Complete NVIDIA RTX PRO Sync Guide: Genlock, Frame Lock and Multi-Display Sync

Professional multi-screen systems become easier to reason about when three concepts are kept separate: reference timing, frame coordination and canvas arrangement. This NVIDIA RTX PRO Sync guide explains where Genlock, Frame Lock and Mosaic fit, how the PNY card's GPU and display limits shape an architecture, and what a project still needs to test for itself.

Quick Answer

RTX PRO Sync combines professional multi-display timing, cross-GPU frame coordination and Mosaic scaling to 32 displays or projectors in one system.

PNY NVIDIA RTX Pro Sync combines Genlock, Frame Lock and Mosaic for R19,599. The complete guide must stay inside a 32-screen canvas and an eight-processor layer of NVIDIA RTX Pro GPUs. The project team still has to match those capabilities to its real signal path, panels and applications.

⏱️ Separate timing from frame coordination

Genlock gives participating equipment a common timing reference to follow. In a design review, it should appear as a reference relationship: identify the equipment that needs alignment and the condition that demonstrates correct behaviour. The feature does not choose content layout or make a claim about how quickly the entire system responds.

Frame Lock works at a different boundary. It coordinates frame presentation across the graphics hardware taking part in a visual system. This is especially relevant when content travels between outputs owned by different GPUs and a mismatch would be visible at the joins.

Draw both requirements

Use one diagram for the timing reference and another for GPU ownership. The timing drawing shows which parts follow the reference. The graphics drawing assigns applications and displays to processors, making cross-GPU boundaries visible. Combining everything into one vague "sync" line makes faults harder to anticipate.

The PNY RTX Pro Sync card provides both lock roles at R19,599, allowing the two requirements to be addressed by one synchronization component.

🧩 Give Mosaic the canvas role

NVIDIA Mosaic gives several outputs an arranged visual surface instead of leaving them as unrelated desktops. That is why it sits beside the two lock functions rather than replacing either of them.

Storyboard the content across a drawing of the panels. Mark important text, moving objects and interface regions that cross display edges. This reveals whether a single broad canvas is genuinely useful and gives the acceptance team material to observe during commissioning.

Review possible panels in Evetech's PC monitor category against that geometry. Physical size, placement and bezel behaviour belong to the wall design, even when Mosaic manages the digital arrangement.

Extended desktop is a different goal

An operator may need several independent work areas rather than one shared surface. In that case, separate application zones can be more appropriate. Screen quantity alone does not force a Mosaic design; content behaviour decides.

🔢 Plan within the two capacity limits

PNY draws the GPU boundary at eight NVIDIA RTX Pro processors and sets 32 screens as the synchronized display limit. Put both totals on the same architecture sheet because a valid panel count can still hide an unresolved graphics allocation.

Assign every application and output group to a processor before browsing Evetech's workstation graphics cards. The design should use the smallest GPU count that satisfies workload and output requirements, leaving headroom only where expansion has a defined purpose.

Treat maxima as boundaries

Eight GPUs and 32 displays describe the outer architecture, not a recommended configuration. A four-screen project can still use professional synchronization if its timing requirements justify it. A large wall can still be poorly designed while remaining under both ceilings.

🧪 Commission with observable evidence

Write tests before installation. Use slow lines, pans, synchronized cuts and repeated patterns that cross important display and GPU boundaries. Observe the visual field from the positions used by operators or viewers, and repeat the modes expected in daily operation.

If latency is important, define an end-to-end threshold and measure the completed system. Genlock and Frame Lock describe coordination functions; they do not provide a universal delay figure. The same principle applies to reliability: create a repeatable baseline rather than assuming one component can guarantee the entire environment.

Document the passing GPU-to-screen map, active synchronization roles and test content. Supporting items can be assessed through Evetech's graphics card accessories range once their role in that approved architecture is understood.

Use a fit gate before pricing the rest

Score the card against three gates. The functional gate asks whether the project needs one or more of its lock and Mosaic roles. The scale gate checks the proposed GPU and screen totals. The evidence gate requires a practical test for the selected functions.

Only a proposal that clears all three should move into detailed costing. This prevents an attractive capacity figure from carrying a design whose timing role is undefined, and it stops a strong feature match from hiding a screen count beyond the supported boundary.

Create a fault-location key

Add four symbols to the wall documentation: one for the timing reference, one for a cross-GPU boundary, one for a physical panel join and one for a Mosaic region change. Use the symbols on test notes so a reported symptom immediately points toward the most relevant design layer.

The key is deliberately simple. It gives operators a shared vocabulary without asking them to diagnose a complex signal path from memory. A technician still verifies the cause, but the first report begins with useful location evidence.

Protect the baseline during changes

Before replacing a GPU, adding screens or modifying an approved layout, save the working configuration and identify the test that must be repeated. State which drawing changes and which existing boundaries could be affected. If the new state fails, return to the baseline rather than applying a chain of undocumented adjustments.

This change discipline matters as much as initial commissioning. Synchronization is a relationship among parts of the visual environment; altering one ownership or canvas decision can move the location where coordination must be observed.

The hardware architecture can coordinate a maximum of eight pro-grade NVIDIA graphics processors through two synchronisation cards. Each package includes the primary card, four 12-inch synchronisation cables and two longer 24-inch pieces. Platform support covers Windows 10, Windows 11 and Linux. Those details define the card's integration boundary for digital signage, high-fidelity video and immersive interactive graphics before the installer applies project-specific timing and content tests.

Every connection should remain traceable to the documented GPU map.

Frequently Asked Questions

What does Genlock do?

It aligns relevant equipment to a common timing reference. The project should identify the reference path and create an observable acceptance condition.

How is Frame Lock different?

Frame Lock keeps presentation in agreement among the graphics hardware taking part, making it relevant where a visual system crosses GPU boundaries.

Does Mosaic perform synchronization by itself?

Mosaic handles the arranged multi-display canvas. Timing-reference and cross-GPU frame roles remain the work of Genlock and Frame Lock.

What are the largest supported counts?

PNY accommodates eight RTX Pro GPUs at most and a synchronized field of 32 displays; a project can use fewer of either.

Is R19,599 the total system price?

No. It is the synchronization card price; graphics processors, screens and project work require separate cost lines.

How should a changed layout be accepted again?

Start from the saved working configuration, identify which canvas regions and GPU boundaries move, and choose content that crosses them. Recheck the relevant timing and frame roles as well as the final Mosaic arrangement. Keep the new result with the revised drawings so operators can distinguish the approved change from a fault.