Overview

Constructions consist of both public and private constructions.  Public construction includes the construction of government projects such as office buildings, bridges, railways, highways, dams, and megaprojects.  Private construction includes the construction of houses, apartments, and complexes as well as private building projects.  Construction begins with the planning of a building or infrastructure to be constructed, the design of a construction layout, and the financing or expenditure required for construction.  Houses, residential apartments, and buildings are examples of small-scale construction.  Residential projects, bridges, dams and infrastructure, and other large-scale construction projects are examples of large-scale construction.  Construction technology refers to the technical processes and methods used in construction.  As constructions have evolved from standard-type evolutions to one-off prototypes, construction performance requirements have become more demanding, and the number of products and specialist suppliers has increased, it has become an increasingly important aspect of the construction industry.

Programme Objectives

Building Construction Technology (Master Diploma)

• The student will be able to gain knowledge of basic building concepts.

• The student gains knowledge of the type of buildings and their usage aims.

• The student understands the stages of construction.

• The student will be able to understand the properties of building elements as well as drawings.

• The student understands how building elements work.

• The student gains knowledge of various types and properties of foundations.

• The student understands the properties of various structure walls.

• The student understands the properties of various structure floors.

• The student understands the foundation, walls, and floors.

• The student will be able to gain knowledge of construction principles in mass buildings and technical knowledge in project drawings.

B.Voc Courses in construction science are offered in the heavy civil, commercial, and residential fields through the Bachelor of Vocation program in Construction Technology.

Readings, 3-D models, hands-on laboratory exercises, and site visits will all be used to teach students about building materials and green building practices.  Courses in construction management are also offered in scheduling, BIM, job site management, safety, and soil testing.  Students will gain a solid foundation in business, computer technology, mathematics, and other general education subjects.  Development after its completion.

Master of Technology in Construction Technology is a postgraduate civil engineering course.

Career Scope

The role from Beginners to Senior Level is available as Execution (Construction and MEP), Project Supervisor, Commercial & Contracts Management, Billing Engineer, Project Coordination, QA/QC Engineer, Health & Safety Engineer, Quantity Estimation and Budgeting, Project Monitoring & Control, Procurement Engineer, Executive Channel Sales, Production Planning, Dispute Management, Claims Management, Consulting & Valuation, Project Marketing, Corporate Real Estate Management, Project Valuation - Bank and many more. 

B.Voc (Construction Technology) (Construction Technology) Employers include Academic Institutions, Construction Project Management Firms, Civil Consultancy Firms, Dam Building Firms, and Design and Build Firms.

B.Voc (Construction Technology) specialist may work as Draftsman, Mix Designer, Design Engineer, Project Manager, Site Engineer, Supervisor / Surveyor, Technical Report Writer, etc.

M.Tech (Construction Technology) Airports, bridges, colleges, universities, highways, roads, hydroelectric dams, tunnels, quality systems, research and development (related to construction), and structural engineering are all areas of employment.

M.Tech (Construction Technology) Career Types

Assistant Professor, Business Development Executive, Formwork Technology Manager, Lecturer / Professor, Project Manager, Technology Specialist, Construction Manager, etc. 

Overview

Electrical engineering is a field of engineering that generally deals with the study and application of electricity, electronics, and electromagnetism. This field at the outset became an identifiable occupation in the later half of the 19th century after the commercialization of the electric telegraph, the telephone, and electric power distribution and use. Subsequently, broadcasting and recording media made electronics part of everyday life. The invention of the transistor, and later the integrated circuit, brought down the cost of electronics to such a level that they can be used in almost any household object. Electrical engineering has now been subdivided into a wide range of subfields including electronics, digital computers, power engineering, telecommunications, control systems, radio-frequency engineering, signal processing, instrumentation, and microelectronics. Many of these subdisciplines overlap and also overlap with other engineering branches, spanning a huge number of specializations such as hardware engineering, power electronics, electro magnetics & waves, microwave engineering, electrochemistry, renewable energies, mechatronics, electrical materials science, and many more.

Electronics engineering, or electronic engineering, is an electrical engineering discipline that utilizes non-linear and active electrical components (such as semiconductor devices, especially transistors, diodes, and integrated circuits)in order to design electronic circuits, devices, microprocessors, microcontrollers, and other systems. The discipline typically also designs passive electrical components, based on printed circuit boards. Electronics is a subfield within the wider electrical engineering academic subject but denotes a broad engineering field that covers subfields such as analog electronics, digital electronics, consumer electronics, embedded systems, and power electronics. Electronics engineering deals with the implementation of applications, principles, and algorithms developed within many related fields, for example, solid-state physics, radio engineering, telecommunications, control systems, signal processing, systems engineering, computer engineering, instrumentation engineering, electric power control, robotics, and many more. 

Programme Objectives

Electrical and electronic engineering covers a wide range of general principles and concepts.  There is a definite crossover between aeronautical and mechanical engineering.  Doing EEE makes one an all-rounder in engineering.  Special emphasis is placed on providing practical experience that will be useful to students for their future careers.  The course is made interesting and useful with live demonstrations, practical experience, and training on various topics.  Assessment consists of tests, coursework, laboratories, presentations, and project reports.  The following topics are covered in this program-

·        Finding new ways of powering our world from renewable energy sources (wind, solar, hydro).

·        Creation of electronic, and nano/micro–scale devices.

               ·  Power electronics to drive robots, electric vehicles, and industrial machines, and enable efficient and sustainable power flow.

Career Scope

Job role from beginner to senior level is available as Aerospace Engineer, Broadcast Engineer, Control and Instrumentation Engineer, Electrical Engineer, Electronics Engineer, IT Consultant, Network Engineer, Nuclear Engineer, Systems Analyst, Management Consultant, Multimedia Programmer, Project Manager, Technical Author, Technical Sales Engineer and many more.

Overview

Heating, ventilation, and air-conditioning (HVAC) is an indoor and vehicle environmental comfort technology.  Its aim is to provide thermal comfort and acceptable indoor air quality.  HVAC system design is a sub-discipline of mechanical engineering, based on the principles of thermodynamics, fluid mechanics, and heat transfer.  Refrigeration is sometimes added to the field abbreviations as HVACR or HVACR, or ventilation is omitted as in HACR (such as the designation of HACR-rated circuit breakers).

HVAC is an important part of residential structures such as single-family homes, apartment buildings, hotels, and senior living facilities, medium to large industrial and office buildings such as skyscrapers and hospitals, on ships, and in marine environments, where it is safe and healthy.  Building conditions are controlled in terms of temperature and humidity using fresh outside air.

Ventilation or ventilation (V in HVAC) is the process of exchanging or replacing air in any space to provide high indoor air quality including temperature control, replenishment of oxygen, and removal of moisture, odors, smoke, heat, dust, airborne bacteria, carbon dioxide, and other gases.  Ventilation removes unpleasant odors and excess moisture, introduces outside air, circulates indoor building air, and prevents indoor air stagnation.

Ventilation includes both the exchange of outside air as well as the circulation of air inside the building.  It is one of the most important factors in maintaining acceptable indoor air quality in buildings.  Methods of ventilating a building can be divided into mechanical/forced and natural types.

The three central functions of heating, ventilation, and air conditioning are interrelated, particularly with the need to provide thermal comfort and acceptable indoor air quality within reasonable installation, operation, and maintenance costs.  HVAC systems can be used in both domestic and commercial environments.  HVAC systems can provide ventilation, reduce air infiltration, and maintain pressure relationships between spaces.  The means of air supply and removal from spaces is known as room air distribution.

Programme Objectives

Once you are enrolled in the HVAC education program at EXIN, you will begin to study many areas.  These areas include the theory and applications of air conditioning and refrigeration, thermodynamic cycles, accessories, devices, and refrigerants.  A will also cover advanced topics related to commercial units including installation, heat load calculations, low-temperature systems, and multiple system installs.

During HVAC classes at EXIN, one will discover the basics of electrical control work and learn the skills to use ladder diagrams, test meters, wiring diagrams, and thermostats.  Our advanced courses review pneumatic and electronic controls and both service and maintenance procedures. 

On the heating side of things, one will learn the principles of heating technology and appliances, including forced-air fuel gas, electric, oil, combustion processes, and heat pumps.  Both residential and commercial applications are covered, as well as codes, venting, and piping practices.

Also included in heating and ventilation training are steam and hot water systems commonly used in both residential and commercial installations.  This training covers boilers, circulators, pipes, traps, heat exchangers, and controls.  Fundamentals of fabrication and sheet metal as applied to HVAC ductwork are also a part of your education.

Career Scope

Job role from beginner to senior level is available as AC Technician, Automotive HVAC Technician, HVAC Engineer, HVAC Installer, HVAC Mechanic, HVAC Refrigeration Technician, Solar Technician, Wind Turbine technician, and many more

Jobs for HVAC personnel are available in the following fields

Design & Manufacturing.

Sales & Marketing.

Operations & Maintenance

Service & Repair.

Consulting, Project Management & Contracting

Sales and Marketing.

Automated Controls.

Design & engineering.

Overview

Automotive Technology/Engineering is concerned with vehicle life-cycle support (design, manufacture, performance, and durability testing), ranging from road and off-road vehicles to race cars, vans, trucks, etc. Students enrolled in this course will learn how to apply Mechanical, Thermodynamic, Pneumatic, Hydraulic, and Electrical principles to solve engineering problems. They will learn how to design and produce visual interpretations of automobiles and their components during their studies. They would also be involved in the development of test procedures and the execution of tests using physical testing methods and software packages.

Students will be introduced to various aspects of future vehicle design, technology, and management as part of this study module.

The course will also cover the design, analysis, control, calibration, and operational characteristics of Vehicles.

Programme Objectives

Automobile Technology/Engineering is a very vast subject describing various automobile systems in an automobile like chassis system, suspension, transmission, cooling, lubrication, steering, etc. Special emphasis is laid on various fundamentals of engineering like fluid mechanics, the strength of materials, CAD/CAM/CAE, electrical and electronic systems, and so on. They are trained in how to design the systems and mechanisms of cars. These professionals have to ensure that automotive designs and systems conform to the quality of the systems and cost specifications. These engineers are trained in how to analyze potential problems in design and work to solve those problems, design, and retest prototypes of cars and car parts, and oversee the

manufacturing of automobiles. Computers are a big part of how automotive engineers do their jobs.

As part of the specialization, students will have the opportunity to put theory into practice through industry training.  Industry visit will assist students in integrating knowledge with relevant automobile OEMs, IT and Design firms, or component manufacturing

Career Scope

Job for Automotive Engineers varies in different roles in Service stations of automobile companies, 

R&D, Production plants, Motor vehicle departments, Insurance company experts, Transport companies, and State transport corporations.

Jobs in the automobile sector in various roles Automobile Technicians, Bike Mechanics, Diesel Mechanics, Car Mechanics, Automobile Designers, Executive and Managerial Positions, Automobile Engineer, Automobile Designer, Vehicle/Car Designer, Executive & Managerial Positions, Automotive Design Engineer, Automotive Engineering Technician, etc. 

Overview

The study, design, development, construction, and testing of mechanical and thermal sensors and devices, such as tools, engines, and machines, is known as mechanical engineering.  Mechanical engineering careers focus on developing technologies that solve a wide range of human needs.

Automobile engineering, manufacturing engineering, power plant engineering, thermal engineering, and mechatronics engineering (a combination of electrical, computer, and mechanical engineering) are all mechanical engineering subjects.

Mechanical engineers are mostly employed in engineering services, R&D, and manufacturing. Mechanical engineering has its roots in the industrial revolution, with the introduction of the steam engine, automated manufacturing, and railroad transportation demands necessitating increasingly innovative and sophisticated engineering solutions. 

Programme Objectives

A mechanical engineer will have the ability to identify, formulate and solve complex engineering problems using the principles of engineering, science, and mathematics;  and the ability to use engineering design to create solutions to meet specific needs, taking into account global, cultural, social, environmental, and economic factors, as well as public health, safety, and welfare.

  A mechanical engineer will have the ability to communicate effectively with a variety of audiences an understanding of ethical and professional responsibilities in engineering situations and the ability to make informed decisions that consider the impact of engineering solutions in global, economic, environmental, and social contexts Ability to work effectively in a team where members provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks and accomplish objectives and develop and conduct appropriate experiments, analyze and interpret data, and use engineering judgment to reach conclusions.

Career Scope

Mechanical engineering is one of the most in-demand specializations right now. Students with a graduate degree in Mechanical Engineering can apply for a variety of job positions in the government and private sectors based on their interests. Some typical job profiles for a Mechanical Engineering graduate are listed below: - 

Mechanical Engineer, Design Engineer, Assistant Mechanical, Engineer Purchase, Quality Control, Executive Service Engineer, Instructional Designer.