In radical chlorination of alkanes, non-equivalent hydrogens react with chlorine atoms at different rates. At 35°C, primary, secondary, and tertiary C-H bonds react at relative rates of 1 : 3.9 : 5.2 respectively. These are conditions of kinetic control where product ratios are determined by relative rates of formation. For example, if A is formed twice as fast as B, the A:B product ratio will be 2. Consider chlorination of the alkane below at 35 °C. 1. Specify the most reactive C-H bond(s), a-c | Two non-equivalent C-H bonds of comparable reactivity should be separated by commas, i.e. a,c. 2. Specify the site of chlorination in the major monochloro substitution product, a-c. Two products that form in comparable quantities should be separated by commas, i.e. a,c

Draw the product that would form when 2-methylpropene reacts with chlorine. • You do not have to consider stereochemistry. • You do not have to explicitly draw H atoms. • In cases where there is more than one answer, just draw one. ChemDoodle

Draw the structure of the reactant, product(s), and name the product of the following reaction: 1-butene -> initiator-catalyst/heat

Cyclobutane decomposes rapidly at room temperature whereas cyclohexane is quite stable. Why is this the case? Please use rigorous organic chemistry terminology. 

Predict products and draw structural formulas for the reactions below. All reactions must balance, but you do not have to show the structural formulas for the products of combustion reactions.   cis-2-butene+ H2O --(H+)--->

Consider the complete combustion of octane. Calculate the bond energies (in kJ/mol) for the:Combustion of methane CH4(g)+2O2(g)→CO2(g)+2H2O(g)a. bonds brokenb. bonds formedc. overall reaction

Question: In an organic chemistry laboratory, a student is performing a reaction to synthesize a compound. The reaction involves the conversion of an alcohol into an alkene using a dehydration process. The student chooses to use concentrated sulfuric acid (H2SO4) as the catalyst for this reaction. However, during the reaction, the student notices that another product is formed along with the desired alkene. (a) What is the likely identity of the unexpected product formed during the reaction? Explain your answer. (b) Provide a plausible explanation for the formation of the unexpected product and suggest a modification to the reaction conditions that would favor the desired alkene as the major product.

Can someone explain how the arrow ponying to the molecule is 2-bromobutane? When I draw it , it looks like the pencil drawing with the question mark next to it.

For the reaction shown below, 2.00 mL of a 2.00 M solution of bromine, 562 mg of alkene reactant, and excess acetic acid are used to obtain 322 mg of brominated product. What is the percent yield of brominated product?     Bromine MW = 159.81 g/mol; Alkene reactant MW = 134.22 g/mol;Acetic acid MW = 60.05 g/mol; Brominated product MW = 328.04 g/mol

Identify the organic functional group(s) of the reactant, the reaction type, and predict the functional group(s) of the product(s) then draw the major product(s) and upload as one file in the last question.The reactant is:The reaction type is:The product should be: