New Organism

 

Following the discovery of the first organism, “Wurm”, in the shallow soil subsurface on Mars, intense interest has evolved to attempt to understand the diversity of organisms living in these extreme environments. We concluded that Wurm and Arthropoda, are organisms thriving at 1.5 – 3.0 inch depths in palaeometeoric fissures which are estimated to be 3,500,000,000 – 4,000,000,000 years old. Protozoan and other organisms have been identified; however, they are present in low numbers in this captured Mars rover picture. Characterization of the newly found different species on Mars reveals that many are opportunistic organisms with an unknown origin due to recharge from the surface waters and subsurface soil leaching.

Exobiology implications

This is the first known study to demonstrate the in situ distribution of organisms in the fracture and fissure soil using picture documentation directly from NASA. Finally, the team used disturbed soil by the rover tracks to locate the largest number of samples. The discovery of a new group of organisms underground on Mars has important implications for the search for life on other planets in the solar system. These findings suggest that best scenario for sustaining life on Mars would be in the subsurface soil.

Extreme environments

The discovery of “Wurm” thriving in  a fissure with water, which was neither extreme in temperature nor depleted of O2 concentration, raised the question as to why only complex organisms were found. Several other species of lower invertebrates should have been able to thrive in these extreme environments, but were not previously discovered on Mars, until Mars Life teamed up with a Viking 1 supervisor Dr. Douglas A. O’Handley.

Where it began

An extreme and relentless 12- year continuous-study campaign was executed on the surface of Mars, which focused on capturing other life forms from water flowing in fractures and subsurface soil. The modified Mars Exploration rover served to trap images for the Mars Life HD team until it went offline after a dust storm.

Picture magnification 

For the first time, digital picture technology was used to capture footage of the unique biosphere environment accessed via rover tracks, where many organisms similar to “Wurm” reside inside the soil. This technique was extended to other areas on Mars where the rover cameras could be used with the Rock Abration Tool (RAT) tool to churn up soil samples. As soon as (RAT) was deployed, an organism appeared mere inches away from the NASA – JPL rover. Our findings held up when we used an x 45 zoom magnification on NASA pictures on multiple SOL’s. 

Chemical and microbial analysis of the fissure water, hydrated sulphates – evidence of past presence of liquid water concentration — and measurements combining extensive control sampling around fractures and surface water established the indigenous nature of the specimens discovered on Mars.

Going underground

We had a limited amount of rover images containing tracks with increased soil distribution. By studying images from Curiosity, the Mars Life HD team noticed similarities between recently broken subsurface soil.  We assert the discovery of a deep fissure organism, “Wurm”, which could be protozoan.  It appears to promote an arbitrary separation of “animal-like“ form,  “plant-like” existence,  reminiscent of “primitive, or original animals”. Previous calculations of life on Mars, if any, indicated that food availability, not O2 or CO2, is a limiting factor for population growth. Picture footage shows two types of organisms growing in the soil and rock face, and with a detailed picture collection of these organisms establishes that this site is where the organisms reside.

This would be subsurface life

The discovery of a complex group of interacting organisms in the subsurface soil indicates the biosphere on Mars is larger than previously determined and is significant for the search for life on other planets, particularly the planets Titan and Enceladus. These findings suggest that best scenario for organisms sustaining life on Mars would be in located the subsurface soil.

See our photos