/*
* Copyright 2015 Google Inc. All rights reserved.
*
* 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.
*/
#include "flatbuffers/reflection.h"
#include "flatbuffers/util.h"
// Helper functionality for reflection.
namespace flatbuffers {
int64_t GetAnyValueI(reflection::BaseType type, const uint8_t *data) {
# define FLATBUFFERS_GET(T) static_cast<int64_t>(ReadScalar<T>(data))
switch (type) {
case reflection::UType:
case reflection::Bool:
case reflection::UByte: return FLATBUFFERS_GET(uint8_t);
case reflection::Byte: return FLATBUFFERS_GET(int8_t);
case reflection::Short: return FLATBUFFERS_GET(int16_t);
case reflection::UShort: return FLATBUFFERS_GET(uint16_t);
case reflection::Int: return FLATBUFFERS_GET(int32_t);
case reflection::UInt: return FLATBUFFERS_GET(uint32_t);
case reflection::Long: return FLATBUFFERS_GET(int64_t);
case reflection::ULong: return FLATBUFFERS_GET(uint64_t);
case reflection::Float: return FLATBUFFERS_GET(float);
case reflection::Double: return FLATBUFFERS_GET(double);
case reflection::String: {
auto s = reinterpret_cast<const String *>(ReadScalar<uoffset_t>(data) +
data);
return s ? StringToInt(s->c_str()) : 0;
}
default: return 0; // Tables & vectors do not make sense.
}
# undef FLATBUFFERS_GET
}
double GetAnyValueF(reflection::BaseType type, const uint8_t *data) {
switch (type) {
case reflection::Float: return static_cast<double>(ReadScalar<float>(data));
case reflection::Double: return ReadScalar<double>(data);
case reflection::String: {
auto s = reinterpret_cast<const String *>(ReadScalar<uoffset_t>(data) +
data);
return s ? strtod(s->c_str(), nullptr) : 0.0;
}
default: return static_cast<double>(GetAnyValueI(type, data));
}
}
std::string GetAnyValueS(reflection::BaseType type, const uint8_t *data,
const reflection::Schema *schema, int type_index) {
switch (type) {
case reflection::Float:
case reflection::Double: return NumToString(GetAnyValueF(type, data));
case reflection::String: {
auto s = reinterpret_cast<const String *>(ReadScalar<uoffset_t>(data) +
data);
return s ? s->c_str() : "";
}
case reflection::Obj:
if (schema) {
// Convert the table to a string. This is mostly for debugging purposes,
// and does NOT promise to be JSON compliant.
// Also prefixes the type.
auto &objectdef = *schema->objects()->Get(type_index);
auto s = objectdef.name()->str();
if (objectdef.is_struct()) {
s += "(struct)"; // TODO: implement this as well.
} else {
auto table_field = reinterpret_cast<const Table *>(
ReadScalar<uoffset_t>(data) + data);
s += " { ";
auto fielddefs = objectdef.fields();
for (auto it = fielddefs->begin(); it != fielddefs->end(); ++it) {
auto &fielddef = **it;
if (!table_field->CheckField(fielddef.offset())) continue;
auto val = GetAnyFieldS(*table_field, fielddef, schema);
if (fielddef.type()->base_type() == reflection::String) {
std::string esc;
flatbuffers::EscapeString(val.c_str(), val.length(), &esc, true);
val = esc;
}
s += fielddef.name()->str();
s += ": ";
s += val;
s += ", ";
}
s += "}";
}
return s;
} else {
return "(table)";
}
case reflection::Vector:
return "[(elements)]"; // TODO: implement this as well.
case reflection::Union:
return "(union)"; // TODO: implement this as well.
default: return NumToString(GetAnyValueI(type, data));
}
}
void SetAnyValueI(reflection::BaseType type, uint8_t *data, int64_t val) {
# define FLATBUFFERS_SET(T) WriteScalar(data, static_cast<T>(val))
switch (type) {
case reflection::UType:
case reflection::Bool:
case reflection::UByte: FLATBUFFERS_SET(uint8_t ); break;
case reflection::Byte: FLATBUFFERS_SET(int8_t ); break;
case reflection::Short: FLATBUFFERS_SET(int16_t ); break;
case reflection::UShort: FLATBUFFERS_SET(uint16_t); break;
case reflection::Int: FLATBUFFERS_SET(int32_t ); break;
case reflection::UInt: FLATBUFFERS_SET(uint32_t); break;
case reflection::Long: FLATBUFFERS_SET(int64_t ); break;
case reflection::ULong: FLATBUFFERS_SET(uint64_t); break;
case reflection::Float: FLATBUFFERS_SET(float ); break;
case reflection::Double: FLATBUFFERS_SET(double ); break;
// TODO: support strings
default: break;
}
# undef FLATBUFFERS_SET
}
void SetAnyValueF(reflection::BaseType type, uint8_t *data, double val) {
switch (type) {
case reflection::Float: WriteScalar(data, static_cast<float>(val)); break;
case reflection::Double: WriteScalar(data, val); break;
// TODO: support strings.
default: SetAnyValueI(type, data, static_cast<int64_t>(val)); break;
}
}
void SetAnyValueS(reflection::BaseType type, uint8_t *data, const char *val) {
switch (type) {
case reflection::Float:
case reflection::Double:
SetAnyValueF(type, data, strtod(val, nullptr));
break;
// TODO: support strings.
default: SetAnyValueI(type, data, StringToInt(val)); break;
}
}
// Resize a FlatBuffer in-place by iterating through all offsets in the buffer
// and adjusting them by "delta" if they straddle the start offset.
// Once that is done, bytes can now be inserted/deleted safely.
// "delta" may be negative (shrinking).
// Unless "delta" is a multiple of the largest alignment, you'll create a small
// amount of garbage space in the buffer (usually 0..7 bytes).
// If your FlatBuffer's root table is not the schema's root table, you should
// pass in your root_table type as well.
class ResizeContext {
public:
ResizeContext(const reflection::Schema &schema, uoffset_t start, int delta,
std::vector<uint8_t> *flatbuf,
const reflection::Object *root_table = nullptr)
: schema_(schema), startptr_(vector_data(*flatbuf) + start),
delta_(delta), buf_(*flatbuf),
dag_check_(flatbuf->size() / sizeof(uoffset_t), false) {
auto mask = static_cast<int>(sizeof(largest_scalar_t) - 1);
delta_ = (delta_ + mask) & ~mask;
if (!delta_) return; // We can't shrink by less than largest_scalar_t.
// Now change all the offsets by delta_.
auto root = GetAnyRoot(vector_data(buf_));
Straddle<uoffset_t, 1>(vector_data(buf_), root, vector_data(buf_));
ResizeTable(root_table ? *root_table : *schema.root_table(), root);
// We can now add or remove bytes at start.
if (delta_ > 0) buf_.insert(buf_.begin() + start, delta_, 0);
else buf_.erase(buf_.begin() + start, buf_.begin() + start - delta_);
}
// Check if the range between first (lower address) and second straddles
// the insertion point. If it does, change the offset at offsetloc (of
// type T, with direction D).
template<typename T, int D> void Straddle(const void *first,
const void *second,
void *offsetloc) {
if (first <= startptr_ && second >= startptr_) {
WriteScalar<T>(offsetloc, ReadScalar<T>(offsetloc) + delta_ * D);
DagCheck(offsetloc) = true;
}
}
// This returns a boolean that records if the corresponding offset location
// has been modified already. If so, we can't even read the corresponding
// offset, since it is pointing to a location that is illegal until the
// resize actually happens.
// This must be checked for every offset, since we can't know which offsets
// will straddle and which won't.
uint8_t &DagCheck(const void *offsetloc) {
auto dag_idx = reinterpret_cast<const uoffset_t *>(offsetloc) -
reinterpret_cast<const uoffset_t *>(vector_data(buf_));
return dag_check_[dag_idx];
}
void ResizeTable(const reflection::Object &objectdef, Table *table) {
if (DagCheck(table))
return; // Table already visited.
auto vtable = table->GetVTable();
// Early out: since all fields inside the table must point forwards in
// memory, if the insertion point is before the table we can stop here.
auto tableloc = reinterpret_cast<uint8_t *>(table);
if (startptr_ <= tableloc) {
// Check if insertion point is between the table and a vtable that
// precedes it. This can't happen in current construction code, but check
// just in case we ever change the way flatbuffers are built.
Straddle<soffset_t, -1>(vtable, table, table);
} else {
// Check each field.
auto fielddefs = objectdef.fields();
for (auto it = fielddefs->begin(); it != fielddefs->end(); ++it) {
auto &fielddef = **it;
auto base_type = fielddef.type()->base_type();
// Ignore scalars.
if (base_type <= reflection::Double) continue;
// Ignore fields that are not stored.
auto offset = table->GetOptionalFieldOffset(fielddef.offset());
if (!offset) continue;
// Ignore structs.
auto subobjectdef = base_type == reflection::Obj ?
schema_.objects()->Get(fielddef.type()->index()) : nullptr;
if (subobjectdef && subobjectdef->is_struct()) continue;
// Get this fields' offset, and read it if safe.
auto offsetloc = tableloc + offset;
if (DagCheck(offsetloc))
continue; // This offset already visited.
auto ref = offsetloc + ReadScalar<uoffset_t>(offsetloc);
Straddle<uoffset_t, 1>(offsetloc, ref, offsetloc);
// Recurse.
switch (base_type) {
case reflection::Obj: {
ResizeTable(*subobjectdef, reinterpret_cast<Table *>(ref));
break;
}
case reflection::Vector: {
auto elem_type = fielddef.type()->element();
if (elem_type != reflection::Obj && elem_type != reflection::String)
break;
auto vec = reinterpret_cast<Vector<uoffset_t> *>(ref);
auto elemobjectdef = elem_type == reflection::Obj
? schema_.objects()->Get(fielddef.type()->index())
: nullptr;
if (elemobjectdef && elemobjectdef->is_struct()) break;
for (uoffset_t i = 0; i < vec->size(); i++) {
auto loc = vec->Data() + i * sizeof(uoffset_t);
if (DagCheck(loc))
continue; // This offset already visited.
auto dest = loc + vec->Get(i);
Straddle<uoffset_t, 1>(loc, dest ,loc);
if (elemobjectdef)
ResizeTable(*elemobjectdef, reinterpret_cast<Table *>(dest));
}
break;
}
case reflection::Union: {
ResizeTable(GetUnionType(schema_, objectdef, fielddef, *table),
reinterpret_cast<Table *>(ref));
break;
}
case reflection::String:
break;
default:
assert(false);
}
}
// Check if the vtable offset points beyond the insertion point.
// Must do this last, since GetOptionalFieldOffset above still reads
// this value.
Straddle<soffset_t, -1>(table, vtable, table);
}
}
void operator=(const ResizeContext &rc);
private:
const reflection::Schema &schema_;
uint8_t *startptr_;
int delta_;
std::vector<uint8_t> &buf_;
std::vector<uint8_t> dag_check_;
};
void SetString(const reflection::Schema &schema, const std::string &val,
const String *str, std::vector<uint8_t> *flatbuf,
const reflection::Object *root_table) {
auto delta = static_cast<int>(val.size()) - static_cast<int>(str->Length());
auto str_start = static_cast<uoffset_t>(
reinterpret_cast<const uint8_t *>(str) - vector_data(*flatbuf));
auto start = str_start + static_cast<uoffset_t>(sizeof(uoffset_t));
if (delta) {
// Clear the old string, since we don't want parts of it remaining.
memset(vector_data(*flatbuf) + start, 0, str->Length());
// Different size, we must expand (or contract).
ResizeContext(schema, start, delta, flatbuf, root_table);
// Set the new length.
WriteScalar(vector_data(*flatbuf) + str_start,
static_cast<uoffset_t>(val.size()));
}
// Copy new data. Safe because we created the right amount of space.
memcpy(vector_data(*flatbuf) + start, val.c_str(), val.size() + 1);
}
uint8_t *ResizeAnyVector(const reflection::Schema &schema, uoffset_t newsize,
const VectorOfAny *vec, uoffset_t num_elems,
uoffset_t elem_size, std::vector<uint8_t> *flatbuf,
const reflection::Object *root_table) {
auto delta_elem = static_cast<int>(newsize) - static_cast<int>(num_elems);
auto delta_bytes = delta_elem * static_cast<int>(elem_size);
auto vec_start = reinterpret_cast<const uint8_t *>(vec) -
vector_data(*flatbuf);
auto start = static_cast<uoffset_t>(vec_start + sizeof(uoffset_t) +
elem_size * num_elems);
if (delta_bytes) {
if (delta_elem < 0) {
// Clear elements we're throwing away, since some might remain in the
// buffer.
auto size_clear = -delta_elem * elem_size;
memset(vector_data(*flatbuf) + start - size_clear, 0, size_clear);
}
ResizeContext(schema, start, delta_bytes, flatbuf, root_table);
WriteScalar(vector_data(*flatbuf) + vec_start, newsize); // Length field.
// Set new elements to 0.. this can be overwritten by the caller.
if (delta_elem > 0) {
memset(vector_data(*flatbuf) + start, 0, delta_elem * elem_size);
}
}
return vector_data(*flatbuf) + start;
}
const uint8_t *AddFlatBuffer(std::vector<uint8_t> &flatbuf,
const uint8_t *newbuf, size_t newlen) {
// Align to sizeof(uoffset_t) past sizeof(largest_scalar_t) since we're
// going to chop off the root offset.
while ((flatbuf.size() & (sizeof(uoffset_t) - 1)) ||
!(flatbuf.size() & (sizeof(largest_scalar_t) - 1))) {
flatbuf.push_back(0);
}
auto insertion_point = static_cast<uoffset_t>(flatbuf.size());
// Insert the entire FlatBuffer minus the root pointer.
flatbuf.insert(flatbuf.end(), newbuf + sizeof(uoffset_t), newbuf + newlen);
auto root_offset = ReadScalar<uoffset_t>(newbuf) - sizeof(uoffset_t);
return vector_data(flatbuf) + insertion_point + root_offset;
}
void CopyInline(FlatBufferBuilder &fbb, const reflection::Field &fielddef,
const Table &table, size_t align, size_t size) {
fbb.Align(align);
fbb.PushBytes(table.GetStruct<const uint8_t *>(fielddef.offset()), size);
fbb.TrackField(fielddef.offset(), fbb.GetSize());
}
Offset<const Table *> CopyTable(FlatBufferBuilder &fbb,
const reflection::Schema &schema,
const reflection::Object &objectdef,
const Table &table,
bool use_string_pooling) {
// Before we can construct the table, we have to first generate any
// subobjects, and collect their offsets.
std::vector<uoffset_t> offsets;
auto fielddefs = objectdef.fields();
for (auto it = fielddefs->begin(); it != fielddefs->end(); ++it) {
auto &fielddef = **it;
// Skip if field is not present in the source.
if (!table.CheckField(fielddef.offset())) continue;
uoffset_t offset = 0;
switch (fielddef.type()->base_type()) {
case reflection::String: {
offset = use_string_pooling
? fbb.CreateSharedString(GetFieldS(table, fielddef)).o
: fbb.CreateString(GetFieldS(table, fielddef)).o;
break;
}
case reflection::Obj: {
auto &subobjectdef = *schema.objects()->Get(fielddef.type()->index());
if (!subobjectdef.is_struct()) {
offset = CopyTable(fbb, schema, subobjectdef,
*GetFieldT(table, fielddef)).o;
}
break;
}
case reflection::Union: {
auto &subobjectdef = GetUnionType(schema, objectdef, fielddef, table);
offset = CopyTable(fbb, schema, subobjectdef,
*GetFieldT(table, fielddef)).o;
break;
}
case reflection::Vector: {
auto vec = table.GetPointer<const Vector<Offset<Table>> *>(
fielddef.offset());
auto element_base_type = fielddef.type()->element();
auto elemobjectdef = element_base_type == reflection::Obj
? schema.objects()->Get(fielddef.type()->index())
: nullptr;
switch (element_base_type) {
case reflection::String: {
std::vector<Offset<const String *>> elements(vec->size());
auto vec_s = reinterpret_cast<const Vector<Offset<String>> *>(vec);
for (uoffset_t i = 0; i < vec_s->size(); i++) {
elements[i] = use_string_pooling
? fbb.CreateSharedString(vec_s->Get(i)).o
: fbb.CreateString(vec_s->Get(i)).o;
}
offset = fbb.CreateVector(elements).o;
break;
}
case reflection::Obj: {
if (!elemobjectdef->is_struct()) {
std::vector<Offset<const Table *>> elements(vec->size());
for (uoffset_t i = 0; i < vec->size(); i++) {
elements[i] =
CopyTable(fbb, schema, *elemobjectdef, *vec->Get(i));
}
offset = fbb.CreateVector(elements).o;
break;
}
}
// FALL-THRU
default: { // Scalars and structs.
auto element_size = GetTypeSize(element_base_type);
if (elemobjectdef && elemobjectdef->is_struct())
element_size = elemobjectdef->bytesize();
fbb.StartVector(element_size, vec->size());
fbb.PushBytes(vec->Data(), element_size * vec->size());
offset = fbb.EndVector(vec->size());
break;
}
}
break;
}
default: // Scalars.
break;
}
if (offset) {
offsets.push_back(offset);
}
}
// Now we can build the actual table from either offsets or scalar data.
auto start = objectdef.is_struct()
? fbb.StartStruct(objectdef.minalign())
: fbb.StartTable();
size_t offset_idx = 0;
for (auto it = fielddefs->begin(); it != fielddefs->end(); ++it) {
auto &fielddef = **it;
if (!table.CheckField(fielddef.offset())) continue;
auto base_type = fielddef.type()->base_type();
switch (base_type) {
case reflection::Obj: {
auto &subobjectdef = *schema.objects()->Get(fielddef.type()->index());
if (subobjectdef.is_struct()) {
CopyInline(fbb, fielddef, table, subobjectdef.minalign(),
subobjectdef.bytesize());
break;
}
}
// ELSE FALL-THRU
case reflection::Union:
case reflection::String:
case reflection::Vector:
fbb.AddOffset(fielddef.offset(), Offset<void>(offsets[offset_idx++]));
break;
default: { // Scalars.
auto size = GetTypeSize(base_type);
CopyInline(fbb, fielddef, table, size, size);
break;
}
}
}
assert(offset_idx == offsets.size());
if (objectdef.is_struct()) {
fbb.ClearOffsets();
return fbb.EndStruct();
} else {
return fbb.EndTable(start);
}
}
bool VerifyStruct(flatbuffers::Verifier &v,
const flatbuffers::Table &parent_table,
voffset_t field_offset,
const reflection::Object &obj,
bool required) {
auto offset = parent_table.GetOptionalFieldOffset(field_offset);
if (required && !offset) {
return false;
}
return !offset || v.Verify(reinterpret_cast<const uint8_t*>(&parent_table)
+ offset, obj.bytesize());
}
bool VerifyVectorOfStructs(flatbuffers::Verifier &v,
const flatbuffers::Table &parent_table,
voffset_t field_offset,
const reflection::Object &obj,
bool required) {
auto p = parent_table.GetPointer<const uint8_t*>(field_offset);
const uint8_t* end;
if (required && !p) {
return false;
}
return !p || v.VerifyVector(p, obj.bytesize(), &end);
}
// forward declare to resolve cyclic deps between VerifyObject and VerifyVector
bool VerifyObject(flatbuffers::Verifier &v,
const reflection::Schema &schema,
const reflection::Object &obj,
const flatbuffers::Table *table,
bool isRequired);
bool VerifyVector(flatbuffers::Verifier &v,
const reflection::Schema &schema,
const flatbuffers::Table &table,
const reflection::Field &vec_field) {
assert(vec_field.type()->base_type() == reflection::Vector);
if (!table.VerifyField<uoffset_t>(v, vec_field.offset()))
return false;
switch (vec_field.type()->element()) {
case reflection::None:
assert(false);
break;
case reflection::UType:
return v.Verify(flatbuffers::GetFieldV<uint8_t>(table, vec_field));
case reflection::Bool:
case reflection::Byte:
case reflection::UByte:
return v.Verify(flatbuffers::GetFieldV<int8_t>(table, vec_field));
case reflection::Short:
case reflection::UShort:
return v.Verify(flatbuffers::GetFieldV<int16_t>(table, vec_field));
case reflection::Int:
case reflection::UInt:
return v.Verify(flatbuffers::GetFieldV<int32_t>(table, vec_field));
case reflection::Long:
case reflection::ULong:
return v.Verify(flatbuffers::GetFieldV<int64_t>(table, vec_field));
case reflection::Float:
return v.Verify(flatbuffers::GetFieldV<float>(table, vec_field));
case reflection::Double:
return v.Verify(flatbuffers::GetFieldV<double>(table, vec_field));
case reflection::String: {
auto vecString =
flatbuffers::GetFieldV<flatbuffers::
Offset<flatbuffers::String>>(table, vec_field);
if (v.Verify(vecString) && v.VerifyVectorOfStrings(vecString)) {
return true;
} else {
return false;
}
}
case reflection::Vector:
assert(false);
break;
case reflection::Obj: {
auto obj = schema.objects()->Get(vec_field.type()->index());
if (obj->is_struct()) {
if (!VerifyVectorOfStructs(v, table, vec_field.offset(), *obj,
vec_field.required())) {
return false;
}
} else {
auto vec =
flatbuffers::GetFieldV<flatbuffers::
Offset<flatbuffers::Table>>(table, vec_field);
if (!v.Verify(vec))
return false;
if (vec) {
for (uoffset_t j = 0; j < vec->size(); j++) {
if (!VerifyObject(v, schema, *obj, vec->Get(j), true)) {
return false;
}
}
}
}
return true;
}
case reflection::Union:
assert(false);
break;
default:
assert(false);
break;
}
return false;
}
bool VerifyObject(flatbuffers::Verifier &v,
const reflection::Schema &schema,
const reflection::Object &obj,
const flatbuffers::Table *table,
bool required) {
if (!table) {
if (!required)
return true;
else
return false;
}
if (!table->VerifyTableStart(v))
return false;
for (uoffset_t i = 0; i < obj.fields()->size(); i++) {
auto field_def = obj.fields()->Get(i);
switch (field_def->type()->base_type()) {
case reflection::None:
assert(false);
break;
case reflection::UType:
if (!table->VerifyField<uint8_t>(v, field_def->offset()))
return false;
break;
case reflection::Bool:
case reflection::Byte:
case reflection::UByte:
if (!table->VerifyField<int8_t>(v, field_def->offset()))
return false;
break;
case reflection::Short:
case reflection::UShort:
if (!table->VerifyField<int16_t>(v, field_def->offset()))
return false;
break;
case reflection::Int:
case reflection::UInt:
if (!table->VerifyField<int32_t>(v, field_def->offset()))
return false;
break;
case reflection::Long:
case reflection::ULong:
if (!table->VerifyField<int64_t>(v, field_def->offset()))
return false;
break;
case reflection::Float:
if (!table->VerifyField<float>(v, field_def->offset()))
return false;
break;
case reflection::Double:
if (!table->VerifyField<double>(v, field_def->offset()))
return false;
break;
case reflection::String:
if (!table->VerifyField<uoffset_t>(v, field_def->offset()) ||
!v.Verify(flatbuffers::GetFieldS(*table, *field_def))) {
return false;
}
break;
case reflection::Vector:
if (!VerifyVector(v, schema, *table, *field_def))
return false;
break;
case reflection::Obj: {
auto child_obj = schema.objects()->Get(field_def->type()->index());
if (child_obj->is_struct()) {
if (!VerifyStruct(v, *table, field_def->offset(), *child_obj,
field_def->required())) {
return false;
}
} else {
if (!VerifyObject(v, schema, *child_obj,
flatbuffers::GetFieldT(*table, *field_def),
field_def->required())) {
return false;
}
}
break;
}
case reflection::Union: {
// get union type from the prev field
voffset_t utype_offset = field_def->offset() - sizeof(voffset_t);
auto utype = table->GetField<uint8_t>(utype_offset, 0);
if (utype != 0) {
// Means we have this union field present
auto fb_enum = schema.enums()->Get(field_def->type()->index());
auto child_obj = fb_enum->values()->Get(utype)->object();
if (!VerifyObject(v, schema, *child_obj,
flatbuffers::GetFieldT(*table, *field_def),
field_def->required())) {
return false;
}
}
break;
}
default:
assert(false);
break;
}
}
if (!v.EndTable())
return false;
return true;
}
bool Verify(const reflection::Schema &schema,
const reflection::Object &root,
const uint8_t *buf,
size_t length) {
Verifier v(buf, length);
return VerifyObject(v, schema, root, flatbuffers::GetAnyRoot(buf), true);
}
} // namespace flatbuffers