Inheritance allows reuse of properties and behaviors of an existing class when creating new classes. The existing class is called the base/parent class, while the new class is the derived/child class. The child class inherits all properties and behaviors of the parent class and can define additional properties and behaviors of its own. There are different types of inheritance like single, multilevel, multiple and hierarchical inheritance which define how properties and behaviors are inherited between parent and child classes.
The document discusses inheritance in object-oriented programming, which allows a subclass to inherit attributes and behaviors from a parent superclass, creating an "is-a" relationship. Inheritance enables code reuse as subclasses inherit functionality from the superclass and can add additional specialized attributes and behaviors. The different types of inheritance covered are single, multilevel, multiple, and hybrid inheritance, along with access specifiers like public, private, and protected that determine which superclass members are inherited by subclasses.
This document discusses various types of polymorphism in C#, including inheritance, base and derived classes, single inheritance, multi-level inheritance, hierarchical inheritance, and aggregation. It provides examples of each type of inheritance using C# code. Single inheritance allows a derived class to inherit properties and methods from one base class. Multi-level inheritance involves inheriting from another inherited class. Hierarchical inheritance involves inheriting from a single base class but having multiple derived classes. Aggregation represents a "has-a" relationship between classes.
This document discusses various types of polymorphism in C#, including single inheritance, multi-level inheritance, hierarchical inheritance, and aggregation. Single inheritance allows a derived class to inherit properties and behaviors from a single base class. Multi-level inheritance involves inheriting from another inherited class. Hierarchical inheritance involves inheriting from a single base class but having multiple derived classes. Aggregation represents a "has-a" relationship where one class contains an instance of another class. The document provides examples to illustrate each type of polymorphism.
Inheritance allows one class to acquire the properties and behaviors of another class, known as the base or parent class, allowing code reuse and extension of existing classes without modification. There are different types of inheritance like simple, multilevel, and multiple inheritance that build upon the base class in various ways. Inheritance provides benefits like code reuse, extension of existing classes, and ability to override methods of the base class in the derived class.
Inheritance allows one class to inherit properties from another base class, creating a hierarchy from general to specific classes. Derived classes inherit all public and protected members of the base class and can add new, class-specific features. This allows for code reuse and reduces time/effort. Access specifiers like public, private, and protected determine which members are inherited. Constructors and destructors execute in order of derivation, with base constructors first and destructors last. Virtual functions support runtime polymorphism by allowing overriding in derived classes. Pure virtual functions define an interface without implementation.
The document discusses different types of inheritance in C++ including single, multiple, hierarchical, and multilevel inheritance. Single inheritance involves one base class and derived class. Multiple inheritance allows a class to inherit from multiple base classes. Hierarchical inheritance uses a single base class to derive multiple classes. Multilevel inheritance involves a derived class acting as a base class to further derived classes. Examples of code implementing these inheritance types are provided.
The document discusses inheritance in C++. It defines inheritance as creating new classes from existing classes where the new classes inherit properties of the existing classes. There are different types of inheritance including single, multiple, hierarchical and multilevel inheritance. The relationship between base and derived classes is described. Access specifiers like public, private and protected are also discussed which determine how members of base classes can be accessed in derived classes. Examples of code implementing single inheritance between two classes are provided.
Class nahi hai bhai try to get it at the earliest time in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and all its fine for you eee pc is the total current time pass mela lagal na t humanyu ka hai kya hai ye pata ab nahi bhai red colour ka hai kisne kaha ho Gail I will be extended for sure and you can change it in a way that I have not written my name roll number ka assignment upload kara hai Poonam ka ke baad time to get the following keyboard for a class has a type a type a class has a class is an expanded form of a class has a class is known for its fine with the class keyboard and keyboard for a long term in office and will get the same to u want me hi hu to send the link pe to nahi ja sakta hu ki na dela hau hai bhai puchh lunga abhi tak date of the period from the end to end of this true that you can change the following the following keyboard is not visible
Friend functions allow non-member functions to access private and protected members of a class. Inline functions avoid function call overhead by copying the code into the calling function. The this pointer is an implicit parameter that provides access to the object from within member functions. Static members exist only once per class rather than for each object. Inheritance allows classes to inherit attributes and behaviors from other classes in a hierarchy. Polymorphism allows functions to take different implementations based on the runtime type of an object. Encapsulation binds data and functions that operate on that data together within a class to hide implementation details.
Inheritance allows a derived class to inherit features from a base class. A derived class inherits data members and member functions from the base class and can add its own members. Private members of the base class cannot be accessed directly in the derived class. Constructors are not inherited. Single inheritance refers to deriving from one base class, while multiple inheritance allows deriving from more than one base class. Access restrictions of public, protected, and private determine which members can be accessed where.
This document discusses inheritance in object oriented programming. It covers key concepts of inheritance including derived classes inheriting behavior and attributes from base classes to promote code reuse. Specific topics covered include is-a relationships between classes, access control of inherited members, continuous inheritance where derived classes can act as base classes, and examples of inheritance hierarchies.
The document discusses inheritance in object-oriented programming. It provides reasons for using inheritance such as reusability of code and reducing code duplication. It describes the parent-child relationship in inheritance where a base/parent class defines common properties and a derived/child class inherits these properties. It also discusses different types of inheritance like single, multiple, and hierarchical inheritance.
- Classes are blueprints for objects in C#. Objects are instances of classes. Classes contain data fields, methods, and other members.
- There are different access modifiers like public, private, and protected that control access to class members. Constructors initialize new objects, and destructors perform cleanup when objects are destroyed.
- Inheritance allows classes to inherit members from base classes. Polymorphism allows classes to share common interfaces while providing different implementations. Interfaces define contracts without implementation, while abstract classes can contain partial implementations.
- Encapsulation hides implementation details within a class. Abstraction exposes only necessary details to users through public interfaces. Extension methods can add methods to existing types without creating new derived types.
Inheritance allows classes to inherit properties from other classes, making code reuse and maintenance easier. There are several types of inheritance in C++. Public inheritance allows derived classes to access public and protected members of the base class. Protected inheritance makes public and protected base class members protected in derived classes. Private inheritance makes public and protected base members private in derived classes. Common inheritance types include single inheritance, multilevel inheritance, multiple inheritance, hierarchical inheritance, and hybrid inheritance.
OOP concepts like classes, objects, encapsulation, inheritance, and polymorphism are important aspects of object-oriented programming and VB.NET. Classes contain attributes and behaviors that define objects. Encapsulation involves storing data and methods together in classes. Inheritance allows classes to inherit attributes and behaviors from other classes. Polymorphism enables objects to take different forms. Namespaces and value types like structures and enumerations are also key elements of OOP and VB.NET programming.
The document summarizes key concepts in object-oriented programming (OOP) such as classes, objects, access modifiers (public, private, protected), inheritance, polymorphism, and function overloading. It provides examples to illustrate class definitions and member functions, the differences between public, private, and protected access modifiers, and how inheritance and polymorphism work in OOP.
- Object-oriented programming (OOP) refers to the creation of reusable software objects/classes that can be efficiently developed and incorporated into multiple programs. An OOP program consists of interacting objects that solve a task.
- Classes define objects of the same type through data members (properties) and methods. Objects are instances of classes that can inherit properties and behaviors from parent classes.
- OOP principles like encapsulation, inheritance, and polymorphism help manage complexity through modularization and reuse when building large PHP programs.
Access controlaspecifier and visibilty modesVinay Kumar
Access modifiers in C++ allow restricting access to classes, members, and inherited members. The three main access modifiers are public, private, and protected. Public members can be accessed anywhere, private members only within the class, and protected members within the class and subclasses. The scope resolution operator :: is used to access members when names are hidden, define functions outside classes, access static members, and resolve multiple inheritance conflicts.
This 5-day Java workshop covers object-oriented programming (OOP) inheritance. The key concepts discussed include the four pillars of OOP - encapsulation, abstraction, inheritance, and polymorphism. Inheritance allows classes to extend existing classes to share common attributes and methods, while also adding new unique functionality. The workshop provides examples of defining parent and child classes, using inheritance, overriding methods, and casting between classes. Resources for further learning about Java and OOP are also listed.
Inheritance allows new classes to be created from existing classes. This allows code reuse and establishes an is-a relationship between classes. There are different types of inheritance including single, multilevel, multiple and abstract inheritance. When inheriting from a base class, the derived class gains access to properties and methods of the base class. Constructors are called from base to derived during object instantiation. Methods can be overridden in derived classes to change behavior. Multiple inheritance introduces ambiguity that must be resolved using scope resolution.
Inheritance allows one class to acquire properties and characteristics from another class. The class whose properties are inherited is called the parent or base class, while the class that inherits properties is called the child or derived class. There are different types of inheritance like single, multiple, hierarchical, and multilevel inheritance. Constructors are always called from base class to derived class to properly initialize the object.
This document discusses encapsulation in object-oriented programming. Encapsulation involves enclosing data and functions together within a class and restricting access to that data. The document defines encapsulation and explains how it is used to hide implementation details and bind data to a single unit. It also discusses different access specifiers like public, private, protected, internal, and protected internal and how they control access to variables and methods within and outside of classes.
This document discusses encapsulation in object-oriented programming. Encapsulation involves enclosing data and functions together within a class and restricting access to that data. The document defines encapsulation and explains how it is used to hide implementation details and bind data to a single unit. It also discusses different access specifiers like public, private, protected, internal, and protected internal and how they control access to variables and methods within and outside of classes.
The document discusses different types of inheritance in C++ including single, multiple, hierarchical, and multilevel inheritance. Single inheritance involves one base class and derived class. Multiple inheritance allows a class to inherit from multiple base classes. Hierarchical inheritance uses a single base class to derive multiple classes. Multilevel inheritance involves a derived class acting as a base class to further derived classes. Examples of code implementing these inheritance types are provided.
The document discusses inheritance in C++. It defines inheritance as creating new classes from existing classes where the new classes inherit properties of the existing classes. There are different types of inheritance including single, multiple, hierarchical and multilevel inheritance. The relationship between base and derived classes is described. Access specifiers like public, private and protected are also discussed which determine how members of base classes can be accessed in derived classes. Examples of code implementing single inheritance between two classes are provided.
Class nahi hai bhai try to get it at the earliest time in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and the following format is not visible in the world and all its fine for you eee pc is the total current time pass mela lagal na t humanyu ka hai kya hai ye pata ab nahi bhai red colour ka hai kisne kaha ho Gail I will be extended for sure and you can change it in a way that I have not written my name roll number ka assignment upload kara hai Poonam ka ke baad time to get the following keyboard for a class has a type a type a class has a class is an expanded form of a class has a class is known for its fine with the class keyboard and keyboard for a long term in office and will get the same to u want me hi hu to send the link pe to nahi ja sakta hu ki na dela hau hai bhai puchh lunga abhi tak date of the period from the end to end of this true that you can change the following the following keyboard is not visible
Friend functions allow non-member functions to access private and protected members of a class. Inline functions avoid function call overhead by copying the code into the calling function. The this pointer is an implicit parameter that provides access to the object from within member functions. Static members exist only once per class rather than for each object. Inheritance allows classes to inherit attributes and behaviors from other classes in a hierarchy. Polymorphism allows functions to take different implementations based on the runtime type of an object. Encapsulation binds data and functions that operate on that data together within a class to hide implementation details.
Inheritance allows a derived class to inherit features from a base class. A derived class inherits data members and member functions from the base class and can add its own members. Private members of the base class cannot be accessed directly in the derived class. Constructors are not inherited. Single inheritance refers to deriving from one base class, while multiple inheritance allows deriving from more than one base class. Access restrictions of public, protected, and private determine which members can be accessed where.
This document discusses inheritance in object oriented programming. It covers key concepts of inheritance including derived classes inheriting behavior and attributes from base classes to promote code reuse. Specific topics covered include is-a relationships between classes, access control of inherited members, continuous inheritance where derived classes can act as base classes, and examples of inheritance hierarchies.
The document discusses inheritance in object-oriented programming. It provides reasons for using inheritance such as reusability of code and reducing code duplication. It describes the parent-child relationship in inheritance where a base/parent class defines common properties and a derived/child class inherits these properties. It also discusses different types of inheritance like single, multiple, and hierarchical inheritance.
- Classes are blueprints for objects in C#. Objects are instances of classes. Classes contain data fields, methods, and other members.
- There are different access modifiers like public, private, and protected that control access to class members. Constructors initialize new objects, and destructors perform cleanup when objects are destroyed.
- Inheritance allows classes to inherit members from base classes. Polymorphism allows classes to share common interfaces while providing different implementations. Interfaces define contracts without implementation, while abstract classes can contain partial implementations.
- Encapsulation hides implementation details within a class. Abstraction exposes only necessary details to users through public interfaces. Extension methods can add methods to existing types without creating new derived types.
Inheritance allows classes to inherit properties from other classes, making code reuse and maintenance easier. There are several types of inheritance in C++. Public inheritance allows derived classes to access public and protected members of the base class. Protected inheritance makes public and protected base class members protected in derived classes. Private inheritance makes public and protected base members private in derived classes. Common inheritance types include single inheritance, multilevel inheritance, multiple inheritance, hierarchical inheritance, and hybrid inheritance.
OOP concepts like classes, objects, encapsulation, inheritance, and polymorphism are important aspects of object-oriented programming and VB.NET. Classes contain attributes and behaviors that define objects. Encapsulation involves storing data and methods together in classes. Inheritance allows classes to inherit attributes and behaviors from other classes. Polymorphism enables objects to take different forms. Namespaces and value types like structures and enumerations are also key elements of OOP and VB.NET programming.
The document summarizes key concepts in object-oriented programming (OOP) such as classes, objects, access modifiers (public, private, protected), inheritance, polymorphism, and function overloading. It provides examples to illustrate class definitions and member functions, the differences between public, private, and protected access modifiers, and how inheritance and polymorphism work in OOP.
- Object-oriented programming (OOP) refers to the creation of reusable software objects/classes that can be efficiently developed and incorporated into multiple programs. An OOP program consists of interacting objects that solve a task.
- Classes define objects of the same type through data members (properties) and methods. Objects are instances of classes that can inherit properties and behaviors from parent classes.
- OOP principles like encapsulation, inheritance, and polymorphism help manage complexity through modularization and reuse when building large PHP programs.
Access controlaspecifier and visibilty modesVinay Kumar
Access modifiers in C++ allow restricting access to classes, members, and inherited members. The three main access modifiers are public, private, and protected. Public members can be accessed anywhere, private members only within the class, and protected members within the class and subclasses. The scope resolution operator :: is used to access members when names are hidden, define functions outside classes, access static members, and resolve multiple inheritance conflicts.
This 5-day Java workshop covers object-oriented programming (OOP) inheritance. The key concepts discussed include the four pillars of OOP - encapsulation, abstraction, inheritance, and polymorphism. Inheritance allows classes to extend existing classes to share common attributes and methods, while also adding new unique functionality. The workshop provides examples of defining parent and child classes, using inheritance, overriding methods, and casting between classes. Resources for further learning about Java and OOP are also listed.
Inheritance allows new classes to be created from existing classes. This allows code reuse and establishes an is-a relationship between classes. There are different types of inheritance including single, multilevel, multiple and abstract inheritance. When inheriting from a base class, the derived class gains access to properties and methods of the base class. Constructors are called from base to derived during object instantiation. Methods can be overridden in derived classes to change behavior. Multiple inheritance introduces ambiguity that must be resolved using scope resolution.
Inheritance allows one class to acquire properties and characteristics from another class. The class whose properties are inherited is called the parent or base class, while the class that inherits properties is called the child or derived class. There are different types of inheritance like single, multiple, hierarchical, and multilevel inheritance. Constructors are always called from base class to derived class to properly initialize the object.
This document discusses encapsulation in object-oriented programming. Encapsulation involves enclosing data and functions together within a class and restricting access to that data. The document defines encapsulation and explains how it is used to hide implementation details and bind data to a single unit. It also discusses different access specifiers like public, private, protected, internal, and protected internal and how they control access to variables and methods within and outside of classes.
This document discusses encapsulation in object-oriented programming. Encapsulation involves enclosing data and functions together within a class and restricting access to that data. The document defines encapsulation and explains how it is used to hide implementation details and bind data to a single unit. It also discusses different access specifiers like public, private, protected, internal, and protected internal and how they control access to variables and methods within and outside of classes.
保密服务多伦多都会大学英文毕业证书影本加拿大成绩单多伦多都会大学文凭【q微1954292140】办理多伦多都会大学学位证(TMU毕业证书)成绩单VOID底纹防伪【q微1954292140】帮您解决在加拿大多伦多都会大学未毕业难题(Toronto Metropolitan University)文凭购买、毕业证购买、大学文凭购买、大学毕业证购买、买文凭、日韩文凭、英国大学文凭、美国大学文凭、澳洲大学文凭、加拿大大学文凭(q微1954292140)新加坡大学文凭、新西兰大学文凭、爱尔兰文凭、西班牙文凭、德国文凭、教育部认证,买毕业证,毕业证购买,买大学文凭,购买日韩毕业证、英国大学毕业证、美国大学毕业证、澳洲大学毕业证、加拿大大学毕业证(q微1954292140)新加坡大学毕业证、新西兰大学毕业证、爱尔兰毕业证、西班牙毕业证、德国毕业证,回国证明,留信网认证,留信认证办理,学历认证。从而完成就业。多伦多都会大学毕业证办理,多伦多都会大学文凭办理,多伦多都会大学成绩单办理和真实留信认证、留服认证、多伦多都会大学学历认证。学院文凭定制,多伦多都会大学原版文凭补办,扫描件文凭定做,100%文凭复刻。
特殊原因导致无法毕业,也可以联系我们帮您办理相关材料:
1:在多伦多都会大学挂科了,不想读了,成绩不理想怎么办???
2:打算回国了,找工作的时候,需要提供认证《TMU成绩单购买办理多伦多都会大学毕业证书范本》【Q/WeChat:1954292140】Buy Toronto Metropolitan University Diploma《正式成绩单论文没过》有文凭却得不到认证。又该怎么办???加拿大毕业证购买,加拿大文凭购买,【q微1954292140】加拿大文凭购买,加拿大文凭定制,加拿大文凭补办。专业在线定制加拿大大学文凭,定做加拿大本科文凭,【q微1954292140】复制加拿大Toronto Metropolitan University completion letter。在线快速补办加拿大本科毕业证、硕士文凭证书,购买加拿大学位证、多伦多都会大学Offer,加拿大大学文凭在线购买。
加拿大文凭多伦多都会大学成绩单,TMU毕业证【q微1954292140】办理加拿大多伦多都会大学毕业证(TMU毕业证书)【q微1954292140】学位证书电子图在线定制服务多伦多都会大学offer/学位证offer办理、留信官方学历认证(永久存档真实可查)采用学校原版纸张、特殊工艺完全按照原版一比一制作。帮你解决多伦多都会大学学历学位认证难题。
主营项目:
1、真实教育部国外学历学位认证《加拿大毕业文凭证书快速办理多伦多都会大学毕业证书不见了怎么办》【q微1954292140】《论文没过多伦多都会大学正式成绩单》,教育部存档,教育部留服网站100%可查.
2、办理TMU毕业证,改成绩单《TMU毕业证明办理多伦多都会大学学历认证定制》【Q/WeChat:1954292140】Buy Toronto Metropolitan University Certificates《正式成绩单论文没过》,多伦多都会大学Offer、在读证明、学生卡、信封、证明信等全套材料,从防伪到印刷,从水印到钢印烫金,高精仿度跟学校原版100%相同.
3、真实使馆认证(即留学人员回国证明),使馆存档可通过大使馆查询确认.
4、留信网认证,国家专业人才认证中心颁发入库证书,留信网存档可查.
《多伦多都会大学学位证购买加拿大毕业证书办理TMU假学历认证》【q微1954292140】学位证1:1完美还原海外各大学毕业材料上的工艺:水印,阴影底纹,钢印LOGO烫金烫银,LOGO烫金烫银复合重叠。文字图案浮雕、激光镭射、紫外荧光、温感、复印防伪等防伪工艺。
高仿真还原加拿大文凭证书和外壳,定制加拿大多伦多都会大学成绩单和信封。学历认证证书电子版TMU毕业证【q微1954292140】办理加拿大多伦多都会大学毕业证(TMU毕业证书)【q微1954292140】毕业证书样本多伦多都会大学offer/学位证学历本科证书、留信官方学历认证(永久存档真实可查)采用学校原版纸张、特殊工艺完全按照原版一比一制作。帮你解决多伦多都会大学学历学位认证难题。
多伦多都会大学offer/学位证、留信官方学历认证(永久存档真实可查)采用学校原版纸张、特殊工艺完全按照原版一比一制作【q微1954292140】Buy Toronto Metropolitan University Diploma购买美国毕业证,购买英国毕业证,购买澳洲毕业证,购买加拿大毕业证,以及德国毕业证,购买法国毕业证(q微1954292140)购买荷兰毕业证、购买瑞士毕业证、购买日本毕业证、购买韩国毕业证、购买新西兰毕业证、购买新加坡毕业证、购买西班牙毕业证、购买马来西亚毕业证等。包括了本科毕业证,硕士毕业证。
The third speaker at Process Mining Camp 2018 was Dinesh Das from Microsoft. Dinesh Das is the Data Science manager in Microsoft’s Core Services Engineering and Operations organization.
Machine learning and cognitive solutions give opportunities to reimagine digital processes every day. This goes beyond translating the process mining insights into improvements and into controlling the processes in real-time and being able to act on this with advanced analytics on future scenarios.
Dinesh sees process mining as a silver bullet to achieve this and he shared his learnings and experiences based on the proof of concept on the global trade process. This process from order to delivery is a collaboration between Microsoft and the distribution partners in the supply chain. Data of each transaction was captured and process mining was applied to understand the process and capture the business rules (for example setting the benchmark for the service level agreement). These business rules can then be operationalized as continuous measure fulfillment and create triggers to act using machine learning and AI.
Using the process mining insight, the main variants are translated into Visio process maps for monitoring. The tracking of the performance of this process happens in real-time to see when cases become too late. The next step is to predict in what situations cases are too late and to find alternative routes.
As an example, Dinesh showed how machine learning could be used in this scenario. A TradeChatBot was developed based on machine learning to answer questions about the process. Dinesh showed a demo of the bot that was able to answer questions about the process by chat interactions. For example: “Which cases need to be handled today or require special care as they are expected to be too late?”. In addition to the insights from the monitoring business rules, the bot was also able to answer questions about the expected sequences of particular cases. In order for the bot to answer these questions, the result of the process mining analysis was used as a basis for machine learning.
Johan Lammers from Statistics Netherlands has been a business analyst and statistical researcher for almost 30 years. In their business, processes have two faces: You can produce statistics about processes and processes are needed to produce statistics. As a government-funded office, the efficiency and the effectiveness of their processes is important to spend that public money well.
Johan takes us on a journey of how official statistics are made. One way to study dynamics in statistics is to take snapshots of data over time. A special way is the panel survey, where a group of cases is followed over time. He shows how process mining could test certain hypotheses much faster compared to statistical tools like SPSS.
Oak Ridge National Laboratory (ORNL) is a leading science and technology laboratory under the direction of the Department of Energy.
Hilda Klasky is part of the R&D Staff of the Systems Modeling Group in the Computational Sciences & Engineering Division at ORNL. To prepare the data of the radiology process from the Veterans Affairs Corporate Data Warehouse for her process mining analysis, Hilda had to condense and pre-process the data in various ways. Step by step she shows the strategies that have worked for her to simplify the data to the level that was required to be able to analyze the process with domain experts.
The fourth speaker at Process Mining Camp 2018 was Wim Kouwenhoven from the City of Amsterdam. Amsterdam is well-known as the capital of the Netherlands and the City of Amsterdam is the municipality defining and governing local policies. Wim is a program manager responsible for improving and controlling the financial function.
A new way of doing things requires a different approach. While introducing process mining they used a five-step approach:
Step 1: Awareness
Introducing process mining is a little bit different in every organization. You need to fit something new to the context, or even create the context. At the City of Amsterdam, the key stakeholders in the financial and process improvement department were invited to join a workshop to learn what process mining is and to discuss what it could do for Amsterdam.
Step 2: Learn
As Wim put it, at the City of Amsterdam they are very good at thinking about something and creating plans, thinking about it a bit more, and then redesigning the plan and talking about it a bit more. So, they deliberately created a very small plan to quickly start experimenting with process mining in small pilot. The scope of the initial project was to analyze the Purchase-to-Pay process for one department covering four teams. As a result, they were able show that they were able to answer five key questions and got appetite for more.
Step 3: Plan
During the learning phase they only planned for the goals and approach of the pilot, without carving the objectives for the whole organization in stone. As the appetite was growing, more stakeholders were involved to plan for a broader adoption of process mining. While there was interest in process mining in the broader organization, they decided to keep focusing on making process mining a success in their financial department.
Step 4: Act
After the planning they started to strengthen the commitment. The director for the financial department took ownership and created time and support for the employees, team leaders, managers and directors. They started to develop the process mining capability by organizing training sessions for the teams and internal audit. After the training, they applied process mining in practice by deepening their analysis of the pilot by looking at e-invoicing, deleted invoices, analyzing the process by supplier, looking at new opportunities for audit, etc. As a result, the lead time for invoices was decreased by 8 days by preventing rework and by making the approval process more efficient. Even more important, they could further strengthen the commitment by convincing the stakeholders of the value.
Step 5: Act again
After convincing the stakeholders of the value you need to consolidate the success by acting again. Therefore, a team of process mining analysts was created to be able to meet the demand and sustain the success. Furthermore, new experiments were started to see how process mining could be used in three audits in 2018.
The fifth talk at Process Mining Camp was given by Olga Gazina and Daniel Cathala from Euroclear. As a data analyst at the internal audit department Olga helped Daniel, IT Manager, to make his life at the end of the year a bit easier by using process mining to identify key risks.
She applied process mining to the process from development to release at the Component and Data Management IT division. It looks like a simple process at first, but Daniel explains that it becomes increasingly complex when considering that multiple configurations and versions are developed, tested and released. It becomes even more complex as the projects affecting these releases are running in parallel. And on top of that, each project often impacts multiple versions and releases.
After Olga obtained the data for this process, she quickly realized that she had many candidates for the caseID, timestamp and activity. She had to find a perspective of the process that was on the right level, so that it could be recognized by the process owners. In her talk she takes us through her journey step by step and shows the challenges she encountered in each iteration. In the end, she was able to find the visualization that was hidden in the minds of the business experts.
Frank van Geffen is a Process Innovator at the Rabobank. He realized that it took a lot of different disciplines and skills working together to achieve what they have achieved. It's not only about knowing what process mining is and how to operate the process mining tool. Instead, a lot of emphasis needs to be placed on the management of stakeholders and on presenting insights in a meaningful way for them.
The results speak for themselves: In their IT service desk improvement project, they could already save 50,000 steps by reducing rework and preventing incidents from being raised. In another project, business expense claim turnaround time has been reduced from 11 days to 1.2 days. They could also analyze their cross-channel mortgage customer journey process.
快速办理新西兰成绩单奥克兰理工大学毕业证【q微1954292140】办理奥克兰理工大学毕业证(AUT毕业证书)diploma学位认证【q微1954292140】新西兰文凭购买,新西兰文凭定制,新西兰文凭补办。专业在线定制新西兰大学文凭,定做新西兰本科文凭,【q微1954292140】复制新西兰Auckland University of Technology completion letter。在线快速补办新西兰本科毕业证、硕士文凭证书,购买新西兰学位证、奥克兰理工大学Offer,新西兰大学文凭在线购买。
主营项目:
1、真实教育部国外学历学位认证《新西兰毕业文凭证书快速办理奥克兰理工大学毕业证的方法是什么?》【q微1954292140】《论文没过奥克兰理工大学正式成绩单》,教育部存档,教育部留服网站100%可查.
2、办理AUT毕业证,改成绩单《AUT毕业证明办理奥克兰理工大学展示成绩单模板》【Q/WeChat:1954292140】Buy Auckland University of Technology Certificates《正式成绩单论文没过》,奥克兰理工大学Offer、在读证明、学生卡、信封、证明信等全套材料,从防伪到印刷,从水印到钢印烫金,高精仿度跟学校原版100%相同.
3、真实使馆认证(即留学人员回国证明),使馆存档可通过大使馆查询确认.
4、留信网认证,国家专业人才认证中心颁发入库证书,留信网存档可查.
《奥克兰理工大学毕业证定制新西兰毕业证书办理AUT在线制作本科文凭》【q微1954292140】学位证1:1完美还原海外各大学毕业材料上的工艺:水印,阴影底纹,钢印LOGO烫金烫银,LOGO烫金烫银复合重叠。文字图案浮雕、激光镭射、紫外荧光、温感、复印防伪等防伪工艺。
高仿真还原新西兰文凭证书和外壳,定制新西兰奥克兰理工大学成绩单和信封。专业定制国外毕业证书AUT毕业证【q微1954292140】办理新西兰奥克兰理工大学毕业证(AUT毕业证书)【q微1954292140】学历认证复核奥克兰理工大学offer/学位证成绩单定制、留信官方学历认证(永久存档真实可查)采用学校原版纸张、特殊工艺完全按照原版一比一制作。帮你解决奥克兰理工大学学历学位认证难题。
新西兰文凭奥克兰理工大学成绩单,AUT毕业证【q微1954292140】办理新西兰奥克兰理工大学毕业证(AUT毕业证书)【q微1954292140】学位认证要多久奥克兰理工大学offer/学位证在线制作硕士成绩单、留信官方学历认证(永久存档真实可查)采用学校原版纸张、特殊工艺完全按照原版一比一制作。帮你解决奥克兰理工大学学历学位认证难题。
奥克兰理工大学offer/学位证、留信官方学历认证(永久存档真实可查)采用学校原版纸张、特殊工艺完全按照原版一比一制作【q微1954292140】Buy Auckland University of Technology Diploma购买美国毕业证,购买英国毕业证,购买澳洲毕业证,购买加拿大毕业证,以及德国毕业证,购买法国毕业证(q微1954292140)购买荷兰毕业证、购买瑞士毕业证、购买日本毕业证、购买韩国毕业证、购买新西兰毕业证、购买新加坡毕业证、购买西班牙毕业证、购买马来西亚毕业证等。包括了本科毕业证,硕士毕业证。
特殊原因导致无法毕业,也可以联系我们帮您办理相关材料:
1:在奥克兰理工大学挂科了,不想读了,成绩不理想怎么办???
2:打算回国了,找工作的时候,需要提供认证《AUT成绩单购买办理奥克兰理工大学毕业证书范本》【Q/WeChat:1954292140】Buy Auckland University of Technology Diploma《正式成绩单论文没过》有文凭却得不到认证。又该怎么办???新西兰毕业证购买,新西兰文凭购买,
【q微1954292140】帮您解决在新西兰奥克兰理工大学未毕业难题(Auckland University of Technology)文凭购买、毕业证购买、大学文凭购买、大学毕业证购买、买文凭、日韩文凭、英国大学文凭、美国大学文凭、澳洲大学文凭、加拿大大学文凭(q微1954292140)新加坡大学文凭、新西兰大学文凭、爱尔兰文凭、西班牙文凭、德国文凭、教育部认证,买毕业证,毕业证购买,买大学文凭,购买日韩毕业证、英国大学毕业证、美国大学毕业证、澳洲大学毕业证、加拿大大学毕业证(q微1954292140)新加坡大学毕业证、新西兰大学毕业证、爱尔兰毕业证、西班牙毕业证、德国毕业证,回国证明,留信网认证,留信认证办理,学历认证。从而完成就业。奥克兰理工大学毕业证办理,奥克兰理工大学文凭办理,奥克兰理工大学成绩单办理和真实留信认证、留服认证、奥克兰理工大学学历认证。学院文凭定制,奥克兰理工大学原版文凭补办,扫描件文凭定做,100%文凭复刻。
indonesia-gen-z-report-2024 Gen Z (born between 1997 and 2012) is currently t...disnakertransjabarda
Gen Z (born between 1997 and 2012) is currently the biggest generation group in Indonesia with 27.94% of the total population or. 74.93 million people.
2. 10-2
What is Inheritance?
Generalization vs. Specialization
• Real-life objects are typically specialized versions of
other more general objects.
• The term “insect” describes a very general type of
creature with numerous characteristics.
• Grasshoppers and bumblebees are insects
– They share the general characteristics of an insect.
– However, they have special characteristics of their own.
• grasshoppers have a jumping ability, and
• bumblebees have a stinger.
• Grasshoppers and bumblebees are specialized
versions of an insect.
4. 10-4
The “is a” Relationship
• The relationship between a superclass and an inherited
class is called an “is a” relationship.
– A grasshopper “is a” insect.
– A poodle “is a” dog.
– A car “is a” vehicle.
• A specialized object has:
– all of the characteristics of the general object, plus
– additional characteristics that make it special.
• In object-oriented programming, inheritance is used to
create an “is a” relationship among classes.
5. 10-5
The “is a” Relationship
• We can extend the capabilities of a class.
• Inheritance involves a superclass and a subclass.
– The superclass is the general class and
– the subclass is the specialized class.
• The subclass is based on, or extended from, the superclass.
– Superclasses are also called base classes, and
– subclasses are also called derived classes.
• The relationship of classes can be thought of as parent
classes and child classes.
6. 10-6
Inheritance, Fields and Methods
• Members of the superclass that are marked private:
– are not inherited by the subclass,
– exist in memory when the object of the subclass is created
– may only be accessed from the subclass by public methods
of the superclass.
• Members of the superclass that are marked public:
– are inherited by the subclass, and
– may be directly accessed from the subclass.
7. Inheritance
• It is the Process of creating a New class from an existing class.
• The Existing class is called Base or Parent class.
• The New class is called as Child or Derived Class
base
subclass1 subclass2
9. Advantages
It permits code reusability. So, save time and
increase the program reliability.
Improve Program Reliability
It Permits code sharing
11. visibility mode
• The visibility mode specifies whether the features are
privately derived or publicly derived.
• The default visibility mode is private.
• Privately Inherited: public members of the base class
become private members of the derived class, can be
accessed only by the member functions of the derived
class.
• Publicly inherited: public members of the base class
become public members of the derived class and can be
accessed by the derived class objects.
• Private members of the base class are not inherited in
both the cases.
26. It is the process of creating new class from more than one base
classes.
Syntax :
class <derived class >:<access specifier>
base_class1,<access specifier> base_class2...
{
private :
// members;
protected :
// members;
public :
//memebers;
};
Multiple Inheritance
Person Employee
Teacher
29. Same Data Member Name in
Base and Derived Class
Single level inheretance
30. • #include <iostream>
• using namespace std;
• class ClassA
• {
• protected :
• int width, height;
• public :
• void set_values(int x, int y)
• {
• width = x;
• height = y;
• }
• };
• class ClassC:public ClassA
• {
• protected:
• int width, height;
•
• public :
• int area()
• {
• return (width *height);
• }
• };
31. Same Data Member Name in Base
and Derived Class
• int main()
• {
• ClassC Obj;
• Obj.set_values(10, 20);
• cout << Obj.area() <<
endl;
• return 0;
• }
• Output: 0
32. • #include <iostream>
• using namespace std;
• class ClassA
• {
• protected :
• int width, height;
• public :
• void set_values(int x, int y)
• {
• width = x;
• height = y;
• }
• };
• class ClassC:public ClassA
• {
• protected:
• int width, height;
•
• public :
• int area()
• {
• return (ClassA::width
*ClassA::height);
• }
• };
33. Same Data Member Name in Base
and Derived Class
• int main()
• {
• ClassC Obj;
• Obj.set_values(10, 20);
• cout << Obj.area() <<
endl;
• return 0;
• }
• Output: 200
34. Same Data Member Name in
Base and Derived Class
Multiple inheretance
36. Same Data Member Name in Base
and Derived Class
• int main()
• {
• studentgrade a;
•
• a.details();
• a.display();
• }
• error: reference to
'name' is ambiguous
25 | cin>>name;
|
^~~~/tmp/TQ6cOvUM4
U.cpp:13:15: note:
candidates are:
'std::string
student::name' 13 |
string name;
38. Same Data Member Name in Base
and Derived Class
• int main()
• {
• studentgrade a;
•
• a.details();
• a.display();
• }
• saira
• 23
• saira23
39. Hierarchical Inheritance
Employee
Permanent
Employee
Temporary
Employee
If more than one class is inherited from a base class, it's known as hierarchical
inheritance. In general, all features that are common in child classes are included
in base class in hierarchical inheritance.
Employee: Data members: id and name
Permanent Employee: designation and department, getdetails()
and displaydetails()
Temporary employee: no.of working day and contrctor name,
getdetails and displaydetails
42. Hybrid Inheritance
The process of combining more than one type
of Inheritance together while deriving
subclasses in a program is called a Hybrid
Inheritance.
43. Person: name and age[protected], get() and print()
Student: rollno and marks[private], get() and print()
Gate Score: gatescore[private], get() and print()
PG-Student :dept_name[private]. get() and print()