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1
CHAPTER I
1. INTRODUCTION
1.1 OVERVIEW OF THE PROJECT
Industrial Manpower Resource Organizer VB.Net projects main objective is
to maintain hierarchy of the workers inside a company. This application can help human
resource management and mangers to organize employees for allocating work and
analyzing where resource is required and where resources are wasted.
In order to maintain any single organization it should contain different managers where
each manager will handle different tasks like recruiting employees, salary management,
project management …etc. These are common for any company so industrial man power
resource organizer project will look after all these work done by managers using a simple
application.
In present scenario every industries and software companies are using this application for
effectively handling man power and reduce expenditure on project. This application is
implemented in VB.Net as front end application and SQL server as back end.
Module Description
A) Employee Creation
In the Hierarchical Organization Information System each employee is created
with their corresponding department, designation and section details.
B) Employee hierarchy
In this system Administration department is the Root Department under which
different departments exist. So the Employment hierarchy will start with root
department head like chairman and subsequently the department employees with
dept head and section employees with their section employees and for sub
departments in the departments can be identified.
2
C) Department entry/department hierarchy
In this module, Master Data for the departments can be created
employees refer this data .Sub departments Can be identified .Some of The
departments will have Different Sections
Each Department having Department heads, so department employees should
reported to the department head he might be subordinate to his superior
Department he shall report to him. Some of departments having sections so
section employees shall be reported to the section incharge he shall report to the
department head.From this Departments, sub departments the Department
hierarchy shall be created.
D) Live status
Live status gives accurate information about which Employee
Will work in which section his superior employees or his subordinates can be
identified along with their corresponding departments so that the employee info
can be managed easily.
Their performance can be monitored and if need they can be deputed to other
department as and when required this can be effectively managed.
E) Employee list enumeration
The employee details already in the database so the details can be retrieved as and
when required by taking the selective criteria from the HR manager.
F) Process details
This following process will be done to get the desired results.
Employee hierarchy can be created using Employers and their superior’s
information.
Department Hierarchy can be created using the departmental
interdependencies.
Vacancy list in various departments can be identified and prioritized by
calculating the position weight ages.
3
Employees can be transferred from one department to another based on
different criteria provided by the HR manager.
Employee retention can be processed depending their performance.
G) Job Rotation
Job rotation process will be invoked when the employee experiences monotony in
his work / duty. These will result in poor performance, some times leads to major
errors in the field of operation. This can be overcome by job rotation process. In
this the employee will be moved to other department of interest, so that the
employee will work with renovated vigor and vitality.
In some cases, to fill up the emergency vacancies, job rotation process will be
executed to avoid unforeseen delays. In any case along with the candidate /
employee his credentials and other associates will be passed to the destination
department.
H) Position Weightage
Position weightage will be calculated based on Departments weightage, section
weightage and even the designation weightage. Each position in the organization
will have certain importance in the functionality of the overall organization. The
weightage of the each position will be calculated by using the actual position in
the organization and as well as the position in the authority flow.
I) vacancies details and process details
Vacancies arised in various departments can maintained by filling the new
employees or by shifting/additional charges to existing employees.
4
1.2 ORGANIZATION PROFILE
The company was started on 21st March 2008 by M.S. & Co., Pollachi with an
objective of providing quality tractor. At present more than 50 members are working.
This company is situated just 2 kilometers from the Pollachi town, on the Pollachi-Kerala
main road. It is located in a serene pollution-free atmosphere in an area of 1 acre.
We began manufacturing tractors in the early 1960s for the Indian market. Nearly
50 years later, we are the world’s largest tractor company by volumes, with annual sales
above 214,000 tractors annually. With a presence in more than 40 countries and a
network of over 1000 dealers, Mahindra has sold well over 1.75 million tractors
worldwide. Mahindra Samriddhi is a strategic initiative of our company that envisages
rural prosperity through enhanced farm productivity. At Samriddhi centres, productivity
enhancement is ensured by providing soil and water testing facilities to farmers and
through dissemination of Innovative Farming Technologies that are sourced from various
Agricultural institutions, based in India and abroad.
Dealer Address:
M.S. & Co.,
Mahindra Tractors
Meenkarai Road,
Pollachi
5
CHAPTER II
2. SYSTEM ANALYSIS
It is important to evaluate the system’s components in relationship to one another, to
determine how requirements fit into the system. So the system analysis is concerned with
getting user requirements, analyzing it, designing and implementing it. After the
requirements collection, the information have subjected to ambiguity, omissions and
requirement consistency. Is the requirement collected from the concern are consistent
with overall objective of the system, i.e. outline of inputs from and inputs to the system
matched with proposed one.
Feasibility analysis
Existing system
Drawbacks of existing system
Proposed system
Advantages of proposed system
2.1 EXISTING SYSTEM
In existing system, all records are maintained manually.
The operation performance is very low and process is slow.
It takes a lot of time ant it’s very hard to access.
The Existing system takes more time to view the particular details by searching.
By doing manually each and every record cannot listed properly.
Searching of the information is a very tedious process.
There is no much security for data stored in register.
6
Drawback of Existing System
The time of taken for entering the details is more.
That maintains the document in separate record is very difficult to handle and the
storage space is more.
Invalid entries can be made.
Manual power is consumed.
It is very difficult to revise the whole system in case the document or data are
lost.
Maintaining several registers storing bulk of data into them is a complex process.
Several persons cannot share data in one register at a time.
2.2 PROPOSED SYSTEM
Every Organization has many managers, who are responsible for all the activities
in the organization. These managers manage different aspects of the organizational
management issues, such as manufacturing, production, Marketing, etc; one such
essential management issue is IMPRO.
As years progressed, the approach of the management changed towards the human
capital. Now Hierarchical Organization is part of every organization, and has its own
identity and importance. In this scenario, the bigger organizations need to put lot of effort
in the management of human Resources, as they are underlying capital asset to the
organization. In doing so, along with times, the Organization Information changed from
its basic operations to more strategic approach.
Advantage of proposed system
Finding ground level employee performance by the topmast manager.
Maintenance of profile details of the employees, and retrievals as and when required.
Overall & detailed view of the organization hierarchy, which is very much essential
in making effective decisions.
7
Judging the potentiality of the employees.
Maintenance of the data when the organization has many branches spread over wide
geographical area.
Accessing one branch information from another branch.
Future planning issues based on the current HR information.
Employees success planning.
Vacancy situations and their priority /effect on the organizations performance.
Employee motivational & conflict resolving issues.
8
2.3 SYSTEM CONFIGURATION
2.3.1 HARDWARE SPECIFICATION
Processor : PENTIUM IV
Speed : 2.4 GHZ
RAM : 512 MB
Hard Disk Drive : 80 GB
Monitor : SAMSUNG 17’Inch Color
Keyboard : LOGITECH 108 Keyboards
Mouse : LOGITECH Scroll Mouse
2.3.2 SOFTWARE SPECIFICATION
Operating System : Windows XP (Service pack2)
Front end : VB.Net 2005
Back end : SQL Server 2000
9
3.3.3 ABOUT THE SOFTWARE
OVERVIEW ABOUT VISUAL BASIC.NET
Microsoft.NET Framework
The .NET Framework is a new computing platform that simplifies application
development in the highly distributed environment of the Internet. The .NET Framework
is designed to fulfill the following objectives:
To provide a consistent object-oriented programming environment whether object
code is stored and executed locally, executed locally but Internet-distributed, or
executed remotely.
To provide a code-execution environment that minimizes software deployment
and versioning conflicts.
To provide a code-execution environment that guarantees safe execution of code,
including code created by an unknown or semi-trusted third party.
To provide a code-execution environment that eliminates the performance
problems of scripted or interpreted environments.
To make the developer experience consistent across widely varying types of
applications, such as Windows-based applications and Web-based applications.
To build all communication on industry standards to ensure that code based on the
.NET Framework can integrate with any other code.
The .NET Framework has two main components: the common language runtime and the
.NET Framework class library. The common language runtime is the foundation of the
.NET Framework. You can think of the runtime as an agent that manages code at
execution time, providing core services such as memory management, thread
management, and remoting, while also enforcing strict type safety and other forms of
code accuracy that ensure security and robustness. In fact, the concept of code
management is a fundamental principle of the runtime. Code that targets the runtime is
known as managed code, while code that does not target the runtime is known as
unmanaged code. The class library, the other main component of the .NET Framework, is
a comprehensive, object-oriented collection of reusable types that you can use to develop
10
applications ranging from traditional command-line or graphical user interface (GUI)
applications to applications based on the latest innovations provided by ASP.NET, such
as Web Forms and XML Web services.
The .NET Framework can be hosted by unmanaged components that load the common
language runtime into their processes and initiate the execution of managed code, thereby
creating a software environment that can exploit both managed and unmanaged features.
The .NET Framework not only provides several runtime hosts, but also supports the
development of third-party runtime hosts.
For example, ASP.NET hosts the runtime to provide a scalable, server-side environment
for managed code. ASP.NET works directly with the runtime to enable Web Forms
applications and XML Web services, both of which are discussed later in this topic.
Internet Explorer is an example of an unmanaged application that hosts the runtime (in
the form of a MIME type extension). Using Internet Explorer to host the runtime enables
you to embed managed components or Windows Forms controls in HTML documents.
Hosting the runtime in this way makes managed mobile code (similar to Microsoft®
ActiveX® controls) possible, but with significant improvements that only managed code
can offer, such as semi-trusted execution and secure isolated file storage.
The following illustration shows the relationship of the common language runtime and
the class library to your applications and to the overall system. The illustration also
shows how managed code operates within a larger architecture.
Features of the Common Language Runtime
The common language runtime manages memory, thread execution, code execution, code
safety verification, compilation, and other system services. These features are intrinsic to
the managed code that runs on the common language runtime.
With regards to security, managed components are awarded varying degrees of trust,
depending on a number of factors that include their origin (such as the Internet, enterprise
11
network, or local computer). This means that a managed component might or might not
be able to perform file-access operations, registry-access operations, or other sensitive
functions, even if it is being used in the same active application.
The runtime enforces code access security. For example, users can trust that an
executable embedded in a Web page can play an animation on screen or sing a song, but
cannot access their personal data, file system, or network. The security features of the
runtime thus enable legitimate Internet-deployed software to be exceptionally feature
rich.
The runtime also enforces code robustness by implementing a strict type- and code-
verification infrastructure called the common type system (CTS). The CTS ensures that
all managed code is self-describing. The various Microsoft and third-party language
compilers
Generate managed code that conforms to the CTS. This means that managed code can
consume other managed types and instances, while strictly enforcing type fidelity and
type safety.
In addition, the managed environment of the runtime eliminates many common software
issues. For example, the runtime automatically handles object layout and manages
references to objects, releasing them when they are no longer being used. This automatic
memory management resolves the two most common application errors, memory leaks
and invalid memory references.
The runtime also accelerates developer productivity. For example, programmers can
write applications in their development language of choice, yet take full advantage of the
runtime, the class library, and components written in other languages by other
developers. Any compiler vendor who chooses to target the runtime can do so. Language
compilers that target the .NET Framework make the features of the .NET Framework
available to existing code written in that language, greatly easing the migration process
for existing applications.
12
While the runtime is designed for the software of the future, it also supports software of
today and yesterday. Interoperability between managed and unmanaged code enables
developers to continue to use necessary COM components and DLLs.
The runtime is designed to enhance performance. Although the common language
runtime provides many standard runtime services, managed code is never interpreted. A
feature called just-in-time (JIT) compiling enables all managed code to run in the native
machine language of the system on which it is executing. Meanwhile, the memory
manager removes the possibilities of fragmented memory and increases memory locality-
of-reference to further increase performance. Finally, the runtime can be hosted by high-
performance, server-side applications, such as Microsoft® SQL Server™ and Internet
Information Services (IIS). This infrastructure enables you to use managed code to write
your business logic, while still enjoying the superior performance of the industry's best
enterprise servers that support runtime hosting.
.NET Framework Class Library
The .NET Framework class library is a collection of reusable types that tightly integrate
with the common language runtime. The class library is object oriented, providing types
from which your own managed code can derive functionality. This not only makes the
.NET Framework types easy to use, but also reduces the time associated with learning
new features of the .NET Framework. In addition, third-party components can integrate
seamlessly with classes in the .NET Framework.
For example, the .NET Framework collection classes implement a set of interfaces that
you can use to develop your own collection classes. Your collection classes will blend
seamlessly with the classes in the .NET Framework.
As you would expect from an object-oriented class library, the .NET Framework types
enable you to accomplish a range of common programming tasks, including tasks such as
string management, data collection, database connectivity, and file access. In addition to
these common tasks, the class library includes types that support a variety of specialized
13
development scenarios. For example, you can use the .NET Framework to develop the
following types of applications and services:
Console applications.
Scripted or hosted applications.
Windows GUI applications (Windows Forms).
ASP.NET applications.
XML Web services.
Windows services.
For example, the Windows Forms classes are a comprehensive set of reusable types that
vastly simplify Windows GUI development. If you write an ASP.NET Web Form
application, you can use the Web Forms classes.
Client Application Development
Client applications are the closest to a traditional style of application in Windows-based
programming. These are the types of applications that display windows or forms on the
desktop, enabling a user to perform a task. Client applications include applications such
as word processors and spreadsheets, as well as custom business applications such as
data-entry tools, reporting tools, and so on. Client applications usually employ windows,
menus, buttons, and other GUI elements, and they likely access local resources such as
the file system and peripherals such as printers.
Another kind of client application is the traditional ActiveX control (now replaced by the
managed Windows Forms control) deployed over the Internet as a Web page. This
application is much like other client applications: it is executed natively, has access to
local resources, and includes graphical elements.
In the past, developers created such applications using C/C++ in conjunction with the
Microsoft Foundation Classes (MFC) or with a rapid application development (RAD)
environment such as Microsoft® Visual Basic®. The .NET Framework incorporates
14
aspects of these existing products into a single, consistent development environment that
drastically simplifies the development of client applications.
The Windows Forms classes contained in the .NET Framework are designed to be used
for GUI development. You can easily create command windows, buttons, menus,
toolbars, and other screen elements with the flexibility necessary to accommodate
shifting business needs.
For example, the .NET Framework provides simple properties to adjust visual attributes
associated with forms. In some cases the underlying operating system does not support
changing these attributes directly, and in these cases the .NET Framework automatically
recreates the forms. This is one of many ways in which the .NET Framework integrates
the developer interface, making coding simpler and more consistent.
Unlike ActiveX controls, Windows Forms controls have semi-trusted access to a user's
computer. This means that binary or natively executing code can access some of the
resources on the user's system (such as GUI elements and limited file access) without
being able to access or compromise other resources. Because of code access security,
many applications that once needed to be installed on a user's system can now be safely
deployed through the Web. Your applications can implement the features of a local
application while being deployed like a Web page.
VB.NET
ACTIVE X DATA OBJECTS.NET
ADO.NET Overview
ADO.NET is an evolution of the ADO data access model that directly addresses
user requirements for developing scalable applications. It was designed specifically for
the web with scalability, statelessness, and XML in mind.
15
ADO.NET uses some ADO objects, such as the Connection and Command objects, and
also introduces new objects. Key new ADO.NET objects include the DataSet,
DataReader, and DataAdapter.
The important distinction between this evolved stage of ADO.NET and previous data
architectures is that there exists an object -- the DataSet -- that is separate and distinct
from any data stores. Because of that, the DataSet functions as a standalone entity. You
can think of the DataSet as an always disconnected recordset that knows nothing about
the source or destination of the data it contains. Inside a DataSet, much like in a database,
there are tables, columns, relationships, constraints, views, and so forth.
A DataAdapter is the object that connects to the database to fill the DataSet. Then, it
connects back to the database to update the data there, based on operations performed
while the DataSet held the data. In the past, data processing has been primarily
connection-based. Now, in an effort to make multi-tiered apps more efficient, data
processing is turning to a message-based approach that revolves around chunks of
information. At the center of this approach is the DataAdapter, which provides a bridge to
retrieve and save data between a DataSet and its source data store. It accomplishes this by
means of requests to the appropriate SQL commands made against the data store.
The XML-based DataSet object provides a consistent programming model that works
with all models of data storage: flat, relational, and hierarchical. It does this by having no
'knowledge' of the source of its data, and by representing the data that it holds as
collections and data types. No matter what the source of the data within the DataSet is, it
is manipulated through the same set of standard APIs exposed through the DataSet and its
subordinate objects.
While the DataSet has no knowledge of the source of its data, the managed provider has
detailed and specific information. The role of the managed provider is to connect, fill,
and persist the DataSet to and from data stores. The OLE DB and SQL Server .NET Data
Providers (System.Data.OleDb and System.Data.SqlClient) that are part of the .Net
Framework provide four basic objects: the Command, Connection, DataReader and
16
DataAdapter. In the remaining sections of this document, we'll walk through each part of
the DataSet and the OLE DB/SQL Server .NET Data Providers explaining what they are,
and how to program against them.
The following sections will introduce you to some objects that have evolved, and some
that are new. These objects are:
Connections. For connection to and managing transactions against a database.
Commands. For issuing SQL commands against a database.
DataReaders. For reading a forward-only stream of data records from a SQL
Server data source.
DataSets. For storing, remoting and programming against flat data, XML data
and relational data.
DataAdapters. For pushing data into a DataSet, and reconciling data against a
database.
When dealing with connections to a database, there are two different options: SQL
Server .NET Data Provider (System.Data.SqlClient) and OLE DB .NET Data Provider
(System.Data.OleDb). In these samples we will use the SQL Server .NET Data Provider.
These are written to talk directly to Microsoft SQL Server. The OLE DB .NET Data
Provider is used to talk to any OLE DB provider (as it uses OLE DB underneath).
Connections
Connections are used to 'talk to' databases, and are respresented by provider-
specific classes such as SQLConnection. Commands travel over connections and
resultsets are returned in the form of streams which can be read by a DataReader object,
or pushed into a DataSet object.
Commands
Commands contain the information that is submitted to a database, and are
represented by provider-specific classes such as SQLCommand. A command can be a
17
stored procedure call, an UPDATE statement, or a statement that returns results. You can
also use input and output parameters, and return values as part of your command syntax.
The example below shows how to issue an INSERT statement against the Northwind
database.
Data Readers
The Data Reader object is somewhat synonymous with a read-only/forward-only
cursor over data. The Data Reader API supports flat as well as hierarchical data. A Data
Reader object is returned after executing a command against a database. The format of
the returned Data Reader object is different from a records set. For example, you might
use the Data Reader to show the results of a search list in a web page.
Data Sets and Data Adapters
DataSets
The Data Set object is similar to the ADO Record set object, but more powerful,
and with one other important distinction: the Data Set is always disconnected. The
DataSet object represents a cache of data, with database-like structures such as tables,
columns, relationships, and constraints. However, though a Data Set can and does behave
much like a database, it is important to remember that Data Set objects do not interact
directly with databases, or other source data. This allows the developer to work with a
programming model that is always consistent, regardless of where the source data resides.
Data coming from a database, an XML file, from code, or user input can all be placed
into DataSet objects. Then, as changes are made to the DataSet they can be tracked and
verified before updating the source data. The GetChanges method of the DataSet object
actually creates a second DatSet that contains only the changes to the data. This DataSet
is then used by a DataAdapter (or other objects) to update the original data source.
The DataSet has many XML characteristics, including the ability to produce and
consume XML data and XML schemas. XML schemas can be used to describe schemas
interchanged via WebServices. In fact, a DataSet with a schema can actually be compiled
for type safety and statement completion.
18
Data Adapters (OLEDB/SQL)
The Data Adapter object works as a bridge between the DataSet and the source
data. Using the provider-specific SqlDataAdapter (along with its associated SqlCommand
and SqlConnection) can increase overall performance when working with a Microsoft
SQL Server databases. For other OLE DB-supported databases, you would use the
OleDbDataAdapter object and its associated OleDbCommand and OleDbConnection
objects.
The DataAdapter object uses commands to update the data source after changes have
been made to the DataSet. Using the Fill method of the DataAdapter calls the SELECT
command; using the Update method calls the INSERT, UPDATE or DELETE command
for each changed row. You can explicitly set these commands in order to control the
statements used at runtime to resolve changes, including the use of stored procedures. For
ad-hoc scenarios, a CommandBuilder object can generate these at run-time based upon a
select statement. However, this run-time generation requires an extra round-trip to the
server in order to gather required metadata, so explicitly providing the INSERT,
UPDATE, and DELETE commands at design time will result in better run-time
performance.
1. ADO.NET is the next evolution of ADO for the .Net Framework.
2. ADO.NET was created with n-Tier, statelessness and XML in the forefront.
Two new objects, the DataSet and DataAdapter, are provided for these
scenarios.
3. ADO.NET can be used to get data from a stream, or to store data in a cache for
updates.
4. There is a lot more information about ADO.NET in the documentation.
5. Remember, you can execute a command directly against the database in order
to do inserts, updates, and deletes. You don't need to first put data into a
DataSet in order to insert, update, or delete it.
19
6. Also, you can use a DataSet to bind to the data, move through the data, and
navigate data relationships
SQL SERVER
DATABASE
A database management, or DBMS, gives the user access to their data and helps
them transform the data into information. Such database management systems include
dBase, paradox, IMS, SQL Server and SQL Server. These systems allow users to create,
update and extract information from their database.
A database is a structured collection of data. Data refers to the characteristics of
people, things and events. SQL Server stores each data item in its own fields. In SQL
Server, the fields relating to a particular person, thing or event are bundled together to
form a single complete unit of data, called a record (it can also be referred to as raw or an
occurrence). Each record is made up of a number of fields. No two fields in a record can
have the same field name.
During an SQL Server Database design project, the analysis of your business
needs identifies all the fields or attributes of interest. If your business needs change over
time, you define any additional fields or change the definition of existing fields.
SQL Server Tables
SQL Server stores records relating to each other in a table. Different tables are
created for the various groups of information. Related tables are grouped together to form
a database.
Primary Key
Every table in SQL Server has a field or a combination of fields that uniquely
identifies each record in the table. The Unique identifier is called the Primary Key, or
20
simply the Key. The primary key provides the means to distinguish one record from all
other in a table. It allows the user and the database system to identify, locate and refer to
one particular record in the database.
Relational Database
Sometimes all the information of interest to a business operation can be stored in
one table. SQL Server makes it very easy to link the data in multiple tables. Matching an
employee to the department in which they work is one example. This is what makes SQL
Server a relational database management system, or RDBMS. It stores data in two or
more tables and enables you to define relationships between the table and enables you to
define relationships between the tables.
Foreign Key
When a field is one table matches the primary key of another field is referred to as
a foreign key. A foreign key is a field or a group of fields in one table whose values
match those of the primary key of another table.
Referential Integrity
Not only does SQL Server allow you to link multiple tables, it also maintains
consistency between them. Ensuring that the data among related tables is correctly
matched is referred to as maintaining referential integrity.
Data Abstraction
A major purpose of a database system is to provide users with an abstract view of
the data. This system hides certain details of how the data is stored and maintained. Data
abstraction is divided into three levels.
Physical level: This is the lowest level of abstraction at which one describes how the data
are actually stored.
21
Conceptual Level: At this level of database abstraction all the attributed and what data
are actually stored is described and entries and relationship among them.
View level: This is the highest level of abstraction at which one describes only part of
the database.
Advantages of RDBMS
Redundancy can be avoided
Inconsistency can be eliminated
Data can be Shared
Standards can be enforced
Security restrictions ca be applied
Integrity can be maintained
Conflicting requirements can be balanced
Data independence can be achieved.
Disadvantages of DBMS
A significant disadvantage of the DBMS system is cost. In addition to the cost of
purchasing of developing the software, the hardware has to be upgraded to allow for the
extensive programs and the workspace required for their execution and storage. While
centralization reduces duplication, the lack of duplication requires that the database be
adequately backed up so that in case of failure the data can be recovered.
FEATURES OF SQL SERVER (RDBMS)
SQL SERVER is one of the leading database management systems (DBMS)
because it is the only Database that meets the uncompromising requirements of today’s
most demanding information systems. From complex decision support systems (DSS) to
the most rigorous online transaction processing (OLTP) application, even application that
require simultaneous DSS and OLTP access to the same critical data, SQL Server leads
the industry in both performance and capability
22
SQL SERVER is a truly portable, distributed, and open DBMS that delivers unmatched
performance, continuous operation and support for every database.
SQL SERVER RDBMS is high performance fault tolerant DBMS which is specially
designed for online transactions processing and for handling large database application.
SQL SERVER with transactions processing option offers two features which contribute
to very high level of transaction processing throughput, which are
The row level lock manager
Enterprise wide Data Sharing
The unrivaled portability and connectivity of the SQL SERVER DBMS enables
all the systems in the organization to be linked into a singular, integrated computing
resource.
Portability
SQL SERVER is fully portable to more than 80 distinct hardware and operating
systems platforms, including UNIX, MSDOS, OS/2, Macintosh and dozens of proprietary
platforms. This portability gives complete freedom to choose the database sever platform
that meets the system requirements.
Open Systems
SQL SERVER offers a leading implementation of industry –standard SQL. SQL
Server’s open architecture integrates SQL SERVER and non –SQL SERVER DBMS
with industries most comprehensive collection of tools, application, and third party
software products SQL Server’s Open architecture provides transparent access to data
from other relational database and even non-relational database.
23
Distributed Data Sharing
SQL Server’s networking and distributed database capabilities to access data
stored on remote server with the same ease as if the information was stored on a single
local computer. A single SQL statement can access data at multiple sites. You can store
data where system requirements such as performance, security or availability dictate.
Unmatched Performance
The most advanced architecture in the industry allows the SQL SERVER DBMS
to deliver unmatched performance.
Sophisticated Concurrency Control
Real World applications demand access to critical data. With most database
Systems application becomes “contention bound” – which performance is limited not by
the CPU power or by disk I/O, but user waiting on one another for data access . SQL
Server employs full, unrestricted row-level locking and contention free queries to
minimize and in many cases entirely eliminates contention wait times.
No I/O Bottlenecks
SQL Server’s fast commit groups commit and deferred write technologies
dramatically reduce disk I/O bottlenecks. While some database write whole data block to
disk at commit time, SQL Server commits transactions with at most sequential log file on
disk at commit time, On high throughput systems, one sequential writes typically group
commit multiple transactions. Data read by the transaction remains as shared memory so
that other transactions may access that data without reading it again from disk.
24
CHAPTER III
3. SYSTEM DESIGN
3.1 DESIGN NOTATIONS
The design phase started by reviewing the study phase activates and making
decisions about which function are to be performing by the hardware, software and
human ware. The process of the system design is elaborate and consists of five main
stages and it becomes more and more elaborate of each stage.
The supporting diagrams are provided in order to understand the working nature
of the system. These diagrams will provide visual display, therefore it easy to understand
in pictorial way rather than in a theoretical way. Here two types of supporting diagrams
were provides as follows,
Data Flow Diagram
System Flow Diagram
25
3.1.1 DATA FLOW DIAGRAM
IMPRO
HR MANAGER
Employees
Changes for Approval
Department Heads
Department Employees
Reports/Results
IMPRO
HR MANAGER
Employees
Changes for Approval
Department Heads
Department Employees
Reports/Results
26
1
HR MANAGER DEPARTMENT HEAD
LOGIN
MENU
Appraisal
Perform
ance
Appraisal
Methods
Retention
APP APPRAISAL
RAISAL
Retained Employees
DB
Return
Vacancies List of Vacancies rotation
Admin
Hierarical
company
Master
Emplo
yee
E.H S.H D,H
O.S
27
Low Level _Login
Login db
Low Level _Dept/Section/Employee
Section employee
Dept
Dept section dept employee
H.R
D.H
VERFIC
ATION
Menu
Selection Menu
DEPT EMPLOY
EE
SECTION
ADD/MODIFY/DE
LETE
COMPONENT
DataBase
Updatate
USER
28
Low _Level Vacances/Job Rotation
Vacancies
Rotation
Employee
User Position-Weightage
Dept / section Vacani
ces
Vacanies
Priorities
Rotation
user
Job
Analysis
Vacanc
ies
Fillings
Rotation
29
low_ Level Appraisal & Retention
Employee DB
User Performance Criteria
Appraisal
Initiation Performa
nce
Checking
Appraisal
Methods
Appraisal
Action
Performance
calculation Adoption
Retention
Requirements Retention
Plans
Retention
Imitation
Appraisals
User
Retention
Retention
30
1
HR MANAGER DEPARTMENT HEAD
LOGIN
MENU
Appraisal
Perform
ance
Appraisal
Methods
Retention
APP APPRAISAL
RAISAL
Retained Employees
DB
Return
Vacancies List of Vacancies rotation
Admin
Hierarical
company
Master
Emplo
yee
E.H S.H D,H
O.S
31
Low Level _Login
Login db
Low Level _Dept/Section/Employee
Section employee
Dept
Dept section dept employee
H.R
D.H
VERFIC
ATION
Menu
Selection Menu
DEPT EMPLOY
EE
SECTION
ADD/MODIFY/DE
LETE
COMPONENT
DataBase
Updatate
USER
32
Low _Level Vacances/Job Rotation
Vacancies
Rotation
Employee
User Position-Weightage
Dept / section Vacani
ces
Vacanies
Priorities
Rotation
user
Job
Analysis
Vacanc
ies
Fillings
Rotation
33
Low _ Level Appraisal & Retention
Employee DB
User Performance Criteria
Appraisal
Initiation Performa
nce
Checking
Appraisal
Methods
Appraisal
Action
Performance
calculation Adoption
Retention
Requirements Retention
Plans
Retention
Imitation
Appraisals
User
Retention
Retention
34
3.1.2 System Flow Diagram
System flow diagram represents what the system or the application is required to do. It
allows individuals to see logical elements apart from the physical components. System
flow diagram describes the internal behavior of the system in order to deal successfully
with the environment.
Main Form
Validation
Database
Employee
Report Department
Report
Employee Depart
ment Job
Rotation Section
Login page
Section
Report Job Report
Vacancies
Vacancies
Report
35
3.2 DESIGN PROCESS
3.2.1 INPUT DESIGN
The design of input focuses on controlling the amount of input required,
controlling the errors, avoiding delay, avoiding extra steps and keeping the process
simple. The input is designed in such a way so that it provides security and ease of use
with retaining the privacy. Input Design considered the following things:
What data should be given as input?
How the data should be arranged or coded?
The dialog to guide the operating personnel in providing input.
Methods for preparing input validations and steps to follow when error
occur.
OBJECTIVES OF THE INPUT DESIGN
Input Design is the process of converting a user-oriented description of the input
into a computer-based system. This design is important to avoid errors in the data input
process and show the correct direction to the management for getting correct information
from the computerized system.
It is achieved by creating user-friendly screens for the data entry to handle large
volume of data. The goal of designing input is to make data entry easier and to be free
from errors. The data entry screen is designed in such a way that all the data manipulates
can be performed. It also provides record viewing facilities.
When the data is entered it will check for its validity. Data can be entered with the
help of screens. Thus the objective of input design is to create an input layout that is easy
to follow.
36
The main inputs of the system are
Employee Creation
In the Hierarchical Organization Information System each employee is created
with their corresponding department, designation and section details.
Job Rotation
Job rotation process will be invoked when the employee experiences monotony in
his work / duty. These will result in poor performance, some times leads to major errors
in the field of operation. This can be overcome by job rotation process. In this the
employee will be moved to other department of interest, so that the employee will work
with renovated vigor and vitality.
In some cases, to fill up the emergency vacancies, job rotation process will be executed to
avoid unforeseen delays. In any case along with the candidate / employee his credentials
and other associates will be passed to the destination department.
Position Weightage
Position weightage will be calculated based on Departments weightage, section
weightage and even the designation weightage. Each position in the organization will
have certain importance in the functionality of the overall organization. The weightage of
the each position will be calculated by using the actual position in the organization and as
well as the position in the authority flow.
Department entry/department hierarchy
In this module, Master Data for the departments can be created emplyoees refer
this data .Sub departments Can be identified .Some of The departments will have
Different Sections Each Department having Department heads ,so department employees
should reported to the department head he may be subordinate to his superior Department
he shall report to him.some of departmets having sections so section employees shall be
37
reported to the section incharge he shall report to the department head From this
Departments,subdepartments the Department heirarchy shall be created.
3.2.2 OUTPUT DESIGN
A quality output is one, which meets the requirements of the end user and presents the
information clearly. In output design it is determined how the information is to be
displaced for immediate need and also the hard copy output. It is the most important and
direct source information to the user. Efficient and intelligent output design improves the
system’s relationship to help user decision-making.
Designing computer output should proceed in an organized, well thought out manner;
the right output must be developed while ensuring that each output element is designed so
that people will find the system can use easily and effectively. When analysis designs
computer output, they should:
Identify the specific output that is needed to meet the requirements.
Select methods for presenting information.
Create document, report, or other formats that contain information produced by
the system.
The main outputs of the system are
Live status
Live status gives accurate information about which Employee Will work in which
section his superior employees or his subordinates can be identified along with their
corresponding departments so that the employee info can be managed easily.
Their performance can be monitored and if need they can be deputed to other department
as and when required this can be effectively managed.
Employee list enumeration
38
The employee details already in the database so the details can be retrived as and
when required by taking the selective criteria from the HR manager.
Process details
This following process will be done to get the desired results.
Employee hierarchy can be created using Employers and their superior’s
information.
Department Hierarchy can be created using the departmental interdependencies.
Vacancy list in various departments can be identified and prioritized by calculating
the position weightages.
Employees can be transferred from one department to another based on different
criteria provided by the HR manager.
Employee retention can be processed depending their performance.
Vacancies details and process details
Vacancies arised in various departments can maintained by filling the new
employees or by shifting/additional charges to existing employees.
Employee hierarchy
In this system Administration department is the Root Department under which
different departments exist. So the Employment heirarchy will start with root department
head like chairman and subsequently the department employees with depthead and
section employees with their section employees and for sub departments in the
departments can be identified.
39
3.2.3 DATABASE DESIGN
A database is an organized mechanism that has the capability of storing
information through which a user can retrieve stored information in an effective and
efficient manner. The data is the purpose of any database and must be protected.
The database design is a two level process. In the first step, user requirements are
gathered together and a database is designed which will meet these requirements as
clearly as possible. This step is called Information Level Design and it is taken
independent of any individual DBMS.
In the second step, this Information level design is transferred into a design for the
specific DBMS that will be used to implement the system in question. This step is called
Physical Level Design, concerned with the text characteristics of the specific DBMS that
will be used. A database design runs parallel with the system design. The organization of
the data in the database is aimed to achieve the following two major objectives.
Data Integrity
Data independence
Normalization is the process of decomposing the attributes in an application,
which results in a set of tables with very simple structure. The purpose of normalization
is to make tables as simple as possible. Normalization is carried out in this system for the
following reasons.
To structure the data so that there is no repetition of data, this helps in saving.
To permit simple retrieval of data in response to query and report request.
To simplify the maintenance of the data through updates, insertions, deletions.
To reduce the need to restructure or reorganize data which new application
requirements arise?
40
RELATIONAL DATABASE MANAGEMENT SYSTEM (RDBMS)
A relational model represents the database as a collection of relations. Each
relation resembles a table of values or file of records. In formal relational model
terminology, a row is called a tuple, a column header is called an attribute and the table is
called a relation. A relational database consists of a collection of tables, each of which is
assigned a unique name. A row in a tale represents a set of related values.
RELATIONS, DOMAINS & ATTRIBUTES
A table is a relation. The rows in a table are called tuples. A tuple is an ordered set
of n elements. Columns are referred to as attributes. Relationships have been set between
every table in the database. This ensures both Referential and Entity Relationship
Integrity. A domain D is a set of atomic values. A common method of specifying a
domain is to specify a data type from which the data values forming the domain are
drawn. It is also useful to specify a name for the domain to help in interpreting its values.
Every value in a relation is atomic, that is not decomposable.
RELATIONSHIPS
Table relationships are established using Key. The two main keys of prime
importance are Primary Key & Foreign Key. Entity Integrity and Referential Integrity
Relationships can be established with these keys. Entity Integrity enforces that no
Primary Key can have null values. Referential Integrity enforces that no Primary Key can
have null values.
Referential Integrity for each distinct Foreign Key value, there must exist a
matching Primary Key value in the same domain. Other key are Super Key and
Candidate Key.
Relationships have been set between every table in the database. This ensures
both Referential and Entity Relationship Integrity.
41
NORMALIZATION
As the name implies, it denoted putting things in the normal form. The
application developer via normalization tries to achieve a sensible organization of data
into proper tables and columns and where names can be easily correlated to the data by
the user. Normalization eliminates repeating groups at data and thereby avoids data
redundancy which proves to be a great burden on the computer resources. These includes:
Normalize the data.
Choose proper names for the tables and columns.
Choose the proper name for the data.
First Normal Form
The First Normal Form states that the domain of an attribute must include only
atomic values and that the value of any attribute in a tuple must be a single value from the
domain of that attribute. In other words 1NF disallows “relations within relations” or
“relations as attribute values within tuples”. The only attribute values permitted by 1NF
are single atomic or indivisible values.
The first step is to put the data into First Normal Form. This can be donor by
moving data into separate tables where the data is of similar type in each table. Each table
is given a Primary Key or Foreign Key as per requirement of the project. In this form new
relations for each non atomic attribute or nested relation. This eliminated repeating
groups of data.
A relation is said to be in first normal form if only if it satisfies the constraints
that contain the primary key only.
Second Normal Form
42
According to Second Normal Form, For relations where primary key contains
multiple attributes, no non key attribute should be functionally dependent on a part of the
primary key.
In this they decompose and setup a new relation for each partial key with its
dependent attributes. Make sure to keep a relation with the original primary key and any
attributes that are fully functionally dependent on it. This step helps in taking out data
that is only dependant on apart of the key.
A relation is said to be in second normal form if and only if it satisfies all the
first normal form conditions for the primary key and every non-primary key attributes of
the relation is fully dependent on its primary key alone.
Third Normal Form
According to Third Normal Form, Relation should not have a non key attribute
functionally determined by another non key attribute or by a set of non key attributes.
That is, there should be no transitive dependency on the primary key.
In this they decompose and set up relation that includes the non key attributes
that functionally determines other non key attributes. This step is taken to get rid of
anything that does not depend entirely on the Primary Key.
A relation is said to be in third normal form if only if it is in second normal
form and more over the non key attributes of the relation should not be depend on other
non key attribute.
43
TABLE DESIGN
Table Name: departments
Primary Key: dept no
Sl no Field Data Type Size Description
1 Dept no number 10 Department no
2 Dept name varchar 10 Department Name
3 Dept head varchar 10 Department Head
4 location varchar 10 Location
44
Table Name: employees
Primary Key: emp id
Sl no Field Data Type Size Description
1 Emp id varchar 10 Employee Id
2 Emp name varchar 10 Employee Name
3 Dept no number 10 Department Number
4 Designation id varchar 10 Designation Id
5 Section id varchar 10 Section Id
6 address varchar 50 Address
7 phone varchar 15 Phone No
8 fax varchar 15 Fax
9 email varchar 50 Email Id
45
Table: Sections
Primary Key: sect id
Sl no Field Data Type Size Description
1 Sect id varchar2 10 Section Id
2 Sect name varchar2 15 Section Name
3 Section inch varchar2 10 Section Incharge
4 Dept no number 10 Department Number
Table: designation
Primary Key: design id
Sl no Field Data Type Size Description
1 Design id varchar2 10 Designation Id
2 designation varchar2 15 designation
Table: deptinterdependency
Primary Key: deptno
Sl no Field Data Type Size Description
1 deptno number 10 Department Number
2 updeptno number 10 Upper Department
3 dndeptno number 10 Lower Department
46
Table: deptposweightage
Primary Key: deptno
Sl no Field Data Type Size Description
1 deptno number 10 Department Number
2 layer number 10 Designation Layer
3 weightage number 10 Weightage
Table: desc jobrotation
Primary Key: empid
Sl no Field Data Type Size Description
1 empid varchar2 10 Employee Id
2 presentdesignation varchar2 10 Designation
3 deputedto varchar2 10 Deputed to
4 status varchar2 50 Status
5 remarks varchar2 100 Remarks
47
Table: vacancies
Primary Key: vacancy id
Sl no Field Data Type Size Description
1 Vacancy id varchar2 10 Vacancy id
2 Dept no number 10 Department no
3 Section id varchar2 10 Section Id
4 Designation id varchar2 10 Designation Id
5 No of vacancies number
10 No Of Vacancies
6 status varchar2 15 Status
7 Vacancy date date Vacancy Date
8 priority varchar2 50 Priority
Table: vacancyfilldetails
Primary Key: vacancyid
Sl no Field Data Type Size Description
1 vacancyid VARCHAR2 10 Vacancy Id
2 empid VARCHAR2 10 Employee Id
3 Filled date DATE Fill Date
4 Intake details VARCHAR2 50 Intake Details
48
Table: desiglayer
Primary Key: designationid
Sl no Field Data Type Size Description
1 designationid varchar2 10 Designation Id
2 layer number 10 Layer
3 weightage number 10 Weightage
Table: designationweightage
Primary Key:
Sl no Field Data Type Size Description
1 designationid varchar2 10 Designation Id
2 deptno varchar2 50 Department Number
3 weightage varchar2 50 Weightage
49
CHAPTER IV
4. SYSTEM TESTING AND IMPLEMENTATION
The method of designing the system to produce desired result is accomplished in
the System development. All the facilities required for developing the new system is
acquired and computer program preparation is started.
INTRODUCTION
The development phase is the phase where the system is developed according to
the proposed system. In this phase the programs are coded, programs are coded;
programs are the entered into the computer and checked for any possible errors. After the
entire program was coded using asp. The hard copies of the reports were taken and the
debugging was subsequently made.
The designed new system is tested with the sample data and final outputs are
verified with the actual manual reports. If this reports are satisfied then the system is put
to process with on-line data entry.
The method of designing the system to produce desired result is accompanished in
the system development. All the facilities required for developing the new system
acquired and computer program preparation is started. The desired new system is tested
with sample data and final outputs are verified with oriented before implementation. It is
alone to ensure that the system objectives have been achieved successfully.
50
4.1 SYSTEM TESTING
Testing represents an interesting anomaly for software engineer. It is process of
executing a program with the intent of finding error. The tests must be traceable to the
requirement specifications. A good and efficient testing method demonstrates that
software functions appear to be working according to the specification, that behavioural
and performance requirements are being met.
NEED FOR SOFTWARE TESTING
Testing is an important component in the development of a system. The main
objectives of testing are
To ensure that all the functions of the system are working properly.
To ensure that all the system accepts correct input and behave expectedly.
To locate the errors in the system and debug them.
To ensure that the system is internally consistent.
To rectify the errors.
To provide 100 percent error free system.
To provide user free entry.
To minimize the re-work.
To add additional features.
To find unnecessary process.
The system is understandable by the user and what are the changes are needed.
51
TESTING METHODOLOGIES
White-Box Testing
This is performed knowing the internal working of the system. Tests are
conducted to ensure that the internal operations perform according to the specification
and all internal components have adequately been exercised.
White-Box testing is carried out in this project. The testing is executed by giving
the valid data types and data. By conducting this test, unnecessary codes which are
malfunctioning has been removed from the project.
The internal working of the system is tested by giving the inputs to the system
successfully.
Black-box Testing
Black box testing treats the software as a black box without any understanding as
to how the internals behave. It aims to test the functionality according to the
requirements.
Knowing the specific function that a product or module has been designed to
perform; tests can be designed to demonstrate the operational validity of each function.
This type of test design is applicable to all levels of unit, integration, functional, system
and acceptance testing.
After the completion of other testing, design of the system is tested using this
testing.
52
TYPES OF TESTING
Unit Testing
Unit testing is concerned with the testing of a small module. Using the detailed
design description as a guide, important control paths are tested to uncover the errors
within the boundary of the module. The module interface is tested to ensure that the
information flows in and out of the program unit under test. The local data structure is
ensured that the variables are exercised to ensure that all statements in the module are
executed at least once.
Integration Testing
Integration testing is proceeded with bottom up approach. In bottom up
integration testing, an individual module is first tested from a test harness. Once a set of
individual module has been tested, they are combined into a collection of modules,
known as builds, which are applied by a second harness. This process can combine until
the build consists of the entire application.
The main objective of the integration testing is to take the unit tested modules and
to build a program structure that has been dictated by design. Once all modules are unit
tested they are put together for integration testing process. All the unit-tested modules are
combined and integrated. This type of testing is a must because the information can be
lost across an interface. One module can have an inadvertent, adverse effect on the other
sub functions may not produce desired results when integrated.
User Interface Testing
The software becomes a widely used tool only if it is an easily opera table tool.
Since this is a website, care was taken to make the system to be operated even by the
novices. All the users have to do is to click and buy the products. The input devices that
are used in this system are keyboard and the mouse. And the output device is only the
53
monitor. So by using only the mouse the user can buy all the products from the website.
They have to use the keyboard only to enter their details at the time of ordering the
products.
The error messages produced by this system can be understood even to the people
who know very common English.
4.2 IMPLEMENTATION
Implementation is the stage of a project when the theoretical design is turned into
a working system. If the implementation stage is not carefully planned and controlled, it
can cause chaos. The implementation stage is a system project in its own. Implementation
is the stage of the project where the theoretical design turns into a working system. Thus
it can be considered to be the most critical stage in achieving a successful new and giving
the users confidence that the new system will work and be effective and accurate. It is
less creative than system design. It is primarily concerned with user training and site
preparation.
Depending on the nature of the system, extensive user may be required.
Implementation simply means converting a new system design into operation. An
important aspect of the system analyst’s job is to make sure that the new design is
implemented to establish standards. Implementation means the process of converting a
new raised system design into an operational one. The three types of implementation are
Implementation of a new computer system to replace an existing one.
Implementation of a modified application to replace an existing one.
Implementation of a computer system to replace a manual system.
54
CHAPTER V
5. CONCLUSION AND FUTURE ENCHANCEMENT
CONCLUSION
The newly developed system is found to be working efficiently effectively and
running satisfactorily in the environment. The pagers designed and links formed so that
the users can browse the site very easily.
The newly developed system consumes less maintenance time and it is user
friendly. Any end user can familiarize in to the system easily within some minutes. The
system is designed to be highly flexible so that any future modifications and requirements
can be easily incorporated without much design complication the goal that has been
achieved by the developed system are:
The project has been appreciated by all the users in the organization.
It is easy to use, since it uses the GUI provided in the user dialog.
User friendly screens are provided.
The usage of software increases the efficiency, decreases the effort.
It has been efficiently employed as a Site management mechanism.
It has been thoroughly tested and implemented.
FUTURE ENCHANCEMENT
The future enhancement is, like all software, ongoing. The always looking for
ways to improve the functionality, add new modules to aid the user, additional reports
and other smaller details. Our best improvements have always come from you the user
always open to suggestions and ideas, just send us an email to Technical sales will look
at all ideas and suggestions very seriously.
55
Whats in the pipeline
Custom Data Forms.
Attendance Points Scoring System.
Custom Data Forms.
This will give the ability to create own forms that hold data that is not currently
available in quick personnel. Well lets say you need to store information about mobile
phone details that have given to employees. They could create a custom data form that
could hold the Model, Date Given, Number, Provider etc. Quick Personnel would store
this information in data store against each employee.
Attendance Points Scoring System.
This will give the ability to assign a points system to each employee. It would
highlight areas such as consecutive lateness or illness after Bank Holidays, lateness and
illness patterns between employees and a lot more. This will allow for the analysis of
employee time keeping and attendance and route out potential future problems.
56
CHAPTERVI
6. BIBLIOGRAPHY
BOOK REFERENCES:
“Murach’s beginning VB.Net”
Author : Anne Price
Publisher : BPB Publication
Edition : First Edition.
“System Analysis and Design”
Author : ELIS.AWAD
Publisher : Galgottia Publications
Edition : 11 Edition.
WEBSITE REFFERENCE:
www.Tutorialspoint.com/vb.net/
www.homeandlearn.co/uk/net/vb.net/
www.how to startprograming.com/vb.net
57
APPENDIX
SAMPLE CODING
EMPLOYEE REGISTRATION
Imports System.Data.sqlclient
Public Class FrmEmployee
Inherits System.Windows.Forms.Form
Dim selcmd As sqlCommand
Dim da As sqlDataAdapter
Dim ds As New DataSet()
Dim inscmd As New sqlCommand()
Dim delcmd As New SqlCommand()
Dim dr As SqlDataReader
Dim s As String
Dim rno As Integer
Dim cn As New connectdatabase()
Dim d As SqlDataReader
Dim deptcmd As sqlCommand
Private Sub Button1_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button1.Click
cn.ClearFields(Me)
End Sub
Private Sub FrmEmployee_Load(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles MyBase.Load
c = AddressOf clw
cn.connect()
selcmd = New SqlCommand("select * from employees", conn)
da = New sqlDataAdapter()
da.SelectCommand = selcmd
da.Fill(ds)
deptcmd = New SqlCommand("select deptno from departments", conn)
Dim d As New sqlDataAdapter(deptcmd)
d.Fill(ds, "departments")
Dim i As Integer
For i = 0 To ds.Tables("departments").Rows.Count - 1
cmbDno.Items.Add(ds.Tables("departments").Rows(i)(0))
Next
rno = 0
58
Call fillfields(rno)
End Sub
Sub fillfields(ByVal rnum As Integer)
txtEno.Text = ds.Tables(0).Rows(rnum)(0)
txtEname.Text = ds.Tables(0).Rows(rnum)(1)
cmbDno.Text = ds.Tables(0).Rows(rnum)(2)
txtDesig.Text = ds.Tables(0).Rows(rnum)(3)
cmbSecid.Text = ds.Tables(0).Rows(rnum)(4)
txtAddress.Text = ds.Tables(0).Rows(rnum)(5) & ""
txtPhone.Text = ds.Tables(0).Rows(rnum)(6) & ""
txtFax.Text = ds.Tables(0).Rows(rnum)(7) & ""
txtEmail.Text = ds.Tables(0).Rows(rnum)(8) & ""
End Sub
Private Sub Button2_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button2.Click
Dim str As String
str = "insert into employees values('" & txtEno.Text & "','" & txtEname.Text & "'," &
cmbDno.Text & ",'" & txtDesig.Text & "'," & cmbSecid.Text & ",'" & txtAddress.Text &
"','" & txtPhone.Text & "','" & txtFax.Text & "','" & txtEmail.Text & "')"
' MsgBox(str)
inscmd.Connection = conn
inscmd = New SqlCommand(str, conn)
inscmd.ExecuteNonQuery()
MsgBox("Successfully Saved")
End Sub
Private Sub Button4_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button4.Click
Try
Dim r As String
r = InputBox("Enter The eMPLOYEE Number ToDelete")
'Call efill(r)
Dim s As String
s = "delete from EMPLOYEES where EMPID='" & r & "'"
delcmd.Connection = conn
delcmd = New sqlCommand(s, conn)
Dim res As Integer
res = delcmd.ExecuteNonQuery()
'MsgBox(res)
If res = 1 Then
MsgBox("Record deleted.....")
Else
MsgBox("sorry")
End If
Catch E1 As Exception
59
MsgBox(E1.Message)
End Try
End Sub
Private Sub Button3_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button3.Click
Try
If Button3.Text = "&Edit" Then
Button3.Text = "&Update"
Dim recno As String
recno = InputBox("Enter the eMPID No to Modify...")
Call efill(recno)
Else
Dim ucmd As SqlCommand
Dim ups As String
ups = "update employees set ename='" & txtEname.Text & "',DEPTNO='" &
cmbDno.Text & "',DESIGNATIONID='" & txtDesig.Text & "',SECTIONID='" &
cmbSecid.Text & "',ADDRESS='" & txtAddress.Text & "',phone='" & txtPhone.Text &
"',fax='" & txtFax.Text & "',email='" & txtEmail.Text & "' WHERE EMPID='" &
Trim(txtEno.Text) & "'"
'MsgBox(ups)
ucmd = New sqlCommand(ups, conn)
ucmd.ExecuteNonQuery()
Button3.Text = "&Edit"
MsgBox("successfull Updated")
End If
Catch E1 As Exception
MsgBox(E1.Message)
End Try
End Sub
Sub efill(ByVal rnumber As String)
s = "select * from Employees where empid ='" & rnumber & "'"
Dim cmd As New SqlCommand(s, conn)
dr = cmd.ExecuteReader
Dim n As Byte
n = dr.Read()
If n > 0 Then
txtEno.Text = dr.Item(0)
txtEname.Text = dr.Item(1)
cmbDno.Text = dr.Item(2)
txtDesig.Text = dr.Item(3)
cmbSecid.Text = dr.Item(4)
txtAddress.Text = dr.Item(5)
txtPhone.Text = dr.Item(6)
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txtFax.Text = dr.Item(7)
txtEmail.Text = dr.Item(8)
Else
MsgBox("NotFound")
End If
If Not dr.IsClosed Then dr.Close()
End Sub
Private Sub Button8_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button8.Click
rno = ds.Tables(0).Rows.Count - 1
Call fillfields(rno)
End Sub
Private Sub Button5_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button5.Click
rno = 0
Call fillfields(rno)
End Sub
Private Sub Button6_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button6.Click
If rno > 0 Then
rno -= 1
Call fillfields(rno)
Else
MsgBox("First Record")
End If
End Sub
Private Sub Button7_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button7.Click
If rno < ds.Tables(0).Rows.Count - 1 Then
rno += 1
Call fillfields(rno)
Else
MsgBox("Last Record")
End If
End Sub
Public Sub clw()
Me.Hide()
End Sub
End Class
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LOGIN FORM
Imports System.Data.sqlclient
Public Class FrmLogin
Inherits System.Windows.Forms.Form
Dim cn As New connectdatabase()
Dim cmd As SqlCommand
Dim dr As SqlDataReader
Private Sub Button1_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button1.Click
Try
cn.connect()
' cmd = New sqlCommand("select USERNAME,PASSWORD from login", conn)
cmd = New SqlCommand()
' cmd.CommandText = "select * from login where( (username='" &
Trim(Txtuname.Text) & "'and password= '" & Trim(txtpwd.Text) & "') and acclvl in(" &
"a" & "," & "u" & " )&" & ")"
cmd.CommandText = "select * from login where username='" & Trim(Txtuname.Text)
& "' and password= '" & Trim(txtpwd.Text) & "' and acclvl='" & Trim(TXTALVL.Text)
& "'"
'cmd.CommandText = "select * from login where( (username='" & Trim(Txtuname.Text)
& " ' and password= '" & Trim(txtpwd.Text) & "') and acclvl =('A')" & ")"
cmd.Connection = conn
dr = cmd.ExecuteReader
Dim i As Integer
i = dr.Read
If i = -1 Then
If dr.Item(3) = Trim(TXTALVL.Text) Then
Dim obj As New Form1()
obj.Show()
Me.Hide()
Exit Sub
ElseIf dr.Item(3) = Trim(TXTALVL.Text) And dr.Item(3) = Trim("U") Then
Dim obj As New Form1()
obj.Show()
obj.MainMenu1.MenuItems(0).Enabled = False
obj.MainMenu1.MenuItems(2).Enabled = False
obj.MainMenu1.MenuItems(3).Enabled = False
Me.Hide()
Exit Sub
Else
MsgBox("ENTER ACCLVL EITHER A OR U ONLY")
Exit Sub
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End If
MsgBox("NOT FOUND")
Exit Sub
End If
Catch E1 As Exception
MsgBox("ERROR:" & vbCrLf & E1.Message)
End Try
dr.Close()
End Sub
Private Sub Button2_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button2.Click
End
End Sub
Private Sub ToolTip1_Popup(ByVal sender As System.Object, ByVal e As
System.Windows.Forms.PopupEventArgs) Handles ToolTip1.Popup
End Sub
End Class
VACANCY FORM
Imports System.Data.sqlclient
Public Class FrmVacancyMast
Inherits System.Windows.Forms.Form
Dim selcmd As SqlCommand
Dim da As sqlDataAdapter
Dim ds As New DataSet()
Dim inscmd As New sqlCommand()
Dim delcmd As New sqlCommand()
Dim dr As sqlDataReader
Dim s As String
Dim rno As Integer
Dim cn As New connectdatabase()
Dim d As sqlDataReader
Dim deptcmd As sqlCommand
Dim desigcmd As sqlCommand
Dim seccmd As sqlCommand
Private Sub FrmVacancyMast_Load(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles MyBase.Load
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c = AddressOf clw
cn.connect()
selcmd = New sqlCommand("select * from vacancies", conn)
da = New sqlDataAdapter()
da.SelectCommand = selcmd
da.Fill(ds)
Dim i As Integer
deptcmd = New SqlCommand("select deptno from departments", conn)
Dim da1 As New sqlDataAdapter(deptcmd)
da1.Fill(ds, "departments")
For i = 0 To ds.Tables("departments").Rows.Count - 1
cmbdeptno.Items.Add(ds.Tables("departments").Rows(i)(0))
Next
Try
desigcmd = New sqlCommand("select designid from designation", conn)
Dim da2 As New sqlDataAdapter() 'desigcmd)
da2.SelectCommand = desigcmd
da2.Fill(ds, "designation")
Catch E1 As Exception
MsgBox(E1.Message)
End Try
For i = 0 To ds.Tables("designation").Rows.Count - 1
cmbdesig.Items.Add(ds.Tables("designation").Rows(i)(0))
Next
seccmd = New SqlCommand("select sectid from sections", conn)
Dim da3 As New SqlDataAdapter(seccmd)
da3.Fill(ds, "sections")
For i = 0 To ds.Tables("sections").Rows.Count - 1
cmbSecno.Items.Add(ds.Tables("sections").Rows(i)(0))
Next
rno = 0
Call fillfields(rno)
End Sub
Sub fillfields(ByVal rnum As Integer)
txtvid.Text = ds.Tables(0).Rows(rnum)(0)
cmbdeptno.Text = ds.Tables(0).Rows(rnum)(1)
cmbSecno.Text = ds.Tables(0).Rows(rnum)(2)
cmbdesig.Text = ds.Tables(0).Rows(rnum)(3)
txtnov.Text = ds.Tables(0).Rows(rnum)(4)
txtsttus.Text = ds.Tables(0).Rows(rnum)(5)
txtvdate.Text = ds.Tables(0).Rows(rnum)(6)
txtpriority.Text = ds.Tables(0).Rows(rnum)(7)
End Sub
Private Sub Button2_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button2.Click
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Try
Dim str As String
str = "insert into VACANCIES values('" & txtvid.Text & "'," & cmbdeptno.Text & ",'" &
cmbSecno.Text & "','" & cmbdesig.Text & "'," & txtnov.Text & ",'" & txtsttus.Text &
"','" & CDate(txtvdate.Text) & "','" & txtpriority.Text & "')"
'MsgBox(str)
inscmd.Connection = conn
inscmd = New SqlCommand(str, conn)
inscmd.ExecuteNonQuery()
MsgBox("Successfully Saved")
Catch E1 As Exception
MsgBox(E1.Message)
End Try
End Sub
Private Sub Button4_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button4.Click
Dim r As String
r = InputBox("Enter The VacancyId ToDelete")
'Call efill(r)
Dim s As String
s = "delete from vacancies where VACANCYID='" & r & "'"
delcmd.Connection = conn
delcmd = New SqlCommand(s, conn)
Dim res As Integer
res = delcmd.ExecuteNonQuery()
If res = 1 Then
MsgBox("Record deleted.....")
Else
MsgBox("sorry")
End If
End Sub
Private Sub Button3_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button3.Click
Try
If Button3.Text = "&Edit" Then
Button3.Text = "&Update"
Dim recno As String
recno = InputBox("Enter the VacancyId to Modify...")
Call efill(recno)
Else
Dim ucmd As SqlCommand
Dim ups As String
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ups = "update vacancies set DEPTNO='" & cmbdeptno.Text & "',sectionid='" &
cmbSecno.Text & "',DESIGNATIONID='" & cmbdesig.Text &
"',NOOFVACANCIES=" & txtnov.Text & ",status='" & txtsttus.Text & "',vacancydate='"
& txtvdate.Text & "',priority='" & txtpriority.Text & "' WHERE VACANCYID='" &
Trim(txtvid.Text) & "'"
'MsgBox(ups)
ucmd = New SqlCommand(ups, conn)
ucmd.ExecuteNonQuery()
Button3.Text = "&Edit"
MsgBox("Successfully Updated")
End If
Catch E1 As Exception
MsgBox(E1.Message)
End Try
End Sub
Sub efill(ByVal rnumber As String)
s = "select * from vacancies where vacancyid ='" & rnumber & "'"
Dim cmd As New SqlCommand(s, conn)
dr = cmd.ExecuteReader
Dim n As Byte
n = dr.Read()
If n > 0 Then
txtvid.Text = dr.Item(0)
cmbdeptno.Text = dr.Item(1)
cmbSecno.Text = dr.Item(2)
cmbdesig.Text = dr.Item(3)
txtnov.Text = dr.Item(4)
txtsttus.Text = dr.Item(5)
txtvdate.Text = dr.Item(6)
txtpriority.Text = dr.Item(7)
Else
MsgBox("NotFound")
End If
If Not dr.IsClosed Then dr.Close()
End Sub
Private Sub Button5_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button5.Click
rno = 0
Call fillfields(rno)
End Sub
Private Sub Button8_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button8.Click
rno = ds.Tables(0).Rows.Count - 1
Call fillfields(rno)
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End Sub
Private Sub Button7_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button7.Click
If rno < ds.Tables(0).Rows.Count - 1 Then
rno += 1
Call fillfields(rno)
MsgBox("Last Record")
End If
End Sub
Private Sub Button6_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button6.Click
If rno > 0 Then
rno -= 1
Call fillfields(rno)
Else
MsgBox("First Record")
End If
End Sub
Private Sub Button1_Click(ByVal sender As System.Object, ByVal e As
System.EventArgs) Handles Button1.Click
cn.ClearFields(Me)
End Sub
Public Sub clw()
Me.Hide()
End Sub
End Class
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SAMPLE SCREEN
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