Commit c0ccceeb authored by casualet's avatar casualet

add three function

parent 895c5345
......@@ -7,7 +7,7 @@ CRYPTDB_SRCS := schema.cc Translator.cc Connect.cc \
rewrite_func.cc rewrite_sum.cc metadata_tables.cc \
error.cc stored_procedures.cc rewrite_ds.cc rewrite_main.cc
CRYPTDB_PROGS:= cdb_test mbk
CRYPTDB_PROGS:= cdb_test mbk test_layer
CRYPTDBPROGOBJS := $(patsubst %,$(OBJDIR)/main/%,$(CRYPTDB_PROGS))
......
#include <cstdlib>
#include <cstdio>
#include <string>
#include <map>
#include <iostream>
#include <fstream>
#include <sstream>
#include <stdexcept>
#include <vector>
#include <set>
#include <list>
#include <algorithm>
#include <functional>
#include <cctype>
#include <locale>
#include <unistd.h>
#include <sys/types.h>
#include <dirent.h>
#include <main/Connect.hh>
#include <main/rewrite_main.hh>
#include <main/rewrite_util.hh>
#include <main/sql_handler.hh>
#include <main/dml_handler.hh>
#include <main/ddl_handler.hh>
#include <main/metadata_tables.hh>
#include <main/macro_util.hh>
#include <main/CryptoHandlers.hh>
#include <parser/embedmysql.hh>
#include <parser/stringify.hh>
#include <parser/lex_util.hh>
#include <readline/readline.h>
#include <readline/history.h>
#include <crypto/ecjoin.hh>
#include <util/errstream.hh>
#include <util/cryptdb_log.hh>
#include <util/enum_text.hh>
#include <util/yield.hpp>
#include <sstream>
#include <unistd.h>
#include <map>
using std::cout;
using std::cin;
using std::endl;
using std::vector;
using std::string;
std::map<SECLEVEL,std::string> gmp;
std::map<onion,std::string> gmp2;
static const int numOfPipe = 1;
static std::string embeddedDir="/t/cryt/shadow";
//My WrapperState.
class WrapperState {
WrapperState(const WrapperState &other);
WrapperState &operator=(const WrapperState &rhs);
KillZone kill_zone;
public:
std::string last_query;
std::string default_db;
WrapperState() {}
~WrapperState() {}
const std::unique_ptr<QueryRewrite> &getQueryRewrite() const {
assert(this->qr);
return this->qr;
}
void setQueryRewrite(std::unique_ptr<QueryRewrite> &&in_qr) {
this->qr = std::move(in_qr);
}
void selfKill(KillZone::Where where) {
kill_zone.die(where);
}
void setKillZone(const KillZone &kz) {
kill_zone = kz;
}
std::unique_ptr<ProxyState> ps;
std::vector<SchemaInfoRef> schema_info_refs;
private:
std::unique_ptr<QueryRewrite> qr;
};
//global map, for each client, we have one WrapperState which contains ProxyState.
static std::map<std::string, WrapperState*> clients;
//This connection mimics the behaviour of MySQL-Proxy
Connect *globalConn;
//Return values got by using directly the MySQL c Client
struct rawReturnValue{
std::vector<std::vector<std::string> > rowValues;
std::vector<std::string> fieldNames;
std::vector<int> fieldTypes;
};
//must be static, or we get "no previous declaration"
//execute the query and getthe rawReturnVale, this struct can be copied.
static
rawReturnValue executeAndGetResultRemote(Connect * curConn,std::string query){
std::unique_ptr<DBResult> dbres;
curConn->execute(query, &dbres);
rawReturnValue myRaw;
if(dbres==nullptr||dbres->n==NULL){
std::cout<<"no results"<<std::endl;
return myRaw;
}
int num = mysql_num_rows(dbres->n);
std::cout<<"num of rows: "<<num<<std::endl;
int numOfFields = mysql_num_fields(dbres->n);
std::cout<<"num of fields: "<<numOfFields<<std::endl;
MYSQL_FIELD *field;
MYSQL_ROW row;
if(num!=0){
while( (row = mysql_fetch_row(dbres->n)) ){
unsigned long * fieldLen = mysql_fetch_lengths(dbres->n);
std::vector<std::string> curRow;
for(int i=0;i<numOfFields;i++){
if (i == 0) {
while( (field = mysql_fetch_field(dbres->n)) ) {
myRaw.fieldNames.push_back(std::string(field->name));
myRaw.fieldTypes.push_back(field->type);
}
}
if(row[i]==NULL) curRow.push_back("NULL");
else curRow.push_back(std::string(row[i],fieldLen[i]));
}
myRaw.rowValues.push_back(curRow);
}
}
return myRaw;
}
/*
//print RawReturnValue for testing purposes.
static
void printrawReturnValue(rawReturnValue & cur) {
int len = cur.fieldTypes.size();
if(len==0){
std::cout<<"zero output"<<std::endl;
return ;
}
if(static_cast<int>(cur.fieldNames.size())!=len||static_cast<int>(cur.rowValues[0].size())!=len){
std::cout<<RED_BEGIN<<"size mismatch in printrawReturnValue"<<COLOR_END<<std::endl;
return ;
}
for(int i=0;i<len;i++){
std::cout<<cur.fieldNames[i]<<":"<<cur.fieldTypes[i]<<"\t";
}
std::cout<<std::endl;
for(auto row:cur.rowValues){
for(auto rowItem:row){
std::cout<<rowItem<<"\t";
}
std::cout<<std::endl;
}
}
*/
Item *
encrypt_item_layers(const Item &i, onion o, const OnionMeta &om,
const Analysis &a, uint64_t IV) {
assert(!RiboldMYSQL::is_null(i));
//这里是onionMeta中的vector, enclayers.也就是洋葱不同层次的加解密通过Onionmeta以及
//encLary中的加解密算法来完成.
const auto &enc_layers = a.getEncLayers(om);
assert_s(enc_layers.size() > 0, "onion must have at least one layer");
const Item *enc = &i;
Item *new_enc = NULL;
//这段代码体现了层次加密,也就是说, 通过IV,每个洋葱的层次通过enclayer来表示
//直接调用其加密和解密函数, 就可以完成加密工作. 加密以后获得的是Item,最后返回加密以后的结果
for (const auto &it : enc_layers) {
LOG(encl) << "encrypt layer "
<< TypeText<SECLEVEL>::toText(it->level()) << "\n";
new_enc = it->encrypt(*enc, IV);
assert(new_enc);
enc = new_enc;
}
// @i is const, do we don't want the caller to modify it accidentally.
assert(new_enc && new_enc != &i);
return new_enc;
}
void
encrypt_item_all_onions(const Item &i, const FieldMeta &fm,
uint64_t IV, Analysis &a, std::vector<Item*> *l)
{
for (auto it : fm.orderedOnionMetas()) {
const onion o = it.first->getValue();
OnionMeta * const om = it.second;
//一个fieldmeta表示一个field, 内部的不同洋葱表现在onionMeta,每个onionMeta的不同层次表现
//在enclyer. 而保持的时候, 是onometekey,onoinmeta这种pair来让我们知道这个onionMeta是哪种
//枚举的洋葱类型.
l->push_back(encrypt_item_layers(i, o, *om, a, IV));
}
}
void
typical_rewrite_insert_type(const Item &i, const FieldMeta &fm,
Analysis &a, std::vector<Item *> *l) {
const uint64_t salt = fm.getHasSalt() ? randomValue() : 0;
encrypt_item_all_onions(i, fm, salt, a, l);
//对于每种类型, 除了保存加密的洋葱, 还把fm中的salt也变成Int类型保存起来了, 所以会出现奇怪的多了一组数据的情况, 就看
//这个东西是什么时候应用.
if (fm.getHasSalt()) {
l->push_back(new Item_int(static_cast<ulonglong>(salt)));
}
}
//helper function for transforming the rawReturnValue
static Item_null *
make_null(const std::string &name = ""){
char *const n = current_thd->strdup(name.c_str());
return new Item_null(n);
}
//helper function for transforming the rawReturnValue
static std::vector<Item *>
itemNullVector(unsigned int count)
{
std::vector<Item *> out;
for (unsigned int i = 0; i < count; ++i) {
out.push_back(make_null());
}
return out;
}
//transform rawReturnValue to ResType
static
ResType MygetResTypeFromLuaTable(bool isNULL,rawReturnValue *inRow = NULL,int in_last_insert_id = 0){
std::vector<std::string> names;
std::vector<enum_field_types> types;
std::vector<std::vector<Item *> > rows;
//return NULL restype
if(isNULL){
return ResType(true,0,0,std::move(names),
std::move(types),std::move(rows));
} else {
for(auto inNames:inRow->fieldNames){
names.push_back(inNames);
}
for(auto inTypes:inRow->fieldTypes){
types.push_back(static_cast<enum_field_types>(inTypes));
}
for(auto inRows:inRow->rowValues) {
std::vector<Item *> curTempRow = itemNullVector(types.size());
for(int i=0;i< (int)(inRows.size());i++){
curTempRow[i] = (MySQLFieldTypeToItem(types[i],inRows[i]) );
}
rows.push_back(curTempRow);
}
uint64_t afrow = globalConn->get_affected_rows();
std::cout<<GREEN_BEGIN<<"Affected rows: "<<afrow<<COLOR_END<<std::endl;
return ResType(true, 0 ,
in_last_insert_id, std::move(names),
std::move(types), std::move(rows));
}
}
//printResType for testing purposes
static
void parseResType(const ResType &rd) {
std::cout<<RED_BEGIN<<"rd.affected_rows: "<<rd.affected_rows<<COLOR_END<<std::endl;
std::cout<<RED_BEGIN<<"rd.insert_id: "<<rd.insert_id<<COLOR_END<<std::endl;
for(auto name:rd.names){
std::cout<<name<<"\t";
}
std::cout<<std::endl;
for(auto row:rd.rows){
for(auto item:row){
std::cout<<ItemToString(*item)<<"\t";
}
std::cout<<std::endl;
}
}
//first step of back
static std::vector<FieldMeta *> getFieldMeta(SchemaInfo &schema,std::string db = "tdb",
std::string table="student1"){
const std::unique_ptr<AES_KEY> &TK = std::unique_ptr<AES_KEY>(getKey(std::string("113341234")));
Analysis analysis(db,schema,TK,
SECURITY_RATING::SENSITIVE);
if(analysis.databaseMetaExists(db)){
const DatabaseMeta & dbm = analysis.getDatabaseMeta(db);
TableMeta & tbm = *dbm.getChild(IdentityMetaKey(table));
return tbm.orderedFieldMetas();
}else{
std::cout<<"data base not exists"<<std::endl;
return std::vector<FieldMeta *>();
}
}
//representation of one field.
struct transField{
bool hasSalt;
FieldMeta *originalFm;
vector<int> choosenOnions;
//used to construct return meta
int onionIndex = 0;
int numOfOnions=0;
//onions
std::vector<std::string> fields;
std::vector<onion> onions;
std::vector<OnionMeta*>originalOm;
void show(){
for(auto i=0U;i<fields.size();i++){
cout<<fields[i]<<" : "<<gmp2[onions[i]]<<"\t";
}
cout<<endl;
if(hasSalt){
cout<<"has salt"<<endl;
}else cout<<"do not have salt"<<endl;
}
};
static std::vector<transField> getTransField(std::vector<FieldMeta *> pfms){
std::vector<transField> res;
//for every field
for(auto pfm:pfms){
transField tf;
tf.originalFm = pfm;
for(std::pair<const OnionMetaKey *, OnionMeta *> &ompair:pfm->orderedOnionMetas()){
tf.numOfOnions++;
tf.fields.push_back((ompair.second)->getAnonOnionName());
tf.onions.push_back(ompair.first->getValue());
tf.originalOm.push_back(ompair.second);
}
if(pfm->getHasSalt()){
tf.hasSalt=true;
tf.fields.push_back(pfm->getSaltName());
}
res.push_back(tf);
}
return res;
}
static std::unique_ptr<SchemaInfo> myLoadSchemaInfo() {
std::unique_ptr<Connect> e_conn(Connect::getEmbedded(embeddedDir));
std::unique_ptr<SchemaInfo> schema(new SchemaInfo());
std::function<DBMeta *(DBMeta *const)> loadChildren =
[&loadChildren, &e_conn](DBMeta *const parent) {
auto kids = parent->fetchChildren(e_conn);
for (auto it : kids) {
loadChildren(it);
}
return parent;
};
//load all metadata and then store it in schema
loadChildren(schema.get());
return schema;
}
static void
addToReturn(ReturnMeta *const rm, int pos, const OLK &constr,
bool has_salt, const std::string &name) {
const bool test = static_cast<unsigned int>(pos) == rm->rfmeta.size();
TEST_TextMessageError(test, "ReturnMeta has badly ordered"
" ReturnFields!");
const int salt_pos = has_salt ? pos + 1 : -1;
std::pair<int, ReturnField>
pair(pos, ReturnField(false, name, constr, salt_pos));
rm->rfmeta.insert(pair);
}
static void
addSaltToReturn(ReturnMeta *const rm, int pos) {
const bool test = static_cast<unsigned int>(pos) == rm->rfmeta.size();
TEST_TextMessageError(test, "ReturnMeta has badly ordered"
" ReturnFields!");
std::pair<int, ReturnField>
pair(pos, ReturnField(true, "", OLK::invalidOLK(), -1));
rm->rfmeta.insert(pair);
}
static Item *
decrypt_item_layers(const Item &i, const FieldMeta *const fm, onion o,
uint64_t IV) {
assert(!RiboldMYSQL::is_null(i));
const Item *dec = &i;
Item *out_i = NULL;
//we have fieldMeta, but only use part of it. we select the onion via the o in olk we constructed.
const OnionMeta *const om = fm->getOnionMeta(o);
assert(om);
//its easy to use onionmeta, just get layers, and use dectypt() to decrypt the results.
const auto &enc_layers = om->getLayers();
for (auto it = enc_layers.rbegin(); it != enc_layers.rend(); ++it) {
out_i = (*it)->decrypt(*dec, IV);
assert(out_i);
dec = out_i;
LOG(cdb_v) << "dec okay";
}
assert(out_i && out_i != &i);
return out_i;
}
/*
structure of return field.
map<int,returnField>, int is the index of names
returnField, represent a field, if the field is not salt, then fieldCalled is the plaintex name
*/
static
ResType decryptResults(const ResType &dbres, const ReturnMeta &rmeta) {
//num of rows
const unsigned int rows = dbres.rows.size();
//num of names, to be decrypted
const unsigned int cols = dbres.names.size();
std::vector<std::string> dec_names;
for (auto it = dbres.names.begin();it != dbres.names.end(); it++){
const unsigned int index = it - dbres.names.begin();
//fetch rfmeta based on index
const ReturnField &rf = rmeta.rfmeta.at(index);
if (!rf.getIsSalt()) {
//need to return this field
//filed name here is plaintext
dec_names.push_back(rf.fieldCalled());
}
}
const unsigned int real_cols = dec_names.size();
std::vector<std::vector<Item *> > dec_rows(rows);
//real cols depends on plain text names.
for (unsigned int i = 0; i < rows; i++) {
dec_rows[i] = std::vector<Item *>(real_cols);
}
//
unsigned int col_index = 0;
for (unsigned int c = 0; c < cols; c++) {
const ReturnField &rf = rmeta.rfmeta.at(c);
if (rf.getIsSalt()) {
continue;
}
//the key is in fieldMeta
FieldMeta *const fm = rf.getOLK().key;
for (unsigned int r = 0; r < rows; r++) {
//
if (!fm || dbres.rows[r][c]->is_null()) {
dec_rows[r][col_index] = dbres.rows[r][c];
} else {
uint64_t salt = 0;
const int salt_pos = rf.getSaltPosition();
//read salt from remote datab for descrypting.
if (salt_pos >= 0) {
Item_int *const salt_item =
static_cast<Item_int *>(dbres.rows[r][salt_pos]);
assert_s(!salt_item->null_value, "salt item is null");
salt = salt_item->value;
}
//specify fieldMeta, onion, and salt should be able to decrpyt
//peel onion
dec_rows[r][col_index] =
decrypt_item_layers(*dbres.rows[r][c],fm,rf.getOLK().o,salt);
}
}
col_index++;
}
//resType is used befor and after descrypting.
return ResType(dbres.ok, dbres.affected_rows, dbres.insert_id,
std::move(dec_names),
std::vector<enum_field_types>(dbres.types),
std::move(dec_rows));
}
//get returnMeta
//for each filed, we have a fieldmeta. we can chosse one onion under that field to construct a return meta.
//in fact, a returnmeta can contain many fields.
static
std::shared_ptr<ReturnMeta> getReturnMeta(std::vector<FieldMeta*> fms, std::vector<transField> &tfds){
assert(fms.size()==tfds.size());
std::shared_ptr<ReturnMeta> myReturnMeta = std::make_shared<ReturnMeta>();
int pos=0;
//construct OLK
for(auto i=0u;i<tfds.size();i++){
OLK curOLK(tfds[i].onions[tfds[i].onionIndex],
tfds[i].originalOm[tfds[i].onionIndex]->getSecLevel(),tfds[i].originalFm);
addToReturn(myReturnMeta.get(),pos++,curOLK,true,tfds[i].originalFm->getFieldName());
addSaltToReturn(myReturnMeta.get(),pos++);
}
return myReturnMeta;
}
static
std::string getBackupQuery(SchemaInfo &schema, std::vector<transField> &tfds,
std::string db="tdb",std::string table="student1") {
std::string res = "SELECT ";
const std::unique_ptr<IdentityMetaKey> dbmeta_key(new IdentityMetaKey(db));
//get databaseMeta, search in the map
DatabaseMeta * dbm = schema.getChild(*dbmeta_key);
const TableMeta & tbm = *((*dbm).getChild(IdentityMetaKey(table)));
std::string annotablename = tbm.getAnonTableName();
//then a list of onion names
for(auto item:tfds){
for(auto index:item.choosenOnions){
res += std::string("hex(")+item.fields[index]+")";
res += " , ";
}
if(item.hasSalt){
res += string("hex(")+item.originalFm->getSaltName()+") , ";
}
}
res = res.substr(0,res.size()-2);
res = res + "FROM `"+db+std::string("`.`")+annotablename+"`";
return res;
}
static
std::string getInsertQuery(SchemaInfo &schema, std::vector<transField> &tfds,
std::string db,std::string table, rawReturnValue & rows){
std::string res = "INSERT INTO ";
const std::unique_ptr<IdentityMetaKey> dbmeta_key(new IdentityMetaKey(db));
//get databaseMeta, search in the map
DatabaseMeta * dbm = schema.getChild(*dbmeta_key);
const TableMeta & tbm = *((*dbm).getChild(IdentityMetaKey(table)));
std::string annotablename = tbm.getAnonTableName();
//Those are just headers
res += std::string("`")+db+std::string("`.`")+annotablename+"` VALUES ";
int startIndex=0;
while(startIndex < (int)rows.rowValues.size()){
string manyValues = "( ";
//first
if(startIndex<(int)rows.rowValues.size()){
vector<string> &curStringVec = rows.rowValues[startIndex];
for(auto item:curStringVec){
manyValues+=string("0x")+item+",";
}
}
//finish first query.
manyValues[manyValues.size()-1]=')';
manyValues = res + manyValues;
//we can just parse a list of values
for(int i=1;i<numOfPipe;i++){
vector<string> &curStringVec = rows.rowValues[++startIndex];
manyValues+=", (";
for(auto item:curStringVec){
manyValues+=string("0x")+item+",";
}
manyValues[manyValues.size()-1]=')';
}
manyValues+=";";
cout<<manyValues<<endl;
++startIndex;
}
return res;
}
//query for testing purposes
static
std::string getTestQuery(SchemaInfo &schema, std::vector<transField> &tfds,
std::string db="tdb",std::string table="student1"){
std::string res = "SELECT ";
const std::unique_ptr<IdentityMetaKey> dbmeta_key(new IdentityMetaKey(db));
//get databaseMeta, search in the map
DatabaseMeta * dbm = schema.getChild(*dbmeta_key);
const TableMeta & tbm = *((*dbm).getChild(IdentityMetaKey(table)));
std::string annotablename = tbm.getAnonTableName();
//then a list of onion names
for(auto item:tfds){
for(auto index:item.choosenOnions){
res += item.fields[index];
res += " , ";
}
if(item.hasSalt){
res += item.originalFm->getSaltName()+" , ";
}
}
res = res.substr(0,res.size()-2);
res = res + "FROM `"+db+std::string("`.`")+annotablename+"`";
return res;
}
void testEncrypt(){
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo();
//get all the fields in the tables.
std::vector<FieldMeta*> fms = getFieldMeta(*schema,db,table);
}
int
main(int argc, char* argv[]) {
if(argc!=3){
for(int i=0;i<argc;i++){
printf("%s\n",argv[i]);
}
return 0;
}
gmp[SECLEVEL::INVALID]="INVALID";
gmp[SECLEVEL::PLAINVAL]="PLAINVAL";
gmp[SECLEVEL::OPE]="OPE";
gmp[SECLEVEL::DETJOIN]="DETJOIN";
gmp[SECLEVEL::OPEFOREIGN]="OPEFOREIGN";
gmp[SECLEVEL::DET]="DET";
gmp[SECLEVEL::SEARCH]="SEARCH";
gmp[SECLEVEL::HOM]="HOM";
gmp[SECLEVEL::RND]="RND";
gmp2[oDET]="oDET";
gmp2[oOPE]="oOPE";
gmp2[oAGG]="oAGG";
gmp2[oSWP]="oSWP";
gmp2[oPLAIN]="oPLAIN";
gmp2[oBESTEFFORT]="oBESTEFFORT";
gmp2[oINVALID]="oINVALID";
std::string client="192.168.1.1:1234";
//one Wrapper per user.
clients[client] = new WrapperState();
//Connect phase
ConnectionInfo ci("localhost", "root", "letmein",3306);
const std::string master_key = "113341234";
char *buffer;
if((buffer = getcwd(NULL, 0)) == NULL){
perror("getcwd error");
}
embeddedDir = std::string(buffer)+"/shadow";
SharedProxyState *shared_ps =
new SharedProxyState(ci, embeddedDir , master_key,
determineSecurityRating());
assert(0 == mysql_thread_init());
//we init embedded database here.
clients[client]->ps = std::unique_ptr<ProxyState>(new ProxyState(*shared_ps));
clients[client]->ps->safeCreateEmbeddedTHD();
//Connect end!!
globalConn = new Connect(ci.server, ci.user, ci.passwd, ci.port);
//-------------------------finish connection---------------------------------------
std::string curQuery = "backpart";
//unsigned long long _thread_id = globalConn->get_thread_id();
if(curQuery!="quit"){
if(curQuery=="test"){
std::string db,table;
std::cout<<"please input dbname "<<std::endl;
cin>>db;
std::cout<<"please input table name "<<std::endl;
cin>>table;
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo();
//get all the fields in the tables.
std::vector<FieldMeta*> fms = getFieldMeta(*schema,db,table);
auto res = getTransField(fms);
for(auto &item:res){
item.choosenOnions.push_back(0);
}
std::shared_ptr<ReturnMeta> rm = getReturnMeta(fms,res);
std::string backq = getTestQuery(*schema,res,db,table);
rawReturnValue resraw = executeAndGetResultRemote(globalConn,backq);
ResType rawtorestype = MygetResTypeFromLuaTable(false, &resraw);
auto finalresults = decryptResults(rawtorestype,*rm);
parseResType(finalresults);
}else if(curQuery=="backall"){
std::string db,table;
std::cout<<"please input dbname "<<std::endl;
cin>>db;
std::cout<<"please input table name "<<std::endl;
cin>>table;
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo();
//get all the fields in the tables.
std::vector<FieldMeta*> fms = getFieldMeta(*schema,db,table);
auto res = getTransField(fms);
//for each filed, we choose all the onions and salts.
for(auto &item:res){
assert(item.choosenOnions.size()==0u);
assert(item.onions.size()==item.originalOm.size());
assert(item.fields.size()==item.originalOm.size() ||
item.fields.size()==item.originalOm.size()+1);
for(unsigned int i=0u;i<item.onions.size();i++) {
item.choosenOnions.push_back(i);
}
}
std::string backq = getBackupQuery(*schema,res,db,table);
cout<<backq<<endl;
rawReturnValue resraw = executeAndGetResultRemote(globalConn,backq);
getInsertQuery(*schema,res,db,table,resraw);
}else if(curQuery=="backpart"){
std::string db(argv[1]),table(argv[2]);
std::cout<<db<<":"<<table<<std::endl;
auto res = getTransField(fms);
//for each filed, we choose all the onions and salts.
for(auto &item:res){
assert(item.choosenOnions.size()==0u);
assert(item.onions.size()==item.originalOm.size());
assert(item.fields.size()==item.originalOm.size() ||
item.fields.size()==item.originalOm.size()+1);
item.choosenOnions.push_back(0);
}
std::string backq = getBackupQuery(*schema,res,db,table);
cout<<backq<<endl;
rawReturnValue resraw = executeAndGetResultRemote(globalConn,backq);
getInsertQuery(*schema,res,db,table,resraw);
}
}
return 0;
}
......@@ -7,6 +7,6 @@ mysql -uroot -pletmein -h127.0.0.1 tpcc1000 < create_table.sql
./tpcc_load -h127.0.0.1 -uroot -pletmein -d tpcc1000 -w $1
# mysqldump --skip-extended-insert -uroot -pletmein -h127.0.0.1 --no-create-info --hex-blob --compact tpcc1000 > all$1.sql
mysqldump -uroot -pletmein -h127.0.0.1 --hex-blob --compact tpcc1000 --compact > all$1.sql
mysqldump -uroot -pletmein -h127.0.0.1 --hex-blob --no-create-info --compact tpcc1000 --compact > all$1.sql
mysql -uroot -pletmein -h127.0.0.1 -e "drop database if exists tpcc1000"
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