There are two possible resonance structures. These arise from the central carbon atom having a single covalent bond to one oxygen, and a double covalent bond to the other. The hydrogen-carbon bond is a single, and this doesn't change. The actual structure is a "blend" of the two possibilities, where the C-O bond length is equal; shorter than a single but longer than a double.
When L is doubled and C is halved in a series tuned circuit, the resonance frequency remains unchanged. This is because the resonance frequency of a series tuned circuit is determined by the formula f = 1 / (2π√(LC)), and doubling L and halving C cancels each other out in this formula, resulting in the same resonance frequency.
Yes, Jupiter is in a 2:1 orbital resonance with the planet Saturn. This means that for every two orbits Jupiter completes around the Sun, Saturn completes one orbit. This resonance helps stabilize the orbits of these two massive planets over long periods of time.
No, the natural frequency and resonance frequency of a cantilever beam are not necessarily the same. The natural frequency is the frequency at which a system oscillates without any external forces, while the resonance frequency is the frequency at which a system is most responsive to external forces. In a cantilever beam, the resonance frequency is typically higher than the natural frequency.
Magnetic Resonance Imaging (MRI) uses radio waves, which fall within the radiofrequency portion of the electromagnetic spectrum. Specifically, it operates in the frequency range of about 1-100 MHz.
The nitrate ion, NO3^-, has 3 resonance structures.
Two equivalent Lewis structures are necessary to describe SF4. These structures differ in the arrangement of the lone pair on sulfur, resulting in resonance structures.
The acetate anion has two resonance structures of the same energy; one in which the π bond is on one oxygen, the other where it's on the other oxygen.
There is 1 zinc (Zn) atom in Zn(ClO3)2.
There are two possible resonance structures. These arise from the central carbon atom having a single covalent bond to one oxygen, and a double covalent bond to the other. The hydrogen-carbon bond is a single, and this doesn't change. The actual structure is a "blend" of the two possibilities, where the C-O bond length is equal; shorter than a single but longer than a double.
Three equivalent Lewis structures are needed to describe the bonding in PO(OH)3. This is because the central phosphorus atom can form three different bonds with the three oxygen atoms, resulting in resonance structures.
This compound is not prepared today; the probably formula will be FrClO3. The francium perchlorate is FrClO4.
1,3-butadiene can be represented by two resonance structures, with the pi bonds moving within the molecule. The resonance hybrid of these structures shows delocalization of pi electrons along the carbon chain. This results in the molecule having equal bond lengths and partial double bond character in each bond.
CaCl2 ^actually this answer is wrong. chlorate is ClO3 with a charge of 1- . Calcium has a charge of 2+. Use the criss-cross rule and you get Ca(ClO3)2. Therefor the right answer is Ca(ClO3)2
Na +1 ClO3 -1 NaClO3
There are 11 total atoms in Ca(ClO3)2: 1 calcium (Ca), 2 chlorine (Cl), 6 oxygen (O) from the two ClO3 groups.
That would depend on whether it is iron II chlorate or iron III chlorate. Iron II chlorate is Fe(ClO3)2. Iron III chlorate is Fe(ClO3)3