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7553-56-2

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7553-56-2 Usage

General Description

Iodine is a chemical element with the symbol I and atomic number 53. It is a blackish-gray, lustrous solid and belongs to the halogen group of the periodic table. Iodine is essential for the production of thyroid hormones, which regulate the body's metabolism. It is commonly used in the production of iodized salt and as a disinfectant for water purification. Iodine is also used in certain medical procedures, such as contrast agents for x-rays and CT scans. Additionally, it is used in the production of certain chemicals, including dyes and pharmaceuticals.

Check Digit Verification of cas no

The CAS Registry Mumber 7553-56-2 includes 7 digits separated into 3 groups by hyphens. The first part of the number,starting from the left, has 4 digits, 7,5,5 and 3 respectively; the second part has 2 digits, 5 and 6 respectively.
Calculate Digit Verification of CAS Registry Number 7553-56:
(6*7)+(5*5)+(4*5)+(3*3)+(2*5)+(1*6)=112
112 % 10 = 2
So 7553-56-2 is a valid CAS Registry Number.
InChI:InChI=1/I2/c1-2

7553-56-2SDS

SAFETY DATA SHEETS

According to Globally Harmonized System of Classification and Labelling of Chemicals (GHS) - Sixth revised edition

Version: 1.0

Creation Date: Aug 16, 2017

Revision Date: Aug 16, 2017

1.Identification

1.1 GHS Product identifier

Product name Iodine

1.2 Other means of identification

Product number -
Other names IODUM

1.3 Recommended use of the chemical and restrictions on use

Identified uses For industry use only. Inorganic substances, Metals/Elements (the simplest forms of matter), Radionuclides (radioactive materials)
Uses advised against no data available

1.4 Supplier's details

1.5 Emergency phone number

Emergency phone number -
Service hours Monday to Friday, 9am-5pm (Standard time zone: UTC/GMT +8 hours).

More Details:7553-56-2 SDS

7553-56-2Synthetic route

sodium iodide
7681-82-5

sodium iodide

iodine
7553-56-2

iodine

Conditions
ConditionsYield
With phosgene In acetone at 20℃; for 0.25h; Reagent/catalyst;100%
With Fe3+-montmorillonite; propionic acid at 25℃; for 6h;
With propionic acid; K 10-montmorillonite; FeCl3; mixture of, dried at 120 degrees C, grounded at 25℃; for 6h;
hydrogen iodide
10034-85-2

hydrogen iodide

A

hydrogen
1333-74-0

hydrogen

B

iodine
7553-56-2

iodine

Conditions
ConditionsYield
Kinetics; Irradiation (UV/VIS); in glass vessel or uviol vessel, wavelenght higher than 2540Å;;A 100%
B 100%
Kinetics; Irradiation (UV/VIS); at room temperature, in quartz vessel; equilibrium; wavelenght lower than 2540Å;;A 92.3%
B 92.3%
995 °C; part of a Mg-S-I water splitting cycle;A 31%
B 31%
niobocene dichloride
12793-14-5

niobocene dichloride

triiodo hexafluoroarsenate
59555-19-0

triiodo hexafluoroarsenate

A

(η5-C5H5)2niobium(V)(Cl2) hexafluoroarsenate

(η5-C5H5)2niobium(V)(Cl2) hexafluoroarsenate

B

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In liquid sulphur dioxide under Ar; recrystn. (SO2), elem. anal.;A 99%
B n/a
molybdenum(VI) oxide

molybdenum(VI) oxide

magnesium iodide

magnesium iodide

A

magnesium oxide * molybdenum dioxide

magnesium oxide * molybdenum dioxide

B

iodine
7553-56-2

iodine

C

magnesium oxide

magnesium oxide

Conditions
ConditionsYield
In neat (no solvent, solid phase) vac.; equimolar ratio, heating (200°C 20 d, 800°C 30 d); XRD;A n/a
B 98.5%
C n/a
bis(pyridine)iodine(I) tetrachloroplatinate(II)

bis(pyridine)iodine(I) tetrachloroplatinate(II)

A

{Pt(pyridinium)2Cl4}

{Pt(pyridinium)2Cl4}

B

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In neat (no solvent, solid phase) byproducts: pyridine; heated at 130°C; washed with acetone-water (5:1), dried in vac.; elem. anal.;A 94%
B 96.5%
dimethoxy disulfide
28752-21-8

dimethoxy disulfide

A

iodine
7553-56-2

iodine

B

sulfur
7704-34-9

sulfur

Conditions
ConditionsYield
With hydrogenchloride byproducts: H2O, H2S, SO2; in presence of KI;A 90%
B n/a
With HCl byproducts: H2O, H2S, SO2; in presence of KI;A 90%
B n/a
bis(pyridine)iodine(I) tetrabromoplatinate(II)

bis(pyridine)iodine(I) tetrabromoplatinate(II)

B

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In neat (no solvent, solid phase) byproducts: pyridine; heated at 120°C; washed with acetone-water (5:1), dried in vac.; elem. anal.;A 85%
B 72.7%
iodide
14362-44-8

iodide

iodine
7553-56-2

iodine

Conditions
ConditionsYield
With ammonium peroxosulfate; iron(III) In hydrogenchloride byproducts: SO4(2-); Irradiation (UV/VIS); at 22°C with UV irradiation for 15 min; subsequent stirring in daylight for 20 min; mechanism discussed;;80.2%
With ammonium peroxosulfate; iron(III) In hydrogenchloride byproducts: SO4(2-); at 22°C in daylight for 35 min;;73.9%
With ammonium peroxosulfate; iron(III) In hydrogenchloride byproducts: SO4(2-); at 22°C in the dark for 15 min; subsequent stirring in daylight for 20 min;;69.6%
bismuth (III) nitrate pentahydrate

bismuth (III) nitrate pentahydrate

iodic acid
7782-68-5

iodic acid

A

2Bi(3+)*IO4(3-)*3IO3(1-)=Bi2(IO4)(IO3)3

2Bi(3+)*IO4(3-)*3IO3(1-)=Bi2(IO4)(IO3)3

B

iodine
7553-56-2

iodine

Conditions
ConditionsYield
With HNO3 or I2O5 or H5IO6 In water High Pressure; mixt. of Bi compd., HIO3, HNO3 (or I2O5 or H5IO6) and H2O was sealed in autoclave; heated to 215°C; held for 5 d; cooled at rate 10°C/h to room temp.; decanted; washed (EtOH, H2O); air-dried;A 75%
B n/a
C8H7ClN4O

C8H7ClN4O

but-3-en-1-amine hydrochloride
17875-18-2

but-3-en-1-amine hydrochloride

iodine
7553-56-2

iodine

Conditions
ConditionsYield
With triethylamine In ethanol for 4h;74%
iodine pentoxide
12029-98-0

iodine pentoxide

potassium chloride

potassium chloride

uranium(VI) trioxide

uranium(VI) trioxide

A

K2((UO2)3(IO3)4O2)

K2((UO2)3(IO3)4O2)

B

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In water High Pressure; UO2, I2O5, KCl, and water were heated in autoclave at 10°C/min to425°C, after 72 h autoclave was cooled over 24 h to 23°C; washed with MeOH and dried;A 73%
B n/a
N,N,N',N'-tetraethylthioamine
3768-61-4

N,N,N',N'-tetraethylthioamine

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In not given in acidic soln.;70%
In not given in acidic soln.;70%
N-trifluoroacetic-3-nitroaniline
25080-83-5

N-trifluoroacetic-3-nitroaniline

methyl iodide
74-88-4

methyl iodide

iodine
7553-56-2

iodine

Conditions
ConditionsYield
Stage #1: N-trifluoroacetic-3-nitroaniline With sodium hydride In tetrahydrofuran at 0℃; for 1h;
Stage #2: methyl iodide In tetrahydrofuran at 20℃;
66%
iodine pentoxide
12029-98-0

iodine pentoxide

water
7732-18-5

water

uranium(VI) trioxide

uranium(VI) trioxide

barium(II) chloride

barium(II) chloride

A

uranyl iodate monohydrate

uranyl iodate monohydrate

B

Ba((UO2)2(IO3)2O2)*H2O

Ba((UO2)2(IO3)2O2)*H2O

C

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In water High Pressure; UO2, I2O5, KCl, and water were heated in autoclave to 180°C, after 72 h autoclave was cooled at 9°C/h to 23°C; washed with MeOH and dried;A n/a
B 60%
C n/a
1,2-Diiodobenzene
615-42-9

1,2-Diiodobenzene

boron triiodide
13517-10-7

boron triiodide

A

iodine
7553-56-2

iodine

B

5,10-diiodo-5,10-dihydroboranthrene
24633-37-2

5,10-diiodo-5,10-dihydroboranthrene

Conditions
ConditionsYield
stirring mixt. of educts at 180°C for 5 h; I2 removed by sublimation at 60°C/0.1 Torr, sublimation of products;A n/a
B 56%
cyanogen iodide
506-78-5

cyanogen iodide

tertamethylammonium iodide
75-58-1

tertamethylammonium iodide

iodine
7553-56-2

iodine

Conditions
ConditionsYield
In neat (no solvent) at room temp.;38%
silver(I) iodide

silver(I) iodide

iodine
7553-56-2

iodine

Conditions
ConditionsYield
in presence of O3 at room temp.;2.8%
in presence of O3 at room temp.;2.8%
With manganese(IV) oxide at 370°C;
potassium iodate
7758-05-6

potassium iodate

A

iodine
7553-56-2

iodine

B

potassium iodide
7681-11-0

potassium iodide

Conditions
ConditionsYield
potassium polymanganite(IV) In solid byproducts: O2; mixt. of KIO3 and potassium polymanganate heated (400-600°C, 2h, air); X-ray diffraction;A 1%
B n/a
2-(iodomethyl)isoindoline-1,3-dione
203255-55-4

2-(iodomethyl)isoindoline-1,3-dione

iodine
7553-56-2

iodine

Conditions
ConditionsYield
Zerstzung bei Raumtemperatur;
2,4-dichloro-6-diiodomethyl-[1,3,5]triazine
30894-70-3

2,4-dichloro-6-diiodomethyl-[1,3,5]triazine

iodine
7553-56-2

iodine

Conditions
ConditionsYield
at 25℃;
8-iodo-3,7-dihydro-purine-2,6-dione
64761-27-9

8-iodo-3,7-dihydro-purine-2,6-dione

iodine
7553-56-2

iodine

Conditions
ConditionsYield
at 200℃; Abspaltung;
5,7-Diiodoisatin
34058-26-9

5,7-Diiodoisatin

sulfuric acid
7664-93-9

sulfuric acid

iodine
7553-56-2

iodine

Conditions
ConditionsYield
at 130℃; Zersetzung;
sulfuric acid
7664-93-9

sulfuric acid

2-iodo-1-(4-naphtho[1,2-d][1,2,3]triazol-2-yl-phenyl)-ethanone

2-iodo-1-(4-naphtho[1,2-d][1,2,3]triazol-2-yl-phenyl)-ethanone

iodine
7553-56-2

iodine

1-bromopyrrolidin-2-one
2401-40-3

1-bromopyrrolidin-2-one

hydrogen iodide
10034-85-2

hydrogen iodide

iodine
7553-56-2

iodine

(1R)-3-bromo-1,8,8-trimethyl-3-aza-bicyclo[3.2.1]octane-2,4-dione
128475-96-7

(1R)-3-bromo-1,8,8-trimethyl-3-aza-bicyclo[3.2.1]octane-2,4-dione

hydrogen iodide
10034-85-2

hydrogen iodide

iodine
7553-56-2

iodine

(1R)-3-iodo-1,8,8-trimethyl-3-aza-bicyclo[3.2.1]octane-2,4-dione

(1R)-3-iodo-1,8,8-trimethyl-3-aza-bicyclo[3.2.1]octane-2,4-dione

hydrogen iodide
10034-85-2

hydrogen iodide

iodine
7553-56-2

iodine

3-imino-2-phenyl-3H-indole
6339-33-9

3-imino-2-phenyl-3H-indole

water
7732-18-5

water

hydrogen iodide
10034-85-2

hydrogen iodide

iodine
7553-56-2

iodine

2,3,4,5-tetraiodo-1H-pyrrole
87-58-1

2,3,4,5-tetraiodo-1H-pyrrole

acetic anhydride
108-24-7

acetic anhydride

iodine
7553-56-2

iodine

sulfuric acid
7664-93-9

sulfuric acid

(3S)-cis-3,6-bis-(2,5-diiodo-1(3)H-imidazol-4-ylmethyl)-piperazine-2,5-dione

(3S)-cis-3,6-bis-(2,5-diiodo-1(3)H-imidazol-4-ylmethyl)-piperazine-2,5-dione

iodine
7553-56-2

iodine

Conditions
ConditionsYield
at 150℃;
sulfur dioxide
7446-09-5

sulfur dioxide

water
7732-18-5

water

iodine
7553-56-2

iodine

A

sulfuric acid
7664-93-9

sulfuric acid

B

hydrogen iodide
10034-85-2

hydrogen iodide

Conditions
ConditionsYield
0 - 25 °C; part of a Mg-S-I water splitting cycle;A 100%
B 100%
bromine
7726-95-6

bromine

iodine
7553-56-2

iodine

cadmium(II) sulphide

cadmium(II) sulphide

cadmium(II) iodide

cadmium(II) iodide

Conditions
ConditionsYield
In gas100%
In solid100%
In further solvent(s) with I2 dissolved in organic solvents;100%
bismuth
7440-69-9

bismuth

iodine
7553-56-2

iodine

bismuth(III) iodide
7787-64-6

bismuth(III) iodide

Conditions
ConditionsYield
In melt passing a stream of I2/inert gas into molten Bi with formation of volatile BiI3; description of the aparatus given;;100%
In melt passing a stream of I2/inert gas into molten Bi with formation of volatile BiI3; description of the aparatus given;;100%
In melt passing a stream of I2/inert gas into molten Bi with formation of volatile BiI3; description of the aparatus given;;100%
thallium

thallium

iodine
7553-56-2

iodine

thallium(I) iodide

thallium(I) iodide

Conditions
ConditionsYield
In neat (no solvent) in vac., for 0% excess Tl at 540°C, for 1% excess Tl at 500, 540°C, for 2, 5, 10, 20% excess Tl at 450, 500, 540°C; sublimed, elem. anal., IR, XRD;100%
In neat (no solvent) in vac., for 20% excess Tl at 400°C; sublimed, elem. anal., IR, XRD;99.1%
In neat (no solvent) in vac., for 0% excess Tl at 500°C; sublimed, elem. anal., IR, XRD;98.9%
lithium borohydride

lithium borohydride

iodine
7553-56-2

iodine

diborane
14452-61-0

diborane

Conditions
ConditionsYield
Kinetics; byproducts: H2, LiI; Interaction of initial cryst. materials in molar ratio LiBH4:I2 = 1.50 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;100%
byproducts: H2, LiI; Interaction of initial cryst. materials in molar ratio LiBH4:I2 = 1.35 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;99.5%
Kinetics; byproducts: H2, LiI; Interaction of initial cryst. materials in molar ratio LiBH4:I2 = 2.0 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;99.8%
Kinetics; byproducts: H2, LiI; Interaction of initial cryst. materials in molar ratio LiBH4:I2 = 2.5 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;95.4%
byproducts: H2, HI; Grinding of initial materials (molar ratio = 1) while being cooled withliq. N2, thorough mixing, transferring of mixt. to a thermographic ampoule and heating in vac. or N2.; Sepn. of gas mixt. by fractional condensation. Detn. of composition after the thermography by gas volumetric anal.;
sodium tetrahydroborate
16940-66-2

sodium tetrahydroborate

iodine
7553-56-2

iodine

diborane
14452-61-0

diborane

Conditions
ConditionsYield
byproducts: H2, NaI; Interaction of initial cryst. materials in molar ratio NaBH4:I2 = 1.35 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;100%
byproducts: H2, NaI; Interaction of initial cryst. materials in molar ratio NaBH4:I2 = 1.5 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;97.7%
Kinetics; byproducts: H2, NaI; Interaction of initial cryst. materials in molar ratio NaBH4:I2 = 2.5 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;94%
Kinetics; byproducts: H2, NaI; Interaction of initial cryst. materials in molar ratio NaBH4:I2 = 2.0 under mechanical activation with a vibration ball mill (dry N2, atm. pressure, 25°C).; Detn. of gas phase formed by infrared and mass spectroscopy, and gas volumetric anal.;88.7%
byproducts: H2, HI; Grinding of initial materials (molar ratio = 1) while being cooled withliq. N2, thorough mixing, transferring of mixt. to a thermographic ampoule and heating in vac. or N2.; Sepn. of gas mixt. by fractional condensation. Detn. of composition after the thermography by gas volumetric anal.;
tellurium

tellurium

iodine
7553-56-2

iodine

tungsten(VI) chloride
13283-01-7

tungsten(VI) chloride

1,4-diiodo-cyclo-hexatellurium(2+) bis(hexachlorotungstate(-))

1,4-diiodo-cyclo-hexatellurium(2+) bis(hexachlorotungstate(-))

Conditions
ConditionsYield
In neat (no solvent) Ar atmosphere, sealed ampoule, formation of black melt at 300°C, tube furnace (150°C), crystn. (3 months);100%
cis-I(CO)2(CH3NC)2W.tplbond.CNEt2

cis-I(CO)2(CH3NC)2W.tplbond.CNEt2

iodine
7553-56-2

iodine

(I)3(CO)(CH3NC)2W.tplbond.CNEt2

(I)3(CO)(CH3NC)2W.tplbond.CNEt2

Conditions
ConditionsYield
In dichloromethane first at -30°c, than at room temp. for 10min stirring, reducing of the soln., adding Et2O/pentane; drying at 25°C (vacuo), elem. anal.;100%
cis-{(PhCH2)2Co(III)(2,2'-bipyridine)2}ClO4

cis-{(PhCH2)2Co(III)(2,2'-bipyridine)2}ClO4

iodine
7553-56-2

iodine

cis-benzyl iodo bis(2,2'-bipyridyl) cobalt(III) perchlorate

cis-benzyl iodo bis(2,2'-bipyridyl) cobalt(III) perchlorate

B

iodomethylbenzene
620-05-3

iodomethylbenzene

Conditions
ConditionsYield
In tetrachloromethane Kinetics; Irradiation (UV/VIS); Kinetics of the reaction of Co(H2CC6H5)2(bipy)2ClO4 with I2 under irradiation with light at 517 nm is investigated.; PhCh2I and Co(H2CC6H5)I(bipy)2ClO4 are the main products.;A n/a
B 100%
trans-(CH3)2Co(11-hydroxy-2,3,9,10-tetramethyl-1,4,8,11-tetraazaundeca-1,3,8,10-tetraen-1-olate)

trans-(CH3)2Co(11-hydroxy-2,3,9,10-tetramethyl-1,4,8,11-tetraazaundeca-1,3,8,10-tetraen-1-olate)

iodine
7553-56-2

iodine

A

methane
34557-54-5

methane

B

ethane
74-84-0

ethane

C

methyl iodide
74-88-4

methyl iodide

Conditions
ConditionsYield
In tetrachloromethane Irradiation (UV/VIS); Irradiation at 509 nm in CCl4; Estimation of the quantum yield of the photochemical reaction. Yield of the products estimated by g.l.c.;A 0.02%
B <1
C 100%
trans-(CH3)2Co(11-hydroxy-2,3,9,10-tetramethyl-1,4,8,11-tetraazaundeca-1,3,8,10-tetraen-1-olate)

trans-(CH3)2Co(11-hydroxy-2,3,9,10-tetramethyl-1,4,8,11-tetraazaundeca-1,3,8,10-tetraen-1-olate)

iodine
7553-56-2

iodine

trans-methyl iodo cobalt (III) 3,9-dimethyl-4,8-diazaundecane-3,8-diene-2,10-dione dioximate

trans-methyl iodo cobalt (III) 3,9-dimethyl-4,8-diazaundecane-3,8-diene-2,10-dione dioximate

B

methyl iodide
74-88-4

methyl iodide

Conditions
ConditionsYield
In tetrachloromethane Kinetics; byproducts: C2H6, CH4; Irradiation (UV/VIS); Kinetics of the reaction of Co(CH3)2(H3CCNOHC(CH3)NC3H6NC(CH3)CNOCH3) with I2 under irradiation with light at 517 nm is investigated.; MeI and Co(CH3)I(H3CCNOHC(CH3)NC3H6NC(CH3)CNOCH3) are the main products, C2H6 and CH4 are byproducts.;A n/a
B 100%
CoMe(pyridine)(dimethylglyoxime(-1H))2
23642-14-0

CoMe(pyridine)(dimethylglyoxime(-1H))2

iodine
7553-56-2

iodine

A

iodobisdimethylglyoximepyridine cobalt(III)

iodobisdimethylglyoximepyridine cobalt(III)

B

methyl iodide
74-88-4

methyl iodide

Conditions
ConditionsYield
In tetrachloromethane Kinetics; Irradiation (UV/VIS); Kinetics of the reaction of Co(CH3)(H3CCNOHONCCH3)2(C5H5N) with I2 under irradiation with light at 517 nm is investigated.; MeI and CoI(H3CCNOHONCCH3)2(C5H5N) are the products.;A n/a
B 100%
[CoEt(dimethylglyoximate(1-))2(pyridine)]

[CoEt(dimethylglyoximate(1-))2(pyridine)]

iodine
7553-56-2

iodine

A

iodobisdimethylglyoximepyridine cobalt(III)

iodobisdimethylglyoximepyridine cobalt(III)

B

ethyl iodide
75-03-6

ethyl iodide

Conditions
ConditionsYield
In tetrachloromethane Kinetics; Irradiation (UV/VIS); Kinetics of the reaction of Co(C2H5)(H3CCNOHONCCH3)2(C5H5N) with I2 under irradiation with light at 517 nm is investigated.; MeI and CoI(H3CCNOHONCCH3)2(C5H5N) are the products.;A n/a
B 100%
(η4-2,5-bis(trimethylsilyl)-3,4-cyclopentacyclopentadienone)(η5-cyclopentadienyl)cobalt

(η4-2,5-bis(trimethylsilyl)-3,4-cyclopentacyclopentadienone)(η5-cyclopentadienyl)cobalt

iodine
7553-56-2

iodine

(η4-2-iodo-5-trimethylsilyl-3,4-cyclopentacyclopentadienone)(η5-cyclopentadienyl)cobalt

(η4-2-iodo-5-trimethylsilyl-3,4-cyclopentacyclopentadienone)(η5-cyclopentadienyl)cobalt

Conditions
ConditionsYield
With sodium thiosulfate In acetone addn. of iodine to a soln. of Co-compd., stirring at room temp. for 1 h, change of colour from brown-red to red on addn. of aq. Na2S2O3; extg. the aq. layer with CH2Cl2, drying over Na2SO4, filtration, evapn., chromy. (Al2O3, ethyl acetate), elem. anal.;100%
Pt2I2(CO)2(P-tert.-Bu2Ph2)2
118714-49-1

Pt2I2(CO)2(P-tert.-Bu2Ph2)2

iodine
7553-56-2

iodine

PtPtI2(CO)(P-t-Bu2Ph)
19618-88-3

PtPtI2(CO)(P-t-Bu2Ph)

Conditions
ConditionsYield
In not given react. (N2, CO or Ar); elem. anal.;100%
iodine
7553-56-2

iodine

triethylantimony
617-85-6

triethylantimony

triethylstibine di-iodide
25088-65-7, 58116-52-2

triethylstibine di-iodide

Conditions
ConditionsYield
In dichloromethane elem. anal.;100%
selenium
7782-49-2

selenium

arsenic pentafluoride
7784-36-3

arsenic pentafluoride

fluorosulfonylchloride
13637-84-8

fluorosulfonylchloride

sulfur dioxide
7446-09-5

sulfur dioxide

iodine
7553-56-2

iodine

(diselenium tetraiodine)(AsF6)2*SO2

(diselenium tetraiodine)(AsF6)2*SO2

Conditions
ConditionsYield
byproducts: AsF3; SO2 and AsF5 were condensed into Se and I2; after 16 h no insoluble material was observed; condensed SO2ClF into the soln.; react. time 3 h; slowly (ca.20 h) condension; cooling; crystn.; washing; removed volatile materials by evacuation; subjected to vac. for <0.2 h; elem. anal.;100%
byproducts: AsF3; SO2 and AsF5 were condensed onto Se and I2; after 16 h no insoluble material was observed; condensation of SO2ClF onto the soln.; react. time 7 h; slowly (ca.20 h) condensation of solvent; cooling; crystn.; washing; removal of volatile material by evacuation; elem. anal.;104 %
selenium
7782-49-2

selenium

arsenic pentafluoride
7784-36-3

arsenic pentafluoride

sulfur dioxide
7446-09-5

sulfur dioxide

iodine
7553-56-2

iodine

(diselenium tetraiodine)-(AsF6)2

(diselenium tetraiodine)-(AsF6)2

Conditions
ConditionsYield
AsF5 was condensed onto a mixture of Se and I2 in liq. SO2; react. time 4 h; slowly (ca.20 h) condensation of solvent; crystn.; after 16 h removal of volatile material by evacuation; elem. anal.; X-ray diffraction;100%
AsF5 was condensed onto a mixture of Se and I2 in liq. SO2; react. time 6 h; slowly (ca.20 h) condensation; crystn.; after 16 h removal of volatile materials by evacuation; elem. anal.; X-ray diffraction;106 %
anti-2-norbornene-7-yl-trimethyl tin
38573-93-2, 34208-81-6

anti-2-norbornene-7-yl-trimethyl tin

iodine
7553-56-2

iodine

trimethylstannyl iodide
811-73-4

trimethylstannyl iodide

Conditions
ConditionsYield
In methanol100%
In methanol100%
In dimethyl sulfoxide88%
iodine
7553-56-2

iodine

methyl 3-(tri-n-butylstannyl)propionate
19464-44-9

methyl 3-(tri-n-butylstannyl)propionate

β-Methoxycarbonyl-ethyldi-n-butyl-iodstannan

β-Methoxycarbonyl-ethyldi-n-butyl-iodstannan

Conditions
ConditionsYield
In tetrachloromethane byproducts: CH3(CH2)3I;100%
benzimidazolin-2-ylidene(chloro)gold
136835-13-7

benzimidazolin-2-ylidene(chloro)gold

iodine
7553-56-2

iodine

(benzimidazolin-2-ylidene)triiodogold

(benzimidazolin-2-ylidene)triiodogold

Conditions
ConditionsYield
In dichloromethane protective gas: argon; stirring mixture (20 h/room temp.);; pptn.; filtration; washing (CH2Cl2); drying; elem. anal.;;100%
((C6H5)2PC5H4)Mo(CO)3Mn(CO)5
165751-19-9

((C6H5)2PC5H4)Mo(CO)3Mn(CO)5

iodine
7553-56-2

iodine

[(η5-C5H4PPh2)Mo(CO)3I]

[(η5-C5H4PPh2)Mo(CO)3I]

Conditions
ConditionsYield
In not given100%
{Ru(C5H3(OH)(P(C6H5)3))(C5H5)}(1+)*PF6(1-)={Ru(C5H3(OH)(P(C6H5)3))(C5H5)}PF6

{Ru(C5H3(OH)(P(C6H5)3))(C5H5)}(1+)*PF6(1-)={Ru(C5H3(OH)(P(C6H5)3))(C5H5)}PF6

iodine
7553-56-2

iodine

{Ru(C5H5)(C5H3OP(C6H5)3)I}(1+)*PF6(1-)={Ru(C5H5)(C5H3OP(C6H5)3)I}(PF6)

{Ru(C5H5)(C5H3OP(C6H5)3)I}(1+)*PF6(1-)={Ru(C5H5)(C5H3OP(C6H5)3)I}(PF6)

Conditions
ConditionsYield
In nitromethane-d3 not isolated, monitored by NMR;100%
iodine
7553-56-2

iodine

bis[2,4,6-tris[bis(trimethylsilyl)methyl]phenyl]distilbene
201533-93-9

bis[2,4,6-tris[bis(trimethylsilyl)methyl]phenyl]distilbene

[((Si(CH3)3)2CH)3C6H2]SbI2
201533-95-1

[((Si(CH3)3)2CH)3C6H2]SbI2

Conditions
ConditionsYield
In tetrachloromethane room temp.;100%
μ-carbido-bis(phthalocyaninato(2-)iron(IV))

μ-carbido-bis(phthalocyaninato(2-)iron(IV))

iodine
7553-56-2

iodine

0.34[(C32H16N8)Fe]2C*0.66[(C32H16N8)Fe]2C(1+)*0.66I3(1-)=([(C32H16N8)Fe]2C)(I3)066

0.34[(C32H16N8)Fe]2C*0.66[(C32H16N8)Fe]2C(1+)*0.66I3(1-)=([(C32H16N8)Fe]2C)(I3)066

Conditions
ConditionsYield
In further solvent(s) excess of I2, stirring in chloronaphthalene (60-70°C, 1 h); cooling, collection (filtration), washing (EtOH), drying (vac.); elem. anal.;100%
tetra(supersilyl)dialane
192053-32-0

tetra(supersilyl)dialane

iodine
7553-56-2

iodine

disupersilyl aluminum iodide
217202-48-7

disupersilyl aluminum iodide

Conditions
ConditionsYield
In pentane Ar-atmosphere; stirring (40°C, 3 h); detd. by NMR spectroscopy;100%
In pentane all manipulations with exclusion of air and moisture; soln. of compds. heated at 40°C for 3 h; controlled by NMR; volatiles evapd. by oil pump; elem. anal.;
phenyl bis(trifluoroacetate)

phenyl bis(trifluoroacetate)

iodine
7553-56-2

iodine

A

iodobenzene
591-50-4

iodobenzene

B

Tl(1+)*Tl(3+)*4CF3COO(1-)=Tl2(CF3COO)4

Tl(1+)*Tl(3+)*4CF3COO(1-)=Tl2(CF3COO)4

Conditions
ConditionsYield
In acetonitrile soln. of iodine addn. to soln. of Tl-compd., mixing, standing (dark, 220h, room temperature), evacuation (under Ar, room temperature, then wate r bath, distillation of I-compd.), product remaining in solid residue;A 99%
B 100%
tellurium

tellurium

iodine
7553-56-2

iodine

aluminium(III) iodide
7784-23-8

aluminium(III) iodide

TeI3(1+)*AlI4(1-)=TeI3[AlI4]
165602-57-3

TeI3(1+)*AlI4(1-)=TeI3[AlI4]

Conditions
ConditionsYield
In neat (no solvent) Ar atm.; molar ratio Te:I2:AlI3 1:2:1, heating (150-200°C, several hours);100%

7553-56-2Relevant articles and documents

Multiple oscillations observed in the rotational state population of I2(B) formed in the photodissociation of (I2)2

Philippoz, J.-M.,Monot, R.,Bergh, H. van den

, p. 288 - 291 (1990)

Several oscillations are observed in the rotational state population of I2B 3Π(Ou+) produced in the photodissociation (I2)2 + hν -> I2(Bυ',J') + I2(X).The initial excitation is above the dissociation limit of th

Variable dimensionality in 'hollow' hybrid tin iodide perovskites

Lightfoot, Philip,McNulty, Jason A.,Slawin, Alexandra M. Z.

, p. 15171 - 15174 (2020)

Two 'hollow' B-site deficient perovskites, (TzH)11(H3PO2)Sn6I23 and (TzH)3Sn2I7 (TzH+ = 1,2,4-triazolium, H3PO2 = hypohosphorous acid), have been prepared. (TzH)11(H3PO2)Sn6I23 is the first example of a 2D layered structure of this type. Leaving the same reaction mixture for an extended time also affords the 3D derivative (TzH)3Sn2I7.

Formation of molecular iodine from the two-photon dissociation of CI4 and CHI3: An experimental and computational study

Tweeten, Eric D.,Petro, Benjamin J.,Quandt, Robert W.

, p. 19 - 24 (2003)

The formation of electronically excited molecular iodine from the two-photon photodissociation of CI4 and CHI3 was investigated using dispersed fluorescence and ab initio calculations. Molecular iodine was formed in the D, D', and E

Cluster-induced photochemistry of CH3I at 248 nm

Fan, Y. B.,Donaldson, D. J.

, p. 189 - 196 (1992)

We have carried out a systematic study of the 248 nm excimer-laser photodissociation of small methyl iodide clusters in a free jet expansion.Ground electronic state I2 is formed from the photolysis of methyliodide dimers and detected via the laser induced fluorescence (LIF) excitation spectrum of the (B-X) transition.The internal energy of the I2 is approximately 2.5 kJ/mol and is the same for CH3I seeded in CO2, Ar, Xe, O2, and He, as well as for the neat expansion and deuterated sample.A room temperature flow cell experiment shows that the reaction channel I* + CH3I -> I2 + CH3I does not contribute to the measured I2 signal.The results strongly imply that a cluster-induced cooperative effect is responsible for the I2-producing chemistry.

Raffo, M.,Rossi, G.

, p. 278 - 280 (1912)

Vapor pressure over KI-CoI2 melts

Kritskaya,Burylev,Moisov,Kostenko

, p. 202 - 206 (2004)

The vapor pressure in the KI-CoI2 system is determined by isobaric boiling point measurements. Calculated vapor pressure isotherms of the KI-CoI2 system show negative deviations from linearity. The vapor composition over pure CoIsub

Chemical generation of atomic iodine for the chemical oxygen-iodine laser. II. Experimental results

?palek, Otomar,Jirásek, Vít,Kodymová, Jarmila,Jakubec, Ivo,Hager, Gordon D.

, p. 147 - 157 (2002)

A new method for the chemical generation of atomic iodine intended for use in a chemical oxygen-iodine laser (COIL) was investigated experimentally. The method is based on the fast reaction of hydrogen iodide with chemically produced chlorine atoms. Effects of the initial ratio of reactants and their mixing in a flow of nitrogen were investigated experimentally and interpreted by means of a computational model for the reaction system. The yield of iodine atoms in the nitrogen flow reached 70-100% under optimum experimental conditions. Gain was observed in preliminary experiments on the chemical generation of atomic iodine in a flow of singlet oxygen.

-

Williams,Woods

, p. 1408 (1937)

-

On the chemical and electrochemical one-electron reduction of peroxynitrous acid

Kurz, Christophe,Zeng, Xiuqiong,Hannemann, Stefan,Kissner, Reinhard,Koppenol, Willem H.

, p. 965 - 969 (2005)

Peroxynitrous acid was reduced by cathodic linear sweep voltammetry at a gold electrode and by iodide at pH 3.2 and 5.6. The cathodic reduction wave was identified by measuring its decay in time, which was the same as observed by optical spectroscopy. The iodide oxidation was followed by optical measurement of the triiodide formation. Both reductions show one-electron stoichiometry, with the product nαα = 0.23 ± 0.04 from the electrochemical experiments, in which α is the transfer coefficient and na the number of electrons transferred, and an diiodine yield of ca. 0.5 equiv per equivalent of peroxynitrous acid. The voltammetric reduction was irreversible up to scan rates of 80 V s-1. Both reductions were pH independent in the range studied. The voltammetric reduction is most likely an irreversible elemental reaction followed by a chemical decay that cannot be observed directly. Because of the pH independence, we conclude that both reductions have a common short-lived intermediate, namely [HOONO]-. We estimate the electrode potential of the likely ONOOH/ONOOH- couple to be larger than 1 V. The commonly used electrode potential E°(ONOOH, H +/NO2, H2O) does not describe the chemistry of peroxynitrous acid.

Schulek

, p. 161 - 169 (1925)

Stas, J. S.

, p. 419 - 419 (1867)

Stamm, H.,Wiebusch, K.-D.

, p. 42 - 43 (1944)

Jackson, H.

, p. 339 (1883)

Straaten,Aten

, p. 3798 (1954)

Caley, E. R.

, p. 3240 - 3243 (1932)

Muir, M. M. P.

, p. 656 - 662 (1909)

Oxidative hydrolysis in water vapor-air phase of CsI radioaerosols produced by CsI sublimation from metallic surface

Kulyukhin,Mikheev,Kamenskaya,Rumer,Konovalova,Novichenko

, p. 63 - 66 (2004)

Behavior of CsI radioaerosols produced by CsI sublimation from a platinum support in argon, air, and water vapor-air mixture was studied. During 10-12 min of the vaporization at 900-1570 K, CsI radioaerosols undergo oxidative hydrolysis with atmospheric oxygen and water vapor to form CsOH aerosols and I2. The cesium-to-iodine ratio determined in various fractions shows that oxidation of CsI in argon is minimal and is caused by the presence of oxygen and water traces. Oxidative hydrolysis of CsI strongly increases with increasing water vapor content in the vapor-gas flow. The degree of oxidative hydrolysis of CsI in the gas flow depends not only on the content of water vapor and oxygen but also on the initial CsI/O2 molar ratio.

New d0 transition metal iodates: Synthesis, structure, and characterization of BaTi(IO3)6, LaTiO(IO3) 5, Ba2VO2(IO3)4· (IO3), K2MoO2(IO3)4, and BaMoO2(IO3)4·H2O

Ok, Kang Min,Halasyamani, P. Shiv

, p. 2263 - 2271 (2005)

Five new d0 transition metal iodates, BaTi(IO3) 6, LaTiO(IO3)5, Ba2VO 2(IO3)4·(IO3), K 2MoO2(IO3)4, and BaMoO 2(IO3)4· H2O, have been synthesized by hydrothermal methods using Ba(OH)2·8H 2O, La2O3, K2CO3, TiO2, V2O5, MoO3, and HIO 3 as reagents. The structures of these compounds were determined by single-crystal X-ray diffraction. All of the reported materials have zero-dimensional or pseudo-one-dimensional crystal structures composed of MO6 (M = Ti4+ , V5+, or Mo6+) octahedra connected to IO3 polyhedra. Infrared and Raman spectroscopy, thermogravimetric analysis, and UV-vis diffuse reflectance spectroscopy are also presented. Crystal data: BaTi(IO3)6, trigonal, space group R-3 (No. 148), with a = b = 11.4711(10) A, c = 11.1465(17) A, V = 1270.2(2) A3, and Z = 3; LaTiO(IO 3)5, monoclinic, space group P21/n (No. 14), with a = 7.4798(10) A, b = 18.065(2) A, c = 10.4843(14) A, β = 91.742(2)°, V = 1416.0(3) A3, and Z = 4; Ba 2VO2(IO3)4·(IO3), monoclinic, space group P21/c (No. 14), with a = 7.5012(9) A, b = 33.032(4) A, c = 7.2150(9) A, β = 116.612(2)°, V = 1598.3(3) A3, and Z = 4; K2MoO2(IO 3)4, monoclinic, space group C2/c (No. 15), with a = 12.959(2) A, b = 6.0793(9) A, c = 17.748(3) A, β = 102.410(4)°, V = 1365.5(4) A3, and Z = 4; BaMoO 2(IO3)4·H2O, monoclinic, space group P21/n (No. 14), with a = 13.3368(17) A, b = 5.6846(7) A, c = 18.405(2) A, β = 103.636(2)°, V = 1356.0(3) A3, and Z = 4.

A redox-triggered structural rearrangement in an iodate-templated polyoxotungstate cluster cage

Long, De-Liang,Yan, Jun,Ruiz De La Oliva, Andreu,Busche, Christoph,Miras, Haralampos N.,Errington, R. John,Cronin, Leroy

, p. 9731 - 9733 (2013)

The new tungstatoiodate, α-[H5W18O 59(IO3)]6-, containing IVO 3- within a {W18O54} metal oxide framework has been prepared and shown by X-ray crystallography and mass spectrometry to be derived from the fully oxidised [H3W 18O56(IO6)]6- by two-electron reduction accompanied by a redox-triggered structural rearrangement where three I-O covalent bonds are broken.

Henderson, A.,McCulloch, W. P.

, (1939)

Martin,Noyes

, p. 4183 (1953)

Abel, E.

, (1950)

0'Brien, D. E.,Bowen, J. R.

, p. 4767 - 4769 (1969)

-

Luebbe,Willard

, p. 761,764 (1959)

-

ABSORPTION AND LUMINESCENCE OF PHOTOCHROMIC CdI//2: CuI.

Ronda, C. R.,Zwaal, E.,Folkersma, H. F.,Lenselink, A.,Haas, C.

, p. 80 - 91 (1988)

The irradiation with ultraviolet light of CdI//2 containing 1-5 mole% CuI induces new absorption bands in the visible part of the spectrum. The absorption spectra of uncolored, optically colored, and thermally bleached CdI//2:CuI are presented and discussed. The optical coloration is due to the photoneutralization of Cu** plus ions in CdI//2, and the thermal bleaching is due to thermal ionization of Cu atoms. During the coloration process small microcrystals of metallic Cu are formed in the CdI//2 single crystals. Uncolored CdI//2:CuI shows luminescence similar to CdI//2. Optically colored CdI//2:CuI does not show luminescence, due to the presence of optically induced luminescence killing centers.

Synthesis, structural and magnetic characterizations of a dinuclear copper(II) complex with an (N,S,O) donor ligand: Catecholase and phenoxazinone synthase activities

Ghosh, Ayon Kanti,Ali, Anzar,Singh, Yogesh,Purohit, Chandra Shekhar,Ghosh, Rajarshi

, p. 156 - 163 (2018/02/20)

A new dinuclear Cu(II) complex (1) was synthesized and crystallographically characterized. Each of the Cu(II) centres has penta coordination and been found to adopt square pyramidal geometry. Variable temperature magnetic measurements showed that there is weak ferromagnetic interaction between the Cu(II) centres in 1. 1 shows catecholase as well as phenoxazinone synthase activities in different solvents. The turn over numbers for the catecholase activity were 4.02 × 103 h?1 (MeOH) and 9.57 × 103 h?1 (MeCN), and that of phenoxazinone synthase activity were 1.065 × 103 h?1 (MeOH), 2.13 × 102 h?1 (MeCN) and 2.844 × 103 h?1 (DCM).

Control of Biohazards: A High Performance Energetic Polycyclized Iodine-Containing Biocide

Zhao, Gang,He, Chunlin,Zhou, Wenfeng,Hooper, Joseph P.,Imler, Gregory H.,Parrish, Damon A.,Shreeve, Jean'Ne M.

, p. 8673 - 8680 (2018/07/29)

Biohazards and chemical hazards as well as radioactive hazards have always been a threat to human health. The search for solutions to these problems is an ongoing worldwide effort. In order to control biohazards by chemical methods, a synthetically useful fused tricyclic iodine-rich compound, 2,6-diiodo-3,5-dinitro-4,9-dihydrodipyrazolo [1,5-a:5′,1′-d][1,3,5]triazine (5), with good detonation performance was synthesized, characterized, and its properties determined. This compound which acts as an agent defeat weapon has been shown to destroy certain microorganisms effectively by releasing iodine after undergoing decomposition or combustion. The small iodine residues remaining will not be deleterious to human life after 1 month.