Introduction of GPS/GIS and other Technologies in
Research: A progress report submitted to Ministry of Labor in Islamabad

By

Dr. Adam Khan, Associate Professor of Agronomy,
State
At Morrisville (
Ex patriot Pakistani
Consultant at
(A progress report)
Date of Assignment: June 9, 2007 through July 7, 2007 (04 weeks)
Dr. Adam Khan’s bio data:
The author of this report, Dr. Adam Khan, has taught in the
U.S academic institutions for more than 27 years (14 years at
Dr. Khan’s brief bio data is as follows:
Acknowledgements:
I express my special thanks to Dr. Muhammad Qasim for
providing me the facility and excellent hospitality to pursue my projects at
Thanks are also due to Mr. Sadaqat Shah for the office support and to the chairs of various departments (Dr. Rem Din Khan, Dr. Hajee Himayat ullah, Dr. Said Meer Khan, Dr. Saleem Jeelani) for providing the information to acquaint me about their facilities at the university. My special gratitude goes to great faculty members (Mohibullah Khan, Jameel Khan, Imdad ullah, Mehwish, Azam Khan, an d Khalid Usman) and Dr Shareef Zia (an eminent scholar), fro their support. I want to also thank Mr. Saqib, Mr. Zaidi, and Mr. Mazhar at IT department for providing computer support and Mr. Ayaz Khan, the controller of Examination for his friendship. Last but not the least, I want to thank Mr. Niamatullah Khan for his support in writing the fish project and my nephew, Hayat Ali Shah, district and sessions judge, Abbott Abad for providing facility to prepare this report.
I. Introduction:
Leased out land - parcel 1 = 42.8 ha (856 kinals or 105.7 acres)
Leased out land - parcel 2 = 48.1 ha (962 kinals or 118.8 acres)
Leased out land - parcel 3 = 251.4 ha (5028 kinals or 621 acres)
The land that is self cultivated (not leased out) is 29.6 ha (73.1 acres or 592 kinals.)
The land assigned for student research is 10.9 ha (218 kinals or 27 acres).
Additional land for agronomy and soil science research is 11 ha (220 kinals or 27 acres). Wheat and rice are 2 major crops currently being rotated. Only 1/3rd of the acreage is planted in rice under rice wheat rotation whereas the other 2/3rd acreage is planted under wheat only. There are few date palm trees that successfully grow on the campus.
Leased out land (parcel 3) on the south side of the campus (621 acres) is assigned for proposed date palm research and commercial production center. The leased land parcel 1 (105.7 acres) and self cultivated land on the north west side of the campus (73.1 acres) are assigned for proposed project on fish culture research and commercial production center.
For locating each parcel of the land on a map, the digital imagery of the campus is attached in appendix 1.
The campus assigned for residential blocks, administration, departments, hostels and lawns is located on 3000 kinals (150 ha or 370.5 acres). From satellite imagery the campus appears to be well designed and is divided into 3 columns or rows:
When you enter the campus from
Faculty of agriculture has wonderful teaching/research staff who work under the able leadership of Dr. Muhammad Qasim Khan, Dean Faculty of Agriculture. The friendly attitude and hospitality of professors and department chairs was instrumental for me to accomplish my goals. They are such a nice people that they have always made me feel at home.
I also want to specifically note that the purpose of he assignment as stated in the job description was fully achieved.
II. Suggestions/ recommendations:
Based on my knowledge and interviews with faculty members, I would like to recommend the following:
I want to also point out that the administration, faculty, and staff are very dedicated and hard working people, however, they need funds to implement above recommendation/suggestions.
III. Accomplishment of assigned items stated in the
job description
The following report includes my accomplishments during my 4
weeks stay at
I have co-written the concept
documents on the following 2 grant proposals on research, development, and
commercial production that are highly suitable for the area served by
Global Positioning System (GPS) Technology
The crop production system that is environmentally sound yet profitable requires precision. The use of GPS in precision farming is becoming more common. Its use in measuring accurate acreage, locating less fertile areas in a field, and application of variable rates of fertilizer in a field are already getting attention. The following discussion describes GPS technology.
What is a GPS?
It is a satellite based navigation system. The Global Positioning System determines the accurate location of a point (in latitudes and longitudes) on earth. GPS is based on 24 space vehicles (SV's) or satellites orbiting the earth. It uses the following concepts:
Triangulation from satellites
To triangulate, the GPS measures the time it takes for a signal from satellite to a point on earth. Using this time, the distance from satellite to a point on earth is computed.
Distance = time (sec) x 186,000 miles/second
To measure time, GPS requires very accurate clocks. The clocks on satellites are based on atomic oscillations. There are four clocks on each satellite and each clock is worth $100,000.
We need to know where the satellite is in space.
As the GPS signal travels through ionosphere (80-120 miles) and atmosphere (water vapors), it is delayed.
Triangulation
GPS is based on satellite ranging where we determine our position on earth by measuring our distance from a group of satellites, about 10,900 miles away from earth. In order to understand triangulation, let us assume that a satellite is in the center of an imaginary sphere and is transmitting signals in all directions. Two imaginary spheres (of two satellites) will intersect at several points. Three imaginary spheres will intersect at two points, one of the points will be on earth and the other point will be in space. Four imaginary spheres of four satellites will intersect on only one point on earth. According to trigonometry, we really need four satellite ranges to unambiguously locate our self on earth.
Measuring Distance From a Satellite
To measure the distance from the satellite we multiply the velocity of light with the time it takes for the signal to reach earth.
Distance (miles) = 186,000 miles/sec x t(sec). For example, it will take 0.06 seconds for a signal to reach earth from a satellite at 12,000 miles away from earth. Very precise electronic clocks are nowadays relatively inexpensive. Most receivers can measure time with nanosecond accuracy.
In order to measure the length of time a signal would take to reach earth, we synchronize the satellites and receivers such that they generate the same code at exactly the same time. Once we receive the code, then we look back and see when the receiver generated the same code. The time difference will tell how long it took for the signal to reach earth. The signals are pseudo random codes which are complicated and repeated every millisecond.
Clocks in Satellites and in Receivers
The clocks in satellites are atomic clocks which run on oscillation of an atom. They are extremely precise. The clocks in receivers are not as precise. In order to offset this inaccuracy, we get an extra satellite range measurement. According to trigonometry 3 perfect range measurements locate a point in three-dimensional space. Four imperfect measurements can eliminate any timing offset (as long as the offset is consistent). The ranges which contain timing errors are called pseudo ranges.. If the four spheres do not intersect at a single point, then the computer in the receiver pursues a series of trims from the ranges until they intersect at a single point. This is how the time offset is corrected. For real time position measurements, we need a four-channel receiver (at least) so that one channel is assigned each satellite.
Knowing Satellite Position in Space
High altitude (about 11,000 miles) of satellites keep them clear from
earth's atmosphere and, therefore, the predictions of their orbits will be very
accurate. The air force injects each satellite into a very precise orbit and
some receivers have almanacs which precisely tell where the satellites will be.
Each satellite goes around the earth once every 12 hours. The department of defense
measures their altitude, position, and speed when they pass over a specific
designated location on earth. The DOD looks for variations in position, speed,
and altitude. These variations are called Ephemeris errors which are caused by
gravitational pulls from moon, sun, and by the pressure of solar radiations.
These variations (errors) which are minor are constantly relayed to satellites
and the satellites relay back to earth along with their timing information. GPS
satellites also transmit data about their health and orbital location.
Ionosphere and Atmosphere
Ionosphere and water vapors in atmosphere delay signals coming to earth from the satellites. Ionosphere is a blanket of charged particles 80-120 miles above earth. When light travels through ionosphere, its velocity decreases at a rate inversely proportional to its frequency squared (-Vtime = -1/ V2 time ) only the most advanced, dual frequency receivers have the ability to correct this type of error. They are called the "ionosphere-free solution."
Similarly, water vapors decrease the velocity of light (signal) but there is no way to correct this error. The magnitude of this error is equal to the width of a street.
Receiver Errors
The receivers sometimes may round off a mathematical operation or an electrical interference might cause an error in correlation of pseudo-random codes.
Multi path Errors
When the signals from satellites bound around from adjacent objects and then reach our antenna, they cause errors called multi path errors.
Geometric Dilution of Precision (GDOP)
The accuracy of data depends on which satellites we use. If two satellites are close to each other, then we get dilution of precisions and the error is magnified. The wider are the angles among satellites the better will be the measurements. Good receivers have the ability to choose four best satellites.
Selective Availability
Using an operational mode, SA (selective availability), the department of defense purposely degrades the accuracy of GPS. It is generally the largest component of error, if implemented.
Pseudo Random Codes
The pseudo random codes allow a receiver to figure out a time difference between itself and the satellites. GPS signals are very low power and can be received by antennas a few inches above earth. We know the patterns of Pseudo Random codes. If we divide the signals into time periods (chips) and compare our satellite signals with the inherent earth's background radio signals, or receivers signals with earth's background radio signals, only 50% of the time the chips will match and 50% of the time they would not. However, if we slide the satellite's codes back until they match with our receiver's codes, we will get a lot more matches. Further, the matches will amplify over a longer time span. There is very little information in GPS signals. They are simple timing marks.
C/A (Course Acquisition) Code and P (Precise or Protected) Code
There are two types of Pseudo Random codes:
C/A code: it is used by civilians and has lower frequency than P code.
P code: this code can be encrypted such that only military will have access to it. In addition, it is impossible to jam P code. Traditionally, the P code which is superimposed on a carrier that is ten times the frequency of a C/A carrier. Using S/A operational mode the DOD can even degrade the accuracy of S/A code. In case of S/A (selective availability) the DOD creates artificial clock error in the satellites. It is the largest source of error in the GPS system. Each satellite has its own distinct pseudo-random code.
Differential GPS
A receiver placed at a given (known) location (base station) calculates total error in satellite range. This error is then used to correct the locations measured by the other receivers (rover units) in the same locations. Since satellites are about 10,900 miles altitude, therefore, the error of base station will be identical to the errors of rover units.
Receivers
There are two types of receivers:
Sequencing receivers: these are one or two channels and are generally used for recreation purposes.
Continuous receivers: they are often used for surveying and scientific purposes. They generally have 4,6,8,10, & 12 channels. They eliminate the GDOP problems.
How to use GIS software
Geographic Information System software that was developed by ESRI Inc. is used in managing the data in map forms in different layers. The arc view 3.3 is used as follows:
· Click on “arc view GIS 3.3” icon
· Put “.” On “with a new views”
· Click “yes” to add data
· Select the drive where the data is and also the folder and the file.
· Select “image data source”
· Highlight the file and then press O.K.
· On the left side check mark “the file” to make it active.
· Click on “view” and then “properties” and then select the map units = “meters” and also the distance units as “meter”
· You can also choose the scale. You can select the scale to enlarge the map or make it smaller
· To measure the area in square meters, you need to click on “period” and then the icon to measure the area.
Introduction of GPS and GIS at
I have introduced the global
positioning system (GPS) and Geographic Information System (GIS), new state of
the art technologies, as research tools at
At my suggestion the faculty of agriculture has put together budget to purchase GIS software and GPS unit. About 2 faculty in soil science are trained enough to use both GIS and GPS in nutrient management research.
To develop digital imagery of
·
Received (at no cost) the digital imagery data
for
· Also received the digital imagery data of Dera Ismaeel Khan (worth $500) from Digital Globe for free. Again my special thanks to Mr. Tomassee.
· Using the GIS software I developed the maps of new campus and also D. I. Khan City (the maps are attached in the appendix).
· I exported the GIS maps to JPG format and copied all the JPG files on CD and gave copies of the CD to selected faculty and staff for their use.
4.
Yield and
quality improvement: Once our project on Date Palm Production is approved then we will
identify the factors that will increase yield and quality of dates that are
commonly grown in the area. The average
soil test values for
|
Soil test |
value |
Unit |
extractant |
|
pH |
8.2 |
|
|
|
EC |
1100 |
m.mohs/cm |
|
|
Ca and Mg |
12.1 |
Me/liter |
NH4OAC |
|
chlorides |
4.3 |
Me/l |
|
|
HCO3 |
0.88 |
Me/l |
|
|
O.M |
0.16 |
% |
|
|
Total N |
0.008 |
% |
|
|
P |
2.00 |
Lbs/A |
NaHCO3 |
|
K |
224 |
Lbs/A |
NH4OAC |
|
Na |
64 |
Lbs/A |
NH4OAC |
|
Zn |
0.525 |
PPM |
NH4EDTA |
|
Fe |
7.509 |
PPM |
NH4EDTA |
|
Mn |
12.56 |
PPM |
NH4EDTA |
|
Cu |
0.050 |
PPM |
NH4EDTA |
|
CEC |
14.7 |
Me/100 g |
|
The average wheat or rice yield at
the farm is about 2 tons /ha or 30 bushels per acre. In the
a.
Soil test on each acre may be conducted once every
3 years and fertilizer recommendations should be made based on correlation
study pursued at
b.
Organic matter needs to be raised because 0.1
percent organic matter appears to be too low for crop production.
c.
Since the faculty of agriculture has been shifted
to the new campus from old campus only 9 months ago, therefore, they did not have
enough time to develop the farm facility. However, it is assumed that they may
be able to establish their farm in next few years and raise the yield and
quality of wheat and rice.
d.
Since Date palm is the most suitable fruit tree for
D.I. Khan eco system and therefore its commercial
production will be most appropriate. A project on this fruit tree production is
most appropriate.
e.
Fish farming also appears to be most suitable for
the type of soil at
5.
CNMP:
one student has been trained in comprehensive nutrient management.
6.
GIS and GPS maps
of Gomal university farm: I have developed GPS/GIS maps of the experimental
sites commonly used by Gomal University faculty and
graduate students and also the rest of the crop land leased to local
farmers. I have also developed GPS/GIS
maps of the rest of the farm land that will be potentially used for experiments
in future. The GIS maps are attached in
appendix. Since GPS equipment is not purchased yet, therefore no GPS maps were
developed. However, I have helped Dr. Jameel in
purchasing the GPS equipment and GIS software. Selected faculty are trained
enough to run the software.
7.
AEM Plan of
The AEM plan of
IV. Accomplishment of tasks not mentioned in the job
description:
1. Served as foreign advisor to Mr. Rehm Din Khan during his defense. I asked several technical questions from Dr. Rehm Din Khan and he successfully and correctly answered every question. Based on my judgment, I gave passing grade to Dr. Khan during his defense and made recommendation that he should be granted a Ph.D.
2.
Co-Advising
graduate students
I have already started co advising
Imdad Ullah Khan along with Dr.
Qasim and Dr. Sharif Zia (an Eminent scholar). I will help Mr. Imdad
Ullah
through electronic means from
3.
Joint
article:
Co wrote a paper where Dr. Sharif Zia is senior author, Dr. Qasim second author, I am the 3rd author, Dr. Jameel 4th and Mehwish 5th author.
4. Worked on university web page.
I met with Mr. Saqib,
the web page designer, and helped him put GIS maps of the new campus, city
campus, and D. I. Khan city also. The
new maps can be viewed on the
5.
Wrote text
book on “Introduction to soil physics, genesis, and classification”:
I wrote a text book on “Introduction to soil physics, genesis, and classification” where I am the senior author and Dr. Qasim is the second author. The text is 161 pages long and is submitted to Higher Education Commission for publication.
Appendix
Concept
Paper # 1
Project
Title:
DATE
Authorities:
1.
Sponsoring
Agency:
Higher
Education Commission,
2.
Executing Agency:
3.
Operation and maintenance Agency:
Faculty
of Agriculture, Gomal
Rationale:
The Establishment of Date Palm Research and
· Establishment of Commercial Date Palm Orchards
· Infrastructures
· Green Houses and Warehouses
· Cold Storage Facilities
· Date Palm Processing Line
· Date Palm Packaging Line
· Water supply
· Quality control labs
· Demonstration Labs
· Analytical Labs
· Research Labs
· Class rooms
· Offices
· Utilities
Date palm (
The total cultivated
area of all type of dates in
Besides having several other
commercially important date cultivars, Dhakki is the
most promising local variety of Dera Ismail
Khan. About 60 % of the total production
is furnished by this cultivar and there is continuous increase in its
production. In fact, it is amongst the top few world-leading cultivars and was
recognized in the recently held 4th International Symposium on Date
Palm at Dhammam, Saudi Arabia (May 5-8, 2007)..
Dhakki date has fruits of choice and is market
oriented. The fruits possess large size
(4-5 cm long and 2-3 cm thick), weighs 20-25 g / fruit, are very fine
texture with exceptionally high flesh / stone ratio (96 %), relishing
taste, good appearance, and reasonably longer shelf life. In fact Dhakki date holds all the virtues
to meet the world requirements and has immense potential to compete the date
exporting countries all over the world. Therefore, it is gaining
unprecedented importance both in domestic and export markets.
In spite of the fact that the Dhakki Date is a crop of national significance, yet it is not gaining requisite attention on scientific lines towards its development, production, processing and packaging sides. In addition, Dhakki cultivars are facing diversified problems and some of them are dependent upon the weather stresses while the other arising out from resource shortage, storage and transportation facilities and above all the lacking in know-how.
· Lack of know- how in management of orchards
· Fruit drop.
· Cultural practices.
· Damages caused by natural hazards (Temperature, Monsoon storm of wind and rainfall, Birds, Insect pests and Diseases).
· Lack of storage and transportation facilities
3.
Problems Linked to Processing/
Packaging of Dates
·
The traditional methods for ripening/ curing are
still in vogue. The fruits at Dong stage are spread on mats and exposed to sun
in open air; the dusty environment renders
a product non‑uniform and substandard quality with very poor yield.
·
Due
to persistent raining and stormy conditions large amount of the harvested dates
gets moldy, fermented, dusty, and bird/ insect invaded.
·
Dhakki dates being
relatively more susceptible to high humidity conditions at Dong stage
receive substantial damages from monsoon rain and
storm as well as from insect/ bird bites.
·
The drop in day temperature at the end of summer
season causes on-tree fruit ripening to slow down for late varieties like
Dhakki, and hence the period between consecutive pickings
as well as the number of pickings is increased which adds further to
infestation and expenses.
·
There is uncontrolled production of dates, and
hence a large quantity of freshly ripened
dates becomes available, which not only gluts local market but pre-occupies
space which hampers into proper handling and processing of Dhakki
dates for being late variety, and as a result the surplus produce is wasted.
·
Non-availability
of appropriate on-farm shelters, not to mention of cold storage and
transportation facilities, or advanced preservation methodology further add to
the problems.
·
Non-existence of proper processing and packaging
facilities further reduces quality and shelf life of the produce fetching lower
return price.
·
The colossal
amount of fruit wastage wrecks the crop yield ultimately devastating the
economy of the growers.
4.
Time to complete
the
Project.
60 months
5. Relationship of the project with the objectives: The Agriculture Policy of the Government of Pakistan anticipates the achievements of the
following objectives for the
Universities:
a. To take on their new responsibility
of providing leadership in national development.
b. To provide better education, teaching and research in agriculture in general and horticulture and Food Technology in particular.
c. To bring coordination and regulation
in the research programs of all the Universities.
Agriculture
policy highlights the intensity of the threats emerging from the environmental
issues facing the country and requires agriculture research scientists to
suggest remedial measures to halt this trend and to rehabilitate the ecosystem.
The project is
inline with national priority areas of Teaching/research and self reliance.
Date Palm Research and Commercial Production Centre holds promise for academic
activities and commercial exploitation of dates and Dhakki
date in particular. This will definitely help in economic uplift of the country
by producing quality dates to meet export demand. Moreover this would be
helpful in solving the problems being faced by the farming community and those
directly or indirectly engaged with the date palm cultivation, production,
processing, packaging and export business. It would also reduce the
environmental stress on the country. Therefore, the present project, as such,
is well in line with the main objectives of agriculture and scientific
education sector of the Government.
6. Objectives of the project preferably in
quantitative terms
The
main objectives of the project
include:
·
To replace the traditional and wild date palm cultivars through
introduction of new good quality and high yielding cultivars suited to the
area.
·
To develop production technologies different from in vogue
cultivars of the area.
·
To develop new technologies to reduce the Post harvest losses of
Date fruit.
·
To provide
infrastructure for the establishment of a pilot Centre for Date Palm collection
and Processing & Packaging Lines.
·
To provide Lab
facilities for Preparing, Processing and Packaging Technology at
·
To provide
teaching and research facilities to a degree level program in order to
specialize students in acquiring of advanced processing and packaging
technologies. New horizons based on scientific advancements will be explored
tailoring also the existing provisions.
·
To process and
package the potential varieties specifically Dhakki
at large scale on scientific lines in order to increase the production of
quality dates as per international standards and to meet the export
requirements so as to compete the world market.
·
To provide
insight to gain advanced knowledge through research activities.
·
To provide the required knowledge regarding date-palm value
addition.
·
To disseminate
modern technological information to door steps of the end users.
·
To fulfill the
shortage for the skilled manpower in these high-priority disciplines, and blast
into the quality of Dhakki dates for export
promotion.
·
To provide
earning to many countrymen, and ultimately fostering the economy of the
country.
The achievement of the main objective will
further lead to the materialization of
The availability of quality date palm
planting materials will improve commercial cultivation and production, and also
will eventuate in setting up a processing & Packaging and Advanced Cold
Storage facilities. The facilities will also be extended for use on hire basis
to private entrepreneurs. This will not only lead the production of a large
amount of quality dates for export purposes and hence will increase our foreign
exchange earnings. This will also result in the increase of farmer's income to
alleviate poverty of farming community and improve their livelihood.
7.
Total Cost of the Project
|
Item # |
Item |
Cost
Estimate
Rs
(millions) |
|
1 |
Infrastructure for the Centre |
15.50 |
|
2 |
Land Development
|
1.20 |
|
3 |
Plants & Related Materials |
3.52 |
|
4
|
Post Harvest Lab., Store houses & Lath Houses |
2.86
|
|
5 |
Cold storage, disinfectant
& humidifying storages etc |
10.00 |
|
6 |
Equipments for Date Processing
Unit
|
18.00 |
|
7 |
Equipments for Date Packaging
Unit
|
18.00 |
|
8 |
Equipments for Steam Line Unit |
10.00 |
|
9 |
Other equipment and Apparatus |
13.00 |
|
10
|
Furniture/ Fixtures Required for Laboratory etc.
|
1.86
|
|
11
|
Vehicles, Field Transport, POL & Maintenance
|
9.30
|
|
12
|
Scientific
Equipment / Machinery /
Chemicals
|
8.23
|
|
13
|
Library
Books & Journals
|
1.60
|
|
14
|
Faculty
& Support Staff Salaries
|
16.2 7
|
|
15 |
Faculty Trainings Abroad, Local
Trainings & Workshops
|
3.15 |
|
16
|
Utilities, Stationery, Postage,
Phone, Internet, Faxes,
Electricity
Charges, Water Supply&
Gas Charges etc. |
3.05
|
|
17 |
Printing, Publications and
advertisement |
0.61 |
|
18 |
Marketing of Dates & Dates’
Products |
1.00 |
|
19 |
Information technology devices including computers, printers, scanners, soft wares, net working, wiring etc. |
2.50 |
|
20 |
Maintenance equipment such as lawn mower, tractor, and sickle bear |
7.00 |
|
21 |
Energy and water supply |
5.00 |
|
22
|
Contingences |
1.10
|
|
|
Grand Total |
152.75
|
DATE
COMMERCIAL PRODUCTION

AT A GLANCE
Production
Technology
Transfer
Packaging & Marketing
Processing
Module Ensures……
Ø Increased & Regulated Supply of Quality Dates.
Ø Ingenious Management of Surplus Production.
Ø Improved Storage & Transportation Facilities.
Ø Rapid market Information System (MIS).
Production:
· Identification of high yielding and quality varieties.
· Conventional and non-conventional propagation techniques (Suckers etc).
· Improved orchard management (nutrients supply, irrigation, pollination, pest management, pruning, protection from rain and birds, etc).
· Improved harvesting technology (Identification of maturity index in relation to the fruit uses, harvesting practices).
Processing:
Packaging and Marketing:
Technology Transfer:
·
Provision of suckers /plantlets to
growers.
Prepared by: -
1.
Dr. Adam
Khan, Associate Professor,
Agriculture and Technology, Morrisville
(
__________________________________________________
2. Prof. Dr.
Eminent Scholar
Department of
Food Science & Technology
__________________________________________________
3. Dean,
Faculty of
Agriculture,
Dera Ismail Khan
Approved by:
_______________________________________
Vice Chancellor
Dera
Ismail Khan.
Dated:
__________________________________
Concept
Paper
# 2
Name of the Project:
Fish Culture Research and Commercial
University,
Authorities:
1.
Sponsoring: Higher Education
Commission, Islam Abad
2. Execution:
3.
Operation and Maintenance: Faculty of
Agriculture at
Rationale:
The fish culture research, its commercial production, and
its marketing have great potential for
improving economic conditions in the areas around
Brief Introduction:
The Fish Culture Research and Commercial Production Center
(FCR & CPC) proposed here aims at
constructing a modular raceway fish farm at Gomal
University, D.I.Khan in order to provide protein rich
food for the public on local, national, and international level. In addition, the center will bring
improvement in socio-economic conditions of local population. Commercial fish farming can play an important
role in raising standard of living of farmers in Indus basin throughout
Fish is a great source of protein for Pakistani
population. It is evident that
Fish culture research and commercial production center at
The NWFP has comparatively lower number of fish farms
because of cold climate in the mountainous area. Most of the aquaculture in
In
Fresh water carp farming which is by far the main stay of
aquaculture activity in
The type of fish species adapted to D. I. Khan climate include grass carp, silver carp, and common carp. We expect that Mega carp (Chinese origin) will be very successful in D. I. Khan climate.
Problems linked to Fish production in D.I. Khan
Problems linked to processing, packaging, and
transportation:
Time to complete the project: 60 months:
Relation of the project with the
objectives:
The mandate from the Government to the universities is to provide leadership in national development, to explore ways for better education, teaching, and research in agriculture and particularly in fish production, to improve research facilities and to raise funds for their research activities. In addition, it is the responsibility of the universities to find ways on how to clean the environment
The project proposed here supports above objectives
Objectives of the project in
Quantitative terms:
1.
To
initiate 180 acres modern, state of the art commercial fish production center
at
2. To establish, on 180 acres area, the fish production technology that will use modern techniques as compared to the currently outdated ones.
3. To develop new technologies of processing, packaging, and marketing 27,000 Kg fish annually as compared to the outdated techniques currently in use
4. To develop infrastructure for the establishment of commercial fish production center
5.
To
construct lab facilities (at least 3) for processing, packaging, and marketing
technology at
6. To construct teaching and research facility (at least 5 rooms each) for students to specialize in fish production.
7. To disseminate the knowledge of fish production, processing, and marketing to farmers
8. To help increase the income of local fish farmers
Budget:
|
Item # |
Item |
Cost estimate
Rs (million) |
|
1 |
Infra structure |
2.5 |
|
2 |
Fish ponds construction |
1.2 |
|
3 |
Cold storages |
0.5 |
|
4 |
Equipment for processing |
0.5 |
|
5 |
Equipment for packaging |
0.8 |
|
6 |
Other equipment and apparatus |
1.0 |
|
7 |
Furniture and fixtures required for the lab |
2.0 |
|
8 |
Vehicles, field transport, and maintenance |
8.0 |
|
9 |
Truck with refrigeration for transportation |
6.0 |
|
10 |
Scientific equipment, machinery, and chemicals |
1.0 |
|
11 |
Library books and journals |
0.5 |
|
12 |
Faculty and support staff salaries |
8.0 |
|
13 |
Faculty training abroad, local training and workshops |
1.5 |
|
14 |
Printing, publications and advertisement |
0.5 |
|
15 |
Marketing |
0.5 |
|
16 |
Information technology, internet, networking, and computer supply |
1.5 |
|
17 |
Energy and water supply |
3.0 |
|
18 |
Contingences |
1.0 |
|
19 |
Construction of offices and labs |
50.0 |
|
20 |
|
|
|
21 |
|
|
|
|
|
|
|
|
Grand total |
90.0
|

Total area for the project = 42.8 ha + 29.6 ha = 72. 4 ha = about 180 acres
Location of the project:
1.
North east
of the entrance gate and university road = 42.8 ha
2.
Prepared by:
Agriculture & Technology at Morrisville,
Assistant Professor,
Gomal College of Veterinary Sciences,
Faculty of Agriculture,
Gomal University, Dera Ismail Khan.
Dean,
Faculty of Agriculture,
Approved by:
____________________________________
Vice Chancellor,
MAPS
1.
2.
3.