Launch parallel latency pings to multiple destinations from distributed global vantage points to detect routing drops.
: Identify if high latency is localized to a specific continent or if it's a global server issue.
: Confirm that users in Japan, the US, and Europe are routed to their respective nearest datacenters rather than traversing the globe.
: Spot latency spikes on specific transoceanic fiber links or tier-1 ISP peering points.
Mean Deviation (mdev) / Jitter
Global Multi-Location Ping Test Tool | BharatNexa Diagnostics
Active Diagnostic Edge Checkpoints
Supports IPv4 & IPv6 Protocol Standards
Global Latency Comparison (Average RTT)
Understanding ICMP Protocols & Diagnostics
Why Ping from Multiple Locations Simultaneously?
index, follow, max-snippet:-1, max-image-preview:large, max-video-preview:-1
e.g. google.com, 8.8.8.8 or 2001:4860:4860::8888
You can ping up to 5 destinations concurrently from all global checkpoints.
You are in guest mode and can ping 1 destination at a time. Please register or log in to ping up to 5 targets concurrently.
Global Multi-Location Ping diagnostics
An online multi-location ping tool allows you to check the reachability and latency of any server or website from multiple geographical locations simultaneously. Instead of testing reachability from only your local computer, this tool triggers real ICMP echo request packets from active edge probes located in key network hubs across the globe, including Mumbai, New York, London, Singapore, Tokyo, and Sydney.
Ping latency is primarily governed by the speed of light through fiber-optic cables (approx. 200 kilometers per millisecond). This means that physical distance is the most significant factor in network latency. A ping from Singapore to a server in Singapore might take 2ms, whereas a ping from London to the same Singapore server will take at least 150ms due to the physical distance the light must travel, along with the overhead added by routers at transit hops along the way.
In general, latency is categorized as follows: - Excellent: < 30ms (ideal for real-time services, VoIP, gaming) - Good: 30ms - 100ms (highly responsive for web browsing and standard apps) - Average: 100ms - 200ms (noticeable delay but fully functional) - Poor: > 250ms (significant delay, potential routing issues) Additionally, any packet loss greater than 0% indicates potential network issues, such as link congestion, bad routing configurations, or failing hardware.
This is a very common scenario. Many server administrators and cloud providers configure their firewalls or security groups (such as AWS Security Groups) to drop ICMP Echo Request packets to prevent security scanning and DDoS attacks. However, they continue to allow TCP traffic on port 80 (HTTP) and port 443 (HTTPS) so web browsers can access the site. In this case, the ping utility will report 'Request timeout' or 100% packet loss, even though the website is fully online.
Packet loss occurs when one or more packets of data traveling across a network fail to reach their destination. It is caused by network congestion (where routers drop packets because their buffers are full), faulty hardware (network cards, cables, or fiber ports), wireless interference, or security filters that intentionally drop traffic to prioritize other protocols.
Anycast is a routing technique where multiple physical servers in different locations share the same IP address. When a ping is sent to an Anycast IP, the internet's routing protocol (BGP) automatically directs the packets to the physically or logically closest server. In global ping results, an Anycast IP will show extremely low latencies (e.g. < 5ms) across all global checkpoints simultaneously, as each probe is pinging its own local edge node rather than routing back to a single central server.
This diagnostics console is integrated with the Globalping network of active probes. When you enter a target, the backend initiates a real-time measurement request to physical diagnostic edge probes in India, the US, the UK, Singapore, Japan, and Australia. The results are streamed, parsed, and rendered as live terminal traces, statistics, and latency charts. A local subprocess runner acts as a backup for the primary region if the public API experiences rate limits.
Jitter is the variance in latency over time. In our raw ping logs, this is represented by the 'mdev' (mean deviation) value. If all 5 packets return in exactly 12ms, the mdev is 0.0ms, indicating a highly stable, jitter-free connection. If packet latencies fluctuate widely (e.g. 10ms, 85ms, 12ms, 140ms), the mdev will be high, indicating unstable connection paths, bufferbloat, or queue congestion, which causes stuttering in real-time streaming and VoIP.