Objects like solar flares, supernovae, black holes and other galaxies.
The answer is a conceptual model
A gamma ray burst is a powerful explosion of energy that occurs when a massive star collapses or two neutron stars merge. It releases intense bursts of gamma rays and can have a significant impact on its surrounding environment, potentially causing damage to nearby planets and stars. On the other hand, a black hole is formed when a massive star collapses under its own gravity, creating a region of spacetime where gravity is so strong that nothing, not even light, can escape. Black holes do not emit gamma ray bursts, but they can have a profound impact on their surroundings by pulling in nearby matter and distorting spacetime. In summary, the main difference between a gamma ray burst and a black hole is their formation process and the way they interact with their surrounding environment.
The three different types of spectra are:Emission spectra are produced by hot, thin gases in which the atoms do not experience many collisions (because of the low density). The emission lines correspond to photons of discrete energies that are emitted when excited atomic states in the gas make transitions back to lower-lying levels.A continuous spectrum results when the gas pressures are higher. Generally, solids, liquids, or dense gases emit light at all wavelengths when heated.An absorption spectrum occurs when light from a hot, dense object passes through a cold, dilute gas and atoms in the gas absorb at characteristic frequencies; since the re-emitted light is unlikely to be emitted in the same direction as the absorbed photon, this gives rise to dark lines (absence of light) in the spectrum.
A 10-week-old baby can see objects that are about 8-12 inches away clearly. Their vision is still developing, so they are best able to focus on objects that are close to them. By this age, they may start to show interest in objects and faces and begin to track movement with their eyes.
Oh, isn't that just wonderful? Neutron stars do emit light—it's very faint, but it's there! The nature of this light includes X-rays, gamma rays, as well as some visible light that can be scattered. Isn't it fascinating how even in the vast reaches of space, there's always a beacon of guidance and warmth shining through?
Objects like solar flares, supernovae, black holes and other galaxies.
It's x-rays that can show your bones.
They do not show up on regular x rays
Stars emit all kinds of radiation including light waves, cosmic rays, gamma rays, and X-rays. When we look at stars, we can only see the light waves. But using cameras that can 'see' the other wavelengths, particularly X-rays, then convert them to light waves that we CAN see, we notice a lot of things that simply do not show up by looking at the stars' light waves.
Yes hickeys do show up on x-rays. and tooth paste does not get rid of them
El show de Don Cheto - 2005 Los Gamma was released on: USA: 16 October 2007
The long waves (which also have low energy) are radio waves. Then microwaves and infrared. Then visible light, red to violet (ROYGBIV). Then ultraviolet, X-Rays, and gamma rays (which have the highest energy. So red has a longer wavelength than blue.
The electromagnetic spectrum is the range of all possible frequencies of electromagnetic radiation. It includes radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, and gamma rays. Each type of radiation carries different amounts of energy.
In a ray diagram, the rays represent the path that light takes as it travels through different mediums and interacts with objects such as lenses or mirrors. The direction of the rays indicates how light travels, including angles of incidence and reflection or refraction. These diagrams help visualize how light behaves and how images are formed, allowing for the analysis of optical systems.
A telescope ray diagram can be used to show how light rays enter and are focused by the lenses or mirrors in a telescope. This helps illustrate how the telescope magnifies distant objects and forms an image for the viewer to see. By analyzing the paths of the light rays in the diagram, one can understand how the optical principles of the telescope work to enhance our ability to observe objects in space.
Most of the visible light and some of the ultraviolet and infrared radiation from the sun pass through the atmosphere and reach the Earth's surface. Other forms of radiation, such as gamma rays and X-rays, are mostly absorbed by the atmosphere and do not reach the surface.
Arteries probably won't show up on normal x-rays because x-rays are supposed to be used to show the bones; I am not completely sure what to say though.