Application Portfolio | MSc in Building Technology track, TU Delft

PORT FOLIO DAMARLA ANJANA VASUKI Selected works 2019 - 2023

Application for Msc Architecture, Urbanism and Building Sciences Track: Building Technology 1

MOTIVATION LETTER SUMMARY

CONTENTS

I consider it a privilege to be submitting my application for the Building Technology track at the

Motivational Letter Summary + Contents

esteemed MSc Architecture, Urbanism and Building Sciences programme at TU Delft. In the beginning of my ninth grade, my exploration strengthened from a fascination with grand structures to a comprehensive understanding of design principles and the resilience of vernacular architecture.

Recognizing the importance of sustainability and the role of building technology in addressing developing challenges and I deepened my expertise during the COVID-19 period, focusing on simulations and building information modeling. This master’s programme serves as a catalyst for my growth as an architect in the real world, providing a platform to understand and research the technical aspects of designing innovative solutions for achieving sustainable building construction factors. Joining TU Delft represents my commitment to positively affect the built environment, harness new skills, and contribute to a sustainable future through innovative design.

I’m drawn to TU Delft’s renowned MSc Building Technology track, known for its global prestige and diversity. The opportunity to interact with diverse perspectives among fellow students and experienced professors excites me, fostering personal and intellectual growth. TU Delft’s cutting-edge research facilities, including Bucky Lab and Green Village, offer a hands-on approach to exploring the technical aspects of my innovative ideas besides extensive architectural experience. I value the university’s commitment to translating ideas into reality, and I believe the inclusive access to these resources will facilitate continuous learning and substantial development for every student.

Embarking on TU Delft’s Building Technology track excites me, aligning seamlessly with my aspirations for a diverse academic journey. Specializations, spanning from Structural Design to Design Informatics, promise a holistic exploration of material importance, sustainability research, and computational design for achieving net-zero goals. TU Delft’s commitment to sustainability perfectly aligns with my goal of contributing to eco-friendly urban landscapes.

01 02 03 04 05

AIKYAM

2

3-7

Community Centre

AROHANA

8-14

Museum Memorial

AVINYA

15-19

Architect’s Office

SOLAR DECATHLON INDIA

20-26

Lodha School

MISCELLANEOUS

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Documentation+ Volunteering+ Rhino + Graphic Designs + 3D Graphic Designs+ Photography

Integrating computational design adds innovation to my academic pursuit, where technology becomes a key driver for optimizing energy performance. I eagerly expect to immerse myself in this transformative approach, enhancing design efficiency. The prospect of delving into Climate Design and Façade & Product Design specializations further enriches my exploration, promising a comprehensive perspective on the nuanced relationship between buildings and climate.

Choosing TU Delft’s Building Technology track, I envision a transformative journey for fostering a deeper understanding and mastering crucial skills. This aligns with my commitment to sustainable practices, innovative design, and the transformative potential of computational methods. It marks the beginning of an exciting and enriching chapter in my academic and professional journey.

I am enthusiastic about continuing my architectural journey at TU Delft, believing in design’s power to shape a better world.

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01

AIKYAM

COMMUNITY CENTER

LEVEL: 3 (2nd semester) DATE: April - June (2022) LOCATION: Pochampally, India PROJECT TYPE: Academic(Individual) SUPERVISORS: Dr. PhaniSree Vagvala(phanisreev@ jnafau.ac.in), Shaik Sameer(shaiksameer.arch@jnafau. ac.in), Sirisha Junjur(sirishaj.arch@jnafau.ac.in), Lavanya Reddy Padala(plavanyareddy.arch@jnafau.ac.in)

TOTAL AREA : 33,263.90 sqm

Pochampally, a bustling town in the Indian state of Telangana, is well-known for its rich cultural legacy, particularly its famed handloom industry.

Community centers play a vital role in uniting people, providing spaces for interaction, learning, and essential services. The faculty permitted us to conduct a case study and survey of Pochampally, gaining insights into its rural lifestyle and cultural aspects. This exploration revealed the seamless integration of workplaces with residences, emphasizing features like courtyards for passive cooling using locally sourced materials like terracotta roofing tiles and adobe bricks. These elements facilitated a naturally cool interior during hot summer days without the need for electrical devices, complemented by surrounding trees enhancing natural airflow.

The design objective was to create a community center for villagers to engage in work, exhibitions, learning, and celebrations, fostering the preservation of their enduring culture. This initiative aimed to offer the world an opportunity to learn about the rich narrative of Pochampally.

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AIM

OBJECTIVES

Primary goal is to revive Pochampally’s past

Use of different local techniques and methodologies to

glory and preserve its traditional practices.

design the community center in traditional vernacular style.

Through strategic initiatives, I aim to celebrate

•

the village’s rich heritage, ensuring a sustainable and culturally vibrant future.

Utilization of Traditional Materials (Vernacular Architecture): Adobe bricks, bamboo framing, and locally quarried stone for foundation, reflecting the indigenous building

CONCEPT EVOLUTION 1

Built-up Service Area Entry

practices of the area.

2

•

3

Employment of Traditional Roof Tiles: Encompass terracotta shingles, adding both historical relevance and environmental resilience to the

Site Entry

architectural design.

•

Integration of Sustainable Construction Practices: Incorporation of passive design

Massing Total Built-up Area

Zoning

Massing

5

4

Market Area

Learning Centre

and traditional terracotta jali for natural

Residential Block

light and ventilation, inspired by the

Banquet Hall

sustainable practices inherent in

Community Hall

vernacular architecture.

Indoor Sports Room

Admin

Connectivity

principles, such as optimal orientation

Handloom Park Final Iteration

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Incorporation of Traditional Indian Columns: Use of intricately carved wooden pillars reminiscent of traditional Indian styles, contributing to a visually compelling and culturally resonant architectural aesthetic.

DETAIL OF BRICK JALI

Module 1

Module 2

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SITE PLAN

The site plan shows the connectivity between each building. I attempted to emphasise the

interconnectedness of the handloom park and other blocks, making it accessible to residents as well as visitors of the town.There are two entrances ( one for the visitors and the other for the villagers) and one service entry at the northeast side of the site. It will have an access to the banquet hall.

ENTRY

2

10

5

PARKING

ENTRY

9

8

1 4

ENTRY

6 7

PARKING

1. Admin block 2. Market area 3. Handloom park 4. Shops 5. Learning centre 6. Cafeteria 7. Indoor sports room 8. Communtiy hall 9. Banquet hall 10. Residential block

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DETAIL OF ROOF

DETAIL OF COLUMN

The Wooden Pratt truss has be proposed to every building on the site as it provides excellent strength and load-bearing capacity and can be made by locally available materials. The drawings show the details involved in the construction of the Pratt truss roofing system.

Booster Tile Bird Stop

Underlayment Roof Sheathing Rafter

c a

c’

a’ Section-aa’

Teracotta Roofing Tile Detail Ridge

Top chord Roofing tile Bolts

0.4M EXPOSURE

Roof batten

Section-bb’

0.48M TILE

Strut

0.3M EXPOSURE 0.27M

b

b’

Web Truss plate

Tile Detail Section-cc’

Support WOODEN PRATT TRUSS

Column

TRADITIONAL WOODEN COLUMN

SITE SECTION The section cuts through the handloom park, shops, and learning center, revealing the varying levels between the building blocks on the site.

Handloom Park

Shops

Nataraja Statue

Learning Centre

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LEARNING CENTRE

HANDLOOM PARK

RESIDENTIAL BLOCK

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02

AROHANA MUSEUM MEMORIAL LEVEL: 3 (2nd semester) DATE: June - August (2022) LOCATION: Ujjain, India PROJECT TYPE: Academic (Individual) SUPERVISORS: Dr. PhaniSree Vagvala(phanisreev@ jnafau.ac.in), Shaik Sameer(shaiksameer.arch@jnafau. ac.in), Sirisha Junjur(sirishaj.arch@jnafau.ac.in), Lavanya Reddy Padala(plavanyareddy.arch@jnafau.ac.in) TOTAL AREA : 24,500sqm

Ujjain, an ancient city nestled on the banks of the Shipra River in central India, holds a significant place in the India’s history, culture, and scientific heritage.

Despite colonial challenges, India’s pre-independence era saw a remarkable rise in scientific thought and discoveries. Indian scientists of the time made significant contributions to several subjects, including mathematics, astronomy, physics, chemistry, and medicine.

The brief involved creating plans for a Landmark Memorial and Museum with the aim of providing lasting homage to scientists while also educating the younger generation about their significant contributions to science during the pre-independence era. This was part of an architectural design competition organized by the Madhya Pradesh Council of Science and Technology.

The design allowed for exploration of various concepts, including environmental friendliness, sustainability, green building practices, connectivity & flow, and a vernacular style of architecture. The designated land is situated within the Planetarium Complex in the city of Ujjain, Madhya Pradesh.

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AIM

OBJECTIVES

The design aims to pay tribute to pre-independence era Indian

Utilizing diverse local approaches and

scientists while seamlessly integrating the museum’s purpose

methods for designing and experimenting

with the memorial. The vision is to establish a strong connection

with materials, such as Glass Fiber Reinforced

and functional synergy between the two. As Ujjain has a humid

Concrete (GFRC), allows for the creation of

subtropical climate, incorporating a jali (which is inspired by

intricate shapes. GFRC’s superior strength-

the gandi feature of temples in Ujjain), is not only aesthetically

to-weight ratio makes it both stronger and

pleasing but also makes the spaces comfort well-being in the

lighter than conventional concrete.

interiors.

CONCEPT EVOLUTION Built-up Area

1

2

3

Zoning as per Site Conditions

Massing with Maximum Built-up Area

serves as a passive cooling wall component

5

4

Massing as per spacing typology

Open Gallery

Memorial Auditorium Seminar

Gallery

These modules are placed according to the space usage.

Parking

Parking

Entrance

Entrance Connectivity

Admin

TRADITIONAL JALI

Final Form

DETAIL OF GFRC JALI

Laminated Glass Jali

Jali

Jali Laminated Glass Door

Module 1

Module 2

Laminated Glass Door

Module 3

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SITE PLAN

6

2 6

7

4 5

Y TR

EN

1

3

7

6

ENTRY

1. Admin and Gallery block 2. Auditorium Block 3. Seminar block 4. Cafeteria 5. Memorial 6. Car Parking 7. Bike Parking

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ADMIN & GALLERY BLOCK

9

5

5

5 14

15

5

4

3 16

5 2

1. Reception & Lobby 2. Waiting area 3. Ticket counter 4. Cloak room 5. Gallery 6. Janitor room 7. Men’s toilet 8. Women’s toilet 9. Open air gallery

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1 10

5

8

11 2

12

13

10. Director’s room 11. Assistant director 12. Curator room 13. Conference room 14. Office room 15. Staff cafeteria 16. Pantry

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PLAN 7 8

SECTION - AA’

FRONT ELEVATION

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SEMINAR BLOCK AXONOMETRIC VIEW

SECTIONAL DETAIL OF JALI

Dome Skylight

Parapet

Roof

Computer Lab

Women’s toilet

Terrace Lvl

Standard R.C.C Beam

Glass fiber reinforced concrete

Library

Waiting Area

R.C.C Slab

First floor Men’s toilet

Jali made of Glass fiber reinforced concrete Upstand R.C.C Slab Standard R.C.C Beam

Finished Floor Lvl Structural Floor Lvl

Glass fiber reinforced concrete

Seminar hall Spiral Staircase

Central Seating Seminar hall

Reception & Lobby

Ground floor Maintence room

Women’s toilet

Janitor room Men’s toilet

Jali made of Glass fiber reinforced concrete Upstand Plinth

Finished Floor Lvl Structural Floor Lvl Ground Lvl

Earth

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AUDITORIUM

6

5

4

3

7

8

8

AUDITORIUM ENTRANCE

2 6

1

PLAN

1. Reception & Lobby 2. Projector room 3. Stage 4. Back stage 5. Women’s green room 6. Women’s toilet 7. Men’s green room 8. Men’s toilet

CAFETERIA

3

2

1. Seating 2. Kitchen 3. Store room

1

PLAN SECTION - AA’

SECTION - BB’

FRONT ELEVATION

CAFETERIA

FRONT ELEVATION

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03

AVINYA ARCHITECT’S OFFICE LEVEL: 2 (3rd semester) DATE: September- March (2021-2022) LOCATION: Hypothetical Site PROJECT TYPE: Academic (Individual) SUPERVISORS: M.Sitarama Lakshmi(sitajnafau@gmail. com), Padma(mpadmashri.arch@jnafau.ac.in), Shaik Sameer(shaiksameer.arch@jnafau.ac.in) TOTAL AREA: 800 sqm

Architecture is a creative discipline that thrives on innovative ideas and design solutions. Creating and maintaining a good environmental design in an architect’s office is crucial for several reasons, as it can positively impact both the well-being of the occupants and the overall success of the architectural practice.

The brief involved designing an architect’s office for a renowned architect on a hypothetical site.

We were encouraged to use creativity in our design decisions, especially in spatial orientation, to ensure an efficient workflow without any hindrances. The emphasis was on creating a tranquil and homely environment, recognizing that architects spend a significant amount of time in their studios. The faculty instructed us to explore diverse material options and articulate the rationale behind our selections.

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AIM

OBJECTIVES

To create a good architect’s office that offers a stimulating and

By incorporating eco-friendly practices, such as utilizing Recycled

inspiring environment that encourages creative expression.

Steel for the staircase, Reclaimed Wood for flooring, Terracotta roof

I attempted to design an eco-friendly home environment by

tiles, Double glazed glass for windows, and adobe bricks for walls, I

experimenting with new building materials and technology to learn

successfully created a sustainable work environment. These recycled

more about the applications for having a sustainable environment

materials not only contribute to environmental conservation but also

that promotes a better workflow and better wellbeing and has a

enhance the overall eco-conscious design of the space.

contemporary industrial aesthetic.

CONCEPT EVOLUTION 1

2

Built-up Area

3

4 Mezzanine Floor

Toilets

Conference Room Work Space Site Manager Office Structural Manager Office Public Semi-Public Private

Reception & Waiting Senior Architect’s Area Office

Toilets Work Space

Staircase made of Recycled Steel

Reclaimed Wood

Terracotta Tiles

Adobe Bricks

Day Light Simulation For basic understanding of the Lux levels of the design, Hyderabad has been chosen location for the hypothetical site. The simulation was done to understand how much glare is received in the spaces.

Conference Room As lux levels are a

Cheif Architect’s Office

bit high near the windows, doubleglazed glass is proposed to control

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the glare factor.

Ground Floor

Second Floor

From the simulation, Glare control or solar control is used to maintain optimum daylight in the interiors. Overall there is good lux levels in interiors with daylighting which will reduce the dependence on artificial light in the daytime. As a notable aspect of the design for an architect’s office, it will be important to bring in natural light.

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GROUND FLOOR

AXONOMETRIC VIEW

11

12

9

10

Mezzanine Floor

8 A A’

7

5 6 4

First Floor 1 2

3

ENTRY

Ground Floor

ROAD

1. Reception & waiting area 2. Senior Architect’s office 3. Chief Architect’s office 4. Structural Manager office 5. Site Manager office 6. Meeting Room

7. Pantry 8. Work Space 9. Storage/ Documentation & printing Space 10. Model Making Space 11. Men Toilets 12. Women Toilets

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FIRST FLOOR

DETAIL OF ROOF BLOWUP

Wood Rafter

Brick wall Wood Beam

Reinforced Concrete Beam

Roofing tile Tile Batton Counter Batton Water proofing memberane Plank

Interior Plaster

Exterior Adobe Brick wall Facade Plaster 8

9

6

7

SECTION-AA’ A A’

5 LV 10.77M 4

3 1

2

LV 5.75M

LV 3.15M

1. Chief Architect’s office 2. Waiting area 3. Stairs for Mezzanine Floor 4. Meeting Room 5. Work Space

6. Storage/ Documentation & printing Space 7. Model Making Space 8. Men Toilets 9. Women Toilets

LV 0.45M LV

0M

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GROUND FLOOR

FIRST FLOOR

FIRST FLOOR

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04

SOLAR DECATHLON INDIA LODHA SCHOOL LEVEL: 4 (1st -2nd semester) DATE: August(2022) - May (2023) LOCATION: Dhombivili, Mumbai, India.

PROJECT TYPE: Academic / Competition (Group) GROUP MEMBERS: Yateendra, Pranav Raghavan, Chakravarthy, Devendar, Rohan kumar, Nikhil, Anjana Vasuki, Reesha, Sripriya, Jayashree, Akshaya, Deepika, Arun.

ROLE: Team member CONTRIBUTION: Concepts, Calculation of Embodied Carbon, Model Making, Presentations, etc.

SUPERVISORS: Adithya Singaraju (aditya@jnafau.ac.in), Sharmila Durai (chsharmila@jnafau.ac.in), Uday Shankar (pudayshanker.arch@jnafau.ac.in), Karthik Mohan (kartikmahon.arch@jnafau.ac.in) TOTAL AREA : 10,560 sqm

Solar Decathlon India challenges postgraduate

and Value Proposition. Our team, YUKTHA,

and undergraduate student teams from

comprising 13 students with diverse skills,

Indian institutions to combat climate change

focuses on the Educational Building division.

by designing net-zero energy and water

I contributed by researching sustainable

consumption buildings. The competition

materials, calculating embodied carbon,

spans divisions such as Multi-family Housing,

and proposing innovative solutions for the

Educational Building, Office Building,

competition.

Community Resilience Shelter, and On-site Construction Worker Housing. Teams must address ten contests, covering aspects like Energy and Water Performance, Embodied Carbon, Resilience, Engineering, Architecture, Affordability, Innovation, Health and Well-being,

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PROJECT DESCRIPTION

CLIMATE ANALYSIS

The site for the school is part of a

The climate of mumbai is tropical, wet and dry climate. Mumbai’s climate can be best described as moderately hot with high level of humoidity.

larger development consisting of residential, commercial and other public infrastructure. The vision is to design and create a successful school which has an institutional identity, and which supports the residential

•

Location: Dombivili, Mumbai, India

•

Elevation/ Altitude: 11M

•

Average precipitation: 242.2cm(95.35inches)

•

Summer(March to May) Avg temperature - 30o to 27o C

•

Winter(October to February) Avg Temperature - 15o to20o C

development in Upper Thane.

•

Total Site Area : 10,560 SQM

Multi Level Car parking

•

Total Built-up Area : 12,740 SQM

Proposed school building School playground Residential development

Site plan

SITE LOCATION

Dry Bulb Temperature Chart

Relative Humidity Chart

The site is located in Kalyan, Dombivili in the

SKY DOME CHART

state of Maharashtra in India.

From the sky dome shading chart, it can be observed that shading devices are required in the south, west and east directions. With respect to the site, only the south facade requires significant shading devices.

CONTEXT Dombivili is located very near to the Palava

The solar irradiation is highest in the winter months

city, which is smart city developed by Lodha

indicated with red on the chart.

group. The site falls under the seismic zone III

Times of the year when shading is required:-

which is at a moderate damge risk due to

Months of october to february.(Radiation is high

earthquakes.

since sun is closer to the ground surface) Location of Site

CFD STUDY CFD study done to understand the wind flow patterns and direction on the site.

Time of the day shading is required:8:00AM to 3:00PM

PHYSICAL MODEL

Shadows at 11 Am in the morning, February

Shadows at 4pm in the evening, February

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DESIGN ITERATIONS We utilized a matrix to assess various iterations based on parameters such as passive design, fire safety, structural system, low energy consumption, functionality, user experience, aesthetics, and design.

This approach provided clarity on the optimal direction. Iteration 1 was selected as the most suitable for the site, meeting all design parameters.

Iteration 1

Iteration 2

Iteration 3

Iteration 4

Iteration 5

Iteration 6

SOLAR RADIATION ANALYSIS

DESIGN CONCEPT AND FORM EVOLUTION (Iteration 1) 1

A basic block was designed in compliance with project partner specifications and local building codes, adhering to built-up area and ground coverage requirements.

Proposed Residential Towers

Multi-level car parking

2

A void in the front creates a courtyard-like element, promoting passive cooling and natural ventilation

3

The central block subtraction formed a front-facing semi-open entrance, adhering to the traditional regional architecture.

Proposed Retail Stores

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SITE PLAN The site plan shows the connectivity with the surroundings that are proposed retail stores, proposed residential

Service Yard

buildings and multi level car parking.

A service yard is placed on the site to accommodate the STP, generator, inverter and backup for power.

Roof Top Solar Panels

The inverter stores extra energy from the rooftop pv panels for future usage.

The system can also be used to interact with the grid and provide energy to the electricity grid during times of excess storage of energy.

With these facilities, the building can sustain for about 2-3 days without connection to the grid.

Exterior View

LEGEND

View f rom Entrance

Total Site Area Total Built Up Area Play Ground Area Skate Park Area Car Parking Bike Parking Cycle Parking

10,560 SQM 12,740 SQM 3,600 SQM 1,269 SQM 5M X 2.5M 2M X 1M 2M X 1M

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FLOOR PLANS

Gound Floor

A. Pricipal’s Room B. Docket Room C. Secretary to Princi D. Admissions Office E. Medical Room F. Stock Room G. Electrical Room H. Councellor Room I. Sen Room

J. Nursery K. LKG/UKG L. Staff Room M. Pre Primary Hod Room N. Locker O. Janitor Room P. Maintenance Room Q. Girls toilet/ Boys toilet R. Pantry

First Floor

EXPLODED AXONOMETRIC VIEW

A. Administration B. Conference Room C. Waiting Room D. Sports Store Room E. Reprography Room F. Server Room

G. CCTV Room H. Activity Space I. Sports Room J. Classroom K. Girls toilet/ Boys toilet L. Staff room

Fourth Floor

A. Vice Principal’s Room B. Physics Lab C. Chemistry Lab D. Biology Lab E. Activity Space

F. Computer Lab G. Classroom H. Staff Room I. Girls toilet/ Boys toilet

SECTION AND EXTERNAL VIEWS FLAT ROOF

FIFTH FLOOR (9 th,10 th ,HIGHER SECONDARY CLASSES, INDOOR GAMES) FOURTH FLOOR (7TH,8TH CLASSES,,LABS) THIRD FLOOR (5 th, 6 th CLASSES,CURRICULAR ACTIVITIES AND LIBRARY).

Staircase

Central Courtyard

Singly loaded corridors on either sides of the corridor

Top Most Floor

SECOND FLOOR (3 rd, 4 th Classes,Yoga Room, Language Lab) FIRST FLOOR (1 st AND 2 nd Classes) GROUND FLOOR (Admin Block,Nursery,LKG ,UKG)

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EMBODIED CARBON The materials used in the proposed design have lower carbon emissions when compared to the baseline case. By using basic materials like AAC

Earth blocks used for the facade system reduces heat gain in the spaces.

blocks for the wall assembly, the carbon emissions reduces to a great extent compared to the baseline case which is regular brick walls. The solar control glazing also has a low embodied carbon compared to the base case which has aluminium framing. And earth blocks for the facade, and bamboo poles reclaimed from the scaffolding for construction used in the topmost floor.

There is approximately a 62.5% reduction in carbon emissions in the proposed case when compared with the base case value.

A bamboo screen on the top floor facilitates organic farming by permitting light and promoting natural ventilation.

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STRUCTURAL SYSTEM

FACADE DESIGN

Provide a beam of 320x 480 for simply supported

We developed a functional and visually appealing facade with dual roles in shading and ventilation.

beam and 290 x 430 for a continuous beam

The design, not only aesthetically pleasing, is also easily executable on-site, considering practicality

Size of the column= 300 x 545 mm Reinforcement area= 0.8% (300x545) Reinforcement area= 1308 sq mm

and construction techniques. To tackle heat gains from solar radiation, vertical fins block low-angle Shear Walls Enclosing Staircase

winter sun, and horizontal projections shield against high-angle afternoon sun, thus minimizing the cooling load on the HVAC system.

Provide 4 no’s of 12mm dia bar.

8mm Dia bars @25mm c/c

Facade Blowup

ORGANIC FARMING

Sectional Detail of Facade

We propose integrating an organic farming area into the school to enhance pedagogy. Inspired by similar school designs, our vision includes a unique plant-growing system with integrated learning and meditative spaces. On-site water tanks supply recycled grey water, fostering self-sufficiency and innovative learning. This replicable concept can be applied to other buildings

Colored Sloped inset surface panel

INSIDE

Side partition to differentiate between windows Terrace Organic Farming

Vertical Louvre elements Window ledge

Clay brick with hollow parts in between OUTSIDE Facade Yoga Space which receives East morning sun

Outdoor Classrooms

Earth blocks, comprising soil and 6-9% cement, offer high quality with markedly lower embodied energy and carbon emissions (10-12 times less) than country-fired bricks. The brick jali serves as a protective skin, creating a cavity space to mitigate heat gain. Fenestration design maximizes sunlight while minimizing heat gain, and double-glazed windows boost insulation by 40%.

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MISCELLANEOUS Documentation Of Qila Fort Jagityal, India

Volunteering for VOCATIO Career Education Council Hyderabad, India

Jagityal, located in northern Telangana, India, is a notable town with a distinctive historical and cultural background. Over a

Commercial

two-day documentation period, we conducted an extensive

Low Density Residential

survey on the first day, covering its history, past and present conditions, nearby settlements, and growth and decline phases.

The second day focused on precise measurements and thorough

Medium Density Residential

documentation of the Qila fort, an exquisite structure dating back to the 17th century. The star-shaped fort, surrounded by water,

High Density Residential

is believed to have been designed and built by two European engineers, Tal and Jack. My personal contribution included

Open Areas

detailed measurements of the fort’s ten cannons, noting their dimensions and specific heights.

Land Use Map

G.P Birla Centre Hyderabad India (2023)

As a volunteer at Vocatio’s ‘Career Kaleidoscope’ event, Qila Fort

I helped showcase 100 detailed career posters, offering insights into various professions. It was fulfilling to see attendees, including students and children, actively participating in interactive games designed to make the exploration process enjoyable and hands-on. The event took a comprehensive approach by combining visual displays with practical experiences. On-site, I and dedicated career counselors addressed queries from schools, kids, and parents, providing a personalized touch to their exploration. ‘Career Kaleidoscope’ stood out as an inspiring platform, sparking curiosity and guiding the next generation through the vast world of career possibilities.

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Rhino

Graphic Designs

Parametric Bench Software used: Illustrator

3D Graphic Designs

Baori Algorithmic Architecture

Software used: Blender

Model Making

Italian Pavilion, Shanghai Expo 2010

Hanmade wooden Mini Furniture (2020)

Strecher Bond made with sheet bricks (2019) Ziggurat Model (2021)

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Photography

Railway station (2022)

Chowmahalla Palace Hyderabad, India (2021)

Cafe (2023)

Infosys Campus Mysore (2023)

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+91 9490049605 anjanavasuki50@gmail.com https://www.linkedin.com/in/anjana-vasuki20011215

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