Exploring Least-Researched Topics in Observational Astrophysics

In summary, the most nascent and/or least researched topics in observational astrophysics are quasars, dark matter, and gravitational waves.
  • #1
moonquark
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Which are some of the most nascent and/or least researched subjetcs in observational astrophysics??

how about Quasars and Pulsars?? So far i know it needs top quality instrumentation to get info about them...can anyone tell me about the "hot topics" in astrophysics in the near future. Dark matter perhaps??

replies anyone please?
 
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  • #2
It is anticipated that in the next year or decade gravitational waves will be detected, so gravitational astronomy will surely (in the sense that failure to detect will have similarly exciting repercussions) drive some exciting physics.

GR theorists tend to abhor dark matter and dark energy, in total contradiction with astronomers, and the very names of those subjects make them "hot topics".

No idea which "least researched subjetcs" might be interesting?
 
  • #3
Thanks very much.

Other opinions welcome.
 
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  • #4
what about DARK MATTER??

we haven't even found it even.
 
  • #5
moonquark said:
Which are some of the most nascent and/or least researched subjetcs in observational astrophysics??
There are lots of topics. The first that comes to my mind is radio astronomy and structure formation. Take a look for example to the http://www.lofar.org/p/ast_sc_epoch.htm site.

Due to its possible implications on quantum gravity, gamma ray astronomy (GLAST, EGRET, etc.) and ultra-energetic cosmic rays (Pierre Auger, AGASA, etc.) will be also important. The first observations may reveal deviations of the dispersion relations of photons. The second may shed new light about the GZK limit.

Neutrino experiments (Cerenkov radiation, like AMANDA) will tell us about dark matter and may be about new physics. The search for the weakly interacting particle of dark matter under mountains (CDMSII, ArDM, etc.) will continue and may be a highlight in the next years. Moreover, supernovae Ia surveys will shed light on the equation of state of dark energy.

This is only a part of the whole story that reflects my own interests. There are also other very interesting topics like quasars, black holes, etc. and other topics may have a breakthrough in the next years like exoplanets, astrobiology, etc.
 
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  • #6
In astrophysics i think that quasars are still attracting but dark energy and matter will keep us busy too,the research on dark matter is not at that much rate,but with better instrumentation we can have the best out of quasars.
nature of grb's and primordial hypernovae,existence of fat stars in early universeare too very exciting.

In planetary science, i think tilt of planets and existence of plutinos and asteroids at different positions,nature of comets are going to be year's most exciting.
 
  • #7
Neutron stars as tests of GR will continue to be 'hot', esp when LIGO (etc) detects an inspiral event.

I'm not sure if cosmology fits within your definition of astrophysics, but observational cosmology will continue to be hot for a long time ... perhaps the next big surge of interest will be when http://sci.esa.int/science-e/www/area/index.cfm?fareaid=17" starts returning data.

As has already been noted, quasars will continue to be hot, both observationally and theoretically (solving full GR MHD equations may keep theoreticians happy for decades yet!).

The evolution of galaxies is a hot topic - we are starting to get some good observational constraints, but the early period is still pretty much a blank slate.

We have already seen some glimpses of http://www.sciam.com/article.cfm?chanID=sa006&colID=1&articleID=0002BE5A-D608-152F-960883414B7F0123" coming on-stream.

Closer to home, the details of star formation, including the formation of planetary systems, will get filled in, with observations and theory advancing together; curiously, MHD may play key role here too!
 
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FAQ: Exploring Least-Researched Topics in Observational Astrophysics

What is observational astrophysics?

Observational astrophysics is a branch of astronomy that focuses on gathering and analyzing data from astronomical objects and phenomena. This can include using telescopes, satellites, and other instruments to observe and measure properties such as light, radiation, and other signals from objects in space.

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Exploring least-researched topics in observational astrophysics allows scientists to expand our understanding of the universe and uncover new insights and discoveries. It also helps to fill in gaps in our knowledge and can lead to advancements in technology and instrumentation.

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Scientists often choose topics to research based on current gaps in knowledge, new and emerging technology, and potential for groundbreaking discoveries. They may also consider the relevance and impact of the research on the field of astrophysics as a whole.

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Some challenges scientists may face include limited funding and resources, technical difficulties in collecting and analyzing data, and the vastness and complexity of the universe. Scientists must also carefully consider ethical considerations and potential impacts on the environment when conducting research.

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Research on least-researched topics in observational astrophysics can lead to a deeper understanding of our universe and our place in it. It can also inspire curiosity and wonder in the general public and spark interest in STEM fields. Additionally, advancements in technology and instrumentation developed through astrophysics research can have practical applications in everyday life.

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