, result_row, edge_filler)) {
return std::nullopt;
}
if (!out_edges.empty() && !FillEdges<kOutEdges>(out_edges, req, result_row, edge_filler)) {
return std::nullopt;
}
return result_row;
return edge_filler;
}
}; // namespace
msgs::WriteResponses ShardRsm::ApplyWrite(msgs::CreateVerticesRequest &&req) {
auto acc = shard_->Access(req.transaction_id);
@ -939,8 +1009,28 @@ msgs::ReadResponses ShardRsm::HandleRead(msgs::ExpandOneRequest &&req) {
std::vector<msgs::ExpandOneResultRow> results;
auto maybe_filter_based_on_edge_uniquness = InitializeEdgeUniqunessFunction(req.only_unique_neighbor_rows);
auto edge_filler = InitializeEdgeFillerFunction(req);
for (auto &src_vertex : req.src_vertices) {
auto result = GetExpandOneResult(acc, src_vertex, req);
// Get Vertex acc
auto src_vertex_acc_opt = acc.FindVertex(ConvertPropertyVector((src_vertex.second)), View::NEW);
if (!src_vertex_acc_opt) {
action_successful = false;
spdlog::debug("Encountered an error while trying to obtain VertexAccessor. Transaction id: {}",
req.transaction_id.logical_id);
break;
}
if (!req.filters.empty()) {
// NOTE - DbAccessor might get removed in the future.
auto dba = DbAccessor{&acc};
const bool eval = FilterOnVertex(dba, src_vertex_acc_opt.value(), req.filters, expr::identifier_node_symbol);
if (!eval) {
continue;
}
}
auto result = GetExpandOneResult(acc, src_vertex, req, maybe_filter_based_on_edge_uniquness, edge_filler);
if (!result) {
action_successful = false;

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@ -11,6 +11,8 @@
#pragma once
#include <tuple>
#include "storage/v3/id_types.hpp"
#include "storage/v3/key_store.hpp"
@ -29,4 +31,9 @@ struct VertexId {
inline bool operator==(const VertexId &lhs, const VertexId &rhs) {
return lhs.primary_label == rhs.primary_label && lhs.primary_key == rhs.primary_key;
}
inline bool operator<(const VertexId &lhs, const VertexId &rhs) {
return std::tie(lhs.primary_label, lhs.primary_key) < std::tie(rhs.primary_label, rhs.primary_key);
}
} // namespace memgraph::storage::v3

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@ -463,18 +463,18 @@ void AttemptToExpandOneWithWrongEdgeType(ShardClient &client, uint64_t src_verte
// Edge properties to look for
std::optional<std::vector<PropertyId>> edge_properties = {};
std::vector<msgs::Expression> expressions;
std::vector<std::string> expressions;
std::optional<std::vector<msgs::OrderBy>> order_by = {};
std::optional<size_t> limit = {};
std::optional<msgs::Filter> filter = {};
std::vector<std::string> filter = {};
msgs::ExpandOneRequest expand_one_req{};
expand_one_req.direction = edge_direction;
expand_one_req.edge_properties = edge_properties;
expand_one_req.edge_types = {edge_type};
expand_one_req.expressions = expressions;
expand_one_req.filter = filter;
expand_one_req.vertex_expressions = expressions;
expand_one_req.filters = filter;
expand_one_req.limit = limit;
expand_one_req.order_by = order_by;
expand_one_req.src_vertex_properties = src_vertex_properties;
@ -518,18 +518,18 @@ void AttemptToExpandOneSimple(ShardClient &client, uint64_t src_vertex_val, Edge
// Edge properties to look for
std::optional<std::vector<PropertyId>> edge_properties = {};
std::vector<msgs::Expression> expressions;
std::vector<std::string> expressions;
std::optional<std::vector<msgs::OrderBy>> order_by = {};
std::optional<size_t> limit = {};
std::optional<msgs::Filter> filter = {};
std::vector<std::string> filter = {};
msgs::ExpandOneRequest expand_one_req{};
expand_one_req.direction = edge_direction;
expand_one_req.edge_properties = edge_properties;
expand_one_req.edge_types = {edge_type};
expand_one_req.expressions = expressions;
expand_one_req.filter = filter;
expand_one_req.vertex_expressions = expressions;
expand_one_req.filters = filter;
expand_one_req.limit = limit;
expand_one_req.order_by = order_by;
expand_one_req.src_vertex_properties = src_vertex_properties;
@ -556,6 +556,63 @@ void AttemptToExpandOneSimple(ShardClient &client, uint64_t src_vertex_val, Edge
}
}
void AttemptToExpandOneWithUniqueEdges(ShardClient &client, uint64_t src_vertex_val, EdgeTypeId edge_type_id) {
// Source vertex
msgs::Label label = {.id = get_primary_label()};
auto src_vertex = std::make_pair(label, GetPrimaryKey(src_vertex_val));
// Edge type
auto edge_type = msgs::EdgeType{};
edge_type.id = edge_type_id;
// Edge direction
auto edge_direction = msgs::EdgeDirection::OUT;
// Source Vertex properties to look for
std::optional<std::vector<PropertyId>> src_vertex_properties = {};
// Edge properties to look for
std::optional<std::vector<PropertyId>> edge_properties = {};
std::vector<std::string> expressions;
std::optional<std::vector<msgs::OrderBy>> order_by = {};
std::optional<size_t> limit = {};
std::vector<std::string> filter = {};
msgs::ExpandOneRequest expand_one_req{};
expand_one_req.direction = edge_direction;
expand_one_req.edge_properties = edge_properties;
expand_one_req.edge_types = {edge_type};
expand_one_req.vertex_expressions = expressions;
expand_one_req.filters = filter;
expand_one_req.limit = limit;
expand_one_req.order_by = order_by;
expand_one_req.src_vertex_properties = src_vertex_properties;
expand_one_req.src_vertices = {src_vertex};
expand_one_req.only_unique_neighbor_rows = true;
expand_one_req.transaction_id.logical_id = GetTransactionId();
while (true) {
auto read_res = client.SendReadRequest(expand_one_req);
if (read_res.HasError()) {
continue;
}
auto write_response_result = read_res.GetValue();
auto write_response = std::get<msgs::ExpandOneResponse>(write_response_result);
MG_ASSERT(write_response.result.size() == 1);
MG_ASSERT(write_response.result[0].out_edges_with_all_properties.size() == 1);
MG_ASSERT(write_response.result[0].in_edges_with_all_properties.empty());
MG_ASSERT(write_response.result[0].in_edges_with_specific_properties.empty());
MG_ASSERT(write_response.result[0].out_edges_with_specific_properties.empty());
const auto number_of_properties_on_edge =
(write_response.result[0].out_edges_with_all_properties[0]).properties.size();
MG_ASSERT(number_of_properties_on_edge == 1);
break;
}
}
void AttemptToExpandOneWithSpecifiedSrcVertexProperties(ShardClient &client, uint64_t src_vertex_val,
EdgeTypeId edge_type_id) {
// Source vertex
@ -576,18 +633,18 @@ void AttemptToExpandOneWithSpecifiedSrcVertexProperties(ShardClient &client, uin
// Edge properties to look for
std::optional<std::vector<PropertyId>> edge_properties = {};
std::vector<msgs::Expression> expressions;
std::vector<std::string> expressions;
std::optional<std::vector<msgs::OrderBy>> order_by = {};
std::optional<size_t> limit = {};
std::optional<msgs::Filter> filter = {};
std::vector<std::string> filter = {};
msgs::ExpandOneRequest expand_one_req{};
expand_one_req.direction = edge_direction;
expand_one_req.edge_properties = edge_properties;
expand_one_req.edge_types = {edge_type};
expand_one_req.expressions = expressions;
expand_one_req.filter = filter;
expand_one_req.vertex_expressions = expressions;
expand_one_req.filters = filter;
expand_one_req.limit = limit;
expand_one_req.order_by = order_by;
expand_one_req.src_vertex_properties = src_vertex_properties;
@ -636,18 +693,18 @@ void AttemptToExpandOneWithSpecifiedEdgeProperties(ShardClient &client, uint64_t
std::vector<PropertyId> specified_edge_prop{PropertyId::FromUint(edge_prop_id)};
std::optional<std::vector<PropertyId>> edge_properties = {specified_edge_prop};
std::vector<msgs::Expression> expressions;
std::vector<std::string> expressions;
std::optional<std::vector<msgs::OrderBy>> order_by = {};
std::optional<size_t> limit = {};
std::optional<msgs::Filter> filter = {};
std::vector<std::string> filter = {};
msgs::ExpandOneRequest expand_one_req{};
expand_one_req.direction = edge_direction;
expand_one_req.edge_properties = edge_properties;
expand_one_req.edge_types = {edge_type};
expand_one_req.expressions = expressions;
expand_one_req.filter = filter;
expand_one_req.vertex_expressions = expressions;
expand_one_req.filters = filter;
expand_one_req.limit = limit;
expand_one_req.order_by = order_by;
expand_one_req.src_vertex_properties = src_vertex_properties;
@ -674,6 +731,62 @@ void AttemptToExpandOneWithSpecifiedEdgeProperties(ShardClient &client, uint64_t
}
}
void AttemptToExpandOneWithFilters(ShardClient &client, uint64_t src_vertex_val, EdgeTypeId edge_type_id,
uint64_t edge_prop_id, uint64_t prop_val_to_check_against) {
std::string filter_expr1 = "MG_SYMBOL_NODE.property = " + std::to_string(prop_val_to_check_against);
// Source vertex
msgs::Label label = {.id = get_primary_label()};
auto src_vertex = std::make_pair(label, GetPrimaryKey(src_vertex_val));
// Edge type
auto edge_type = msgs::EdgeType{};
edge_type.id = edge_type_id;
// Edge direction
auto edge_direction = msgs::EdgeDirection::OUT;
// Source Vertex properties to look for
std::optional<std::vector<PropertyId>> src_vertex_properties = {};
// Edge properties to look for
std::optional<std::vector<PropertyId>> edge_properties = {};
std::vector<std::string> expressions;
std::optional<std::vector<msgs::OrderBy>> order_by = {};
std::optional<size_t> limit = {};
std::vector<std::string> filter = {};
msgs::ExpandOneRequest expand_one_req{};
expand_one_req.direction = edge_direction;
expand_one_req.edge_properties = edge_properties;
expand_one_req.edge_types = {edge_type};
expand_one_req.vertex_expressions = expressions;
expand_one_req.filters = {filter_expr1};
expand_one_req.limit = limit;
expand_one_req.order_by = order_by;
expand_one_req.src_vertex_properties = src_vertex_properties;
expand_one_req.src_vertices = {src_vertex};
expand_one_req.transaction_id.logical_id = GetTransactionId();
while (true) {
auto read_res = client.SendReadRequest(expand_one_req);
if (read_res.HasError()) {
continue;
}
auto write_response_result = read_res.GetValue();
auto write_response = std::get<msgs::ExpandOneResponse>(write_response_result);
MG_ASSERT(write_response.result.size() == 1);
MG_ASSERT(write_response.result[0].out_edges_with_specific_properties.empty());
MG_ASSERT(write_response.result[0].in_edges_with_specific_properties.empty());
MG_ASSERT(write_response.result[0].in_edges_with_all_properties.empty());
MG_ASSERT(write_response.result[0].out_edges_with_all_properties.size() == 2);
break;
}
}
} // namespace
// tests
@ -818,7 +931,7 @@ void TestScanAllWithSmallBatchSize(ShardClient &client) {
MG_ASSERT(!next_id4);
}
void TestExpandOne(ShardClient &client) {
void TestExpandOneGraphOne(ShardClient &client) {
{
// ExpandOneSimple
auto unique_prop_val_1 = GetUniqueInteger();
@ -849,6 +962,36 @@ void TestExpandOne(ShardClient &client) {
AttemptToExpandOneWithWrongEdgeType(client, unique_prop_val_1, wrong_edge_type_id);
AttemptToExpandOneWithSpecifiedSrcVertexProperties(client, unique_prop_val_1, edge_type_id);
AttemptToExpandOneWithSpecifiedEdgeProperties(client, unique_prop_val_1, edge_type_id, edge_prop_id);
AttemptToExpandOneWithFilters(client, unique_prop_val_1, edge_type_id, edge_prop_id, unique_prop_val_1);
}
}
void TestExpandOneGraphTwo(ShardClient &client) {
{
// ExpandOneSimple
auto unique_prop_val_1 = GetUniqueInteger();
auto unique_prop_val_2 = GetUniqueInteger();
MG_ASSERT(AttemptToCreateVertex(client, unique_prop_val_1));
MG_ASSERT(AttemptToCreateVertex(client, unique_prop_val_2));
auto edge_type_id = EdgeTypeId::FromUint(GetUniqueInteger());
auto wrong_edge_type_id = EdgeTypeId::FromUint(GetUniqueInteger());
auto edge_gid_1 = GetUniqueInteger();
auto edge_gid_2 = GetUniqueInteger();
auto edge_prop_id = GetUniqueInteger();
auto edge_prop_val = GetUniqueInteger();
// (V1)-[edge_type_id]->(V2)
MG_ASSERT(AttemptToAddEdgeWithProperties(client, unique_prop_val_1, unique_prop_val_2, edge_gid_1, edge_prop_id,
edge_prop_val, {edge_type_id}));
// (V1)-[edge_type_id]->(V3)
MG_ASSERT(AttemptToAddEdgeWithProperties(client, unique_prop_val_1, unique_prop_val_2, edge_gid_2, edge_prop_id,
edge_prop_val, {edge_type_id}));
// AttemptToExpandOneSimple(client, unique_prop_val_1, edge_type_id);
AttemptToExpandOneWithUniqueEdges(client, unique_prop_val_1, edge_type_id);
}
}
@ -930,7 +1073,8 @@ int TestMessages() {
TestScanAllWithSmallBatchSize(client);
// ExpandOne tests
TestExpandOne(client);
TestExpandOneGraphOne(client);
TestExpandOneGraphTwo(client);
simulator.ShutDown();