Saturday, November 12, 2011

MOST IMPORTANT FOR CAREER Pick the right college




Engineering college aspirants in the State will face the all-important admission round this week. Unlike medical college admissions, engineering aspirants have a more daunting task ahead of them given that there are more seats on offer, multiple courses or trades to choose from, no less than 145 colleges and yes, one option too many to wade through.
So, how do they go about this process? What is the best way — to wait till D-day and choose depending on what appears on your screen at the counselling centre or prepare a list of options so you know what you're in for?

Be prepared

Experts say that being prepared is key. The Hindu EducationPlus spoke to professors, officials at the Karnataka Examinations Authority where you will be selecting your seat, ex-students and counsellors to find out what you can do to be prepared.
The biggest mistake that students make is to come unprepared for counselling, or let's say ill-prepared, says a professor who did not wish to be named. But first of all, he cautions, do not fall for the advice or rankings meted out by various books or CDs that claim to have an understanding of the process.

“While some books are helpful, a lot of the information given there is either outdated or misleading. For instance, a very popular book claims that at least 30 colleges had 100 per cent placements in 2008. However, I cannot think of more than six colleges that might even had a chance at 100 per cent placements,” the professor says.
Raghupathy Bhat, a student of RVCE who opted for a CET seat last year, agrees. Nothing can prepare you for D-Day, he exclaims. However, he adds that it is imperative for you to have more than a few back-up lists. “Students usually have several lists i.e. option A, B and C. If you just follow what last year's cut-off ranks are and draw up a short-list, you will end up a nervous wreck. Sitting in front of that computer screen, the more research you have done, the better you feel,” he says. So, while looking up last year's cut-offs for individual colleges is a good way to size up your chances, do understand that each year is different.

Career counsellor and CEO of Cigma Technologies Ameen Mudassar feels that the first priority should be choosing a branch. “Students must be clear about their priorities. The key to the process of narrowing down your options is to pick an initial pool of 10 to 15 colleges that interest you, and focus your research efforts on these colleges. One of the best approaches is to start from scratch and systematically get to a short-list that fits your interests, as varied as they may be, and also is academically sound.” Proximity of the college is key here, as is evaluating your interests when it comes to choosing a stream of your choice.
There are several old and new streams to choose from, and the one you choose dictates your course content for the next four years, so you may want to do some good research before that. Talking to parents, college teachers or career counsellors helps.

What is good?

Once you know which stream you wish to pursue, the next is to verify how good a college is. If you are among the top rankers, then most of your college choices or options are likely to be good. But the higher your rank, the more tricky your options are. It must be noted that out of the 140 colleges, nearly half are new and many are known to be low on infrastructure, quality faculty and therefore career prospects. Check out their website first, says a senior official from NAAC, the accreditation body.

The official says that accreditations or recognitions are mandatory. “If your college is not recognised by AICTE, then it is a dummy course and your college will not be able to issue you a degree. A visit to the AICTE website (http://www.aicte-india.org/) is your very first step. Cross-check with the State-wise list to see if a college's claim of being AICTE recognised is indeed real. Most colleges in Karnataka are affiliated to VTU, so the VTU website is also a good place to check. Do monitor newspapers and websites to see if any colleges have been de-recognised recently.”
Apart from AICTE (which is a basic recognition requirement), also check the websites of each college to see what are the additional accreditations they have. “Many colleges claim to have tie-ups with some foreign partners. But these do not really count. What you must look for is accreditations by government bodies,” he says. The NAAC is an autonomous body established by the University Grants Commission (UGC) to assess and accredit institutions of higher education in the country. But students must not be misled by blanket statements regarding accreditation.
Often, there are courses that colleges start after receiving accreditation, or there are courses that are not rated in each college. It must be remembered that often, recognition or approval is granted for certain courses that are functioning well. This does not mean that all courses offered here are worth it. Infrastructure, quality faculty and placements are the three most important factors to keep in mind. Do a recce, if you can.

Talk to seniors

Talk to your seniors with these factors in mind. Ask them which branch in their college has the best teachers. “Are the labs good? Do students get enough chances to use all the equipment there? How easy is access to labs, libraries and other digital equipment? Are the professors open to offering help in the labs after class hours?” are a few questions you can ask your seniors, says the professor. However, nothing beats the personal experience of doing a recce of at least six or eight colleges.
Use the Internet, advises Mr. Mudassar. “To get the real picture, you must search on social networking sites such as Orkut and Facebook for students who are studying as well as those who have completed the course. This is a wonderful opportunity to ask any questions starting from how good is the college in reality to the inside story about how the labs are or the placements.”
thanks The Hindu


Saturday, November 12, 2011 by Unknown · 0

USEFUL FOR ENGINEER STUDENTS IN ANNA UNIVERSITY BE ECE SEMESTER LIST OF SUBJECTS


SEMESTER VIII

(Applicable to the students admitted from the Academic year 2008–2009 onwards)

CODE NO. COURSE TITLE L T P C

THEORY

Elective V 3 0 0 3

Elective VI 3 0 0 3

PRACTICAL

EC2451 Project Work 0 0 12 6

TOTAL 6 0 12 12



SEMESTER VIII - Elective V

CODE NO. COURSE TITLE L T P C

EC2042 Embedded and Real Time Systems 3 0 0 3

EC2046 Advanced Electronic system design 3 0 0 3

EC2047 Optoelectronic devices 3 0 0 3

EC2050 Mobile Adhoc Networks 3 0 0 3

EC2051 Wireless Sensor Networks 3 0 0 3

EC2052 Remote Sensing 3 0 0 3

EC2053 Engineering Acoustics 3 0 0 3

SEMESTER VIII - Elective VI

CODE NO. COURSE TITLE L T P C

EC2043 Wireless networks 3 0 0 3

EC2044 Telecommunication Switching and Networks 3 0 0 3

EC2045 Satellite Communication 3 0 0 3

EC2048 Telecommunication System Modeling and

Simulation

3 0 0 3

EC2049 Radar and Navigational Aids 3 0 0 3

EC2054 Optical Networks 3 0 0 3


by Unknown · 0

USEFUL FOR ENGINEER STUDENTS ENGINEERING GRAPHICS GE2111 QUESTION BANK





    PROJECTION OF POINTS


    1. Draw the projections of the following points on the same reference straight line:
    A- 10 mm above HP and 20mm in front of VP.
    B- 20 mm above HP and 30mm behind of VP.
    C- 30mm below HP and 40mm behind VP.
    D- 40mm below HP and 50 mm in front of VP.
    E- On HP and 20mm behind VP
    F- On VP and 25mm below HP.
    G- On both HP and VP.
    H- 20mm above HP and 20mm behind VP.



    2. The Figure shows the projection of different points. Determine the position of the points with respect to the projection planes. All distances are in mm.

    PROJECTION OF STRAIGHT LINES



    1. A line AB 60mm long has its end A10mm above HP and 20mm in front of VP. The line is kept perpendicular to HP and parallel to VP. Draw its projections.

    1. A line BC 40mm has its end B 25mm above HP and 30mm in front of VP. The line is kept perpendicular to VP and parallel to HP. Draw its projections.


    STRAIGHT LINE INCLINED TO ONE PLANE ONLY


    1. A line DE 35mm long has its end D 5mm above HP and 10mm in front of VP. The line is kept inclined at 30° to HP and parallel to VP. Draw its projections.

    1. A line EF 70mm long has its end E 40mm above HP and 20mm in front of VP. The line is inclined at 60° to VP and parallel to HP. Draw its projections.

    1. A line FG 65mm long has its end F 25mm above HP and on VP. The line is inclined at 45° to HP. Draw its projections.

    1. A line GH 35mm long has its end G 20mm in front of VP and on HP. The line is inclined at 35° to VP. Draw its projections.

    1. A line PQ 70mm long has its end P 15mm above HP and 25mm in front of VP. The top view measures 40mm.Draw its projections and find the inclination of the line with HP.

    1. A line QR 65mm long has its end Q 20mm above HP and 15mm in front of VP. Its front view has a length of 35mm. Draw the projections and find the inclination of the line with VP.

    STRAIGHT LINE INCLINED TO BOTH HP AND VP

    1. A straight line AB of length 50 mm is inclined at 30º to HP and 45º to VP. Point A is 15mm above HP and 20mm in front of VP. Draw the projections of the straight line.

    10. A line BC 80mm long has its end B, 15mm from both HP and VP. Other end C is 40mm above HP and 50mm in front of VP. Draw the projections of the line and determine the inclination of the line with HP and VP.


    11. A line CD 70mm long has its end C 35mm above HP and 30mm in front of VP
    The top view and the front view has a length of 45mm and 60mm respectively.
    Draw its projections.

    1. A line DE 75mm long has its end D on both HP and VP. The line is kept inclined
    at 45° to HP and 30° to VP. Draw its projections.
    13. One end E of a line EF, 75mm long is 20mm above HP and 25mm in front of VP.
    The line is inclined at 30° to HP and the top view makes 45° with VP. Draw the
    projections of the line and find its true inclination with VP.

    14. A line FG 50mm long has its end F 10mm above HP and 15mm in front of
    VP. The line is inclined at 35° to HP and 55° to VP. Draw its projections.
    15. A line GH 85mm long has its end G 25mm above HP and 20mm in front of VP.
    End H is 60mm above HP and 50mm in front of VP. Draw the projections and find the inclinations of the line with HP and VP.

    16 A line PQ measuring 75mm long has one of its ends, 50mm in front of VP and
    15mm above HP. The top view of the line is 50mm long. Draw and measure the
    front view. The other end is 15mm in front of VP and is above HP. Determine the
    true inclinations of the line.

    17 .A line QR has its end Q 20mm above HP and 25mm in front of VP. The other end R

    is 45mm above HP and 55mm in front of VP. Distance between the end projectors is

    60mm. Draw its projections and also find the true length and true inclinations of

    the line with HP and VP.


    18. The mid point of the line RS 90mm long is 60mm above HP and 50mm in front of

    VP. It is inclined at 30°to HP and 45° to VP. Draw its projections.

    PROJECTION OF PLANES


    1. A Square plane of side 40mm has its surface parallel to VP and perpendicular to HP. Draw its projections when one of the sides is inclined at 30° to HP.

    2. A Circular plane of diameter 50mm has its surface parallel to HP and perpendicular to VP. Its Centre is 20mm above HP and 30mm in front of VP. Draw its projections.

    3.. A Pentagonal lamina of side 30mm is placed with one side on HP and the surface inclined at 50° to HP and perpendicular to VP. Draw its projections.

    4. A Hexagonal plane of side 30mm is placed with a side on VP and the surface inclined at 45° to VP and perpendicular to HP. Draw its projections.

    5. A pentagon of side 30mm rests o the ground on one of its corners with the sides containing the corner being equally inclined to the ground. The side opposite to the corner on which it rests is inclined at 30° to the VP and is parallel to HP. The surface of the pentagon makes 50° with the ground. Draw the top and front views of the pentagon.


    6. Pentagonal lamina of side 30mm is resting on one of its edges on HP which is inclined at 45° to VP.Its surface is inclined to 30° . Draw its projections.



    PROJECTION OF SOLIDS


    SOLIDS IN SIMPLE POSITION


    1. A Cube of 40mm side rests on HP on one of its ends with a face parallel to VP and 25mm in front of VP. Draw the top and front views of the cube.

    1. A Cube of side 40mm rests on HP on one of its ends with a vertical face inclined at 40° to VP. Draw its projections.

    1. A Cube of side 40mm rests on HP on one of its ends with its vertical faces equally inclined to VP. Draw its projections.


    4. Draw the top and front view of a square pyramid of base side 30mm and altitude 40mm when it is resting on HP on its base with one of the edges of the base inclined at 60° to VP.

    1. Draw the projection of a pentagonal prism of base side 20mm and axis length 35mm when it is resting on HP on its base with one of the edges of the base inclined at 30° to VP.

    1. Draw the projections of a hexagonal pyramid of side of base 30mm and altitude 60mm when it is resting on its base on a HP with an edge of the base inclined at 30° VP.

    1. A square prism of base edge 25mm and axis length 60mm is lying on HP on one of its longer edges with its rectangular faces equally inclined to HP. Draw its projections when the axis is perpendicular to VP and parallel to HP.

    1. A Pentagonal pyramid of base side 30mm and axis length 60mm rests on HP on one corner of the base. The base edge containing that corner makes 40° with HP. Draw its projections when the axis is perpendicular to VP and parallel to HP.

    1. A hexagonal prism of base side 20mm and axis length 50mm lies on HP on one of its rectangular faces with the axis parallel to both HP and VP. Draw its projections.

    1. A pentagonal prism of base side 40mm and axis 60mm long lies on HP on one of its longer edges with its axis parallel to both HP and VP. One of the rectangular faces containing the resting edge is inclined at 30° to HP. Draw its plan and elevation.

    AXIS INCLINED TO ONE PLANE AND PARALLEL TO THE OTHER


    1. A hexagonal prism of base side 30mm and axis length 60mm lies on HP on one of its base edges with its axis inclined at 60° to HP and parallel to VP. Draw its projections.

    1. Draw the projections of a cube of side 40mm when it rests on HP on one of its corners and the face containing that corner is inclined at 30° to HP and parallel to HP.

    1. A square prism of base side 35mm and axis length 60mm rests on one of its base edges on HP with its axis inclined at 30° to HP and parallel to VP. Draw its projections.

    1. A cylinder of base diameter 30mm and axis length 50mm is resting on HP on a point of base so that its axis is inclined at 45° to HP and parallel to VP. Draw its front view and top views.

    1. A hexagonal pyramid of base edge 40mm and height 80mm lies on one of its base edges on HP with its axis inclined at 30° to HP and parallel to VP. Draw its projections.

    1. A square pyramid of base side 30mm and height 60mm lies on HP on one of its triangular faces with its axis parallel to VP. Draw its projections.

    1. A pentagonal pyramid of base edge 25mm and axis 60mm long rests on a base side on HP such that the highest base corner is 20mm above HP and its axis is parallel to VP. Draw its projections.

    1. A cone of base diameter 40mm and altitude 60mm rests on HP with its axis inclined at 30° to HP and parallel to VP. Draw its projections.

    1. Draw the projections of a cone of base diameter 50mm and axis length 70mm when it lies on the ground on one of its generators with its axis parallel to VP.

    1. A hexagonal pyramid of base side 30mm and axis length 60mm is resting on HP on one of its base corners with its axis inclined at 35° to VP and parallel to HP. Draw its projections when the base sides containing the resting corner are equally inclined to HP.


    SECTION OF SOLIDS


    1. A square prism of base side 30mm and axis length 60mm is resting on HP on one of its faces with a base side inclined at 25° to VP. It is cut by plane inclined at 40° to HP and perpendicular to VP and is bisecting the axis of the prism. Draw its front view, sectional top view and true shape of the section.

    1. A pentagonal pyramid of base side 40mm and axis length 75mm is resting on HP on its base with one of its base sides parallel to VP. It is cut by a plane inclined at 35° to HP and perpendicular to VP and is bisecting the axis. Draw its front view, sectional top view and true shape of the section.

    1. A hexagonal prism of base side 30mm and axis length 60mm is resting on HP on its base with two of the vertical faces perpendicular to VP. It is cut by a plane inclined at 50° to HP and perpendicular to VP and passing through a point at a distance of 12mm from the top face. Draw its front view, sectional top view and true shape of the section.

    1. A cylinder of base diameter 45mm and height 65mm lies on its base on HP. It is cut by a plane perpendicular to VP and inclined at 30° to HP. And meeting the axis at a distance of 30mm from the base. Draw its front view, sectional top view and true shape of the section.

    1. A cone of base diameter 50mm and axis length 75mm is resting on HP on its base .It is cut by a plane inclined at 45° to HP and perpendicular to VP and is bisecting the axis. Draw its front view, sectional top view and true shape of the section.

    1. A hexagonal pyramid of base side 30mm and height 60mm is resting on HP on its base with two of the base sides perpendicular to VP. It is cut by a section plane perpendicular to VP and parallel to and 25mm above HP. Draw its front view and sectional top view.

    1. A square pyramid of base side 30mm and axis length 60mm is resting on HP on its base with one side of the base inclined at 30° to VP. It is cut by a plane perpendicular to VP and parallel to and 15mm above HP. Draw its front view and sectional top view.

    1. A pentagonal prism of base side 30mm and axis length 60mm is resting on HP on one of its rectangular faces with its axis perpendicular to VP. It is cut by a section plane inclined at 40° to VP and perpendicular to HP and passing through a point 25mm from the rear face of the prism. Draw its front view, sectional top view and true shape of the section.


    1. A cone of base diameter 60mm and axis length 70mm is resting on HP on its base. It is cut by a plane perpendicular to VP and parallel to an end generator (contour generator) and is 10mm away from it. Draw its front view, sectional top view and true shape of the section.



    DEVELOPMENT OF SURFACES

    1. A square prism of base side 30mm and axis length 60mm is resting on HP on one of its faces with a base side inclined at 30 to VP. It is cut by plane inclined at 40° to HP and perpendicular to VP and is bisecting the axis of the prism. Draw its development

    1. A pentagonal prism of base side 30mm and axis length 60mm is resting on HP on its base with one of its base sides parallel to VP. It is cut by a plane inclined at 35° to HP and perpendicular to VP and meets the axis at a distance of 35mm from the base. Draw the development of the lower portion of the solid.

    1. A hexagonal prism of base side 30mm and axis length 60mm is resting on HP on its base with two of the vertical faces perpendicular to VP. It is cut by a plane inclined at 50° to HP and perpendicular to VP and passing through a point at a distance of 10mm from the top face. Draw the development of the lower portion of the solid.



    1. A cylinder of base diameter 45mm and height 65mm lies on its base on HP. It is cut by a plane perpendicular to VP and inclined at 30° to HP. And meeting the axis at a distance of 30mm from the base. Draw the development of the lower portion of the solid.

    1. A cone of base diameter 50mm and axis length 75mm is resting on HP on its base .It is cut by a plane inclined at 45° to HP and perpendicular to VP and is bisecting the axis. Draw the development of the lower portion of the solid.


    1. A pentagonal pyramid of base side 30mm and axis length 60mm is resting on HP on its base with a side parallel to VP. It is cut by a plane inclined at 40° to HP and perpendicular to VP and passing through a point at a distance of 15mm from the base.. Draw the development of the lower portion of the solid.

    ISOMETRIC PROJECTION

    1. Draw the isometric projection of a hexagonal prism of base side 25mm and axis height 60mm when it rests on HP on its base with a base edge parallel tom VP.

    2. Draw the isometric projection of a cylinder of base diameter 50mm and axis height 60mm when it rests on HP on its base.

    3. A hexagonal prism of base side 25mm and axis height 50mm rests on HP on its base with a base edge parallel tom VP. It is cut by a plane inclined at 50° to HP and perpendicular to VP and is bisecting the axis. Draw the isometric view of truncated prism.

    4. A cylinder of base diameter 50mm and axis height 60mm rests on HP on its base. It is cut by a plane inclined at 55° to HP and perpendicular to VP and passing through a point at a distance of 45mm from the base. Draw the isometric view of the cylinder.

    5. Draw the isometric projection of a hexagonal pyramid of base side 30mm and axis height 75mm when it rests on HP on its base with a base edge parallel tom VP.

    6. Draw the isometric projection of a cone of base diameter 40mm and axis height 60mm when it rests on HP on its base.

    7. A pentagonal pyramid of base side 30 mm and axis length 65 mm is resting on HP on its base with a side of base perpendicular to VP. It is cut by a plane inclined at 30° to HP and perpendicular to VP and passing through a point ON the axis at a distance of 30 mm from the apex.. Draw the isometric view of the truncated cylinder.

    8. A cone of base diameter 50mm and axis height 70 mm rests on HP on its base. It is cut by a plane inclined at 30° to HP and perpendicular to VP and meets the axis at a distance of 40 mm from the base. Draw the isometric view of the truncated cone.

    9. A square prism of base side 20 mm and height 40 mm rests on HP on its base. With its side equally inclined to VP. It is cut by a plane inclined at 45° to HP and perpendicular to VP and meets the axis at a distance of 7 mm from the Face. Draw the isometric view of the truncated prism.


    PERSPECTIVE PROJECTION

    1. A pentagonal pyramid of side 25mm and height 55mm rests on HP on its base with an edge in PP. The station point is 60mm in front of PP, 75 mm above GP and lying on a central plane passing through the apex. Draw the perspective view.

    2. A square prism of base side 30mm and height 60mm rests on its base with the
    nearest edge of the base is parallel to and 5 mm behind PP. The station point is
    60mm in front of PP, 50 mm above GP and lying on a central plane 25mmto the
    left of the mid of the solid.. Draw the perspective projection.

    1. A rectangular prism of base size 25x 40x 60 mm rests with its on the ground
    such that the longer base edge recedes 30 to the right of PP with one end of it
    behind PP. The station point is 45mm in front of PP, 35 mm above GP and lying
    on a central plane 35 mm from the nearest Vertical edge. Draw the perspective
    view.

    1. A square pyramid of base 30 mm and axis height 65mm rests on ground vertically with a base edge in PP. on its base with an edge in PP. The station point is 40mm in front of PP, 90 mm above GP and lying on a central plane passing through the point 20 mm to the left of the axis..
    Draw the perspective projection

    1. A cylinder of diameter 50 mm rests on ground vertically with its axis 5 mm behind PP. The observer point is 40mm infront of PP, 100 mm above GP and is 10 mm to the right of the nearest base corner point. a central plane passing through the apex. Draw the perspective projection.
    .
    PLANE CURVES (Eccentricity method only)
    1. Draw an ellipse when the distance of focus from the directrix is 40 mm &eccentricity is ¾.
    Draw a tangent at a point of the ellipse.


    2. Draw a parabola when the distance of focus from the directrix is 40 mm. Draw a tangent at a
    point on the parabola.

    3. Construct a curve when the distance of focus from the directrix is 35 mm and eccentricity is 4/3. Draw a tangent to a point on the curve. Name the curve.

    CYCLOIDS AND INVOLUTES
    1. Construct a cycloid given the diameter of the generating circle radius is 30 mm. Draw a tangent at point on the cycloid.
    2. Construct the path traced by appoint on a circular disc radius of 30 mm rolls on a circular path of radius 100 mm.
    3. Construct the path traced by appoint on a circular disc radius of 30 mm rolls on a circular path of radius 100 mm inside it.
    4. A circle of radius 20 mm rolls on the concave side of another circle of radius 40 mm. Draw the path traced by a point on the rolling circle.
    5. Draw the involutes of the following. (i) A square of side 30 mm (ii) Rectangular pentagon of side 25 mm. (iii) Circle of radius 25 mm.
    6. A string of length 160 mm is wound around a pentagon of side 30 mm. Draw the path traced by the end of the string.
    7. A circular disc of radius 24 mm rolls on a plane surface. Draw the locus of a point which is at a distance of 300 mm from the centre of the disc, which rolls for one revolution.




    by Unknown · 0

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