SO3(g) + H2O → H2SO4(aq)
To draw a curved arrow, click on the first atom (or lone pair or bond) and drag to the second atom (or lone pair or bond).
Below are the lewis structures for SO3 and H2O. Add curved arrows to show the movement of electron pairs for the above mentioned.

Add curved arrows to both resonance structures of nitromethane to show the delocalization of electron pairs. A curved arrow starts at an electron source (lone pair or bond) and points to an electron sink.
The blue curved line in the diagram to the right represents an electron pushing arrow. Indicate whether the arrowhead should be a single-barbed arrow or a double-barbed arrow and whether the direction of the arrow should be clockwise or counter-clockwise. Both answers are needed for this question to be completely correct. The lone pairs on the heterostoms have been del berately removed from the structures below to avoid giving away the answer. But remember electron flow arrows MUST always originate from...
Question 9 The cyan curved line in the diagram to the right represents an electron-pushing arrow. Indicate whether the arrowhead should be a single-barbed arrow or a double-barbed arrow and whether the direction of the arrow should be clockwise or counter-clockwise. Both answers are needed for this question to be completely correct The lone pairs on the heteroatoms have been deliberately removed from the structures below to avoid giving away the answer. But remember electron flow arrows MUST always originate...
1.2.3.4.5.6.7.8.Show the curved arrow mechanism for the reaction between ethoxide and methanol to give ethanol and the methoxide ion. 1st attempt Jual See Periodic Table See Hint OH-Ö: Add the missing curved arrow notation.The carbon-metal bond in organometallic Grignard reagents exhibits significant covalent character. However, we can treat these compounds as electron-rich carbanions because of the large difference in electronegativity between carbon and magnesium. These reagents are great to form carbon-carbon bonds but must be kept in an anhydrous environment...
Below is the Sn1 reaction between bromocyclohexane and iodide (1). Draw the missing curved arrow notation in the first and second boxes to reflect electron movements. In all boxes, add lone pairs of electrons and nonzero formal charges. 2nd attempt See Periodic Table See Hint Draw in the missing curved arrow notation. Add lone pairs of electrons and nonzero formal charges.
Need help with box 4 & box 5
Was a curved arrow drawn for each of the bonding transformations? Do all curved arrows start at an electron-rich site and point toward an electron-poor site? Did you add nonzero charges and lone pair electrons to all appropriate atoms? Does the overall charge and number of atoms remain consistent from step to step? To bring a box back to its original status, click on the reset button in the top left corner...
Below is the E1 reaction between t-butyl chloride and water (H20). Draw the missing curved arrow notation in the first and second boxes to reflect electron movements. In all boxes, add lone pairs of electrons and nonzero formal charges. 1st attempt hd See Periodic Table Q See Hint CI CI CI Draw the missing curved arrow notation. Add lone pairs of electrons and nonzero formal charges.
Draw a major resonance structure for the following enolate. Use
curved arrows in both structures to show the delocalization of
electron pairs. Include lone pairs of electrons, formal charges,
and hydrogen atoms.
Draw a major resonance structure for the following enolate. Use curved arrows in both structures to show the delocalization of electron pairs. Include lone pairs of electrons, formal charges, and hydrogen atoms.
1. Add curved arrows to both structures
to show the delocalization of electron pairs needed to form the
other resonance contributor.
2a.) Draw the predominant resonance
contributor for the following compound; include lone pairs of
electrons, formal charges, and hydrogen atoms.
b) Add curved arrows to both structures
to show the delocalization of electron pairs.
Add curved arrows to the reactants to show the formation of new
bonds and the breaking of old bonds for the following Diels–Alder
reaction. A double-barbed curved arrow is used to represent the
movement of a pair of electrons. Ignore lone pairs or non-bonding
electrons.