IT or CSE is there any difference?

The story behind the subject dates back to the IT boom and service sector industry revolution in the late 90’s. India became the second largest exporter of IT related products on the global platform. Now with this IT revolution came the need for IT talent and skill oriented manpower. The scarcity of skilled manpower coinciding with the boom in the industry led to massive pay packages for the IT skilled man power.


Getting an IT job in a multinational company became the dream of majority of youngsters and their parents in India. Suddenly IT became the most sought after engineering course in the country. Even If one could not make it to the computer science & engineering branch at the graduation level they dreamt of doing their masters in CSE. Everyone wanted to join an IT company irrespective of the branch of engineering they completed their bachelors in.
This led to a huge demand for IT oriented courses in the country which paved the foundation of mushrooming engineering colleges in the country. But there was a limitation to the number of seats in CSE branch as the intake had to be at par with the intake in any other engineering course branch as per the policy made by council of technical education. So here colleges created a shadow branch of Computer Science Engineering which is known Information and Technology Engineering.

IT is just a reflection of computer science & engineering just to fill the gap in supply and demand for the skilled manpower in the IT sector. Hence it can be said that theoretically there is no difference in both the branches, the mere reason of creating the two is to provide a larger number of pass outs with the same skill set by staying in the limitations of bureaucratic guidleines.

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Choice Of Courses after School

Numerous courses have evolved for science education students other than the traditional courses of medicine and engineering offering a wide platter of degree and diploma courses. If communication and creativity is your forte then colleges are offering various courses ranging from mass media to journalism. These courses include bachelors and diploma program in journalism, mass communication, advertising, digital media. Completion of these courses leads to well established careers in the respective fields.

There has been a very old notion that technical education is necessary to future development and innovation. This is a major reason why all developed and developing economies across the globe have technical educational institutions as part of their social infrastructure.

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Hot Air Oven

Hot air oven is an electrically heated test device that are basically used in sterilization. The Hot Air Ovens use dry heat to sterilize articles. These are known to work by circulating hot air inside the test chamber to achieve maximum and uniform heat distribution around all corners of the oven . These types of hot air ovens do not require water and there is not much pressure build up within the oven that makes them more suitable to be used in a laboratory environment.

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Doppler Radar Trainer

The AL-DRT Doppler Radar Trainer demonstrates the principle of doppler shift of reflected electromagnetic wave from a moving object as described earlier along with important parameter such as speed, rotation of test object, contact less vibration measurement,

A 10GHz Micro strip based homodyne transceiver (an integrated transmitter and receiver) is placed on a parabolic reflector, The target velocity emulator provides a real time platform for statistic observation of CRO & FFT on a PC by using observations and measurements calculated with the help of a software, this advanced Doppler Radar Trainer software is also capable of showing microwave X band operation using a high gain parabolic antenna provided for narrow beam width and clutter reduction. Shielded cables are provided to avoid Electrostatic discharge (ESD). The AL-DRT trainer incorporates a large memory to support its High Speed Data Acquisition system.

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School lab Supplies by Acumen Labware have always been outstanding. School lab supplies have become an integral part and need of a school. And moreover these school lab supplies constitute of a wide range of verticals. These include physics labware, chemistry labware, biology labware so here at acumen labware we take care of each and every and section of school lab supplies and this is the sole reason why school lab supplies by acumen labware have not only been accepted but also appreciated world wide.

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Dancing Shaker, Water Still, Desiccator Cabinet, Test Tube Rotator, Hot Air Ovens Exporter India MANUFACTURERS SUPPLIER & EXPORTERS, FOR SALE IN INDIA. An Eclectic collection of Dancing Shaker, Water Still, Desiccator Cabinet, Test Tube Rotator, Hot Air Ovens. Acumen Labware has been Highly acclaimed for its Hot Air Ovens in India because of the deligence invoved in the making of Hot Air Ovens.

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Ray Box KIT or light box KIT

A Ray box kit also known as a Light box kit is used to understand various optical properties .These optical properties are made practically visible and more erudite using a ray box/light box kit. A ray box/light box kit is a simple enclosed box (one side open) consisting of an incandescent bulb, various detachable slides, lenses, mirrors and color filters. These slides and lenses when used individually in a ray box/light box produce various optical properties which are determined by analyzing the distinct paths of light rays coming out of the ray box/light box.  Some of the distinguished properties known by ray box/light box kit are mentioned below.

1. The Eye

To understand how the Eye locates images and how  optical illusions take place  if the direction of light changes after it leaves the source. The probable size of the object is related to the angle of light rays subtended at the eye by an object. How the eyes ability to sense the same colored objects are determined. The blind spot property which is exhibited when one eye is open is also determined through a ray box/light box kit.

2. The Plane Mirror

The properties of reflection of light from a plane mirror are examined. The study of characteristics reveals the location of the image formed by a plane mirror. The least size of mirror is calculated that will just enable the whole face to be seen as the image. This phenomenon can be cross checked with a plane mirror and a piece of a paper with a window cut in it to size.

3. Multiple Images in Plane Mirrors

Two plane mirrors are so erected that they touch at one edge. The angle between them is varied so as to make multiple images. The relationship between the number of images formed and the angle between the mirrors is examined so as to calculate a precise equation.

4. Images formed by Lenses

The real and virtual images formed by concave and convex lenses are examined with the help of lenses present in the ray box/light box kit. The optical characteristics to locate images is first made using real images formed by a convex lens and are then proved correct by projecting these images onto a screen. The position of the object is varied and the effect on the nature, position, size and orientation is analyzed. The phenomenon of parallax is then used to locate virtual images formed by convex and concave lenses.

5. Images formed by Curved Mirrors

Students use what they have learned about images formed by lenses to investigate those formed by curved mirors. Very little direction is given in this experiment as it parallels the previous one on lenses.

6. Ray Tracing

The principle rays are introduced and students draw scaled ray diagrams to predict the nature, position, size and orientation of real and virtual images formed by concave and convex lenses and mirror. Magnification is defined and this is related to the distance of the image and the object from the lens or mirror.

7. The Lens Formula

Students measure the distance of the object and its real image from a convex lens for a range of object distances. This leads to the discovery of the formula 1/u +1/v = 1/f. The formula is tested and then tested when a vitual image is formed. The real is positive sign convention is introduced and students learn to calculate the position and size of an image formed by an object near convex and concave lenses and mirrors. Calculations are checked using the apporopriate lens or mirror and using a candle as the object.

8. Refraction

Students investigate the saving of a person at the beach and discover the path across the sand and through the water that will result in reaching the person in the smallest possible time. They discover ‘Snell’s Law’ concerning the angles they run and swim when moving along the minimum time path. Using a ray box and a semicircular plasic block they discover the same law applies to light. Refractive index is defined and determined for both plastic and water. Students learn to determine the path light will follow when it passes between any two substances. They check their calculation by putting the plastic block inside the water tank.

9. Total Internal Reflection and Dispersion

Students discover the conditions needed for TIR to occur and then calculate the critical angle for a plastic/air boundary. They check the prediction with a ray box and a plastic block. They calculate the critical angle for a plastic/water boundary and check their calculation by putting the block into a semicircular water tank. Students then investigate dispersion and determine the refractive index of the plastic block when different colours of the spectrum pass through it.

10. The Convex Lens

Students calculate and draw on a large scale diagram, the paths followed by light through a convex lens. The three ligh paths are parallel to the axis of the lens. Students measure angles of incidence and calculate angles of refraction at the air/glass and glass/air boundaries and discover the the position of the principle focus of the lens. They compare their result with the the value obtained using the Lens Makers Formula. A very valuable exercise. Student have been known to say they ‘get it better’ after completing it.

11. The Eye part

Students investigate how the eye focusses on objects They use a convex lens and a screen to model the eye and replace the lens with one of a different shape when the object is moved. The effect of pupil size and depth of field is studied. Defects of vision are is investigated and students add additional lenses to ‘defective’ model eyes to produce a sharp image on the scrreen for both long and short sighted eyes.

12. Fire in Diamonds

Students plot paths of light through a large scale diagram of a diamond with Tolkowski’s cut. They discover how to produce the fire effect – the coloured flash. A diamond ring is set up and the students look at it from the predicted direction and find the phenomenon called fire in diamonds.

13. The Rainbow

Students plot the path of light through the diagram of a large water drop. They predict the angle of exit of the light and the angle subtended at the eye by a rainbow. Students check their calculations using a plastic vial filled with water and a ray box, and viewing the rainbow formed in a water sprinkler.

14. The Magnifying Glass

In this experiment students construct a 1:2 scale diagram of a person looking at a spider through a convex lens used as a magnifying glass. The concept of angular magnification is introduced and students determine the theoretical value using the scale diagram. Using a spider on a screen, a convex lens and two set squares students check their prediction by measuring the angular magnification as seen when looking through the lens. This is repeated for a range of values, the maximum angular magnification is determined and related to the focal length of the lens.

15. The Compound Microscope

Students use two convex lenses to create a model microscope. They learn how to make the final image form at the distance of the near point. By putting a ruler at the near point they can measure the width of the image when looking into the eyepiece. The theoretical linear magnification is determined and compared with the value calculated from the measurements. The effect that the distance between the lenses has on the magnification is investigated.

16. Telescopes

Students trace rays through a diagram of a Keplerian and a Galilean telescope. The angular magnification produced is related to the focal lengths of the lenses used. The concept of the eyering is introduced. Students construct the two telescopes and view an object at the far end of the room. The angular magnifications produced by the telescopes are determined from a series of measurements and compared with the focal lengths of the lenses. The advantages and disadvantages of the Keplerian versus the Galilean type are discussed.

17. The SLR Camera

Students investigate the following aspects of an SLR camera : method of focussing, the pentaprism and the focussing screen, field of view, size of image, focal ratio of the lens, brightness of image, depth of field, exposure time and ASA of film. They learn how the ASA, focal ratio, and exposure time are interrelated and how the depth of field can be controlled with suitable combinations of the three variables.

18. Colour Filtration

Students use a computer interface and a light sensor to measure the percentage transmission of the different parts of the complete spectrum through different coloured filters and then plot graphs of percentage transmission versus colour for each filter.

19. Colour Photography

Students are introduced to the primary colours and their coresponding complimentary colours. Students then go through the process of producing a colour print from a colour negative. They are given a scene and imagine taking a picture of it. They use coloured pencils to fill in the the coloured dyes in the different colour sensitive layers on the film and the printing paper that are produced when they are developed. They colour in the negative and then colour in the print after analysing which parts of the complete spectrum pass through the different combinations of dyes. Senior students really enjoy this exercise. They learn how the colours of a scene are reproduced on a print and they do some colouring – something they haven’t done for ages! A Colour transparency file of completed diagrams included.

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