It depends on how picky you want to be. Yes, having the same number of nucleons they have practically the same Atomic Mass. No, because they don't have exactly the same atomic mass due to differences in the nuclear binding energy (and hence aren't truly "isobars", even though that's what they're called). (NB: this usage of "isobar" is from nuclear chemistry and means "nuclei with the same number of nucleons." It's not the meteorological isobar, which is something quite different and wouldn't make any sense in the context of the question.)
isobars are elements with same mass numbers (Atomic Mass) and different atomic number (number of proton or electron)
As they are isobars, they have the same relative molecular mass.
The concept of isobars in chemistry was discovered by J.J. Thomson in 1913. Isobars refer to atoms of different elements that have the same mass number but different atomic numbers, resulting in different elements with similar mass.
Isotopes and isobars are very different. Isotopes are different atoms of the same element that have varying atomic masses (such as U-237 and U-235; i.e. they differ only in the number of neutrons contained within the nucleus), while isobars are a computed line through a variable region that all have the same value (think about the lines on a meteorological map). The specific line around a low pressure system where the pressure at every point on the line is the same atmospheric pressure is an isobar. Isobars are nuclei of different elements having the same mass number but different atomic number.
Actually, carbon-14 and nitrogen-14 are isotopes. They have the same number of protons but different numbers of neutrons, which results in different atomic masses. Carbon-14 has 6 protons and 8 neutrons, while nitrogen-14 has 7 protons and 7 neutrons.
isobars are elements with same mass numbers (Atomic Mass) and different atomic number (number of proton or electron)
As they are isobars, they have the same relative molecular mass.
Isobars in chemistry refer to different elements or compounds that have the same atomic mass but different chemical properties. An example is carbon-14 and nitrogen-14, both of which have an atomic mass of 14 but distinct chemical properties due to differing atomic structures and reactivity. Another example is isotopes of chlorine such as chlorine-35 and chlorine-37, which have the same mass number but different numbers of neutrons.
The concept of isobars in chemistry was discovered by J.J. Thomson in 1913. Isobars refer to atoms of different elements that have the same mass number but different atomic numbers, resulting in different elements with similar mass.
isotopes of carbon are atomic no. 6 mass 12 , atomic no.6 mass 13 , atomic no. 6 mass 14
Isotopes and isobars are very different. Isotopes are different atoms of the same element that have varying atomic masses (such as U-237 and U-235; i.e. they differ only in the number of neutrons contained within the nucleus), while isobars are a computed line through a variable region that all have the same value (think about the lines on a meteorological map). The specific line around a low pressure system where the pressure at every point on the line is the same atmospheric pressure is an isobar. Isobars are nuclei of different elements having the same mass number but different atomic number.
The highest value for an isobar refers to the maximum mass number (A) of a particular isotope of an element that shares the same atomic mass. In nuclear physics, specific isobars can vary, but for stable isotopes, one of the heaviest is known to be lead-208 (Pb-208), with an atomic mass of approximately 208. This represents the upper limit for stable isobars, although heavier, unstable isotopes exist.
Isobars on a map represent areas on the map of similar atmospheric pressure.
No: They have the same atomic number but not the same atomic mass.
Actually, carbon-14 and nitrogen-14 are isotopes. They have the same number of protons but different numbers of neutrons, which results in different atomic masses. Carbon-14 has 6 protons and 8 neutrons, while nitrogen-14 has 7 protons and 7 neutrons.
Isotopes. The isotope has the same number of protons and electrons as the regular atom, but has more (or sometimes less) neutrons, and therefore its atomic mass is more (or less, depending on whether the neutrons have increased or decreased).
isotopes always have the same? mass # & atomic #, or atomic # and atomic weight, or atomic # but different mass #'s