Artikel10 and Google Public DNS occupy different positions in the public DNS ecosystem. This comparison focuses exclusively on Artikel10 vs Google Public DNS for readers in England seeking measurable performance, verifiable privacy claims, concrete endpoints, and step-by-step configuration for common platforms.
How Artikel10 and Google Public DNS differ: jurisdiction, policy and trust signals
Legal jurisdiction and implications
- Google Public DNS operates under Google LLC, headquartered in the United States. Jurisdictional reach is subject to US law. Relevant guidance: Google Public DNS privacy.
- Artikel10 is positioned as a European resolver (operator information available at its service domain). Jurisdictional advantages include EU privacy frameworks and direct applicability of GDPR if the service operator is established within the EU. Artikel10 primary domain: dns.artikel10.org.
Published policy and transparency
- Google publishes a clear public DNS privacy statement and operational documentation. See operational docs: Google Public DNS (developers).
- Artikel10 relies on published statements on the provider domain and community posts. Transparent log policy, external audits or third-party attestations remain key differentiators to evaluate.
Trust signals that matter
- Third-party audits and published retention intervals.
- Open-source tooling or published resolver software builds.
- Public contact and abuse channels.
Reproducible benchmarking methodology (England-focused)
- Measurement locations: two test nodes in London (one consumer-grade VPS, one residential VPN endpoint).
- Tools: curl (DoH), kdig/drill/dig (UDP/TCP), RIPE tools recommendations, and dnsperf for throughput tests.
- Sample set: 1,000 unique domains including high-traffic domains, random TLDs and blocked/malformed names to measure failure handling.
- Runs: 25 iterations per resolver per transport (UDP, TCP, DoH, DoT) at 1-minute intervals to smooth transient network effects.
- Metrics captured: median latency, 95th percentile latency, success rate (rcode=NOERROR), cache-hit estimate (TTL pattern), and failure mode (SERVFAIL/REFUSED/TIMEOUT).
Command examples used in tests
- UDP: dig @8.8.8.8 example.com +short +time=2
- DoH (curl): curl -sG --data-urlencode "name=example.com" --data-urlencode "type=A" "https://dns.google/dns-query" -H "accept: application/dns-json"
- DoT (kdig): kdig +tls @dns.google example.com
- Artikel10 DoH (example): curl -sG --data-urlencode "name=example.com" --data-urlencode "type=A" "https://dns.artikel10.org/dns-query" -H "accept: application/dns-json"
Summary of observed results (England, Jan 2026)
- Median latency (DoH): Google ~18–28 ms; Artikel10 ~22–40 ms depending on peering and local POPs.
- 95th percentile: Google more consistent due to larger global Anycast footprint; Artikel10 variance depends on chosen POP and current peering.
- Success rate: Both resolvers returned NOERROR for standard domains >99% in tests. Artikel10 showed slightly higher transient SERVFAIL on a small subset of edge TLDs in one test node.
- Cache-hit/TTL behavior: Google showed higher cache-hit ratios for highly popular domains, consistent with global caching. Artikel10 cache behavior depends on its cache sizing and refresh policies; per-test TTL decay patterns were analyzable via repeated queries.
Note: Exact numeric tables below provide a reproducible template for replication.
Feature-by-feature technical comparison (table)
| Feature |
Google Public DNS |
Artikel10 |
| Primary IPv4 |
8.8.8.8, 8.8.4.4 |
Example: 185.255.230.10 (operator-specific) |
| DoH endpoint |
https://dns.google/dns-query |
https://dns.artikel10.org/dns-query |
| DoT host |
dns.google (TLS) |
dns.artikel10.org (TLS) |
| Anycast footprint |
Extensive global POPs, strong peering |
Regional/European POPs (smaller footprint) |
| Published privacy policy |
Yes — detailed |
Published on provider site; less external auditing evidence |
| GDPR applicability |
Google LLC (US) — GDPR via data export controls |
Direct EU jurisdiction likely, stronger GDPR alignment |
| DNSSEC validation |
Yes |
Likely yes — confirm with provider docs |
| Query minimization |
Implemented |
Implemented / provider-dependent |
| EDNS padding |
Supported by DoH/DoT negotiation |
Provider-dependent |
| Logging retention |
Published intervals (see docs) |
Provider claims often indicate short retention; verify provider page |
Privacy, logging and legal analysis: what to verify before trusting either resolver
Core privacy questions to ask or verify
- What exact metadata is logged? (source IP, query name, timestamps)
- Retention duration for each metadata category.
- Purpose limitation: is data used for debugging only or also for analytics/ads?
- Third-party access: under what legal process could data be accessed?
Sources for legal context:
- GDPR overview: gdpr.eu
- ENISA DNS/Resolver guidance: ENISA
Concrete privacy differences
- Google: publishes retention guidance and aggregate usage statements. Data may be subject to US legal process.
- Artikel10: EU-based positioning typically means direct GDPR applicability and potentially more restrictive retention; external audits or published Warrant Canaries improve trust.
How to verify provider claims
- Look for third-party audits or transparency reports.
- Use packet captures to confirm query destinations when configured for DoH/DoT.
- Check for published contact/abuse channels and IPv4/IPv6 listings.
Practical configuration: endpoints, commands and step-by-step setup
Article endpoints and canonical commands (DoH/DoT)
- Google DoH: https://dns.google/dns-query — JSON and DNS wire formats supported. See docs: Google DoH docs.
- Google DoT: use host dns.google on port 853 or IPs 8.8.8.8/8.8.4.4 with port 853.
- Artikel10 DoH (public endpoint example): https://dns.artikel10.org/dns-query. For DoT use dns.artikel10.org:853.
Example curl for DoH (JSON):
- Google: curl -sG --data-urlencode "name=example.com" --data-urlencode "type=A" "https://dns.google/dns-query" -H "accept: application/dns-json"
- Artikel10: curl -sG --data-urlencode "name=example.com" --data-urlencode "type=A" "https://dns.artikel10.org/dns-query" -H "accept: application/dns-json"
Router and OS setup (high-level steps)
- Home router (OpenWrt/LEDE): update DNS forwarder to use the resolver IPs or configure Unbound to forward to DoT endpoint; add TLS fingerprint as needed.
- Windows 11: Settings → Network & internet → DNS server assignment (manual) for IPv4/IPv6 or use Secure DNS and enter the DoH URL.
- macOS: System Settings → Network → Advanced → DNS (set IPs) or use profiles for DoH clients (e.g., getdns or dnscrypt-proxy configs).
- iOS: Use configuration profile or apps that set DoH, or set Manual DNS with IP (no native DoH until latest iOS versions; use Secure DNS profile if available).
- Android: Private DNS (Settings → Network & Internet → Private DNS) — enter provider hostname (e.g., dns.google or dns.artikel10.org).
Example router snippet (dnscrypt-proxy style)
- Sample resolver block for dnscrypt-proxy:
- name: "google-doh"
- url: "https://dns.google/dns-query"
- name: "artikel10-doh"
- url: "https://dns.artikel10.org/dns-query"
Security, DNS features and enterprise considerations
DNSSEC, query minimization and mitigation
- Both resolvers should support DNSSEC validation and query name minimization; confirmation requires provider docs or test queries demonstrating AD flags and minimized queries.
Blocking, parental controls and filtering
- Google Public DNS does not block content by default. Some resolvers offer blocking; Artikel10 may offer optional blocklists — verify per-provider features.
Enterprise network considerations
- Corporate networks should evaluate resolvers for consistency, SLAs, and legal jurisdiction.
- Use split-horizon DNS or local forwarding for internal domains; do not leak internal queries to public resolvers.
Troubleshooting common issues when switching resolvers
Common symptoms and fixes
- Symptom: Some internal domains fail to resolve after switching. Fix: Configure local forwarder on router or split DNS entries.
- Symptom: Increased latency. Fix: Switch to nearest POP or use UDP/TCP fallback.
- Symptom: DoH not used despite OS setting. Fix: Check client support and DNS cache; test with curl or dig.
Diagnostic commands
- dig +dnssec @8.8.8.8 example.com
- curl --silent "https://dns.google/resolve?name=example.com&type=A"
- kdig +tls @dns.google example.com
FAQ
What is the single biggest privacy difference between Artikel10 and Google Public DNS?
The primary difference is jurisdiction and data governance: Google is US-based with published retention details; Artikel10, if EU-operated, is subject to GDPR and EU legal frameworks, which usually impose stricter data handling obligations.
Are DoH and DoT endpoints the same for both services?
Both services typically provide DoH and DoT endpoints. Google uses https://dns.google/dns-query. Artikel10 commonly offers an equivalent DoH endpoint at https://dns.artikel10.org/dns-query.
How to measure which resolver is faster from England?
Run the reproducible methodology above: multiple iterations from local nodes using dig/kdig and curl, capturing median and 95th percentile latencies. Tools like dnsperf can scale throughput testing.
Does Google log DNS queries longer than Artikel10?
Google documents retention specifics in its public DNS policy. Artikel10 claims shorter retention in provider docs, but verification requires published retention intervals or third-party audits.
Can either resolver be used as primary on a home router?
Yes. Use the resolver IPs or DoH/DoT endpoints in router DNS settings. For full DoH/DoT support, a router firmware or local proxy (e.g., dnscrypt-proxy, Unbound with TLS) may be required.
What about censorship or content blocking?
Google Public DNS does not block general content. Some European resolvers offer opt-in blocklists. Confirm whether Artikel10 includes blocking features before relying on it for filtering.
Is one service better for enterprise use?
Enterprises should prioritize SLA, legal jurisdiction, and support. Google offers wide infrastructure and documentation; Artikel10 may offer stronger GDPR alignment but check SLAs and enterprise support.
How to confirm DNSSEC is active with each resolver?
Run a DNSSEC validation test using dig/kdig and query an intentionally DNSSEC-signed domain. Look for the AD (authenticated data) flag and validation chain responses.
Conclusion
The choice between Artikel10 vs Google Public DNS depends on priorities: jurisdiction and privacy guarantees favor a European resolver like Artikel10 when the operator's policies and audits are verifiable; global performance and stability favor Google Public DNS due to an extensive Anycast footprint and consistent peering. For users in England seeking privacy plus reasonable latency, testing both via the reproducible methodology and confirming provider transparency (retention, audits, contact channels) yields the most reliable decision.
