Conclusions related to PTD in RADS Jalal Abad
The
Rural Advisory and Development Service (RADS) in Jalal Abad understands
Participatory Technology Development (PTD) as a farmer-driven activity to find
out new things that work. Farmers define together with researchers and advisors
the research needs and they design, implement and evaluate the programmes
(“experiments”). The main players and their motivations are: 1) the farmer, who
is looking for improved ways to make a living out of farming, 2) the
researcher, who is gaining additional salary (in cash and time) and the
possibility to stay in contact with reality, and 3) the agricultural advisor,
who has a concrete advisory topic (tangible result).
PTD
methodology was introduced into Kyrgyzstan mainly by the Swiss
(Helvetas)-funded advisory projects, Kyrgyz Swiss Agricultural Project (KSAP)
Kochkor-Jumgal (1997–98) and the current KSAP in Jalal Abad (JA) and Naryn
(NA), that provide technical assistance and co-finance the RADS in three of six
oblasts (districts). Four years of activities have shown that PTD methodology
is a concrete approach that contributes to developing new practices in
production, processing and marketing and generates income. By the end of 2000,
staff of RADS JA could carry out PTD weeks on their own.
An
example of a successful PTD venture is cheese production in Naryn. Factors
leading to success were:
The
experience with PTD showed that:
There
is still much to learn. The spirit of innovation and experimentation on
improved production and marketing has not yet caught on fully in Kyrgyzstan.
The RADS has not used opportunities systematically and has sometimes misused
PTD in order to distribute inputs. The link to researchers and research
institutes needs further improvement. Trials were often not owned by farmers.
More PTD weeks in RADS topics other than production are indispensable.
The
Kyrgyz Republic is a small, mountainous, land-locked country of about 200,000
km2 in Central Asia. It is surrounded by China, Kazakhstan and
Uzbekistan. With Uzbekistan, the Kyrgyz Republic shares 70 years of Soviet
regime. In 1991 the country became independent and, since then, has been in an
economic and social transition toward a market economy and democracy-like
structures. The 1999 population of 4.8 million had a Gross National Product of
US$ 300 per capita. Over 60% of the population lived below the official poverty
line and 23% could not afford even the poverty-line food basket.[i]
Agriculture
is the most important contributor to the national Kyrgyz economy. Officially, 48%
of the population work in agriculture and contribute 44.2% to the Gross
Domestic Product (GDP), 10% working in industry contribute 22.6% of GDP and
those working in services 35%.i According to officials, the
unemployment rate is less than 10%. This figure does not include workers
temporarily laid off as a result of enterprises lying idle. Also government
employees often have to rely on additional sources of income, because salary
payments are months behind. In the 1990s, despite substantial recovery in agricultural
production and value added to near or above 1990 levels, rural incomes per
capita fell substantially.ii
Figure 1: Map of the Kyrgyz Republic and agroclimatic
zones of Jalal Abad Oblast [ii]




Zones classified according to humidity
(precipitation): 1a very dry (<150 mm), 1b dry (150–200 mm), 1c slightly
deficit (200–250 mm), 2 moderately humid (250–300 mm), 3 sufficiently humid
(> 300 mm).
Agricultural zones of Jalal Abad
Oblast: ---- upper, mountainous zone, ……
lowland and foothill zone.
Table 1:
Main crops per agroclimatic zones of Southern Tien Shan[iii]
(refers to Figure 1)
|
Zone |
Characteristics |
Sum of day temperatures (oC) |
Main crops |
|
1 |
Extremely warm |
> 4000 |
Cotton, wheat, fig, pomegranate,
maize, wine |
|
2 |
Warm |
4000–3000 |
Cotton, wheat, tobacco, maize,
vegetables, gourds, wine, fruits |
|
3 |
Moderate |
3000–2200 |
Wheat, corn, vegetables, gourds, wine,
fruits, potatoes |
|
4 |
Cool |
2200–1200 |
Wheat, maize, cabbage, fruits,
potatoes, fodder root crops |
Jalal
Abad (JA) Oblast has two main agro-economic zones: a lower zone of intensive
crop growing and an upper zone of extensive agriculture, based mainly on animal
husbandry. JA Oblast is divided into eight rayons (subdistricts), five
in the lower and three in the upper zone. In the three biggest rayons of
the lower zone, more than 60% of the agricultural GDP of JA Oblast is earned,
in the upper zone only 14%.
These
figures reflect the population density. In the three agro-economically most
important rayons live 59% of the rural people; in the mountainous rayons
of the upper zone, only 8%. The average number of persons in each of the total
of 67 village management units (Ail Ökmöt) in JA Oblast is high in
comparison to other oblasts of Kyrgyzstan. The irrigated land owned per
person varies between 0.06 and 0.5 ha. There are farms run by single families
or small groups, and larger peasant farms (dykan tsharpa) with up to
1000 members.
The Rural Advisory and
Development Service Foundation (RADSF)
The RADSF is meant to be a farmers’ organisation with farmer
councils (legislative bodies) at three administrative levels (rayon, oblast and
national). The executive body consists of six regional centres (Oblast RADS)
and a secretariat in the capital Bishkek. Figure 2 gives an idea of the
structure of the RADS in JA Oblast, as an example. The role of the secretariat
is to coordinate activities, to train advisory staff and to provide (financial)
supervision.
The RADS gives training to individual farmers, farmer groups or
farmer associations. Participatory exercises carried out in the villages lead
to new knowledge and skills. The RADS facilitates the exchange and
dissemination of such knowledge. While promoting groups, it strives for farmer
interactive extension, increased exchange of experience and reaching critical
economic size for marketing.
Figure 2: Organisational chart of RADS Jalal Abad in 2000

In the oblast
centre, a Regional Manager and five Subject Matter Specialists (SMS) provide
logistical and topical support to the rayons and are responsible for
planning, monitoring and evaluation. In each of the eight rayons, 3–5 rayon
advisors work. They are generalists with a basic knowledge in all spheres of
agriculture and are in close contact with “temporary promoters”, either “village
promoters” (VPs) who are women, working with groups, or village specialists
(VSs)in charge of a specific task. A VS has either specific topical education
(possibly an academic degree) or – even more important – profound experience in
the subject matter.
The RADSF has four sources of finance: 1) a loan from IFAD
(International Fund for Agricultural Development) and the World Bank, 2) the
Kyrgyz Government, 3) a grant from the Swiss Government (implemented by
Helvetas) contributing 51–60% to the budgets of the oblasts Naryn Issyk
Kul and Jalal Abad, and 4) the beneficiaries. By the end of the first phase in
2003, the beneficiaries are supposed to contribute 5% of the RADS budget.
Following the Russian saying, “he who pays calls the tune”, RADSF today is controlled
primarily by donors and the Kyrgyz Government and only to a limited extent by
farmers.
PTD training and exposure for
the various actors involved
Main actors and their
motivation
Implementation
and follow-up of PTD experiments
Assessing
results of PTD experiments
RADS
JA understands PTD as a process of:
all
conducted by farmers, researchers and advisors, with the farmer being the
driving force (owner of the innovation), the researcher contributing knowledge
and a wider view, and the advisor facilitating the process and assuring
documentation and dissemination of the results to other farmers.[iv]
In
this paper, the term “PTD week” refers to an activity designed to start up and
plan PTD for the next cropping season or a suitable time period for PTD in
livestock husbandry or marketing. A PTD week usually lasts for five days. The term “experiment” refers to any willingly
arranged modification of farming practices, often planned during a PTD week.
Each experiment has a control (usually the existing farming practice) in order
to allow comparison with the new technology. Experiments often have no
replications or, if there are any, then often on another farm. They are not
designed to provide scientifically substantiated insights. The words
“experiments” and “trials” are used synonymously. A “pilot farmer” is a farmer
who implements a trial and shares his/her experiences with other farmers during
one or two field days. Only then is s/he called a “temporary promoter” (village
promoter or facilitator), who receives a RADS working contract. Pilot farmers
are often members of the RADS Farmer Steering Committee.
Alongside
various types of on-farm research, PTD is a research process that is independent
of government or private enterprise and is driven by farmers’ visions. It is
limited only by the capacities of the farmers, advisors and formal researchers.
Development-oriented adaptive research aims primarily to improve sound forms of
production and to make it more profitable. In comparison to conventional
research, PTD has the potential to contribute to socially sound development, as
innovation is not primarily started up by money or governmental power, but by
the initiatives of farmers, researchers and advisors. PTD means continuous
assessment and learning on each farm. When the advisory service then
facilitates exchange of experiences between farmers, knowledge develops even
further.
The first projects – advisory service and credit
Advisory
field laboratory in two rayons of Naryn Oblast a step toward PTD
Introducing PTD into the World Bank-supported RADS –
starting to scale up
Agricultural
extension activities started in Kyrgyzstan in 1994 when the ATAS (Agricultural
Training and Advisory Service) project set up a training centre in Bishkek.
Later, TACIS-1 (Technical Assistance to CIS Countries) advised farmers in Chuy,
Issyk Kul, Talas and Jalal Abad through training and visits. The German Agency
for Technical Cooperation (GTZ) started its advisory project in Osh Oblast in
spring 1997.
On
behalf of the Swiss Government, Helvetas started the KSAP in 1995 in the rayons
of Kochkor-Jumgal in Naryn Oblast. In the same year, Caritas started the
Kyrgyz Swiss Agricultural Project in Suzak, Bazar Korgon and Nooken Rayons of
JA Oblast. At first, each project had its own or an associated credit
component, and advisory topics were linked to credit in most cases. In 1998,
the approach was revised in all projects, when Caritas ceased advisory
activities and went for an independent credit line, Helvetas discontinued
credit and focused on technical assistance, and GTZ institutionalised the link
with the American-funded ACDI/VOCA (Agricultural Cooperatives Development
International / Volunteers in Overseas Cooperation Assistance). In 1997, with
the support of Helvetas, participatory advisory approaches were started in
Kochkor-Jumgal.
In
the field of seed-potato cultivation, fodder mixtures and meat and milk
processing, Helvetas started collaboration with scientific institutes such as
the Agrarian Academy (Division for Seed Potato), the Pasture Institute and the
Polytechnic University. GTZ started to work together with the Osh State
University. This collaboration with research institutes was a concrete step
toward PTD. While planning was still in the hands of the researchers,
implementation and ownership of the PTD experiments were in the hands of the
farmers. In the case of seed potatoes, cheese and meat, the farmers were to a
certain extent accountable to the service, as they received material support.
Already in the second year, however, farmers organised themselves and decided
on their own about the use of the seed. The scaling up of cheese production and
its impact are described later in this paper. Other activities such as
seed-potato production were transferred to the newly created national advisory
service (RADS). However, a fairly rigid legislation and unreliable input of
original seed material prevented the technology from spreading to a larger number
of farmers. None of the meat products developed during the experimental phase
is produced commercially today.
Adaptive
research is foreseen in the planning document for the Agricultural Services
Support Programme (ASSP) and its implementation within the framework of the
RADS. The appraisal report describes adaptive research as “demonstration of
proven small farm technology at rayon level” and refers to participatory
research to develop a pipeline of new technology. The advisory service would
have the role of providing the support needed to develop a practical programme
of demonstrations and field trials in each oblast, i.e.:
Implementation
in the RADS was later modified to reduce material support to a minimum in order
to assure farmer ownership of the activities and to prevent farmers from
participating for the sake of material support rather than an interest to
develop innovations.
The
main aim of the RADS is raising the standard of living in rural areas, which is
linearly correlated with agricultural productivity. In Kyrgyzstan, the RADS is
the major actor in transferring knowledge and skills to farmers. In JA Oblast,
as in the other five districts with RADS in Kyrgyzstan, it uses three main
tools for providing advisory services to farmers: training, adaptive research
(PTD) and group formation. The first is applied in a rather linear
Training-and-Visit approach, and group formation may not be considered as a
“direct” advisory tool. Adaptive research offers the greatest room for
manoeuvre in terms of methodology and technical approaches. It is the most
practice-relevant form of farmer support foreseen in the planning papers.
Implementation
of PTD needs an institutional framework that encourages farmers to continue
trying out new technologies. Only the advisors of the former Helvetas project
in the Kochkor and Jumgal Rayons had methodological skills and knowledge in
terms of farmer participation in technology development and had received
international backing. In the other oblasts, an appropriate environment
had to be created. The RADS JA is striving to achieve the following:
In
a highly educated and specialised professional environment, as it is the case
in Kyrgyzstan, there is a risk that interaction with farmers is hampered by
“shoptalk” by either advisors or specialists.
PTD
cannot be studied and then applied. The researchers and advisors involved have
to learn while acting and reacting together with farmers. PTD in its entire
complexity is only beginning to be built up in the RADS. It works best when
practised. Continued follow-up after its initiation is necessary.
Staff
of RADS JA became acquainted with PTD for the first time when a SMS and a rayon
advisor took part in a workshop in Issyk Kul Oblast. In the same month, these
two staff members spread their knowledge to the advisors of RADS JA. Figure 3
shows the dissemination of knowledge as such and applied in practical
exercises. It distinguishes thereby between participation in PTD weeks
(reception of knowledge), illustrated with an outlined dot and competencies
(experiences, skills), gained through reproduction of PTD methodology as
trainer or moderator, illustrated with a black dot. The illustration is not
complete, as the “PTD pyramid” had already within a couple of months a basis of
some 100 persons. The figure only keeps track of those that later implemented
or contributed to a PTD week in a leading function. By the end of the year
2000, RADS JA has one master trainer, two trainers and 12 co-trainers in PTD.

Figure
3: Dissemination of
PTD among the staff of RADS Jalal Abad in major practical exercises
(Œ= performers, O =
participants) in field
implementation of PTD in RADS Jalal Abad
My name is Ergesh Bekeshov. I’m a leader of a farmers association in Aksy Rayon
of Jalal Abad Oblast. The association consists of five families, a total 38
persons, all relatives of my wife and myself. We have 4.8 ha of irrigated land, located at 1400 masl. We
decided to grow seed potatoes because they do well and we can sell them to
the lower regions and to Kolkhozes in neighbouring Uzbekistan. In the first year, Konstantin Pavlovich showed us three
different ways of growing seed potatoes. The yield was good and so I
prepared together with Nurkul a plan for the next three years. In the
second year we got some difficulties with Phytophtora, but Nurkul showed us
how to treat it and Konstantin explained what Phytophtora is. Now we plan
to get the status of seed farm, but therefore we need 50 ha of land. My name is Nurkul Stamov. I graduated from the Polytechnic
Institute of the former Kyrgyz Soviet Republic in food engineering. In 1989
the Aksy dairy plant became a victim of Perestroika and so I lost my job.
Later I was given some land and earned experiences as a farmer. In 1999 I
passed the exam and became RADS
advisor. In RADS each advisor is a generalist and so I had to get
familiarised with many new fields in agriculture. From E. Bekeshov I learnt about the economic side of seed-potato
growing and marketing conditions. With my knowledge in business plan
preparation, we drafted a plan for the next three years. From Konstantin I
learnt how to grow potatoes, but also how to determine the yield in a
scientific way. I’m the linkage between both. In Aksy the villagers have
often no telephone. My name is Konstantin Pavlovich Gorbov; I have a PhD in
Meristem Seed Potato Production and am lecturer
at the Agrarian Academy of the Kyrgyz Republic. Moreover I’m the head
of a Seed Potato Laboratory, which has recently been privatised. As my
salary as lecturer is only US$ 14 a month and paid irregularly, I
concentrate more and more on commercial activities like the sale of seed
potato or consultancies. The Advisory Service brought me in 1997 for the first time
together with farmers. This collaboration allowed me to contribute to basic
on- farm seed development and to get valuable insights for my scientific
work. The advisory service helped me to continue my work for the
economically difficult transition period as researcher.
It
is difficult to characterise farmers involved in PTD in Jalal Abad. Some were
so-called Akimiat farmers; this means farmers with close relationship to
local administration. The majority of clients were leaders of a farmer
association or individual farmers with initiative. Only a minority were
so-called poor farmers. Mainly the vegetable experiments, for which women were
approached, reached this last group.
In
RADS JA about 40% of experiments were set up and implemented together with
women. Despite the fact that the follow-up of these trials through village
promoters and female rayon advisors often lacked professional technical
inputs, more of these trials were brought to a concrete result.
Main actors and their
motivation
Since
the pilot phase of the first Helvetas project in Kochkor-Jumgal, researchers became
an extended human resource of the advisory service. In most cases, researchers
worked on a task-oriented basis with a limited contract. Umbrella agreements
were negotiated and prepared in 1999 (Agrarian Academy) and 2000 (Uzbek
National Cotton Institute, Andijon) only.
During
the PTD week dedicated to fodder production held in April 1999 in Issyk Kul
Oblast, researchers – either livestock specialists or specialists from the
pasture institute – participated in the exercise. The evaluation workshop in
September revealed that none of them had visited a trial during implementation.
The lack of clearly binding conditions in the contract and the remoteness of
Tiup Rayon in Issyk Kul Oblast might have been the main reasons.
In
RADS JA, the participation of scientists in PTD is a bottleneck. In most teams,
there were no real researchers. In all PTD weeks dedicated to vegetable growing
and conservation, local resource persons therefore took the place of scientists. Scientists who graduated from Russian institutes
often have a narrow specialisation and/or did not follow the trends of the last
20 years. When RADS JA wanted specialists in biological plant protection
(Integrated Pest Management in Bazar Korgon Rayon), there was simply no
scientist available with such a specialisation. Collaboration with Uzbek
scientists started with the first international cotton conference and the IPM
week in Bazar Korgon.
The role of researchers was discussed
on various occasions, for instance, during the PTD experience workshop in Issyk
Kul on 21–22 September 1999. There, the researchers themselves asked for closer
involvement in the PTD experiments. However, their main motivation to
collaborate with the extension service was not primarily to test the innovation
but rather to receive the cash payment – a fact that some of them admitted
openly in informal discussions after the workshop.
Main actors and their motivation
Advisors
Rayon advisors are the link
between farmers and researchers. Their participation in PTD weeks was aimed at:
The
experience in RADS JA showed that rayon advisors are not able to conduct
an entire PTD week on their own after having seen PTD methodology as
participants somewhere else. An attempt in Aksy Rayon failed when an advisor
introduced local resource persons (‘researchers’) and village promoters to the
methodology in a one-day workshop and then sent them for three days to the
villages.
Village promoters
In
most PTD weeks, village promoters (VPs) were involved. VPs are part-time staff
of RADS JA and in charge of group formation and coaching. In Suzak Rayon, the
promoters did good work in bringing the members of a group together, and later
in bringing different groups together to exchange experiences.
In
most cases, the technical support given by VPs to farmers was poor. Only a
former brigadier (foreman in the Kolkhoze) in Octiabrkskoje was able to
provide sound advice to the farmers. There are quite a few cases in which PTD
experiments gave good results without VPs, for example, in Toktogul Rayon in
the villages of Cholpon Ata and Torkent (milk shop).
Main actors and their motivation
Topics of the PTD experiments
and their technical feasibility
Every
October, RADS JA carries out local planning exercises in the villages. Within a
project phase, the yearly plan of operation is prepared. Three main questions
are discussed: 1) an assessment of the ongoing programme; 2) suggestions as to
which topics should be added in the next year; and 3) suggestions as to which
ones should be dropped.
It
was then up to each specialist to decide which advisory tool might be most
suitable to deal with the problem. In 2000 only the agronomist and livestock
specialist chose the PTD methodology as a tool. This rather liberal approach
has the advantage of leading to need-based “research”, but it involves a broad
range of topics and challenges all staff with respect to facilitation and
support.
Each
PTD week in RADS JA was dedicated to a specific topic. In terms of methodology,
the pattern was as follows:
Day 1 Introductory workshop in a central village: mutual
introductions, methodology of PTD, use of Participatory Rural Appraisal (PRA)
tools for the survey, common language regarding the topic, planning the visit
to the village;
Days 2–4 Information meeting in the village, survey, visit to the
farmers who showed interest, clustering ideas, going back to the farmers and
refining the ideas, jointly working out the set-up for an experiment,
presentation of screened ideas, welcoming farmers willing to try out the idea
(technology) and developing an action plan together with them;
Day 5 Experience exchange among the different
groups in the central village, handing over all action plans to the respective rayon
advisor, discussing whether a (local) specialist is needed for the follow-up of
the trial (moderator).
In
many PTD weeks, the introductory meeting and the assessment were shortened. On
one hand, this might help to disseminate the approach more easily and to link
up with local habits. However, the group risked including persons who are not
familiar with the methodology – often the local farmers in the preparatory
phase or the specialists during implementation. Extensionists have a tendency
to talk in their own “language”. With an increased number of PTD exercises,
there is a risk that the language becomes more to the point, but not
necessarily more understandable for the newcomers.
In
only a few cases were pilot farmers involved in the planning and monitoring
activities of a PTD week. Pilot farmers may open the access to villagers and
may be of less importance only in cases where an advisor already worked before
in the region.
RADS
JA carried out 13 PTD weeks dedicated to the following topics (number of weeks in
parentheses): production and marketing of agricultural products (1), cotton and
soil fertility (1), IPM in cotton (1), fruit growing and conservation (1),
prospective production of crops and animals (1), improvement of animal
husbandry (1), and growing and processing vegetables (7).
PTD
means trying out new things that work: these can be either clever
recombinations of elements of familiar technologies or combinations of known
elements with new elements having been brought into the area (e.g. cropping practices,
new varieties, new ways of farm management or marketing a product)[v].
The degree of innovation varied in the different PTD experiments. If linked
with money, it was rather to use a new variety than to learn how it works; the
interest in material support was often bigger than the interest in the
technology. Some topics of PTD experiments were of an integrated character,
relying on multiple conditions or technical requirements.
If
a rayon advisor says: “We want to show to farmers the effect of …”, then
she is making a demonstration and not developing a technology in a
participatory way. One farmer even stated: “Tell me what to grow and I’ll do it
for you.” Here, the advisor is definitely tempted to impose an idea. It is an
art to pass the message that “continued improvement of a technology is an
integral part of farming”. The initiator (driving force) thereby has to be the
farmer; otherwise the self-dynamics and sustainability of the venture are
endangered. If some farmers today are waiting for innovations to come from
outside, this may be a leftover from the former Soviet system, so also the
above-mentioned farmer who was waiting for an order.
Besides
the PTD experiments, RADS advisors were supposed to prepare demonstration
“trials”, at least one each. Here it was clear that the ownership was on the
part of the RADS and mutual responsibilities were agreed upon on in a contract.
When ownership of PTD experiments tended towards the RADS, observations and
recordings often stopped and, because the advisor in some cases could not
manage at the end of the season to supervise all the trials, essential data
were lost.
When hunger wards off innovation curiosity
When
we asked a Russian grandmother in Octiabrskaya village about the results of the
new carrot variety, she answered: ”My golden son, how can you come and ask
questions about size and weight of the carrot?. You, who gave us those few
seeds. We have eaten them all.”
Payments slow down the
implementation of PTD experiments
Technical
support during the follow-up
Is
it difficult to design a good PTD experiment?
|
No, it isn’t. We saw a good approach when
visiting the cauliflower trial by Marazikova in Kok Jangak. She simply planted
between thousands of other cabbages a line of cauliflower; same soil, same
water, same climatic conditions and the same close influence from the crop
around the trial. |
Yes, it can be
difficult to
design a good trial that later allows comparison and drawing conclusions.
Nursalkyn in Kok Jangak tried out the new tomato variety TMK. She planted it
in a separate plot where she had previously applied compost. Despite this
privilege given to the new variety, the old Volgograd in the control plot
grew better. For comparison, such an approach is problematic. |
|
|
|
|
Figure 4:A line of cauliflower in a cabbage field; |
Figure 5: Sketch of Manas’ and Nursalkins tomato |
The
main shortcoming in most of the PTD experiments was the lack of or insufficient
control. In Kyzyl Tuu (Toktogul Rayon) farmers grew cabbage. It grew very
nicely and, at the end, farmers said: “We have nice results.” “Nicer than
what?” we asked. “Does cabbage pay more, nourish better or what?” Not having a
control is a side-effect of the subsidised seed. Farmers did not familiarise
themselves thoroughly with the participatory approach.

One trial leads to anotherAt
the southern edge of her garden in the Kok Jangak, Toktokan planted Brussels
sprouts. When we visited the plot, we observed a heavy attack of aphids.
Insecticides can be bought only in Jalal Abad some 30 km away. We advised
Toktokan to do so, as she was the only one in the entire oblast with
Brussels sprouts. We suggested that she add another trial: spraying as indicated
in Figure 6, while leaving witness stripes, might better show the effect of the
insecticide. Toktokan did so and showed the two trials to peers the next time
that she hosted the women’s group.

To
set criteria in advance for assessing results of a PTD experiment is a challenging
task. Only experienced advisors or scientists may, at the outset, be able to
say what, besides the yield, will be the most sound or convincing criteria to
be observed. RADS staff and scientists often did not pay enough attention to
setting criteria together with farmers.
A
sound criterion is economic efficiency. If one can express the result in Som
(Kyrgyz national currency, 50 Som = US$ 1) of additional income, s/he has
automatically taken all variables into account, ranging from local climate,
soil, cropping technology, harvest, storage and sale. Expressing a result in
Som allows compare of PTD experiments over distances. In RADS JA, a good trial
result is only that which has an economic analysis.
In
the field laboratory phase of the Helvetas project in Kochkor and Jumgal
Rayons, the project subsidised such inputs that either could not be afforded by
the farmers or were not possible for them to organise. This was the case, for
instance, with the cheese pilot unit: the project contributed 45% and the
farmers the rest. In the case of seed potatoes, more than 80% of all costs were
paid by the project. One Meristem seed potato costs US$ 0.50, or one fourth of
a minimum monthly wage in Kyrgyzstan. In the pilot phase, the few clients and
therefore the close coaching, but also the direct contact between expatriate
and farmer, helped build up mutual trust. In the scaling-up phase, this was
more difficult. Fast results were wanted also in the other oblasts.
Topics that showed good results in Naryn were adopted but not adapted
thoroughly. Time constraints influenced negatively the building up of staff
capacities or the “selection” of clients. In the scaling-up phase, the topics
of the PTD weeks became less complex, for instance in RADS JA, but were
supposed to reach more and poorer farmers. This initial intention turned out to
be problematic. Experience showed that, also during scaling up, time is needed
to build mutual trust between farmer and advisor. Many farmers who would have
been able to pay for the inputs received subsidised materials.
PTD
is not a humanitarian activity. The desire to increase one's knowledge and the
mission of improving agriculture should be the main motivations. In most PTD
exercises in 2000, RADS JA provided inputs for the farmers and, in the case of
vegetable growing, even completely free of charge. As mentioned repeatedly,
this enhances the “cup one’s hand” mentality of the farmers, privileging some
who then asked for more support the following year.
One
farmer in Besh Bala village regarded the given seed as the main input from the
advisor. Asked about follow-up and advice, he became uncertain. Reasons for his
reaction may be: a) information has no price, especially in a culture with a
rich oral tradition; or b) follow-up by the advisor was really poor, which may
also hold true.
Having
money involved led, besides the bad effect of the “cup one’s hand” mentality, to
slowing down the implementation of the trials. The PTD methodology is based on
the needs of farmers. Kyrgyz farmers often live for the moment and today’s
problems are the essential ones. That is why the venture has to start on Day 1
of the PTD initiating week. In the case of RADS JA, if money was involved, the
advisor had to prepare a budget, submit it to the manager who advised the
accountant – agreed upon on with the SMS – to pay for it. However, if the
accountant had ordered no money for trials, he had to wait until he was able to
pay. It took up to four weeks before the advisor went back to the farmer to
tell him or her that
“concrete” work could start. In fact, the long wait was the “death
warrant” for many a trial.
Technical
support during implementation is crucial for the final success. As mentioned
earlier, the RADS had almost no scientists involved in PTD experiments. As a
consequence, all technical support relied on RADS staff and the generalists
were often overtaxed. The structure of village promoter (not a specialist at
all) coached by the rayon advisors (also not a specialist, but in
contact with the SMS in the centre) and the SMS him/herself worked only in some
cases. The workload in the different subjects was unequal. While two out of
three PTD experiments dealt with agronomy, farm mechanisation was
underrepresented, with only eight ventures.

Figure 7 gives a simplified picture
of the workload of the different SMSs. Most trials by female farmers were
related to agronomy, marketing or animal husbandry (poultry raising). Almost
all marketing/processing experiments were carried out by women. The biggest
workload was for the agronomist SMS – even if, in the case of vegetable growing
and/or indigenous methods of plant protection, high replication rates were
achieved. In terms of workload, the agronomist SMS is followed by the
gender/economy SMS with a total of 150 experiments. Only 46 experiments were
related to marketing and less than 20 to animal husbandry.

The
distribution among the rayons was also unequal because, during planning,
the SMS set priorities according to farmers’ needs. Figure 8 indicates the
total number of PTD experiments per rayon as an area and the number of
different types of trials as bars. Toktogul had, with 35 different trials, the
highest variation, followed by Nooken and Bazar Korgon. In Toktogul, on average
3.3 families implemented the same type of PTD experiment, whereas in Nooken
each family had its own.
The higher the number of different PTD experiments, the more the
rayon advisors were challenged in the technical follow-up, either in
mediating specialists or in doing it themselves. The lower the average number
of experiments per family, the less the possibility for experience exchange
among them. High diversity in PTD experiments means, on one hand, taking the
farmers’ concerns seriously; on the other hand, it makes the advisory service
less efficient.
Implementation
and follow-up of PTD experiments
Generating
ideas when a group jointly observes trials and exchanges ideas
Specialisation
to earn more money
Individual
farmer families carried out most of the 77 different PTD experiments
implemented in RADS JA in 1999–2000. The risk of failing was almost two times
higher and the chance of succeeded was 1:2 compared to these experiments
implemented by several families (see also Figure 12 and Table 4). The
conclusion is simple: interaction between farmers is a key element of success.
Interaction means exchange of experience during implementation and joint
assessment of the trials.
In
Bala Chychkan, Toktogul Rayon, five farmers conducted the same experiment in
growing oil maize, when they realised their common interest. The rayon
advisor brought them together. It was fascinating to see how many ideas they
generated. The topics shifted from maize-cropping techniques to oil extraction,
comparison with other oil crops and the use of by-products. It went so far as
the group checked gluten characteristics of maize flour, wheat flour and a
mixture of the two. The farmers have now set up a seed distribution scheme in
order to involve still other farmers.
Figure 9: Trials by number of
replications and degree of success
Specialisation
to earn more money
In
Suzak Rayon, most experiments were done by groups, each member having the same
trial in her garden. In a second step, farmers planned how to specialise: some
group members went for seedling production, some for growing vegetables, some
for processing, some for marketing. The VP facilitated the discussion, paying
special attention to responsibilities, economic impact and risks.
|
|
|
|
Figure 9: Three elements of a successful field day: information,
experience exchange and fun (Oz Gurush, Toktogul)
Field
days are the event during the
implementation of a PTD experiment. In some cases, even two days were held. In
some others, field days fell into oblivion. During the hot period, advisors were
on leave and, by the time they returned, many crops had already been harvested.
Besides the three elements of success – information, experience exchange and
fun – economic analyses and/or, at an earlier stage, harvest prognoses have
been integral parts of field days in RADS JA.
Determining yields
Besides
the ongoing observations during the growing period, yield data are the most
important to be recorded. This involves measuring: counting and weighing.
Besides examples of successful implementation, there were cases where
harvesting took place without the advisor and, as most farmers need money in
autumn, most of their harvest was already sold by the time the advisors came
back to the village. In other cases, the rayon advisors were present but
forgot to record, or recorded and then “lost” the records. Extensionists do not
yet consider the generation of data as the generation of capital with which the
extension service can work.

In
many cases, criteria were imposed and the scientists and advisors were too
optimistic about all the criteria the farmers would observe. Scientists and
advisors have quite different interests in observations than do farmers. Thus,
the owner of one of the sunflower experiments in Cholpon Ata did not measure
the plant height. She was more interested in gross yield and oil output, which
she observed and recorded well.
In
many cases, farmers did not know – or pretended not to know – their area of
land (taxes are paid on the basis of land area). Thus, Abdychaly Mamatbekov and
Kabylbek Saidbek could say exactly how many kilograms of sunflower they
harvested, but had “no idea” about the area on which it was grown. Especially
for PTD experiments dealing with quantitative data, not knowing the surface
area is a major handicap.
Some
farmers could not say for sure how high the yield was, but often remembered how
many bags or wagonloads they had harvested. Thus, Mairambek B. in Cholpon Ata
indicated that the yield of the Ukrainian sunflower variety was five small bags
compared with four of the local one. As the bags are standardised, we then
could conclude that she had 25 kg more yield with the improved variety. Local measurements
are quite accurate; moreover, they are easily understood when explained to
other farmers.
During
the Issyk Kul PTD week, a reporting scheme as shown in Figure 11 was adopted.
In RADS JA, as mentioned earlier, not all documents were prepared. As can be
seen in Table 4, out of all PTD experiments that brought a concrete result, the
data of one out of two agronomy experiments were not recorded and analysed
properly. Observations in the field confirmed this. In most of the farms
visited in autumn 2000, there were no records or, if there were, they only went
up to some time in July. The farmers generally still had the notebook, but had
found it difficult and not always possible to keep records. Recording and
analysing were better in post-harvest management/marketing (two out of three
PTD experiments with analysis) and best in animal husbandry, all experiments
having an (economic) analysis.
|
|
Ideas |
Starting action |
Contract |
Monitoring action |
Final document of action |
|
Contact farmer of each experiment |
|
Action plan ñ |
Contract |
Journal for each experiment ô |
|
|
|
|
ñ |
|
Diary |
|
|
Rayon advisor |
Idea sheet ô |
ñ Action plan ò |
Contract |
ò ò ò |
Final report ô |
|
|
ô ô ô |
ò ò ò |
|
Report according to instructions by
RM |
ô ô ô |
|
Oblast |
ô Idea sheet |
ò Action plan |
|
ò Status reports ò |
ô Final report ô |
|
|
|
|
Copy of a contract |
Concentrated information in quarterly
reports |
ô ô ô |
|
Secretariat |
|
|
|
ò Databank |
ô Final report |
Figure 10: Proposed set-up for
PTD documentation (April 1999)
Not only recording and
reporting on rayon level, also the processing of data in the centre
needs improvement. Except for those experiments in which the involvement of
money demanded proper reporting, SMS made compilations only to a certain degree
and the analyses were often incomplete. Nevertheless, the results of some PTD
experiments were published in brochures which enjoy great popularity. In 1999
RADS JA entered most of the trial data into an Access database, but did not
forward the data to the national RADS secretariat. Later, when the hard disk
was re-formatted, the data were lost.
Assessing Results of PTD Experiments
Results of trials emerging from
PTD weeks in RADS JA
Economic results of trials
emerging from PTD weeks in RADS Jalal Abad
Impact of PTD activities
1997–2000
Table 2:
PTD weeks carried out in Jalal Abad Oblast in 2000
|
Rayon Topic |
Aksy |
Ala Buka |
Bazar Korgon |
Nooken |
Suzak |
Toktogul Utch Terek |
Toguz Toro |
Chatkal |
|
Cotton and soil fertility |
|
|
|
April 17–20 |
|
|
|
|
|
IPM in cotton |
|
|
June 19–21 |
|
|
|
|
|
|
Vegetable growing and conservation |
March 13–17 |
April 10–15 |
April 06–09 |
|
March 27–31 |
March 17–21 |
May 22–26 |
June 14–16 |
|
Fruit growing and conservation |
|
|
|
|
|
|
Sept. 11–15 |
|
|
Prospective production
of crops and animals |
|
|
|
|
|
June 05–09 |
|
|
|
Improvement of animal husbandry |
|
|
April 10–15 |
|
|
|
|
|
In
two years, RADS JA initiated 13 PTD weeks, of which one in 1999 and eight in
2000 brought concrete results. These (highlighted in Table 2) are analysed in
more detail. In the other four cases, the PTD weeks were carried out without
specialists and the “trials” had more demonstration than exploration character.
Table 3:
Number of PTD trials and topics according to rayon and oblast in RADS JA
1999–2000
|
|
Toktogul |
Bazar Korgon |
Suzak |
Ala Buka |
Nooken |
Aksy |
Toguz Toro |
Total |
|
Total trials (farmers) |
117 |
112 |
25 |
20 |
17 |
5 |
3 |
299 |
|
No. of different trials/rayon |
35 |
14 |
6 |
7 |
17 |
1 |
3 |
77 1) |
|
Average no. of replications (farmers)
per trial |
3.3 |
8.0 |
4.2 |
2.9 |
1.0 |
5.0 |
1.0 |
3.6 |
1) The sum of different trials per
rayon (83) exceeds the total number per oblast (77), as six topics were
repeated within rayons.
During
the two years 1999 and 2000, RADS JA facilitated the setting up of 77 different
types of PTD experiments, of which 65% were in agronomy, 17% animal husbandry,
14% post-harvest management and marketing, and 4% mechanisation. A total of 299
trials were conducted (see also Table 11). On average, 3.9 individual farmers
carried out a specific experiment. The highest number of replications was
achieved in the PTD week on “Pest and disease management with ISO broth” in
Bazar Korgon Rayon (46 farmers). However, most trials were isolated ventures:
52 of the different trials were each implemented by only one farm family.
Trials implemented by one family came mainly out of the PTD week on “Soil
fertility” in Nooken and the one of “Improvement of animal husbandry” in Bazar
Korgon.
Table 4:
Number of trials emerging from a PTD week according to field, status of
implementation and gender of farmer1)
|
|
Planning |
Implementation |
Result |
Total |
|||
|
On-going |
Ceased |
On-going |
Ceased |
Without analysis |
With analysis |
||
|
Agronomy |
|||||||
|
Variety trials |
2 |
12 |
|
5 |
5 (2) |
8 |
276 (110) |
|
Cropping technology 1) |
4 (2) |
12 (3) |
|
8 |
1 |
22 |
|
|
Herbicide trials |
|
|
|
4 |
|
5 |
|
|
Insecticide trials |
|
|
|
|
|
|
|
|
Indigenous pest management |
|
1 |
2 |
|
102 (45) |
|
|
|
Soil-fertility trials (fertiliser) |
|
1 |
|
|
|
10 |
|
|
Soil-fertility trials (manure) |
|
1 (1) |
|
1 |
1 |
1 |
|
|
Horticulture (berries) |
|
1 (1) |
1 |
|
|
|
|
|
Horticulture (new varieties of
vegetables) |
|
2 (1) |
|
1 |
22 (17) |
38 (38) |
|
|
Technology of harvesting field crops |
|
3 |
|
|
|
|
|
|
Total Agronomy |
6 (2) |
33 (6) |
3 (0) |
19 (0) |
131(62) |
84 (40) |
|
|
Animal husbandry |
|||||||
|
Poultry |
4 (4) |
|
1 (1) |
|
|
1 (1) |
17 (7) |
|
Rabbit |
|
|
1 (1) |
|
|
|
|
|
Fish raising |
|
|
1 |
|
|
|
|
|
Sheep |
|
|
1 |
|
|
1 |
|
|
Pig |
|
|
|
|
|
1 |
|
|
Cattle |
|
1 |
3 |
|
|
1 |
|
|
Horse raising |
1 |
|
|
|
|
|
|
|
Total Animal husbandry |
5 (4) |
1 (0) |
7 (2) |
0 (0) |
0 (0) |
4 (1) |
|
|
Post-harvest management and marketing |
|||||||
|
Technology of storing field crops |
1 |
|
|
1 |
|
5 |
61 (33) |
|
Technology of processing field crops |
|
1 |
3 |
|
|
1 |
|
|
Technology of processing vegetables |
|
|
|
|
13 (8) |
20 (20) |
|
|
Marketing |
1 |
10 (3) |
|
3 |
|
2 (2) |
|
|
Total post-harvest
management/marketing |
2 (0) |
11 (3) |
3 (0) |
4 (0) |
13 (8) |
28 (22) |
|
|
Total trials by agricultural branch |
13 (6) |
45 (9) |
13 (2) |
23 (0) |
144 (70) |
116 (63) |
354 (150) |
1) Given figures are totals; figures in
parentheses indicate number of trials owned by female farmers out of the total
2) Including crop rotation, irrigation,
mechanisation, various degrees of cropping intensity
Table
4 shows the PTD experiments carried out in the various fields of 1) Agronomy,
whereby “Production and processing of vegetables” is listed twice, once under
“Horticulture (new varieties of vegetables)” and once under “Technology of
processing vegetables”; 2) Animal husbandry; and 3) Post-harvest management and
marketing.
Table 4 is a further
development of Table 3, but PTD experiments are given this time in relative
figures, classified by stages of success i.e. “ceased trials” (-), “ongoing
trials” (+/-), and “trials with results” (+). The 276 PTD experiments carried
out in agronomy were most successful (77%), followed by post-harvest
management/marketing with 67% of 61 experiments. In animal husbandry, 70% of
the total of 17 trials were still ongoing by the end of 2000. One of five
trials failed (19%). In the case of agronomy and post-harvest
management/marketing, two out of three experiments stopped already in the
planning phase and not, as usually assumed, during implementation because of,
e.g. climatic hardship.
In
terms of gender, women – with 150 experiments – had less than did male farmers
(205 experiments), but fewer of their ventures ceased during implementation.
Figure 12 clearly shows how women have brought more trials to a concrete result
(“trials with results and analysis”: 15% men, 18% women). When it came to
“ceased trials”, female farmers had markedly fewer than male farmers. The risk
that a PTD experiment owned by a male farmer fails is five times higher than in
case of a female farmer.
Table 5:
Stage of trial implementation according to topic and gender in % (RADS JA, end
of 2000)
|
|
Ongoing PTD trials |
Ceased PTD trials |
PTD trials with results |
|||||||
|
Total (3+4) |
Planning |
Implementation |
Total (7+8) |
Planning |
Implementation |
Total (10+11) |
Without analysis |
with analysis |
||
|
1 |
2 = 3 + 6 + 9 |
3 |
4 |
5 |
6 |
7 |
8 |
9 |
10 |
11 |
|
Agronomy (276 trials = 100%) |
Men (60%) |
3 |
2 |
1 |
17 |
10 |
7 |
40 |
24 |
16 |
|
Women (40%) |
1 |
1 |
0 |
2 |
2 |
0 |
37 |
23 |
14 |
|
|
Animal husbandry (17 trials = 100%) |
Men (59%) |
35 |
6 |
29 |
6 |
6 |
0 |
18 |
0 |
18 |
|
Women (41%) |
35 |
23 |
12 |
0 |
0 |
0 |
6 |
0 |
6 |
|
|
Post-harvest/marketing (61 trials=
100%) |
Men (46%) |
8 |
3 |
5 |
20 |
13 |
7 |
18 |
8 |
10 |
|
Women (54%) |
0 |
0 |
0 |
5 |
5 |
|||||