Кыргызстандын пилоттук мектептеринде GIGA Meter сыноо

The Internet Society Kyrgyzstan Chapter, working with the Ministry of Education and Sciences and the GIGA Global Team, has completed connectivity assessments at ten pilot schools in southern Kyrgyzstan using the GIGA Meter tool.

GIGA is a global initiative by UNICEF and ITU launched in 2019 to connect every school to the Internet by 2030. The program has mapped over 2.1 million schools across 140 countries and aims to connect 6 million offline schools globally. Since 2021, the GIGA Global has partnered with teh ISOC Kyrgyz Chapter  on research of state of school connectivity, developing sustainable connectivity in Central Asian region.

The GIGA Meter is a desktop application that allows school administrators to monitor their institution’s connectivity. The tool measures upload and download speeds, latency, packet loss, and accessibility to educational platforms, providing comprehensive data beyond basic speed tests.

In Central Asia, Kyrgyzstan faces particular challenges due to its mountainous terrain and dispersed rural communities. GIGA is developing connectivity solutions and business models specifically for remote mountainous regions, with the Internet Society Kyrgyzstan Chapter serving as a key implementation partner.

The assessment covered schools in six districts: Aravan, Batken, Kadamzhay, Kara-Suu, Leylek, and Suluktu. The GIGA Meter was installed remotely at ten schools, with six installations remaining active during the monitoring period.

Giga Meter school connectivity dashboard summary kyrgyzstan
Giga Meter school connectivity dashboard summary Kyrgyzstan

Key Connectivity Metrics

Based on 201 measurements collected over several weeks, the pilot revealed:

  • Average download speed: 19.63 Mbps
  • Average upload speed: 22.44 Mbps
  • Average latency: 251 ms

Regional Performance Variations

The data shows significant differences between regions:

Download speeds ranged from 21.6 Mbps in Batken to 35.1 Mbps in Kara-Suu, with most regions performing between 23-27 Mbps.

Latency was relatively consistent across regions, ranging from 247 ms in Aravan to 260 ms in Batken, indicating stable but elevated response times due to the remote fiberoptical location of measurement servers (Mumbai, India).

Connectivity Patterns

Time-series data from May through June shows notable variations in performance:

  • Daily speed fluctuations ranged from near zero to peaks of 50+ Mbps
  • Upload speeds demonstrated more stability than download speeds
  • Latency remained consistent around 250-270 ms throughout the monitoring period

Of Kyrgyzstan’s 2,080 schools mapped on GIGA’s platform, 1,220 are classified as connected while 851 have unknown connectivity status. However, the Ministry of Education and Sciences as well as the Ministry of Digital Development reported repeatedly that over 90% of schools connected to the Internet. This pilot provides detailed performance data for a representative sample of connected schools in the southern regions.

Implications

The results confirm earlier assessments of Kyrgyzstan’s school connectivity landscape, showing adequate speeds for basic educational applications but with significant variability that could impact consistent access to digital learning resources.

This pilot establishes a additional measurement toolkit for ongoing monitoring and provides evidence for targeted improvements in school connectivity across the country’s rural regions.

Мектептин интернет байланышын көзөмөлдөө куралдары

Understanding the real quality of internet connectivity in educational institutions has become a critical challenge for policymakers and administrators across the globe. The Internet Society Kyrgyz Chapter recently recognized this urgent need and commissioned the development of specialized monitoring software to assess internet quality in pilot secondary schools throughout Kyrgyzstan. This initiative represents a significant step toward evidence-based decision-making in educational technology infrastructure, particularly in addressing longstanding concerns about service delivery quality.

The context surrounding this project reveals a troubling disconnect between contractual obligations and actual service delivery. Since 2021, Kyrgyztelecom has held an exclusive contract as the sole internet service provider for secondary schools across Kyrgyzstan, with agreements specifying 100 Mbps internet connectivity for educational institutions. However, the reality on the ground tells a different story. Schools consistently reported significant performance issues, slow speeds, and unreliable connections that made it virtually impossible to conduct modern digital education effectively.

The situation became so problematic that teachers began using their personal mobile data allowances, creating Wi-Fi hotspots from their smartphones to ensure their students could access online learning platforms and digital educational resources. This grassroots solution highlighted the severity of the connectivity crisis while simultaneously demonstrating the dedication of educators to providing quality instruction despite infrastructure challenges. The irony was stark – the Kyrgyz Government was paying for internet services that were essentially unusable, while teachers were subsidizing the education system with their personal resources.

This widespread practice of teachers sharing mobile data revealed the fundamental problem with existing service arrangements. Without objective measurement tools, schools had no concrete evidence to support their complaints about poor connectivity. Service provider claims about delivered bandwidth had no independent verification, creating an accountability gap that disadvantaged both educators and students. The lack of empirical data made it difficult for education officials to address the problem through formal channels or to justify contract modifications or provider changes.

The technical approach for addressing this challenge crystallized during project coordinator Aziz Soltobaev’s participation in the RIPE NCC conference, where he joined the Internet of Things working group. The discussions and insights gained from this engagement with the European network coordination community provided the inspiration for utilizing OpenWrt as the foundation for the monitoring solution. This connection to the broader internet infrastructure community proved instrumental in shaping the project’s technical direction and ensuring alignment with established best practices in network measurement and monitoring.

The project centers around creating a comprehensive measurement platform built on the OpenWrt framework, an open-source operating system designed primarily for embedded devices and network routers. This choice of foundation proves particularly strategic for educational environments, as OpenWrt provides a stable, customizable, and cost-effective solution that can be deployed across diverse hardware configurations commonly found in schools. The system transforms abstract complaints about internet quality into concrete, measurable data that can drive meaningful policy changes.

The monitoring system incorporates multiple measurement methodologies to provide a comprehensive view of internet performance. The implementation includes NDT7 (Network Diagnostic Tool version 7), which offers standardized speed testing capabilities developed by Measurement Lab. This protocol provides reliable throughput measurements that can be compared across different locations and time periods. Additionally, the system utilizes iPerf, a widely-recognized network testing tool that measures maximum achievable bandwidth on IP networks, supporting both TCP and UDP protocols for comprehensive performance analysis.

Beyond these core measurement tools, the platform integrates additional diagnostic capabilities including latency measurements, packet loss detection, and jitter analysis. These metrics collectively paint a detailed picture of network performance that goes far beyond simple download and upload speeds. The system continuously monitors these parameters throughout the school day, capturing variations in performance that correspond to different usage patterns and peak demand periods.

The data visualization capabilities of the system prove particularly valuable for decision-makers dealing with service provider accountability. Real-time dashboards display current network status while historical reporting functions reveal trends and patterns over extended periods. The screenshots demonstrate how the system presents upload and download performance data in clear, accessible formats that allow administrators to quickly identify periods when promised service levels are not being delivered. This creates an evidence base that can support formal complaints, contract renegotiations, or provider performance reviews.

One notable aspect of the implementation is its consideration of the unique challenges faced by educational institutions in service provider relationships. Schools typically experience highly variable internet usage patterns, with significant spikes during class transitions, lunch periods, and specific lesson times when multiple classrooms simultaneously access online resources. The monitoring system accounts for these patterns by providing detailed temporal analysis that helps administrators understand when and why network performance fails to meet educational needs, particularly in comparison to contracted service levels.

The open-source nature of the solution offers several advantages for government agencies and educational institutions operating under budget constraints while dealing with underperforming commercial relationships. Unlike proprietary monitoring solutions that often require expensive licensing fees and vendor-specific hardware, this OpenWrt-based approach can be deployed on commodity hardware or integrated into existing network infrastructure. This accessibility makes it particularly suitable for developing regions where cost-effectiveness remains a primary consideration in technology adoption decisions, especially when existing service contracts are not delivering promised value.

For the Ministry of Education and Sciences, this monitoring capability provides unprecedented visibility into the actual internet experience of students and teachers, contrasting sharply with the theoretical service levels outlined in government contracts with Kyrgyztelecom. Rather than relying on service provider assertions or anecdotal reports from schools, education officials can now access concrete performance data that reflects real-world conditions. This information proves invaluable when making decisions about service provider accountability, contract enforcement, or alternative arrangements that could better serve educational needs.

The Ministry of Digital Development benefits from having standardized measurement data across multiple educational institutions that can objectively assess whether government investments in educational connectivity are delivering promised results. This consistency enables meaningful evaluation of service provider performance across different regions and school types. Such comparative analysis can inform policy decisions about contract modifications, penalty enforcement, or the potential benefits of introducing competition in educational internet services.

For telecommunications regulatory bodies, the system provides an independent source of performance data that complements traditional regulatory monitoring efforts while offering insight into how monopolistic service arrangements perform in practice. The continuous measurement approach offers a more comprehensive view of service quality than periodic testing, potentially revealing systematic service degradation or improvement trends that might otherwise go unnoticed. This capability enhances regulatory oversight while providing objective data for discussions with service providers about network performance standards and contract compliance.

The practical implementation of the system reveals concerning patterns in educational internet delivery that validate teacher complaints about service quality. The monitoring data shows significant discrepancies between promised and delivered bandwidth, particularly during peak educational hours when reliable connectivity is most crucial. Understanding these patterns helps administrators document service failures while providing valuable evidence for accountability discussions with Kyrgyztelecom and government oversight agencies.

The bandwidth utilization analysis component of the system offers insights into how contracted internet resources are actually delivered versus consumed within educational environments. This information helps school administrators understand whether current service arrangements meet educational needs while providing data-driven justification for contract enforcement actions or alternative service arrangements when necessary. The system can identify specific periods when service falls below contractual obligations, enabling more informed decisions about remedial actions or penalty applications.

The project’s emphasis on open-source development ensures long-term sustainability and adaptability while reducing dependence on commercial monitoring solutions that might be influenced by service provider relationships. Educational institutions and government agencies can modify the software to meet specific local requirements without depending on commercial vendors for customization or potentially compromised monitoring tools. This independence proves particularly important in situations where service provider accountability is a primary concern.

The classification of this monitoring toolkit as a digital public good adds significant value to its development and deployment. Digital public goods are defined as “open-source software, open data, open artificial intelligence models, open standards and open content” that are intended to contribute to sustainable development. This classification promotes “open-source solutions for a more equitable world” and is “key to achieving the Sustainable Development Goals”. By developing this internet monitoring solution as a digital public good, the Internet Society Kyrgyz Chapter ensures that the benefits extend far beyond the immediate pilot implementation.

The digital public goods framework means that other countries facing similar challenges with educational internet service delivery can adapt and deploy this monitoring solution without licensing restrictions or vendor dependencies. Digital public goods “offer the opportunity to counteract” digital divides “through their open access to information and technologies” while limiting “economic monopolies over digital solutions and knowledge”. This is particularly relevant for developing nations where telecommunications monopolies may underdeliver on government contracts while lacking independent oversight mechanisms.

The toolkit’s status as a digital public good also facilitates international cooperation and knowledge sharing about internet quality monitoring in educational settings. Educational authorities in other countries can learn from Kyrgyzstan’s implementation experience while contributing their own innovations and adaptations back to the global community. This collaborative approach accelerates the development of effective solutions while reducing the individual costs and risks associated with developing monitoring capabilities from scratch.

Looking toward broader implications, this monitoring initiative represents a model that directly addresses accountability gaps in government service procurement while providing concrete tools for advocacy on behalf of educators and students. The combination of standardized measurement protocols, open-source implementation, and focus on decision-maker needs creates a framework that transcends specific national or regional contexts. The detailed performance data generated by such systems can inform evidence-based policy making at multiple levels of government and educational administration, particularly in situations where service providers may not be meeting contractual obligations.

The success of this pilot implementation in Kyrgyzstan’s secondary schools demonstrates the value of systematic internet quality monitoring in addressing service delivery problems that affect educational outcomes. By providing reliable, continuous measurement data through accessible open-source tools, the project enables informed decision-making about service provider accountability, contract enforcement, and alternative arrangements that could better serve educational needs. This approach transforms teachers’ personal sacrifices and student learning disruptions into concrete evidence that can drive systemic improvements in educational technology infrastructure.

The toolkit serves as a powerful advocacy tool that gives voice to educators and students who have been struggling with inadequate internet connectivity despite government investments in educational technology. Rather than continuing the cycle of paying for services that don’t meet educational needs while teachers subsidize the system with personal mobile data, this monitoring solution provides the evidence base necessary to demand accountability and drive meaningful improvements in educational internet service delivery.

The web platform is accessible to decision makers via link: https://mektepinternet.isoc.kg 

The Github repository of code located here: https://github.com/ISOCKG/internetqualitymonitoring 

#DigitalPublicGoods #OpenSource #InternetForEducation #DigitalEquity #OpenWRT #NetworkMonitoring #EducationTechnology #DigitalDivide #InternetRights #TechForGood #SDGs #DigitalInclusion #OpenData #CommunityTech #EducationAccess #NetworkTransparency #DigitalGovernance #TechPolicy #ConnectivityMatters 

Айылдык мектептердин интернетке туташуу мониторингинин алгачкы жыйынтыктары

The initial monitoring of the school connectivity demonstrated lack of the promised speed by Internet Service Provider. The internal wired and wireless infrastructure were the other issue of low connectivity leaving teachers and schools an opportunity to benefit from Internet provided by authorities.

Methodology

To assess the technical condition of the Internet infrastructure of 10 pilot schools in the Osh and Batken regions of the Kyrgyz Republic, the following activities were carried out:

  • Video interviews with school principals and IT teachers were conducted in Kyrgyz to identify current challenges and needs of educational institutions.
  • Remote diagnostics of the condition of equipment, communication lines and current Internet connection speed.
  • Analysis of building plans to study the location of classes, network nod locations and used network equipment.
  • Collection of data on internet service providers and tariff plans, as well as technical network parameters.

Based on our previous research we learned that all networking and information technology issues delegated as additional responsibility to teachers of the informatics, computer science classes. Therefore, the teachers were important source of information providing preliminary insights about the state of connectivity.

The remote diagnostics had been conducting using video call and overview of the cabling to the schools, media converters, routers and switches as well as end devices such as computers, laptops, etc.

We have used different testing platforms to monitor school connectivity including such parameters as speed diagnostics, browsing, Quality of Service, latency rate to key data centers and internet exchange points, as well as compliance of existing infra to LAN cabling engineering standards. Some parameters were tested using such diagnostics services as Ookla Speedtest, fast.com focused on quality of streaming services, and nPerf that rely upon the mLab measurement protocol (NDT7). Note that the GIGA Daily Check Up App was not available to Kyrgyzstan therefore ignored in testing stage.

The buliding information modeling helped us to understand the quality of wireless signal, possibility of wireless mesh network across the school, existing capacity, needs and challenges for schools to be fully connected and enjoy the seamless digital education experience.

Findings

  • All of the secondary schools had low-bandwidth capacity routers from two vendors with a maximum speed of up to 300 Mbps, limited processor performance and memory capacity suitable for home or small office usage only. The routers haven’t been able to cope with all connections.
  • Pilot schools were utilizing combined internal connectivity infrastructure – LAN cable connecting computer classrooms and wifi connection for teachers. The actual internet speed ranged between 340Kbps to 16Mbps.
  • Based on the Cabinet of Ministry’s decision KyrgyzTelecom Joint Stock Company had been selected as the single supplier of the internet services for all 2200 secondary schools of Kyrgyzstan. The terms of the agreement were classified and not available publicly. According to the interview, the Ministry of Education paid roughly 2500 Kyrgyz soms monthly fee per school in duration from September to June, while summertime were unpaid.

Photo gallery of school connectivity monitoring results