No, in general
carbocation is formed as an intermediate so rearrangement is possible
According to Dalton's atomic theory, reactions involve the rearrangement of atoms to form new compounds, but atoms themselves are not created or destroyed during a chemical reaction. This theory also states that atoms combine in simple ratios to form compounds.
Isopropylbenzene forms when treating benzene with 1-chloropropane instead of n-propylbenzene because 1-chloropropane undergoes an S N 1 mechanism due to the carbocation intermediate formed. This leads to rearrangement of the carbocation to a more stable secondary carbocation, favoring the formation of isopropylbenzene over n-propylbenzene.
Substitutions at 4' and 6' positions of 3-chloro toluene are not normally possible because carbocations are prone to rearrangement.
Plutonium is easily oxidized: plutonium oxides are PuO2, PuO; intermediate oxides are possible.
carbocation is formed as an intermediate so rearrangement is possible
It is possible by the intermediate of nuclear reactions at high energy - see the preparation of the transfermium artificial chemical elements.
According to Dalton's atomic theory, reactions involve the rearrangement of atoms to form new compounds, but atoms themselves are not created or destroyed during a chemical reaction. This theory also states that atoms combine in simple ratios to form compounds.
According to Dalton's theory, chemical reactions involve the rearrangement of atoms and do not create or destroy atoms. Therefore, the transformation of CCl4 to CH4 would not be possible as it involves the addition of hydrogen atoms and the removal of chlorine atoms, which violates the law of conservation of atoms.
Yes an alkyl halide can undergo both Sn1 and Sn2 reactions - it just depends on what kind of alkyl halide it is. Methyl halides such as CH3Br/CH3Cl/CH3I, etc. are most suitable for Sn2 reactions because they are less sterically hindered by R-groups (they are not "bulky"). This allows for easy attack by the nucleophile. Primary alkyl halides (RCH2X) are also most suitable for Sn2 because of the same reason above Secondary alkyl halides can undergo both Sn1 and Sn2 reactions, this depends on other factors such as solvent and leaving group and nucleophile. If the solvent is polar aprotic, the reaction will go Sn2, if polar protic - Sn1. Tertiary alkyl halides (alkyl halides with 4 r-groups) do not go Sn2 because they are bulky and the R-groups stabilize the carbocation by hyperconjugation and inductive effect.
Isopropylbenzene forms when treating benzene with 1-chloropropane instead of n-propylbenzene because 1-chloropropane undergoes an S N 1 mechanism due to the carbocation intermediate formed. This leads to rearrangement of the carbocation to a more stable secondary carbocation, favoring the formation of isopropylbenzene over n-propylbenzene.
Substitutions at 4' and 6' positions of 3-chloro toluene are not normally possible because carbocations are prone to rearrangement.
This action is probably not possible without intermediate tools, such as a wedge and a hammer.
A possible step in a chemical change process is the breaking of chemical bonds in reactant molecules to form intermediate species. This step is often followed by the rearrangement of atoms to form new bonds and ultimately the creation of one or more products.
yes
It will fly out in a violent fashion causing a mayhem. Seriously.
Plutonium is easily oxidized: plutonium oxides are PuO2, PuO; intermediate oxides are possible.