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OJHAS Vol. 8, Issue 3: (2009
Jul-Sep) |
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Efficiency
of Health Care Sector at Sub-State Level in India: A Case of Punjab |
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Brijesh C. Purohit, Professor, Madras School of Economics, Behind Government Data Centre, Kottur, Chennai-
600025 INDIA |
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Address For Correspondence |
Brijesh C. Purohit, Professor, Madras School of Economics, Behind Government Data Centre, Kottur, Chennai-
600025 INDIA
E-mail:
brijeshpurohit@gmail.com |
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Purohit BC. Efficiency
of Health Care Sector at Sub-State Level in India: A Case of Punjab. Online J Health Allied Scs.
2009;8(3):2 |
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Submitted: Sep 20, 2009; Accepted:
Sep 28, 2009; Published: Nov 15, 2009 |
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Abstract: |
In recent years,
WHO and other individual researchers have advocated estimation of
health system performance through stochastic frontier models. It provides
an idealized yardstick to evaluate economic performance of health system.
So far attempts in India have remained focused at state level analysis.
This paper attempts a sub-state level analysis for an affluent Indian
state, namely Punjab, by using stochastic frontier technique. Our results
provide pertinent insight into state health system and facilitate health
facility planning at the sub-state level. Carried out in two stages
of estimation, our results suggest that life expectancy in the Indian
state could be enhanced considerably by correcting the factors that
are adversely influencing the sub-state level health system efficiency.
A higher budgetary allocation for health manpower is recommended by
us to improve efficiency in poorly performing districts. This may be
supported by policy initiatives outside the health system by empowering
women through better education and work participation.
Key Words:
Health, Efficiency,
Sub-State Level, India, Punjab, disparity, Gini coefficients, Stochastic
frontier model, Health facility planning |
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In recent years
interest has been evinced by international agencies and individual researchers
to estimate system performance in social sector like health. Beginning
with the World Health Organization Report, 2000 and the seminal works
of Murray and Frank (1999), the emphasis is being laid on the overall
health system performance and its impact on health outcomes.(1,2) It
is suggested that system endowments and the efficient utilization of
resources within the system produce health outcomes that could be appropriately
measured by stochastic production frontier models.(3-9)
An extensive
literature has emerged in recent years, which addresses the empirical
measurement of efficiency in health care institutions across the globe.
Majority of these studies have focused on hospitals, nursing homes,
HMOs and district health authorities.(10) In this regard, frontier
efficiency measurement techniques have found favour within the health
economics literature. These techniques use a production possibility
frontier, which provides a locus of potentially technical efficient
output combination that an organization or health system is capable
of producing at a point of time. An output combination below this frontier
is termed as technically inefficient.(11-13) It is possible to determine
production frontier that could represent total economic efficiency with
the available best suited production techniques. An idealized yardstick
based on this method can be used to evaluate economic performance of
health system.
In this paper
we focus on sub-state level (i.e., district level) study of Punjab.
One of the high income states in the country, this state signifies itself
as: one of the highest per capita income in India next only to Delhi,
Pondichery and Maharashtra. It has an income poverty ratio of just six
percent. It is the largest grain producer in the country. Economic development
in Punjab is agriculture led. And it owes a great deal in making green
revolution a success. However, the prosperity of Punjab has not prevented
in intra-state disparity. As noted in Human Development Report of Punjab,
“Amidst prosperity pockets of disparity remain. In southern, south
–western Punjab, poverty rates are high. In Hoshiarpur district, the
literacy level crossed 80 percent in 2001, but in Mansa district, literacy
rates are only slightly higher than of Bihar. While in India, between
1991 and 2001, the gender ratio rose from 927 to 933, in Punjab it fell
from an abysmal 882 in 1991 to an even lower 874 in 2001” This is
indicative of discrimination against women. Economic development in
Punjab has been uneven and is marked by disparities between regions
and communities- in terms of education, health, standard of living,
security and in basic human rights.(14) Such a development pattern
negates the very spirit of Alma Ata declaration (1978) which views the
health care system as a distribution mechanism. Over a period of time
both agriculture and manufacturing are also witnessing declining growth
rates.
According to
Sample Registration system by Registrar General of India, for the year
2000, IMR of Punjab was 52 and life expectancy in 1996 was 67.4 years.
The state ranks much below Kerala with IMR of 14 per 1000 live births
(1999) and life expectancy of 73.1 years. Estimates derived from Census
tables for life expectancy at district level for 1981, 1991 and 2001
are presented in Table 1 below. It can be observed that life expectancy
in the inter-census period rose in most of the districts by three to
four years. Generally, southern districts were worse off than the northern
and north-eastern districts. A major decline is noticeable for Jalandhar
and Nawanshehar, which fell to 16th and 15th place
from earlier 4th and 6th rank. Other poor performers
are Hoshiarpur and Kapurthala, which did not improve their comparative
position in 1991. Between 1991 and 2001, the situation in regard to
the top and bottom districts in terms of life expectancy has remained
unchanged.
Table
1: Ranking of Districts by Life Expectancy in Punjab, 1981, 1991 and
2001 |
Districts |
Life Expectancy in 1981 |
Rank in 1981 |
Life Expectancy in 1991 |
Rank in 1991 |
Increase in the decade |
Life Expectancy in 2001 |
Rank in 2001 |
Increase in the decade |
Amritsar |
62.4 |
3 |
67.2 |
3 |
4.8 |
72.00 |
3 |
4.8 |
Bathinda |
61.1 |
13 |
64.7 |
11 |
3.6 |
68.30 |
12 |
3.6 |
Faridkot |
61.6 |
8 |
65.8 |
8 |
4.2 |
70.10 |
8 |
4.3 |
Fateh
Garh Sahib |
61.7 |
7 |
65.6 |
9 |
3.9 |
69.60 |
9 |
4.0 |
Firozpur |
62.1 |
5 |
66.6 |
5 |
4.5 |
71.00 |
4 |
4.4 |
Gurdaspur |
61.4 |
11 |
67.8 |
2 |
6.4 |
74.20 |
2 |
6.4 |
Hoshiarpur |
60.9 |
15 |
64.5 |
13 |
3.6 |
68.10 |
14 |
3.6 |
Jalandhar |
62.3 |
4 |
64.2 |
16 |
1.9 |
66.10 |
17 |
1.9 |
Kapurthala |
60.4 |
16 |
64.5 |
13 |
4.1 |
68.70 |
11 |
4.2 |
Ludhiana |
64.2 |
1 |
70.5 |
1 |
6.3 |
76.80 |
1 |
6.3 |
Mansa |
61.1 |
13 |
64.7 |
11 |
3.6 |
68.30 |
12 |
3.6 |
Moga |
61.6 |
8 |
65.9 |
6 |
4.3 |
70.20 |
6 |
4.3 |
Muktsar |
61.6 |
8 |
65.9 |
6 |
4.3 |
70.20 |
6 |
4.3 |
Nawanshehar |
61.8 |
6 |
64.3 |
15 |
2.5 |
66.70 |
16 |
2.4 |
Patiala |
61.4 |
11 |
65.4 |
10 |
4 |
69.50 |
10 |
4.1 |
Rup
Nagar |
62.9 |
2 |
66.8 |
4 |
3.9 |
70.70 |
5 |
3.9 |
Sangrur |
60.4 |
16 |
62.8 |
17 |
2.4 |
65.20 |
18 |
2.4 |
Punjab |
61.7 |
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65.6 |
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3.9 |
67.4* |
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1.8 |
Highest |
64.2 |
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70.5 |
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76.8 |
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Lowest |
60.4 |
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62.8 |
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65.2 |
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Source: GoP, 2004; * for 1996 |
It is noteworthy
that despite high per capita income of the state, public investment
on health care sector in Punjab is very low. It is estimated to be Rs.
204 per capita and constitutes only 0.998 percent of NSDP.(14) It is
also pointed out that more and more people in the state tend to depend
on expensive and unregulated private service providers due to poor level
of investment in primary health care. Even this meager public expenditure
is biased towards tertiary and specialized care and overall allocation
is inadequate for primary and secondary health care, under-privileged
areas and groups. Other notable features of the health system in Punjab
include privatization and globalization of the health care system. As
a reform measure, in October 1995, under a World Bank sponsored State
Health system Development Project II, an autonomous corporation was
created, which is known as Punjab Health System Corporation (PHSC).
It became an overarching organization looking after 150 health care
institutions which were earlier under the State Directorate of Health.
With this, emphasis was laid on mobilizing resources through user fees
and majority of patients except below poverty line (BPL) had to pay
for services provided by the public hospitals. Even the exemptions for
user fees meant for the poor did not benefit much and some case studies
indicate that among the poor less than 0.5 percent availed of such exemptions.(15) Besides the formation of PHSC, the state encouraged the private
corporate sector in health. Land and facilities at subsidized rates
were extended to such hospitals with a clause that these institutions
will treat BPL (identified as yellow card holders) up to 10 percent and
5 percent respectively of their outpatients and inpatients. This further
deepened the dependence of people on private health sector.
We start with
a general stochastic frontier model that is presented as:
ln qj
= f(ln x) + vj- uj …………………(1)
Where ln qj
is the health output (life expectancy) produced by a health system
“j”
X is a vector
of factor inputs represented by per capita health facilities (including per
capita availability of hospital beds, per capita primary health centers (or sub
centers), per capita doctors, per capita paramedical staff, per capita skilled
attention for birth .
vj
is the stochastic (white noise) error term
uj is one sided error term representing the technical inefficiency
of health system “j”
Both vj
and uj are assumed to be independently and identically
distributed (iid) with variance sv2
and su2
respectively
From the estimated
relationship ln q^j = f (ln x)- uj
The efficient
level of health outcome (with zero technical inefficiency) is defined
as:
ln q* = f (ln x)
This implies
ln TEj = ln q^j - ln q*
= - uj
Hence TEj
= e-uj, 0<= e-uj <=
1
If uj
= 0 it implies e-uj = 1
Health system
is technically efficient.
This implies
that technical efficiency of jth health system is a relative
measure of its output as a proportion of the corresponding frontier
output.
A health system
is technically efficient if its output level is on the frontier which
in turn means that q/q* equals one in value.
At the district
level only cross sectional data are available and a strict assumption
about the distribution of the inefficiency term is required. Resulting
estimates of technical efficiency will confirm to the imposed distribution.
It is preferable to use the standard distribution (i.e., half or truncated
normal).
We presume
that differences in technical efficiency pertaining to health system
could be discerned at district level health facility planning by non-health
related parameters. Thus, we explain the dispersion in technical efficiency
by a set of variables which includes per capita income (PCI), male and
female income respectively, literacy, rural and urban literacy respectively,
education deprivation, urbanization, water supply and sanitation facilities,
gender development index (GDI) and persons below poverty line (BPL).
Our model in the second stage is thus:
Dispersion
in Technical efficiency = f (PCI, male and female income respectively,
literacy, rural and urban literacy separately, urbanization, water supply
and sanitation facilities, infrastructure variable such as road per
square km., BPL, GDI) + error term…..(2)
This study
is based on secondary data. Information is collected from Human Development
Report of Punjab[14], websites of the state and other published
sources. Main variables used in the study are life expectancy (LEXP),
infant mortality rates (IMR), per capita income (PCI) and parameters
related to human development indicators (HDI), gender development indicator
(GDI) and health facilities. The information relates to district level
for the state.
It is presumed
that estimated efficiency parameters should help the health policy makers
to improve district level and thus state level health system performance.
We hypothesize that districts differ in their technical efficiency pertaining
to health system due to factors which require emphasis in district level
health facility planning. It is also hypothesized that these factors
may differ from state to state according to their level of development.
In regard to
selection of variables representing outputs and inputs, we have followed
conventionally agreed indicators. As noted in W.H.O report on health
system performance of 191 countries[1], we have used life expectancy
at birth (LEXP) as an output indicator. It denotes that health system
at sub-state level (i.e., district level) should aim at improving the
health of population to achieve higher life expectancy.
The MLE results
of stochastic frontier model (SFM) for our cross section data for Punjab
are presented in Table 2. Actual and estimated LEXP for the districts
of the state are presented in Table 3. SFM results depict expected positive
and significant signs for population covered per medical institution
(POPPERMI), population covered per doctor (POPDOC), nurse per lakh of
population (NURSEPERLAKH) (Table 2). A comparison of actual and estimated
LEXP for the districts of Punjab (Table 3) depicts Ludhiana as the best
performer with its potential achieved in its actual LEXP of 76.8 years.
It has achieved its potential at this level given its inputs. Although
the actual equals potential for two other districts, namely, Amritsar
(72.00 years) and Gurdaspur (74.2 years), yet these districts rank second
and third respectively in relation to most efficient district (MED),
namely Ludhiana.
Table2:
Stochastic Frontier Normal/Half-Normal Model |
Number
Of Observations = 17 |
Log
Likelihood = 38.201572 |
Prob > chi2 = 0.0000 |
LEXP |
Coef. |
Std. Err. |
POPPERMI |
0.126* |
9.98E-06 |
POPDOC |
0.021* |
2.92E-06 |
NURSEPERLAKH |
0.030* |
2.18E-06 |
_cons |
2.841* |
0.0001 |
/lnsig2v |
-37.829 |
333.2008 |
/lnsig2u |
-5.946* |
0.343 |
sigma_v |
6.10E-09 |
1.02E-06 |
sigma_u |
0.051 |
0.009 |
sigma2 |
0.003 |
0.001 |
Lambda |
8380331 |
0.009 |
Likelihood-ratio
test of sigma_u=0 |
chibar2(01) = 6.69 |
Prob>=chibar2 = 0.005 |
Note: * indicates 1% level of
significance; Source: Estimated |
Table
3: Actual and Expected Life Expectancy for the Districts of Punjab |
District |
Actual LEXP |
Estimated LEXP |
Deviation From Maximum Efficient
District |
Ranks |
Amritsar |
72.00 |
72.00 |
-4.80 |
3 |
Bathinda |
68.30 |
68.57 |
-8.50 |
12 |
Faridkot |
70.10 |
74.54 |
-6.70 |
8 |
Fatehgarh
Sahib |
69.60 |
72.86 |
-7.20 |
9 |
Firozpur |
71.00 |
75.04 |
-5.80 |
4 |
Gurdaspur |
74.20 |
74.20 |
-2.60 |
2 |
Hoshiarpur |
68.10 |
70.83 |
-8.70 |
14 |
Jalandhar |
66.10 |
72.54 |
-10.70 |
16 |
Kapurthala |
68.70 |
69.68 |
-8.10 |
11 |
Ludhiana |
76.80 |
76.80 |
0.00 |
1 |
Mansa |
68.30 |
72.29 |
-8.50 |
12 |
Moga
(R) |
70.20 |
75.63 |
-6.60 |
6 |
Muktsar |
70.20 |
70.20 |
-6.60 |
6 |
Nawanshehar |
66.70 |
72.48 |
-10.10 |
15 |
Patiala |
69.50 |
71.89 |
-7.30 |
10 |
Rup
Nagar |
70.70 |
71.06 |
-6.10 |
5 |
Sangrur |
65.20 |
71.43 |
-11.60 |
17 |
Source: Estimated |
The difference
among the three districts could be seen by looking at the relative utilization
of these parameters. These are presented for all the districts in Table
4.
It is obvious
that better health outcomes for Ludhiana is due to more availability
of nurses and better utilization of MI relative to two other districts.
It should be noted that relative efficiency is a measure of actual to
the potential and it is with respect to MED. In this regard, maximum
distance or deviation (11.6%) is for Sangrur (with the lowest LEXP at
65.2 years) and minimum (after Amritsar and Gurdaspur) for Firozpur
(LEXP 71 years). These districts could have achieved a LEXP of 71.43
years and 75.04 years if their health systems were as efficient as MED.
Thus both factors count; namely, lack of adequate utilization or lack
of adequate resources, which is the case for some of the inputs in poorly
performing districts. Table 4 also provides a relative view of respective
Gini coefficients. Notably, a third factor is the inequitable distribution
of manpower resources across these districts, which is apparent by a
high value of Gini coefficients pertaining to doctors, nurses and midwife
variables (Table 4).
Table
4 |
District |
Population Served
Per |
Life Expectancy at birth |
Medical Institution |
Bed in Medical Institutions |
Doctor |
Midwife |
Nurse |
Amritsar |
10494 |
617 |
873 |
840 |
1454 |
72 |
Bathinda |
10006 |
1172 |
1421 |
1253 |
8351 |
68.3 |
Faridkot |
13228 |
709 |
1219 |
817 |
1529 |
70.1 |
Fatehgarh
Sahib |
10404 |
1343 |
26530 |
6471 |
10011 |
69.6 |
Firozpur |
11899 |
1068 |
3511 |
1324 |
1640 |
71 |
Gurdaspur |
10235 |
1273 |
2382 |
579 |
973 |
74.2 |
Hoshiarpur |
8842 |
998 |
1845 |
669 |
2057 |
68.1 |
Jalandhar |
11172 |
878 |
946 |
1084 |
1559 |
66.1 |
Kapurthala |
9044 |
971 |
1867 |
1463 |
3910 |
68.7 |
Ludhiana |
14827 |
934 |
1174 |
674 |
892 |
76.8 |
Mansa |
10895 |
1393 |
27691 |
7467 |
16209 |
68.3 |
Moga
(R) |
10712 |
1331 |
21687 |
2137 |
2887 |
70.2 |
Muktsar |
10541 |
1257 |
26534 |
17488 |
36062 |
70.2 |
Nawanshehar |
8133 |
1266 |
38635 |
4683 |
5569 |
66.7 |
Patiala |
11102 |
743 |
724 |
1532 |
1696 |
69.5 |
Rup
Nagar |
9455 |
1141 |
2468 |
1198 |
2983 |
70.7 |
Sangrur |
10822 |
1275 |
2518 |
1794 |
4469 |
65.2 |
Punjab |
10786 |
947 |
1485 |
1015 |
1696 |
67.4 |
Gini
Coefficient |
0.0756 |
0.0999 |
0.582. |
0.548. |
0.553. |
0.021 |
Source: GOP (2004) |
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Source: Estimated |
It could be
noted that per capita availability of medical institutions is relatively
not low for poorly performing districts. For instance, as against 14827
population served per medical institution in MED, i.e., in Ludhiana,
it is only 10822 and 11172 for Sangrur and Jallandhar. However, adequate
utilization of these medical institutions is affected in poorly performing
districts due to lack of availability of other inputs. As depicted in
Table 4, the availability of beds in Sangrur is catering to 27% more
persons than that of Ludhiana. In fact the availability of all the three
inputs in Sangrur, namely, doctors, midwife and nurses is catering to
50% more persons than Ludhiana, the MED. Moreover, the availability
of nurses in Sangrur is providing service to 80% more patients than
that in Ludhiana. Similar is the case of availability pertaining to
midwife and nurses for another poorly performing district of Jallandhar.
It is, therefore, pertinent that the requirement for more medical and
para-medical personnel and more number of beds should be the factors
that may be included in the future health facility planning and more
health expenditure could be made for this purpose in the state’s health
budget. This may help to enhance LEXP in poorly performing districts
at a faster rate to maintain pace with better off districts.
However, there
are other factors that affect adequate performance of health systems
at district level. This is estimated by our second stage exercise. It
deciphers the non- health system factors that could be possible determinants
of dispersion in efficiency. We have tried a set of variables including
total per capita income, per capita male and female income separately,
literacy, rural and urban literacy separately, urbanization, water supply
and sanitation facilities, infrastructure variable such as road per
square km., persons below poverty line(BPL) and gender development index
(GDI). The best fit comprises of three explanatory variables, namely,
per capita female income (PCIF), GDI index and literacy female (Table
5). Pertinently, unlike state level studies[8], PCIF, GDI and
literacy female, all of them are significant.(9) It indicates that the
level of gender development in the state has helped to reduce disparities
in health outcomes.
Table
5: Regression Results for Dispersion |
Dependent
Variable |
Explanatory Variables |
Coefficients |
“t” values |
Statistics |
|
DEVIATION |
(Constant) |
71.541 |
5.092* |
Adjusted R Square |
F |
N |
|
LITFM |
2.023 |
4.885* |
0.679 |
12.273* |
17 |
|
PCIF |
3.339 |
5.779* |
|
|
|
|
GDI |
-2.766 |
-5.158* |
|
|
|
Source: Estimated
*indicates statistical significance at 1% level |
As presented
in Table 6, it could be noticed that GDI is relatively high in the districts
of Punjab. It indeed should mean that men and women would share in socio-economic
development in an equitable manner. However, factually it is not so.
This is owing to the fact that at present as calculated in the human
development report of the state, GDI does not adequately represent the
fact of equality in opportunity in all the spheres. As noted in HDR
of Punjab, due to its methodology of calculation: a) it is not affected
by gender ratio and b) it is insensitive to low female work participation
rates prevalent in Punjab which prevent women from becoming economically
empowered. It is owing to these reasons, we have other factors such
as female literacy and female income which have emerged statistically
significant in our specification. Thus, it is lower level of female
income and female literacy, which act as an important deterrent for
better health system performance.
Table
6: Gender-related Development Index (GDI) in Punjab-2001 |
District |
GDI |
Rank |
Amritsar |
0.544 |
17 |
Bathinda |
0.625 |
7 |
F.
G. Sahib |
0.556 |
16 |
Faridkot |
0.643 |
4 |
Firozpur |
0.643 |
4 |
Gurdaspur |
0.565 |
15 |
Hoshiarpur |
0.645 |
3 |
Jalandhar |
0.632 |
6 |
Kapurthala |
0.652 |
2 |
Ludhiana |
0.619 |
9 |
Mansa |
0.586 |
13 |
Moga |
0.607 |
10 |
Muktsar |
0.606 |
11 |
Nawanshehar |
0.623 |
8 |
Patiala |
0.6 |
12 |
Rup
Nagar |
0.669 |
1 |
Sangrur |
0.575 |
14 |
Punjab |
0.614 |
|
Source: GoP, 2004 |
These results
from our district level analysis indicate that health sector efficiency
in Punjab could be improved by overcoming disparities in performance
at district level. This would require policy initiatives to help the
poorer performing districts through adequate support. Pertinently, such
districts could fare better through higher per capita public expenditure.
This may help better utilization of medical institutions through the
presence of essential manpower inputs. Keeping in view relatively a
lower level of per capita income in these districts, oft-prescribed
privatization and user fees may not be the appropriate sole remedy.
It would be better to increase overall public health expenditure in
these districts to deploy and make available more medical and para-medical
personnel in these districts. This fact should be incorporated in health
facility planning at the sub-state level. Further enhancement to life
expectancy may be possible at a faster pace in Punjab if such efforts
are coupled with steps to promote female literacy and female incomes.
This could empower women, particularly in poor performing districts,
through better opportunities leading to an increase in their participation
in workforce. Further studies at the sub-state level may also be initiated
and facilitated if official information base is extended to provide
public and private expenditure incurred at the district level on health
and other social sectors.
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