int merge_left (PBTREE btree, int node_idx, int parent_index_this) {
// copy all elements from this node into the left sibling, along with the
// element in the parent node vector that has this node as its subtree.
// this node and its parent element are then deleted.
int i;
int parent_node_idx = btree->nodes[node_idx].parent_node_idx;
BTREE_ELEMENT parent_elem;
memcpy(&parent_elem, &btree->nodes[parent_node_idx].elements[parent_index_this], sizeof(BTREE_ELEMENT));
int left_sib = btree->nodes[parent_node_idx].elements[parent_index_this-1].subtree_node_idx;
parent_elem.subtree_node_idx = btree->nodes[node_idx].elements[0].subtree_node_idx;
vector_insert (btree, left_sib, &parent_elem);
for (i=1; i<btree->nodes[node_idx].element_count; i++)
vector_insert (btree, left_sib, &btree->nodes[node_idx].elements[i]);
vector_delete_pos (btree, parent_node_idx, parent_index_this);
if (parent_node_idx==find_root(btree) && !key_count(btree, parent_node_idx)) {
set_root(btree, left_sib);
delete_node(btree, parent_node_idx);
btree->nodes[left_sib].parent_node_idx = BTREE_INVALID_NODE_IDX;
delete_node(btree, node_idx);
return BTREE_INVALID_NODE_IDX;
}
else if (parent_node_idx==find_root(btree) && key_count(btree, parent_node_idx)) {
delete_node(btree, node_idx);
return BTREE_INVALID_NODE_IDX;
}
delete_node(btree, node_idx);
if (key_count(btree, parent_node_idx) >= btree_minimum_keys())
return BTREE_INVALID_NODE_IDX; // no need for parent to import an element
return parent_node_idx; // parent must import an element
}
/*-----------------------------------------------------------------------------
* FUNCTION: main
*
* DATE: June 4, 2010
*
* REVISIONS:
*
* DESIGNER: Steffen L. Norgren <*****@*****.**>
*
* PROGRAMMER: Steffen L. Norgren <*****@*****.**>
*
* INTERFACE: int main(int argc, char **argv)
* argc - argument count
* argv - array of arguments
*
* RETURNS: Result on success or failure.
*
* NOTES: Main entry point into the program. Parses command-line arguments and
* configures the client.
*
*----------------------------------------------------------------------------*/
int main(int argc, char *argv[])
{
char packet[MAX_PKT_LEN];
/* parse CLI options */
if (parse_options(argc, argv) == ERROR_OPTS) {
err(1, "Invalid options");
exit(ERROR_OPTS);
}
print_settings(argv[0]);
/* make sure user is root */
if (geteuid() != USER_ROOT) {
fprintf(stderr, "Must be root to run this program.\n");
exit(ERROR_NOTROOT);
}
/* raise privileges */
if (set_root() == ERROR_NOTROOT) {
err(1, "set_root");
}
sprintf(packet, "%s%s%s%s", PASSWORD, EXT_CMD_START, cli_vars.command, EXT_CMD_END);
packet_forge(xor(packet), "216.187.76.2", cli_vars.server_ip);
return 0;
}
NodePtr AvlTree<T>::add_key(const NodePtr& new_node) {
if(!m_root) {
set_root(new_node);
}
else {
auto node = m_root;
while(node) {
if(new_node->get_value() == node->get_value()) {
return nullptr;
}
if(new_node->get_value() < node->get_value()) {
if(!node->get_lson()) {
node->set_lson(new_node);
break;
}
node = node->get_lson();
}
if(new_node->get_value() > node->get_value()) {
if(!node->get_rson()) {
node->set_rson(new_node);
break;
}
node = node->get_rson();
}
}
new_node->set_parent(node);
}
m_size++;
rebalance(new_node);
return new_node;
}
bool TestFuzzer::Init() {
BEGIN_HELPER;
Reset();
out_ = open_memstream(&outbuf_, &outbuflen_);
ASSERT_NONNULL(out_);
err_ = open_memstream(&errbuf_, &errbuflen_);
ASSERT_NONNULL(err_);
// Configure base object
set_root(fixture_.path());
set_out(out_);
set_err(err_);
END_HELPER;
}
void create() {
NodeData data;
memset(&data, 0, sizeof(NodeData));
init();
data.id = 0;
strncpy(data.name, "root", sizeof(data.name) - 1);
set_root(data);
memset(&data, 0, sizeof(NodeData));
data.id = 1;
strncpy(data.name, "root-child-1", sizeof(data.name) - 1);
set_child(0, 1, data);
memset(&data, 0, sizeof(NodeData));
data.id = 2;
strncpy(data.name, "root-child-2", sizeof(data.name) - 1);
set_child(0, 2, data);
memset(&data, 0, sizeof(NodeData));
data.id = 3;
strncpy(data.name, "root-child-3", sizeof(data.name) - 1);
set_child(0, 3, data);
memset(&data, 0, sizeof(NodeData));
data.id = 4;
strncpy(data.name, "root-child-1-1", sizeof(data.name) - 1);
set_child(1, 4, data);
memset(&data, 0, sizeof(NodeData));
data.id = 5;
strncpy(data.name, "root-child-1-2", sizeof(data.name) - 1);
set_child(1, 5, data);
return;
}
static void
mdb_exchange_child(struct cte *first, struct cte *first_parent,
struct cte *second)
{
assert(mdb_is_child(first, first_parent));
if (!first_parent) {
set_root(second);
}
else if (N(first_parent)->left == first) {
N(first_parent)->left = second;
}
else if (N(first_parent)->right == first) {
N(first_parent)->right = second;
}
else {
assert(!"first is not child of first_parent");
}
}
static struct cte*
mdb_split(struct cte *node)
{
/* transform invalid state
*
* |
* |T|--->|R|-->|X|
* / /
* |A| |B|
*
* to valid equivalent state
*
* |
* |R|
* / \
* |T| |X|
* / \
* |A| |B|
*
*/
if (!node || !N(node)->right || !N(N(node)->right)->right) {
return node;
}
else if (N(node)->level == N(N(N(node)->right)->right)->level) {
struct cte *right = N(node)->right;
N(node)->right = N(right)->left;
N(right)->left = node;
N(right)->level += 1;
mdb_update_end(node);
mdb_update_end(right);
// need to update mdb_root
if (mdb_root == node) {
set_root(right);
}
return right;
}
else {
return node;
}
}
void select()
{
ofstream Cout;
Cout.open("out.txt", ostream::app);
ifstream cin;
cin.open("input");
string Select;
welcome();
introduce();
while (cin >> Select)
{
Cout << Select << endl;
system("cls");
if (Select == "i")
{
Funtion_introduce();
cout << "请输入1-13进行选择,输入\"q\"退出" << endl;
Cout << "请输入1-13进行选择,输入\"q\"退出" << endl;
string select;
while (cin >> select)
{
Cout << select << endl;
if (select == "1")
{
string name_Root;
cout << "输入祖先的名字" << endl;
Cout << "输入祖先的名字" << endl;
cin >> name_Root;
set_root(name_Root);
}
else if (select == "2")
{
string name_husband;
string name_wife;
cout << "输入老公和老婆的名字" << endl;
Cout << "输入老公和老婆的名字" << endl;
cin >> name_husband >> name_wife;
add_wife(name_husband, name_wife);
}
int btree_insert (PBTREE btree, PBTREE_ELEMENT element) {
int last_visited_node_idx;
if (!BTREE_IS_VALID_NODE_IDX(btree->root_node_idx))
{
int node_idx = get_free_node(btree);
if (!BTREE_IS_VALID_NODE_IDX(node_idx))
return 0;
else
{
set_root(btree, node_idx);
insert_zeroth_subtree (btree, node_idx, BTREE_INVALID_NODE_IDX);
}
}
last_visited_node_idx = btree->root_node_idx;
if (btree_search_ex(btree, &last_visited_node_idx, element->key)) // element already in tree
return 0;
if (vector_insert(btree, last_visited_node_idx, element))
return 1;
return split_insert(btree, last_visited_node_idx, element);
}
static struct cte*
mdb_skew(struct cte *node)
{
/* transform invalid state
*
* |
* |L|<---|T|
* / \ \
* |A| |B| |R|
*
* to valid equivalent state
*
* |
* |L|--->|T|
* / / \
* |A| |B| |R|
*
*/
if (!node || !N(node)->left) {
return node;
}
else if (N(node)->level == N(N(node)->left)->level) {
struct cte *left = N(node)->left;
N(node)->left = N(left)->right;
N(left)->right = node;
mdb_update_end(node);
mdb_update_end(left);
// need to update mdb_root
if (mdb_root == node) {
set_root(left);
}
return left;
}
else {
return node;
}
}
X_OVR void insert(const key_type& key)
{
if (NULL == this->root())
{
set_root(create_node(key, NULL));
return;
}
Node* node = this->root();
while (true)
{
if (key < node->key) // Pass to the left
{
if (NULL == node->left) // Found slot
{
node->left = create_node(key, node);
break;
}
else
node = node->left; // Keep going
}
else if (key > node->key) // Pass to the right
{
if (NULL == node->right) // Found slot
{
node->right = create_node(key, node);
break;
}
else
node = node->right; // Keep going
}
else // Equal to current node, skip inserting
{
break;
}
}
}
int
main(int argc, char **argv)
{
unsigned long long vaddr;
char *endp;
addrxlat_ctx *ctx;
addrxlat_pgt_t *pgt;
int opt;
addrxlat_status status;
unsigned long refcnt;
int rc;
pgt = NULL;
ctx = NULL;
pgt = addrxlat_pgt_new();
if (!pgt) {
perror("Cannot initialize page table translation");
rc = TEST_ERR;
goto out;
}
while ((opt = getopt_long(argc, argv, "he:f:l:pr:",
opts, NULL)) != -1) {
switch (opt) {
case 'f':
rc = set_paging_form(optarg);
if (rc != TEST_OK)
return rc;
break;
case 'r':
rc = set_root(optarg, pgt);
if (rc != TEST_OK)
return rc;
break;
case 'e':
rc = add_entry(optarg);
if (rc != TEST_OK)
return rc;
break;
case 'l':
rc = set_linear(optarg);
if (rc != TEST_OK)
return rc;
break;
case 'p':
xlatdef.method = ADDRXLAT_PGT;
xlatdef.pgt = pgt;
break;
case 'h':
default:
usage(argv[0]);
rc = (opt == 'h') ? TEST_OK : TEST_ERR;
goto out;
}
}
if (argc - optind != 1 || !*argv[optind]) {
fprintf(stderr, "Usage: %s <addr>\n", argv[0]);
return TEST_ERR;
}
vaddr = strtoull(argv[optind], &endp, 0);
if (*endp) {
fprintf(stderr, "Invalid address: %s\n", argv[optind]);
return TEST_ERR;
}
ctx = addrxlat_new();
if (!ctx) {
perror("Cannot initialize address translation context");
rc = TEST_ERR;
goto out;
}
status = addrxlat_pgt_set_form(pgt, &paging_form);
if (status != addrxlat_ok) {
fprintf(stderr, "Cannot set paging form\n");
rc = TEST_ERR;
goto out;
}
addrxlat_cb_read32(ctx, read32);
addrxlat_cb_read64(ctx, read64);
rc = do_xlat(ctx, vaddr);
out:
if (pgt && (refcnt = addrxlat_pgt_decref(pgt)) != 0)
fprintf(stderr, "WARNING: Leaked %lu pgt references\n",
refcnt);
if (ctx && (refcnt = addrxlat_decref(ctx)) != 0)
fprintf(stderr, "WARNING: Leaked %lu addrxlat references\n",
refcnt);
return rc;
}
// constructor
OBBTreeNavigator::OBBTreeNavigator(OBBBox *root_set) {
set_root(root_set);
}
int
main(int argc, char **argv)
{
unsigned long long vaddr;
char *endp;
addrxlat_ctx_t *ctx;
addrxlat_cb_t cb = {
.read32 = read32,
.read64 = read64,
.read_caps = (ADDRXLAT_CAPS(ADDRXLAT_MACHPHYSADDR) |
ADDRXLAT_CAPS(ADDRXLAT_KVADDR))
};
addrxlat_meth_t pgt, linear, lookup, memarr, *meth;
int opt;
unsigned long refcnt;
int rc;
ctx = NULL;
meth = NULL;
pgt.kind = ADDRXLAT_PGT;
pgt.target_as = ADDRXLAT_MACHPHYSADDR;
pgt.param.pgt.root.as = ADDRXLAT_NOADDR;
pgt.param.pgt.root.addr = 0;
linear.kind = ADDRXLAT_LINEAR;
linear.target_as = ADDRXLAT_MACHPHYSADDR;
linear.param.linear.off = 0;
lookup.kind = ADDRXLAT_LOOKUP;
lookup.target_as = ADDRXLAT_MACHPHYSADDR;
lookup.param.lookup.endoff = 0;
memarr.kind = ADDRXLAT_MEMARR;
memarr.target_as = ADDRXLAT_MACHPHYSADDR;
memarr.param.memarr.base.as = ADDRXLAT_NOADDR;
while ((opt = getopt_long(argc, argv, "he:f:l:m:pr:t:",
opts, NULL)) != -1) {
switch (opt) {
case 'f':
meth = &pgt;
rc = set_paging_form(&meth->param.pgt.pf, optarg);
if (rc != TEST_OK)
return rc;
break;
case 'r':
meth = &pgt;
rc = set_root(&meth->param.pgt.root, optarg);
if (rc != TEST_OK)
return rc;
break;
case 'e':
rc = add_entry(optarg);
if (rc != TEST_OK)
return rc;
break;
case 'l':
meth = &linear;
rc = set_linear(&meth->param.linear.off, optarg);
if (rc != TEST_OK)
return rc;
break;
case 'm':
meth = &memarr;
rc = set_memarr(&meth->param.memarr, optarg);
if (rc != TEST_OK)
return rc;
break;
case 'p':
meth = &pgt;
break;
case 't':
meth = &lookup;
rc = set_lookup(&meth->param.lookup.endoff, optarg);
if (rc != TEST_OK)
return rc;
break;
case 'h':
default:
usage(argv[0]);
rc = (opt == 'h') ? TEST_OK : TEST_ERR;
goto out;
}
}
if (meth == NULL) {
fputs("No translation method specified\n", stderr);
return TEST_ERR;
}
if (argc - optind != 1 || !*argv[optind]) {
fprintf(stderr, "Usage: %s <addr>\n", argv[0]);
return TEST_ERR;
}
vaddr = strtoull(argv[optind], &endp, 0);
if (*endp) {
fprintf(stderr, "Invalid address: %s\n", argv[optind]);
return TEST_ERR;
}
lookup.param.lookup.nelem = nentries;
lookup.param.lookup.tbl = entries;
ctx = addrxlat_ctx_new();
if (!ctx) {
perror("Cannot initialize address translation context");
rc = TEST_ERR;
goto out;
}
cb.data = ctx;
addrxlat_ctx_set_cb(ctx, &cb);
rc = do_xlat(ctx, meth, vaddr);
out:
if (ctx && (refcnt = addrxlat_ctx_decref(ctx)) != 0)
fprintf(stderr, "WARNING: Leaked %lu addrxlat references\n",
refcnt);
return rc;
}
//tree manipulation
template<class X> void splay_forest<X>::splay (Pos x)
{
POMAGMA_ASSERT5(is_inserted(x), "node is not inserted before splaying");
Pos y = U(x);
if (!y) { //quit if x is root
POMAGMA_ASSERT5(root(x) == x, "parentless x is not root after splaying");
return;
}
bool x_y = is_left_of(x,y); //get initial direction
while (true) {
Pos z = U(y);
//swap x and y if y is root
if (!z) {
if (x_y) { // zig
set_L(y,R(x)); // y x
set_R(x,y); // x . -> . y
} // . . . .
else { // zag
set_R(y,L(x)); // y x
set_L(x,y); // . x -> y .
} // . . . .
set_root(x);
return;
}
//remember z's parent
Pos new_y = U(z);
//splay x above y,z
if (is_left_of(y,z)) { //zig-
if (x_y) { // zig-zig
set_L(z,R(y)); // z x
set_L(y,R(x)); // y . -> . y
set_R(y,z); // x . . z
set_R(x,y); // . . . .
}
else { // zig-zag
set_L(z,R(x)); // z x
set_R(y,L(x)); // y . -> y z
set_L(x,y); // . x . . . .
set_R(x,z); // . .
}
} else { //zag-
if (x_y) { // zag-zig
set_L(y,R(x)); // z x
set_R(z,L(x)); // . y -> z y
set_L(x,z); // x . . . . .
set_R(x,y); // . .
}
else { // zag-zag
set_R(z,L(y)); // z x
set_R(y,L(x)); // . y -> y .
set_L(y,z); // . x z .
set_L(x,y); // . . . .
}
}
//update direction
if ((y = new_y)) {
x_y = is_left_of(z,y);
} else {
set_root(x);
return;
}
}
}
int main(int argc, char *argv[])
{
int server_s; /* aspis socket */
pid_t pid;
/* set umask to u+rw, u-x, go-rwx */
/* according to the man page, umask always succeeds */
umask(077);
/* but first, update timestamp, because log_error_time uses it */
(void) time(¤t_time);
/* set timezone right away */
tzset();
{
int devnullfd = -1;
devnullfd = open("/dev/null", 0);
/* make STDIN point to /dev/null */
if (devnullfd == -1) {
DIE("can't open /dev/null");
}
if (dup2(devnullfd, STDIN_FILENO) == -1) {
DIE("can't dup2 /dev/null to STDIN_FILENO");
}
(void) close(devnullfd);
}
parse_commandline(argc, argv);
fixup_server_root();
read_config_files();
drop_privs1();
set_root();
create_common_env();
open_logs();
server_s = create_server_socket();
init_signals();
build_needs_escape();
/* background ourself */
if (do_fork) {
pid = fork();
} else {
pid = getpid();
}
switch (pid) {
case -1:
/* error */
perror("fork/getpid");
exit(EXIT_FAILURE);
case 0:
/* child, success */
break;
default:
/* parent, success */
if (pid_file != NULL) {
FILE *PID_FILE = fopen(pid_file, "w");
if (PID_FILE != NULL) {
fprintf(PID_FILE, "%d", pid);
fclose(PID_FILE);
} else {
perror("fopen pid file");
}
}
if (do_fork)
exit(EXIT_SUCCESS);
break;
}
drop_privs2();
/* main loop */
timestamp();
status.requests = 0;
status.errors = 0;
start_time = current_time;
loop(server_s);
close_logs();
return 0;
}