1.3-inch 3.5K OLED-on-Silicon Microdisplay

1.3″ 3.5K Micro OLED Display

A 3552 × 3552 square-format Micro OLED with micro-lens design for premium VR, simulation, high-FOV binocular HMD and advanced professional imaging systems.

1.3-inch 3552 by 3552 3.5K Micro OLED display module

Large Square 3.5K Micro OLED Image Source

The 1.3″ Micro OLED display is the largest high-resolution square platform in DisplayMan’s broader Micro OLED displays portfolio. SY130LJM01 provides a native 3552 × 3552 resolution across a 23.241 × 23.241 mm active area.

Its 6.543 μm pixel pitch, micro-lens structure and dual-port MIPI architecture make it suitable for premium binocular VR, high-FOV simulation and advanced professional near-eye systems.

3.5K Square Format

The 3552 × 3552 image provides balanced horizontal and vertical resolution with 37.8 million color subpixels.

High-Bandwidth Integration

The panel requires dual-port, 8-lane MIPI DSI electronics. HDMI, Type-C and other sources need a matched high-resolution driver architecture.

Display Size1.3″ diagonal
Resolution3552 × 3552
Active Area23.241 × 23.241 mm
Pixel Pitch6.543 μm
Brightness1600 nits reference
Contrast Ratio200,000:1
Frame RateUp to 90 Hz
Interface8-lane MIPI + I²C

1.3″ 3.5K Micro OLED Specifications

The following engineering references are based on the SY130LJM01 pre-specification. Final production specifications, supply status and driver compatibility should be confirmed before design-in.

ModelSY130LJM01
Display TechnologyActive-matrix color OLED-on-Silicon / OLEDoS with micro-lens design
Diagonal Size1.3 inch
Native Resolution3552 × 3552
Number of Dots37.8 million subpixels: 3552 × 3552 × 3
Pixel Pitch6.543 μm
Pixel ArrangementHexagon, delta arrangement
Active Area23.241 × 23.241 mm
Brightness1600 nits at 20% emission duty cycle
Contrast Ratio200,000:1
Gray Levels256 or 1024
Color Depth24-bit / 8-bit RGB or 30-bit / 10-bit RGB
Frame RateUp to 90 Hz
Display InterfaceTwo-port MIPI DSI, 8 lanes total
MIPI Data RateUp to 1.65 Gbps reference
Control InterfaceI²C
CompressionVESA DSC 1.1; 8/10 bpp and reference 3:1 / 3.75:1 compression
Scaling1.0× to 2.0× reference support
Power RequirementsVDDI 1.8 V, DVDD 1.26 V, ELVDD 3.8 V, ELVSS −7.5 V reference
Operating Temperature−20°C to +70°C
Storage Temperature−40°C to +80°C
Brightness Measurement Boundary

The 1600-nit value is specified at a 20% emission duty cycle. Final brightness, power and thermal performance depend on drive conditions and the complete optical system.

Why Choose a 1.3″ 3.5K Micro OLED?

Resolution

3552 × 3552 Detail

A square 3.5K image provides extremely high pixel count for demanding immersive and professional systems.

Image Area

23.241 mm Square

The large active area supports high-FOV optics and binocular architectures requiring greater image coverage.

Optical Output

Micro-Lens Design

The integrated micro-lens direction supports improved light output, subject to drive and optical-system conditions.

Motion

Up to 90 Hz

A 90 Hz direction supports smooth near-eye motion when the host, driver and processing pipeline are matched.

Interface

Dual-Port MIPI

Two MIPI ports and eight total lanes provide the bandwidth required for the 3552 × 3552 image.

Image Pipeline

DSC & Scaling

VESA DSC and scaling support help integrate the high-resolution panel into suitable processing architectures.

Typical Applications

Premium VR Headsets

High square resolution and a large image area for demanding binocular VR and immersive visualization.

Pancake Optical Engines

A 3.5K image source for compact folded optics, subject to total transmission and brightness-at-eye evaluation.

Simulation & Training

High-detail near-eye imagery for aviation, defense, industrial and professional training systems.

Binocular HMD

A large square image format for dual-display head-mounted systems and wide field-of-view optical designs.

Professional Imaging

Extremely high pixel count for advanced visualization, inspection and specialized optical instruments.

Optical R&D

A high-end platform for evaluating optics, compression, driver bandwidth and custom near-eye architectures.

How the 1.3″ Micro OLED Fits into a System

The display requires a high-bandwidth image pipeline and carefully matched optics. Final perceived resolution depends on the driver, compression, optical MTF, alignment and binocular calibration.

3.5K Host / Processor
Dual-Port MIPI Driver
1.3″ 3.5K Micro OLED
Pancake / High-FOV Optics
Visible Virtual Image

Electronic Integration

  • Support 3552 × 3552 output and up to 90 Hz operation.
  • Match two-port, 8-lane MIPI DSI timing and initialization.
  • Configure DSC, scaling, color depth and image synchronization.
  • Provide all required positive and negative power rails in the correct sequence.

Optical & Mechanical Integration

  • Match the 23.241 mm square active area to the optical design.
  • Calculate brightness at the eye after total optical loss.
  • Define field of view, eye box, eye relief and distortion targets.
  • Control focus, binocular alignment, heat and mechanical tolerances.
Need a Complete High-Resolution Near-Eye System?

Use the Near-Eye Display Solution page for display selection, driver electronics, optical-engine matching, mechanical integration and prototype evaluation.

When Should You Select the 1.3″ 3.5K Platform?

Good Fit

Select 1.3″ 3.5K When

  • Maximum square-format pixel count is a priority.
  • VR, simulation or a premium binocular HMD is the target.
  • The optics can use a 23.241 × 23.241 mm image area.
  • The driver supports dual-port, 8-lane MIPI DSI.
  • The system can manage high bandwidth, power and thermal requirements.
Compare First

Review a Smaller Platform When

  • 2560 × 2560 or Full HD resolution is sufficient.
  • The mechanical envelope cannot accommodate the larger panel.
  • The host cannot provide the required 3.5K processing bandwidth.
  • Higher panel luminance is more important than maximum resolution.
  • Cost, power or development complexity has greater priority.
3.5K Resolution Requires a Complete-System Review

The panel, driver, compression, optics, host rendering, mechanics and binocular calibration must be designed together to realize the benefit of 3552 × 3552 resolution.

1.3″ 3.5K Micro OLED FAQ

What is the resolution of the 1.3″ Micro OLED?

SY130LJM01 provides a native 3552 × 3552 square resolution across a 23.241 × 23.241 mm active area.

What is the brightness of SY130LJM01?

The pre-specification states 1600 nits at a 20% emission duty cycle. Final brightness depends on drive conditions and the complete optical system.

What interface does the 1.3″ panel use?

The panel uses two MIPI DSI ports with eight lanes in total, plus an I²C control interface.

Does the panel support 90 Hz?

The reference frame rate is up to 90 Hz. The host, driver bandwidth, MIPI configuration and processing pipeline must all support the selected mode.

Can it connect directly to HDMI or USB Type-C?

Normally no. A compatible high-resolution driver architecture must convert the host input into the required dual-port MIPI timing, control and power sequence.

Is the 1.3″ Micro OLED suitable for Pancake optics?

It is a relevant 3.5K direction, but Pancake optics can have significant light loss. Brightness at the eye, field of view, eye box, heat and optical MTF must be evaluated together.

What is the difference between 1.03″ and 1.3″ Micro OLED?

The 1.3″ model provides 3552 × 3552 resolution and a 23.241 mm square active area, while the current 1.03″ direction provides 2560 × 2560 across an 18.432 mm square active area. The 1.3″ platform requires more bandwidth and a larger optical system.

What information is needed for a quotation?

Please provide the application, quantity, required field of view, optical architecture, host input, mechanical envelope, brightness-at-eye target and project schedule.

Qualified Micro OLED Projects

Evaluate the 1.3″ 3.5K Platform Around Your Real Application

Send the application, quantity, brightness target, host input, optical requirements, mechanical limits and project schedule. DisplayMan will review whether the 1.3-inch 3.5K direction is suitable.

The display, driver electronics, Pancake or other optical engine, mechanical structure, thermal design and host interface should be evaluated as one complete premium near-eye display system.

Send Your Display Requirement

Please share your application, display size, quantity and project background. We will review the most practical display direction.