Glorious Model O Input Lag Test

Test click latency and button response on your Glorious Model O gaming mouse in your browser. No download required.

ZERO UPLOAD · ALL LOCAL
  1. Connect your mouse to a direct motherboard USB port — avoid hubs for accurate readings.
  2. Click "Start Session" and move your mouse continuously inside the tracking zone.
  3. Leaving the tracking zone pauses the measurement; re-entering resumes it automatically.
  4. Read the live metrics: Current Hz, Avg Hz, Max Hz, and Longest Gap.
  5. Click "Stop" to end the session and view the final results card.
  6. Red vertical lines indicate polling dropouts (below 125 Hz) — frequent red lines suggest USB contention or power management issues.

Expected result for Glorious Model O

Polling Rate for this mouse typically reads 900–1050 Hz (rated 1000 Hz).

Run the test below to see your result.

Move your mouse continuously inside the tracking zone to measure your mouse's polling rate. The tool calculates Hz from the time between each PointerEvent, then displays a live rolling chart of stability over time.

Works with any USB or wireless mouse. For best results, use a direct USB port — no hubs. A 1000 Hz mouse should read 900–1050 Hz; a 4000 Hz mouse should read 3600–4200 Hz.

Move your mouse continuously inside this area
Leaving this area will pause the measurement

Current Hz
Avg Hz
Max Hz
Longest Gap

Session Results

Avg Hz
Max Hz
Longest Gap
Samples

Red lines = polling dropout (<125 Hz). Move mouse continuously for an accurate reading.

Glorious Model O Input Lag Test: Click Latency Check

The Model O became a lightweight wired choice for players who wanted a simple honeycomb-shell mouse at 67 g. It uses Omron mechanical switches rated for 20 million clicks and connects over USB 2.0 with a default 1000 Hz polling rate.1 Use this tool to measure click latency and verify button response for fast, consistent competitive play.

Specifications1

SensorPixArt PMW3360
Max DPI12 000
Primary switchOmron D2FC-F-K (rated 20M clicks)
Weight67 g
ConnectionUSB-A (wired, flexible Ascended Cord)

Polling rate and connectivity

Polling via USB at 1000 Hz, the Model O delivers one position update every 1 ms.2 At that rate, position reports arrive every 1 ms. The Ascended Cord flexible cable is designed to minimise drag during movement, but cable type does not affect the Hz reading. A damaged or kinked cable can introduce electrical noise that appears as dropout events on the chart; vertical red lines indicate polling gaps above 8 ms. If you see frequent dropouts, inspect the cable for visible kinks and try a different USB port before attributing them to the mouse hardware.

Cable routing and its effect on dropout markers

Dropout markers indicate polling gaps above 8 ms and appear as red vertical lines on the chart. Cable drag on the Model O can trigger brief dropout patterns during rapid directional changes where cable tension peaks. Routing the Ascended Cord in a loose parabolic arc behind the mouse prevents tension buildup during movement and removes cable drag as a potential source of false dropout readings. If dropouts persist on a rear port with clean cable routing, USB hub contention or power management is the remaining cause to investigate.

Switch technology and click latency

Omron mechanical switches use physical contacts that can bounce briefly after actuation; firmware debounce filters those secondary transitions so one press registers cleanly.34 The Model O Wired V1 debounce range is 4–16 ms with a 10 ms default, adjustable in the Model O Wired software rather than Glorious CORE.5

In this browser test, expect click latency around the debounce window, with variation from OS scheduling, USB polling jitter, and how far the button travels before the switch actuates.6 Contact pressure can become unstable near the switching point, which is why worn mechanical switches can start producing chatter or double events.

At the default debounce setting, most Model O units produce click latency between 4 and 7 ms in this test. Lowering debounce toward 4 ms can reduce the average, but only if the switch still settles cleanly; raise it again if the log shows repeated double events from a single physical press.

When a lower debounce setting is not an improvement

A lower average is only useful if the switch still reports one clean event per press. If the log gains occasional double entries after reducing debounce, the old setting was masking contact bounce that the shorter window can no longer filter. Step back to the previous value and compare the average, spread, and double-event count together before deciding what feels fastest. The right debounce setting is the one that produces the lowest average without introducing repeated double events; chasing the absolute lowest latency means nothing if the log shows two entries for every other click during rapid gameplay sequences.

Testing this mouse

Connect to a rear USB-A port and verify the cable is not kinked during the test; the Ascended Cord's flexibility is an asset for gaming but means you should route it cleanly for measurement. Move steadily inside the tracking zone; erratic bursts lower the average Hz reading and can mask the true polling behavior you are trying to observe. Double-clicking is the most reported issue on this model, particularly after extended use where the Omron switch contacts begin to degrade. If the log shows two button events per physical press, open the Model O Wired software and raise the debounce threshold before concluding the switch is worn, because a higher debounce value can suppress contact bounce that a shorter window lets through as duplicate events.

Retesting before deciding the switch is worn

Because the original Model O is not factory hot-swappable, switch replacement is a repair task rather than a quick settings change. If increasing debounce does not resolve repeated double events, use a service guide for disassembly and switch replacement or replace the mouse. The honeycomb shell panels must be removed first to access the internal PCB, and the soldered Omron switches require a desoldering pump or solder wick before new switches can be fitted, so the repair demands basic soldering tools and steady hands rather than just a screwdriver.

Document the exact software version and debounce setting when you retest. The Model O Wired software path differs from newer Glorious CORE workflows, so recording the setting prevents a confusing repeat session where the switch condition and configuration no longer match. Without a record from this Model O debounce setting log, you may inadvertently compare a test run at 4 ms debounce against one at 10 ms and draw the wrong conclusion about whether the switch itself has degraded or whether the software setting is simply filtering more aggressively.

Sources
  1. 1.

    Glorious, "Glorious Model O Wired Mouse Product Guide," gloriousgaming.com, accessed June 2026. https://www.gloriousgaming.com/pages/guide-model-o-wired

  2. 2.

    Microsoft, "_USB_ENDPOINT_DESCRIPTOR (usbspec.h)," learn.microsoft.com, April 2021. https://learn.microsoft.com/en-us/windows-hardware/drivers/ddi/usbspec/ns-usbspec-_usb_endpoint_descriptor

  3. 3.

    OMRON, "What is the contact resistance of a basic switch?," components.omron.com, October 2021. https://components.omron.com/us-en/faq/switches/FAQE20018

  4. 4.

    Electronics-Tutorials.ws, "Input Interfacing Circuits Connect to the Real World," electronics-tutorials.ws, accessed June 2026. https://www.electronics-tutorials.ws/io/input-interfacing-circuits.html

  5. 5.

    enkore, "gloriousctl," github.com, accessed June 2026. https://github.com/enkore/gloriousctl

  6. 6.

    Ryan Scartozzi, Jean-Simon Bonneterre, and Yannick Khong, "Our Mouse Control Tests: Click Latency," rtings.com, August 2025. https://www.rtings.com/mouse/tests/control/latency

FAQ