1. Below are four of the six possible molecular orbitals of benzene. Place them in order...
I need help with these questions: 1. Below are four of the six possible molecular orbitals of benzene. Place them in increasing energy. 3. Place the following free radicals in order of decreasing stability. 8. Predict the major product of the following reaction 11. Which of the following are possible products in the reaction below 12. Ignoring stereochemistry, what are all of the possible major and minor products produced from the free radical bromination of the following alkene 15. true...
Below are the pi molecular orbitals of benzene. Rank them in order of increasing energy based on the number of nodes. Consider that the blue color indicates one phase and the red color indicates the other phase of the orbital. Rank from lowest energy to highest energy. To rank items as equivalent, overlap them.
Below are the pi molecular orbitals of benzene. Rank them in order of increasing energy based on the number of nodes. Consider that the blue color indicates one phase and the red color indicates the other phase of the orbital. Rank from lowest energy to highest energy. To rank items as equivalent, overlap them.
Below are the ? molecular orbitals of benzene. Rank them in order of increasing energy based on the number of nodes. Consider that the blue color indicates one phase and the red color indicates the other phase of the orbital. Rank from lowest energy to highest energy. To rank items as equivalent, overlap them. Attached is picture. Please explain/show work, will give 5 stars to correct answer, thank you very much! :)
Which of the following represents the energy levels of the six pi molecular orbitals of benzene? What is the major organic product obtained from the following reaction? 1 4 2 3 Which of the following features accounts for the downfield shift of the signal in the 1H NMR spectrum for the hydrogen atoms of benzene? The presence of electronegative elements The presence of six identical protons Ring currents which reinforce the applied field The N+1 rule
Question FOUR Consider the six pz orbitals on carbon atoms (the t-system) of the benzene molecule (Deh symmetry). These may be treated as vector arrows pointing vertically above the plane of the six-membered ring. (A) Work out the reducible representation for these six π- orbitals. (B) Reduce these to their irreducible components. (This gives the symmetry for the t-molecular orbitals of benzene.)
Problem #1 Draw the first four e-molecular orbitals for the heptatrienyl cation shown below. Stack them according to energy with respect to the non-bonding line. Indicate the symmetry of each orbital. Show all nodes, and use shading to indicate the phase of the orbitals. Put in the A-electrons and identify the HOMO and LUMO orbitals HC CH Problem #2 Provide full IUPAC names for each of the following molecules: a) b) HO CH3
2. According to molecular orbital theory, how many molecular orbitals of benzene are bonding. antibonding and nonbonding? A. Two bonding, two antibonding and two nonbonding B. Three bonding, two antibonding and one nonbonding C. Three bonding, three antibonding and cro nonbonding D. Two bonding, zero antibonding and four nonbonding E Six bonding, zero antibonding and zero nonbonding 3. Which one of the following is aromatic? A. II B. III C. IV D. I E. None
Place the following orbitals in order of increasing energy in a multielectron atom a) n=2,l=1 b)n=5,l=3 c)n=3,l=2 d)n=4,l=3 Please show me how to do this?
The ordering of the energies of the pi-molecular orbitals of benzene is shown in Fig. 1. Those energies can be approximated by a two-dimensional particle-in-a-box, in which the energy values take a form very similar to those of a one-dimensional box: E_n_x, n_y = n_x^2 + n_y^2) h^2/8mL^2 where n_x and n_y take non-zero integer values. For this model, the first few derived energy levels, indexed by (n_x, n_y) pairs, are diagrammed in Fig. 2. Approximating benzene as a square,...