We have never actually detected "dark matter", and the properties of this so-far-hypothetical substance haven't been fully defined.
There is one element of "dark" matter - solar neutrinos - that do, to the best of our knowledge, pass unaltered through human bodies - or stone buildings, or in fact, the entire Earth. The problem is that neutrinos also apparently pass unaltered through our most sensitive neutrino detectors, thus evading detection. The question these days is whether we're not detecting neutrinos because our detectors aren't sensitive enough - which means that we need to re-work our theoretical understanding of physics - or because the Sun isn't producing neutrinos - which means that we need to re-work our theoretical understanding of physics.
Either way, it looks like we need to re-work our theoretical understanding of physics.
A dark matter microscope is used to indirectly detect and study dark matter by analyzing the impact it has on the distribution of visible matter in space. By observing the gravitational effects of dark matter on visible matter, scientists can infer the presence and properties of dark matter particles.
Dark matter does not interact with regular matter in the same way as atoms or molecules, so it cannot enter a human body or any other form of ordinary matter. Its presence is inferred through gravitational effects on visible matter, but it does not interact in a way that would allow it to pass through or interact with human cells.
Dark matter's strength is proportional to it's mass. This means that more dark matter in one spot is stronger then a little bit of dark matter in that same spot.
Dark Matter - series - was created in 2004.
The Universe contains matter, energy, dark matter, dark energy, empty space - and of course, lots of structures made up of those.The Universe contains matter, energy, dark matter, dark energy, empty space - and of course, lots of structures made up of those.The Universe contains matter, energy, dark matter, dark energy, empty space - and of course, lots of structures made up of those.The Universe contains matter, energy, dark matter, dark energy, empty space - and of course, lots of structures made up of those.
No, this is not possible. Dark matter is a form of matter that is undetectable by human senses, because it does not interact with any of the four fundamental forces that affect the visible universe (electromagnetism, strong nuclear force, weak nuclear force, and gravity). Therefore, it is impossible for dark matter to become normal matter as observed at a human sensory level.
A broader answer would still be no. There is no consensus on what the so-called "dark matter" is.
An erect metal pole of which wires are ran trhough to a bulb at the top, which with the help of a sensor,is able to light up when it gets dark.
Yes, larger bodies of dark matter that are considered responsible for pulling apart the universe.
A dark matter microscope is used to indirectly detect and study dark matter by analyzing the impact it has on the distribution of visible matter in space. By observing the gravitational effects of dark matter on visible matter, scientists can infer the presence and properties of dark matter particles.
Dark matter is everywhere, there really is no place that has the most dark matter.
Dark matter is an unknowm form of matter.
Dark matter does not interact with regular matter in the same way as atoms or molecules, so it cannot enter a human body or any other form of ordinary matter. Its presence is inferred through gravitational effects on visible matter, but it does not interact in a way that would allow it to pass through or interact with human cells.
The opposite of dark matter is visible matter.
Dark matter's strength is proportional to it's mass. This means that more dark matter in one spot is stronger then a little bit of dark matter in that same spot.
dark matter
Dark matter.