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v class="wrap-content-read table-responsive">class="wrap-content-read table-responsive">ass="wrap-content-read table-responsive">s="wrap-content-read table-responsive">"wrap-content-read table-responsive">rap-content-read table-responsive">p-content-read table-responsive">ntent-read table-responsive">ent-read table-responsive">t-read table-responsive">ad table-responsive"> table-responsive">-responsive">esponsive">ponsive">lasss="N9785970470572-0005-0001785970470572-0005-00015970470572-0005-000170470572-0005-0001470572-0005-00010572-0005-00010005-000105-0001-0001) are the stable structures, which contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:are the stable structures, which contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:e the stable structures, which contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:stable structures, which contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:able structures, which contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:le structures, which contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ich contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:h contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:contain central atom (usually metal, acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:b>acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:acceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ceptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ptor of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:or of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: of electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:f electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:electronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:tronic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:onic pairs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:airs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:rs), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:), surrounded by ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:y ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ligands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:gands (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ds (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: (neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:neutral molecules or ions, donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:donors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:nors of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:rs of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:b> of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: of electronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:lectronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ctronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ronic pairs). So, each coordination compound contains donor-acceptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:ptor bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:or bonds. Most of the simple complexes form as a result of well known chemical reactions, for example: bonds. Most of the simple complexes form as a result of well known chemical reactions, for example:. Most of the simple complexes form as a result of well known chemical reactions, for example:b>. Most of the simple complexes form as a result of well known chemical reactions, for example:. Most of the simple complexes form as a result of well known chemical reactions, for example:ple complexes form as a result of well known chemical reactions, for example:e complexes form as a result of well known chemical reactions, for example:complexes form as a result of well known chemical reactions, for example:emical reactions, for example:ical reactions, for example:al reactions, for example: reactions, for example:eactions, for example:ctions, for example:ions, for example:, for example:for example:r example:ample:ple:="txtarr; Na₃[Fe(OH)₆].r; Na₃[Fe(OH)₆]. Na₃[Fe(OH)₆].a₃[Fe(OH)₆].sub>3[Fe(OH)₆].b>3[Fe(OH)₆].sub>[Fe(OH)₆].b>[Fe(OH)₆].[Fe(OH)₆]. and biologically important compounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.nd biologically important compounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity. biologically important compounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.gically important compounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.cally important compounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.lly important compounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.pounds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.unds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ds contain cations of metals in their active centers involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.rs involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity. involving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.nvolving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.olving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ving donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ng donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity. donor-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.or-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.-acceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.cceptor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.tor mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.r mechanism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.anism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ism of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.m of covalent bond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ond formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.d formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.formation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.mation. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.tion. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.on. The hemoglobin in your blood, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.od, the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity., the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.the blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.e blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.blue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ue dye in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.e in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.in the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity. the ink in your ballpoint pen and in your blue jeans, chlorophyll, vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity. vitamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.itamin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.amin B₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.₁₂ , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.ub>12 , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.>12 , and s.f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity..f. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.. belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.belong to complexes. The position of these metals in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.als in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.s in the middle of ring structure is responsible for the certain configuration of complex and its reactivity.in the middle of ring structure is responsible for the certain configuration of complex and its reactivity. the middle of ring structure is responsible for the certain configuration of complex and its reactivity.he middle of ring structure is responsible for the certain configuration of complex and its reactivity. middle of ring structure is responsible for the certain configuration of complex and its reactivity.iddle of ring structure is responsible for the certain configuration of complex and its reactivity.e of ring structure is responsible for the certain configuration of complex and its reactivity.of ring structure is responsible for the certain configuration of complex and its reactivity. ring structure is responsible for the certain configuration of complex and its reactivity.g structure is responsible for the certain configuration of complex and its reactivity.structure is responsible for the certain configuration of complex and its reactivity.ure is responsible for the certain configuration of complex and its reactivity.e is responsible for the certain configuration of complex and its reactivity.is responsible for the certain configuration of complex and its reactivity.for the certain configuration of complex and its reactivity.r the certain configuration of complex and its reactivity.the certain configuration of complex and its reactivity. certain configuration of complex and its reactivity.ertain configuration of complex and its reactivity.tain configuration of complex and its reactivity.and its reactivity.d its reactivity.its reactivity.s reactivity.reactivity.activity.ity.y. complexes, let’s use the following example:omplexes, let’s use the following example:plexes, let’s use the following example:, let’s use the following example:let’s use the following example:t’s use the following example: following example:ollowing example:lowing example:₃[Co(NO₂)₆], potassium hexanitrocobaltate (III).ub>3[Co(NO₂)₆], potassium hexanitrocobaltate (III).>3[Co(NO₂)₆], potassium hexanitrocobaltate (III).[Co(NO₂)₆], potassium hexanitrocobaltate (III).b>[Co(NO₂)₆], potassium hexanitrocobaltate (III).[Co(NO₂)₆], potassium hexanitrocobaltate (III).o(NO₂)₆], potassium hexanitrocobaltate (III).₂)₆], potassium hexanitrocobaltate (III).ub>2)₆], potassium hexanitrocobaltate (III).sub>)₆], potassium hexanitrocobaltate (III).b>)₆], potassium hexanitrocobaltate (III).)₆], potassium hexanitrocobaltate (III). potassium hexanitrocobaltate (III).otassium hexanitrocobaltate (III).assium hexanitrocobaltate (III).ium hexanitrocobaltate (III).m hexanitrocobaltate (III).hexanitrocobaltate (III).p>

ligands, NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.ich forms donor-acceptor bonds with ligands, NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.h forms donor-acceptor bonds with ligands, NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.s donor-acceptor bonds with ligands, NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.donor-acceptor bonds with ligands, NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.nor-acceptor bonds with ligands, NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.NO₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.b>₂^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.sub>^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.b>^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.b>^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.>^– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.p>– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.– groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.dash; groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.; groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands./sup> groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands./b> groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.> groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.groups. Cobalt has vacant orbits and acts as an acceptor of electronic pairs from ligands.has vacant orbits and acts as an acceptor of electronic pairs from ligands.s vacant orbits and acts as an acceptor of electronic pairs from ligands.vacant orbits and acts as an acceptor of electronic pairs from ligands.ant orbits and acts as an acceptor of electronic pairs from ligands.t orbits and acts as an acceptor of electronic pairs from ligands.orbits and acts as an acceptor of electronic pairs from ligands. of electronic pairs from ligands.f electronic pairs from ligands.electronic pairs from ligands.ectronic pairs from ligands.tronic pairs from ligands.onic pairs from ligands.pairs from ligands.irs from ligands.s from ligands.>2)₆]^3–, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.)₆]^3–, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.sub>)₆]^3–, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.sub>6]^3–, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.b>6]^3–, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.6]^3–, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.ash;, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.h;, called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere., called coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.ed coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere. coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.> coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.coordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.ordination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.dination sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.nation sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.on sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere. sphere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.phere or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.e or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.or inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere. inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.> inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.inner sphere, includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere./b>includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.>includes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.ncludes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.udes the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.es the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere. the central metal ion plus the attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.e attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.attached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.tached ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.ched ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.ed ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere. ligands. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.nds. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.s. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere. K⁺ ions are attached to [Co(NO₂)₆]^3– due to ionic bonds, and form outer sphere.]^3– due to ionic bonds, and form outer sphere.sup>3– due to ionic bonds, and form outer sphere.p>3– due to ionic bonds, and form outer sphere.ash; due to ionic bonds, and form outer sphere.h; due to ionic bonds, and form outer sphere. due to ionic bonds, and form outer sphere.ic bonds, and form outer sphere. bonds, and form outer sphere.onds, and form outer sphere.m outer sphere.outer sphere.ter sphere.r sphere.sphere.here.re.

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