Yes, they can. In fact, they're absolutely necessary these days due to the energies needed to create them. There are two main labs in the world that focus on doing this. The first is the GSI Helmholtz Centre for Heavy Ion Research in Darmstadt, Germany. The second is Lawrence Berkeley National Laboratory in Berkeley, California.
no
EDIT: "No" is an incorrect answer. Particle accelerators are the only way to create new elements; the nuclei of two stable atoms collide and may form the nucleus of a new element. However, the new nuclei are unstable and will decay rapidly.
Particle accelerators cause particles to crash together at huge speeds. The artificial transmutation of elements can be achieved within a particle accelerator changing one element to another.
What essentially happens is two nuclei of two different (or the same) elements are smashed together; sometimes (although rarely) parts of the nuclei will stick together instead of getting obliterated or shot out. It is through this process that particle accelerators are used to create elements; however, it is worth noting that these elements are unstable due to the nucleus's atomic radius being to large; it will be greater than the range of the residual strong force.
Yes, it is possible (beam target fusion).
how describe art elements
very interesting question, we don't know why. however there are several lines of evidence from studying other particles in the standard model that suggest that there cannot be more than 6 quarks.
There are the slides themselves. On the slides you will have text and/or graphics. You will have basic transitions and animations. You may have other elements, such as music and video. It will depend on the presentation you are trying to create.
I don't know what you mean by "new atomic particles" so I'll give some answer options. Yes, scientists can split apart nuclear isotopes with accelerators. Yes, scientists can create nuclear isotopes, both previously observed and new with accelerators. No, scientists can't split protons or neutrons with accelerators. Yes, protons and neutrons within isotopes (neutrons don't even need to be in an isotope) can transform into each other via Beta plus and minus decay without the need of accelerators. Yes, electrons over 1022MeV can spontaneously turn into photons and vice versa, with or without accelerators. Yes scientists can create new particles with accelerators, but they aren't necessarily found in atoms.
What essentially happens is two nuclei of two different (or the same) elements are smashed together; sometimes (although rarely) parts of the nuclei will stick together instead of getting obliterated or shot out. It is through this process that particle accelerators are used to create elements; however, it is worth noting that these elements are unstable due to the nucleus's atomic radius being to large; it will be greater than the range of the residual strong force.
People believe that CERN was able to create black holes because of the work they do with particle accelerators.
Technology has played a significant role in the production of transuranic elements by enabling advanced methods of nuclear synthesis. High-energy particle accelerators have been crucial in bombarding heavy target nuclei with protons or other particles to induce nuclear reactions that create transuranic elements. Additionally, sophisticated detection and measurement techniques, such as mass spectrometry and gamma-ray spectroscopy, have allowed scientists to identify and characterize these elements. Overall, technology has provided the tools necessary for the controlled production and study of transuranic elements.
They accelerate particles using magnets. Once going at speed close to the speed of light, particles smash into each other. Accelerators are used to examine the properties of subatomic particles. There is an accelerator in Chicago called Fermilab, and another, larger on in Europe. See the large hadron collider for more info on current accelerators.
Elements, such a yttrium, have helped to create the lights that are used in televisions
The periodic table is complete for all known elements and has no gaps that could be filled with unknown elements. However the periodic table is inherently open ended, additional radioactive elements can in principle always be added beyond the most massive known element if we create them in particle accelerators (such elements may have also been created in the initial moments of supernova explosions). However all of these new elements are very difficult to create and even more difficult to detect and verify once created as they decay back to known lighter elements almost instantly.
by smashing lighter elements together head-on in an accelerator and hoping you can detect their decay a few picoseconds later and tell it from the general debris of the collision.
Strontium(Sr) and Radium(Ra)
Everything after "Uranium" is human made. However, some elements existed as a result of something such as a collision of particles for only a fraction of a second and technically count, but they aren't accessible.
They had believed that none of the noble gases would form any compounds with other elements.
Physicists and nuclear scientists create atomic bombs.