MYBinary Tree :- each node has two children at most. To eliminate the restrictio

Question

MYBinary Tree :-           each node has two children at most. To eliminate the restriction by linking the children together to form a list. In this design, each node in the tree needs to contain only two pointers: one to its eldest child and one to its next younger sibling. Using this representation, in each node, the pointer on the left always points down to child; the pointer on the right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> id="yui_3_7_2_1_1376079696770_2189"> id="yui_3_7_2_1_1376079696770_2185"> id="yui_3_7_2_1_1376079696770_2174"> id="yui_3_7_2_1_1376079696770_2118"> id="yui_3_7_2_1_1376079696770_2118"> MYBinary Tree :-           each node has two children at most. To eliminate the restriction by linking the children together to form a list. In this design, each node in the tree needs to contain only two pointers: one to its eldest child and one to its next younger sibling. Using this representation, in each node, the pointer on the left always points down to child; the pointer on the right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> id="yui_3_7_2_1_1376079696770_2189"> id="yui_3_7_2_1_1376079696770_2185"> id="yui_3_7_2_1_1376079696770_2174"> id="yui_3_7_2_1_1376079696770_2118"> each node has two children at most. To eliminate the restriction by linking the children together to form a list. In this design, each node in the tree needs to contain only two pointers: one to its eldest child and one to its next younger sibling. Using this representation, in each node, the pointer on the left always points down to child; the pointer on the right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> id="yui_3_7_2_1_1376079696770_2189"> id="yui_3_7_2_1_1376079696770_2185"> id="yui_3_7_2_1_1376079696770_2174"> together to form a list. In this design, each node in the tree needs to contain only two pointers: one to its eldest child and one to its next younger sibling. Using this representation, in each node, the pointer on the left always points down to child; the pointer on the right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> id="yui_3_7_2_1_1376079696770_2189"> id="yui_3_7_2_1_1376079696770_2185"> child and one to its next younger sibling. Using this representation, in each node, the pointer on the left always points down to child; the pointer on the right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> id="yui_3_7_2_1_1376079696770_2189"> Using this representation, in each node, the pointer on the left always points down to child; the pointer on the right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> right indicates the next sibling in the same generation. struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> struct node { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> { char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>>> char name[32]; struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>>> struct node *child; struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>>> struct node *sibling; }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>>> }; typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>>> typedef struct node NODE; Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>>> Using the above linked design to implement the following two functions. 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>>> 1) NODE* SearchMember(NODE *tree, char *target); that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>>> that searches a node in a family tree. If it finds it, then it returns the address of the node. If not, it returns NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>>> NULL. 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>>> 2) NODE* InsertMember(NODE *ptree, char *newName, char *parentName); that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>>> that searches the parent node with parentName. If found, add a new node with newName to its child list. 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>>> 3) NODE* ReadFamilyTree(char *filename); that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>>> that reads in a family tree from a data file whose name is supplied as the argument to the call. The first line of the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>>> the file should contain a name corresponding to the root of the tree. All subsequent lines in the data file should have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>>> have the following form: child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>>> child:patent where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>>> where child is the name of the new individual being entered and parent is the name of that child's parent, which must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>>> must appear earlier in the data file. For example, William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>>> William I Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>>> Pobert:William I William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>>> William II:William I Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>>> Anna:William I Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>>> Henry I:William I Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>>> Steven:Anna William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>>> William:Henry I Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>>> Matilda:Henry I Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>>> Henry II:Matilda 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>> 4) void DisplayFamilyTree(NODE *tree);
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">>>
that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273">> that displays all the individuals in a family tree. To record the hierachy of tree, the output of your program should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> id="yui_3_7_2_1_1376079696770_2273"> should ident each generation so that the name of each child appears two spaces to the right of the corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> id="yui_3_7_2_1_1376079696770_2272"> corresponding parent, as shown in the following: William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> id="yui_3_7_2_1_1376079696770_2271"> William I Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> id="yui_3_7_2_1_1376079696770_2270"> Pobert William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> id="yui_3_7_2_1_1376079696770_2269"> William II Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> id="yui_3_7_2_1_1376079696770_2233"> Anna Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> id="yui_3_7_2_1_1376079696770_2232"> Steven Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> id="yui_3_7_2_1_1376079696770_2231"> Henry I William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> id="yui_3_7_2_1_1376079696770_2199"> William Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> id="yui_3_7_2_1_1376079696770_2198"> Matilda Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> id="yui_3_7_2_1_1376079696770_2197"> Henry II 5) Write a test program that tests all the functions above. id="yui_3_7_2_1_1376079696770_2196"> 5) Write a test program that tests all the functions above.

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