I JUST NEED THE GRAPHH FILE PLEASE In this project yo.pdf
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I JUST NEED THE GRAPH.H FILE PLEASE In this project, you will develop algorithms that find road routes through the bridges to travel between islands. The input is a text file containing data about the given map. Each file begins with the number of rows and columns in the map considered as maximum latitudes and maximum longitudes respectively on the map. The character "X" in the file represents the water that means if a cell contains "X" then the traveler is not allowed to occupy that cell as this car is not drivable on water. The character "0" in the file represents the road connected island. That means if a cell contains "0" then the traveler is allowed to occupy that cell as this car can drive on roads. The traveler starts at the island located at latitude = 0 and longitude = 0 (i.e., (0,0)) in the upper left corner, and the goal is to drive to the island located at (MaxLattitude-1, MaxLongitudes-1) in the lower right corner. A legal move from an island is to move left, right, up, or down to an immediately adjacent cell that has road connectivity which means a cell that contains "0". Moving off any edge of the map is not allowed. Input: The map files Output: Print paths as explicitly specified for all the functions in Part A You should have single main function that calls all the required functions for Part A for all the 3 given input map files one by one. Please use the graph.h Part A Consider the following class map, class map { public: map(ifstream &fin); void print(int,int,int,int); bool isLegal(int i, int j); void setMap(int i, int j, int n); int getMap(int i, int j) const; int getReverseMapI(int n) const; int getReverseMapJ(int n) const; void mapToGraph(graph &g); bool findPathRecursive(graph &g, stack<int> &moves); bool findPathNonRecursive1(graph &g, stack<int> &moves); bool findPathNonRecursive2(graph &g, queue<int> &moves); bool findShortestPath1(graph &g, stack<int> &bestMoves); bool findShortestPath2(graph &, vector<int> &bestMoves); void map::printPath(stack<int> &s); int numRows(){return rows;}; int numCols(){return cols;}; private: int rows; // number of latitudes/rows in the map int cols; // number of longitudes/columns in the map matrix<bool> value; matrix<int> mapping; // Mapping from latitude and longitude co-ordinates (i,j) values to node index values vector<int> reverseMapI; // Mapping from node index values to map latitude i value vector<int> reverseMapJ; // Mapping from node index values to map longitude j value }; 1. Using the above class map, write function void map::mapToGraph(graph &g){...} to create a graph g that represents the legal moves in the map m. Each vertex should represent a cell, and each edge should represent a legal move between adjacent cells. 2. Write a recursive function findPathRecursive(graph &g, stack<int> &moves) that looks for a path from the start island to the destination island. If a path from the start to the destination exists, your function should call the map::printPath() function that.
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I have compilation errors that I'm struggling with in my code- please.pdf
I have compilation errors that I'm struggling with in my code, please can you help me fix the
errors. I'm trying to make a road map, where each place is a vertex and each road between two
places is an edge. Each edge stores a number indicating the length of the road. Assume that there
is at most one road directly connecting two given places, so that there is at most one edge
between two vertices. The map is loaded in via a text file that starts with a line that contains the
number of vertices and the number of edges. After the line mentioned, there are two sections of
content. The initial section holds details regarding the vertices, where each line represents a
single vertex. The information stored for each vertex includes its name and the availability of
charging stations, represented as an integer with 1 indicating availability and 0 indicating
unavailability. The second section stores information about the edges, with each line
corresponding to one edge. Each line contains three numbers: the first two are 0-based indices of
its two incident vertices within the places array; the last number is the edge length. An example
of the map input would look like this as a txt file:
import java.util.*;
import java.io.*;
class Vertex {
// Constructor: set name, chargingStation and index according to given values,
// initilaize incidentRoads as empty array
public Vertex(String placeName, boolean chargingStationAvailable, int idx) {
name = placeName;
incidentRoads = new ArrayList<Edge>();
index = idx;
chargingStation = chargingStationAvailable;
}
public String getName() {
return name;
}
public boolean hasChargingStation() {
return chargingStation;
}
public ArrayList<Edge> getIncidentRoads() {
return incidentRoads;
}
// Add a road to the array incidentRoads
public void addIncidentRoad(Edge road) {
incidentRoads.add(road);
}
public int getIndex() {
return index;
}
private String name; // Name of the place
private ArrayList<Edge> incidentRoads; // Incident edges
private boolean chargingStation; // Availability of charging station
private int index; // Index of this vertex in the vertex array of the map
}
class Edge {
public Edge(int roadLength, Vertex firstPlace, Vertex secondPlace) {
length = roadLength;
incidentPlaces = new Vertex[] { firstPlace, secondPlace };
}
public Vertex getFirstVertex() {
return incidentPlaces[0];
}
public Vertex getSecondVertex() {
return incidentPlaces[1];
}
public int getLength() {
return length;
}
private int length;
private Vertex[] incidentPlaces;
}
// A class that represents a sparse matrix
public class RoadMap {
// Default constructor
public RoadMap() {
places = new ArrayList<Vertex>();
roads = new ArrayList<Edge>();
}
// Auxiliary function that prints out the command syntax
public static void printCommandError() {
System.err.println("ERROR: use one of the following commands");
System.err.println(" - Load a map and print information:");
System.err.println(" java RoadMap -i <MapFile>");
System.err.println(" - Load a map an.
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I have compilation errors that I'm struggling with in my code- please.pdf
I have compilation errors that I'm struggling with in my code, please can you help me fix the
errors. I'm trying to make a road map, where each place is a vertex and each road between two
places is an edge. Each edge stores a number indicating the length of the road. Assume that there
is at most one road directly connecting two given places, so that there is at most one edge
between two vertices. The map is loaded in via a text file that starts with a line that contains the
number of vertices and the number of edges. After the line mentioned, there are two sections of
content. The initial section holds details regarding the vertices, where each line represents a
single vertex. The information stored for each vertex includes its name and the availability of
charging stations, represented as an integer with 1 indicating availability and 0 indicating
unavailability. The second section stores information about the edges, with each line
corresponding to one edge. Each line contains three numbers: the first two are 0-based indices of
its two incident vertices within the places array; the last number is the edge length. An example
of the map input would look like this as a txt file:
import java.util.*;
import java.io.*;
class Vertex {
// Constructor: set name, chargingStation and index according to given values,
// initilaize incidentRoads as empty array
public Vertex(String placeName, boolean chargingStationAvailable, int idx) {
name = placeName;
incidentRoads = new ArrayList<Edge>();
index = idx;
chargingStation = chargingStationAvailable;
}
public String getName() {
return name;
}
public boolean hasChargingStation() {
return chargingStation;
}
public ArrayList<Edge> getIncidentRoads() {
return incidentRoads;
}
// Add a road to the array incidentRoads
public void addIncidentRoad(Edge road) {
incidentRoads.add(road);
}
public int getIndex() {
return index;
}
private String name; // Name of the place
private ArrayList<Edge> incidentRoads; // Incident edges
private boolean chargingStation; // Availability of charging station
private int index; // Index of this vertex in the vertex array of the map
}
class Edge {
public Edge(int roadLength, Vertex firstPlace, Vertex secondPlace) {
length = roadLength;
incidentPlaces = new Vertex[] { firstPlace, secondPlace };
}
public Vertex getFirstVertex() {
return incidentPlaces[0];
}
public Vertex getSecondVertex() {
return incidentPlaces[1];
}
public int getLength() {
return length;
}
private int length;
private Vertex[] incidentPlaces;
}
// A class that represents a sparse matrix
public class RoadMap {
// Default constructor
public RoadMap() {
places = new ArrayList<Vertex>();
roads = new ArrayList<Edge>();
}
// Auxiliary function that prints out the command syntax
public static void printCommandError() {
System.err.println("ERROR: use one of the following commands");
System.err.println(" - Load a map and print information:");
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System.err.println(" - Load a map an.
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- It borrows concepts from functional programming, requiring users to implement map and reduce functions. Map processes key-value pairs in parallel while reduce combines intermediate outputs.
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CountryData.cppEDIT THIS ONE#include fstream #include str.pdf
CountryData.cpp
*EDIT THIS ONE*
#include
#include
#include "CountryData.h"
#include "utilities.h"
using namespace std;
CountryData::CountryData(const string& n, double p1, double p2) : name(n), pop1980(p1),
pop2010(p2)
{
}
string getName() const {
return name(n);
}
double calcGrowth() const {
return (pop2010(p2) - pop1980(p1)) / pop1980(p2);
}
private:
string name_;
double pop1980(p1);
double pop2010(p2);
}
double fieldToDouble(const string& field) {
try {
return stod(field);
}
catch (...) {
throw runtime_error("invalid floating-point field: " + field);
}
}
vector split(const string& s, char sep) {
vector fields;
stringstream ss(s);
string field;
while (getline(ss, field, sep)) {
fields.push_back(field);
}
return fields;
}
CountryData parseCountryData(const string& line) {
vector fields = split(line, ',');
if (fields.size() != 12) {
throw runtime_error("invalid line: " + line);
}
string name = fields[0];
double pop1980 = fieldToDouble(fields[1]);
double pop2010 = fieldToDouble(fields[11]);
return CountryData(name, pop1980, pop2010);
}
vector readCountryData(const string& filename) {
vector countryDataList;
ifstream infile(filename);
if (!infile) {
throw runtime_error("unable to open file: " + filename);
}
string line;
while (getline(infile, line)) {
try {
CountryData countryData = parseCountryData(line);
countryDataList.push_back(countryData);
}
catch (const runtime_error&) {
// ignore the error; just don't add this one to the vector
}
}
return countryDataList;
}
vector ReadCountryData(const string & filename)
{
vector data;
ifstream ifs{ filename };
string line;
// Read the header line
getline(ifs, line);
while (getline(ifs, line)) {
try {
CountryData cd = ParseCountryData(line);
data.push_back(cd);
}
catch (runtime_error & e) {
string error{ e.what() };
}
}
return data;
}
CountrtyData.h
#pragma once
#include
#include
class CountryData
{
public:
CountryData(const std::string & n, double p1, double p2);
std::string GetName() const;
double CalcGrowth() const;
private:
std::string name;
double pop1980;
double pop2010;
};
CountryData ParseCountryData(const std::string& line);
std::vector ReadCountryData(const std::string& filename);
utilities.h
#pragma once
#include
#include
// Split a string into sub-strings based on the given
// delimiter. For example, if the input is
//
// Ron,Ginny,George,Fred,Percy,Bill,Charlie
//
// the output is a 7-element vector with
// the following entries:
//
// [0] = "Ron"
// [1] = "Ginny"
// [2] = "George"
// [3] = "Fred"
// [4] = "Percy"
// [5] = "Bill"
// [6] = "Charlie"
//
std::vector split(const std::string& s, char seperator);
// Converts a database field string to an integer.
// If the field cannot be converted to an int,
// a runtime_error exception is thrown.
int fieldToInt(const std::string & field);
// Converts a database field to a double.
// If the field cannot be converted to an double,
// a runtime_error exception is thrown.
double fieldToDouble(const std::string & field);
utilities.cpp
#include
#incl.
Im having trouble figuring out how to code these sections for an a.pdf
I\'m having trouble figuring out how to code these sections for an assignment... (Sections 4 and 5
are in a .cpp file without a main. Section 6 is in a seperate file that\'s only purpose is to test using
a main method.) For further information, a link to the assignment can be found here -
http://www.cs.ecu.edu/~karl/2530/fall16/Assn/Assn6/assn6.html
4. Reading the Graph
Document and define a function to read a graph. Use the adjacency list representation. Only store
the graph once.
5. Printing a Graph
Document and define a function to print a graph. .
6. Testing
Test reading and echoing the graph. Do not move on until you are satisfied that this much works.
(Testing is done in the main method, not the .cpp file).
How would I code this using the following code?
#include
using namespace std;
struct Edge{
int vertexNumber;
int weight;
struct Edge* next;
Edge( int vn, int wgt, struct Edge* nxt ){
vertexNumber = vn;
weight = wgt;
next = nxt;
};
};
struct Vertex{
struct Edge* adjacencyList;
double shortestDistance;
int vertexNumber;
Vertex(){
vertexNumber = shortestDistance = -1;
adjacencyList = NULL;
}
};
struct Graph{
int nVertices;
int nEdges;
struct Vertex* vertices;
Graph( int nVert ){
vertices = new struct Vertex[nVert];
nEdges = 0;
}
};
typedef struct Edge Edge;
typedef struct Vertex Vertex;
typedef struct Graph Graph;
int main(){
}
4. Reading the Graph
Document and define a function to read a graph. Use the adjacency list representation. Only
store the graph once.
5. Printing a Graph
Document and define a function to print a graph. .
6. Testing
Test reading and echoing the graph. Do not move on until you are satisfied that this much
works.
(Testing is done in the main method, not the .cpp file).
Solution
4)
// A C Program to demonstrate adjacency list representation of graphs
#include
#include
// A structure to represent an adjacency list node
struct AdjListNode
{
int dest;
struct AdjListNode* next;
};
// A structure to represent an adjacency list
struct AdjList
{
struct AdjListNode *head; // pointer to head node of list
};
// A structure to represent a graph. A graph is an array of adjacency lists.
// Size of array will be V (number of vertices in graph)
struct Graph
{
int V;
struct AdjList* array;
};
// A utility function to create a new adjacency list node
struct AdjListNode* newAdjListNode(int dest)
{
struct AdjListNode* newNode =
(struct AdjListNode*) malloc(sizeof(struct AdjListNode));
newNode->dest = dest;
newNode->next = NULL;
return newNode;
}
// A utility function that creates a graph of V vertices
struct Graph* createGraph(int V)
{
struct Graph* graph = (struct Graph*) malloc(sizeof(struct Graph));
graph->V = V;
// Create an array of adjacency lists. Size of array will be V
graph->array = (struct AdjList*) malloc(V * sizeof(struct AdjList));
// Initialize each adjacency list as empty by making head as NULL
int i;
for (i = 0; i < V; ++i)
graph->array[i].head = NULL;
return graph;
}
// Adds an edge to an undirected graph
void addEd.
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IntroductionTopological sorting is a common operation performed .docx
Introduction
Topological sorting is a common operation performed on directed acyclic graphs (dags). It arises in numerous applications including task scheduling, serialization and dependency determinations, and graph drawing. The goal of this project is to manipulate graph representations, perform topological sorting on a dag, and use the topological numbers in a longest path computation as well as in a heuristic solving a scheduling problem.
Degree-based Topological Sort
Given is a dag G=(V,E), V={0, 1, … ,n-1}, having n vertices and m edges. The graph is represented in the form of adjacency lists. For each vertex u, Aout[u] points to a list containing all vertices v such that <u,v> is an edge from u to v and Ain[u] points to a list containing all vertices v such that <v,u> is an edge from v to u. The length of list Aout[u] is the out-degree of node u and the length of list Ain[u] is the in-degree of node u.
In any dag there exists at least one vertex having in-degree 0 (called the sources) and at least one vertex with out-degree 0 (called the sinks). The dags used in the project can have an arbitrary number of sources, but will always have one sink. The dag shown in Figure 1 has two sources (vertices A and G) and one sink (vertex F).
Figure 1: A 7-vertex dag with two sources and one sink.
Topological sorting assigns to each vertex an integer (also called its topological number). See Chapter 4.2 in the text for details. The topological numbers represent a linear ordering of the vertices such that for every edge <u,v> vertex u appears before v in the ordering. For the graph in Figure 1, the ordering A G B D C E F is a topological ordering and the topological numbers are A=0, B=2, C=4, D=3, E=5, F=6, G=1. Note that topological orderings are not unique.
We note that the textbook presents topological sorting as an application of DFS (Algorithm 4.5 in Chapter 4.2). Another approach is a non-recursive implementation based on a degree-driven graph exploration. In this project you need to implement the degree-based topological sorting approach described below.
All source vertices are ready to be placed. For Figure 1, vertices A and G can be placed right away. Once a vertex u has all the vertices incident to its incoming edges placed, u can be placed. This observation forms the basis of degree-based topological sorting algorithm.
The algorithm uses a queue TSQ. Whether one uses a FIFO or a LIFO (i.e., stack) queue does not matter for determining a topological ordering (different queues will produce different orderings). The topological numbers are maintained in an array, say array T.
The high-level description of the degree-driven algorithm is as follows:
1 Make all initializations; includes a variable count set to 0 and placing all sources in queue TSQ.
2 u = dequeue() and we set T[u]=count
3 All of u’s out-going edges are examined. For each edge <u,v>, reduce the number of edges into v by 1. Once all incoming edges of vertex v have received topolo.
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This slide deck is my homage to SICP, the book which first introduced me to the Functional Programming triad of map, filter and fold.
It was during my Computer Science degree that a fellow student gave me a copy of the first edition, not long after the book came out.
I have not yet come across a better introduction to these three functions.
The upcoming slides are closely based on the second edition of the book, a free online copy of which can be found here:
https://mitpress.mit.edu/sites/default/files/sicp/full-text/book/book.html.
Download for original image quality.
Errata:
slide 20: the Clojure map function is in fact the Scheme one repeated - see code below for correction.
Scheme code: https://github.com/philipschwarz/the-fp-triad-of-map-filter-and-fold-scheme
Clojure code: https://github.com/philipschwarz/the-fp-triad-of-map-filter-and-fold-clojure
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Standard A-A' topographic profiles are widely used in the geosciences to construct cross sections and investigate surficial processes. However, simple line profiles fail to capture the wider topographic regime. Here, I present a workflow to calculate a swath profile in GRASS GIS. The basic premise is, a swath profile "looks off to the side" along each step in a standard profile line, and calculates min/mean/max elevation, hence producing a statistically-relevant 2-d approximation of topography.
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Go is a statically typed, compiled programming language designed at Google in 2007 to improve programming productivity for multicore and networked machines. It addresses criticisms of other languages used at Google while keeping useful characteristics like C's performance, Python's readability, and support for high-performance networking and multiprocessing. Go is syntactically similar to C but adds memory safety, garbage collection, and CSP-style concurrency. There are two major implementations that target multiple platforms including WebAssembly. Go aims to guarantee that code written for one version will continue to build and run with future versions.
FilesAssignm3.h#ifndef Assignm3_H#define Assignm3_H.docx
Files/Assignm3.h
#ifndef Assignm3_H
#define Assignm3_H
// ------------------------------------------------------------------------------------
#include <vector>
#include <string>
#include <pthread.h>
#include "Path.h"
#include "Maze.h"
#include "ProgramLog.h"
#include "Assignm3_Utils.h"
#include "SubmitMazeSoln.h"
// ------------------------------------------------------------------------------------
namespace Assignm3
{
const int MAX_NO_OF_THREADS= 3;
const std::string THREAD_NAMES []= {"POOH", "TIGGER", "ROO", "GOLPHER", "KANGA", "LUMPY", "OWL", "RABBIT", "PIGLET",
"POOH0", "TIGGER0", "ROO0", "GOLPHER0", "KANGA0", "LUMPY0", "OWL0", "RABBIT0", "PIGLET0",
"POOH1", "TIGGER1", "ROO1", "GOLPHER1", "KANGA1", "LUMPY1", "OWL1", "RABBIT1", "PIGLET1",
"POOH2", "TIGGER2", "ROO2", "GOLPHER2", "KANGA2", "LUMPY2", "OWL2", "RABBIT2", "PIGLET2",
"POOH3", "TIGGER3", "ROO3", "GOLPHER3", "KANGA3", "LUMPY3", "OWL3", "RABBIT3", "PIGLET3",
"POOH4", "TIGGER4", "ROO4", "GOLPHER4", "KANGA4", "LUMPY4", "OWL4", "RABBIT4", "PIGLET4",
"POOH5", "TIGGER5", "ROO5", "GOLPHER5", "KANGA5", "LUMPY5", "OWL5", "RABBIT5", "PIGLET5"
};
// ------------------------------------------------------------------------------------
// ------------------------------------------------------------------------------------
// ------------------------------------------------------------------------------------
struct PathFinderParameterInfo
{
intthreadIDArrayIndex;
boolexitThisThreadNow;
PointcurrentLocation;
std::stringthreadName;
VectorOfPointStructTypetravelledPath;
PathFinderParameterInfo (void)
{
currentLocation.x= -1;
currentLocation.y= -1;
threadIDArrayIndex= -1;
exitThisThreadNow= false;
travelledPath= VectorOfPointStructType ();
}
~PathFinderParameterInfo (void)
{
travelledPath.clear ();
}
};
// ------------------------------------------------------------------------------------
struct PathFinderResource
{
pthread_tactiveThreadArray [MAX_NO_OF_THREADS];
PathFinderParameterInfo *activeThreadParamArray[MAX_NO_OF_THREADS];
VectorOfPointStructTypesolutionPath;
VectorOfPointStructTypediscoveredDangerAreas;
intusedThreadNameIndex;
intnoOfDeadEndPathsFound;
intnoOfBarriersDiscovered;
intnoOfDangerAreaDiscovered;
PathFinderResource (void)
{
usedThreadNameIndex= 0;
noOfDeadEndPathsFound= 0;
noOfBarriersDiscovered= 0;
noOfDangerAreaDiscovered= 0;
solutionPath= VectorOfPointStructType ();
discoveredDangerAreas= VectorOfPointStructType ();
}
~PathFinderResource (void)
{
solutionPath.clear ();
discoveredDangerAreas.clear ();
}
};
PathFinderResource globalPathFinderResource;
// ------------------------------------------------------------------------------------
static Maze * mazeObj;
static Path * pathObj;
static SubmitMazeSoln * submitMazeSolnObj;
static std::fstream logFileStream;
static std::string DefaultLogFilename = "Assignm3Log.txt";
static pthread_mutex_tthread_mutex= PTHREAD_MUTEX_INITIALIZER;
static pthread_cond_t thread_condition= PTHREA ...
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CountryData.cppEDIT THIS ONE#include fstream #include str.pdf
CountryData.cpp
*EDIT THIS ONE*
#include
#include
#include "CountryData.h"
#include "utilities.h"
using namespace std;
CountryData::CountryData(const string& n, double p1, double p2) : name(n), pop1980(p1),
pop2010(p2)
{
}
string getName() const {
return name(n);
}
double calcGrowth() const {
return (pop2010(p2) - pop1980(p1)) / pop1980(p2);
}
private:
string name_;
double pop1980(p1);
double pop2010(p2);
}
double fieldToDouble(const string& field) {
try {
return stod(field);
}
catch (...) {
throw runtime_error("invalid floating-point field: " + field);
}
}
vector split(const string& s, char sep) {
vector fields;
stringstream ss(s);
string field;
while (getline(ss, field, sep)) {
fields.push_back(field);
}
return fields;
}
CountryData parseCountryData(const string& line) {
vector fields = split(line, ',');
if (fields.size() != 12) {
throw runtime_error("invalid line: " + line);
}
string name = fields[0];
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vector readCountryData(const string& filename) {
vector countryDataList;
ifstream infile(filename);
if (!infile) {
throw runtime_error("unable to open file: " + filename);
}
string line;
while (getline(infile, line)) {
try {
CountryData countryData = parseCountryData(line);
countryDataList.push_back(countryData);
}
catch (const runtime_error&) {
// ignore the error; just don't add this one to the vector
}
}
return countryDataList;
}
vector ReadCountryData(const string & filename)
{
vector data;
ifstream ifs{ filename };
string line;
// Read the header line
getline(ifs, line);
while (getline(ifs, line)) {
try {
CountryData cd = ParseCountryData(line);
data.push_back(cd);
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catch (runtime_error & e) {
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}
}
return data;
}
CountrtyData.h
#pragma once
#include
#include
class CountryData
{
public:
CountryData(const std::string & n, double p1, double p2);
std::string GetName() const;
double CalcGrowth() const;
private:
std::string name;
double pop1980;
double pop2010;
};
CountryData ParseCountryData(const std::string& line);
std::vector ReadCountryData(const std::string& filename);
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#pragma once
#include
#include
// Split a string into sub-strings based on the given
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//
// Ron,Ginny,George,Fred,Percy,Bill,Charlie
//
// the output is a 7-element vector with
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//
// [0] = "Ron"
// [1] = "Ginny"
// [2] = "George"
// [3] = "Fred"
// [4] = "Percy"
// [5] = "Bill"
// [6] = "Charlie"
//
std::vector split(const std::string& s, char seperator);
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utilities.cpp
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#incl.
Im having trouble figuring out how to code these sections for an a.pdf
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http://www.cs.ecu.edu/~karl/2530/fall16/Assn/Assn6/assn6.html
4. Reading the Graph
Document and define a function to read a graph. Use the adjacency list representation. Only store
the graph once.
5. Printing a Graph
Document and define a function to print a graph. .
6. Testing
Test reading and echoing the graph. Do not move on until you are satisfied that this much works.
(Testing is done in the main method, not the .cpp file).
How would I code this using the following code?
#include
using namespace std;
struct Edge{
int vertexNumber;
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struct Edge* next;
Edge( int vn, int wgt, struct Edge* nxt ){
vertexNumber = vn;
weight = wgt;
next = nxt;
};
};
struct Vertex{
struct Edge* adjacencyList;
double shortestDistance;
int vertexNumber;
Vertex(){
vertexNumber = shortestDistance = -1;
adjacencyList = NULL;
}
};
struct Graph{
int nVertices;
int nEdges;
struct Vertex* vertices;
Graph( int nVert ){
vertices = new struct Vertex[nVert];
nEdges = 0;
}
};
typedef struct Edge Edge;
typedef struct Vertex Vertex;
typedef struct Graph Graph;
int main(){
}
4. Reading the Graph
Document and define a function to read a graph. Use the adjacency list representation. Only
store the graph once.
5. Printing a Graph
Document and define a function to print a graph. .
6. Testing
Test reading and echoing the graph. Do not move on until you are satisfied that this much
works.
(Testing is done in the main method, not the .cpp file).
Solution
4)
// A C Program to demonstrate adjacency list representation of graphs
#include
#include
// A structure to represent an adjacency list node
struct AdjListNode
{
int dest;
struct AdjListNode* next;
};
// A structure to represent an adjacency list
struct AdjList
{
struct AdjListNode *head; // pointer to head node of list
};
// A structure to represent a graph. A graph is an array of adjacency lists.
// Size of array will be V (number of vertices in graph)
struct Graph
{
int V;
struct AdjList* array;
};
// A utility function to create a new adjacency list node
struct AdjListNode* newAdjListNode(int dest)
{
struct AdjListNode* newNode =
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}
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int i;
for (i = 0; i < V; ++i)
graph->array[i].head = NULL;
return graph;
}
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void addEd.
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IntroductionTopological sorting is a common operation performed .docx
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In any dag there exists at least one vertex having in-degree 0 (called the sources) and at least one vertex with out-degree 0 (called the sinks). The dags used in the project can have an arbitrary number of sources, but will always have one sink. The dag shown in Figure 1 has two sources (vertices A and G) and one sink (vertex F).
Figure 1: A 7-vertex dag with two sources and one sink.
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We note that the textbook presents topological sorting as an application of DFS (Algorithm 4.5 in Chapter 4.2). Another approach is a non-recursive implementation based on a degree-driven graph exploration. In this project you need to implement the degree-based topological sorting approach described below.
All source vertices are ready to be placed. For Figure 1, vertices A and G can be placed right away. Once a vertex u has all the vertices incident to its incoming edges placed, u can be placed. This observation forms the basis of degree-based topological sorting algorithm.
The algorithm uses a queue TSQ. Whether one uses a FIFO or a LIFO (i.e., stack) queue does not matter for determining a topological ordering (different queues will produce different orderings). The topological numbers are maintained in an array, say array T.
The high-level description of the degree-driven algorithm is as follows:
1 Make all initializations; includes a variable count set to 0 and placing all sources in queue TSQ.
2 u = dequeue() and we set T[u]=count
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The upcoming slides are closely based on the second edition of the book, a free online copy of which can be found here:
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Download for original image quality.
Errata:
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FilesAssignm3.h#ifndef Assignm3_H#define Assignm3_H.docx
Files/Assignm3.h
#ifndef Assignm3_H
#define Assignm3_H
// ------------------------------------------------------------------------------------
#include <vector>
#include <string>
#include <pthread.h>
#include "Path.h"
#include "Maze.h"
#include "ProgramLog.h"
#include "Assignm3_Utils.h"
#include "SubmitMazeSoln.h"
// ------------------------------------------------------------------------------------
namespace Assignm3
{
const int MAX_NO_OF_THREADS= 3;
const std::string THREAD_NAMES []= {"POOH", "TIGGER", "ROO", "GOLPHER", "KANGA", "LUMPY", "OWL", "RABBIT", "PIGLET",
"POOH0", "TIGGER0", "ROO0", "GOLPHER0", "KANGA0", "LUMPY0", "OWL0", "RABBIT0", "PIGLET0",
"POOH1", "TIGGER1", "ROO1", "GOLPHER1", "KANGA1", "LUMPY1", "OWL1", "RABBIT1", "PIGLET1",
"POOH2", "TIGGER2", "ROO2", "GOLPHER2", "KANGA2", "LUMPY2", "OWL2", "RABBIT2", "PIGLET2",
"POOH3", "TIGGER3", "ROO3", "GOLPHER3", "KANGA3", "LUMPY3", "OWL3", "RABBIT3", "PIGLET3",
"POOH4", "TIGGER4", "ROO4", "GOLPHER4", "KANGA4", "LUMPY4", "OWL4", "RABBIT4", "PIGLET4",
"POOH5", "TIGGER5", "ROO5", "GOLPHER5", "KANGA5", "LUMPY5", "OWL5", "RABBIT5", "PIGLET5"
};
// ------------------------------------------------------------------------------------
// ------------------------------------------------------------------------------------
// ------------------------------------------------------------------------------------
struct PathFinderParameterInfo
{
intthreadIDArrayIndex;
boolexitThisThreadNow;
PointcurrentLocation;
std::stringthreadName;
VectorOfPointStructTypetravelledPath;
PathFinderParameterInfo (void)
{
currentLocation.x= -1;
currentLocation.y= -1;
threadIDArrayIndex= -1;
exitThisThreadNow= false;
travelledPath= VectorOfPointStructType ();
}
~PathFinderParameterInfo (void)
{
travelledPath.clear ();
}
};
// ------------------------------------------------------------------------------------
struct PathFinderResource
{
pthread_tactiveThreadArray [MAX_NO_OF_THREADS];
PathFinderParameterInfo *activeThreadParamArray[MAX_NO_OF_THREADS];
VectorOfPointStructTypesolutionPath;
VectorOfPointStructTypediscoveredDangerAreas;
intusedThreadNameIndex;
intnoOfDeadEndPathsFound;
intnoOfBarriersDiscovered;
intnoOfDangerAreaDiscovered;
PathFinderResource (void)
{
usedThreadNameIndex= 0;
noOfDeadEndPathsFound= 0;
noOfBarriersDiscovered= 0;
noOfDangerAreaDiscovered= 0;
solutionPath= VectorOfPointStructType ();
discoveredDangerAreas= VectorOfPointStructType ();
}
~PathFinderResource (void)
{
solutionPath.clear ();
discoveredDangerAreas.clear ();
}
};
PathFinderResource globalPathFinderResource;
// ------------------------------------------------------------------------------------
static Maze * mazeObj;
static Path * pathObj;
static SubmitMazeSoln * submitMazeSolnObj;
static std::fstream logFileStream;
static std::string DefaultLogFilename = "Assignm3Log.txt";
static pthread_mutex_tthread_mutex= PTHREAD_MUTEX_INITIALIZER;
static pthread_cond_t thread_condition= PTHREA ...
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be trained to achieve good generalization accuracy on smaller datasets. They can automatically
learn a good feature representation from raw input data. They can learn arbitrarily good
approximations to any function. They aren't sensitive to settings of tuning parameters (i.e. you
don't have to spend too much time trying many different tuning parameter values). They are
interpretable models..
httpswwwcancergovnewseventspressreleases2020lung.pdf
Lung cancer death rates have declined by 51% in men and 26% in women since the early 1990s according to a new report from the National Cancer Institute. This drop is attributed to reductions in smoking and advances in early detection and treatment options. While lung cancer remains the leading cause of cancer death, the report finds that newer targeted therapies and immunotherapies have led to improved survival for many patients with advanced disease.
Human impacts on the environment Prepare a detailed present.pdf
Human impacts on the environment. Prepare a detailed presentation covering all the necessary
and important points on the following points on Human impact on climate and atmosphere
covering the following the greenhouse gases, ozone depletion and climate change, aerosols,
vegetation and albedo change, deliberate climatic modification, geo engineering and urban air
pollution..
HR praclitioners are increasingly performing gender pay audi.pdf
HR praclitioners are increasingly performing gender pay audits to understand whether a gender
gap exists at their company. Practitioners examine payroll data for evidence of a gender pay gap.
An HR practitioner cotlects data on base pay ($), gender (0= female and 1=male), and age (years)
for 50 employees at his company and stores these - data in the accompanying table. Develop a
mutiple regression model that uses gender and age to predict employee base pay. Be sure to
perform a thorough residual analysis. The HR practitioner suspected that there was a significant
interaction between gender and age is there evidence to support the HR practitioner's suspicion?
Click the icon to view the data table.
Humans have contributed to the majority of carbon dioxide C.pdf
Humans have contributed to the majority of carbon dioxide (CO2) in the atmosphere. True
FalseWhat are some of the issues that can lead to environmental health problems associated with
rapid global urbanization? (choose Question 3 four) Spread of diseases Reduced stress Reduced
water/air quality Reduced population density Poor food safety and quality Unsanitary conditions.
i A content box using the lttextareagt tag which sho.pdf
(i) A content box, using the <textarea> tag, which should be labeled My Projects
(ii) A submit button, using the <input/ > tag, which should be labeled Submit
(iii) A JavaScript function identified as: submitProjects. This function should be activated/triggered
when the administrator clicks on the Submit button defined above. Also, this function
should copy the content of (i) above; and store it in a (.txt) file on your local computer/PC
*** How would you do / approach (iii) (Javascript Function) for this question ?? ***.
HuDs and Autnorties 014 points graded networkx has an imp.pdf
HuDs and Autnorties 0/14 points (graded) networkx has an implementation of the hubs and
authorities concept in the algorithm called HITS. This implementation enforces the normalization
conditions of ivi=1iwi=1 which we will use here. Compute the HITS hub and authority scores of the
nodes for the adjacency matrix A=0111111101000011000001000100100100010000011000000.
humans What does the sample suggest about the use of 986F .pdf
humans. What does the sample suggest about the use of 98.6F as the mean body temperature?
What is the confidence interval estimate of the population mean ? F<<F (Round to three decimal
places as needed.).
Hunger Games Catching Fire uso de medios digitales y socia.pdf
Hunger Games: Catching Fire: uso de medios digitales y sociales para la narracin de marcas
1. Cmo marc la campaa de marketing de Hunger Games una desviacin de una campaa de
marketing tradicional para una pelcula? Qu fue innovador en el enfoque de marketing adoptado
por Lionsgate?
2. Una buena campaa de narracin transmedia debe ser persistente, generalizada, participativa y
personalizada. Evale crticamente la campaa en base a estos elementos.
3. Revise cuidadosamente todas las tcticas creativas y de medios utilizadas en la campaa. Qu
hizo bien Lionsgate y qu podra haberse hecho mejor?
4. Qu elementos reutilizaras para promocionar la prxima pelcula Sinsajo Parte 1? Qu elementos
cambiaras?.
I need full assignment with every steps Write a program tha.pdf
I need full assignment with every steps
Write a program that contains the following functions: - The input_fp() function uses an input loop
and try/except that accepts only floating-point values and returns the result. - The input_int()
function uses an input loop and try/except that accepts positive or negative integers and returns
the result. - The input index() function takes a list and uses input int() and try/except to return only
valid indexes for the list. - The main() function calls each of the others. Call it from the body of the
program. Copy and paste your program into the text field below..
I need an explanation for both the wrong and correct answers.pdf
I need an explanation for both the wrong and correct answers
Most cnidarians are known to produce toxins. In fact, it has been claimed that one particular
species produces the most deadly of all toxins on the planet. What feature of this group most likely
evolved simultaneously with the evolution of these toxins? Selected Answer: A slow-moving or
sessile lifestyle in the adult Answers: Bilateral symmetry in the mobile larval forms Asexual
reproduction The medusa body form A slow-moving or sessile sffestyle in the adult Dipioblastic
design Question 21 0 out of 2.5 points Which of the following extremophiles might researchers
most likely use as a model for the earliest organisms on Earth? Selected Answer: An archaean
capable of surviving in the polar ice caps Answers: A bacterium found on another planet or moon
A bacterium capable of living at extremely high salinity An archaean capable of surviving in the
polar ice caps A bacterium that theives in a highly acidic environment An anaerobic archaean
species??.
I need an explanation for the wrong and the correct answer .pdf
I need an explanation for the wrong and the correct answer
Most cnidarians are known to produce toxins. In fact, it has been claimed that one particular
species produces the most deadly of all toxins on the planet. What feature of this group most likely
evolved simultaneously with the evolution of these toxins? Selected Answer: A slow-moving or
sessile lifestyle in the adult Answers: Bilateral symmetry in the mobile larval forms Asexual
reproduction The medusa body form A slow-moving or sessile sffestyle in the adult Dipioblastic
design Question 21 0 out of 2.5 points Which of the following extremophiles might researchers
most likely use as a model for the earliest organisms on Earth? Selected Answer: An archaean
capable of surviving in the polar ice caps Answers: A bacterium found on another planet or moon
A bacterium capable of living at extremely high salinity An archaean capable of surviving in the
polar ice caps A bacterium that theives in a highly acidic environment An anaerobic archaean
species??.
I need help building a dictionary for the unique packets tha.pdf
I need help building a dictionary for the unique packets that this script captures that will then add
them to the created PrettyTable. It needs to also keep track of the number times that the unique
packets occur. The below is the code I have and what the dictionary needs. Thank you for your
help! You will create a dictionary entry for each unique packet observered Unique Packets
combination of SRC-IP, DST-IP, Protocol you will keep track of the count of each unique packet in
the dictionary STRUCT UNPACK FORMATTING NOTES Format C Type Python type Standard
size x pad byte no value c char bytes of length 1 b signed char integer 1 B unsigned char integer 1
? _Bool bool 1 h short integer 2 H unsigned short integer 2 i int integer 4 I unsigned int integer 4 l
long integer 4 L unsigned long integer 4 q long long integer 8 Q unsigned long long integer 8 n
ssize_t integer N size_t integer e (6) float 2 f float float 4 d double float 8 s char[] bytes p char[]
bytes P void* integer ENCODING Character Byte order Size Alignment big-endian standard none !
network (= big-endian) standard none IP Packet ''' import socket import os from prettytable import
PrettyTable # Get the HOST to Sniff From hostname = socket.gethostname() HOST =
socket.gethostbyname(hostname) #HOST = 'localhost' import ipaddress import struct class IP: def
__init__(self, buff=None): header = struct.unpack('> 4 self.ihl = header[0] & 0xF self.tos =
header[1] self.len = header[2] self.id = header[3] self.offset = header[4] self.ttl = header[5]
self.protocol_num = header[6] self.sum = header[7] self.src = header[8] self.dst = header[9] #
human readable IP addresses self.src_address = ipaddress.ip_address(self.src) self.dst_address
= ipaddress.ip_address(self.dst) # map protocol constants to their names self.protocol_map = {1:
"ICMP", 6: "TCP", 17: "UDP"} def main(): socket_protocol = socket.IPPROTO_IP sniffer =
socket.socket(socket.AF_INET, socket.SOCK_RAW, socket_protocol) sniffer.bind((HOST,0))
sniffer.setsockopt(socket.IPPROTO_IP, socket.IP_HDRINCL, 1) sniffer.ioctl(socket.SIO_RCVALL,
socket.RCVALL_ON) captureDict = {} for i in range(1,10000): packet = sniffer.recvfrom(65565) #
Wait for Packet basePacket = packet[0] # Extract Packet Data from tuple pckHeader =
basePacket[0:20] # Extract the packet header ipOBJ = IP(pckHeader) # Create the IP Object #
Lookup the protocol name try: protocolName = ipOBJ.protocol_map[ipOBJ.protocol_num] except:
protocolName = "Unknown" print("SRC-IP :", ipOBJ.src_address) print("DST-IP :",
ipOBJ.dst_address) print("Protocol:", protocolName) ''' Dictionary code HERE Once you have
processed 10,000 packets update load your results into the prettytable and display. ''' tbl =
PrettyTable(["Occurs", "SRC", "DST", "Protocol"]) print(tbl.get_string(reversesort=True))
sniffer.ioctl(socket.SIO_RCVALL, socket.RCVALL_OFF) if __name__ == '__main__': main().
I need a help with a project I need to identify Grass lawn.pdf
I need a help with a project. I need to identify Grass/ lawn grass (Poaceae if its the same thing)
with - a background, taxonomy, anatomy, physiology, natural history, and characters (i.e.
synapomorphies). I need to outline the organisms taxonomy including traditional taxonomical
layers as well as any additional layers (e.g., subfamily, infraorder, etc) necessary; include any
taxonomic arguments around the status of your organisms; cover characteristics of each
organism that make it unique but part of the taxon to which it belongs..
I need an excel formula that will return 1 for HE17HE21 and.pdf
I need an excel formula that will return 1 for HE17-HE21 and return 0 elsewhere. The formula
should be something like this; IF HE17 then 1 else 0. I will be adding this to another function that
first checks IF(OR(B$1="Sunday",B$1="Saturday"),0. What i am trying to build here is a dynamic
sheet that checks if the day of the week is a weekday then for Hours Ending 17-21 the value
should be 1. Everything else 0. Thanks.
Hxxxp19x21 H5TNii5x21 c Why akould you espect th.pdf
This document discusses probability and standard deviation. It asks why the probability of an event in part (b) would be higher than in part (a), considering the standard deviations. The standard deviation is higher in part (b) because it has a smaller sample size, so the distribution is more spread out and uncertain than the distribution in part (a).
I measured the cooling rate X and surface hardness Y of .pdf
I measured the cooling rate (X) and surface hardness (Y) of a material and put each of them to
three groups, (XL,XM,XH) and (YL,YM,YH) as follows, where L,M and L mean low medium and
high level of measurement. The number in a cell of the table is the frequency observed. (Problems
14 ) 1. Find Prob(XXM) 2. Find Prob(X=XH and YYM). 3. Find Prob(YYMXXM) 4. Find E[X] (Hint:
First calculate the marginal probability that X=1,2,3, respectively. And then Use E[X]=XiPi).
I need a Full Runnable code and UML Diagram for the followin.pdf
I need a Full Runnable code and UML Diagram for the following.
The Assignment
This assignment is about effectively using inheritance, association, overriding, and constructors.
Youre
going to work alone or with a partner to translate a description of the inhabitants of a game world
into a
set of classes that could serve as part of a model for a game or gaming utility, draw the UML class
diagram for these classes, and then implement them in Java.
Read the descriptions below carefully and try to take every detail into account in your design.
There
might be multiple ways to implement each attribute and ability. Just because your idea is different,
doesnt mean its wrong.
The Inhabitants of Foon
In town of Hogsface in the magical land of
Foon there are three kinds of Monsters: Orcs,
Goblins, and Manticores.
Attributes
All Monsters have a clan affiliation that
cannot change. They all have numeric ratings
for three basic attributes that describe their
abilities: Ferocity, Defense, and Magic. These
attributes can be raised or lowered by one
point at a time, within the range 0 to 20. The clan affiliation and basic attributes of a Monster are
obvious and can be easily retrieved by anyone.
All Monsters have 0 or more treasure. They all have a numeric health rating. If they have health >
0 they
are alive, otherwise they are dead.
The clan affiliation of a Monster cannot change, unless that monster is a Manticore theyre fickle
and
change clans all the time.
Every Goblin has exactly one other Goblin that is its sworn enemy. This enemy is fixed at birth and
never
changes, even if it dies.
An Orc can be Infantry or Warlord. Warlords have an integer leadership rating from 1 to 5. This
rating
can be raised or lowered by 1 point at a time. Every warlord has exactly 5 Infantry in his or her
command, and every Infantry member has exactly one Warlord that commands it. The
assignments of
Infantry to Warlord are frequently changed.
Abilities
Attack and Defense
When a Monster attacks, it produces a battle score equal to the average of its Ferocity,
Defense, and Magic scores. If its opponents attack score is higher, it loses health points
equal to the difference in attack scores. (e.g. if a Manticore with an attack score of 18.5 fights
a Goblin with an attack score of 10.7, the Goblin will lose 7.8 health.)
When a Manticore or a Warlord attacks, its battle score is greater than a normal Monsters
score by a factor of 1.5.
Dead Monsters cannot attack or defend themselves.
Healing
When a Warlord sounds its battle cry, it produces a health boost score equal to its leadership
rating multiplied by 5 and raises the health score of each of the Infantry in its command by
that amount.
Dead Warlords cannot sound their battle cry and dead Infantry cannot be healed.
Treasure
A monster can gain or lose treasure as the result of a fight. When a warlord gains treasure, it
gets a +1 leadership boost for every 10 points of treasure it receives.
A Dead monster cannot gain treasure.
The .
How would you explain the statement that CPR should not be .pdf
How would you explain the statement that CPR should not be the
standard of care for the chronically ill resident of a long-term care
facility?
How would you explain the statement that CPR should not be the
standard of care for the chronically ill resident of a long-term care
facility?.
i Local supranational and governmental organisations amp.pdf
i. Local, supranational and governmental organisations & bodies, etc. are (or aren't) responsible
for cultural problems for what reasons and in what ways?
ii. In regards to the representatives of councils, cabinets, boards & other leaders or executives of
governmental body organisations that are stated in the first question, what're the consequences of
these governmental networks attaining their cultural obligations?
iii. What effects do the aforementioned organisations' cultural responsibilities and actions have on
your learning of governance and public management?
i. Local, supranational and governmental organisations & bodies, etc. are (or aren't) responsible
for cultural problems for what reasons and in what ways?
ii. In regards to the representatives of councils, cabinets, boards & other leaders or executives of
governmental body organisations that are stated in the first question, what're the consequences of
these governmental networks attaining their cultural obligations?
iii. What effects do the aforementioned organisations' cultural responsibilities and actions have on
your learning of governance and public management?
ii. In regards to the representatives of councils, cabinets, boards & other leaders or executives of
governmental body organisations that are stated in the first question, what're the consequences of
these governmental networks attaining their cultural obligations?
iii. What effects do the aforementioned organisations' cultural responsibilities and actions have on
your learning of governance and public management?.
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I JUST NEED THE GRAPHH FILE PLEASE In this project yo.pdf
- 1. I JUST NEED THE GRAPH.H FILE PLEASE In this project, you will develop algorithms that find road routes through the bridges to travel between islands. The input is a text file containing data about the given map. Each file begins with the number of rows and columns in the map considered as maximum latitudes and maximum longitudes respectively on the map. The character "X" in the file represents the water that means if a cell contains "X" then the traveler is not allowed to occupy that cell as this car is not drivable on water. The character "0" in the file represents the road connected island. That means if a cell contains "0" then the traveler is allowed to occupy that cell as this car can drive on roads. The traveler starts at the island located at latitude = 0 and longitude = 0 (i.e., (0,0)) in the upper left corner, and the goal is to drive to the island located at (MaxLattitude-1, MaxLongitudes-1) in the lower right corner. A legal move from an island is to move left, right, up, or down to an immediately adjacent cell that has road connectivity which means a cell that contains "0". Moving off any edge of the map is not allowed. Input: The map files Output: Print paths as explicitly specified for all the functions in Part A You should have single main function that calls all the required functions for Part A for all the 3 given input map files one by one. Please use the graph.h Part A Consider the following class map, class map { public: map(ifstream &fin); void print(int,int,int,int); bool isLegal(int i, int j); void setMap(int i, int j, int n); int getMap(int i, int j) const; int getReverseMapI(int n) const; int getReverseMapJ(int n) const; void mapToGraph(graph &g); bool findPathRecursive(graph &g, stack<int> &moves); bool findPathNonRecursive1(graph &g, stack<int> &moves); bool findPathNonRecursive2(graph &g, queue<int> &moves); bool findShortestPath1(graph &g, stack<int> &bestMoves); bool findShortestPath2(graph &, vector<int> &bestMoves); void map::printPath(stack<int> &s); int numRows(){return rows;}; int numCols(){return cols;}; private: int rows; // number of latitudes/rows in the map
- 2. int cols; // number of longitudes/columns in the map matrix<bool> value; matrix<int> mapping; // Mapping from latitude and longitude co-ordinates (i,j) values to node index values vector<int> reverseMapI; // Mapping from node index values to map latitude i value vector<int> reverseMapJ; // Mapping from node index values to map longitude j value }; 1. Using the above class map, write function void map::mapToGraph(graph &g){...} to create a graph g that represents the legal moves in the map m. Each vertex should represent a cell, and each edge should represent a legal move between adjacent cells. 2. Write a recursive function findPathRecursive(graph &g, stack<int> &moves) that looks for a path from the start island to the destination island. If a path from the start to the destination exists, your function should call the map::printPath() function that should print a sequence of correct moves (Go left, Go right, Go down, Go up, etc.). If no path from the start to the destination exists, the program should print, "No path exists". If a solution exists the solver should also simulate the solution to each map by calling the map::print() function. The map::print() function prints out a map visualization, with the goal and current position of the car in the map at each move, marked to show the progress. Hint: consider recursive-DFS. 3. Write a function findPathNonRecursive1(graph &g, stack<int> &moves) that does the same thing as in 2, but by using stack and without using recursion. If a path from the start to the destination exists, your function should call the map::printPath() function that should print a sequence of correct moves (Go left, Go right, Go down, Go up, etc.). If no path from the start to the destination exists, the program should print, "No path exists". If a solution exists the solver should also simulate the solution to each map by calling the map::print() function. The map::print() function prints out a map visualization, with the goal and current position of the car in the map at each move, marked to show the progress. Hint: consider stack-based DFS. 4. Write a function findPathNonRecursive2(graph &g, queue<int> &moves) that does the same thing as in 2, but by using queue and without using recursion. If a path from the start to the destination exists, your function should call the map::printPath() function that should print a sequence of correct moves (Go left, Go right, Go down, Go up, etc.). If no path from the start to the destination exists, the program should print, "No path exists". If a solution exists the solver should also simulate the solution to each map by calling the map::print() function. The map::print() function prints out a map visualization, with the goal and current position of the car in the map at each move, marked to show the progress. Hint: consider queue-based BFS. The code you submit should apply all three findPath functions to each map, one after the other. The map input files named map1.txt, map2.txt, and map3.txt can be downloaded from the canvas. Example of a map input file: 7 10 Start - 0XXXXXXXXX 00000000XX
- 3. 0X0X0X0XXX 0X0X0X0000 XX0XXX0XXX X0000000XX XXXXXXX000Z - Destination Thus, You should submit a single zip folder within which you need to have 4 files including, 1) a single ".cpp" code file that includes all the above-required functions called from a single main function, 2) a single ".h" header file, 3) README file with the compile and execution instructions, and 4) your pre-compiled ".exe" executable file. On top of your .cpp code file, .h header file, and README file, you need to mention your name as comments. You may have an additional PDF file if you want to narrate your additional observations about running the functions of this project, e.g., drawing the graph to compare the runtime and explain the results. All submitted code files must be named as "<your-name>.cpp". For example, it will be "jankibhimani.cpp", "jankibhimani_graph.h", and "jankibhimani.exe". The zip folder containing all the files should be named as "<your- name>_code.zip". For example, it will be "jankibhimani_code.zip". Please follow the Guidelines for Software Engineering Techniques.pdf and Assignments and Project Style and Documentation Guidelines.pdf made available to you in your Student Resources module for other document editing and code format guidelines. Some header files you may need are following, that can be found in you header files zip folder available to you to download on Canvas. #include <iostream> #include <limits.h> #include "d_except.h" #include <list> #include <fstream> #include "d_matrix.h" #include <queue> #include <vector>