Topic: stack-problem / Level: advanced

• 2951. Design a stack-based algorithm to solve the problem of determining if two binary trees are mirror images of each other with constraints on the depth and structure of the trees.
• 2952. Implement a stack-based solution for solving the problem of finding the minimum number of operations required to convert a binary string into alternating 0s and 1s with additional constraints on sequence length.
• 2953. Write a program to simulate a stack-based approach for solving the problem of finding the maximum sum of non-overlapping subarrays in a binary array with constraints on the subarray size.
• 2954. Create a function that uses stacks to solve the problem of finding the longest sequence of alternating positive and negative numbers in a matrix with constraints on sequence length.
• 2955. Design a stack-based approach to solve the problem of finding the number of distinct palindromic subsequences in a string with constraints on the length of each subsequence.
• 2956. Implement a stack-based solution for solving the problem of checking if two binary search trees contain identical sets of values with constraints on the node values and structure.
• 2957. Write a program to simulate a stack-based approach for solving the problem of finding the number of valid ways to partition an array into subarrays that sum to a given value.
• 2958. Create a stack-based system for solving the problem of finding the longest increasing subsequence in a circular array with constraints on the number of allowed swaps.
• 2959. Design a stack-based algorithm to solve the problem of finding the minimum number of cuts required to partition a string into valid palindromic subsequences with constraints on the subsequence length.
• 2960. Implement a stack-based solution for solving the problem of checking if two graphs contain identical sets of edges with constraints on the edge weights.
• 2961. Write a program to simulate a stack-based approach for solving the problem of finding the maximum product of non-overlapping subarrays in a matrix with constraints on the size of each subarray.
• 2962. Create a function that uses stacks to solve the problem of determining if a binary search tree contains all valid root-to-leaf paths that alternate between even and odd node values.
• 2963. Design a stack-based approach to solve the problem of finding the longest path in a graph with multiple cycles and constraints on edge weights and node degrees.
• 2964. Implement a stack-based solution for solving the problem of checking if a binary tree is height-balanced with constraints on the depth and values of the nodes.
• 2965. Write a program to simulate a stack-based approach for solving the problem of finding the number of valid palindrome partitions in a string with constraints on the partition size.
• 2966. Create a stack-based system for solving the problem of determining if two binary trees are structurally identical with constraints on the node depth and tree height.
• 2967. Design a stack-based algorithm to solve the problem of finding the shortest path in a weighted graph with multiple constraints on edge lengths and node distances.
• 2968. Implement a stack-based solution for solving the problem of checking if a binary search tree contains a path that sums to a given value with constraints on the node values.
• 2969. Write a program to simulate a stack-based approach for solving the problem of finding the longest subsequence of alternating positive and negative numbers in a binary array with constraints on the subsequence length.
• 2970. Create a function that uses stacks to solve the problem of finding the maximum product of non-overlapping subarrays in a binary array with constraints on the size of each subarray.
• 2971. Design a stack-based approach to solve the problem of finding the number of ways to rearrange a binary string into a valid palindrome with constraints on the number of allowed changes.
• 2972. Implement a stack-based solution for solving the problem of checking if two binary search trees contain identical sets of values with additional constraints on tree depth.
• 2973. Write a program to simulate a stack-based approach for solving the problem of finding the minimum number of flips required to convert a binary matrix into a valid checkerboard pattern.
• 2974. Create a stack-based system for solving the problem of determining if a graph contains a Hamiltonian path with constraints on the edge weights and node degrees.
• 2975. Design a stack-based algorithm to solve the problem of finding the maximum sum of elements in a matrix that can be split into non-overlapping submatrices with constraints on submatrix size.
• 2976. Implement a stack-based solution for solving the problem of checking if two graphs are isomorphic with constraints on the node degrees and edge weights.
• 2977. Write a program to simulate a stack-based approach for solving the problem of finding the longest sequence of alternating even and odd numbers in a circular array with constraints on sequence length.
• 2978. Create a function that uses stacks to solve the problem of finding the minimum number of operations required to convert a binary string into alternating sequences of 0s and 1s with constraints on the sequence length.
• 2979. Design a stack-based approach to solve the problem of finding the shortest path in a graph with weighted edges and constraints on the number of nodes.
• 2980. Implement a stack-based solution for solving the problem of checking if a binary tree contains all valid root-to-leaf paths that alternate between left and right child nodes.
• 2981. Write a program to simulate a stack-based approach for solving the problem of finding the maximum product of two non-overlapping subarrays in a matrix with constraints on the size of each subarray.
• 2982. Create a stack-based system for solving the problem of determining if a binary tree is height-balanced with additional constraints on the node values and depth.
• 2983. Design a stack-based algorithm to solve the problem of finding the number of valid palindrome subsequences in a binary string with constraints on the length of each subsequence.
• 2984. Implement a stack-based solution for solving the problem of checking if two binary search trees are mirror images of each other with constraints on the tree structure and node values.
• 2985. Write a program to simulate a stack-based approach for solving the problem of finding the minimum number of cuts required to partition a string into valid palindromic subsequences with constraints on the subsequence length.
• 2986. Create a function that uses stacks to solve the problem of determining if a graph contains any strongly connected components with constraints on node degrees and edge weights.
• 2987. Design a stack-based approach to solve the problem of finding the longest sequence of alternating positive and negative numbers in a matrix with constraints on sequence length.
• 2988. Implement a stack-based solution for solving the problem of checking if two graphs are isomorphic with constraints on node degrees and the number of edges.
• 2989. Write a program to simulate a stack-based approach for solving the problem of finding the longest subsequence in a string that can be rearranged into a valid palindrome with constraints on the number of allowed changes.
• 2990. Create a stack-based system for solving the problem of finding the maximum product of non-overlapping subarrays in a binary array with constraints on the size of each subarray.
• 2991. Design a stack-based algorithm to solve the problem of finding the number of distinct palindromic subsequences in a string with constraints on the length of each subsequence.
• 2992. Implement a stack-based solution for solving the problem of checking if a binary search tree contains all valid root-to-leaf paths with alternating even and odd node values.
• 2993. Write a program to simulate a stack-based approach for solving the problem of finding the number of valid palindrome partitions in a string with constraints on the length of each partition.
• 2994. Create a function that uses stacks to solve the problem of determining if two binary trees are structurally identical with constraints on tree height and node values.
• 2995. Design a stack-based approach to solve the problem of finding the longest increasing subsequence in a binary array with constraints on the number of allowed swaps.
• 2996. Implement a stack-based solution for solving the problem of checking if a graph is Eulerian with constraints on edge weights and node degrees.
• 2997. Write a program to simulate a stack-based approach for solving the problem of finding the minimum number of flips required to convert a binary matrix into alternating rows and columns.
• 2998. Create a stack-based system for solving the problem of determining if two binary search trees contain identical sets of values with additional constraints on the depth of each tree.
• 2999. Design a stack-based algorithm to solve the problem of finding the maximum product of three non-overlapping subarrays in a binary array with constraints on the size of each subarray.

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