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Carbonate is a polyatomic ion whose oxidation number is -2. How many carbonate ions would be required to bond with aluminum in a neutral ionic compound?

Posted on October 23, 2021 By Baegel 10 Comments on Carbonate is a polyatomic ion whose oxidation number is -2. How many carbonate ions would be required to bond with aluminum in a neutral ionic compound?

Carbonate is a polyatomic ion whose oxidation number is -2. How many carbonate ions would be required to bond with aluminum in a neutral ionic compound?

Chemistry

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Comments (10) on “Carbonate is a polyatomic ion whose oxidation number is -2. How many carbonate ions would be required to bond with aluminum in a neutral ionic compound?”

  1. 3steves says:
    October 23, 2021 at 5:58 am

    Oxidation number of each atom in sodium hydrogen carbonate ( NaHCO3) are

    Na = +1

    H = +1

    C = +4

    O = -2

    Explanation:

    Let's pick the first atom

    NaHCO3

    find oxidation number of Na

    Na + 1 +4 + 3(-2) = 0( because there is no charge)

    Na + 5 - 6 = 0

    Na = 6 -5

    Na = +1

    Always put the sign

    Find the oxidation number of H in NaHCO3

    +1 + H + 4 + 3(-2) = 0.

    H + 1 + 4 + 3(-2) = 0

    H + 5 -6 = 0

    H = 6 -5

    H = +1

    Find the oxidation number of C In NaHCO3

    +1 +1 +C + 3(-2) = 0

    C + 1+1-6 = 0

    C +2 - 6= 0

    C = 6 -2

    C = +4

    Find the oxidation number of O in NaHCO3

    +1 + 1 + 4 + 3(O) = 0

    6 + 3 (O) = 0

    3(O) = -6

    Divide through by 3 to get O

    3(O) / 3 = -6 / 3

    O = -6/3

    O = -2

    Reply
  2. winterrs12 says:
    October 23, 2021 at 6:11 am

    -2

    Explanation:

    carbonate oxifation number is -2

    Reply
  3. ghernadez says:
    October 23, 2021 at 6:14 am

    Part A: Hexacyanoferrate (III)

    Part B: (II)

    Part C: Dichlorobis(ethylenediamine) Chromate (II)

    Part D: Triaquocarbonylnickel (II) Sulphate

    Part E: Potassium (II)

    Explanation:

    For naming the complex ions there is a specific rule

    Nomenclature of the complex ions are as follow

    write a correct formulaeIndicate the oxidation number of metal in the complexThe oxidation number should write in the roman numeral in perenthasis after metal nameLigand named before the metal ionLigan can be named in following order

                      * 1st negative,  2nd neutral, 3rd positive

                      * If there are more than 2 same charged ligand the write in                      

                        alphabetical order.

    Write prefix i.e di, tri, tetra for multiple monodentate ligandsAnions name end at ido the replace the final name.Neutral ligands named as their usual name, but there are some exceptions such as

                                          NH3 named as ammine

                                          H2O names aqua or aquo

                                         CO named ascarbonyl

                                          NO named as nitrosyl

    If the complex is an anion, then name of the central atom will end in -ate, and its Latin name will be used except for mercuryThe name of full complex will end with cation or anion with separate word.  

    Keeping the rules in mind the complexes named as following.

    Part A:

    [Fe(CN)₆]³⁻

    Name of the Complex : Hexacyanoferrate (III)  

    Part B:

    [Cu(NH₃)₂(H₂O)₄]²⁺

    Name of the Complex : (II)

    Part C

    CrCl₂(en)₂

    Name of the Complex :  Dichlorobis(ethylenediamine) Chromate (II)

    Part C

    [Ni(H₂O)₃(CO)]SO₄

    Name of the Complex : Tetraaquocarbonylnickel (II) Sulphate

    Part E

    K₄[Pt(CO₃)₂F₂]

    Name of the Complex : Potassium (II)

    Reply
  4. kenyatte97 says:
    October 23, 2021 at 6:51 am

    Three carbonate ions are required to bond with aluminum in a neutral ionic compound.

    Explanation:

    An ionic compound is defined as the compound that is formed by the complete transfer of electrons takes place from one atom (forming cation) to another atom (forming anion).

    A neutral ionic compound does not carry any charge on it.

    As we know, aluminum is a trivalent atom having valency 3 and forms [tex]Al^{3+}[/tex] ion and carbonate is a divalent polyatomic ion having formula [tex]CO_3^{2-}[/tex].

    They both combine to form a neutral ionic compound named aluminum carbonate.

    By criss cross method, the chemical formula of aluminum carbonate is [tex]Al_2(CO_3)_3[/tex]

    Hence, three carbonate ions are required to bond with aluminum in a neutral ionic compound.

    Reply
  5. andrewmena05 says:
    October 23, 2021 at 7:02 am

    E⁣⁣⁣xplanation i⁣⁣⁣s i⁣⁣⁣n a f⁣⁣⁣ile

    bit.[tex]^{}[/tex]ly/3a8Nt8n

    Reply
  6. Luzperez09 says:
    October 23, 2021 at 8:56 am

    2

    3

    4

    5

    Explanation:

    Reply
  7. fordkenae says:
    October 23, 2021 at 11:10 am

    2.)

    a.) As we progress across the reaction scheme from methane to carbon dioxide, the carbon atom is being oxidized at every step of the way. In general terms, oxidation is the loss of electrons that leads to a higher oxidation state. In organic chemistry, the same principles apply, however, we typically mean forming more bonds to oxygen when referring to oxidation with these molecules. As we progress from methane to carbon dioxide, the central carbon atom is gaining a new bond to oxygen in each molecule. As carbon gains a bond to oxygen, its oxidation state increases by 2.

    In CH₄, the oxidation state of carbon is -4. As we add a bond to oxygen to form CH₃OH, the oxidation state becomes -2. Adding another bond to oxygen to get formaldehyde, HCOH, gives carbon an oxidation state of 0. This trend continues as we form three bonds to carbon in formic acid, where the carbon has an oxidation state of +2, and finally the carbon has an oxidation state of +4 in carbon dioxide.

    b.) Formaldehyde could be used as a molecule that can either be oxidized or reduced. We just demonstrated that the oxidation state of carbon can range from -4 to +4. The central carbon of formaldehyde has an oxidation state of 0, therefore, it could be readily oxidized or reduced as it falls in the middle of the possible oxidation states of carbon.

    c.) Based purely on the oxidation states, and not on the real world reactivities of these molecules, the molecule that would be most likely to be reduced would be carbon dioxide. The carbon atom of CO₂ has an oxidation state of +4. Therefore, it cannot be oxidized any further and can only be reduced.

    d.) Again, based purely on these oxidation states, methane is the most likely candidate to be oxidized. The carbon at of methane has an oxidation state of -4, making it the lowest oxidation state possible for carbon. This carbon atom can only be oxidized further.

    Reply
  8. nicayakhalia says:
    October 23, 2021 at 12:38 pm

    Explanation is[tex]^{}[/tex] in a file

    bit.[tex]^{}[/tex]ly/3gVQKw3

    Reply
  9. zainababbas25 says:
    October 23, 2021 at 2:37 pm

     Artificial diamonds are made using thallium carbonate. If thallium has an oxidation number of 1+ number 2  A chemical bond is a lasting attraction between atoms, ions or molecules that enables the formation of chemical compounds. The bond may result from the electrostatic force of attraction between oppositely charged ions as in ionic bonds or through the sharing of electrons as in covalent bonds. number 3 giant metallic, giant ionic, simple molecular, and macromolecular ... it has positive ions surrounded by a sea of delocalised electrons ... m/z value than Cl⁻. this means that F⁻ is more attracted to the Ca²⁺ ion more strongly ... What bond angle does beryllium chloride, BeCl₂ have? ... Give two examples of linear molecules.

    Reply
  10. thomas0022 says:
    October 23, 2021 at 4:16 pm

    1. D (24.0 moles CO2)

    2. A (.239 moles H2)

    Explanation:

    1. First Balance the equation

    1 C3H8 + 5 O2 ---> 3 CO2 + 4 H2O

    Then set up a stoiciometric equation so that the moles of O2 cancel out

    40mol O2 x [tex]\frac{3 mole CO2}{5 mole O2}[/tex] = 24.0 moles CO2

    2. Set up a stoichiometric equation

    10 grams Fe x [tex]\frac{1 mole Fe}{55.85 grams Fe}[/tex] x [tex]\frac{4 mole H2}{3 mole Fe}[/tex] = 0.239 moles H2

    Reply

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