/src/assimp/contrib/openddlparser/code/Value.cpp

Source
/*-----------------------------------------------------------------------------------------------
The MIT License (MIT)

Copyright (c) 2014-2020 Kim Kulling

Permission is hereby granted, free of charge, to any person obtaining a copy of
this software and associated documentation files (the "Software"), to deal in
the Software without restriction, including without limitation the rights to
use, copy, modify, merge, publish, distribute, sublicense, and/or sell copies of
the Software, and to permit persons to whom the Software is furnished to do so,
subject to the following conditions:

The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.

THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS
FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR
COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER
IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN
CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
-----------------------------------------------------------------------------------------------*/
#include <openddlparser/OpenDDLStream.h>
#include <openddlparser/Value.h>

#include <cassert>

BEGIN_ODDLPARSER_NS

static Value::Iterator end(nullptr);

Value::Iterator::Iterator() :
        m_start(nullptr),
        m_current(nullptr) {
    // empty
}

Value::Iterator::Iterator(Value *start) :
        m_start(start),
        m_current(start) {
    // empty
}

Value::Iterator::Iterator(const Iterator &rhs) :
        m_start(rhs.m_start),
        m_current(rhs.m_current) {
    // empty
}

Value::Iterator::~Iterator() {
    // empty
}

bool Value::Iterator::hasNext() const {
    if (nullptr == m_current) {
        return false;
    }
    return (nullptr != m_current->getNext());
}

Value *Value::Iterator::getNext() {
    if (!hasNext()) {
        return nullptr;
    }

    Value *v(m_current->getNext());
    m_current = v;

    return v;
}

const Value::Iterator Value::Iterator::operator++(int) {
    if (nullptr == m_current) {
        return end;
    }

    m_current = m_current->getNext();
    Iterator inst(m_current);

    return inst;
}

Value::Iterator &Value::Iterator::operator++() {
    if (nullptr == m_current) {
        return end;
    }

    m_current = m_current->getNext();

    return *this;
}

bool Value::Iterator::operator==(const Iterator &rhs) const {
    return (m_current == rhs.m_current);
}

Value *Value::Iterator::operator->() const {
    if (nullptr == m_current) {
        return nullptr;
    }
    return m_current;
}

Value::Value(ValueType type) :
        m_type(type),
        m_size(0),
        m_data(nullptr),
        m_next(nullptr) {
    // empty
}

Value::~Value() {
    if (m_data != nullptr) {
        if (m_type == ValueType::ddl_ref) {
            Reference *tmp = (Reference *)m_data;
            if (tmp != nullptr) {
                delete tmp;
            }
        } else {
            delete[] m_data;
        }
    }
    delete m_next;
}

void Value::setBool(bool value) {
    assert(ValueType::ddl_bool == m_type);
    ::memcpy(m_data, &value, m_size);
}

bool Value::getBool() {
    assert(ValueType::ddl_bool == m_type);
    return (*m_data == 1);
}

void Value::setInt8(int8 value) {
    assert(ValueType::ddl_int8 == m_type);
    ::memcpy(m_data, &value, m_size);
}

int8 Value::getInt8() {
    assert(ValueType::ddl_int8 == m_type);
    return (int8)(*m_data);
}

void Value::setInt16(int16 value) {
    assert(ValueType::ddl_int16 == m_type);
    ::memcpy(m_data, &value, m_size);
}

int16 Value::getInt16() {
    assert(ValueType::ddl_int16 == m_type);
    int16 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setInt32(int32 value) {
    assert(ValueType::ddl_int32 == m_type);
    ::memcpy(m_data, &value, m_size);
}

int32 Value::getInt32() {
    assert(ValueType::ddl_int32 == m_type);
    int32 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setInt64(int64 value) {
    assert(ValueType::ddl_int64 == m_type);
    ::memcpy(m_data, &value, m_size);
}

int64 Value::getInt64() {
    assert(ValueType::ddl_int64 == m_type);
    int64 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setUnsignedInt8(uint8 value) {
    assert(ValueType::ddl_unsigned_int8 == m_type);
    ::memcpy(m_data, &value, m_size);
}

uint8 Value::getUnsignedInt8() const {
    assert(ValueType::ddl_unsigned_int8 == m_type);
    uint8 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setUnsignedInt16(uint16 value) {
    assert(ValueType::ddl_unsigned_int16 == m_type);
    ::memcpy(m_data, &value, m_size);
}

uint16 Value::getUnsignedInt16() const {
    assert(ValueType::ddl_unsigned_int16 == m_type);
    uint16 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setUnsignedInt32(uint32 value) {
    assert(ValueType::ddl_unsigned_int32 == m_type);
    ::memcpy(m_data, &value, m_size);
}

uint32 Value::getUnsignedInt32() const {
    assert(ValueType::ddl_unsigned_int32 == m_type);
    uint32 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setUnsignedInt64(uint64 value) {
    assert(ValueType::ddl_unsigned_int64 == m_type);
    ::memcpy(m_data, &value, m_size);
}

uint64 Value::getUnsignedInt64() const {
    assert(ValueType::ddl_unsigned_int64 == m_type);
    uint64 i;
    ::memcpy(&i, m_data, m_size);
    return i;
}

void Value::setFloat(float value) {
    assert(ValueType::ddl_float == m_type);
    ::memcpy(m_data, &value, m_size);
}

float Value::getFloat() const {
    if (m_type == ValueType::ddl_float) {
        float v;
        ::memcpy(&v, m_data, m_size);
        return (float)v;
    } else {
        float tmp;
        ::memcpy(&tmp, m_data, 4);
        return (float)tmp;
    }
}

void Value::setDouble(double value) {
    assert(ValueType::ddl_double == m_type);
    ::memcpy(m_data, &value, m_size);
}

double Value::getDouble() const {
    if (m_type == ValueType::ddl_double) {
        double v;
        ::memcpy(&v, m_data, m_size);
        return (float)v;
    } else {
        double tmp;
        ::memcpy(&tmp, m_data, 4);
        return (double)tmp;
    }
}

void Value::setString(const std::string &str) {
    assert(ValueType::ddl_string == m_type);
    ::memcpy(m_data, str.c_str(), str.size());
    m_data[str.size()] = '\0';
}

const char *Value::getString() const {
    assert(ValueType::ddl_string == m_type);
    return (const char *)m_data;
}

void Value::setRef(Reference *ref) {
    assert(ValueType::ddl_ref == m_type);

    if (nullptr != ref) {
        const size_t sizeInBytes(ref->sizeInBytes());
        if (sizeInBytes > 0) {
            if (nullptr != m_data) {
                delete[] m_data;
            }

            m_data = (unsigned char *)new Reference(*ref);
        }
    }
}

Reference *Value::getRef() const {
    assert(ValueType::ddl_ref == m_type);

    return (Reference *)m_data;
}

void Value::dump(IOStreamBase &stream) {
    switch (m_type) {
        case ValueType::ddl_none:
            stream.write("None\n");
            break;
        case ValueType::ddl_bool:
            stream.write(std::to_string(getBool()) + "\n");
            break;
        case ValueType::ddl_int8:
            stream.write(std::to_string(getInt8()) + "\n");
            break;
        case ValueType::ddl_int16:
            stream.write(std::to_string(getInt16()) + "\n");
            break;
        case ValueType::ddl_int32:
            stream.write(std::to_string(getInt32()) + "\n");
            break;
        case ValueType::ddl_int64:
            stream.write(std::to_string(getInt64()) + "\n");
            break;
        case ValueType::ddl_unsigned_int8:
            stream.write("Not supported\n");
            break;
        case ValueType::ddl_unsigned_int16:
            stream.write("Not supported\n");
            break;
        case ValueType::ddl_unsigned_int32:
            stream.write("Not supported\n");
            break;
        case ValueType::ddl_unsigned_int64:
            stream.write("Not supported\n");
            break;
        case ValueType::ddl_half:
            stream.write("Not supported\n");
            break;
        case ValueType::ddl_float:
            stream.write(std::to_string(getFloat()) + "\n");
            break;
        case ValueType::ddl_double:
            stream.write(std::to_string(getDouble()) + "\n");
            break;
        case ValueType::ddl_string:
            stream.write(std::string(getString()) + "\n");
            break;
        case ValueType::ddl_ref:
            stream.write("Not supported\n");
            break;
        default:
            break;
    }
}

void Value::setNext(Value *next) {
    m_next = next;
}

Value *Value::getNext() const {
    return m_next;
}

size_t Value::size() const {
    size_t result = 1;
    Value *n = m_next;
    while (n != nullptr) {
        result++;
        n = n->m_next;
    }
    return result;
}

Value *ValueAllocator::allocPrimData(Value::ValueType type, size_t len) {
    if (type == Value::ValueType::ddl_none || Value::ValueType::ddl_types_max == type) {
        return nullptr;
    }

    Value *data = new Value(type);
    switch (type) {
        case Value::ValueType::ddl_bool:
            data->m_size = sizeof(bool);
            break;
        case Value::ValueType::ddl_int8:
            data->m_size = sizeof(int8);
            break;
        case Value::ValueType::ddl_int16:
            data->m_size = sizeof(int16);
            break;
        case Value::ValueType::ddl_int32:
            data->m_size = sizeof(int32);
            break;
        case Value::ValueType::ddl_int64:
            data->m_size = sizeof(int64);
            break;
        case Value::ValueType::ddl_unsigned_int8:
            data->m_size = sizeof(uint8);
            break;
        case Value::ValueType::ddl_unsigned_int16:
            data->m_size = sizeof(uint16);
            break;
        case Value::ValueType::ddl_unsigned_int32:
            data->m_size = sizeof(uint32);
            break;
        case Value::ValueType::ddl_unsigned_int64:
            data->m_size = sizeof(uint64);
            break;
        case Value::ValueType::ddl_half:
            data->m_size = sizeof(short);
            break;
        case Value::ValueType::ddl_float:
            data->m_size = sizeof(float);
            break;
        case Value::ValueType::ddl_double:
            data->m_size = sizeof(double);
            break;
        case Value::ValueType::ddl_string:
            data->m_size = sizeof(char) * (len + 1);
            break;
        case Value::ValueType::ddl_ref:
            data->m_size = 0;
            break;
        case Value::ValueType::ddl_none:
        case Value::ValueType::ddl_types_max:
        default:
            break;
    }

    if (data->m_size) {
        data->m_data = new unsigned char[data->m_size];
        ::memset(data->m_data, 0, data->m_size);
    }

    return data;
}

void ValueAllocator::releasePrimData(Value **data) {
    if (!data) {
        return;
    }

    delete *data;
    *data = nullptr;
}

END_ODDLPARSER_NS

Coverage Report

Created: 2026-09-14 07:44

Line	Count	Source
1		/*-----------------------------------------------------------------------------------------------
2		The MIT License (MIT)
3
4		Copyright (c) 2014-2020 Kim Kulling
5
6		Permission is hereby granted, free of charge, to any person obtaining a copy of
7		this software and associated documentation files (the "Software"), to deal in
8		the Software without restriction, including without limitation the rights to
9		use, copy, modify, merge, publish, distribute, sublicense, and/or sell copies of
10		the Software, and to permit persons to whom the Software is furnished to do so,
11		subject to the following conditions:
12
13		The above copyright notice and this permission notice shall be included in all
14		copies or substantial portions of the Software.
15
16		THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
17		IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS
18		FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR
19		COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER
20		IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN
21		CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
22		-----------------------------------------------------------------------------------------------*/
23		#include <openddlparser/OpenDDLStream.h>
24		#include <openddlparser/Value.h>
25
26		#include <cassert>
27
28		BEGIN_ODDLPARSER_NS
29
30		static Value::Iterator end(nullptr);
31
32		Value::Iterator::Iterator() :
33	0	m_start(nullptr),
34	0	m_current(nullptr) {
35		// empty
36	0	}
37
38		Value::Iterator::Iterator(Value *start) :
39	27	m_start(start),
40	27	m_current(start) {
41		// empty
42	27	}
43
44		Value::Iterator::Iterator(const Iterator &rhs) :
45	0	m_start(rhs.m_start),
46	0	m_current(rhs.m_current) {
47		// empty
48	0	}
49
50	0	Value::Iterator::~Iterator() {
51		// empty
52	0	}
53
54	0	bool Value::Iterator::hasNext() const {
55	0	if (nullptr == m_current) {
56	0	return false;
57	0	}
58	0	return (nullptr != m_current->getNext());
59	0	}
60
61	0	Value *Value::Iterator::getNext() {
62	0	if (!hasNext()) {
63	0	return nullptr;
64	0	}
65
66	0	Value *v(m_current->getNext());
67	0	m_current = v;
68
69	0	return v;
70	0	}
71
72	0	const Value::Iterator Value::Iterator::operator++(int) {
73	0	if (nullptr == m_current) {
74	0	return end;
75	0	}
76
77	0	m_current = m_current->getNext();
78	0	Iterator inst(m_current);
79
80	0	return inst;
81	0	}
82
83	0	Value::Iterator &Value::Iterator::operator++() {
84	0	if (nullptr == m_current) {
85	0	return end;
86	0	}
87
88	0	m_current = m_current->getNext();
89
90	0	return *this;
91	0	}
92
93	0	bool Value::Iterator::operator==(const Iterator &rhs) const {
94	0	return (m_current == rhs.m_current);
95	0	}
96
97	0	Value *Value::Iterator::operator->() const {
98	0	if (nullptr == m_current) {
99	0	return nullptr;
100	0	}
101	0	return m_current;
102	0	}
103
104		Value::Value(ValueType type) :
105	134k	m_type(type),
106	134k	m_size(0),
107	134k	m_data(nullptr),
108	134k	m_next(nullptr) {
109		// empty
110	134k	}
111
112	134k	Value::~Value() {
113	134k	if (m_data != nullptr) {
114	134k	if (m_type == ValueType::ddl_ref) {
115	0	Reference tmp = (Reference )m_data;
116	0	if (tmp != nullptr) {
117	0	delete tmp;
118	0	}
119	134k	} else {
120	134k	delete[] m_data;
121	134k	}
122	134k	}
123	134k	delete m_next;
124	134k	}
125
126	0	void Value::setBool(bool value) {
127	0	assert(ValueType::ddl_bool == m_type);
128	0	::memcpy(m_data, &value, m_size);
129	0	}
130
131	0	bool Value::getBool() {
132	0	assert(ValueType::ddl_bool == m_type);
133	0	return (*m_data == 1);
134	0	}
135
136	2	void Value::setInt8(int8 value) {
137	2	assert(ValueType::ddl_int8 == m_type);
138	2	::memcpy(m_data, &value, m_size);
139	2	}
140
141	0	int8 Value::getInt8() {
142	0	assert(ValueType::ddl_int8 == m_type);
143	0	return (int8)(*m_data);
144	0	}
145
146	14	void Value::setInt16(int16 value) {
147	14	assert(ValueType::ddl_int16 == m_type);
148	14	::memcpy(m_data, &value, m_size);
149	14	}
150
151	0	int16 Value::getInt16() {
152	0	assert(ValueType::ddl_int16 == m_type);
153	0	int16 i;
154	0	::memcpy(&i, m_data, m_size);
155	0	return i;
156	0	}
157
158	378	void Value::setInt32(int32 value) {
159	378	assert(ValueType::ddl_int32 == m_type);
160	378	::memcpy(m_data, &value, m_size);
161	378	}
162
163	0	int32 Value::getInt32() {
164	0	assert(ValueType::ddl_int32 == m_type);
165	0	int32 i;
166	0	::memcpy(&i, m_data, m_size);
167	0	return i;
168	0	}
169
170	1.45k	void Value::setInt64(int64 value) {
171	1.45k	assert(ValueType::ddl_int64 == m_type);
172	1.45k	::memcpy(m_data, &value, m_size);
173	1.45k	}
174
175	0	int64 Value::getInt64() {
176	0	assert(ValueType::ddl_int64 == m_type);
177	0	int64 i;
178	0	::memcpy(&i, m_data, m_size);
179	0	return i;
180	0	}
181
182	0	void Value::setUnsignedInt8(uint8 value) {
183	0	assert(ValueType::ddl_unsigned_int8 == m_type);
184	0	::memcpy(m_data, &value, m_size);
185	0	}
186
187	0	uint8 Value::getUnsignedInt8() const {
188	0	assert(ValueType::ddl_unsigned_int8 == m_type);
189	0	uint8 i;
190	0	::memcpy(&i, m_data, m_size);
191	0	return i;
192	0	}
193
194	200	void Value::setUnsignedInt16(uint16 value) {
195	200	assert(ValueType::ddl_unsigned_int16 == m_type);
196	200	::memcpy(m_data, &value, m_size);
197	200	}
198
199	0	uint16 Value::getUnsignedInt16() const {
200	0	assert(ValueType::ddl_unsigned_int16 == m_type);
201	0	uint16 i;
202	0	::memcpy(&i, m_data, m_size);
203	0	return i;
204	0	}
205
206	40.8k	void Value::setUnsignedInt32(uint32 value) {
207	40.8k	assert(ValueType::ddl_unsigned_int32 == m_type);
208	40.8k	::memcpy(m_data, &value, m_size);
209	40.8k	}
210
211	40.8k	uint32 Value::getUnsignedInt32() const {
212	40.8k	assert(ValueType::ddl_unsigned_int32 == m_type);
213	40.8k	uint32 i;
214	40.8k	::memcpy(&i, m_data, m_size);
215	40.8k	return i;
216	40.8k	}
217
218	7.50k	void Value::setUnsignedInt64(uint64 value) {
219	7.50k	assert(ValueType::ddl_unsigned_int64 == m_type);
220	7.50k	::memcpy(m_data, &value, m_size);
221	7.50k	}
222
223	0	uint64 Value::getUnsignedInt64() const {
224	0	assert(ValueType::ddl_unsigned_int64 == m_type);
225	0	uint64 i;
226	0	::memcpy(&i, m_data, m_size);
227	0	return i;
228	0	}
229
230	81.8k	void Value::setFloat(float value) {
231	81.8k	assert(ValueType::ddl_float == m_type);
232	81.8k	::memcpy(m_data, &value, m_size);
233	81.8k	}
234
235	45.9k	float Value::getFloat() const {
236	45.9k	if (m_type == ValueType::ddl_float) {
237	42.4k	float v;
238	42.4k	::memcpy(&v, m_data, m_size);
239	42.4k	return (float)v;
240	42.4k	} else {
241	3.43k	float tmp;
242	3.43k	::memcpy(&tmp, m_data, 4);
243	3.43k	return (float)tmp;
244	3.43k	}
245	45.9k	}
246
247	0	void Value::setDouble(double value) {
248	0	assert(ValueType::ddl_double == m_type);
249	0	::memcpy(m_data, &value, m_size);
250	0	}
251
252	0	double Value::getDouble() const {
253	0	if (m_type == ValueType::ddl_double) {
254	0	double v;
255	0	::memcpy(&v, m_data, m_size);
256	0	return (float)v;
257	0	} else {
258	0	double tmp;
259	0	::memcpy(&tmp, m_data, 4);
260	0	return (double)tmp;
261	0	}
262	0	}
263
264	0	void Value::setString(const std::string &str) {
265	0	assert(ValueType::ddl_string == m_type);
266	0	::memcpy(m_data, str.c_str(), str.size());
267	0	m_data[str.size()] = '\0';
268	0	}
269
270	301	const char *Value::getString() const {
271	301	assert(ValueType::ddl_string == m_type);
272	301	return (const char *)m_data;
273	301	}
274
275	0	void Value::setRef(Reference *ref) {
276	0	assert(ValueType::ddl_ref == m_type);
277
278	0	if (nullptr != ref) {
279	0	const size_t sizeInBytes(ref->sizeInBytes());
280	0	if (sizeInBytes > 0) {
281	0	if (nullptr != m_data) {
282	0	delete[] m_data;
283	0	}
284
285	0	m_data = (unsigned char )new Reference(ref);
286	0	}
287	0	}
288	0	}
289
290	0	Reference *Value::getRef() const {
291	0	assert(ValueType::ddl_ref == m_type);
292
293	0	return (Reference *)m_data;
294	0	}
295
296	0	void Value::dump(IOStreamBase &stream) {
297	0	switch (m_type) {
298	0	case ValueType::ddl_none:
299	0	stream.write("None\n");
300	0	break;
301	0	case ValueType::ddl_bool:
302	0	stream.write(std::to_string(getBool()) + "\n");
303	0	break;
304	0	case ValueType::ddl_int8:
305	0	stream.write(std::to_string(getInt8()) + "\n");
306	0	break;
307	0	case ValueType::ddl_int16:
308	0	stream.write(std::to_string(getInt16()) + "\n");
309	0	break;
310	0	case ValueType::ddl_int32:
311	0	stream.write(std::to_string(getInt32()) + "\n");
312	0	break;
313	0	case ValueType::ddl_int64:
314	0	stream.write(std::to_string(getInt64()) + "\n");
315	0	break;
316	0	case ValueType::ddl_unsigned_int8:
317	0	stream.write("Not supported\n");
318	0	break;
319	0	case ValueType::ddl_unsigned_int16:
320	0	stream.write("Not supported\n");
321	0	break;
322	0	case ValueType::ddl_unsigned_int32:
323	0	stream.write("Not supported\n");
324	0	break;
325	0	case ValueType::ddl_unsigned_int64:
326	0	stream.write("Not supported\n");
327	0	break;
328	0	case ValueType::ddl_half:
329	0	stream.write("Not supported\n");
330	0	break;
331	0	case ValueType::ddl_float:
332	0	stream.write(std::to_string(getFloat()) + "\n");
333	0	break;
334	0	case ValueType::ddl_double:
335	0	stream.write(std::to_string(getDouble()) + "\n");
336	0	break;
337	0	case ValueType::ddl_string:
338	0	stream.write(std::string(getString()) + "\n");
339	0	break;
340	0	case ValueType::ddl_ref:
341	0	stream.write("Not supported\n");
342	0	break;
343	0	default:
344	0	break;
345	0	}
346	0	}
347
348	99.2k	void Value::setNext(Value *next) {
349	99.2k	m_next = next;
350	99.2k	}
351
352	0	Value *Value::getNext() const {
353	0	return m_next;
354	0	}
355
356	0	size_t Value::size() const {
357	0	size_t result = 1;
358	0	Value *n = m_next;
359	0	while (n != nullptr) {
360	0	result++;
361	0	n = n->m_next;
362	0	}
363	0	return result;
364	0	}
365
366	134k	Value *ValueAllocator::allocPrimData(Value::ValueType type, size_t len) {
367	134k	if (type == Value::ValueType::ddl_none \|\| Value::ValueType::ddl_types_max == type) {
368	0	return nullptr;
369	0	}
370
371	134k	Value *data = new Value(type);
372	134k	switch (type) {
373	0	case Value::ValueType::ddl_bool:
374	0	data->m_size = sizeof(bool);
375	0	break;
376	2	case Value::ValueType::ddl_int8:
377	2	data->m_size = sizeof(int8);
378	2	break;
379	14	case Value::ValueType::ddl_int16:
380	14	data->m_size = sizeof(int16);
381	14	break;
382	378	case Value::ValueType::ddl_int32:
383	378	data->m_size = sizeof(int32);
384	378	break;
385	1.45k	case Value::ValueType::ddl_int64:
386	1.45k	data->m_size = sizeof(int64);
387	1.45k	break;
388	0	case Value::ValueType::ddl_unsigned_int8:
389	0	data->m_size = sizeof(uint8);
390	0	break;
391	200	case Value::ValueType::ddl_unsigned_int16:
392	200	data->m_size = sizeof(uint16);
393	200	break;
394	40.8k	case Value::ValueType::ddl_unsigned_int32:
395	40.8k	data->m_size = sizeof(uint32);
396	40.8k	break;
397	7.50k	case Value::ValueType::ddl_unsigned_int64:
398	7.50k	data->m_size = sizeof(uint64);
399	7.50k	break;
400	0	case Value::ValueType::ddl_half:
401	0	data->m_size = sizeof(short);
402	0	break;
403	81.8k	case Value::ValueType::ddl_float:
404	81.8k	data->m_size = sizeof(float);
405	81.8k	break;
406	0	case Value::ValueType::ddl_double:
407	0	data->m_size = sizeof(double);
408	0	break;
409	1.97k	case Value::ValueType::ddl_string:
410	1.97k	data->m_size = sizeof(char) * (len + 1);
411	1.97k	break;
412	0	case Value::ValueType::ddl_ref:
413	0	data->m_size = 0;
414	0	break;
415	0	case Value::ValueType::ddl_none:
416	0	case Value::ValueType::ddl_types_max:
417	0	default:
418	0	break;
419	134k	}
420
421	134k	if (data->m_size) {
422	134k	data->m_data = new unsigned char[data->m_size];
423	134k	::memset(data->m_data, 0, data->m_size);
424	134k	}
425
426	134k	return data;
427	134k	}
428
429	0	void ValueAllocator::releasePrimData(Value **data) {
430	0	if (!data) {
431	0	return;
432	0	}
433
434	0	delete *data;
435	0	*data = nullptr;
436	0	}
437
438		END_ODDLPARSER_NS