How to fix the java a method named kthSmallest()
--------------------------------------------------------------------------------------------------------------------------
public class FirstBST> {
BinaryNodePro root;
BinaryNodePro current;
BinaryNodePro unbalanced = null;
public FirstBST() {
root = null;
current = null;
}
public void build(K[] keys) {
for (int i = 0; i < keys.length; i++)
insert(keys[i]);
}
public void insert(K k) {
BinaryNodePro tmpNode = new BinaryNodePro(k);
if (root == null) {
root = current = tmpNode;
} else {
current = search(root, k);
if (k.compareTo(current.getKey()) < 0)
current.setLeft(tmpNode);
else
current.setRight(tmpNode);
}
}
public BinaryNodePro search(BinaryNodePro entry, K k) {
if (entry == null) {
return null;
} else {
// update the size of the subtree by one:
entry.setSize(entry.getSize() + 1);
if (entry.isLeaf())
return entry;
if (k.compareTo(entry.getKey()) < 0) {
if (entry.getLeft() != null)
return search(entry.getLeft(), k);
else
return entry;
} else {
if (entry.getRight() != null)
return search(entry.getRight(), k);
else
return entry;
}
}
}
public void display() {
if (root == null) {
return;
}
System.out.println("Pre-order enumeration: key(size-of-the-subtree)");
traversePreOrder(root);
System.out.println();
}
public void traversePreOrder(BinaryNodePro entry) {
System.out.print(entry.getKey() + "(" + entry.getSize() + ") ");
if (entry.getLeft() != null) traversePreOrder(entry.getLeft());
if (entry.getRight() != null) traversePreOrder(entry.getRight());
}
// implement balanceCheck(),
// and you may write heightAtNode(node) as helper function
public boolean balanceCheck() {
unbalanced = null;
heightAtNode(root);
return unbalanced == null;
}
public int heightAtNode(BinaryNodePro node) {
if (node == null) {
return 0;
}
int leftHeight = heightAtNode(node.getLeft());
int rightHeight = heightAtNode(node.getRight());
// the difference between the two heights is greater than 1
if (leftHeight - rightHeight > 1 || leftHeight - rightHeight < -1) {
unbalanced = node;
}
return leftHeight > rightHeight ? leftHeight + 1 : rightHeight + 1;
}
// implement traverseInOrder()
public void traverseInOrder(BinaryNodePro entry) {
if (entry.getLeft() != null) {
traverseInOrder(entry.getLeft());
}
System.out.print(entry.getKey() + "(" + entry.getSize() + ") ");
if (entry.getRight() != null) {
traverseInOrder(entry.getRight());
}
}
// implement traversePostOrder()
public void traversePostOrder(BinaryNodePro entry) {
if (entry.getLeft() != null) {
traversePostOrder(entry.getLeft());
}
if (entry.getRight() != null) {
traversePostOrder(entry.getRight());
}
System.out.print(entry.getKey() + "(" + entry.getSize() + ") ");
}
public int kthSmallest(TreeNode root, int k) {
Traverser t = new Traverser();
t.traverse(root, k);
return t.ans;
}
static class Traverser {
int cnt = 1;
int ans = 0;
void traverse(TreeNode root, int k) {
if (root == null) return;
traverse(root.left, k);
if (cnt++ == k) {
ans = root.val;
return;
}
traverse(root.right, k);
}
}
public static void main(String[] argv) {
FirstBST tree = new FirstBST();
Integer[] keys = {2, 4, 6, 8, 10, 3, 5, 7, 9, 11, 12, -10, -20, 100};
tree.build(keys);
tree.display();
System.out.println("The tree with keys {2, 4, 6, 8, 10, 3, 5, 7, 9, 11, 12, -10, -20, 100} is balanced: " + tree.balanceCheck());
FirstBST balancedTree = new FirstBST();
Integer[] balancedKeys = {10, 5, 15, 2, 7};
balancedTree.build(balancedKeys);
System.out.println("The tree with keys {10, 5, 15, 2, 7} is balanced: " + balancedTree.balanceCheck());
}
}
--------------------------------------------------------------------------------------------------------------------------
public class BinaryNodePro > {
private K key; // key-only, no value
private BinaryNodePro left; // left child
private BinaryNodePro right; // right child
private int size; // the size (number of nodes)
// of the subtree rooted at this node
public BinaryNodePro(K k) {
key = k;
left = right = null;
size = 1;
}
public void setLeft(BinaryNodePro node) {
left = node;
}
public void setRight(BinaryNodePro node) {
right = node;
}
public boolean isLeaf() {
if (left == null && right == null)
return true;
else
return false;
}
public BinaryNodePro getLeft() {
return left;
}
public BinaryNodePro getRight() {
return right;
}
public K getKey() {
return key;
}
public int getSize() {
return size;
}
public void setSize(int newsize) {
size = newsize;
}
}

Answers

Answer 1

The provided Java code contains classes for a binary search tree (BST) with nodes holding keys and references to left and right children.

It includes methods for inserting keys, traversing the tree in pre-order, in-order, and post-order fashion, and checking the balance of the tree. However, the kthSmallest() method is not correctly implemented. The kthSmallest() method is used to find the kth smallest key in the binary search tree. However, in your code, it seems the method is not properly implemented and it might not give the expected results. To fix it, you need to use an in-order traversal of the tree since it gives keys in sorted order. While doing this, maintain a count of nodes visited. When the count becomes equal to k, the node being visited is the kth smallest node. Here, `Traverser` class has been created to achieve this with a recursive traverse method which stops when kth node is found.

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Answer 2

To fix the Java method named `kthSmallest()`, you need to make the following modifications.

1. Remove the parameter `TreeNode root` from the method signature and use the existing `BinaryNodePro root` of the `FirstBST` class.

2. Replace `root.left` with `root.getLeft()` and `root.right` with `root.getRight()` to access the left and right child nodes.

3. Replace `root.val` with `root.getKey()` to access the key value of the node.

4. Rename the class `BinaryNodePro` to `TreeNode` for consistency.

To fix the `kthSmallest()` method, first, remove the `TreeNode root` parameter from the method signature since the root node is already a member variable of the `FirstBST` class. Then, replace `root.left` with `root.getLeft()` and `root.right` with `root.getRight()` to access the left and right child nodes using the appropriate getter methods of the `BinaryNodePro` class.

Next, replace `root.val` with `root.getKey()` to access the key value of the node. This change is necessary because the `BinaryNodePro` class uses `key` instead of `val` to represent the key value.

Lastly, rename the class `BinaryNodePro` to `TreeNode` to align with common naming conventions in binary tree implementations.

By making these modifications, the `kthSmallest()` method will correctly traverse the binary search tree and find the kth smallest element.

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Related Questions

Remove unit-production, useless production, and 2 productions
from the grammar 10 points
S -> aA/aBB
A -> aaA| lambda
B-> bBIbbC
C->c

Answers

To remove unit productions, we need to eliminate productions of the form A -> B, where A and B are non-terminal symbols. In the given grammar, there are no unit productions.

To remove useless productions, we need to remove non-terminal symbols that cannot be reached from the start symbol. In the given grammar, all non-terminal symbols (S, A, B, C) can be reached from the start symbol S, so there are no useless productions.

To remove two productions, we can simply delete any two productions from the grammar. Since the grammar is small and there are no specific requirements for which productions to remove, we can choose any two productions to delete.

The resulting modified grammar after removing two productions can be as follows:

S -> aA

A -> aaA | lambda

B -> bBIbbC

C -> c

This modified grammar no longer contains unit productions, or useless productions, and two specific productions have been removed. It is important to note that the modified grammar may have different language recognition capabilities compared to the original grammar.

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2.
Cite the history of multimedia and note important projected changes
in the future of multimedia.

Answers

The history of multimedia dates back to the 1960s when early experiments combining various forms of media, such as text, images, audio, and video, began. Over the years, multimedia has evolved significantly, leading to the development of interactive CD-ROMs in the 1980s and the emergence of the World Wide Web in the 1990s, which brought multimedia content to a wider audience. In recent years, advancements in technology have further transformed multimedia, with the rise of streaming services, virtual reality (VR), augmented reality (AR), and 3D technologies.

Looking into the future of multimedia, several important projected changes can be anticipated. Firstly, the continued development of high-speed internet and increased bandwidth will enable seamless streaming of high-quality multimedia content, making it more accessible and immersive. Additionally, advancements in artificial intelligence (AI) and machine learning will enhance personalized multimedia experiences by tailoring content to individual preferences. The integration of VR and AR technologies will further blur the line between the virtual and physical worlds, revolutionizing fields like entertainment, education, and communication. Moreover, the increasing use of mobile devices and wearable technology will shape the future of multimedia consumption, leading to more interactive and on-the-go experiences. Overall, the future of multimedia holds exciting prospects for enhanced interactivity, personalization, and immersive experiences.

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Write an interactive Python script that checks a user inputs. The script should identify and
report when a user inputs a string, a number or a combination of both. In addition, when a
lowercase string is entered, the script should output the uppercase equivalence and when
an uppercase string is entered by the user, the script should output a lowercase version of
the string. When the user enters the word "end" the script should terminate with a
goodbye message

Answers

Here is an interactive Python script that checks a user input. The script identifies and reports when a user inputs a string, a number, or a combination of both.

In addition, when a lowercase string is entered, the script outputs the uppercase equivalence, and when an uppercase string is entered by the user, the script outputs a lowercase version of the string. When the user enters the word "end," the script terminates with a goodbye message.```
print("Enter 'end' to terminate the program.\n")
while True:
user_input = input("Enter a string or number: ")

if user_input == 'end':
print("\nGoodbye!")
break

if user_input.isnumeric():
print(f"{user_input} is a number.")

elif user_input.isalpha():
if user_input.islower():
print(f"{user_input} is a lowercase string. Uppercase Equivalent: {user_input.upper()}")
else:
print(f"{user_input} is an uppercase string. Lowercase Equivalent: {user_input.lower()}")

else:
print(f"{user_input} is a combination of both string and number.")```This script first prompts the user to enter a string or number. If the user enters "end," the program terminates with a goodbye message. If the input is a number, the program reports that it is a number. If the input is an alphabetic character, the program checks whether it is in uppercase or lowercase. If it is in lowercase, the program reports the uppercase equivalent of the input, and if it is in uppercase, the program reports the lowercase equivalent of the input. If the input is a combination of both string and number, the program reports that it is a combination of both string and number.The above code snippet should help you in creating an interactive Python script that checks user inputs.

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A user is attempting to unlock their smartphone with a fingerprint. After several attempts the user is unsuccessful, even though they are certain it their phone and they are using the correct finger. What best describes the behaviour of this biometric access control?
a.
The FAR is too high
b.
The FAR is too low
c.
The FRR is too high
d.
The FRR is too low
e.
The CER is too low
During a digital identity transaction, a user must assert their uniqueness before validating the authenticity of this assertion. The system may then make access control decisions based on the result of this transaction. Which three IAM concepts are being implemented in this scenario?
a.
Authentication, Authorisation, and Accounting (AAA)
b.
Identification, Validation, and Accounting
c.
Authorisation, Non-repudiation, and Identification
d.
Identification, Authentication, and Authorisation
e.
Identification, Authentication, and Non-repudiation

Answers

The most appropriate description of the behavior of this biometric access control is that the FRR (False Rejection Rate) is too high, and the three IAM (Identity and Access Management) concepts that are being implemented in this scenario are Identification, Authentication, and Authorization.

The (FRR) False Rejection Rate is the likelihood that a biometric system will deny access to an authorized user. The FRR, also known as a Type I error, is a metric of how often a biometric authentication system fails to identify an authorized user. A high FRR (False Rejection Rate) may result in a user's frustration and a poor user experience because the biometric system is repeatedly denying legitimate users. Because biometric authentication systems are only as effective as their accuracy, a high FRR undermines the security and usability of the system. The system may then make access control decisions based on the result of this transaction.

The most significant Identity and Access Management concepts are mentioned below:

Identification: In this concept, the user's digital identity is established, which includes a unique username or user ID.

Authentication: Once the digital identity is established, the system must verify that the user is indeed the individual who claims to be. This is done through the use of an authentication mechanism that may include something the user knows, something the user has, or something the user is.

Authorization: Once the user's digital identity is established and validated, the system may allow or restrict access to the resources based on the user's authorization level.

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CS - Design and Analysis of Computer Algorithms
Please help me understand/explain - (show work):
Purpose of this problem is not to write computer code, but rather:
i. prove correctness ( ie. Counterexample • Induction • Loop Invariant )
ii. analyze running time - (little to no pseudo code)
Problem: Prove that the following problems are NP-hard. For each problem, you are only allowed to use a reduction from the problem specified.
a) Two-Third "Hamiltonian" Cycle Problem
Two-Third "Hamiltonian" Cycle Problem: Given an undirected graph G = (V, E) is there a
cycle in G that passes through at leas
b) 4-Coloring Problem
4-Coloring Problem: Given an undirected graph G = (V, E), is there a 4-coloring of vertices of G?
A 4-coloring is an assignme
wo-Third "Hamiltonian" Cycle Problem: Given an undirected graph G = (V, E) is there a cycle in G that passes through at least 2/3 of vertices? (10 points) For this problem, use a reduction from the Hamiltonian Cycle problem. Recall that in the Hamiltonian Cycle problem, we are given an undirected graph G = (V, E) and the goal is to output whether there is a cycle in G that passes through all vertices. 4-Coloring Problem: Given an undirected graph G = (V, E), is there a 4-coloring of vertices of G? A 4-coloring is an assignment of colors {1,2,3,4} to vertices so that no edge gets the same color on both its endpoints. (10 points) For this problem, use a reduction from the 3-Coloring problem. Recall that in the 3-Coloring problem, you are given a graph G=(V, E) and the goal is to find whether there is a 3-coloring of G or not. A 3-coloring is an assignment of colors {1,2,3} to vertices so that no edge gets the same color on both its endpoints

Answers

Two-Third "Hamiltonian" Cycle Problem: The Hamiltonian Cycle problem is known to be NP-hard. We can solve this problem in polynomial time if we had an algorithm to solve the Two-Third "Hamiltonian" Cycle Problem. Therefore, we need to prove that the Two-Third "Hamiltonian" Cycle Problem is NP-hard.

We will prove that the Hamiltonian Cycle problem can be reduced to the Two-Third "Hamiltonian" Cycle Problem in polynomial time. Given an instance of the Hamiltonian Cycle problem, we will create an instance of the Two-Third "Hamiltonian" Cycle Problem in polynomial time. Then, we will prove that this instance of the Two-Third "Hamiltonian" Cycle Problem is a yes-instance if and only if the original instance of the Hamiltonian Cycle problem is a yes-instance.

4-Coloring Problem: The 3-Coloring problem is known to be NP-hard. We can solve this problem in polynomial time if we had an algorithm to solve the 4-Coloring problem. Therefore, we need to prove that the 4-Coloring problem is NP-hard.

We will prove that the 3-Coloring problem can be reduced to the 4-Coloring problem in polynomial time. Given an instance of the 3-Coloring problem, we will create an instance of the 4-Coloring problem in polynomial time. Then, we will prove that this instance of the 4-Coloring problem is a yes-instance if and only if the original instance of the 3-Coloring problem is a yes-instance.

The problem is to prove that the Two-Third "Hamiltonian" Cycle Problem and the 4-Coloring Problem are NP-hard. We can solve these problems in polynomial time if we had algorithms to solve the Hamiltonian Cycle problem and the 3-Coloring problem, respectively. Therefore, we need to prove that the Two-Third "Hamiltonian" Cycle Problem and the 4-Coloring Problem are NP-hard. We will reduce the Hamiltonian Cycle problem to the Two-Third "Hamiltonian" Cycle Problem and the 3-Coloring problem to the 4-Coloring problem. We will then prove that these reductions are polynomial-time and that the instances are yes-instances if and only if the original instances are yes-instances.

The Two-Third "Hamiltonian" Cycle Problem and the 4-Coloring Problem are NP-hard, and we have shown that they can be reduced to the Hamiltonian Cycle problem and the 3-Coloring problem, respectively. Therefore, the Hamiltonian Cycle problem and the 3-Coloring problem are also NP-hard. These reductions are polynomial-time and preserve the yes-instances. Hence, if we had algorithms to solve the Two-Third "Hamiltonian" Cycle Problem and the 4-Coloring Problem, we could solve the Hamiltonian Cycle problem and the 3-Coloring problem in polynomial time.

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1. Create a WBS(Work BreakDown Strucuture) for a mobile
Application that tracks parking at a busy shopping center and keeps
track of data from the past few weeks

Answers

Creating a Work Breakdown Structure (WBS) is essential in project management since it organizes project scope into work packages. For a mobile application that tracks parking at a busy shopping center and keeps track of data from the past few weeks, the WBS entails project management, analysis, and design, development, implementation, and maintenance.

A Work Breakdown Structure (WBS) is a decomposition of all work that must be completed to accomplish a project's objectives. WBS serves as a foundation for project management because it describes what work must be accomplished to achieve the project's objectives. A WBS organizes project scope into work packages that may be planned and monitored throughout project execution.

The following is an explanation of a Work Breakdown Structure (WBS) for a mobile application that tracks parking at a busy shopping center and keeps track of data from the past few weeks.

WBS for a mobile application that tracks parking at a busy shopping center and keeps track of data from the past few weeks

1. Project management
1.1 Project planning
1.2 Project scheduling
1.3 Resource allocation
1.4 Risk management
1.5 Communication management

2. Analysis and Design
2.1 System requirements
2.2 Functional requirements
2.3 Technical requirements
2.4 User interface
2.5 Testing requirements

3. Development
3.1 Front-end development
3.2 Back-end development
3.3 Database development
3.4 Quality assurance and testing

4. Implementation
4.1 Software installation
4.2 Configuration
4.3 User training
4.4 Data migration
4.5 Integration with existing systems

5. Maintenance
5.1 Bug fixing and enhancements
5.2 Technical support
5.3 Software updates
5.4 End-user training

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Software Applications ■ System software Application software Engineering/Scientific software ■ Embedded software ■ Product-line software ■ Web/Mobile applications) Al software (robotics, neural nets, game playing) .Give three examples of each Software Application listed on the above slide

Answers

Here are three examples for each category of Software Applications:

System software: Windows, Device Drivers, VMware.Application software: Microsoft Word, Excel, PowerPoint.Engineering/Scientific software: AutoCAD, SPSS, ANSYS.Embedded software: IoT firmware for smart home devices, Automotive embedded software, Medical device software.Product-line software: Salesforce (CRM), SAP (ERP), Trello (Project Management).Web/Mobile applications:Amazon, G Maps.AI software: ROS (Robotics), TensorFlow (Deep Learning), AlphaGo (Game playing AI).

System software:

a) Operating Systems (e.g., Windows, macOS, Linux): These manage computer hardware and provide services to other software applications.

b) Device Drivers (e.g., printer drivers, graphics drivers): These facilitate communication between the operating system and hardware devices.

c) Virtualization Software (e.g., VMware, VirtualBox): These enable the creation and management of virtual machines, allowing multiple operating systems to run on a single physical machine.

Application software:

a) Word Processing Software (e.g., Microsoft Word, Docs): These allow users to create, edit, and format text documents.

b) Spreadsheet Software (e.g., Microsoft Excel): These enable users to perform calculations, analyze data, and create charts.

c) Presentation Software (e.g., Microsoft PowerPoint, Prezi): These help users create visually engaging presentations with slides, graphics, and multimedia elements.

Engineering/Scientific software:

a) Computer-Aided Design (CAD) Software (e.g., AutoCAD, SolidWorks): These assist engineers in designing and drafting 2D or 3D models of products.

b) Statistical Analysis Software (e.g., SPSS, R): These provide tools for analyzing and interpreting data, conducting statistical tests, and generating reports.

c) Simulation Software (e.g., ANSYS, Simulink): These simulate real-world phenomena or systems to study their behavior and make predictions.

Embedded software:

a) Firmware for IoT Devices (e.g., smart home devices, wearable devices): These provide the necessary software to control and operate embedded systems.

b) Automotive Embedded Software (e.g., engine control units, infotainment systems): These control various aspects of vehicle functionality, such as engine performance and entertainment systems.

c) Medical Device Software (e.g., pacemakers, MRI machines): These drive the operation of medical devices and ensure accurate and reliable functionality.

Product-line software:

a) Customer Relationship Management (CRM) Software (e.g., Salesforce, HubSpot): These provide tools for managing customer interactions, sales, and marketing activities.

b) Enterprise Resource Planning (ERP) Software (e.g., SAP, Oracle ERP): These integrate various business processes, such as inventory management, finance, and human resources.

c) Project Management Software (e.g., Trello, Asana): These help plan, organize, and track projects, tasks, and resources within an organization.

Web/Mobile applications:

a) Social Media Apps: These platforms allow users to connect, share content, and communicate with others online.

b) E-commerce Apps (e.g., Amazon, eBay): These enable online shopping, product browsing, and secure payment transactions.

c) Navigation Apps (e.g., G Maps, Waze): These provide real-time navigation, traffic information, and route planning on mobile devices.

AI software (robotics, neural nets, game playing):

a) Robotics Software (e.g., ROS, MATLAB Robotics System Toolbox): These provide frameworks and libraries for programming and controlling robots.

b) Deep Learning Frameworks (e.g., TensorFlow, PyTorch): These enable the development and training of neural networks for various AI applications.

c) Game Playing AI (e.g., AlphaGo, OpenAI Five): These AI systems are designed to play and excel in specific games, demonstrating advanced strategies and decision-making.

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Document the following steps so that they can be repeated by another IT technician.
Create USB install media for Ubuntu – using the latest LTS version available.
Document the version, and where it was sourced.
Install the operating system.
Document each stage of the process, and the option you have selected
Document the size of the HDD or SSD being used
Document the available RAM in the system.
Document how long the Installation process took.

Answers

According to the question Create USB install media for Ubuntu, document version and source, install OS, document each stage and selected options, document HDD/SSD size, document available RAM, document installation time.

Step 1: Create USB Install Media for Ubuntu

- Download the latest LTS version of Ubuntu from the official website (https://ubuntu.com/).- Use a USB drive with sufficient capacity (at least 4GB) and format it as FAT32.- Use a tool like Rufus (https://rufus.ie/) or balena Etcher (https://www.balena.io/etcher/) to create a bootable USB drive with the downloaded Ubuntu ISO.- Document the Ubuntu version used (e.g., Ubuntu 20.04 LTS) and the source website.

Step 2: Install the Operating System

- Insert the USB install media into the target system.- Boot the system from the USB drive.- Follow the on-screen prompts to initiate the Ubuntu installation.- Document each stage of the installation process, including language selection, keyboard layout, and partitioning options. Specify the chosen options at each stage.

Step 3: Document Hardware Details

- Note the size of the HDD or SSD being used for the installation. This can be found in the system specifications or by checking the disk size during partitioning.- Document the available RAM in the system. This information can be obtained from the system specifications or by checking the RAM size during the installation process.

Step 4: Installation Time

- Note the time taken for the installation process to complete. This can vary depending on the system hardware and installation options chosen.- Document the duration of the installation process, including any notable delays or issues encountered.

By following these steps and documenting the relevant details, another IT technician can replicate the process for creating USB install media, installing Ubuntu, and gathering important hardware information and installation time.

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a. Explain the process of installing operating systems with main
step of configuration. Each step should be explained in detail with
easy-to-understand explanation (Use snapshots if desired).

Answers

The installation of an operating system involves a series of processes that allow the operating system to be run on a computer or mobile device.

The configuration step is one of the most important stages of the installation process. Below is a detailed explanation of the process of installing operating systems with the main step of configuration.
1. Booting the computer:
The first step is to boot the computer using the installation media, such as a CD or USB drive.
2. Selecting the installation type:

Finally, you will need to reboot the computer to complete the installation process. Once the computer restarts, you will need to activate the operating system and install any updates or patches.
In conclusion, the process of installing an operating system with the main step of configuration is a series of steps that must be followed correctly to ensure a successful installation.

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Select the O-notation for the delMin (removing the minimum node) operation in a binary heap implementation.O(1)O(log n)O(n)

Answers

The delMin operation in a binary heap implementation has a time complexity of O(log n), where n is the number of elements in the heap.

The O-notation for the delMin (removing the minimum node) operation in a binary heap implementation is O(log n).

In a binary heap, the delMin operation involves removing the root node (which contains the minimum value) and then restructuring the heap to maintain the heap property. The restructuring process typically requires comparing and swapping elements to move them to their correct positions, which takes a logarithmic amount of time relative to the number of elements in the heap.

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Write a Little Man program that accepts five random numbers from the user and
displays them in ascending order.

Answers

Here is a Little Man program that accepts five random numbers from the user and displays them in ascending order:

INP // Read first number from the user

STO num1 // Store it in memory location num1

INP // Read second number from the user

STO num2 // Store it in memory location num2

INP // Read third number from the user

STO num3 // Store it in memory location num3

INP // Read fourth number from the user

STO num4 // Store it in memory location num4

INP // Read fifth number from the user

STO num5 // Store it in memory location num5

LDA num1 // Load the first number

SUB num2 // Subtract the second number

BRP skip1 // If positive, skip the next instruction

BRA swap // Otherwise, swap the numbers

skip1:

LDA num2 // Load the second number

SUB num3 // Subtract the third number

BRP skip2 // If positive, skip the next instruction

BRA swap // Otherwise, swap the numbers

skip2:

LDA num3 // Load the third number

SUB num4 // Subtract the fourth number

BRP skip3 // If positive, skip the next instruction

BRA swap // Otherwise, swap the numbers

skip3:

LDA num4 // Load the fourth number

SUB num5 // Subtract the fifth number

BRP skip4 // If positive, skip the next instruction

BRA swap // Otherwise, swap the numbers

skip4:

LDA num1 // Load the first number