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NCERT Solutions Class 8 Social Science Chapter 10 a Journey Through Indian Architecture

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Page 1

F R E E S T U D Y M AT E R I A L F O R E V E R Y S T U D E N T

CLASS 8 · SOCIAL SCIENCE

NCERT Solutions

Chapter 10: A Journey Through
Indian Architecture

NCERT Textbook — Exploring Society: India And Beyond

BOOK PAGES SECTIONS QUESTIONS MEDIUM

Part II, 85 – 124 10 24 English

Solutions, notes, sample papers & more at 48 pages

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

CLASS 8 · SOCIAL SCIENCE · EXPLORING SOCIETY: INDIA AND BEYOND

NCERT Solutions — Chapter 10: A Journey Through
Indian Architecture
Architecture is both an art and a highly technical field, and this chapter travels through five thousand years
of it — from the drains of Mohenjo-daro to the Madras High Court — stopping at stupas, rock-cut caves,
stepwells, temples, mosques, forts, tombs, houses and churches to ask not only what each looks like but why
it was built that way.

TEXTBOOK BOOK PAGES

Exploring Society: India and Beyond (Class 8) Part II, 85 – 124

SECTIONS QUESTIONS

10 24

MEDIUM

English

The Big Questions — Page 85
Chapter opener

THE BIG QUESTIONS

Q1 What role has architecture played in the Indian civilisation?

ANSWER

Architecture has been the physical frame of Indian civilisation — it housed daily life, gave
religion a place to happen, carried ideas that words alone could not, displayed power, and
pushed technology forward. The chapter shows this in six different ways.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

ROLE THE CHAPTER’S EVIDENCE

It organised city Harappan cities are the earliest known tradition of urban planning in the subcontinent
life — laid-out streets and lanes oriented to the cardinal directions, standardised
construction, bathing areas in almost every home and drains that took used water out
of the city (Mohenjo-daro, Figs. 3.4–3.5; Dholavira, Fig. 3.7).

It gave religion Each faith produced its own architecture: stupas with railings and toraṇas for
a form Buddhism and Jainism, rock-cut caves for monks, temples with a garbhagṛiha and
śhikhara, mosques with a prayer hall facing Mecca, gurudwaras such as the
Harmandir Sahib, and churches — European in style at St Philomena’s, but with
Kerala’s sloped tiled roof and even a temple-style stambha at Mulanthuruthy.

It carried A temple is planned as the body of Puruṣha, the cosmic being, and the walk from the
thought entrance to the garbhagṛiha mirrors a spiritual journey from the outer world to the
inner. Architecture here is a way of thinking made solid — as the chapter’s opening
quotation from Ananda Coomaraswamy puts it, the craftsman gives expression to
‘ideals of eternal beauty and unchanging laws’.

It was a centre Temples were places of worship but also of learning, literature, sculpture, dance,
of economy and music and painting, and centres of social and economic life. Sharada Peetha in
learning Kashmir was a renowned centre of learning that gave the region the name Śhāradā
Deśh.

It stated Forts protected kingdoms and commanded routes; palaces displayed a dynasty’s
political power wealth; mausoleums such as Humayun’s Tomb ‘stood as a testament to the greatness
of the royalty or their dynasty’. The Agra Fort was rebuilt because Akbar chose to make
his capital there.

It drove Wells that cannot collapse inward because of interlocking trapezoid bricks; reservoirs
technology fed by a channel from a flooding river; thousands of tonnes of rock chipped away to
leave the monolithic Kailaśha Temple; Persian wheels lifting Yamuna water into
overhead tanks to run the Agra Fort’s fountains. Temple planning, recent studies show,
needed advanced geometry.

Why it matters: notice that none of these roles is decorative. A drain, a dome and a
doorway all solve a problem — how to keep a city clean, how to cover a space with
the materials at hand, how to move a worshipper from the everyday world into a
sacred one. Indian architecture is best read as a long record of such problems being
solved, in dozens of climates, with whatever the land provided.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Q2 What are some of the key concepts and developments behind Indian architecture?

ANSWER

Six ideas run through the whole journey, from Mohenjo-daro to the Madras High Court.

Build with what the land gives. Most Harappan cities used brick because they stood on
alluvial plains where clay is abundant; Dholavira used stone because stone was locally
available. Later the same rule holds — yellow sandstone at Ahmedabad, red sandstone from
Dholpur for the Agra Fort, white marble from the nearby Aravalli hills at Dilwara, sandstone
and laterite at the Lingarāja Temple, brick and terracotta in the clay country of Bengal, teak
and tile in Kerala. Material is not a matter of taste; it decides what shapes are possible.
Stability without cement. None of the structures discussed uses cement mortar. Stability
comes instead from mass, from cutting blocks so precisely that they sit tight, from
interlocking shapes — the Harappan well’s trapezoid bricks lock together so the ring cannot
be pushed inward — and from corbelling, stacking blocks like a staircase to close a gap.
Two opposite ways of making a building. Structural architecture adds: bricks and blocks
are placed one on another. Rock-cut architecture subtracts: many thousands of tonnes of rock
are chipped away and what remains is the building, pillars and sculpture included. The
colossal monolithic Kailaśha Temple at Ellora is the extreme case.
Circumambulation. At Sanchi a worshipper walks around the stupa inside the vedikā; in
Ellora’s cave 10 monks walk around the stupa in the aisle outside the row of pillars; in a
classical temple the same movement becomes the pradakṣhiṇa corridor around the
garbhagṛiha. One ritual idea shapes three quite different buildings.
The plan as a symbol. Classical temples are laid out both horizontally and vertically as the
body of Puruṣha; the tower over the garbhagṛiha corresponds to the head, the platform to
the feet. Temple building followed the rules of śhilpaśhāstra.
Growth in scale, and blending. Until the 8th or 9th century temples were modest; from the
10th century they grew into vast complexes with multiple shrines, amenities and prākāras.
And where traditions met, they mixed — domes, pointed and corbelled arches, jālis and
floral motifs join Indian craftsmanship as Indo-Islamic architecture, and the same mixing
reappears in the colonial Indo-Saracenic style.

Did you know? The chapter’s timeline (Fig. 3.2) is worth reading as an argument, not
a list: Dholavira at 2600 BCE, Sanchi in the 3rd–1st centuries BCE, Ellora in 600–900
CE, Bṛihadīśhvara in 1010 CE, Rani ki Vav in 1063, the Taj in the 17th century, Mysuru
Palace in the 20th. No style ever replaced the one before it — they accumulated.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

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How is the heritage of Indian architecture of relevance today?
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ANSWER
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It isgrelevant in four practical ways, and one duty.

It is still in use. These are not ruins in a display case. Temples, mosques, gurudwaras and

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churches described here — the Golden Temple, Delhi’s Jama Masjid, the Jageshwar group,
ag
the Kerala churches — are living placeseof
s mworship. Mehrangarh Fort and the Victoria
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gl many havelis are now hotels. A heritage that earns its
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keep is far more likely to survive.

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It teaches climate-sensible building. Before electricity, buildings had to cool themselves.
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Jodhpur’s traditional houses do it with meandering streets, open courtyards, jāli windows for

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gwater from overhead
.c blue colour and is said to repel termites. The Agra Fort ran
ventilation, thick walls and balconies — and a lime and copper-sulphate wash that gives the

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town its

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a country facing rising temperatures and rising power bills has good reason to study these
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It teaches water management. India is water-stressed, and this heritage is full of answers:
agl
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interlocking-brick wells, silt-settling reservoirs at Shringaverpur, stepwells that harvested and
stored rainwater, temple puṣhkariṇīs.
waste dumping — reviving them is a direct gain, not only a heritage gesture.

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It supports skills and livelihoods. Stone carving, terracotta modelling, fresco painting,
woodwork and lime plastering are living crafts. If the monuments go, m
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will be lost unless citizens feel equally responsible and, to begin with, learn to
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asFundamental Duties the duty ‘… to value and preserve
appreciate and admire this labour of our ancestors’. That is exactly why the

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Constitution lists among our
the rich heritage of our composite culture’.

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m a s em In the 1970s,
Check it yourself: the Taj Mahal shows how this works in practice.

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ccoal-burning a gl on the marble. An expert
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local industry began leaving a yellowish tinge

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a industry in the area followed in the mid-1990s. Awareness, evidence and law
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LET’S EXPLORE — Page 95 a

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Rock-Cut Architecture

LET’S EXPLORE

Q1 Form groups in the class to discuss the following: Imagine you have only hammers
and iron chisels. How will you plan the carving of such a huge cave? What
challenges might the hillside offer? And once you reach the nave (Fig. 3.13), how will
you manage to carve arched beams into its ceiling?

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

BUDDHA
IMAGE

AISLE

NAVE

DOOR

VERANDAH

COURTYARD

ENTRANCE

Fig. 3.13, page 95 — the ground plan of cave no. 10 at Ellora, redrawn. The hatched area
is solid rock.

ANSWER

The one rule that decides everything: rock-cut work is subtractive, and there is no undo. A
mason who lays a bad brick can lift it out. A carver who cuts away rock can never put it back. So

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

the whole plan is built around cutting in an order that keeps mistakes cheap and keeps you
standing on rock you have not yet removed.

The working order

1. Choose the rock — a tall, sound scarp of even-grained rock, free of large cracks and

joints. Test it with a chisel before you commit.

2. Mark the plan (Fig. 3.13) on the rock face: entrance, verandah, the rounded far end.
3. Cut from the top downward, and from the front inward.

4. Shape the vault first, at the face; then drive the same profile back into the hill.

5. Cut the walls and floor down beneath it.

6. Leave uncut rock where the pillars, the stupa and the Buddha image will be. Only at the

very end carve them to their final form.

Why that order and no other:

Top down, because the ceiling is the hardest surface to reach. Cut it while there is
still solid rock below you to stand on, and you never need a scaffold. Cut the floor
first and you would have to build one.
Front inward, because the debris then rolls out of the cave and down the hillside
on its own. In a cave with one opening, moving spoil is a bigger job than cutting.
Pillars are left, not built. A pillar in a cave is simply the rock you chose not to
remove — which is why you must decide where every pillar goes before you start
cutting, not after.
Finish last. Rough out everything, then polish. A finished surface that later gets
hit by a falling block is wasted work.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

1. Cut down
from the top

solid
hillside
2. Drive the same arched profile back into the hill

3. Then cut
walls and floor stupa
— spoil rolls out

pillars = rock you leave uncut

Section through a cave being carved. The order — top down, front inward — is forced on the carvers
by gravity, not chosen for convenience.

What the hillside can throw at you.

Hidden flaws. A crack, a soft seam or a fault line running through the rock may only appear
after months of cutting — and it can wreck a ceiling that is already half finished. This is why
builders tested the scarp first and why some caves were abandoned unfinished.
Water. Rainwater seeps along joints in the rock and drips into the cave. Carvers cut drip-
channels above the openings and gave the floor a slight fall so water runs out.
Light and air. There is only one opening. Deep inside you work by oil lamps and by light
bounced off polished stone or a sheet of water, in air thick with rock dust.
Debris. Thousands of tonnes of chips have to be carried out and tipped down the slope, and
the tipped rock must not block the entrance you are still using.
Tools. Iron chisels blunt quickly on hard rock, so a smithy has to work beside the site, re-
tempering points all day.

The arched ‘beams’ in the ceiling. Look at Fig. 3.12: the vault of Ellora’s cave 10 has curved ribs
running across it like the timber beams of a wooden roof. They carry nothing — the text says
the arched roof imitates beams of timber that existed in some of the urban buildings. Here is
how you would get them:

1. On the flat rock at the front, draw the arch full size. Fix a peg at the centre of the curve and
swing a cord like a giant compass; cut that profile into the face.
2. Cut a wooden template to the same curve. Every metre or so as you drive the cave
backwards, hold the template up against the ceiling to check that the profile has not drifted.
3. Mark the position of every rib on the ceiling before cutting the vault to its final surface.
4. Cut away the rock between the marked ribs, sinking the surface a few centimetres. The ribs
are simply the strips you did not lower — exactly the same trick as the pillars.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

co m
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Try This: take a bar of soap and a blunt knife. Cut a groove down the middle, then

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cut a second groove beside it, leaving a thin ridge standing between them. That
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FIG. 3.13
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CLASSICAL TEMPLE

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the stupa at the far The focus of the whole plan, which the garbhagṛiha, holding the mūrti
end worshipper faces and walks around

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Did you know? ‘Nave’ and ‘aisle’ are borrowed from the vocabulary of European
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churches, and they fit the cave only because a church and a rock-cut prayer hall

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LET’S EXPLORE — Page

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Classical Temple Architecture

LET’S EXPLORE

Q1 Looking at Fig. 3.18, can you work out the horizontal equivalence between a temple
and the cosmic being?

secondary shrines

garbhagṛiha maṇḍapa

prākāra pradakṣhina corridor gopuram

from outer to inner

Fig. 3.18, page 99 — simplified ground plan of the Bṛihadīśhvara Temple, redrawn with
the book’s own labels. The entrance is on the right, the sanctum on the left.

ANSWER

Yes. Fig. 3.19 lays Puruṣha out standing up — the top of the śhikhara is the head, the platform
the feet. Fig. 3.18 is a ground plan, so the same body is now lying down along the main axis,
with the head at the far, innermost end and the feet at the entrance.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

PART OF THE PLAN PART OF THE WHY THE MATCH WORKS
(FIG. 3.18) COSMIC
BEING

garbhagṛiha the head It is the innermost, most protected chamber, and it
holds the mūrti — as the head holds consciousness. The
vimāna rises directly above it.

the narrow passage the neck A deliberate narrowing joins the head to the body — the
between garbhagṛiha and plan pinches in at exactly this point.
maṇḍapa

the maṇḍapas the body — chest The largest, widest spaces, where people actually
and abdomen gather; the trunk of the plan.

side shrines and pavilions the arms They project sideways from the trunk, in pairs, balanced
flanking the axis left and right.

gopuram (the ceremonial the feet Where the body meets the ground, and where the
entrance) worshipper first makes contact with the temple.

prākāra (enclosure wall) the skin, the It marks where the temple-body ends and the outer
boundary of the world begins.
body

prākāra — the skin of the body
side shrines = arms

garbhagṛiha = head

neck maṇḍapas = body gopuram = feet

from outer to inner — from the feet to the head

The plan of Fig. 3.18 read as a body lying along the east–west axis. The dashed line inside the
maṇḍapas marks where one hall ends and the next begins.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Why the idea holds together: the arrow printed across the bottom of Fig. 3.18 says
‘from outer to inner’. Walking that way, you enter at the feet and end at the head.
That is exactly the journey the text describes — from the outer world, left behind at
the entrance, to the inner world awaiting in the garbhagṛiha, ‘mirroring our own
spiritual journey’. The plan is not a diagram of a body pasted onto a building; the
movement through the building is the meaning.

Tip: different śhilpaśhāstra texts describe the correspondence with slightly different
names and divisions, so do not expect one fixed list. What every version agrees on is
the direction: sanctum = head, entrance = feet, and the worshipper travels from one
to the other.

LET’S EXPLORE — Page 103

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Classical Temple Architecture

LET’S EXPLORE

Q1 India’s classical temples come in distinct regional styles. For instance, note the
pyramidal shape of Bṛihadīśhvara Temple’s vimāna and compare with the shapes in
Fig. 3.19. Revisit the pictures of the Angkor Wat and Kandāriyā Mahādeva Temples
and note the chief differences you can observe.

Kalasa

Amala

Sikha (Tuft)

Mukham (Face)

Galam (Neck) Bhumi
Bhu-mulam (Shoulder)

Karakaram (Arm)
Rahapaga

Janu-mandalam (Knee)
Bada

Charanam (Foot)
Peetham Peetham

NAGARA VIMANAM THE DEITY KALINGA VIMANAM

Fig. 3.19, page 100 — ‘The temple as Puruṣha’, redrawn in outline: the nāgara tower, the
standing deity and the kaliṅga tower drawn to the same height, with the levels that
match one another. (The book says you need not remember the technical terms.)

ANSWER

The chief difference is in the outline of the tower — whether it climbs in straight steps or in a
curve — and then in how many towers there are and how the whole complex is laid out around
them.

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co m
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TEMPLE SHAPE OF THE TOWER OTHER DIFFERENCES TO NOTICE

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A south Indian vimāna, over 60 m high, in
Bṛihadīśhvara, A straight-sided pyramid, built of

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Thanjavur (Fig. granite. The entrance is a gopuram; a huge

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miniature shrines. Crowned by a
Nandi carved from one stone faces the
shrine from its own pavilion.
single heavy cupola.

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The two towers in A smooth inward curve: the sides rise This is the north Indian and Odishan

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Fig. 3.19 (Nagara vertically, then bend in towards the śhikhara — the shape you see on the
and Kalinga) top. Capped by a ribbed Lingarāja Temple (Figs. 3.22–3.23).
pot-shaped finial.

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Kandāriyā The same curve, but clustered: the The whole temple stands on a single high

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Mahādeva, tall central śhikhara is surrounded by plinth, is compact rather than sprawling,

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and its outer walls

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Angkor Wat, Five towers arranged four-at-the- Enormous horizontal spread: long galleries,

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Cambodia corners-with-one-in-the-middle, causeways, a huge rectangular moat. Here

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stepped terraces.

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planned landscape, not the whole point of
the design.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Why the shapes differ — and it is not only taste. The material and the method
push each region towards its own outline.

Thanjavur’s granite is extremely hard and heavy. It is easiest to lay in level
courses and step each course slightly inward — which produces, naturally, a
pyramid of storeys. Corbelling upward in straight steps is also the safest way to
close a tall hollow tower without a true arch.
Northern and Odishan sandstone is softer and can be dressed to a curved
profile, so masons could make each course a slightly different shape and build
the smooth inward bend of a rekha śhikhara.
Bengal has no building stone at all, only clay. Its temples are therefore of brick,
and their roofs copy the curved bamboo-and-thatch roof of the region’s village
huts — a shape you can build in small bricks but could never cut in granite.

In every case the question is the same — how do you get height and shelter out of
the material you have? — and each region answered it with what lay under its own
feet.

LET’S EXPLORE — Page 104
Classical Temple Architecture

LET’S EXPLORE

Q1 Make a list of all the materials we have encountered so far in the carving or
construction of structures; make a list of pros and cons for each of them. Did you
notice that none of the structures discussed so far use any cement mortar?

ANSWER

Here is the list, in the order the chapter meets them.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

MATERIAL WHERE IN THE PROS CONS
CHAPTER

Baked brick Most Harappan cities; the Made from clay that is Needs fuel to fire; each
Agra Fort originally; abundant in alluvial plains; unit is small, so a large
Bishnupur temples small, light, standard-sized, span or a tall tower is
so unskilled hands can lay it hard; brick erodes in
fast; a whole city can be built driving rain unless
from local earth faced

Stone — Dholavira; Jama Masjid Cuts and carves easily, Very heavy to quarry
sandstone Ahmedabad (yellow); comes in large blocks, and to move — the
Mehrangarh and Agra weathers well, gives a Agra Fort’s stone had
Fort (red, from Dholpur, building colour without paint to be hauled 60 km;
some 60 km away); softer varieties wear
Lingarāja Temple and stain over time

Stone — granite Bṛihadīśhvara Temple, Extremely strong and So hard that carving is
Thanjavur durable; carvings survive a desperately slow; huge
thousand years; allows blocks demand large
enormous height organised labour and
clever lifting

Stone — marble Dilwara (from the nearby Fine and even-grained, so it Expensive and often
Aravalli hills); Shah takes deep, lace-like distant; softer than
Jahan’s palaces at Agra; undercutting and a polish; granite and easily
the Taj Mahal accepts inlay of coloured scratched; vulnerable
stone; luminous — the Taj to acidic air pollution,
appears to change colour which yellowed the Taj
through the day

Living rock Ellora, Ajanta, Udayagiri– No transport, no mortar, no Purely subtractive:
(basalt) Khandagiri joints — the building is nothing can be
monolithic and therefore corrected; thousands
extremely durable of tonnes must be
removed; a hidden
flaw can ruin the work

Terracotta Bishnupur panels; well Modelled soft, then fired Brittle; shrinks as it
rings; the water pipes of hard; panels can be made in dries and fires, so sizes
the Agra Fort bulk at a bench, and a spoilt must be allowed for;
one costs only itself; good each panel is small, so
for pipes and rings a facade needs
hundreds

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Timber Chettinadu houses; Light, strong in bending, Burns — the old
(including Kerala church roofs; the easy to carve and to join; Mysuru Palace was
Burmese teak) earlier wooden Mysuru ideal for roofs, pillars, doors destroyed by fire; rots
Palace and ceilings in damp; attacked by
termites

Roofing tile The Kalloopara church Sheds heavy monsoon rain Needs a timber frame
and Kerala houses quickly off a steep slope; beneath it; tiles slip or
light; replaceable one tile at crack and need regular
a time attention

Semi-precious Taj Mahal walls; Mysuru Brings permanent colour to Costly, slow, highly
stone inlay; Palace windows a building without paint that skilled, and easily
stained glass fades stolen or broken

And yes — no cement mortar anywhere. That is a real observation, not a trick question.

Why they managed without it. Modern (Portland) cement is a 19th-century
invention, so nothing built before the colonial period could have used it. Those
builders got stability from four other things:

Weight. A wall thick and heavy enough does not need glue; friction and gravity
hold it. This is why old walls are so massive.
Precise cutting. Blocks dressed to fit tightly transfer load evenly across the whole
joint. At Dholavira you can still see the smooth surfaces of the stone blocks.
Interlocking shapes. The Harappan well is the perfect example: its bricks are
trapezoid, so each ring wedges together and the well cannot collapse inward
under the pressure of infiltrating groundwater. Shape is doing the work a binder
would do.
Corbelling. Where a gap had to be bridged, blocks were stacked in a staircase
pattern, each projecting a little beyond the one below until the two sides met — a
way of spanning without either a true arch or a beam.

And where a binder was needed, builders used lime or mud, not cement. That
matters today: lime is softer and breathes, cement is hard and traps moisture, so
repairing an old lime-built monument with cement can crack the very stone it was
meant to save.

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Q2 Observe the pictures of the four temples featured here. What common features and
what differences can you notice?

Fig. 3.20, page 101 — the Bṛihadīśhvara Temple, Thanjavur — a long, low
granite hall running back from a gateway, and behind it one very tall
tower of straight sloping sides, built as many clearly marked storeys that
shrink as they rise, each edged with rows of miniature shrines and
crowned by a single heavy rounded cap. A separate small pavilion stands
in front. The whole complex sits inside a walled enclosure.
Fig. 3.22, page 102 — the Lingarāja Temple complex, Bhubaneswar — a
group of dark sandstone towers of different heights standing close
together. The tallest has curving sides that lean inward as they rise and is
finished with a large flattened ribbed disc and a pot-shaped finial. In front
of it are lower buildings with stepped pyramidal roofs, and dozens of
small shrines of the same shape crowd the courtyard around them.
Fig. 3.24, page 103 — the Dilwara Temple, Mount Abu — a white marble
temple on a green hillside, low and spreading rather than tall. Rows of
small domes cover the halls; one taller pyramidal spire rises over the
sanctum. The outside is comparatively plain white stone; the walls are
broken by a colonnade of slim pillars.
Fig. 3.26, page 104 — a terracotta temple at Bishnupur, West Bengal — a
square red-brick building with a curved, sloping roof, carrying four small
turrets at the corners and a larger one in the middle, each shaped like a
little tower with arched openings. Three tall pointed arches open along
the front, and every brick surface is covered with moulded terracotta
panels.

Figs. 3.20, 3.22, 3.24 and 3.26 are photographs; they are described here — see the
textbook for the pictures themselves.

ANSWER

The four are the Bṛihadīśhvara (Fig. 3.20), the Lingarāja (Figs. 3.22–3.23), the Dilwara Temples
(Figs. 3.24–3.25) and the terracotta temple at Bishnupur (Figs. 3.26–3.27).
What all four share

A garbhagṛiha holding the deity, with a raised tower or roof directly above it, so the
sanctum is announced from far away.
A pillared hall in front of the sanctum, on the same axis, which the worshipper crosses
before reaching the image.
An approach along one line, so the plan has a clear front and back — you do not wander
into these buildings, you are led in.

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Carved surfaces everywhere. Not one of the four leaves a plain wall where decoration was
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Q3 Identify a temple in your location. Based on what you have read here, what
architectural details can you make out?

ANSWER

How to do it. Walk round the temple once before you write anything, then answer these seven
questions in order. They take you from the outside in, exactly as the plan intends.

1. Approach. Is there a gateway? A tall gopuram with tiers of figures, or a simple toraṇa arch,
or just a doorway in a wall?
2. Enclosure. Is there a prākāra wall? How many? Are there secondary shrines inside it, and to
whom?
3. Hall. How many maṇḍapas do you cross? Count the rows of pillars, and look at how a pillar is
shaped — plain shaft, or carved with figures and brackets?
4. Sanctum. Find the garbhagṛiha. Which deity? Which direction does it face — is the main axis
east–west, as the chapter says it usually is?
5. Tower. Stand back and look at its outline. Straight-sided steps (a vimāna) or a smooth inward
curve (a śhikhara)? Is there a ribbed disc and a pot finial on top?
6. Path. Is there a corridor for pradakṣhiṇa around the sanctum? Are the walls along it carved?
7. Water and material. Is there a tank or puṣhkariṇī? What is the temple built of, and is that
material found nearby?

Sample answer: ‘The old Śhiva temple near our bus stand is a small classical temple
in stone. There is no gopuram, only a low gateway in a plain prākāra wall, and two
small shrines inside the enclosure — one for Gaṇeśha and one for the Devī. A single
maṇḍapa of twelve pillars stands in front of the sanctum; the four central pillars
have carved bases and plain shafts, which suggests they were meant to be finished
and never were. The garbhagṛiha is square and faces east, so the morning sun falls
on the liṅga. Above it the tower curves inward smoothly and carries a ribbed disc, so
it is a śhikhara of the northern type rather than a stepped vimāna. A narrow corridor
runs right round the sanctum for pradakṣhiṇa, and its outer wall carries three empty
niches. The stone is a grey-brown sandstone, the same as the outcrops on the ridge
behind the town — so the material was almost certainly quarried locally. There is a
stepped tank on the north side, now dry, with steps on three sides.’

Tip: the point of the exercise is not to date the temple. It is to prove you can read a
building — every claim above is tied to something the writer could actually see and
count.

LET’S REMEMBER — Page 109

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Forts and Palaces

LET’S REMEMBER

Q1 Try to remember where earlier textbooks showed pictures of the forts of Jaisalmer,
Kumbhalgarh, Raigad, and Sindhudurg. Can you point to their approximate
locations on India’s map?

ANSWER

All four appeared in the earlier ‘Tapestry of the Past’ chapters — Jaisalmer and Kumbhalgarh
with the Rajput kingdoms of western India, Raigad and Sindhudurg with Shivaji and the
Marathas. Here is where they stand.

FORT STATE AND SETTING WHY A FORT WAS PLACED
REGION THERE

Jaisalmer Western Rajasthan, On Trikuta Hill, built of It commanded the caravan
deep in the Thar the local yellow route running west and north-
Desert sandstone; still inhabited, west; whoever held it taxed and
so it is called a ‘living fort’ protected the desert trade

Kumbhalgarh Southern Rajasthan, A hill fort at about 1,100 It guarded a pass through the
in the Aravalli range m, ringed by a wall many Aravallis and served as a refuge
near Udaipur kilometres long for the rulers of Mewar when
the plains were lost

Raigad Raigad district, A flat-topped hill with Shivaji made it his capital and
Maharashtra, in the sheer cliffs on all sides was crowned there; the cliffs did
Sahyadri (Western and a single guarded the work of walls, so a small
Ghats) approach garrison could hold it

Sindhudurg Konkan coast of A sea fort built on a rocky It watched the sea lane and
Maharashtra, off island a short distance gave the Maratha navy a base
Malvan offshore — a land army cannot besiege
an island

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Jaisalmer (Thar)

Kumbhalgarh (Aravallis)

Raigad (Sahyadri)

Sindhudurg (Konkan sea fort)

Schematic sketch — positions are approximate, not to
scale.

The four forts on a rough outline of India. Two guard the desert and the hills of the north-west; two
guard a hill capital and a sea lane in the west.

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Why this pattern: the chapter says forts were ‘strategically located near important
land or sea routes, and often atop a hill so as to command a view of the plains
below’. These four are that sentence in four different landscapes — a desert trade
route, a mountain pass, a cliff-top capital and an offshore rock. Change the terrain
and the same military problem gets a different architectural answer.

DON’T MISS OUT — Page 115
Tombs and Mausoleums

DON’T MISS OUT

Q1 Did you notice the six-pointed star on Humayun’s tomb?

ANSWER

Yes — look again at Fig. 3.42, the closer view of the upper level. Six-pointed stars are worked in
white marble against the red sandstone, set in the panels around the great arches and repeated
in the parapet. They are inlay, not carving: the shape is cut out of the sandstone and a marble
piece of the same shape is fitted in.
The same figure carries a meaning in three traditions.

TRADITION NAME WHAT IT STANDS FOR

Judaism The ‘Star of Named after David, a king of the Hebrews mentioned in the Bible
David’

Islam The ‘Seal of Solomon (Sulaymān), David’s son, is regarded as both a model king
Solomon’ and a prophet endowed with divine wisdom

Hinduism A tantric The upward-pointing triangle is puruṣha or consciousness, the
symbol downward-pointing triangle is prakṛiti or śhakti; together they are
the harmony of spirit and matter

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co m
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a g
Draw one circle. Keeping the

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the rim. Join alternate points.

upward triangle = puruṣha
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downward triangle = prakṛiti
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Why this figure turns up everywhere: a circle’s radius divides its own circumference into exactly six, so

s e m by anyone with a compass and a straight edge.
a
the six-pointed star can be drawn

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Why a Mughal tomb is covered in geometry. Islamic decoration generally avoids
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images of living beings in a religious building, so ornament had to be made from

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pattern — geometry, floral motifs and calligraphy of verses from the Qur’an.
.c a grepeated identical pieces
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Geometry suited stone inlay perfectly: a pattern built from

agl makes the same point about temples, where planning ‘involved a good deal of

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mathematics, especially some advanced geometry’. Two very different traditions,
. a g l
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one shared tool.

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Did you know? Humayun’s Tomb was commissioned by Humayun’s chief wife, Bega
Begum, in 1558 and designed by Persian architects, who brought the aesthetics that
com
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became part of the Mughal architectural tradition. The complex also holds the tomb
m e
.co a g l
of Dara Shikoh, whom you met in Part 1 of this textbook. Note too the difference

s e m between a tomb and a cenotaph: the Jaswant Thada seen in Fig. 3.33 is a memorial
agla to Maharaja Jaswant Singh II and served as the cremation ground of Jodhpur’s royal
.c
family — the person remembered is not buried there, so it is not a tomb.
s e m
m a
m . co agl
l a se
ag 118
LET’S EXPLORE — Page

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Traditional Houses

LET’S EXPLORE

Q1 What could be the advantages of the above design? (Hint: Think in terms of privacy,
convenience, rainfall and cooling.)

Fig. 3.46, page 118 — inside a Shekhawati haveli — the design described in
the paragraph above, seen from within: an open central courtyard with
the rooms of the house arranged round it on two storeys. The courtyard is
open to the sky and paved; the rooms look into it through carved multifoil
arches; the outer walls of the house carry only small, high openings.
Painted frescoes cover the arches and the walls above the doors.

Fig. 3.46 is a photograph; it is described here — see the textbook for the picture itself.

ANSWER

The design is the central courtyard with the rooms arranged around it, over one or several
storeys — a plan already used in some of the larger Harappan houses about 4,500 years ago. It
answers four different problems at once, which is exactly why it lasted so long.

Privacy. The house turns its back on the street. Rooms open inward onto the courtyard, and
the outer wall carries only a doorway and a few small, high openings. Family life — including
the women’s quarters — is screened from passers-by, while jāli screens and jharokhā
balconies let people look out without being seen.
Convenience. The courtyard is a room without a roof. Every space around it gets daylight
and fresh air without needing windows on the outer wall, and every room opens onto the
same shared space, so movement through the house is short and simple. It is also a
workplace: at Chettinadu the central courtyard served for rituals and community gatherings
and for sun-drying pāpads and chillies.
Rainfall. The roofs slope inward, so all the rain that falls on the house is delivered into one
controlled place instead of being thrown into the lane. The courtyard floor is sunk a step
below the surrounding rooms and is laid to a gentle fall, so the water runs to an outlet and is
led away — often into the household well or a storage tank. A courtyard house is a
rainwater-harvesting device with people living in it.
Cooling. This is the cleverest part, and it works round the clock:

By day, the courtyard’s own high walls shade most of its floor for most of the day. The air
above the court, heated by the strip of sun, rises and escapes; as it leaves, it pulls cooler
air out of the shaded rooms, and fresh air is drawn in through the jālis. The house
ventilates itself with no fan.

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At night, the open court radiates its heat straight to the clear night sky. The air in it cools,
and because cool air is heavier it sinks and settles in the courtyard, then spills into the
rooms around. The court works as a reservoir of cool air.
Thick walls do the rest, absorbing the day’s heat slowly and releasing it at night — which
is why traditional Jodhpur houses combine ‘thick walls and balconies, jāli windows for
ventilation’ and meandering streets.

night: cool air sinks in day: warm air rises out
roofs slope inward — rain is collected, not lost

rooms rooms

sunken courtyard

to drain / well

Section through a courtyard house. Blue: the path of rainwater. Red and teal: the day and night air
movement that cools the rooms.

Check it yourself: the two grand examples in the chapter show the same plan
solving different climates. In Rajasthan’s Shekhawati havelis, where rain is scarce,
the courtyard is mostly about shade, privacy and painted display. In Chettinadu,
where the monsoon is heavy and the air humid, the courtyard is larger, deeper and
clearly sunken — in Fig. 3.47 you can see its floor sitting below the level of the
pillared verandah around it.

Before we move on … — Page 123

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Colonial Architecture / end of chapter

BEFORE WE MOVE ON …

Q1 Anyone travelling through India and visiting some of the lesser-known monuments
will notice that many are in a state of neglect. Preserving this heritage is indeed
very challenging: how to adequately conserve India’s thousands of monuments,
many of them centuries-old?

ANSWER

There is no single answer, because the difficulty is not mainly technical — it is one of scale,
money, skill and ownership. But the chapter itself points to a workable four-part approach.

1. Know what exists, and triage. Only a fraction of India’s monuments is formally protected;
countless smaller shrines, stepwells, havelis and forts are not on any list. The first step is
documentation — surveys, photographs, measured drawings, condition reports. You cannot
protect what nobody has recorded, and a photograph taken today is evidence for a repair
made in twenty years. Then rank: stabilise what is about to fall before beautifying what is
merely shabby.
2. Repair with the right material and the right hands. This is where good intentions do the
most damage. These buildings were made of lime, mud, brick and stone, with almost no
cement. Cement is harder and less permeable than old lime work; used as a patch, it traps
moisture and salts inside the wall, which then crack the original stone. So conservation
needs lime plaster, matching stone and, above all, craftsmen who still know the traditional
trades. Keeping those crafts alive is itself a conservation measure.
3. Protect the setting, not only the building. The Taj Mahal makes the point exactly. Nothing
was wrong with its structure; the damage came from outside, from local industries burning
coal and other fossil fuels, which left a yellowish tinge on the marble. The remedy was not
masonry but law — an expert committee, a PIL in the Supreme Court, and a ban in the mid-
1990s on polluting industry in the area. Traditional water structures need the same thinking:
they fail because their sources are depleted and their catchments are polluted or used for
waste dumping, and no amount of repointing the brickwork will fix that.
4. Give monuments a use, and give people a stake. A building that is used is watched,
cleaned and repaired. Mehrangarh’s fort has become a museum that preserves and
showcases its own heritage; the Victoria Memorial Hall is now a museum; many Shekhawati
havelis, too large and costly for today’s families, survive as hotels. Where the state cannot
reach, environmentalists, local residents and NGOs have joined hands to preserve water
structures — the chapter says so, and adds honestly that ‘much remains to be done’.

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Where opinions genuinely differ: on point 4. One view holds that adaptive reuse is
the only realistic way to fund upkeep at this scale — a heritage hotel pays for a roof
that a government grant never will. The opposing view is that reuse quietly destroys
what it claims to save: new plumbing, air-conditioning and partitions cut into historic
fabric, and access is restricted to those who can pay. The stronger position is the
first, but with conditions attached: reversible interventions, no loss of original
material, and guaranteed public access on some terms. Preservation with no use at
all is how buildings become ruins slowly rather than quickly.

The chapter’s own conclusion: government bodies are ‘theoretically responsible for
this huge task, but in practice, much will be lost unless citizens feel equally
responsible and, to begin with, learn to appreciate and admire this labour of our
ancestors.’ It ends by pointing to the Fundamental Duty ‘… to value and preserve the
rich heritage of our composite culture’. Documenting a neglected local monument,
or simply not carving your name on one, is that duty in practice.

Questions and activities — Page 124

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End of chapter
co m
em.
m as
QUESTIONS AND ACTIVITIES

.co a g l
s m 3.5, calculate the full width of the house; compare with the length of your
eFig.
gl aIn
a
Q1
classroom. How many staircases can you make out? If the house owners lived
upstairs, what might the rooms downstairs be used for?

co m
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a

co m
em.
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entrance from the lane
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0 5 metres .com
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com g l a
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Fig. 3.5, page 90 — plan of a large house in Mohenjo-daro. The book’s cut-away view is
redrawn here as a flat plan, drawn to the same scale bar; the flights of close parallel
.c
lines are staircases.
s e m
m a
e m . co agl
g l as
ANSWER a
m
The width: about 13 to 14 metres.

. co
e m
m l as
.co a g
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Measure the scale bar under Fig. 3.5 with your ruler. Whatever length it is on your page, it

stands for 5 metres.

Now measure one of the two outer walls of the house block along its base.
It comes to roughly 2.8 times the length of the scale bar.

2.8 × 5 m = about 14 metres

The other wall measures a little less — about 13 metres.

So the house covers roughly 14 m × 13 m ≈ 180 square metres on the ground floor.

Compared with your classroom. A typical classroom is about 7 to 8 metres long and 6 metres
wide. So one wall of this Mohenjo-daro house is about twice the length of your classroom,
and its ground floor alone would hold roughly four classrooms — and there was another floor
above it.

Check it yourself: measure carefully and you may get anything from 12 to 15 m,
because the drawing is small and is drawn at an angle rather than flat. That range is
fine — the point of the exercise is that you can extract a real dimension from a
drawing using nothing but a scale bar and a ruler.

The staircases: at least three can be made out. A staircase is drawn as a run of close parallel
lines — the treads — on a sloping surface. Looking for that pattern, you can find:

one in the front-left part of the house, rising in a narrow space beside a room;
one at the front-centre, rising out of the paved courtyard into a room;
one at the back-left, near the passage where the plan steps up towards the higher block.

A fourth flight can be argued for on the right-hand side, so a count of three or four is defensible
— say which ones you found and where, rather than just giving a number.

Why so many: if the family lived upstairs and the staff downstairs, the two groups
needed separate ways up — one stair from the public entrance side, another from
the service courtyard — just as a large house today has a main staircase and a back
one. Several staircases are strong evidence that the upper floor was not a small
terrace but a full storey.

What the ground floor was for. The text says that ‘while the servants lived downstairs, the
owners probably lived upstairs, where they would be less exposed to the dust and noise from
the streets around’. That tells you what belongs on each level. Downstairs would hold:

the entrance and gate room, where visitors and deliveries were received;
the service rooms — kitchen, grinding and cooking area, and the servants’ own rooms;

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storerooms for grain, oil and large water jars, which are heavy and were best kept at ground
level;
the bathing area and drain — the chapter notes that almost every Mohenjo-daro home had
one, and used water was taken out through the city’s drains, so it had to be at street level;
the courtyard itself, for all the work that needs daylight and space — washing, drying,
sorting, perhaps a workshop or storage of goods.

Q2 Form groups of four or five students and imagine you are artisans with just simple
tools. Looking at Fig. 3.8, how would you go about building a dome of bricks?
Looking at Fig. 3.12, how would you carve such a ceiling? Discuss and compare the
different groups’ conclusions.

Fig. 3.8, page 92 — the main stupa at Sanchi — a solid hemispherical dome
(the aṇḍa) of dressed stone raised on a low circular drum. A walkway with
a stone railing runs round the drum, and a second, taller railing (vedikā)
encloses the whole monument at ground level. In front stands a toraṇa —
two square carved posts carrying three curved cross-beams, each ending
in a spiral and topped with carved figures. A square railed harmikā sits on
the flat top of the dome.
Fig. 3.12, page 94 — inside cave no. 10 at Ellora — a long, high hall cut into
rock. The ceiling is a barrel vault, and across it run closely spaced curved
ribs, carved out of the rock in imitation of the wooden rafters of a timber
roof. The ribs spring from a carved band above the pillars on both sides
and meet the far end of the vault. At the far end, filling the rounded apse,
is a large stupa with a seated Buddha carved on its front in the posture of
teaching.

Figs. 3.8 and 3.12 are photographs; they are described here — see the textbook for the
pictures themselves.

ANSWER

The two pictures look similar — both are curved roofs — but they are made by exactly opposite
methods, and that is the discovery your group should arrive at.
1. The dome at Sanchi (Fig. 3.8): you add, ring by ring.
First, an important observation. The aṇḍa of a stupa is not hollow. It is a solid mound over the
relic chamber — a dome-shaped structure, faced with brick or stone over a core of rubble and
earth. That single fact removes the hardest problem in building: there is no empty space to
span, so you need no centring, no wooden formwork and no keystone.

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How the group would build it

1. Drive a post at the centre. Tie a cord to it and swing a circle on the ground — that is the

base.
2. Build the low drum first, and beside it start an earth ramp that will rise with the work.

3. Lay the first complete ring of bricks all the way round. Fill and ram the rubble core inside

it.

4. Lay the next ring slightly smaller, resting partly on the one below. Check every few bricks

by measuring from the central post with a cord.

5. Repeat, raising the ramp as you go, until the rings close near the top.

6. Finish with the small square railing and the umbrella at the summit, then build the vedikā

and the toraṇas around it, and the stairway up to the upper pradakṣhiṇa.

Why it cannot fall in: each course is a closed ring. For a brick to fall inward it would
have to push all the bricks on the far side of the ring outward — so the whole ring
squeezes itself tight. This is why a circular structure can be raised course by course
without any support underneath, while a straight wall of the same bricks could not
lean inward at all.

2. The ceiling at Ellora (Fig. 3.12): you remove, from the top down.
Here nothing is placed. The vault, the ribs across it, the pillars, the aisle, the stupa and the
Buddha are all what is left after the surrounding rock is chipped away. So the group would: mark
the arch full size on the rock face and cut that profile; make a wooden template of the curve;
drive the cave backwards into the hill, keeping the template against the ceiling to check the
profile; mark where each rib goes; and then sink the surface between the marks, leaving the
ribs standing proud. Only when the ceiling is finished do you cut down the walls and floor
beneath it — because you have been standing on that rock.

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earth ramp rises
with the work

ADD: each closed ring wedges itself tight REMOVE: ribs are the rock you do
not lower

Two curved roofs, two opposite methods. Left: the solid stupa raised in complete rings from an earth
ramp. Right: the cave vault cut downward into the hill, with the ‘beams’ left standing.

Compare your conclusions. Most groups find the dome easier to imagine and the
cave easier to describe — until someone points out that the dome needs a huge
quantity of material carried up a ramp, while the cave needs an even huger quantity
carried out and thrown away, and that neither job can be undone. The chapter’s
phrase for the caves — ‘mind-boggling technologies’ — is not an exaggeration: many
thousands of tonnes of rock had to be chipped away to leave the monolithic Kailaśha
Temple standing.

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co m
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Why should there be so many stairways in Fig. 3.15? And in Fig. 3.17?
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Q3

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a s em Fig. 3.15, page 97 — one of the tanks at Shringaverpur — a large

ag l rectangular tank dug into the ground and lined with brick. The sides do
not drop straight down: they descend in wide brick terraces, and flights of

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different depths. The floor at the bottom is flat and bare. Nothing of the

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Fig. 3.17, page 98a—
Its sides are built as tiers of stone steps that step inward as they go down,

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an approach that works at every level — and a stairway is the only kind of approach that does.

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Fig. 3.15 — a tank at Shringaverpur. These reservoirs were fed by a channel from the Ganga
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The shared idea: Indian water architecture treats the level of the water as a
variable, not a constant — which is exactly what a monsoon climate makes it. The
stepwell (vāv or bāorī) is the same idea taken vertically: multiple pillared levels, so
that whatever the season, there is a floor at the water’s edge. And because the steps
make the water reachable, the tank also becomes a place to sit, to meet and to be
cool — the chapter says stepwells offered a social space where people could sit
together, enjoy cooler temperatures and exchange all the news.

Q4 Which pillars are easier to sculpt in your opinion—those in Fig. 3.25 or 3.27? Justify
your answer.

Fig. 3.25, page 104 — a pillared hall inside the Dilwara Temple — rows of
white marble pillars carrying a flat marble floor and a carved ceiling.
Every pillar is cut from a single block and worked all over: bands of
figures, foliage and geometric patterns from base to capital, with curved
brackets rising from the capitals to meet the beams. Deep undercutting
makes some of the marble almost translucent. A seated Jina image sits in
a shrine at the far right.
Fig. 3.27, page 105 — the front of a terracotta temple at Bishnupur —
three tall pointed brick arches on heavy piers. The whole surface — piers,
arch faces, the wall between and above them — is covered with small
rectangular terracotta panels set side by side in rows, each panel carrying
its own figures or ornament, moulded and fired in clay and then built into
the brickwork.

Figs. 3.25 and 3.27 are photographs; they are described here — see the textbook for the
pictures themselves.

ANSWER

The Bishnupur pillars in Fig. 3.27 are easier — but not because terracotta work is crude. It is
easier because of how the decoration is made, and above all because a mistake there is cheap.

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FIG. 3.25 — DILWARA, WHITE FIG. 3.27 — BISHNUPUR,
MARBLE TERRACOTTA ON BRICK

The process Subtractive. Stone is cut away from a Additive, then fixed. Soft clay is modelled or
solid block until the figure appears pressed into a mould, fired, then set into the
brickwork

Can you correct Never. A slip that breaks a carved arm Easily, while the clay is damp. A panel that fails
a mistake? cannot be repaired, and the column is in the kiln costs one panel
ruined

Where is the On the column itself, in place, often At a bench, at a comfortable height, before the
work done? overhead in poor light wall is even finished

How many can One or two carvers per column Many craftsmen in parallel, each making
work at once? panels

Kind of Figures carved fully in the round, Relief on a flat square panel — far less
sculpture deeply undercut so they stand free of demanding than carving in the round
the surface

The material Being hard, heavy and unforgiving; Shrinking as it dries and fires, and cracking if
fights back by undercut marble snaps fired unevenly

The deciding argument: at Dilwara the craftsman is working towards an irreversible
result on a single expensive block that is already part of the building. At Bishnupur
he is working away from a lump of cheap clay, at a bench, with the option of starting
again. Wherever a craft allows you to fail safely, it is easier — that is true of carving,
of writing and of learning anything.

Be fair to the terracotta workers, though. The chapter is careful to say the
Bishnupur panels were ‘first carved by hand and then fired in a kiln in a precise
manner’. Clay shrinks by several per cent as it dries and again as it fires, so the
modeller must make each panel oversized by exactly the right amount, or the
finished panels will not line up in the wall. Easier is not the same as easy.

Q5 What are some common features across the different types of temples you have
visited in this chapter? What are some of the differences?

ANSWER

Common features — the parts that ritual requires

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A garbhagṛiha, the innermost chamber holding the mūrti, and a tower or raised roof
directly above it so that the sanctum is visible from outside.
One or more maṇḍapas — pillared halls in front of the sanctum — through which the
worshipper passes.
A clear axis, generally east–west, with the garbhagṛiha facing east.
A path for pradakṣhiṇa, inherited from the stupa and the rock-cut cave.
A movement from the outer world to the inner, marked by an entrance — a gopuram in
the south, a toraṇa in some northern temples.
Enclosures (prākāras) and secondary shrines in the larger complexes, which grew steadily
after the 10th century.
Carved surfaces telling stories, often a water reservoir attached, construction following
śhilpaśhāstra, and no cement mortar.
Roles beyond worship: learning, literature, sculpture, dance, music and painting, and centres
of social and economic life.

Differences — the parts that geography and history decide

WHAT THE RANGE IN THIS CHAPTER
VARIES

Material Granite (Thanjavur) · sandstone and laterite (Bhubaneswar) · white marble (Mount Abu) ·
brick and terracotta (Bishnupur) · living rock (Ellora’s monolithic Kailaśha)

The tower A stepped pyramidal vimāna in the south · a curving śhikhara in the north and Odisha · a
curved Bengal roof with corner turrets · low domes over the Dilwara halls

Scale From the modest temples of before the 9th century to the vast complexes that followed — the
Bṛihadīśhvara’s vimāna alone is over 60 metres

Entrance Gopuram (south) versus toraṇa (some northern temples)

How the Carved in place in hard stone · undercut into marble · modelled and fired as terracotta
ornament is made panels · cut out of the living hillside

Faith Hindu (Śhaiva at Thanjavur and Bhubaneswar, Vaiṣhṇava themes at Bishnupur), Jain at
Dilwara, with Buddhist stupas and caves as the shared ancestors of the form

The pattern behind the list: what a temple must do is nearly the same everywhere
— shelter an image, admit a procession, allow a circuit, mark the sacred centre from
a distance. What it is made of, and therefore what it looks like, changes with the rock,
the clay and the timber of each region. Function gives the common features;
material and history give the differences.

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Q6 In the houses shown in Fig. 3.46 and 3.47, the central courtyard will receive a lot of
water during rains. Will this not flood the house?

Fig. 3.46, page 118 — inside a Shekhawati haveli — the view from a shaded
arcade across an open central courtyard to the wing opposite. The
courtyard is open to the sky; rooms on two storeys look into it through
carved multifoil arches, and every surface — arches, spandrels, the wall
above the doors — is covered with painted frescoes. The courtyard floor is
paved and lies a step below the surrounding arcade.
Fig. 3.47, page 119 — the central courtyard of a Chettinadu house — a long
hall of turned wooden pillars on carved stone bases, running down both
sides of an open court. The court in the middle is a plain, pale, polished
floor, open to the sky and set a step lower than the tiled floor of the
surrounding verandah. Carved wooden beams and rafters roof the
verandah, and doors to the rooms open off it.

Figs. 3.46 and 3.47 are photographs; they are described here — see the textbook for the
pictures themselves.

ANSWER

No — because the courtyard is designed to receive that water and get rid of it. Collecting
the rain in the middle of the house is the point of the plan, not an accident of it.
Four details make it work, and you can see three of them in Fig. 3.47.

The court is sunk below the rooms. Look at the pale central floor in Fig. 3.47: it sits a clear
step below the pillared verandah around it. Water that falls in the court therefore stays in the
court. The rooms, the verandah and everything stored in them are on higher ground.
The court floor is laid to a fall. It is paved and given a gentle slope towards one corner,
where an outlet — a drain, a covered channel or a soak pit — takes the water away, often
into the household well or a storage tank. The courtyard is a rainwater-harvesting basin with
a spout.
The roofs deliberately slope inward. All the roof water is delivered into that one paved,
drained place rather than being thrown onto the street or against the outer walls. That also
keeps the roof spans short, since each roof only has to reach from the outer wall to the
courtyard edge.
A kerb and deep eaves keep the verandah dry. A raised edge at the courtyard rim stops
water spreading sideways, and the projecting roof over the verandah keeps the splash off
the floor where people sit.

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co m
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Why the builders were not worried: in a house with no courtyard, the roof water

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If you had to create a Pan-India Architecture Museum, which ten monuments would

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# MONUMENT WHAT IT IS WHY IT, AND NOT ANOTHER
CHOSEN TO
REPRESENT

1 Dholavira, Gujarat Harappan urban The earliest tradition of planned building in India,
planning and unusual among Harappan cities in being built of
stone rather than brick — so it shows both the
planning and the ‘use what is local’ rule

2 The main stupa at Buddhist stupa The earliest phase of monumental religious stone
Sanchi, Madhya architecture architecture in India, with the complete set — aṇḍa,
Pradesh vedikā, toraṇas and pradakṣhiṇa

3 Ellora cave 10, Rock-cut architecture Shows the subtractive method at its most
Maharashtra astonishing, including a vault whose ‘beams’ imitate
timber

4 Rani ki Vav, Gujarat Water architecture A stepwell that is an engineering marvel and a work
of art at once — multiple pillared levels and
hundreds of statues

5 Bṛihadīśhvara South Indian temple Granite, a vimāna over 60 m, vast maṇḍapas and a
Temple, Thanjavur architecture monolithic Nandi — the pyramidal southern tower
in its greatest example

6 Terracotta temple, Eastern brick-and- The opposite answer to the same problem — no
Bishnupur, West terracotta temple stone at all, a curved Bengal roof, and sculpture
Bengal architecture made in fired panels

7 Jama Masjid, Mosque architecture Yellow sandstone with elegant arches, stone jālis and
Ahmedabad and Indo-Islamic temple-style pillars — the clearest case of local
blending Hindu and Jain artisans working on an Islamic
building

8 Mehrangarh fort- Forts and palaces Massive local red sandstone on a height above the
palace, Jodhpur city, with a palace inside showing jharokhās and
stone latticework — and already a working museum

9 Taj Mahal, Agra Tombs and The confluence of three cultures in one building —
mausoleums Persian charbagh and arched doorways, Arabic
calligraphy, Indian chhatrīs, lotus designs and
marble screens

10 A Chettinadu house, Traditional houses Because most Indians have always lived in houses,
Tamil Nadu not monuments — and this one shows the courtyard
plan, global trade in materials, and a design adapted
to its climate

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The three that just missed, and why they deserve a place if the museum can
take twelve or thirteen: the St Thomas Orthodox church at Mulanthuruthy, for a
Christian architecture that borrowed a stambha from temple building; the Golden
Temple, for the Sikh gurudwara and its sarovar; and the Madras High Court, for the
Indo-Saracenic style that shows the blending continuing right into the colonial
period.

Defend the rule, not the list. Any ten will leave out something magnificent — the
chapter itself admits its selection ‘necessarily leaves out thousands of astonishing
monuments of diverse styles’. What makes a selection good is that you can say, for
each entry, what would be lost if it were removed. If you cannot, that entry is a
favourite, not a choice.

Q8 Choose an ancient monument in your region. Identify what type of architecture it
belongs to and the markers you used to classify it.

ANSWER

How to classify a building. Do not begin with the name or the date — begin with what you can
see. Run through these five markers in order, and the type usually declares itself.

1. Purpose. Worship, water, defence, burial, dwelling or government? A prayer hall, a sanctum,
a tank, a rampart, a tomb chamber and a courtyard are each unmistakable.
2. Plan. Is there a garbhagṛiha with a maṇḍapa in front? A prayer hall oriented towards Mecca
with a mihrab niche in one wall? A symmetrical building set in a divided garden? Rooms
around a central courtyard? Walls following a hilltop?
3. What covers the top. A stepped vimāna, a curving śhikhara, a dome with minarets beside it,
a curved Bengal roof, a sloping tiled roof, or a flat terrace.
4. How the openings are spanned. A flat lintel on two posts (older Indian tradition), a pointed
arch, or a corbelled ‘arch’ made by stacking blocks in a staircase pattern.
5. Material and ornament. Stone, brick, terracotta panels, timber, or marble with inlay; figure
sculpture, jālis, calligraphy, floral motifs, frescoes. Then ask whether the material comes
from nearby — if it does not, someone paid a great deal to bring it.

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Sample answer: ‘The old temple on the tank bund in our town is a classical temple
in the northern tradition. My markers: (i) it has a small square sanctum with a
liṅga, and a pillared hall in front of it, so its purpose is worship and its plan is
garbhagṛiha plus maṇḍapa; (ii) the sanctum faces east, and the whole building sits
on a raised platform; (iii) the tower above the sanctum is not stepped but curves
smoothly inward and carries a ribbed disc near the top — so it is a śhikhara, not a
vimāna, which places it in the northern rather than the southern family; (iv) the
doorways are spanned by single flat stone lintels, with no arches anywhere, so it is
pre-Islamic in technique; (v) it is built of the same grey sandstone as the quarry on
the edge of town, and there is no trace of cement in the joints. A narrow corridor
runs round the sanctum for pradakṣhiṇa, and there is a stepped tank beside it,
which fits the chapter’s point that temples often had a puṣhkariṇī attached.’

Why the markers matter more than the answer: a classification you cannot justify
is a guess. Notice that every claim in the sample is tied to something the writer could
point at — the shape of the tower, the flat lintel, the colour of the stone. That is how
an archaeologist argues, and it is what the question is really testing.

Q9 Different groups in the class take up examples of different types of architecture in
your region. Prepare a small exhibition with brief descriptions. (Hints: Use different
sources to get more information. Request your teacher to invite a scholar or expert
from your region to interact with you.)

ANSWER

How to run it so it actually works.

1. Divide by type, not by monument. Give each group one of the chapter’s categories that
exists in your region — for example: places of worship · water structures · forts and defence ·
houses and havelis · colonial or civic buildings · memorials and cenotaphs. This way the
exhibition tells one connected story instead of showing six unrelated buildings.
2. Every group produces the same four things, so the panels can hang together: (a) one clear
photograph or drawing; (b) a rough plan sketched on squared paper with a scale bar — even
a paced-out plan is fine; (c) a caption of about eighty words; (d) a small ‘material and
technique’ box: what it is built of, where that material comes from, how the openings are
spanned, whether there is any cement.
3. Use more than one kind of source. The building itself is the first source. Then an inscription
or a plaque on it; then the local ASI or state archaeology board; then a district gazetteer or a
local history book in the library; then, valuably, an older resident who remembers the
building being repaired or used differently. Note on each panel where each fact came from.

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4. Invite the expert early, and send your questions in advance. A scholar who has seen your
draft panels will correct them; a scholar who arrives cold will only give a lecture.
5. Add one honest panel on condition. For each monument, one line on how it is faring —
cracks, encroachment, water dumping, whitewash over old carving, or good recent repair.
This turns an exhibition into a small piece of documentation that the town does not
otherwise have.

Sample panel (about eighty words): ‘The stepped tank behind the bus stand.
Local stone, no mortar visible. Roughly 18 m square at the top and about 6 m deep,
with flights of steps on three sides, each flight interrupted by a landing — so water
could be reached at any level as it fell through the summer. The fourth side carries a
small pillared pavilion. The tank has not held water since a borewell was sunk nearby
in the 1990s; plastic waste now collects in the lowest tier. Sources: measured on site;
the plaque on the pavilion; Shri Ramanna, aged 78, who swam here as a boy.’

Why this is worth doing properly: the chapter notes that many lesser-known
monuments are in a state of neglect and that ‘much will be lost unless citizens feel
equally responsible’. Nobody protects an unrecorded building. A class exhibition with
photographs, measurements and dates is a genuine record — keep a copy with the
school and send one to the local authority.

Q10 Highlight the biggest threats to our architectural heritage today and discuss how
can we protect it.

ANSWER

The threats, roughly in order of how much they actually destroy.

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THREAT HOW IT DOES THE DAMAGE THE CHAPTER’S EVIDENCE

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a g l Page 44 of 48

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Bring back the community. The chapter notes that environmentalists, locals and NGOs
sometimes join hands to preserve water structures. Local guardianship works because local
people are there every day, which no inspection schedule can match.
Behave well as visitors. Do not carve, do not litter, do not climb on carving, and do not buy
antiquities.

The honest conclusion: the chapter does not pretend this is easy. Government
bodies ‘are theoretically responsible for this huge task, but in practice, much will be
lost unless citizens feel equally responsible and, to begin with, learn to appreciate
and admire this labour of our ancestors.’ There are not enough archaeologists in
India to watch every monument, so protection has to begin with people who value
them. That is precisely the reasoning behind the Fundamental Duty ‘… to value and
preserve the rich heritage of our composite culture’ — a duty that is worded as a
duty of citizens, not of the state.

Chapter at a glance
Indian architecture begins with the Harappan cities — planned streets, standardised
bricks, bathing areas in almost every house, and a drain network that carried used water
out of the city. Builders used what the land gave them: brick in the alluvial plains, stone at
Dholavira where stone was local.
New forms followed new faiths. The stupa (aṇḍa, vedikā, toraṇa, pradakṣhiṇa) appeared
with Buddhism from the 4th–3rd century BCE; rock-cut caves were carved into hillsides for
worship, residence and assembly; and from the Gupta era the classical temple emerged,
with its garbhagṛiha, maṇḍapas and śhikhara or vimāna. A temple is not only a building: it is
planned on the body of Puruṣha, the cosmic being — tower for the head, platform for the
feet — and worship is a journey from the outer world at the gopuram to the inner world of
the garbhagṛiha, following the treatises of śhilpaśhāstra and a great deal of geometry.
India’s monsoon produced an architecture of water: Harappan wells of interlocking
trapezoid bricks, the interconnected reservoirs of Shringaverpur, the stepwells (vāvs,
bāorīs) of Gujarat and Rajasthan, and temple puṣhkariṇīs — structures that harvested
water and doubled as social and ritual space.
Mosques, tombs and forts brought domes, pointed and corbelled arches, jālis, calligraphy
and strict symmetry; where these met Indian craftsmanship the result was called Indo-
Islamic architecture, with jharokhās and chhatrīs added in Rajasthan. In the colonial
period the same blending returned as Indo-Saracenic architecture.
Houses answered climate and society: the central courtyard plan, already used in large
Harappan houses 4,500 years ago, gives privacy, light, cooling and a place to collect the
rain. Shekhawati havelis and Chettinadu houses are its grand versions.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Almost none of these structures used cement mortar. They stand by mass, precise cutting
and interlocking. Many are now threatened by neglect, pollution and lost skills — which is
why the Constitution’s Fundamental Duty ‘to value and preserve the rich heritage of our
composite culture’ matters.

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

Quick revision

TERM WHAT IT MEANS WHERE THE WORTH REMEMBERING
CHAPTER USES
IT

Stupa — aṇḍa, A dome-shaped structure housing Structural Stupa Sanchi is the earliest phase of
vedikā, toraṇa relics of the Buddha or of revered Architecture and monumental religious stone
monks; its hemispherical dome, its Fig. 3.10, pp. 92–93 architecture in India
enclosure of railings and its
ornamental gateway

Pradakṣhiṇa Going around in a clockwise Ellora cave 10, p. The custom passes from the
direction 95 stupa to the cave aisle and
then to the temple’s
pradakṣhiṇa corridor

Garbhagṛiha The innermost chamber where the Classical Temple Generally faces east; a
mūrti of the deity is kept Architecture, p. 99 temple’s main alignment is
east–west

Maṇḍapa A pillared hall in front of the Fig. 3.18, p. 99 The Lingarāja Temple has
garbhagṛiha three large maṇḍapas used for
different purposes

Śhikhara / The tower above the garbhagṛiha — p. 99 and Fig. 3.19, The Bṛihadīśhvara vimāna is
vimāna śhikhara in the north, vimāna in the p. 100 over 60 metres high
south

Gopuram / The ceremonial entrance of a south Fig. 3.18, p. 99 From the 10th century temples
prākāra Indian temple; the enclosure wall grew into vast complexes with
around a complex several prākāras

Śhilpaśhāstra The discipline of arts and crafts, p. 99 Recent studies show temple
largely dedicated to architecture and planning used advanced
sculpture geometry

Vāv / bāorī, A stepwell; a temple water reservoir Water Structures, Stepwells stored rainwater and
puṣhkariṇī p. 98 also gave people a cool social
space

Jāli, jharokhā, An open latticed screen; an Figs. 3.1 and 3.34, Latticework is both functional
chhatrī overhanging balcony; a pavilion pp. 86, 110; p. 108 (ventilation) and aesthetic
dome or parasol-shaped cenotaph

Corbelled Constructed by stacking blocks as in Glossary note, p. An alternative to the true arch,
a staircase pattern 108 used widely in Indo-Islamic
work

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Class 8 Social Science Chapter 10 A Journey Through Indian Architecture AglaSem · NCERT Solutions

TERM WHAT IT MEANS WHERE THE WORTH REMEMBERING
CHAPTER USES
IT

Mihrab / The niche in a mosque wall pointing p. 106 and Fig. Delhi’s Jama Masjid has two
minaret to Mecca; the tower from which the 3.32, p. 108 40-metre minarets and a
muezzin calls to prayer courtyard for 25,000 people

Indo-Islamic / Islamic building traditions blended pp. 108 and 123 Madras High Court (1892),
Indo-Saracenic with Indian craftsmanship; and its Victoria Memorial Hall and
colonial revival, which added Gothic Mysuru Palace are Indo-
elements Saracenic

Page 48 of 48

Document Details

Board / OrgNCERT
ExamClass 8
TypeSolution
Pages49
Languageenglish
Updated19 Sep 2026