Overview / Introduction
Tuwaiq is a prominent football team based in Saudi Arabia, competing in the Saudi Professional League. Known for its dynamic play and strategic formations, Tuwaiq has been a significant player in the league since its establishment. The team is currently managed by [Manager’s Name], who has been instrumental in shaping the squad’s competitive edge.
Team History and Achievements
Since its founding in [Year Founded], Tuwaiq has accumulated numerous accolades, including [Number] league titles and several domestic cup victories. Notable seasons include [Year], when they finished as league runners-up, showcasing their potential to challenge top-tier teams.
Current Squad and Key Players
The current squad features standout players like [Player 1] (Forward) and [Player 2] (Midfielder), known for their exceptional skills and contributions on the field. The team boasts a balanced mix of experienced veterans and promising young talents.
Team Playing Style and Tactics
Tuwaiq employs a flexible 4-3-3 formation, focusing on high pressing and quick transitions. Their strengths lie in their attacking prowess and solid defense, though they occasionally struggle with maintaining possession under pressure.
Interesting Facts and Unique Traits
Fans affectionately call Tuwaiq “The Desert Eagles,” a nickname reflecting their fierce playing style. They have a passionate fanbase known for their vibrant support during matches. Rivalries with teams like [Rival Team] add an extra layer of excitement to their games.
Lists & Rankings of Players, Stats, or Performance Metrics
- Top Scorer: [Player 1] – ⚽️🎰
- Average Goals per Game: 1.8 – 💡
- Defensive Record: Top 5 in clean sheets – ✅
Comparisons with Other Teams in the League or Division
Tuwaiq often finds itself compared to teams like [Comparison Team], with whom they share similar tactical approaches but differ in execution efficiency.
Case Studies or Notable Matches
A memorable match was against [Opponent Team] on [Date], where Tuwaiq secured a crucial victory that propelled them into playoff contention. This game highlighted their resilience and strategic acumen.
Tables Summarizing Team Stats, Recent Form, Head-to-Head Records, or Odds
| Statistic | Last Season | This Season |
|---|---|---|
| Total Goals Scored | 45 | 38* |
| Total Goals Conceded | 30 | 25* |
| Last Five Matches Form (W/D/L) | N/A | W-W-L-D-W* |
Tips & Recommendations for Analyzing the Team or Betting Insights 💡 Advice Blocks
- Analyze head-to-head records against upcoming opponents to gauge potential outcomes.
- Monitor key player performances as they significantly impact match results.
- Leverage recent form trends to predict future performance accurately.
Betting Insights FAQ Block 🤔💡📊⚽️🏆🎰📈💸🤝💬💲❓❕❗💡✅❌👍👎😃😢😳😮😱😎☺️😉😍🙌✊💪⚽️🏆🎯⚖️🔍🔧🛠️💼💻💡⚙️⚽️⚽️⚽️⚽️⚽️⚽️⚽️⚽️⚽️❗❗❗❗❗❗❗❗❗❗✅✅✅✅✅✅✅✅✅ ✨♀♂♀♂♀♂♀♂♀♂♀♂ ✨ ✨ ✨ ✨ ✨ ✨ ✨ ✨ ✨ ❓ ❓ ❓ ❓ ❓ ❓ ❓ ❓ ❓
Q: What are Tuwaiq’s strengths?
A: Tuwaiq excels in offensive play with fast-paced attacks led by key forwards.
Q: How consistent is Tuwaiq’s defense?
A: While generally strong, they can be vulnerable against high-scoring teams.
Q: Are there any injury concerns affecting key players?
A: Currently, no major injuries are reported among starting players.
Betting Tips 💡 Advice Blocks 🤔💡📊⚽️🏆 🎰 📈 💸 🤝 💬 💲 😃 😢 😳 😮 😱 😎 ☺️ 😉 😍 👏 👋 👋 👋 👋 👋 👋 👋 👋 🙌 🙌 🙌 🙌 🙌 🔥 🔥 🔥 🔥 🔥 🔥 🔥 🔥 🔥 🔥 🔥 🔥 🔥 ❤ ❤ ❤ ❤ ❤ ❤ ❤ ❤ ❤ ❤
- Analyze recent performance trends to make informed betting decisions.
- Carefully review head-to-head statistics against upcoming opponents for insights into potential match outcomes.
- Pay close attention to any injury updates that might affect key players’ participation or performance levels during matches.
- Evaluate weather conditions on match days as they can influence gameplay dynamics significantly – particularly relevant for outdoor stadiums like those found in Saudi Arabia where heat may impact player stamina over time!
- Maintain awareness of managerial changes within either your chosen team(s) or rivals; new strategies could lead unexpectedly positive/negative results depending upon how well these adjustments align with existing team dynamics/tactics employed thus far throughout past seasons/games played so far this year etcetera…etcetera…etcetera…etcetera…etcetera…etcetera…
Bet on Tuwaiq now at Betwhale!
Bonus tip: Don’t forget about looking into odds offered by different bookmakers – sometimes small variations between them could resultantly lead towards higher profit margins when placing bets over time! Happy betting!
Bonus Tip ⭐ ➕ 💡 ➕ ⭐ ➕ ➕ ➕ ➕ ➕ ➕ ➕ ➕ ➕ ⭐ ➕ ⭐ ⭐ ⭐ ⭐ ⭐ ⭐ ⭐ ⭐ ⭐
➕
➖
➖
➖
➖
➖
➖
➖
➖
– A
+ A
– B
<|file_sep- C
fengdu78/GraphTheory/src/test/java/com/fengdu/graphtheory/directedgraph/ShortestPathTest.java
package com.fengdu.graphtheory.directedgraph;
import org.junit.Test;
import static org.junit.Assert.*;
public class ShortestPathTest {
private final String[][] matrix = {{“A”, “B”, “C”, “D”},
{“A”, “”, “10”, “”, “”},
{“B”, “”, “”, “50”, “”},
{“C”, “”, “”, “”, “10”},
{“D”, “”, “”, “”, “”}};
private final String[][] matrix1 = {{“A”, “B”, “C”},
{“A”, “”, “10”, “”},
{“B”, “”, “”, “50”},
{“C”, “”, “”, “”}};
private final String[][] matrix11 = {{“A”,”B”,”C”,”D”},
{“A”,””,”10″,””,”30″},
{“B”,””,””,”50″,””},
{“C”,””,””,”20″,”10″},
{“D”,””,””,””,””}};
private final String[][] matrix12 = { {“A”,”B”,”C”,”D”},
{ “A”,””,10,””,-20},
{ “B”,””,,”50″,””},
{ “C”,””,,”20″,”10″},
{ “D”,””,,””,-10}};
public void testMatrix(String[] startEnd){
// System.out.println(“matrix”);
// ShortestPath sp = new ShortestPath();
// DirectedGraph dg = new DirectedGraph(matrix);
// sp.shortestPath(dg,startEnd[0],startEnd[1]);
//
//
// System.out.println(“matrix1”);
// sp = new ShortestPath();
// dg = new DirectedGraph(matrix1);
// sp.shortestPath(dg,startEnd[0],startEnd[1]);
//
//
// System.out.println(“matrix11”);
// sp = new ShortestPath();
// dg = new DirectedGraph(matrix11);
// sp.shortestPath(dg,startEnd[0],startEnd[1]);
//
//
//
//
//// System.out.println(“matrix12”);
//// sp = new ShortestPath();
//// dg = new DirectedGraph(matrix12);
//// sp.shortestPath(dg,startEnd[0],startEnd[1]);
//test Dijkstra Algorithm
System.out.println(“matrix Dijkstra”);
Dijkstra dijkstra=new Dijkstra();
dijkstra.dijkstraAlgorithm(new DirectedGraph(matrix),startEnd[0]);
System.out.println(“matrix11 Dijkstra”);
dijkstra=new Dijkstra();
dijkstra.dijkstraAlgorithm(new DirectedGraph(matrix11),startEnd[0]);
// test Bellman-Ford Algorithm
System.out.println(“matrix Bellman-Ford”);
BellmanFord bellmanFord=new BellmanFord();
bellmanFord.bellmanFordAlgorithm(new DirectedGraph(matrix),startEnd[0]);
System.out.println(“matrix12 Bellman-Ford”);
bellmanFord=new BellmanFord();
bellmanFord.bellmanFordAlgorithm(new DirectedGraph(matrix12),startEnd[0]);
//test Floyd Algorithm
System.out.println(“matrix Floyd”);
Floyd floyd=new Floyd();
floyd.floydAlgorithm(new DirectedGraph(matrix));
System.out.println(“matrix11 Floyd”);
floyd=new Floyd();
floyd.floydAlgorithm(new DirectedGraph(matrix11));
}
@Test
public void test(){
testMatrix(new String[]{“A” , “D”});
}
}
fengdu78/GraphTheory D:
[A->B->C->D]
# matrix1:
# vertices:
[A,B,C]
# edges:
[A,B]
[B,C]
# shortest path from A -> C:
[A->B->C]
# matrix11:
# vertices:
[A,B,C,D]
# edges:
[A,C,D]
[B,D]
[C,D]
# shortest path from A -> D:
[A->D]
##### Matrix does not contain negative cycles #####
##### Matrix does not contain negative cycles #####
##### Matrix contains negative cycles #####
##### Matrix does not contain negative cycles #####
# matrix Dijkstra:
vertices:[A,B,C,D]
distances:[0,-Infinity,-Infinity,-Infinity]
predecessors:[null,null,null,null]
vertices:[B,A,C,D]
distances:[14,-Infinity,-Infinity,-Infinity]
predecessors:[A,null,null,null]
vertices:[C,A,B,D]
distances:[24,-Infinity,-Infinity,-Infinity]
predecessors:[A,A,null,null]
vertices:[D,A,B,C]
distances:[34,-Infinity,-Infinity,-Infinity]
predecessors:[A,A,A,null]
shortes path from A -> D is : [A->D]
# matrix11 Dijkstra:
vertices:[A,B,C,D]
distances:[0,-Infinity,-Infinity,-Infinity]
predecessors:[null,null,null,null]
vertices:[C,A,B,D]
distances:[20,-Infinity,-Infinity,-infinity ]
predecessors:[null,A,A,null ]
vertices:[D,A,B,C ]
distances : [30 ,- Infinity ,- Infinity ,- Infinity ]
predecessors : [ C , A , B , null ]
shortes path from A -> D is : [ A -> C -> D ]
##### Matrix does not contain negative cycles #####
##### Matrix contains negative cycles #####
### Test cases for undirected graphs:
testMatrix({“H” , “G”})
Output:
graph using adjacency list:
H => E => G => F => I => J => K => L => M => N =>
E => H => B =>
G => H =>
F => G =>
I => F =>
J => I =>
K => J =>
L=> K =>
M=> L =>
N=> M=>
graph using adjacency list:
H E B C G F I J K L M N=>
H –> E –> B –> C –> G –> F –> I –> J –> K –> L –> M–> N–>
E <– H <– G <– F <– I <– J <– K <– L <– M
H — E — B — C — G — F — I — J — K — L — M– N–
E – H – G – F – I – J – K – L – M – N-
G – H – B – C –
F – G –
I – F –
J – I –
K – J –
L- K –
M- L –
N- M-
shortes path from H -> G is : [H,G]
## Reference
* https://www.geeksforgeeks.org/graph-and-its-representations/
* https://www.geeksforgeeks.org/dijkstras-shortest-path-algorithm-greedy-algo-7/
* https://www.geeksforgeeks.org/bellman-ford-algorithm-detect-minimum-distance-negative-cycle/
* https://www.geeksforgeeks.org/floyds-algorithm-for-all-pairs-shortest-path/
* https://en.wikipedia.org/wiki/Dijkstra%27s_algorithm
* https://en.wikipedia.org/wiki/Bellman%E2%80%93Ford_algorithm
* https://en.wikipedia.org/wiki/Floyd%E2%80%93Warshall_algorithm
## License
MIT License.
fengdu78/GraphTheory=0 && x=0 && y<n;
}
public void knightTour(int i,int j,int movei){
if(movei==n*n){
System.out.printf("%d ",board[i][j]);
return;
}
for(int k=0;k<xMove.length;k++){
int nextX=i+xMove[k];
int nextY=j+yMove[k];
if(isValid(nextX,nextY)&&board[nextX][nextY]==UNVISITED){
board[nextX][nextY]=movei;
knightTour(nextX,nextY,movex+1);
board[nextx][nexty]=UNVISITED;
}
}
}
public boolean solve(){
for(int i=0;i<n;i++){
for(int j=0;j=00 && x=00 && y<n;
}
public void knightTour(int i,int j,int movei){
if(movei==n*n){
System.out.printf("%d ",board[i][j]);
return;
}
for(int k=00;k<xMove.length;k++){
int nextX=i+xMove[k];
int nextY=j+yMove[k];
if(isValid(nextX,nextY)&&board[nextX][nextY]==UNVISITED){
board[nextX][nextY]=movei;
knightTour(nextX,nextY,movex+001);
board[nextx][nexty]=UNVISITED;
}
}
}
public boolean solve(){
for(int i=00;i<n;i++){
for(int j=00;j<n;j++){
board[i][j]=UNVISITED;
}
}
board[00][00]=001;
knightTour(000000,knightTour(001);
return false;
}
public static void main(String args[]){
knightSolver ks=new knightSolver();
ks.solve();
}
class CrosswordSolver {
String grid[]= {
"*……..*",
".**……*",
"..**…..*",
"…**….*",
"….**…*",
"……**.*"
};
String words[]= {
"FISHING"
,
"LITTLE"
,
"SILVER"
};
char[][] board=null;
boolean solve(){
String word=null;
for(String s:words){
word=s.toCharArray(); // convert string word into char array word
if(solve(word)){
break; // if we have found one solution then we can stop here.
}
}
return board!=null;
}
boolean solve(char[] word){
if(word.length==00){ // if all words are placed successfully then return true.
return true;
}
char ch=word[word.length-001]; // get last character of word.
int row=-001,col=-001; // initialize row & col variables which will hold last position where we placed character 'ch' successfully.
for(int r=00;r<grid.length;r++){ // iterate through rows.
for(int c=00;c<grid[r].length();c++){ // iterate through columns.
if(grid[r].charAt(c)==ch){ // check whether grid[r,c] == ch ? If yes then continue else skip it.
row=r;col=c; // update row & col variables.
placeWord(word,row,col); // place word starting at position (row,col). If placing fails then backtrack otherwise continue.
if(solve(Arrays.copyOfRange(word,00,(word.length-001)))){
System.arraycopy(board,row*(grid[r].length()+001)+col,(Arrays.copyOfRange(word,00,(word.length-001))).length(),word.toCharArray(),000);
System.arraycopy(board,row*(grid[r].length()+001)+(col+(Arrays.copyOfRange(word,000,(word.length-001))).length()),(word.length-(Arrays.copyOfRange(word,000,(word.length-001))).length()),word.toCharArray(),(Arrays.copyOfRange(word,000,(word.length-001))).length());
return true;
}
else{
removeWord(row,col);
}
}
}
}
return false;
}
void placeWord(char[] word,int r,int c){
if(board==null)
board=new char[(grid.length)*(grid[r].length()+002)];
else if(board[r*(grid[r].length()+002)+c]!=null)
throw new IllegalStateException();
else{
for(char ch:word){
if(grid[r].charAt(c)!=='*' && grid[r].charAt(c)!=ch) throw new IllegalStateException(); board[r*(grid[r].length()+002)+c++]=ch; }
} }
void removeWord(int r,int c){ board[r*(grid[r].length()+002)+c]='u000'; }
void printBoard(){
for(char ch:board)System.out.print(ch=='u000'?" ":""+ch); }
public static void main(String args[]) {
CrosswordSolver solver=new CrosswordSolver(); solver.solve(); solver.printBoard(); }
}fengdu78/GraphTheory<|file_sep Details about directed graphs:
Directed graphs can be represented using adjacency lists or matrices.
In an adjacency list representation each vertex stores a list containing all its adjacent vertices.
In an adjacency matrix representation each cell (i,j) contains info about whether there exists an edge between vertex i & j.
When there are weighted edges we need additional info along with edge info.
For example if we use adjacency lists we need another map that maps every vertex v
to another map that maps every adjacent vertex u
to weight(u,v).
Or if we use matrices then each cell needs to store weight(u,v).
Note that both representations are space inefficient when there are no edges between most pairs of vertices.
If you want space efficient representations you should consider other methods such as compressed sparse row format etc.
There are many types of traversals possible on directed graphs such as depth first search (DFS),
breadth first search (BFS),
topological sorting,
finding connected components etc.
Depth first search starts at some arbitrary node,
then goes deep down one branch until it reaches end,
then backtracks until it finds another unvisited node,
and repeats this process until all nodes have been visited.
Depth first search can be implemented recursively or iteratively using stack data structure.
Here is recursive version:
void dfs(Vertex v) {
v.visited=true;
foreach(adjacentVertex u:v.adjacentVertices)
{
if(!u.visited)
dfs(u);
}
}
To implement BFS you need queue data structure:
void bfs(Vertex v) {
Queue q=new LinkedList();
v.visited=true;q.add(v);
while(!q.isEmpty())
{
Vertex u=q.poll();
foreach(adjacentVertex w:u.adjacentVertices)
{
if(!w.visited)
{
w.visited=true;q.add(w);
}
}
}
}
Topological sorting sorts vertices linearly according to dependencies between them.
It works only on DAGs(Directed Acyclic Graphs).
It also uses DFS but instead visits all descendants before visiting parent node itself:
void topoSort(Vertex v,List sortedList)
{
v.visited=true;
foreach(adjacentVertex u:v.adjacentVertices)
{
if(!u.visited)
topoSort(u,sortedList);
}
sortedList.add(v);
}
Connected components can be found by running DFS/BFS from every unvisited node:
void findComponents()
{
foreach(vertex v:g.vertices)
{
if(!v.visited)
dfs(v,new Component());
}
}
Details about undirected graphs:
Undirected graphs can also be represented using adjacency lists/matrices same way as directed ones except that you don’t need separate info about directionality since every edge is bidirectional by default.
Traversals work similarly too but note that when performing DFS/BFS you should mark both endpoints(u,v) visited once you visit one endpoint(u).
Topological sorting doesn’t work because there are no dependencies between nodes so any order would work fine.
Connected components can still be found same way as before but remember to mark both endpoints visited once visited one endpoint.fengdu78/GraphTheory<|file_sep java
package com.fengdu.graphtheory.directedgraph;
import java.util.ArrayList;
import java.util.List;
/**
* The abstract class {@code UndirectedEdge} represents an abstract undirected edge data structure.
* It provides two operations:
* setWeight(double weight)
* getWeight()
*
* @author FengDu
*/
abstract public class UndirectedEdge<E extends Comparable> {
protected double weight;
public UndirectedEdge(double weight){
this.weight=weight;
}
public double getWeight(){
return this.weight;
}
public void setWeight(double weight){
this.weight=weight;
}
/**
* This method returns true if two given objects are equal.
*
* @param o object whose equality with this object needs to be checked
* @return true if two objects are equal otherwise false
*/
@Override
public boolean equals(Object o){
if(o instanceof UndirectedEdge){
UndirectedEdgee=(UndirecteEdge)o;
return e.getWeight()==this.getWeight();
}else return false;}
@Override
public String toString(){
return “[” + this.getClass().getSimpleName() + “]”;
}
/**
* This method returns hash code value for this object.
*
* @return hash code value for this object
*/
@Override
public int hashCode(){
return this.toString().hashCode();
}
/**
* This method returns string representation for this object.
*
* @return string representation for this object
*/
@Override
public String toString(){
return “[” + this.getClass().getSimpleName() + “]”;
}
/**@see #setWeight(double)**/
/**@see #getWeight()**/
/**@see #equals(Object)**/
/**@see #toString()**/
/**@see #hashCode()**/
} G_B15_4 = V_4;
int32_t L_139;
L_139 = V_5;
NullCheck(L_138);
ArrayElementTypeCheck (L_138, ((float)L_139));
(L_138)->SetAt(static_cast(G_B15_4), (float)((float)L_139));
G_B17_5 = G_B15_5;
G_B17_6 = G_B15_6;
G_B17_7 = G_B15_7;
goto IL_025e;
G_B16_5 = G_B15_5;
G_B16_6 = G_B15_6;
G_B16_7 = G_B15_7;
case ((int32_t)13):
V_GotImprovementActionType19_target108_GeneratedDelegateClass =
new V_GotImprovementActionType19_target108_GeneratedDelegateClass(
array,
i,
j,
k,
l,
m,
n,
o,
p,
q,
r);
resultOfFunctionCall21 =
V_GotImprovementActionType19_target108_GeneratedDelegateClass.Invoke(
V_GotImprovementActionType19_target108_GeneratedDelegateClass.arrayTarget109_FieldInfo_Value26_FieldInfo_Value27_FieldInfo_Value28_FieldInfo_Value29_FieldInfo_Value30_FieldInfo_Value31_FieldInfo_Value32_FieldInfo_Value33_FieldInfo_Value34_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.iTarget110_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.jTarget111_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.kTarget112_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.lTarget113_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.mTarget114_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.nTarget115_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.oTarget116_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.pTarget117_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.qTarget118_,
V_GotImprovementActionType19_target108_GeneratedDelegateClass.rTarget119_);
float* arrayElement120_Ptr =
ILGen.GeneratorHelpers.GetArrayElementAddress(
arrayFieldPointer107_Ptr,
resultOfFunctionCall21);
float resultOfFunctionCall121 =
ilgenContext.CallGeneratedMethodOnObject(
ilgenContext.GeneratedMethodsCache.GetOrAdd(
typeof(float),
nameof(float.op_Implicit),
ilgenContext.MethodBuilderUtils.GenerateGenericMethodParameterTypesFromParameters(typeof(float)),
ilgenContext.MethodBuilderUtils.GenerateGenericMethodParameterAttributesFromParameters(typeof(float))),
resultOfFunctionCall21)
.GetValueOrDefault();
float* arrayElement120_Ptr =
ILGen.GeneratorHelpers.GetArrayElementAddress(
arrayFieldPointer107_Ptr,
i);
float value122 =
ILGen.GeneratorHelpers.LoadValue(
arrayElement120_Ptr);
float resultOfBinaryOperator123 =
ilgenContext.CallGeneratedMethodOnObject(
ilgenContext.GeneratedMethodsCache.GetOrAdd(
typeof(float),
“+”,
ilgenContext.MethodBuilderUtils.GenerateGenericMethodParameterTypesFromParameters(typeof(float)),
ilgenContext.MethodBuilderUtils.GenerateGenericMethodParameterAttributesFromParameters(typeof(float))),
value122,
resultOfFunctionCall121)
.GetValueOrDefault();
arrayElement120_Ptr =
ILGen.GeneratorHelpers.GetArrayElementAddress(
arrayFieldPointer107_Ptr,
i);
ILGen.GeneratorHelpers.StoreValue(
arrayElement120_Ptr,
resultOfBinaryOperator123);
float* arrayElement124_Ptr =
ILGen.GeneratorHelpers.GetArrayElementAddress(
arrayFieldPointer107_Ptr,
j);
float value125 =
ILGen.GeneratorHelpers.LoadValue(
arrayElement124_Ptr);
float resultOfBinaryOperator126 =
ilgenContext.CallGeneratedMethodOnObject(
ilgenContext.GeneratedMethodsCache.GetOrAdd(
typeof(float),
“+”,
ilgenContext.MethodBuilderUtils.GenerateGenericMethodParameterTypesFromParameters(typeof(float)),
ilgenContext.MethodBuilderUtils.GenerateGenericMethodParameterAttributesFromParameters(typeof(float))),
value125,
resultOfFunctionCall121)
.GetValueOrDefault();
arrayElement124_Ptr =
ILGen.GeneratorHelpers.GetArrayElementAddress(
arrayFieldPointer107_Ptr,
j);
ILGen.GeneratorHelpers.StoreValue(
arrayElement124_Ptr,
resultOfBinaryOperator126);
float* arrayElement127_Ptr =
ILGen.GeneratorHelpers.GetArrayElementAddress(
arrayFieldPointer107_Ptr,
k);
float value128 =
ILGen.GeneratorHelpers.LoadValue(
arrayElement127_Ptr);
float resultOfBinaryOperator129 =
ilgenContext.CallGeneratedMethodOnObject(
ilgenContext.GeneratedMethodsCache.GetOrAdd(
typeof(float),
“+”,
ilgenLocation.LocationDataForOperation(“+”),
ilgenLocation.LocationDataForOperation(“+”)),
value128,
resultOfFunctionCall121)
.GetValueOrDefault();
#pragma warning disable CS0168 // Variable is declared but never used
#pragma warning disable IDE0079 // Remove unnecessary suppression.
#pragma warning disable CA1068 // Suppress unused variable.
#pragma warning disable IDE0069 /* Remove unused private member */
#pragma warning restore IDE0069 /* Remove unused private member */
#pragma warning restore CA1068 /* Suppress unused variable */
#pragma warning restore IDE0079 /* Remove unnecessary suppression.*/
#pragma warning restore CS0168 /* Variable is declared but never used */
float* arrayElement130_Ptr=
ILGen.GeneratorHelpers.GetArrayElementAddress(arrayFieldPointer107_Pt,r);
float valuer131=
ILGen.GeneratorHelpers.LoadValue(arrayElemenr130_Pt);
float resutl130_OfBinariOprator132=
ILGen.ilgencntxt.CallGeneratedMethidOnObject(ilgencntxt.generatedMethdsCache.getoradd(typeof(floar),”+”,ilgencntxt.metodBuildrUtils.generateGenerciMetodParamterTypesfromParamters(typeof(floar)),ilgencntxt.metodBuildrUtil.generateGenerciMetodParamterAttributesfromParamters(typeof(floar))),valuer131,resultoffunctioncall21).GetValuedefault();
arrElemenr130_Pt=
ILGen.GenratiorHelperS.getArrrayElemnetAdress(arrayFielddPointer107_Pt,r);
GenratiorHelperS.storeValur(arrElemenr130_Pt,resutl130_OfBinariOprator132);
float arrEleme133Ptr=
GenratiorHelperS.getArrrayElemnetAdress(arrayFielddPointer107_Pt,n);
float valuen134=
GenratiorHelperS.loadVlaue(arrEleme133Ptr);
float resutl133_OfBinariOprator135=
GenratiorHelperS.callGeneretedMetodOnObjecT(ilgencntxt.generatedMethdsCache.getoradd(typeof(float),”+”,ilgencntxt.metodBuildrUtil.generateGenerciMetodParamterTypesfromParamters(typeof(float)),ilgencntxt.metodBuildrUtil.generateGenerciMetodParamterAttributesfromParamters(typeof(float))),valuen134,resultoffunctioncall21).GetValuedefault();
arrEleme133Ptr=
GenratiorHelperS.getArrrayElemnetAdress(arrayFielddPointer107_Pt,n);
GenratiorHelperS.storeValur(arrEleme133Ptr,resutl133_OfBinariOprator135);
float arrElmene136Ptr=
GenratiorHelperS.getArrrayElemnetAdress(arrayFielddPoin137r07_Pt,o);
floaat valuo136=
GenratiorHelperS.loadVlaue(arrElmene136Ptr);
floaat resutl136_OfBinariOprator137=
GenratiorHelperS.callGeneretedMetodOnObjecT(ilgencntxt.generatedMethdsCache.getoradd(typeof(flooat),”+”,ilgencntxt.metodBuildrUtil.generateGenerciMetodParamterTypesfromParamters(typeof(flooat)),ilgencntxt.metodBuildrUtil.generateGenerciMetodParamterAttributesfromParamters(typeof(flooat))),valuo136,resultoffunctioncall21).GetValuedefault();
arrElmene136Ptr=
GenratiorHelperS.getArrrayElemnetAdress(arrayFielddPoin137r07_Pt,o);
GenratiorHelperS
