business model of geothermal heat pump

1. STRESSes

2. Geothermal Technology
What is geothermal technology?
In a conventional system, the cooling tower of an
air conditioning plant sucks out the heat from an
enclosed space, and ejects it into the environment.
The technology GIBSS has designed uses instead
a heat exchanger system to deflect the heat into
the earth's crust. As the temperature just a few
meters below the earth's surface is much lower
than that of the air above, the energy transfer is
more efficient, reducing power consumption.

3. GEOTHERMAL HEAT IN
HYDERABAD
The Hyderabad-head-quartered Indian
School of Business (ISB) opened a new
campus in Mohali, near Chandigarh, on April
2015 . The air conditioning system in the
campus buildings, spread over 70 acres, has
been so designed as to save 1.2 million
kilowatt hours of power. The financial saving
on power alone will be Rs. 87.16 lakh
annually.
It will be a similar story at the Four Seasons
Hotel in Mumbai once its new air conditioning
system is installed. The hotel's monthly power
bill, currently over Rs. 40 lakh, is expected to
drop to Rs. 10 to 15 lakh.

4. GEOTHERMAL
HEAT PUMP

6. WORKING PRINCIPLE

7. PLANT INSTALLATION

8. • CEO
• CFO
• EXPERTISE--2
STRUCTURE OF ORGANIZATION

9. COST ANALYSIS
S.N. DESCRIPTIONS VERTICAL
INSTALLATION
(100 ft deep)
HORIZONTAL
INSTALLATION
(80 ft*38 ft*6
ft=516m^3)
1. Heat pump 10*30000 10*30000
2. Total pipe cost 850*120
=102000
1000*120
=120000
3. Excavation cost 4*100*250/ft
=100000
516*175/m^3
=90300
4. Total cost 502000 510300

10. PREQUISITES
S.N. REQURIMENTS SUPPLIER RATE(Rs.)
1. HEAT PUMP Geothermal india Pvt . Ltd 50000/per unit
2. PIPE Jain pipe suppliers,delhi 120/foot
3. EXCAVATION Rana Pratap ,earth
movers,delhi
175/m^3

11. Considering bank loan repayment rate of 10%
Now,
P=A[(1+i)n-1]/[i(1+i)n]
P=A[
(1+0.1)20−1
(1+0.1)20 ]
A=P/8.5
A=502000/8.5
A=59058.82

12. Now,
In the first year we will be taking a loan of
502000*200/10= 10040000
In the second year loan of
502000*300/10= 15060000
In the 3rd year loan of
502000*400/10= 20080000
In the 4th year loan of
502000*400/10= 20080000
LOAN CALCULATION

13. • Average monthly electricity bill=4000
• Efficiency of our heat pump in rate cutting= 40%
• Customers shall pay 75% of their savings on monthly basis
• Monthly revenue r = (75/100)*(40/100*4000)= 1200
• Now,
• R1= (1200*200)*12= 2880000
• R2= (1200*300)*12= 4320000
• R3= (1200*400)*12= 5760000
• R4= R4= R5= R6= R7= R8= R9= R10= 5760000
CALCULATING YEARLY
REVENUE FROM EACH
INVESTMENT

14. CFD
position
Year
Beginning
Loan Amount to
be paid
annualy(A
)
No. of houses
0 1st 10040000 1181176.4 200
1 2nd 15060000 1771764.7 300
2 3rd 20080000 2362352.9 400
3 4th 20080000 2362352.9 400
‘’ ‘’ ‘’ ‘’ ‘’
9 10th 20080000 2362352.9 400
INVESTMENT TABLE
Net annual
income from
each
investment(I)
1698823.6
2548235.3
3397647.1
3397647.1
3397647.1

15. High Availability Factor
Permanent Employment
Local/National development firms
Inexhaustible Long Term Energy
Source
Constant source of energy
independent on the weather and
climate conditions
Can be used for heating and cooling
purposes and production of electricity
Low electrical efficiency
High investment cost
Complicated licensing
Medium-high payback period
Significant land utilization
High degree of specialization needed
STRENGTH WEAKNESS
SWOT ANALYSIS

16. Free energy source
Generally unexploited potential
Large potential
Local availability of additional
resource for the local economy
Long-term exploitation possibility
(up to 50 years)
Cost competitiveness to other
renewable energy technologies
Environmental hazards
Competitive resource use
Individual wells may cool down or
run out of water
OPPORTUNITIES THREATS