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H - S - H (please see explanation below)***
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*****The valence electron pairs are suppose to be on top and on bottom of the sulfur, instead of the hydrogen. This follows the octet rule for the sulfur and the duet rule for the hydrogen.
5 electrons where two electrons are paired and three are unpaired
See this question for how to draw the Lewis Dot structure of any molecule:[http://wiki.answers.com/Q/How_do_you_draw_Lewis_dot_structuresHow do you draw Lewis dot structures?]
The electron-dot structure of sodium atom is 'Na-dot' or 'Na.' One dot is one valence electron.
The picture of the lewis dot structure for hydroxide can be found in the link below( look in the RELATED LINKS tab below )qqq
You must use gunboat diplomacy to control the atoms.
The Lewis dot structure for hydrogen bromide (HBr) consists of a single covalent bond between the hydrogen atom and the bromine atom. So, there is one single covalent bond in the Lewis dot structure of HBr.
The Lewis dot structure for ammonium sulfide (NH4)2S shows two ammonium ions (NH4+) bonded to a sulfide ion (S2-). Each ammonium ion has a nitrogen atom in the center with four hydrogen atoms surrounding it, all sharing electrons. The sulfur atom has six valence electrons, forming two additional bonds with the two ammonium ions. The resulting structure reflects the ionic nature of the compound, with the ammonium ions carrying a positive charge and the sulfide ion carrying a negative charge.
There are 16 dots in the Lewis Dot Structure of H2Se. Each hydrogen atom contributes 1 dot and selenium contributes 6 dots.
The letters in a Lewis Dot Structure represent the symbol of the element. Each element is represented by a unique letter, such as H for hydrogen or O for oxygen. These letters help to identify the specific atoms in the structure.
The Lewis dot structure for germanium (Ge) is: Ge: :Ge:
In the Lewis Dot Structure for hydrogen fluoride (HF), there are no double bonds. The structure consists of a single bond between the hydrogen atom and the fluorine atom, with fluorine having three lone pairs of electrons. Thus, HF has only one single bond and no double bonds.
The Lewis dot structure for strontium sulfide (SrS) would show strontium with two dots (representing its two valence electrons) bonded to sulfur, which would have six dots (representing its six valence electrons). The two elements share electrons to form an ionic bond.
The Lewis dot structure for baking soda (NaHCO3) shows sodium (Na) with one dot, hydrogen (H) with one dot, carbon (C) with two dots, and oxygen (O) with six dots. The oxygen atoms are connected to the central carbon atom, with one oxygen also connected to hydrogen and another connected to sodium.
The Lewis dot structure for HOCl shows oxygen with two lone pairs of electrons, chlorine with three lone pairs of electrons, and hydrogen with one lone pair of electrons. The oxygen is double bonded to the chlorine.
The DOT (Department of Transportation) hazard class for hydrogen sulfide (H₂S) is 2.3, which designates it as a toxic gas. In addition, it is classified as a flammable gas under DOT regulations. Hydrogen sulfide poses significant health risks and can be lethal even at low concentrations, making its transportation subject to stringent safety regulations.
The election dot structure for hydrogen sulfide (H₂S) consists of a central sulfur (S) atom bonded to two hydrogen (H) atoms. The sulfur atom has six valence electrons, while each hydrogen atom has one valence electron. In the Lewis structure, the sulfur atom shares one electron with each hydrogen, forming two single bonds, and has two lone pairs of electrons remaining. This gives H₂S a bent molecular shape due to the repulsion between the lone pairs.
In the Lewis dot structure for BH3, there should be 3 bonds drawn. Each hydrogen atom forms a single covalent bond with the boron atom. Boron has three valence electrons, so it can form three bonds with the hydrogen atoms.