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Geographic accessibility to public and private health facilities in Kenya in 2021: An updated geocoded inventory and spatial analysis

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Geographic accessibility to public and private health facilities in Kenya in 2021: An updated geocoded inventory and spatial analysis. / Moturi, Angela K.; Suiyanka, Laurissa; Mumo, Eda et al.
In: Frontiers in Public Health, Vol. 10, 1002975, 03.11.2022.

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Moturi AK, Suiyanka L, Mumo E, Snow RW, Okiro EA, Macharia PM. Geographic accessibility to public and private health facilities in Kenya in 2021: An updated geocoded inventory and spatial analysis. Frontiers in Public Health. 2022 Nov 3;10:1002975. doi: 10.3389/fpubh.2022.1002975

Author

Moturi, Angela K. ; Suiyanka, Laurissa ; Mumo, Eda et al. / Geographic accessibility to public and private health facilities in Kenya in 2021 : An updated geocoded inventory and spatial analysis. In: Frontiers in Public Health. 2022 ; Vol. 10.

Bibtex

@article{b8a307272e124d2ead262643a5b64e30,
title = "Geographic accessibility to public and private health facilities in Kenya in 2021: An updated geocoded inventory and spatial analysis",
abstract = "Objectives: To achieve universal health coverage, adequate geographic access to quality healthcare services is vital and should be characterized periodically to support planning. However, in Kenya, previous assessments of geographic accessibility have relied on public health facility lists only, assembled several years ago. Here, for the first time we assemble a geocoded list of public and private health facilities in 2021 and make use of this updated list to interrogate geographical accessibility to all health providers. Methods: Existing health provider lists in Kenya were accessed, merged, cleaned, harmonized, and assigned a unique geospatial location. The resultant master list was combined with road network, land use, topography, travel barriers and healthcare-seeking behavior within a geospatial framework to estimate travel time to the nearest (i) private, (ii) public, and (iii) both (public and private-PP) health facilities through a travel scenario involving walking, bicycling and motorized transport. The proportion of the population within 1 h and outside 2-h was computed at 300 × 300 spatial resolution and aggregated at subnational units used for decision-making. Areas with a high disease prevalence for common infections that were outside 1-h catchment (dual burden) were also identified to guide prioritization. Results: The combined database contained 13,579 health facilities, both in the public (55.5%) and private-for-profit sector (44.5%) in 2021. The private health facilities' distribution was skewed toward the urban counties. Nationally, average travel time to the nearest health facility was 130, 254, and 128 min while the population within 1-h was 89.4, 80.5, and 89.6% for the public, private and PP health facility, respectively. The population outside 2-h were 6% for public and PP and 11% for the private sector. Mean travel time across counties was heterogeneous, while the population within 1-h ranged between 38 and 100% in both the public sector and PP. Counties in northwest and southeast Kenya had a dual burden. Conclusion: Continuous updating and geocoding of health facilities will facilitate an improved understanding of healthcare gaps for planning. Heterogeneities in geographical access continue to persist, with some areas having a dual burden and should be prioritized toward reducing health inequities and attaining universal health coverage.",
keywords = "Public Health, spatial access, health facility, private sector, public sector, travel time, disease prevalence, inequalities, universal health access",
author = "Moturi, {Angela K.} and Laurissa Suiyanka and Eda Mumo and Snow, {Robert W.} and Okiro, {Emelda A.} and Macharia, {Peter M.}",
year = "2022",
month = nov,
day = "3",
doi = "10.3389/fpubh.2022.1002975",
language = "English",
volume = "10",
journal = "Frontiers in Public Health",
issn = "2296-2565",
publisher = "Frontiers Media S.A.",

}

RIS

TY - JOUR

T1 - Geographic accessibility to public and private health facilities in Kenya in 2021

T2 - An updated geocoded inventory and spatial analysis

AU - Moturi, Angela K.

AU - Suiyanka, Laurissa

AU - Mumo, Eda

AU - Snow, Robert W.

AU - Okiro, Emelda A.

AU - Macharia, Peter M.

PY - 2022/11/3

Y1 - 2022/11/3

N2 - Objectives: To achieve universal health coverage, adequate geographic access to quality healthcare services is vital and should be characterized periodically to support planning. However, in Kenya, previous assessments of geographic accessibility have relied on public health facility lists only, assembled several years ago. Here, for the first time we assemble a geocoded list of public and private health facilities in 2021 and make use of this updated list to interrogate geographical accessibility to all health providers. Methods: Existing health provider lists in Kenya were accessed, merged, cleaned, harmonized, and assigned a unique geospatial location. The resultant master list was combined with road network, land use, topography, travel barriers and healthcare-seeking behavior within a geospatial framework to estimate travel time to the nearest (i) private, (ii) public, and (iii) both (public and private-PP) health facilities through a travel scenario involving walking, bicycling and motorized transport. The proportion of the population within 1 h and outside 2-h was computed at 300 × 300 spatial resolution and aggregated at subnational units used for decision-making. Areas with a high disease prevalence for common infections that were outside 1-h catchment (dual burden) were also identified to guide prioritization. Results: The combined database contained 13,579 health facilities, both in the public (55.5%) and private-for-profit sector (44.5%) in 2021. The private health facilities' distribution was skewed toward the urban counties. Nationally, average travel time to the nearest health facility was 130, 254, and 128 min while the population within 1-h was 89.4, 80.5, and 89.6% for the public, private and PP health facility, respectively. The population outside 2-h were 6% for public and PP and 11% for the private sector. Mean travel time across counties was heterogeneous, while the population within 1-h ranged between 38 and 100% in both the public sector and PP. Counties in northwest and southeast Kenya had a dual burden. Conclusion: Continuous updating and geocoding of health facilities will facilitate an improved understanding of healthcare gaps for planning. Heterogeneities in geographical access continue to persist, with some areas having a dual burden and should be prioritized toward reducing health inequities and attaining universal health coverage.

AB - Objectives: To achieve universal health coverage, adequate geographic access to quality healthcare services is vital and should be characterized periodically to support planning. However, in Kenya, previous assessments of geographic accessibility have relied on public health facility lists only, assembled several years ago. Here, for the first time we assemble a geocoded list of public and private health facilities in 2021 and make use of this updated list to interrogate geographical accessibility to all health providers. Methods: Existing health provider lists in Kenya were accessed, merged, cleaned, harmonized, and assigned a unique geospatial location. The resultant master list was combined with road network, land use, topography, travel barriers and healthcare-seeking behavior within a geospatial framework to estimate travel time to the nearest (i) private, (ii) public, and (iii) both (public and private-PP) health facilities through a travel scenario involving walking, bicycling and motorized transport. The proportion of the population within 1 h and outside 2-h was computed at 300 × 300 spatial resolution and aggregated at subnational units used for decision-making. Areas with a high disease prevalence for common infections that were outside 1-h catchment (dual burden) were also identified to guide prioritization. Results: The combined database contained 13,579 health facilities, both in the public (55.5%) and private-for-profit sector (44.5%) in 2021. The private health facilities' distribution was skewed toward the urban counties. Nationally, average travel time to the nearest health facility was 130, 254, and 128 min while the population within 1-h was 89.4, 80.5, and 89.6% for the public, private and PP health facility, respectively. The population outside 2-h were 6% for public and PP and 11% for the private sector. Mean travel time across counties was heterogeneous, while the population within 1-h ranged between 38 and 100% in both the public sector and PP. Counties in northwest and southeast Kenya had a dual burden. Conclusion: Continuous updating and geocoding of health facilities will facilitate an improved understanding of healthcare gaps for planning. Heterogeneities in geographical access continue to persist, with some areas having a dual burden and should be prioritized toward reducing health inequities and attaining universal health coverage.

KW - Public Health

KW - spatial access

KW - health facility

KW - private sector

KW - public sector

KW - travel time

KW - disease prevalence

KW - inequalities

KW - universal health access

U2 - 10.3389/fpubh.2022.1002975

DO - 10.3389/fpubh.2022.1002975

M3 - Journal article

C2 - 36407994

VL - 10

JO - Frontiers in Public Health

JF - Frontiers in Public Health

SN - 2296-2565

M1 - 1002975

ER -