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Lint: coherent-system-of-units

Citation Preceding Space
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"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:238 · Citations must have a preceding space, e.g. needs evidence <sup>2</sup>. '<sup>2</sup>'

"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:461 · Citations must have a preceding space, e.g. needs evidence <sup>2</sup>. '<sup>2</sup>'

"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:475 · Citations must have a preceding space, e.g. needs evidence <sup>2</sup>. '<sup>2</sup>'

"Coherence can be explained by comparing the curie and the becquerel. The curie, a non-coherent unit, is equal to 3.7 x 1010 decays per second while the becquerel, a coherent unit, is equivalent to one decay per second."

Line 3:139 · Citations must have a preceding space, e.g. needs evidence <sup>2</sup>. '<sup>10</sup>'
Acronyms
warning

"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:10 · 'SI' has no definition. Spell it out if it's unfamiliar to the audience.

"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:145 · 'SI' has no definition. Spell it out if it's unfamiliar to the audience.

"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:264 · 'SI' has no definition. Spell it out if it's unfamiliar to the audience.
Litotes
warning

"In SI units, velocity is a derived unit that is measured in metres per second but does not have a special name. On the other hand the SI unit of energy has the special name "joule". If we consider Albert Einstein's formula E=mc2, then, using SI units, the energy E is in joules, the mass m is in kilograms and the speed of light c is in metres per second, it can be seen that one joule is equivalent to one kg·m2/s2."

Line 2:98 · Consider using 'lack(s)' instead of 'not have'