instruction stringclasses 1
value | architectural_context stringclasses 44
values | buggy_code stringlengths 37 281 | expected_output stringlengths 152 404 |
|---|---|---|---|
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { if ( ! ( VAR_1 . METHOD_2 ( ) ) ) { VAR_1 . start ( ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { VAR_1 . start ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public TYPE_1 METHOD_1 ( java.lang.String name ) { java.lang.System.out.println ( STRING_1 ) ; TYPE_1 VAR_1 = new TYPE_1 ( STRING_2 ) ; VAR_1 . METHOD_2 ( STRING_3 , msg ) ; VAR_1 . METHOD_2 ( "name" , name ) ; return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( java.lang.String name ) { TYPE_1 VAR_1 = new TYPE_1 ( STRING_2 ) ; VAR_1 . METHOD_2 ( STRING_3 , msg ) ; VAR_1 . METHOD_2 ( "name" , name ) ; return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( int VAR_1 , int VAR_2 , float VAR_3 ) { this . METHOD_2 ( ) ; this . VAR_4 . METHOD_1 ( this , VAR_5 , VAR_1 , VAR_2 , VAR_3 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( int VAR_1 , int VAR_2 , float VAR_3 ) { this . METHOD_2 ( ) ; super . METHOD_1 ( VAR_1 , VAR_2 , VAR_3 ) ; this . VAR_4 . METHOD_1 ( this , VAR_5 , VAR_1 , VAR_2 , VAR_3 ) ; }
... |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
id: 56533eb9ac21ba0edf2244d0
title: Comparison with the Equality Operator
challengeType: 1
videoUrl: 'https://scrimba.com/c/cKyVMAL'
---
## Description
<section id='description'>
There are many <dfn>Comparison Operators</dfn> in JavaScript. All of these operators return a boolean <code>true</code> or <code>false</... | public void METHOD_1 ( ) { if ( ! ( VAR_1 ) ) { VAR_2 = TYPE_1 . METHOD_2 ( ) ; VAR_1 = true ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( ) { if ( ! ( VAR_1 ) ) { VAR_2 = TYPE_1 . METHOD_2 ( ) ; VAR_1 = true ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public int METHOD_1 ( ) { while ( VAR_1 [ VAR_2 ] . METHOD_2 ( ) ) { VAR_1 [ VAR_2 ] . METHOD_3 ( ) ; VAR_2 = ( ( VAR_2 ) + 1 ) % ( VAR_1 . length ) ; } return VAR_2 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public int METHOD_1 ( ) { return VAR_2 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { METHOD_2 ( VAR_1 ) ; METHOD_3 ( ) . METHOD_4 ( true ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { METHOD_2 ( VAR_1 ) ; if ( ( VAR_1 ) != null ) { METHOD_3 ( ) . METHOD_4 ( true ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public void METHOD_1 ( java.lang.CharSequence text ) { VAR_1 = ( ( TYPE_1 ) ( VAR_2 . METHOD_2 ( ) ) ) ; VAR_1 . setText ( text ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( java.lang.CharSequence text ) { if ( ( VAR_1 ) == null ) { VAR_1 = ( ( TYPE_1 ) ( VAR_2 . METHOD_2 ( ) ) ) ; } VAR_1 . setText ( text ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | Source code for the blog post: https://golb.hplar.ch/2017/09/Pluggable-file-systems-in-Java.html | private void METHOD_1 ( ) { VAR_1 = file . METHOD_2 ( ) ; VAR_2 = file . length ( ) ; listener . METHOD_3 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { VAR_1 = file . METHOD_2 ( ) ; VAR_2 = file . length ( ) ; listener . METHOD_3 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public java.lang.String toString ( ) { return STRING_1 + ( VAR_1 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public java.lang.String toString ( ) { return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # NHS Java Demo
Demonstration project showing JSR-303 annotation using custom ConstraintValidator.
Based on the following class definitions:
```
public class RegularAmount {
private Frequency frequency;
private String amount;
public Frequency getFrequency() {
return frequency;
}
public void... | public long getValue ( ) { return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public long getValue ( ) { synchronized ( key ) { return VAR_1 ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | Source code for the blog post: https://golb.hplar.ch/2017/09/Pluggable-file-systems-in-Java.html | public boolean METHOD_1 ( java.lang.String filePath , java.lang.String VAR_1 , java.lang.String VAR_2 ) ;
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public boolean METHOD_1 ( java.lang.String filePath , java.lang.String VAR_1 , java.lang.String VAR_2 , java.lang.String fileName ) ;
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Conventional Commit Checker
Will parse the commit message and will fail if it doesn't follow the convention: [Conventional Commits v1.0.0](https://www.conventionalcommits.org/en/v1.0.0/)
## Installation
```sh
brew install ctrlaltdev/tap/ccc
```
or
```sh
brew tap ctrlaltdev/tap
brew install ccc
```
## Automatic G... | public void commit ( ) { commit ( false ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void commit ( ) { commit ( true ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public void METHOD_1 ( ) { TYPE_1 . info ( STRING_1 ) ; TYPE_2 VAR_1 = TYPE_2 . METHOD_2 ( TYPE_3 . METHOD_3 ( ) . VAR_2 ) ; VAR_1 . METHOD_4 ( message . METHOD_5 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { TYPE_2 VAR_1 = TYPE_2 . METHOD_2 ( TYPE_3 . METHOD_3 ( ) . VAR_2 ) ; VAR_1 . METHOD_4 ( message . METHOD_5 ( ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { TYPE_1 . METHOD_2 ( this , STRING_1 , VAR_1 ) . show ( ) ; VAR_2 . METHOD_3 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { VAR_2 . METHOD_3 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # NHS Java Demo
Demonstration project showing JSR-303 annotation using custom ConstraintValidator.
Based on the following class definitions:
```
public class RegularAmount {
private Frequency frequency;
private String amount;
public Frequency getFrequency() {
return frequency;
}
public void... | public long METHOD_1 ( TYPE_1 VAR_1 ) { long VAR_2 = 0L ; if ( VAR_1 . METHOD_2 ( ) . isEmpty ( ) ) { return this . VAR_3 . METHOD_1 ( VAR_1 ) ; } return VAR_2 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public long METHOD_1 ( TYPE_1 VAR_1 ) { long VAR_2 = 0L ; if ( ! ( VAR_1 . METHOD_2 ( ) . isEmpty ( ) ) ) { return this . VAR_3 . METHOD_1 ( VAR_1 ) ; } return VAR_2 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Reference manual
## Functions
The following functions are available in build files. Click on each to
see the description and usage. The objects returned by them are [list
afterwards](#returned-objects).
### add_global_arguments()
``` meson
void add_global_arguments(arg1, arg2, ...)
```
Adds the positional arg... | public void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_1 . METHOD_2 ( VAR_2 [ 1 ] , METHOD_3 ( ) , x , y ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_1 . METHOD_2 ( VAR_2 [ 0 ] , METHOD_3 ( ) , x , y ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Errors
In this section we discuss how to read and understand TypeScript errors. We follow this with common errors and their solutions. | public void METHOD_1 ( TYPE_1 error ) { TYPE_2 . METHOD_2 ( VAR_1 , error . toString ( ) ) ; VAR_2 . METHOD_3 ( error . METHOD_4 ( ) ) ; VAR_3 . METHOD_5 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 error ) { TYPE_2 . METHOD_2 ( VAR_1 , error . toString ( ) ) ; VAR_2 . METHOD_3 ( error . toString ( ) ) ; VAR_3 . METHOD_5 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Introduction
In Common Lisp a function can have a parameter that will contain the "rest" of the arguments after any required or optional parameters are processed.
This parameter is designated by the `&rest` lambda list keyword.
If all arguments to a function are used by by other types of parameters then the rest par... | private void METHOD_1 ( ) { if ( ( VAR_1 . METHOD_2 ( ) ) != 0 ) { TYPE_1 . METHOD_3 ( STRING_1 ) ; METHOD_4 ( VAR_2 ) ; METHOD_4 ( VAR_3 ) ; TYPE_1 . METHOD_5 ( ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { if ( ( VAR_1 . METHOD_2 ( ) ) != 0 ) { TYPE_1 . METHOD_3 ( STRING_1 ) ; METHOD_4 ( VAR_2 ) ; METHOD_4 ( VAR_3 ) ; TYPE_1 . METHOD_5 ( ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public void METHOD_1 ( int VAR_1 ) { java.lang.System.out.println ( VAR_1 ) ; java.util.Map < java.lang.String , java.lang.Object > VAR_2 = this . VAR_3 . get ( VAR_1 ) ; java.lang.System.out.println ( VAR_2 . get ( STRING_1 ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( int VAR_1 ) { }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [android-components](../../index.md) / [mozilla.components.browser.engine.gecko.glean](../index.md) / [GeckoAdapter](index.md) / [onBooleanScalar](./on-boolean-scalar.md)
# onBooleanScalar
`fun onBooleanScalar(metric: <ERROR CLASS><`[`Boolean`](https://kotlinlang.org/api/latest/jvm/stdlib/kotlin/-boolean/index.html)`... | public boolean METHOD_1 ( int VAR_1 , int VAR_2 ) { return this . VAR_3 . get ( ( VAR_1 -- ) ) . METHOD_1 ( ( VAR_2 -- ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public boolean METHOD_1 ( int VAR_1 , int VAR_2 ) { return this . VAR_3 . get ( ( VAR_1 - 1 ) ) . METHOD_1 ( ( VAR_2 - 1 ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public void METHOD_1 ( ) { java.lang.System.out.println ( STRING_1 ) ; METHOD_2 ( ) ; java.lang.System.out.println ( VAR_1 . METHOD_3 ( ) ) ; VAR_1 . METHOD_4 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { java.lang.System.out.println ( STRING_1 ) ; METHOD_2 ( ) ; VAR_1 . METHOD_4 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | sugarloaf
=========
PHP Dependency Injection Framework
SugarLoaf is a (very) lightweight DI-Container that supports Constructor-Injection as well as Setter-Injection. In case of Setter-Injection, it is also possible (though frowned uppon?) to configure cyclic dependencies.
The following example consists of the Clas... | private void METHOD_1 ( ) { METHOD_2 ( ) ; TYPE_1 . METHOD_3 ( this ) . METHOD_1 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( ) { TYPE_1 . METHOD_3 ( this ) . METHOD_1 ( ) ; METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Changelog for [`base` package](http://hackage.haskell.org/package/base)
## 4.16.0.0 *TBA*
* Make it possible to promote `Natural`s and remove the separate `Nat` kind.
For backwards compatibility, `Nat` is now a type synonym for `Natural`.
As a consequence, one must enable `TypeSynonymInstances`
in ord... | TYPE_1 METHOD_1 ( TYPE_2 VAR_1 ) { }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
TYPE_1 METHOD_1 ( TYPE_2 VAR_1 ) ;
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public TYPE_1 add ( TYPE_1 VAR_1 ) throws java.lang.Exception { METHOD_1 ( VAR_1 ) ; VAR_2 . METHOD_2 ( VAR_1 ) ; VAR_3 . add ( VAR_1 ) ; METHOD_3 ( VAR_1 ) ; return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 add ( TYPE_1 VAR_1 ) throws java.lang.Exception { VAR_2 . METHOD_2 ( VAR_1 ) ; METHOD_1 ( VAR_1 ) ; VAR_3 . add ( VAR_1 ) ; METHOD_3 ( VAR_1 ) ; return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Revisiting arrays and slices with generics (DRAFT)
**[The code for this chapter is a continuation from Arrays and Slices, found here](https://github.com/quii/learn-go-with-tests/tree/main/arrays)**
Take a look at both `SumAll` and `SumAllTails` that we wrote in [arrays and slices](arrays-and-slices.md). If you don'... | private static double sum ( java.util.List < java.lang.Double > values ) { double sum = 0.0 ; for ( double VAR_1 : values ) { sum += VAR_1 ; } return sum ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private static long sum ( java.util.List < java.lang.Long > values ) { long sum = 0 ; for ( long VAR_1 : values ) { sum += VAR_1 ; } return sum ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Introduction
In Common Lisp a function can have a parameter that will contain the "rest" of the arguments after any required or optional parameters are processed.
This parameter is designated by the `&rest` lambda list keyword.
If all arguments to a function are used by by other types of parameters then the rest par... | public java.util.List < TYPE_1 > METHOD_1 ( java.lang.Integer id ) { METHOD_2 ( id ) ; return ( ( java.util.List < TYPE_1 > ) ( VAR_1 . METHOD_3 ( id ) ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public java.util.List < TYPE_1 > METHOD_1 ( java.lang.Integer id ) { return ( ( java.util.List < TYPE_1 > ) ( VAR_1 . METHOD_3 ( id ) ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public synchronized void METHOD_1 ( java.lang.String VAR_1 , java.lang.Object x , int VAR_2 ) throws TYPE_1 { METHOD_1 ( METHOD_2 ( VAR_1 ) , x ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( java.lang.String VAR_1 , java.lang.Object x ) throws TYPE_1 { METHOD_1 ( METHOD_2 ( VAR_1 ) , x ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Introduction
In Common Lisp a function can have a parameter that will contain the "rest" of the arguments after any required or optional parameters are processed.
This parameter is designated by the `&rest` lambda list keyword.
If all arguments to a function are used by by other types of parameters then the rest par... | private void METHOD_1 ( final int [ ] VAR_1 , final TYPE_1 [ ] VAR_2 , final TYPE_2 VAR_3 , final double VAR_4 ) { VAR_5 = new TYPE_3 ( VAR_1 , VAR_2 ) ; throw new TYPE_4 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( final int [ ] VAR_1 , final TYPE_1 [ ] VAR_2 , final TYPE_2 VAR_3 , final double VAR_4 ) { VAR_5 = new TYPE_3 ( VAR_1 , VAR_2 , VAR_3 ) ; throw new TYPE_4 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # SizedQueue
If the total number of item exceed the capacity, the oldest ones automatically dequeues. | public int size ( ) { return ( this . VAR_1 ? ( this . VAR_2 . size ( ) ) - 1 : this . VAR_3 ) - ( this . VAR_4 ? 0 : ( this . VAR_5 ) + 1 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public int size ( ) { return ( this . VAR_1 ? this . VAR_2 . size ( ) : ( this . VAR_3 ) + 1 ) - ( this . VAR_4 ? 0 : this . VAR_5 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | private < TYPE_1 > TYPE_1 METHOD_1 ( TYPE_2 < TYPE_1 > c ) throws java.lang.Exception { return TYPE_3 . METHOD_2 ( VAR_1 . METHOD_3 ( ) , c ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
protected < TYPE_1 > TYPE_1 METHOD_1 ( TYPE_2 < TYPE_1 > c ) throws java.lang.Exception { return TYPE_3 . METHOD_2 ( VAR_1 . METHOD_3 ( ) , c ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # number
Checks if the given value is a number.
## Type signature
<!-- prettier-ignore-start -->
```typescript
(x?: any) => boolean
```
<!-- prettier-ignore-end -->
## Examples
<!-- prettier-ignore-start -->
```javascript
number(0 / 0);
// ⇒ false
```
```javascript
number(15.6);
// ⇒ true
```
<!-- prettier-ignore... | public TYPE_1 value ( ) { if ( VAR_1 != null ) { return VAR_1 . METHOD_1 ( ) ; } return - 1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 value ( ) { return VAR_1 . METHOD_1 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
id: 56533eb9ac21ba0edf2244d0
title: Comparison with the Equality Operator
challengeType: 1
videoUrl: 'https://scrimba.com/c/cKyVMAL'
---
## Description
<section id='description'>
There are many <dfn>Comparison Operators</dfn> in JavaScript. All of these operators return a boolean <code>true</code> or <code>false</... | boolean METHOD_1 ( int VAR_1 , int VAR_2 ) ;
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
boolean METHOD_1 ( int VAR_1 , int VAR_2 , java.lang.String message ) ;
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( TYPE_1 VAR_1 ) { TYPE_2 . METHOD_2 ( ) . METHOD_3 ( STRING_1 ) ; this . VAR_1 = VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { this . VAR_1 = VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( TYPE_1 view , TYPE_2 VAR_1 ) { VAR_2 . METHOD_1 ( view , VAR_1 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 view , TYPE_2 VAR_1 ) { if ( ( VAR_2 ) != null ) { VAR_2 . METHOD_1 ( view , VAR_1 ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ### [Minimize Hamming Distance After Swap Operations](https://leetcode.com/problems/minimize-hamming-distance-after-swap-operations)
<p>You are given two integer arrays, <code>source</code> and <code>target</code>, both of length <code>n</code>. You are also given an array <code>allowedSwaps</code> where each <code>al... | private static void METHOD_1 ( TYPE_1 VAR_1 , long value ) { long VAR_2 = value < < 1 ; if ( value < 0 ) { VAR_2 = ~ VAR_2 ; } TYPE_2 . METHOD_2 ( VAR_1 , VAR_2 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public static void METHOD_1 ( TYPE_1 VAR_1 , long value ) { long VAR_2 = value < < 1 ; if ( value < 0 ) { VAR_2 = ~ VAR_2 ; } TYPE_2 . METHOD_2 ( VAR_1 , VAR_2 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( TYPE_1 TYPE_2 ) { output . METHOD_2 ( ( ( TYPE_2 . METHOD_3 ( ) ) + STRING_1 ) ) ; TYPE_2 . METHOD_4 ( STRING_2 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 TYPE_2 ) { output . METHOD_2 ( ( ( TYPE_2 . METHOD_3 ( ) ) + STRING_1 ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Introduction
In Common Lisp a function can have a parameter that will contain the "rest" of the arguments after any required or optional parameters are processed.
This parameter is designated by the `&rest` lambda list keyword.
If all arguments to a function are used by by other types of parameters then the rest par... | private void METHOD_1 ( ) { TYPE_1 VAR_1 = VAR_2 . METHOD_2 ( ) ; VAR_3 = VAR_1 . METHOD_3 ( VAR_4 ) ; VAR_5 = VAR_1 . METHOD_3 ( VAR_6 ) ; VAR_7 = VAR_1 . METHOD_3 ( VAR_4 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( ) { TYPE_1 VAR_1 = VAR_2 . METHOD_2 ( ) ; VAR_3 = VAR_1 . METHOD_3 ( VAR_4 ) ; VAR_5 = VAR_1 . METHOD_3 ( VAR_6 ) ; VAR_7 = context . METHOD_2 ( ) . METHOD_3 ( VAR_4 ) ; }
``... |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
id: 56533eb9ac21ba0edf2244d0
title: Comparison with the Equality Operator
challengeType: 1
videoUrl: 'https://scrimba.com/c/cKyVMAL'
---
## Description
<section id='description'>
There are many <dfn>Comparison Operators</dfn> in JavaScript. All of these operators return a boolean <code>true</code> or <code>false</... | public static boolean METHOD_1 ( ) { if ( TYPE_1 . METHOD_2 ( VAR_1 ) ) { return true ; } return false ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public static boolean METHOD_1 ( ) { return TYPE_1 . METHOD_2 ( VAR_1 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Reference manual
## Functions
The following functions are available in build files. Click on each to
see the description and usage. The objects returned by them are [list
afterwards](#returned-objects).
### add_global_arguments()
``` meson
void add_global_arguments(arg1, arg2, ...)
```
Adds the positional arg... | protected void METHOD_1 ( ) { TYPE_1 . METHOD_2 ( STRING_1 , 0.0 ) ; VAR_1 . METHOD_3 ( ) ; VAR_2 . METHOD_4 ( ) ; VAR_2 . set ( false ) ; VAR_3 . METHOD_3 ( ) ; VAR_3 . start ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
protected void METHOD_1 ( ) { VAR_1 . METHOD_3 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Revisiting arrays and slices with generics (DRAFT)
**[The code for this chapter is a continuation from Arrays and Slices, found here](https://github.com/quii/learn-go-with-tests/tree/main/arrays)**
Take a look at both `SumAll` and `SumAllTails` that we wrote in [arrays and slices](arrays-and-slices.md). If you don'... | private void METHOD_1 ( java.util.ArrayList < java.lang.Integer > VAR_1 ) { for ( int i = 1 ; i < ( VAR_2 ) ; i ++ ) { VAR_1 . add ( i ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( java.util.ArrayList < java.lang.Integer > VAR_1 ) { for ( int i = 0 ; i < ( VAR_2 ) ; i ++ ) { VAR_1 . add ( i ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Intent过滤
> 编写:[kesenhoo](https://github.com/kesenhoo) - 原文:<http://developer.android.com/training/basics/intents/filters.html>
前两节课主要讲了从你的app启动另外一个app。但如果你的app的功能对别的app也有用，那么你的app应该做好响应的准备。例如，如果你创建了一个social app，它可以分享messages 或者 photos 给好友，那么最好你的app能够接收`ACTION_SEND` 的intent,这样当用户在其他app触发分享功能的时候，你的app能够出现在待选对话框。
为了使... | public void METHOD_1 ( android.view.View VAR_1 ) { METHOD_2 ( new android.content.Intent ( this , VAR_2 class ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( android.view.View VAR_1 ) { }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | sugarloaf
=========
PHP Dependency Injection Framework
SugarLoaf is a (very) lightweight DI-Container that supports Constructor-Injection as well as Setter-Injection. In case of Setter-Injection, it is also possible (though frowned uppon?) to configure cyclic dependencies.
The following example consists of the Clas... | public void METHOD_1 ( ) { TYPE_1 VAR_1 = new TYPE_1 ( TYPE_2 . METHOD_2 ( ( STRING_1 + ( VAR_2 ) ) ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { TYPE_1 VAR_1 = new TYPE_1 ( TYPE_2 . METHOD_2 ( ( STRING_1 + ( VAR_2 ) ) ) ) ; java.lang.System.out.println ( VAR_1 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( java.lang.String VAR_1 , TYPE_1 VAR_2 ) { if ( ( this . VAR_3 . METHOD_2 ( ) . METHOD_3 ( VAR_1 , VAR_2 ) ) != null ) { throw new TYPE_2 ( ( ( STRING_1 + VAR_1 ) + STRING_2 ) ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( java.lang.String VAR_1 , TYPE_1 VAR_2 ) { this . VAR_3 . METHOD_2 ( ) . METHOD_3 ( VAR_1 , VAR_2 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public boolean METHOD_1 ( java.lang.String VAR_1 ) { if ( TYPE_1 . contains ( VAR_1 ) ) { TYPE_1 . remove ( TYPE_1 . METHOD_2 ( VAR_1 ) ) ; return true ; } return false ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public boolean METHOD_1 ( java.lang.String VAR_1 ) { if ( TYPE_1 . toString ( ) . contains ( VAR_1 ) ) { TYPE_1 . remove ( TYPE_1 . toString ( ) . METHOD_2 ( VAR_1 ) ) ; return true ; } return false ;... |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | Definition
----------
**INT** fwrite ( <**INT** filehandle> , <**VARIABLE** data>
)
**INT** fwrite ( <**VOID POINTER** data\_pos> , <**INT**
length> , <**INT** filehandle>)
Writes the variable *data* to a file loaded with
[fopen](fopen "wikilink").
*to be extended...*
Parameters
-----... | public void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_1 . set ( STRING_1 , file . METHOD_2 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_1 . set ( STRING_1 , ( ( file ) != null ? file . METHOD_2 ( ) : null ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | private void METHOD_1 ( int VAR_1 ) throws java.lang.Exception { VAR_2 = new TYPE_1 ( VAR_3 , VAR_1 ) ; TYPE_2 . METHOD_2 ( STRING_1 , STRING_1 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( int VAR_1 ) throws java.lang.Exception { VAR_2 = new TYPE_1 ( VAR_3 , VAR_1 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [android-components](../../index.md) / [mozilla.components.browser.engine.gecko.glean](../index.md) / [GeckoAdapter](index.md) / [onBooleanScalar](./on-boolean-scalar.md)
# onBooleanScalar
`fun onBooleanScalar(metric: <ERROR CLASS><`[`Boolean`](https://kotlinlang.org/api/latest/jvm/stdlib/kotlin/-boolean/index.html)`... | public boolean METHOD_1 ( TYPE_1 VAR_1 , TYPE_2 VAR_2 ) throws java.lang.Exception ;
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public boolean METHOD_1 ( TYPE_1 VAR_1 ) throws java.lang.Exception ;
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( int VAR_1 , java.lang.String [ ] VAR_2 , int [ ] VAR_3 ) { METHOD_2 ( true ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( int VAR_1 , java.lang.String [ ] VAR_2 , int [ ] VAR_3 ) { }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public java.util.Iterator < java.lang.Object > iterator ( ) { return METHOD_1 ( VAR_1 , f , init , VAR_2 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public java.util.Iterator < java.lang.Object > iterator ( ) { return this . METHOD_1 ( VAR_1 , f , init , VAR_2 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
id: 56533eb9ac21ba0edf2244d0
title: Comparison with the Equality Operator
challengeType: 1
videoUrl: 'https://scrimba.com/c/cKyVMAL'
---
## Description
<section id='description'>
There are many <dfn>Comparison Operators</dfn> in JavaScript. All of these operators return a boolean <code>true</code> or <code>false</... | public boolean METHOD_1 ( ) { boolean VAR_1 = true ; for ( TYPE_1 VAR_2 : METHOD_2 ( ) ) { VAR_1 &= VAR_2 . METHOD_3 ( ) ; } return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public boolean METHOD_3 ( ) { boolean VAR_1 = true ; for ( TYPE_1 VAR_2 : METHOD_2 ( ) ) { VAR_1 &= VAR_2 . METHOD_3 ( ) ; } return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( ) { TYPE_1 . METHOD_2 ( VAR_1 . METHOD_3 ( java.lang.Integer.parseInt ( STRING_1 ) , 0 , 0 , 0 ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { TYPE_1 . METHOD_2 ( VAR_1 . METHOD_3 ( STRING_1 , 0 , 0 , 0 ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Changelog for [`base` package](http://hackage.haskell.org/package/base)
## 4.16.0.0 *TBA*
* Make it possible to promote `Natural`s and remove the separate `Nat` kind.
For backwards compatibility, `Nat` is now a type synonym for `Natural`.
As a consequence, one must enable `TypeSynonymInstances`
in ord... | public TYPE_1 METHOD_1 ( TYPE_2 source , TYPE_3 operation ) { TYPE_1 VAR_1 = VAR_2 . get ( new TYPE_4 ( source , operation ) ) ; if ( VAR_1 == null ) { throw new TYPE_5 ( STRING_1 ) ; } return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( TYPE_2 source , TYPE_3 operation ) { TYPE_1 VAR_1 = VAR_2 . get ( new TYPE_4 ( source , operation ) ) ; return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # EedidProperty.Edid.BasicDisplay.Analog.Syncrhonization class
Definition of keys in the Syncrhonization Types section.
```csharp
public static class Syncrhonization
```
## Public Members
| name | description |
| --- | --- |
| static [CompositeSyncSignalGreenVideoSupported](EedidProperty.Edid.BasicDisplay.Analog.Sy... | public synchronized void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_2 . METHOD_2 ( VAR_1 , VAR_1 . METHOD_3 ( ) ) ; METHOD_4 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public synchronized void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_2 . METHOD_2 ( VAR_1 , VAR_1 . METHOD_3 ( ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { super . METHOD_1 ( ) ; TYPE_1 . METHOD_2 ( ) . METHOD_3 ( ) ; TYPE_1 . METHOD_2 ( ) . METHOD_4 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { super . METHOD_1 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | private TYPE_1 METHOD_1 ( java.lang.String name ) { return VAR_1 . METHOD_1 ( name ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( java.lang.String name ) { return VAR_1 . METHOD_1 ( name ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Changelog for [`base` package](http://hackage.haskell.org/package/base)
## 4.16.0.0 *TBA*
* Make it possible to promote `Natural`s and remove the separate `Nat` kind.
For backwards compatibility, `Nat` is now a type synonym for `Natural`.
As a consequence, one must enable `TypeSynonymInstances`
in ord... | public void METHOD_1 ( ) throws TYPE_1 , TYPE_2 { new TYPE_3 ( VAR_1 , STRING_1 , 0 , 0 , 0 , 0 , 0 , 0 , 0 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) throws TYPE_1 , TYPE_2 { new TYPE_3 ( VAR_1 , STRING_1 , 0 , 0 , 0 , 0 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | protected void METHOD_1 ( java.lang.Void VAR_1 ) { super . METHOD_1 ( VAR_1 ) ; VAR_2 = VAR_3 . METHOD_2 ( VAR_4 ) ; VAR_3 . METHOD_3 ( VAR_2 ) ; VAR_5 . METHOD_4 ( false ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
protected void METHOD_1 ( java.lang.Void VAR_1 ) { super . METHOD_1 ( VAR_1 ) ; if ( ( VAR_4 ) != null ) { VAR_2 = VAR_3 . METHOD_2 ( VAR_4 ) ; VAR_3 . METHOD_3 ( VAR_2 ) ; VAR_5 . METHOD_4 ( false ) ... |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public java.util.Set < TYPE_1 < ? > > METHOD_1 ( java.util.Collection < java.lang.String > VAR_1 ) ;
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
java.util.Set < TYPE_1 < ? > > METHOD_1 ( java.util.Collection < java.lang.String > VAR_1 ) ;
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
search:
keywords: ['Java API', 'OType']
---
# Java API - OType
This class provides a standard interface for handling data-types within the database.
## Managing Types
Properties on a database class have types and can enforce type-based constraints on the data the class allows for its records. OrientDB uses ... | public TYPE_1 METHOD_1 ( ) { TYPE_2 VAR_1 = TYPE_3 . METHOD_2 ( getClass ( ) ) ; VAR_1 . info ( STRING_1 , VAR_2 ) ; return VAR_2 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( ) { return VAR_2 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public void METHOD_1 ( TYPE_1 VAR_1 , int VAR_2 ) { java.lang.String VAR_3 = VAR_4 . getText ( ) . toString ( ) ; VAR_5 . METHOD_2 ( VAR_3 , 0 ) ; TYPE_2 . METHOD_3 ( VAR_3 ) ; TYPE_2 . METHOD_4 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 , int VAR_2 ) { java.lang.String VAR_3 = VAR_4 . getText ( ) . toString ( ) ; VAR_5 . append ( VAR_3 ) ; TYPE_2 . METHOD_3 ( VAR_3 ) ; TYPE_2 . METHOD_4 ( ) ; }
`... |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public TYPE_1 METHOD_1 ( ) { TYPE_1 VAR_1 = new TYPE_1 ( ) ; VAR_2 = this . VAR_3 ; VAR_4 = this . VAR_5 ; return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( ) { return this ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public void METHOD_1 ( ) throws TYPE_1 { java.lang.System.out.println ( STRING_1 ) ; java.lang.String VAR_1 = STRING_2 ; java.lang.System.out.println ( VAR_1 ) ; METHOD_2 ( VAR_1 , VAR_2 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) throws TYPE_1 { java.lang.String VAR_1 = STRING_2 ; METHOD_2 ( VAR_1 , VAR_2 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Changelog for [`base` package](http://hackage.haskell.org/package/base)
## 4.16.0.0 *TBA*
* Make it possible to promote `Natural`s and remove the separate `Nat` kind.
For backwards compatibility, `Nat` is now a type synonym for `Natural`.
As a consequence, one must enable `TypeSynonymInstances`
in ord... | public TYPE_1 METHOD_1 ( ) { new TYPE_2 ( STRING_1 , 0 ) ; TYPE_1 VAR_1 = new TYPE_1 ( INT_1 ) ; VAR_1 . METHOD_2 ( INT_2 ) ; VAR_1 . METHOD_2 ( 0 ) ; return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( ) { TYPE_1 VAR_1 = new TYPE_1 ( ) ; VAR_1 . METHOD_2 ( INT_2 , ( - 1 ) ) ; VAR_1 . METHOD_2 ( 0 , ( - 1 ) ) ; return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( java.lang.String VAR_1 , java.lang.String VAR_2 ) { if ( ( VAR_1 != null ) && ( VAR_2 != null ) ) { VAR_3 = true ; } VAR_4 = VAR_1 ; VAR_5 = VAR_2 ; METHOD_2 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( java.lang.String VAR_1 , java.lang.String VAR_2 ) { VAR_3 = true ; VAR_4 = VAR_1 ; VAR_5 = VAR_2 ; METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { TYPE_1 . METHOD_2 ( context , context . METHOD_3 ( ) . getString ( VAR_1 ) , VAR_2 ) . show ( ) ; VAR_3 . METHOD_4 ( VAR_4 . getId ( ) , STRING_1 ) ; VAR_5 . METHOD_5 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { TYPE_1 . METHOD_2 ( context , context . METHOD_3 ( ) . getString ( VAR_1 ) , VAR_2 ) . show ( ) ; VAR_5 . METHOD_5 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Retry
RetryAttribute is used on a test method to specify that it should be rerun if it fails, up to a maximum number of times.
Notes:
1. The argument you specify is the total number of attempts and __not__ the number of retries after an initial failure. So `[Retry(1)]` does nothing and should not be used.
2. It is... | public void METHOD_1 ( ) { try { VAR_1 = TYPE_1 . METHOD_2 ( VAR_2 . METHOD_3 ( ) . METHOD_4 ( ) ) ; } catch ( java.io.IOException VAR_3 ) { VAR_3 . METHOD_5 ( ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { try { if ( ( VAR_1 ) != null ) VAR_1 = TYPE_1 . METHOD_2 ( VAR_2 . METHOD_3 ( ) . METHOD_4 ( ) ) ; } catch ( java.io.IOException VAR_3 ) { VAR_3 . METHOD_5 ( ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public java.lang.Object METHOD_1 ( int index ) { return ( ( TYPE_1 ) ( VAR_1 . METHOD_2 ( ) ) ) . METHOD_3 ( index ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public java.lang.Object METHOD_1 ( int index ) { if ( index < 0 ) return null ; return ( ( TYPE_1 ) ( VAR_1 . METHOD_2 ( ) ) ) . METHOD_3 ( index ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( TYPE_1 VAR_1 ) { this . VAR_2 . add ( VAR_1 ) ; this . VAR_3 += VAR_1 . METHOD_2 ( ) ; ( this . VAR_4 ) ++ ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { this . VAR_2 . add ( VAR_1 ) ; this . VAR_3 += VAR_1 . METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Errors
In this section we discuss how to read and understand TypeScript errors. We follow this with common errors and their solutions. | public TYPE_1 METHOD_1 ( java.lang.String token ) throws TYPE_2 , java.io.IOException { TYPE_3 VAR_1 = VAR_2 . METHOD_2 ( token , VAR_3 , VAR_4 ) ; return TYPE_1 . METHOD_3 ( VAR_1 . METHOD_4 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_3 METHOD_1 ( java.lang.String token ) throws TYPE_2 , java.io.IOException { return VAR_2 . METHOD_2 ( token , VAR_3 , VAR_4 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # **@obj_set**:
## **add**:
> **Value:**
>```spwn
>(self) { /* code omitted */ }
>```
>**Type:** `@macro`
>## Description:
> _Add all the objects in the set to the game_
>
## **copy**:
> **Value:**
>```spwn
>(self) { /* code omitted */ }
>```
>**Type:** `@macro`
>## Description:
> _Create a copy of all th... | public TYPE_1 METHOD_1 ( boolean VAR_1 ) { VAR_2 = VAR_3 . get ( ) ; VAR_3 . set ( this ) ; return null ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( boolean VAR_1 ) { this . VAR_1 = VAR_1 ; VAR_2 = VAR_3 . get ( ) ; VAR_3 . set ( this ) ; return null ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public void METHOD_1 ( TYPE_1 VAR_1 , java.lang.Double VAR_2 ) { METHOD_1 ( VAR_1 . getName ( ) , VAR_1 . METHOD_2 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 , java.lang.Double VAR_2 ) { METHOD_1 ( VAR_1 . getName ( ) , VAR_1 . METHOD_2 ( ) , VAR_2 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | sugarloaf
=========
PHP Dependency Injection Framework
SugarLoaf is a (very) lightweight DI-Container that supports Constructor-Injection as well as Setter-Injection. In case of Setter-Injection, it is also possible (though frowned uppon?) to configure cyclic dependencies.
The following example consists of the Clas... | public void METHOD_1 ( TYPE_1 event ) { VAR_1 . METHOD_1 ( event ) ; VAR_2 = new TYPE_2 ( event . METHOD_2 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 event ) { VAR_2 = new TYPE_2 ( event . METHOD_2 ( ) ) ; VAR_1 . METHOD_1 ( event ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { VAR_1 . METHOD_1 ( VAR_2 ) ; METHOD_2 ( ) ; METHOD_3 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { VAR_1 . METHOD_1 ( VAR_2 ) ; METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { VAR_1 . METHOD_1 ( this ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { VAR_1 . METHOD_1 ( this , VAR_1 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public TYPE_1 < TYPE_2 > METHOD_1 ( ) { return TYPE_2 . METHOD_2 ( ) . METHOD_3 ( VAR_1 , TYPE_3 . METHOD_4 ( ) ) . METHOD_5 ( VAR_2 ) . METHOD_5 ( VAR_3 ) . METHOD_5 ( VAR_4 ) . METHOD_6 ( VAR_5 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 < TYPE_2 > METHOD_1 ( ) { return TYPE_2 . METHOD_2 ( ) . METHOD_3 ( VAR_1 , TYPE_3 . METHOD_4 ( ) ) . METHOD_5 ( VAR_4 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public void METHOD_1 ( TYPE_1 VAR_1 ) { java.lang.Object VAR_2 = VAR_1 . get ( STRING_1 ) ; TYPE_2 . METHOD_2 ( STRING_2 , VAR_1 . toString ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { java.lang.Object VAR_2 = VAR_1 . get ( STRING_1 ) ; TYPE_2 . i ( STRING_2 , VAR_1 . toString ( ) ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Errors
In this section we discuss how to read and understand TypeScript errors. We follow this with common errors and their solutions. | TYPE_1 METHOD_1 ( ) { try { return VAR_1 . METHOD_2 ( ) . get ( ) ; } catch ( TYPE_2 VAR_2 ) { return null ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
TYPE_1 METHOD_1 ( ) { try { return VAR_1 . METHOD_2 ( ) ; } catch ( TYPE_2 VAR_2 ) { return null ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # 모자에서 토끼를 꺼내는 마술
> 아무것도 없는 Moja에서 “Rabbit”을 꺼내는 마술
``` moja.java
public class Moja {
public String pullOut() {
return "";
}
}
```
```Masulsa.java
public class Masulsa {
public static void main(String[] args) {
System.out.println(new Moja().pullOut());
}
}
```
> 콘솔에 Rabbit이 찍히는 방법은?
+ 바이트코드 조작 라이브러리
... | public TYPE_1 METHOD_1 ( TYPE_2 VAR_1 ) throws java.io.IOException { VAR_2 . execute ( VAR_1 ) ; return null ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( TYPE_2 VAR_1 ) throws java.io.IOException { TYPE_1 response = VAR_2 . execute ( VAR_1 ) ; return response ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( TYPE_1 VAR_1 ) { if ( ( this . VAR_2 ) == null ) this . VAR_2 = new java.util.ArrayList < TYPE_1 > ( ) ; this . VAR_2 . add ( VAR_1 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { if ( ( this . VAR_2 ) == null ) this . VAR_2 = new java.util.ArrayList < TYPE_1 > ( ) ; synchronized ( VAR_2 ) { this . VAR_2 . add ( VAR_1 ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( TYPE_1 VAR_1 ) { TYPE_2 . METHOD_2 ( TYPE_3 . METHOD_3 ( ) , false ) ; METHOD_4 ( TYPE_4 . METHOD_5 ( ) ) ; METHOD_6 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { if ( TYPE_2 . METHOD_2 ( TYPE_3 . METHOD_3 ( ) , false ) ) { METHOD_4 ( TYPE_4 . METHOD_5 ( ) ) ; } METHOD_6 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | public static void main ( java.lang.String [ ] args ) { java.lang.Thread VAR_1 = new java.lang.Thread ( new TYPE_1 ( ) ) ; VAR_1 . start ( ) ; TYPE_2 . METHOD_1 ( ) . start ( ) ; TYPE_3 . main ( args ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public static void main ( java.lang.String [ ] args ) { TYPE_2 . METHOD_1 ( ) . start ( ) ; TYPE_3 . main ( args ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
id: 56533eb9ac21ba0edf2244d0
title: Comparison with the Equality Operator
challengeType: 1
videoUrl: 'https://scrimba.com/c/cKyVMAL'
---
## Description
<section id='description'>
There are many <dfn>Comparison Operators</dfn> in JavaScript. All of these operators return a boolean <code>true</code> or <code>false</... | public void METHOD_1 ( ) { java.lang.String VAR_1 = METHOD_2 ( STRING_1 ) ; TYPE_1 . assertEquals ( VAR_1 , STRING_2 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { java.lang.String VAR_1 = METHOD_2 ( STRING_1 ) ; TYPE_1 . assertEquals ( STRING_2 , VAR_1 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Errors
In this section we discuss how to read and understand TypeScript errors. We follow this with common errors and their solutions. | public void METHOD_1 ( TYPE_1 error ) { TYPE_2 . METHOD_2 ( context , error . METHOD_3 ( ) , VAR_1 ) . show ( ) ; TYPE_3 . METHOD_4 ( STRING_1 , error . METHOD_3 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 error ) { TYPE_2 . METHOD_2 ( context , error . METHOD_3 ( ) , VAR_1 ) . show ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
title: px
template: thermage/documentation/element
description: Set Paragraph padding x style.
seo:
title: Set Paragraph element padding x style. | px
description: You may set Paragraph element padding x style with help of method px
---
```php
/**
* Set Paragraph element padding x style.
*
* @param int $val... | public void METHOD_1 ( ) { VAR_1 . setText ( VAR_2 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { if ( ( VAR_1 ) != null ) { METHOD_2 ( ) ; } else { METHOD_3 ( ) ; METHOD_2 ( ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { METHOD_3 ( ) ; METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Intent过滤
> 编写:[kesenhoo](https://github.com/kesenhoo) - 原文:<http://developer.android.com/training/basics/intents/filters.html>
前两节课主要讲了从你的app启动另外一个app。但如果你的app的功能对别的app也有用，那么你的app应该做好响应的准备。例如，如果你创建了一个social app，它可以分享messages 或者 photos 给好友，那么最好你的app能够接收`ACTION_SEND` 的intent,这样当用户在其他app触发分享功能的时候，你的app能够出现在待选对话框。
为了使... | public void METHOD_1 ( ) { this . METHOD_2 ( ) ; METHOD_3 ( new android.content.Intent ( this , VAR_1 class ) ) ; return ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { this . METHOD_2 ( ) ; return ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( ) { this . VAR_1 = true ; if ( ( this . VAR_2 ) != null ) { this . VAR_2 . METHOD_2 ( true ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( ) { this . VAR_1 = true ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | public void METHOD_1 ( TYPE_1 VAR_1 ) { TYPE_2 . METHOD_2 ( VAR_2 ) ; VAR_3 . METHOD_3 ( METHOD_4 ( ) . getString ( VAR_4 ) ) ; VAR_5 . getView ( ) . METHOD_5 ( VAR_6 ) ; METHOD_6 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( TYPE_1 VAR_1 ) { VAR_3 . METHOD_3 ( METHOD_4 ( ) . getString ( VAR_4 ) ) ; VAR_5 . getView ( ) . METHOD_5 ( VAR_6 ) ; METHOD_6 ( VAR_1 , VAR_2 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [android-components](../../index.md) / [mozilla.components.browser.engine.gecko.glean](../index.md) / [GeckoAdapter](index.md) / [onBooleanScalar](./on-boolean-scalar.md)
# onBooleanScalar
`fun onBooleanScalar(metric: <ERROR CLASS><`[`Boolean`](https://kotlinlang.org/api/latest/jvm/stdlib/kotlin/-boolean/index.html)`... | public boolean start ( ) { boolean VAR_1 = super . start ( ) ; if ( VAR_1 ) { VAR_2 . open ( ) ; VAR_2 . METHOD_1 ( null ) ; } return VAR_1 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public boolean start ( ) { boolean VAR_1 = super . start ( ) ; if ( VAR_1 ) { VAR_2 . open ( ) ; VAR_2 . METHOD_1 ( null , true ) ; } return VAR_1 ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Methods []({{ site.repo }}/blob/develop/docs/_i18n/{{ site.lang }}/documentation/methods.md)
---
The calling method syntax: `$('#multiple').multipleSelect('method', parameter);`.
<div class="start-table"></div>
| Name | Parameter | Description ... | private void METHOD_1 ( ) { if ( null == ( VAR_1 ) ) { METHOD_2 ( ) ; } METHOD_3 ( ) ; VAR_1 . start ( ) ; VAR_2 = true ; VAR_3 . METHOD_4 ( VAR_4 ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( ) { METHOD_2 ( ) ; METHOD_3 ( ) ; VAR_1 . start ( ) ; VAR_2 = true ; VAR_3 . METHOD_4 ( VAR_4 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | [Back](../README.md)
## P1.10
Write a program that prints an animal speaking a greeting, similar to (but different from) the following:
```bash
/\_/\ -----
( ' ' ) / Hello \
( - ) < Junior |
| | | \ Coder!/
(__|__) -----
```
---
Solution:
```java
import static java.lang.System.out;
class P0110
{
... | private void METHOD_1 ( java.lang.String name ) throws TYPE_1 { if ( ( name == null ) | ( name == STRING_1 ) ) { throw new TYPE_1 ( STRING_2 ) ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private void METHOD_1 ( java.lang.String name ) throws TYPE_1 { if ( ( name == null ) | ( name . isEmpty ( ) ) ) { throw new TYPE_1 ( STRING_2 ) ; } }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | sugarloaf
=========
PHP Dependency Injection Framework
SugarLoaf is a (very) lightweight DI-Container that supports Constructor-Injection as well as Setter-Injection. In case of Setter-Injection, it is also possible (though frowned uppon?) to configure cyclic dependencies.
The following example consists of the Clas... | public TYPE_1 METHOD_1 ( ) { if ( ( VAR_1 ) == null ) return null ; TYPE_1 VAR_2 = new TYPE_1 ( VAR_1 . length ) ; if ( METHOD_2 ( this , VAR_2 ) ) return VAR_2 ; return null ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( ) { TYPE_1 VAR_2 = new TYPE_1 ( VAR_1 . length ) ; if ( METHOD_2 ( this , VAR_2 ) ) return VAR_2 ; return null ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | sugarloaf
=========
PHP Dependency Injection Framework
SugarLoaf is a (very) lightweight DI-Container that supports Constructor-Injection as well as Setter-Injection. In case of Setter-Injection, it is also possible (though frowned uppon?) to configure cyclic dependencies.
The following example consists of the Clas... | public TYPE_1 METHOD_1 ( ) { return new TYPE_1 ( VAR_1 , VAR_2 , VAR_3 , TYPE_2 . METHOD_2 ( ) ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( ) { return new TYPE_1 ( VAR_1 , VAR_2 , VAR_3 , TYPE_2 . METHOD_2 ( ) , false ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # Changelog for [`base` package](http://hackage.haskell.org/package/base)
## 4.16.0.0 *TBA*
* Make it possible to promote `Natural`s and remove the separate `Nat` kind.
For backwards compatibility, `Nat` is now a type synonym for `Natural`.
As a consequence, one must enable `TypeSynonymInstances`
in ord... | public TYPE_1 METHOD_1 ( final TYPE_2 VAR_1 ) { return new TYPE_1 ( this ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( final TYPE_2 VAR_1 ) { return new TYPE_1 ( this , VAR_1 ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( int index , java.lang.String text ) { VAR_1 . get ( METHOD_2 ( index ) ) . name = text ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( int index , java.lang.String text ) { if ( index >= 0 ) VAR_1 . get ( index ) . name = text ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | private java.lang.String METHOD_1 ( java.lang.String name , java.lang.String VAR_1 ) { java.lang.String value = TYPE_1 . METHOD_2 ( name ) ; if ( value != null ) { return value ; } else { return VAR_1 ; } }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
private static java.lang.String METHOD_1 ( java.lang.String name , java.lang.String VAR_1 ) { java.lang.String value = TYPE_1 . METHOD_2 ( name ) ; if ( value != null ) { return value ; } else { retur... |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | sugarloaf
=========
PHP Dependency Injection Framework
SugarLoaf is a (very) lightweight DI-Container that supports Constructor-Injection as well as Setter-Injection. In case of Setter-Injection, it is also possible (though frowned uppon?) to configure cyclic dependencies.
The following example consists of the Clas... | public void execute ( ) { if ( ! ( METHOD_1 ( ) ) ) METHOD_2 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void execute ( ) { if ( ! ( METHOD_1 ( null ) ) ) METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | <!-- Do not edit this file. It is automatically generated by API Documenter. -->
[Home](./index.md) > [kibana-plugin-plugins-expressions-server](./kibana-plugin-plugins-expressions-server.md) > [FunctionsRegistry](./kibana-plugin-plugins-expressions-server.functionsregistry.md)
## FunctionsRegistry class
<b>Si... | public TYPE_1 METHOD_1 ( ) { return new TYPE_1 ( message , VAR_1 , VAR_2 , date , VAR_3 , VAR_4 , parameters ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public TYPE_1 METHOD_1 ( ) { return new TYPE_1 ( id , message , VAR_1 , VAR_2 , date , VAR_3 , VAR_4 , parameters ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | ---
layout: post
title: 함수형 인터페이스
---
> 람다표현식을 함수형 인터페이스로 변환할 수 있다.
자바에는 Runnable, Comparator 등 코드블록을 캡슐화하는 수많은 인터페이스가 있다. 람다는 이러한 기존 인터페이스와 호환된다.
### Runnalbe
{% highlight js %}
class LengthComparator implemets Comparator<String> {
public int compare(String first, String second) {
return Integter.coma... | public void METHOD_1 ( java.util.ArrayList < java.lang.String > data ) { VAR_1 = data ; METHOD_2 ( ) ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public void METHOD_1 ( java.util.ArrayList < java.lang.String > data ) { VAR_1 = ( data == null ) ? new java.util.ArrayList < java.lang.String > ( ) : data ; METHOD_2 ( ) ; }
``` |
Analyze the bug in the provided code, explain the root cause based on the architectural context, and output the fixed code. | # NHS Java Demo
Demonstration project showing JSR-303 annotation using custom ConstraintValidator.
Based on the following class definitions:
```
public class RegularAmount {
private Frequency frequency;
private String amount;
public Frequency getFrequency() {
return frequency;
}
public void... | public java.lang.Integer METHOD_1 ( java.util.List < TYPE_1 > VAR_1 , boolean VAR_2 ) throws java.lang.Exception { int VAR_3 = 0 ; for ( TYPE_1 message : VAR_1 ) { VAR_3 = VAR_3 + ( VAR_4 . METHOD_1 ( message , VAR_2 ) ) ; } return VAR_3 ; }
| **Root Cause Analysis:**
The buggy code violates the architectural intent outlined in the context.
**Fixed Code:**
```
public java.lang.Integer METHOD_1 ( java.util.List < TYPE_1 > VAR_1 , boolean VAR_2 ) throws java.lang.Exception { int VAR_3 = 0 ; for ( TYPE_1 message : VAR_1 ) { VAR_3 = VAR_3 + ( VAR_4 . METHOD_1 (... |
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