IETE-SF REPORT 2015-16

The academic year 2015-16 saw a series of some really successful events

including a series of seminars. We organised two seminars with two offbeat

themes. The topics covered were:-

1) Technical Paper Presentation

2) Applications of Embedded Systems in Industry

TECHNICAL PAPER PRESENTATION SEMINAR

The Technical Paper Presentation seminar was held on 27th of February,

2016. This seminar was given by Dr. Amit Deshmukh, HoD, Department of

Electronics and Telecommunication, DJ Sanghvi College of Engineering.

Given below are point-wise details of the matter covered in this seminar.

Technical Papers

- Log book for mini-projects

Types of Articles

- Research article

- Review article

- Letter (for fast communication research paper)

- Communication reply (In order to reply to comments on discrepancies.)

Paper for Conference

While writing a paper for a conference we need to take into consideration,

the following points:

- Selection of conference: International/National

- Organizing committee

- Scope of conference (Theme)

- Topics covered

- Number of years of conference

- NCC organised by IITs and IISc

The digital libraries available for technical paper writing are- IEEE Xplore,

Springer, Elsevier (increases citation of paper)

There is another common doubt among students:

“What care to take while sending a paper to a journal or a conference?”

ANS: Papers can be sent to either a conference or a journal. Conference gives

idea of the work but there is a page limit. The paper for conference is not

supposed to be detailed. For a journal, a full length with additional data is to be

submitted.

Template- One or two columns, depending on where the paper is to be

published, i.e. depending on format of digital library.

Now, there can two types of articles:

a) Research article- own contribution.

b) Review article- not necessarily your own contribution. Review several

papers on a particular topic. You will be comparing your paper with similar

papers and will be coming up with a conclusion.

- Invited paper from relevant areas from eminent researcher

- Proper referencing needs to be given.

- The books are published based on reviews carried out by referring

different papers.

- Your own comments

- In-depth review of at least 10-15 years’ papers.

- Author comments are necessary.

- Demerits and merits.

- Advancements that need to be done in the reported work, needs to be

focussed upon.

- Text/figures carries reference number ( may not be your own

contribution0

- Literature survey- PG/PhD thesis, forms a base for a research/review

article

PAPER CONTENT

- Title- not too long. Must convey the concept and content information.

- Affiliation- Mention clearly. Parent Institute. Include guide’s name.

- Abstract- Should highlight the novelty in the proposed work(not more the

100-500 words)

- Keywords-Used to index the paper.

- Introduction- Previous work (literature survey) & proposed work. How is

simulation or measurement being done? Prototype in the end. Give

references everywhere.

- Main content- Divide the paper in appropriate sections to maintain the

flow of proposed work.

- Figures:- Non-lossy, TIFF, PNG format,300dpi( preparation of high

resolution image)

- Placement of figures- should immediately follow the relevant text-

Sometimes changes as per conference format.

- Restrict sub-figures to less than four

- Readable in print format

- Provide reference- if figures are from different sources.

- Content- Text/ figures should be as per area of research.

- Conclusion- highlight idea being presented and comparison with reported

work.

- Reference- Adequate in number that reports previous work in detail.

PAPER FOR JOURNAL

- IEEE, IEL,IJMOT,SPRINGER,ICJA, Science Direct

- Selection of appropriate journal-scope

- Type of paper

- Editorial board of the journal

- Impact factor

- Content

- Page limit and charge

- Status of paper

- For accepted papers

- Rejected papers

REVIEWER PERSPECTIVE

- Blind review (preferred)

- Title/Abstract

- Introduction

- Implementation

- Paper contents

- Figures

- Conclusion

- References

PAPER PRESENTATION- CONFERENCE

- Poster/Oral representation

- Both carry equal weightage

- Poster presentation-6 to 8 pages

- Oral presentation -15 to 20 minutes.

PLAGIARISM

- Software available to check plagiarism-Turnitin

- Content wise copy- Plagiarism

- Avoid using sentences which have been used in previous papers.

At the end of the event, we are sure that the students went home being more

excited and educated about writing papers then they were. It was a very

successful event with registrations for the event in upwards of 150 people.

EMBEDDED SYSTEMS SEMINAR

The embedded systems Seminar was held by Dr. Saurabh Mehta on 16th of March. This was another interesting seminar which gave us an insight of how the embedded systems form a base of every smart technology today. The seminar introduced us to some of the basic, yet highly potential embedded systems. The seminar began with a brief introduction of the Speaker, Dr. Mehta, who is an IIT-B alumnus and presently the founder and CEO of a firm which is into innovation of smart embedded systems based user friendly technologies. We were then showed a series of DIY projects and were encouraged to try out different projects, as it increases our subject knowledge, we can work upon higher versions of such projects to gain an extra edge over the others. This also makes us market ready, as we know things beyond the curriculum and also are aware of what the market needs! The seminar had an overwhelming attendance of over 110 students from the second and third year crowding a classroom of 60 students! This seminar opened the doors of a totally new world for us. The students inclined towards the research made the most out of this seminar. It was followed by a brief discussion session, where the students freely interacted with Dr Mehta. The session was concluded by a thanksgiving speech by The HoD of EXTC, Dr. Amit Deshmukh.

Industrial Visit to Reliance Textile Plant, Silvassa

Introduction

The Silvassa Manufacturing Plant of Reliance Industries Limited is India’s

1st ranked polyester manufacturing plant. This accounts for a great share, since

India stands second in polyester manufacturing, following China. 40 students

from the college were selected for the IV on a first come first serve basis.

This plant was built up in the backward integration process which lead to the

exponential growth of Reliance group.

In an effort to become self-sufficient in textile production, the Vimal textiles of

the Reliance group needed to produce its raw material on its own. Thus was

born, the Silvassa Textile manufacturing plant.

This plant produces primarily three types of yarns:

1) Partially Oriented Yarn (POY)

2) Fully Drawn Yarn(FDY)

3) Polyester Texturized Yarn (PTY)

The manufacturing capacity of this plant is over 2200 tonnes of yarn per day. Of

which, 900 tonnes consist of PTY.

The Silvassa manufacturing plant has proved its mettle in the textile industry by

bagging several awards which include The Sword of Honour of the British Safety

Council, Green-Tech award, Best CASHe Project Award, Quality surveillance

golden award, to name a few. It also has an ISO certification and the Okeo-Tex

certification for its products. It also holds the largest employee magnitude with

an on-plant workforce of 6000.

The CSR activities held by this unit are:

Pulse polio drives, school health camp, bone-mineral testing, blood donation

camp, cleanliness drives, safety drives, etc.

Downstream production line PFY project summary:-

STAGE I

CP (Condensed Polymer)

This stage produces the elementary raw material for all yarns. Polyester is

essentially a petrochemical product. When crude oil is fractionally distilled, one

of the products is naphtha. (Purified terephthylic Acid)PTA is a by-product of

naphtha. This PTA powder is mixed with mono-ethylene glycol (MEG) liquid to

form a slurry. This is then dehydrated to form a condensed paste and is sent to

the next stage. This process is done by poly-condensation, which eliminates the

time consuming and costly batch process. The product formed here is a complex

PTA-MEG.

Till now, the process was chemical oriented. Now, 2nd stage onwards we deal

with our field of interest, i.e. electronic automation.

STAGE II

Spinning unit and tune chamber:

The raw material obtained from the first stage is passed on to an esterifier unit,

where it is heated to around 280°C. The melting point of PTA-MEG is 259°C.

Thus, the molten complex is ejected through a sieve pump into the tune

chamber. Here, cool air at 21°C is blown onto the glass rod like thin filaments of

the molten complex. This cools them to room temperature. Then they are

coated with a finishing oil and sent to the spinning and winding station. Here,

we obtain the intermediate product of the process, i.e. POY (Partially Oriented

Yarn).It is quite elastic in nature.

STAGE III

POY PTY

This process is carried out by the automated AFK machine. The POY produced in

previous stage is brought in the form of bobbins to this section. Here, robotic

arms unpack the POY batches and feed them to the creel, which is a POY stack

unwinding station. Here, each bobbin is placed on an indexed creel and is sent

to the heating station of the same index number. This indexing simplifies

preventive maintenance. The unwound yarn is then sent to the heating

chamber. At high temperature the yarn expands. The heating tenure is decided

by the index number on the yarn which is scanned while unwinding. This process

is called Auto-Doffing. The expanded yarn is then sent to cooling section and

polishing section. Then, a combination of high pressure air jet and a compressor

act on the yarn to form nipped pattern as shown below. [unit: nips/m]

9000 meterof yarn= 500 Dinear (weight equivalent)

Thus, we obtain the PTY. The bobbins of PTY are of different sizes depending on

their use. These are then segregated into different batches accordingly and sent

to next stage.

STAGE IV

Inspection, quality check and packaging unit:

This unit has an automated quality check and packaging unit. Damage inspection

is done manually. This unit is fully governed by robotic machinery. Batches of

different size are automatically loaded onto shuttles. Theshuttles and the

running tracks have barcodes on them. This helps in locating every batch and

the operator has full control on the route to be followed by every batch. Every

shuttle has a photocell mirror on it. Thus, if a shuttle is moving from position A

to B and senses another shuttle in the proximity of B, it waits till that shuttle

crosses B. This also prevents overloading of any station in the whole unit. The

three routes taken by incoming shuttles are as follows:-

1) Damage inspection unit

2) Quality testing unit

3) Storing unit

After passing through all these units, the batches are further bifurcated for next

procedure. Some go for texturing, some for colouring and some are directly

packed.

TEXTURING:

The yarn formed is a water resistant yarn. In order to make it wearable, it is sent

to the texturing unit where its surface is ruptured in order to create air cavities

to enable ventilation. It resembles cotton. This textured yarn is much finer than

non-textured yarns.

COLOURING:

Colouring of produced yarn is needed when it is to be sent to textile industries.

Thereafter, the yarn can be used to make various synthetic linens like chiffon,

bassos, etc.

PACKAGING UNIT:

The main function of this section is quantisation and patterning of each bobbin.

This is carried out by WINGS i.e., Winding Integrated Godet Solution machine.

This machine is programmed according to required batch size. In any case, the

rpm needs to be maintained constant. Thus, the batch size and functioning

frequency (typically 20Hz to 220 or 420Hz) is altered. This machine has been

innovated in Germany. It is a high end, fool proof mechanism and one machine

costs almost 1Cr.

The machine quantizes each bobbin size and winds it by traversing mechanism,

i.e. in the shape of “∞”. This prevents slacking of yarn over the reel.

Patterning: It is repeating of patterns obtained by the ratio rpm/cpm which

should give an integer. Yet, in case of a low value of this ratio, critical operational

cases may appear. To avoid this, anti-patterning mechanism is also used.

Standard batch size of a WINGS machine is 3000m/min.

Remarkable features of the process:-

1) Auto-Doffing

2) Online testing for ultimate flow degree

3) Disk diversion: automated diversion of batch shuttles, leading to

notable reduction in TAKT time.

4) Harnessing of robotic arms for opening of raw yarn stacks and

palletizing of finish products to maintain sterility.

5) Barcoding for error-proofing and to keep a track if every batch.

6) Use of AWH to transport station from packaging area to reduce goods

loading efforts.

Plant details:-

1) Spread over an area of approximately 250 acres.

2) Produces almost 3,25,000 bobbins/day.

3) Homes a huge water reservoir which is used to for all purposes in the

plant.

4) A separate section for temperature control unit.

5) A separate water distribution and control unit.

6) Every unit has multiple escape routes in case of any emergency

evacuation.

7) A number of safety units are spread all over the plant as a part of

disaster control and management plan.

IETE INDUSTRIAL VISIT (17th March 2016)

Onida - MIRC Electronics Pvt Ltd, [Kudus village, Wada, Thane]

Introduction:

Onida was started in Mumbai in the year 1980 in affiliation with MIRC

Electronics. Since its inception, the brand has evolved into a multi-product

company with products ranging from television sets to home appliances like

microwaves.

This plant at Wada is no exception to the fact that over the years, the brand

wishes to establish itself as a global competitor in it’s domain. The plant is

completely self-sufficient, with even substances like thermocols ( used for

packaging purpose) being manufactured there itself.

It spans across 2,17,040 square metres. The location is strategically chosen in

such a way that it finds connectivity to the international airport in Mumbai,

which is 80 kms far, railway station Vasai being 45 kms far and the Jawaharlal

Nehru Port Trust located in Uran, from where majority of the export takes place,

being located 100 kms away.

There are three stages in the process of manufacturing:

1] Automatic Insertion

2] Complete knock-down

3] Semi knock-down (further divided into two stages I & II)

The company follows a strict organisational structure. They are firm believers of

moral values like commitment to society, fairness in employment sector and

encouragement to innovation.An overview of the manufacturing process is

shown in the flow chart.

AUTO INSERTION DEPARTMENT:

The heart of any television set, the processing unit or the PCB is fabricated in

this unit. An 8 layered PCB is used in this case. The main objective of this unit is

to help the facilitation of bonding between several components and the PCB

layer. The components are either glued or soldered to the PCB, to ensure that

their connection remains intact.

The process is known as ‘Surface Mould Soldering’ which consists of a series of

automated machinery, inter connected with the help of conveyer belts. A

computer program helps in assembling this machinery, and the desired work can

be done. The centre of the PCB is used as a reference point and likewise the

entire structure is soldered. A flipper is placed so that the components can be

placed on both the sides of the PCB. Generally, a chip ( IC ) is placed on the

Designing of

prototype

by R & D

5 models

produced,

quality and

other

parameters

tested.

Initial

production

of 25

samples

Pilot

production

of 100

samples

Mass

production

opposite side. The components such as capacitors, resistors and jumpers are

connected in this unit. The soldering machine can solder over 2000 minute joints

in 3 seconds.

Soldering is a warm process and a temperature of about 150` C is required.

A settling time of around 3 minutes is provided so that the bondage turns robust

and the chances of the components falling off are negligible.

Salient features of AI;

Highly efficient as human intervention is negligible.

The production rate is very high.

Owing to the smaller size of product to be synthesized, the unit is

compact.

Over 9000 PCBs pass through the unit daily.

COMPLETE KNOCK DOWN:

After passing through a series of automated machines, the PCBs, now with basic

components are brought into the next unit. This unit is an amalgamation of

manual work as well as automation. There are several lines, consisting of

conveyer belts.

These lines consist of technicians who manually place the components on

the PCBs. As the unit deals with both, Cathode Ray Tube televisions as well as

the Light Emitting Diode televisions, the circuitry is assembled as per the

requirement.

Several significant components such as transformers, frequency tuners, line

filters and transistor ICs are placed on the PCBs by the technicians. Audio/Video

jacks are also placed in this unit. A schematic circuit diagram is provided to each

of these technicians and they are evaluated on the basis of a simple technique

– less the faults, more the grades.

After having assembled these essential components on the board, again the

need for soldering arises. A unique method known as ‘Wave Soldering’ is

implemented this time. The PCB is made to pass through a chamber wherein a

wave of soldering material oozes out. The entire layout experiences this wave

and the areas required to be soldered get soldered easily. This takes place at

250` C.

At the end of this stage, a sample television box is available for experimenting

the readied layout. If any flaws are found, the PCB is sent back for repairing. This

helps in ruling out errors at a very early stage.

Salient features of the CKD department:

The unit consists of several lines, and the work is equally distributed

amongst the technicians.

The entire unit is clean, with no room for dust.

The co-workers work in a conducive atmosphere, with music being played

to sooth them.

SEMI KNOCK DOWN (I & II):

In this unit, the production reaches an intermediate stage and it is

completely synthesized thereafter. Here, the PCBs which were already equipped

with components in the earlier stages are now detached to the frame of the

television set. The frame or body or chassis is separately manufactured in the

plant itself, and it is fed to this unit with the help of conveyer belts.

There are technicians who assemble or mount the circuit on the frame.

The panel is placed on the board. Several other connections such as speakers,

and cables are done here itself. A primary testing of these sets is done and the

audio video quality is tested.

The assembling process comes to an end with this, and a television set is

produced!The sets are then packed into card board boxes with thermocols

present as buffers to protect them.

Salient features of the SKD:

A dynamic unit, with the products continuously being circulated through

conveyer belts.

325 pieces are generated per hour.

These predominantly consist of LEDs.

In a day, over 1500 sets are produced during off season, and the number

shoots up to 1800 during peak season.

PRODUCT EVALUATION UNIT:

The product, in this case essentially a television set, has to undergo some

serious testing before it is out in the market. A dedicated unit to evaluation is

thus set up in the plant. It is tested for several parameters, and is sent back to

the earlier units if not found up to the mark.

Several primary tests include the ESD & EMC tests. The audio and video

quality is yet again tested. The next part of the same unit brings us to a unique

form of testing. There are several chambers set up in a room, and the

temperature is fiercely varied amongst these. This gives rise to tests like ‘Dry

Heat Test’ in which the temperature is 50` C, the ‘Damp Heat Test’ as well as the

‘Cold Test’. Various other endurance tests like ‘Vibration Test’, ‘Drop Test’ and

the ‘Bump Test’ are carried out so that the product is deemed fit for

transportation.

STORAGE UNIT:

The packaged television sets are stored in dry conditions, and an utmost

care is taken in this unit. An interaction with one of the co-workers here revealed

the fact that over 60% of the total area of the plant is utilised for storage

purpose.

PRODUCTION OF OTHER MATERIALS:

The plant at Wada is an abode to automation machinery as mentioned

earlier. It is self-sufficient in producing other useful materials like thermocol,

thereby saving a lot of capital and increasing it’s profit margin.

The thermocol production takes place with the help of a technique called

‘Injection Moulding’. Here, small granules of expandable polyster are

synthesized, and they give rise to blocks commonly called ‘thermocol’. The

machinery used here is imported from Germany, and is the finest machinery

available on globe to get this task done. It is known as ‘Kurtz Machine’.

The chassis or the frame which is made up of plastic is also synthesized in

the plant itself. The machine used for this purpose is termed as ‘24`` IGO LED’. It

consists of a mould and a hooper, and a similar process is applied to fetch the

desired output.

The moulding is brought about in a chamber, where the raw materials are

injected. This is done at a higher temperature, and the finished product is in the

molten form in the moulds. After cooling it down, the material takes the desired

shape and thus, a frame or a chassis is produced.

With processes such as moulding along with several automated machines,

the plant is an abode to technological advances.

Industrial Visit to MIRC Electronics, Wada

17th March 2016

Industrial visit to MIRC Electronics with Dr. Amit Deshmukh (Professor and Head, EXTC,

DJSCE), Prof. Venkata A.P.C. and Prof. Tushar Sawant

INDUSTRIAL VISIT TO COCA-COLA PLANT

INTRODUCTION:

Management is all about practical implications of theoretical concepts. In lieu of

this, students are required to have Industrial Visits besides their classes in order

to have a thorough understanding of the Industrial modus-operandi. With this

objective in mind, a one – day Industrial Visit was organized by IETE-SF of D.J.

Sanghvi College of Engineering on 17thMarch, 2016 to The Coca-Cola Plant

situated in Wada, Maharashtra.

The group was taken to the training hall first after reaching the site. Within the

plant premises, the Plant Managertook charge and had taken the group to the plant around noon and briefed up with the introduction about the plant as well as the number of production lines. The products were segregated in three categories:-Carbonated Soft Drinks[CSD], Juices, and Aerated Water.

BOTTLE MANUFACTURING UNIT:-

The bottles were manufactured in a separate part of the factory. There were two types of bottles manufactured namely, Reusable Glass Bottle (RGB) and Plastic PET bottles.

PET Vials(or preforms) are lined up on a conveyor belt and the air is blown into them, inside a bottle shaped mould. Thus, shaping it up and then cooled down. The bottles are then washed using normal soft water whose water intake is taken from nearby Vaitarna River.

One amusing fact is that 600 bottles are produced per minute, on one line. The production lines for each beverage were separate.

The beverages they produce are

Thumbs Up

Maaza

Sprite

Fanta

Coke

Kinley

BOTTLE FILLING:-

Before filling the beverages in their respective bottles, it is required that the bottles need to be sterilized. So, they are heated up to 95oC, also known as Filling

Temperature. The bottle-necks are then held and their crowning is performed. Crowning is a process wherein the bottles are shut with their lids on tightly.

The Plant Manager also mentioned about every activity happening in the plant

like washing of bottles, filling, capping, labeling and packaging. He also answered the queries of the students regarding marketing and manufacturing.

PPE ZONE:-

This was the plant where Maaza was manufactured separately. RGB Line was utilized, different from the usual used for the CSD. The juice that is to be filled is brought from the Jalgaon Company Plant.

The drink is segregated in two parts, namely, concentrated Mango Pulp, Raw

sugar, and filtered water. The composition is then filtered and heated up in a specialized chamber at 300oC with Caustic Soda and Hot water.

The bottles are then passed through Dip cleaning, and Jet cleaning. The bottles are then passed through a Bottle Inspection Machine to check for dirt, etc. using

specialized software.

The plant is fully automated. Students were amazed at the speed at which the process occurred and how the automated systems could work according to the

requirements. The manufacturing process adopted by them is batch process.

Advantages of batch process:-.

a. For large scale production, batch process reduces the production time and

increases the overall efficiency of the plant

b. Leading to reduced manufacturing and storage costs

STORAGE:-

Their motto is first in, first out. The cold storage temperature is –9oC. CSD are

stored in three parts dry part, liquid part, and raw syrup.

TERMINAL STAGE:-

The last stage involved Palletization and Packaging.

1.5 Lakh cases are produced per day where every case consists of 15 bottles on

an average.

Waste water is processed at an EPP plant and then is reused for gardening, for washroom, etc.

CONCLUSION:-

The plant is very hygienic and workers (including us) were supposed to wear hair caps while touring the plant site.

The industrial visit to Coca-Cola was an enriching experience for students in getting live exposure of manufacturing which can help them in their internships

and further career enhancements.

Industrial Visit to Coca-Cola Plant

17th March 2016

Industrial visit to Coca- Cola plant with Dr. Amit Deshmukh (Professor and Head, EXTC,

DJSCE), Prof. Venkata A.P.C. and Prof. Tushar Sawant

REPORT ON DJ SPARK 2016

The IETE-SF of DJ Sanghvi college of Engineering held its flagship

event, DJSPARK, on the 9th of April, 2016. IETE-SF aims at

encouraging the brilliant minds to go that extra mile to aspire and

innovate. DJSPARK 2016 undoubtedly, did just that. Students all over

Maharashtra submitted in their project papers, which were reviewed

by our erudite professors and the top 27 projects were chosen to be

displayed at the competition and also would be published in the DJ

Spark journal which has an ISBN number. The number of paper

submissions received for this event was huge, and we had a staggering

20% acceptance rate and we had only a certain number of slots

available. We had broken all our records of outhouse submissions in

this 5TH edition of our very own event.

On the day of the competition, the students arrived before time, with

the zeal to compete and win. The projects were all prepared for

display. The event commenced with a ribbon cutting and lighting of

the lamp by our Honourable Principal sir, Dr. Hari Vasudevan, our

Vice Principals, Daptardar Sir and Joshi Sir, the HOD of the EXTC

department, Dr Amit A .Deshmukh, in the presence of numerous

esteemed professors from the college.

It was our honour to have a revered panel of judges;

1. Mr Pritam Bhosle: He is the Global R&D Manager,

Mammography Solutions at Philips Healthcare.

2. Mr. Rahul Abhyankar: He is working as an Entrepreneur at Insight

Pro Consult Tech.

3. Dr. Saurabh Mehta: He is the CTO of Vayve Technologies.

The judges made a tremendous effort to examine each and every

project and then give their views. All three judges individually

reviewed every project on display, meticulously listened to every

student and then engaged the students in an intellectual discussion,

asking question, providing constructive criticism as well as inputs to

improve the quality of the project. The judges separately marked each

project and the average of the three judges was considered for the final

result.

After the inauguration ceremony, the judges visited the stalls given to

each teams to evaluate. At around 1 we took the lunch break. All the

teams wherein were served lunch along with the faculty members of

the college. The IETE-SF organizing team were constantly on their

toes for making everything pass smoothly without any glitches.

The participants displayed their aptitude in all spheres of life. There

were projects to protect our environment and curb deterioration using

smart gadgets. There were projects based on 3-D printing, robotics,

utilities for helping the blind, a smart bag, robotic arms, as well as a

mobile protection application, a website for college amenities like

attendance, games on ghost typing, automatic lawn lowers and traffic

signals, to name a few.

The organizing team had done an incredible job with technical

attractions like a Line follower robot, an LED board and a rotating

billboard welcoming all the students and teachers at the event. The

college, especially the Electronics and Telecommunications

department was decorated with drawings and circuits all pertaining to

the context of the event.

The closing ceremony was conducted in our college seminar hall

where our Principal sir was all praises for the execution and quality of

the event. Principal sir gave a short speech appreciating the hard work

put in by the participants, the organizers and the faculty members to

have pulled of a smooth and excellent competition, all the in duration

of one day.

Our revered HOD Sir, then declared the winners of the competition.

In third place was a team from second year of DJ Sanghvi college who

made a project titled ‘Application of Gesture Recognition and Ghost

Typing for Controllers’. For the first time in the history of the event,

we had two teams tied at 2nd Runners up place. A Third year Computer

Engineering team from KC College Thane won that place with the

project titled ‘MOBIPROTECTOR’.

The first runner-up was a team from Ramrao Adik Institute of

Technology who had their project on ‘Automated College Attendance

System’.

Finally, in first place came the project ‘Smart Utilities for the Blind’,

which was a team of final year students from DJ Sanghvi College of

Engineering.

The feedback from the participants only added glory to the event. The

comments ranged right from the delicious food, to appreciating the

organizing team as well as the valuable input given by the judges.

All in all, the event was carried out smoothly, with very few glitches

and we can proudly say, DJ Spark 2016, was an absolute success.

1. Photo Gallery

D J Spark 2016 – 9th April 2016

D J Spark 2016 Inauguration by Dr. Hari Vasudevan (Principal DJSCE) with Dr. Amit

Deshmukh (Professor and Head, EXTC, DJSCE)

Release of DJ Spark Proceedings by Dr. Hari Vasudevan (Principal DJSCE) with

Dr. Amit Deshmukh (Professor and Head, EXTC, DJSCE) and Industry judges, Mr

Pritam Bhosle (Global R&D Manager, Mammography Solutions at Philips

ealthcare), Mr. Rahul Abhyankar (Insight Pro Consult Tech) and Dr. Saurabh Mehta

(CTO, Vayve Technologies).

D J Spark 2016 – 9th April 2016

Mr. Rahul Abhyankar (Insight Pro Consult Tech) discussing with the students about

their project.

D J Spark 2016 – 9th April 2016

Winner team of D J Spark 2016 receving certificate from Dr. Hari Vasudevan (Principal

DJSCE)

IInd runner up team receiving certificate from Mr. Rahul Abhyankar (Insight Pro

Consult Tech)

Tech Expo – 7th and 9th April 2016

BE and TE students project display in Tech- Expo 2016

Thank you!!