Player One Mars-M II IMX462 Mono Planetary Camera
- 2.1 Megapixel Monochrome IMX462 Sensor
- 2.9μm Pixel Size
- 136 FPS at Full Resolution (10-bit)
- ≈91% Peak Quantum Efficiency
- 12.5mm Back Focal Length
Simulate the exact field of view of the Player One Mars-M II IMX462 Mono Planetary Camera with your specific telescope.
Launch Imaging AssistantThe Player One Mars-M II camera centers on the monochrome Sony IMX462 sensor, delivering a full 1944×1096 resolution at up to 136 FPS for high-speed planetary imaging. Its 2.9μm pixels are optimized for resolving fine detail, while a peak Quantum Efficiency of ≈91% and read noise as low as 0.7e ensure that faint signals from planetary moons and atmospheric features are captured cleanly. With a deep 12k e full well, the Mars-M II captures a wide dynamic range in a single frame, preserving highlights on bright targets like Jupiter's Galilean moons and Saturn's rings.
At the heart of the Mars-M II is the 1/2.8" Sony IMX462 monochrome sensor, a chip renowned for its sensitivity and speed. The 2.1-megapixel resolution provides enough field to easily center planets while its 2.9μm pixels offer a high-resolution sampling for telescopes with focal lengths common in planetary work, such as SCTs, Maksutovs, and long-focus refractors. Over a USB 3.0 connection, the camera streams 12-bit data at a rate that allows you to capture thousands of frames in minutes, maximizing your chances of freezing moments of perfect seeing.
The Mars-M II features an exceptionally low read noise floor, dropping to just 0.7e at high gain settings. This ultra-low noise is critical for pulling faint details out of the background, especially when imaging lower-contrast targets or using narrowband filters. When the gain is set to 80 or higher, the camera automatically engages High Conversion Gain (HCG) mode. This technology drastically cuts read noise while preserving the full dynamic range you would expect at low gain, giving you clean, low-noise images without sacrificing contrast.
While its peak QE of ≈91% is impressive, the Mars-M II's true strength lies in its broad spectral response. The sensor is protected by a Super AR Plus coated window that transmits light from the ultraviolet (310nm) deep into the infrared (1100nm). This makes the Mars-M II a powerful tool for advanced scientific imaging. You can capture sharp details on Jupiter and Mars using an IR-pass filter to defeat atmospheric turbulence, or target the methane absorption bands on giant planets with a CH4 filter to reveal high-altitude storms.
Player One integrates a DDR3 cache into all its planetary cameras to ensure data integrity during high-speed capture. This buffer prevents dropped frames by stabilizing data transmission, ensuring every frame you capture is saved to your computer, even on systems with slower hard drives or when using a USB 2.0 connection. The camera also features Dead Pixel Suppression (DPS) technology, which analyzes dark frames to map and correct for abnormal pixels automatically, resulting in cleaner raw data and reducing your post-processing workload.
The primary difference between the Mars-M II and its color sibling, the Mars-C, is the sensor type. While the Mars-C offers the convenience of one-shot-color imaging without a filter wheel, the Mars-M II provides superior raw performance for the dedicated planetary imager.
The primary advantage is its exceptional sensitivity in the near-infrared (NIR) spectrum. This allows you to use IR-pass filters to significantly reduce the blurring effects of atmospheric turbulence ("seeing"), resulting in much sharper images of planets like Jupiter, Saturn, and Mars.
The High Conversion Gain (HCG) mode automatically activates when the camera's gain setting is 80 or higher. It significantly reduces read noise to as low as 0.7e while preserving the full dynamic range of the sensor. This gives you the benefit of high-gain sensitivity without the typical noise penalty.
The onboard DDR3 cache acts as a high-speed buffer. It ensures stable data transmission and prevents dropped frames during high-speed video capture, even if your computer's hard drive has slow write speeds or you are connected via a USB 2.0 port. This guarantees that all captured data is reliably saved.
The Mars-M II is an excellent match for an 8" f/10 SCT. Its 2.9μm pixels provide ideal image sampling with a 2x Barlow lens. More importantly, its high infrared sensitivity allows you to use an IR-pass filter to cut through poor seeing, dramatically sharpening details in Jupiter's cloud bands and the Great Red Spot (GRS).
Yes, absolutely. The Mars-M II's strong sensitivity deep into the near-infrared makes it a perfect camera for methane band (CH4) imaging. This technique reveals high-altitude features in the atmospheres of Jupiter and Saturn that are invisible in other wavelengths.
Choose the Mars-C for simplicity and a faster workflow, as it captures color images in a single shot. Choose the Mars-M II if you want the absolute highest resolution and sensitivity. It requires a filter wheel and LRGB filters but offers superior performance, especially for advanced techniques like infrared and ultraviolet imaging.
| Sensor | SONY IMX462 1/2.8" CMOS (mono) |
| Total Pixels | 2.1 Mega Pixels |
| Max Resolution | 1944×1096 |
| Pixel Size | 2.9μm |
| Sensor Diagonal | 6.5mm |
| Sensor Size | 5.6mm × 3.2mm |
| Max Frame Rate | 136 FPS (10-bit) |
| Shutter Type | Rolling shutter |
| Exposure Range | 32μs - 2000s |
| Readout Noise | 2.6e ~ 0.7e |
| QE Peak | ≈91% |
| Full Well Capacity | 12k e |
| ADC | 12-bit |
| Data Port | USB 3.0 / USB 2.0 |
| Adapter Threads | 1.25″ / M42x0.75 |
| Back Focal Length | 12.5mm |
| Protective Window | D21×1.1mm Super AR Plus Multi-Coated |
| Diameter | 66mm |
| Weight | 180g |
| Resolution & FPS (USB 3.0) | 1944×1096: 136FPS (RAW8) / 62.5FPS (RAW16) 1920×1080: 138FPS (RAW8) / 63.5FPS (RAW16) 1280×720: 205FPS (RAW8) / 94.1FPS (RAW16) 800×600: 245FPS (RAW8) / 112.4FPS (RAW16) 640×480: 304FPS (RAW8) / 139.3FPS (RAW16) |