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The complex network of interconnected cellular signals produced in response to changes in the human body offers a vast amount of interesting and valuable insight that could inform the development of more effective medical treatments. In peripheral immune cells, these signals can be observed and quantified using a number of tools, including cell profiling techniques.

Single-cell profiling techniques such as polychromatic flow and mass cytometry have improved significantly over the past few years and they could now theoretically be used to obtain detailed immune profiles of patients presenting a number of symptoms. Nonetheless, the limited sample sizes of past studies and the high dimensionality of the patient data collected so far increase the chances of false-positive discoveries, which in turn lead to unreliable immune profiles.

Conducting studies on larger groups of patients could improve the effectiveness of these cell-profiling techniques, allowing to gain a better understanding of the patterns associated with medical conditions. Gathering data from many patients, however, can be both expensive and time consuming.

Article from Universetoday. Interesting read.


When human beings start living in space for extended periods of time they will need to be as self-sufficient as possible. The same holds true for settlements built on the Moon, on Mars, and other bodies in the Solar System. To avoid being entirely dependent on resupply missions from Earth (which is costly and time-consuming) the inhabitants will need to harvest resources locally – aka. In-Situ Resource Utilization (ISRU).

This means they’ll have to procure their own sources of water, building materials, and grow their own food. While the ISS has allowed for all kinds of experiments involving hydroponics in space, little has been done to see how soil fares in microgravity (or lower gravity). To address this, Morgan Irons – Chief Science Officer of the Virginia-based startup Deep Space Ecology (DSE) – recently sent her #id=8305″] Soil Health in Space experiment to the ISS.

The experiment, Determination of Gravitational Effects on Soil Stability for Controlled Environment Agriculture, was sponsored through Morgan’s fellowship with the Norfolk Institute – which provided grant funding from numerous companies (including DSE). An agreement between Norfolk Institute and Rhodium Scientific, LLC (an official space-flight implementation partner of the ISS U.S. National Laboratory) provided access to the NASA launch opportunities and the ISS.

This is interesting. So Mars won’t be under earth-based laws?

Interesting… 😃


SpaceX’s Elon Musk has revealed that they will not abide by international law on Mars.

Instead, the company plans to define its own set of ‘self-governing principles’ for the first Martian settlement.

Since the last manned landing in 1972, no humans have been back to the Moon. Now, NASA plans to change all that with Artemis, which aims to land the next man and the first woman on the lunar surface by 2024.

The Artemis program will take place in stages, from testing the spacecraft that will carry astronauts to the Moon to building Gateway, a space station in lunar orbit to serve as a midway point for long-term missions. Future astronauts will explore regions of the Moon humans have never visited, including its south pole, where water ice hides in shadowed craters.

In this episode of Infinity & Beyond, host Abigail Bollenbach takes you through the next space race to the Moon, Mars, and beyond.

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