Share to: share facebook share twitter share wa share telegram print page

Standard electrode potential (data page)

The data below tabulates standard electrode potentials (E°), in volts relative to the standard hydrogen electrode, at:

The Nernst equation adjusts for general concentrations, pressures, or temperatures.

Simultaneous half-reactions do not in general add voltages, but instead add Gibbs free energy change: the product of the voltage and the number of electrons transferred, typically the Faraday constant. For example, from Fe2+ + 2e ⇌ Fe(s) (–0.44 V), the energy to create one neutral atom of Fe(s) from one Fe2+ ion and two electrons is 2 × 0.44 eV = 0.88 eV, or 84 895 J/(mol e). That value is also the standard formation energy for an Fe2+ ion, since e and Fe(s) both have zero formation energy.

Data from different sources may cause table inconsistencies. For example: Additivity of Gibbs energy implies not the experimental 0.159 V.

Table of standard electrode potentials

Legend: (s) – solid; (l) – liquid; (g) – gas; (aq) – aqueous (default for all charged species); (Hg) – amalgam; bold – water electrolysis equations.

Element Half-reaction / V Electrons Ref.
Oxidant Reductant
Sr Sr+
+ e
Sr(s) -4.101 1 [1]
Ca Ca+
+ e
Ca(s) -3.8 1 [1]
Th Th4+
+ e
Th3+
-3.6 1 [2]
Pr Pr3+
+ e
Pr2+
-3.1 1 Estimated[3]
N 3N
2
(g) + 2H+ + 2e
2HN
3
(aq)
-3.09 2 [4][5]
Li Li+
+ e
Li(s) -3.0401 1 [5][6]: 153 
N N
2
(g) + 4H2O + 2e
2NH
2
OH
(aq) + 2OH
-3.04 2 [4]
Cs Cs+
+ e
Cs(s) -3.026 1 [5]
Ca Ca(OH)
2
+ 2e
Ca(s) + 2OH -3.02 2 [1]
Er Er3+
+ e
Er2+
-3 1 [1]
Ba Ba(OH)
2
+ 2e
Ba(s) + 2OH -2.99 2 [1]
Rb Rb+
+ e
Rb(s) -2.98 1 [5]
K K+
+ e
K(s) -2.931 1 [5]
Ba Ba2+
+ 2e
Ba(s) -2.912 2 [5]
La La(OH)
3
(s) + 3e
La(s) + 3OH -2.9 3 [5]
Fr Fr+
+ e
Fr(s) -2.9 1 [1]
Sr Sr2+
+ 2e
Sr(s) -2.899 2 [5]
Sr Sr(OH)
2
+ 2e
Sr(s) + 2OH -2.88 2 [1]
Ca Ca2+
+ 2e
Ca(s) -2.868 2 [5][6]: 153 
Li Li+
+ C
6
(s) + e
LiC
6
(s)
-2.84 1 [5]
Eu Eu2+
+ 2e
Eu(s) -2.812 2 [5]
Ra Ra2+
+ 2e
Ra(s) -2.8 2 [5]
Ho Ho3+
+ e
Ho2+ -2.8 1 [1]
Bk Bk3+
+ e
Bk2+
-2.8 1 [1]
Yb Yb2+
+ 2e
Yb(s) -2.76 2 [1]
Na Na+
+ e
Na(s) -2.71 1 [5][7]
Mg Mg+
+ e
Mg(s) -2.7 1 [1]
Nd Nd3+
+ e
Nd2+
-2.7 1 [1]
Mg Mg(OH)
2
+ 2e
Mg(s) + 2OH -2.69 2 [1]
Sm Sm2+
+ 2e
Sm(s) -2.68 2 [1]
Be Be
2
O2−
3
+ 3H2O + 4e
2Be(s) + 6OH -2.63 4 [1]
Pm Pm3+
+ e
Pm2+
-2.6 1 [1]
Dy Dy3+
+ e
Dy2+
-2.6 1 [1]
No No2+
+ 2e
No -2.5 2 [1]
Hf HfO(OH)
2
+ H2O + 4e
Hf(s) + 4OH -2.5 4 [1]
Th Th(OH)
4
+ 4e
Th(s) + 4OH -2.48 4 [1]
Md Md2+
+ 2e
Md -2.4 2 [1]
Tm Tm2+
+ 2e
Tm(s) -2.4 2 [1]
La La3+
+ 3e
La(s) -2.379 3 [5]
Y Y3+
+ 3e
Y(s) -2.372 3 [5]
Mg Mg2+
+ 2e
Mg(s) -2.372 2 [5]
Sc ScF3(aq) + 3H+ + 3e Sc(s) + 3HF(aq) -2.37 3 [6]: 792 
Zr ZrO(OH)
2
(s) + H2O + 4e
Zr(s) + 4OH -2.36 4 [5]
Pr Pr3+
+ 3e
Pr(s) -2.353 3 [1]
Ce Ce3+
+ 3e
Ce(s) -2.336 3 [1]
Er Er3+
+ 3e
Er(s) -2.331 3 [1]
Ho Ho3+
+ 3e
Ho(s) -2.33 3 [1]
Al H
2
AlO
3
+ H2O + 3e
Al(s) + 4OH -2.33 3 [1]
Nd Nd3+
+ 3e
Nd(s) -2.323 3 [1]
Tm Tm3+
+ 3e
Tm(s) -2.319 3 [1]
Al Al(OH)
3
(s) + 3e
Al(s) + 3OH -2.31 3 [8]
Sm Sm3+
+ 3e
Sm(s) -2.304 3 [1]
Fm Fm2+ + 2e Fm -2.3 2 [1]
Am Am3+
+ e
Am2+
-2.3 1 [1]
Dy Dy3+
+ 3e
Dy(s) -2.295 3 [1]
Lu Lu3+
+ 3e
Lu(s) -2.28 3 [1]
Sc ScF+
2
+ 2H+ + 3e
Sc(s) + 2HF(l) -2.28 3 [6]: 792 
Tb Tb3+
+ 3e
Tb(s) -2.28 3 [1]
Gd Gd3+
+ 3e
Gd(s) -2.279 3 [1]
H H
2
(g) + 2e
2H
-2.23 2 [1]
Es Es2+
+ 2e
Es(s) -2.23 2 [1]
Pm Pm2+
+ 2e
Pm(s) -2.2 2 [1]
Tm Tm3+
+ e
Tm2+ -2.2 1 [1]
Dy Dy2+
+ 2e
Dy(s) -2.2 2 [1]
Ac Ac3+
+ 3e
Ac(s) -2.2 3 [1]
Yb Yb3+
+ 3e
Yb(s) -2.19 3 [1]
Cf Cf2+
+ 2e
Cf(s) -2.12 2 [1]
Nd Nd2+
+ 2e
Nd(s) -2.1 2 [1]
Ho Ho2+
+ 2e
Ho(s) -2.1 2 [1]
Sc Sc3+
+ 3e
Sc(s) -2.077 3 [9]
Al AlF3−
6
+ 3e
Al(s) + 6F
-2.069 3 [1]
Cm Cm3+
+ 3e
Cm(s) -2.04 3 [1]
Pu Pu3+
+ 3e
Pu(s) -2.031 3 [1]
Pr Pr2+
+ 2e
Pr(s) -2 2 [1]
Er Er2+
+ 2e
Er(s) -2 2 [1]
Eu Eu3+
+ 3e
Eu(s) -1.991 3 [1]
Lr Lr3+
+ 3e
Lr -1.96 3 [1]
Cf Cf3+
+ 3e
Cf(s) -1.94 3 [1]
Es Es3+
+ 3e
Es(s) -1.91 3 [1]
Pa Pa4+
+ e
Pa3+
-1.9 1 [1]
Am Am2+
+ 2e
Am(s) -1.9 2 [1]
Th Th4+
+ 4e
Th(s) -1.899 4 [1]
Fm Fm3+
+ 3e
Fm -1.89 3 [1]
N N2(g) + 2H2O(l) + 4H+ + 2e 2NH3OH+ -1.87 2 [6]: 789 
Np Np3+
+ 3e
Np(s) -1.856 3 [1]
Be Be2+
+ 2e
Be(s) -1.847 2 [1]
P H
2
PO
2
+ e
P(s) + 2OH -1.82 1 [1]
U U3+
+ 3e
U(s) -1.798 3 [1]
Sr Sr2+
+ 2e
Sr(Hg) -1.793 2 [1]
B H
2
BO
3
+ H2O + 3e
B(s) + 4OH -1.79 3 [1]
Th ThO
2
+ 4H+ + 4e
Th(s) + 2H2O -1.789 4 [1]
Hf HfO2+
+ 2H+ + 4e
Hf(s) + H2O -1.724 4 [1]
P HPO2−
3
+ 2H2O + 3e
P(s) + 5OH -1.71 3 [1]
Si SiO2−
3
+ 3H2O + 4e
Si(s) + 6OH -1.697 4 [1]
Al Al3+
+ 3e
Al(s) -1.662 3 [1]
Ti Ti2+
+ 2e
Ti(s) -1.63 2 [7]
Zr ZrO
2
(s) + 4H+ + 4e
Zr(s) + 2H2O -1.553 4 [10]
Zr Zr4+
+ 4e
Zr(s) -1.45 4 [10]
Ti Ti3+
+ 3e
Ti(s) -1.37 3 [11]
Ti TiO(s) + 2H+ + 2e Ti(s) + H2O -1.31 2 [6]: 792 
B B(OH)
4
+ 4H2O(l) + 8e
BH
4
+ 8OH
-1.24 8 [6]: 788 
Ga GaO(OH)
2
+ H2O(l) + 3e
Ga(s) + 3OH -1.22 3 [6]: 788 
Ti Ti
2
O
3
(s) + 2H+ + 2e
2TiO(s) + H2O -1.23 2 [6]: 792 
Zn Zn(OH)2−
4
+ 2e
Zn(s) + 4OH -1.199 2 [10]
Mn Mn2+
+ 2e
Mn(s) -1.185 2 [10]
Fe Fe(CN)4−
6
+ 6H+ + 2e
Fe(s) + 6HCN(aq) -1.16 2 [12]
C C(s) + 3H2O(l) + 2e CH3OH(l) + 2OH -1.148 2 [6]: 788 
Cr Cr(CN)3−
6
+ e
Cr(CN)4−
6
-1.143 1 [6]: 793 
Te Te(s) + 2e Te2−
-1.143 2 [13]
V V2+
+ 2e
V(s) -1.13 2 [13]
Nb Nb3+
+ 3e
Nb(s) -1.099 3 [8]
Sn Sn(s) + 4H+ + 4e SnH
4
(g)
-1.07 4
Po Po(s) + 2e Po2−
-1.021 2 [14]
Cr [Cr(edta)(H2O)] + e [Cr(edta)(H2O)]2− -0.99 1 [6]: 793 
P 2H3PO4(aq) + 2H+ + 2e (H2PO3)2(aq) + H2O(l) -0.933 2 [6]: 789 
C CO2−
3
+ 3H+ + 2e
HCO
2
+ H2O(l)
-0.93 2 [6]: 788 
Ti TiO2+
+ 2H+ + 4e
Ti(s) + H2O -0.93 4
Si SiO
2
(quartz) + 4H+ + 4e
Si(s) + 2H2O -0.909 4 [6]: 788 
Cr Cr2+
+ 2e
Cr(s) -0.9 2 [6]: 793 
B B(OH)
3
(aq) + 3H+ + 3e
B(s) + 3H2O -0.89 3 [6]: 788 
Fe Fe(OH)
2
(s) + 2e
Fe(s) + 2OH -0.89 2 [12]
Fe Fe
2
O
3
(s) + 3H2O + 2e
2Fe(OH)
2
(s) + 2OH
-0.86 2 [12]
H 2H2O + 2e H
2
(g) + 2OH
-0.8277 2 [10]
Bi Bi(s) + 3H+ + 3e BiH
3
-0.8 3 [10]
Zn Zn2+
+ 2e
Zn(Hg) -0.7628 2 [10]
Zn Zn2+
+ 2e
Zn(s) -0.7618 2 [10]
Ta Ta
2
O
5
(s) + 10H+ + 10e
2Ta(s) + 5H2O -0.75 10
Te 2Te(s) + 2e Te2−
2
-0.74 2 [6]: 790 
Ni Ni(OH)
2
(s) + 2e
Ni(s) + 2OH -0.72 2 [1]
Nb Nb2O5(s) + 10H+ + 10e 2Nb(s) + 5H2O(l) -0.7 10 [6]: 793 
Ag Ag
2
S
(s) + 2e
2Ag(s) + S2−
(aq)
-0.69 2
Te Te2−
2
+ 4H+ + 2e
2H2Te(g) -0.64 2 [6]: 790 
Sb Sb(OH)
4
+ 3e
Sb(s) + 4OH -0.639 3 [6]: 789 
Au [Au(CN)
2
]
+ e
Au(s) + 2CN
-0.6 1
Ta Ta3+
+ 3e
Ta(s) -0.6 3 [8]
Pb PbO(s) + H2O + 2e Pb(s) + 2OH -0.580 2 [8]
Ti 2TiO
2
(s) + 2H+ + 2e
Ti
2
O
3
(s) + H2O
-0.56 2 [6]: 792 
Ga Ga3+
+ 3e
Ga(s) -0.549 3 [8]
U U4+
+ e
U3+
-0.52 1 [15]
P H
3
PO
2
(aq) + H+ + e
P(white)[note 1] + 2H2O -0.508 1 [10]
P H
3
PO
3
(aq) + 2H+ + 2e
H
3
PO
2
(aq) + H2O
-0.499 2 [10]
Ni NiO
2
(s) + 2H2O + 2e
Ni(OH)
2
(s) + 2OH
-0.49 2 [1]
Sb Sb(OH)
6
+ 2e
Sb(OH)
4
+ 2OH
-0.465 2 [6]: 789 
P H
3
PO
3
(aq) + 3H+ + 3e
P(red)[note 1] + 3H2O -0.454 3 [10]
Bi Bi2O3(s) + 3H2O(l) + 6e Bi(s) + 6OH -0.452 6 [6]: 789 
Ta TaF2−
7
+ 7H+ + 5e
Ta(s) + 7HF(l) -0.45 5 [6]: 793 
In In3+
+ 2e
In+ -0.444 2 [6]: 788 
Cu Cu(CN)
2
+ e
Cu(s) + 2CN
-0.44 1 [13]
Fe Fe2+
+ 2e
Fe(s) -0.44 2 [7]
C 2CO
2
(g) + 2H+ + 2e
HOOCCOOH(aq) -0.43 2
Cr Cr3+
+ e
Cr2+
-0.407 1 [8]
Cd Cd2+
+ 2e
Cd(s) -0.4 2 [7]
Ti Ti3+
+ e
Ti2+
-0.37 1 [6]: 792 
Cu Cu
2
O
(s) + H2O + 2e
2Cu(s) + 2OH -0.36 2 [10]
Pb PbSO
4
(s) + 2e
Pb(s) + SO2−
4
-0.3588 2 [10]
Pb PbSO
4
(s) + 2e
Pb(Hg) + SO2−
4
-0.3505 2 [10]
Eu Eu3+
+ e
Eu2+
-0.35 1 [15]
In In3+
+ 3e
In(s) -0.34 3 [13]
Tl Tl+
+ e
Tl(s) -0.34 1 [13]
Ge Ge(s) + 4H+ + 4e GeH
4
(g)
-0.29 4
Co Co2+
+ 2e
Co(s) -0.28 2 [10]
P H
3
PO
4
(aq) + 2H+ + 2e
H
3
PO
3
(aq) + H2O
-0.276 2 [10]
N N2(g) + 8H+ + 6e 2NH+
4
-0.27 6 [16]
V V3+
+ e
V2+
-0.26 1 [7]
Ni Ni2+
+ 2e
Ni(s) -0.257 2 [8]
S 2HSO
4
+ 2H+ + 2e
S2O2−
6
+ 2H2O(l)
-0.253 2 [6]: 790 
As As(s) + 3H+ + 3e AsH
3
(g)
-0.23 3 [13]
N N2(g) + 5H+ + 4e N2H+
5
-0.23 4 [6]: 789 
Ga Ga+
+ e
Ga(s) -0.2 1 [8]
Ag AgI(s) + e Ag(s) + I
-0.15224 1 [10]
Ge GeO2(s) + 4H+ + 4e Ge(s) + 2H2O(l) -0.15 4 [16]
Mo MoO
2
(s) + 4H+ + 4e
Mo(s) + 2H2O -0.15 4
Si Si(s) + 4H+ + 4e SiH
4
(g)
-0.14 4
Sn Sn2+
+ 2e
Sn(s) -0.13 2
O O
2
(g) + H+ + e
HO
2
(aq)
-0.13 1
In In+ + e In(s) -0.126 1 [6]: 788 
Pb Pb2+
+ 2e
Pb(s) -0.126 2 [7]
W WO
2
(s) + 4H+ + 4e
W(s) + 2H2O -0.12 4
Ge GeO
2
(s) + 2H+ + 2e
GeO(s) + H2O -0.118 2 [8]
P P(red) + 3H+ + 3e PH
3
(g)
-0.111 3 [10]
C CO
2
(g) + 2H+ + 2e
HCOOH(aq) -0.11 2
Se Se(s) + 2H+ + 2e H
2
Se
(g)
-0.11 2 [6]: 790 
C CO
2
(g) + 2H+ + 2e
CO(g) + H2O -0.11 2
Sn α-SnO(s) + 2H+ + 2e Sn(s) + H2O -0.104 2 [6]: 788 
Cu Cu(NH
3
)+
2
+ e
Cu(s) + 2NH
3
(aq)
-0.1 1 [13]
Nb Nb2O5(s) + 10H+ + 4e 2Nb3+
+ 5H2O(l)
-0.1 4 [6]: 793 
W WO
3
(aq) + 6H+ + 6e
W(s) + 3H2O -0.09 6 [13]
Sn SnO
2
(s) + 2H+ + 2e
α-SnO(s) + H2O -0.088 2 [6]: 788 
Fe Fe
3
O
4
(s) + 8H+ + 8e
3Fe(s) + 4H2O -0.085 8 [17]
V VOH2+
+ H+ + e
V2+
+ H2O(l)
-0.082 1 [6]: 793 
P P(white) + 3H+ + 3e PH
3
(g)
-0.063 3 [10]
N N2O(g) + H2O(l) + 6H+ + 4e 2NH3OH+ -0.05 4 [6]: 789 
Fe Fe3+
+ 3e
Fe(s) -0.04 3 [12]
C HCOOH(aq) + 2H+ + 2e HCHO(aq) + H2O -0.034 2 [6]: 788 
H 2H+ + 2e H
2
(g)
0 2
Ag AgBr(s) + e Ag(s) + Br
0.07133 1 [10]
S S
4
O2−
6
+ 2e
2S
2
O2−
3
0.08 2
N N
2
(g) + 2H2O + 6H+ + 6e
2NH
4
OH
(aq)
0.092 6
Hg HgO(s) + H2O + 2e Hg(l) + 2OH 0.0977 2
Cu Cu(NH
3
)2+
4
+ e
Cu(NH
3
)+
2
+ 2NH
3
(aq)
0.1 1 [13]
Ru Ru(NH
3
)3+
6
+ e
Ru(NH
3
)2+
6
0.1 1 [15]
N N
2
H
4
(aq) + 4H2O + 2e
2NH+
4
+ 4OH
0.11 2 [4]
Mo H
2
MoO
4
(aq) + 6H+ + 6e
Mo(s) + 4H2O 0.11 6
Ge Ge4+
+ 4e
Ge(s) 0.12 4
C C(s) + 4H+ + 4e CH
4
(g)
0.13 4 [13]
C HCHO(aq) + 2H+ + 2e CH
3
OH
(aq)
0.13 2
S S(s) + 2H+ + 2e H
2
S
(g)
0.144 2 [6]: 790 
Sb Sb2O3(s) + 6H+ + 6e 2Sb(s) + 3H2O 0.15 6 [6]: 789 
Sn Sn4+
+ 2e
Sn2+
0.151 2 [8]
S HSO
4
+ 3H+ + 2e
SO
2
(aq) + 2H2O
0.158 2 [6]: 790 
Cu Cu2+
+ e
Cu+
0.159 1 [13]
U UO2+
2
+ e
UO+
2
0.163 1 [15]
S SO2−
4
+ 4H+ + 2e
SO
2
(aq) + 2H2O
0.17 2
Ti TiO2+
+ 2H+ + e
Ti3+
+ H2O
0.19 1
Sb SbO+
+ 2H+ + 3e
Sb(s) + H2O 0.2 3
Fe 3Fe
2
O
3
(s) + 2H+ + 2e
2Fe
3
O
4
(s) + H2O
0.22 2 [18]: p.100 
Ag AgCl(s) + e Ag(s) + Cl
0.22233 1 [10]
As H
3
AsO
3
(aq) + 3H+ + 3e
As(s) + 3H2O 0.24 3 [6]: 789 
Ru Ru3+
(aq) + e
Ru2+
(aq)
0.249 1 [19]
Pb PbO2(s) + H2O + 2e α-PbO(s) + 2OH 0.254 2 [6]: 788 
Ge GeO(s) + 2H+ + 2e Ge(s) + H2O 0.26 2
Hg Hg2Cl2(s) + 2e 2Hg(l) + 2Cl 0.27 2 [16]
U UO+
2
+ 4H+ + e
U4+
+ 2H2O
0.273 1 [15]
Re Re3+
+ 3e
Re(s) 0.300 3 [8]
At At + e At 0.3 1 [20]
Bi Bi3+
+ 3e
Bi(s) 0.308 3 [10]
C 2HCNO + 2H+ + 2e (CN)2 + 2H2O 0.330 2 [8]
Cu Cu2+
+ 2e
Cu(s) 0.337 2 [13]
V VO2+
+ 2H+ + e
V3+
+ H2O
0.337 1 [6]: 793 
Sb Sb2O4(s) + 2H+ + 2e Sb2O3(s) + H2O(l) 0.342 2 [6]: 789 
At At+ + 2e At- 0.36 2 [21]
Fe [Fe(CN)
6
]3−
+ e
[Fe(CN)
6
]4−
0.3704 1 [22]
C (CN)2 + 2H+ + 2e 2HCN 0.373 2 [8]
P (H2PO3)2(aq) + 2H+ + 2e 2H3PO3 0.38 2 [6]: 789 
S 2SO2(aq) + 2H+ + 2e S2O2−
3
+ H2O(l)
0.4 2 [6]: 790 
O O
2
(g) + 2H2O + 4e
4OH(aq) 0.401 4 [7]
Mo H
2
MoO
4
+ 6H+ + 3e
Mo3+
+ 4H2O
0.43 3
Ru Ru2+
(aq) + 2e
Ru 0.455 2 [19]
V VO(OH)+ + 2H+ + e VOH2+
+ H2O(l)
0.481 1 [6]: 793 
C CH
3
OH
(aq) + 2H+ + 2e
CH
4
(g) + H2O
0.5 2
S SO
2
(aq) + 4H+ + 4e
S(s) + 2H2O 0.5 4 [6]: 790 
S 4SO
2
(aq) + 4H+ + 8e
S4O2−
6
+ 2H2O(l)
0.51 8 [16]
Cu Cu+
+ e
Cu(s) 0.52 1 [13]
C CO(g) + 2H+ + 2e C(s) + H2O 0.52 2 [6]: 788 
I I
3
+ 2e
3I
0.53 2 [7]
Te TeO2(s) + 4H+ + 4e Te(s) + 2H2O(l) 0.53 4 [6]: 790 
Cu Cu2+
+ Cl + e
CuCl(s) 0.54 1 [16]
I I
2
(s) + 2e
2I
0.54 2 [7]
Au [AuI
4
]
+ 3e
Au(s) + 4I
0.56 3
As H
3
AsO
4
(aq) + 2H+ + 2e
H
3
AsO
3
(aq) + H2O
0.56 2 [6]: 789 
S S2O2−
6
+ 4H+ + 2e
2H2SO3 0.569 2 [6]: 790 
Au [AuI
2
]
+ e
Au(s) + 2I
0.58 1
Mn MnO
4
+ 2H2O + 3e
MnO
2
(s) + 4OH
0.595 3 [1]
S S
2
O2−
3
+ 6H+ + 4e
2S(s) + 3H2O 0.6 4 [6]: 790 
Fe Fc+
+ e
Fc(s) 0.63 1 Substantial literature variation[23]
Mo H
2
MoO
4
(aq) + 2H+ + 2e
MoO
2
(s) + 2H2O
0.65 2
N HN3(aq) + 11H+ + 8e 3NH+
4
0.69 8 [16]
O O
2
(g) + 2H+ + 2e
H
2
O
2
(aq)
0.695 2 [8]
Sb Sb2O5(s) + 4H+ + 4e Sb2O3(s) + 2H2O 0.699 4 [6]: 789 
C + 2H+ + 2e 0.6992 2 [10]
V H2V10O4−
28
+ 24H+ + 10e
10VO(OH)+ + 8H2O(l) 0.723 10 [6]: 793 
Pt PtCl2−
6
+ 2e
PtCl2−
4
+ 2Cl
0.726 2 [15]
Fe Fe
2
O
3
(s) + 6H+ + 2e
2Fe2+
+ 3H2O
0.728 2 [18]: p.100 
Se H
2
SeO
3
(aq) + 4H+ + 4e
Se(s) + 3H2O 0.74 4 [8]
At AtO+ + 2H+ + 2e At+ + H2O 0.74 2 [21]
Tl Tl3+
+ 3e
Tl(s) 0.741 3 [8]
No No3+
+ e
No2+
0.75 1 [24]
Pt PtCl2−
4
+ 2e
Pt(s) + 4Cl
0.758 2 [15]
Br BrO + H2O(l) + 2e Br + 2OH 0.76 2 [6]: 791 
Po Po4+ + 4e Po 0.76 4 [8]
S (SCN)2 + 2e 2SCN- 0.769 2 [25][8]
Fe Fe3+
+ e
Fe2+
0.771 1 [8]
Hg Hg2+
2
+ 2e
2Hg(l) 0.7973 2 [8]
Ag Ag+
+ e
Ag(s) 0.7996 1 [10]
N 2NO
3
(aq) + 4H+ + 2e
N
2
O
4
(g) + 2H2O
0.803 2 [6]: 789 
Fe 2FeO2−
4
+ 5H2O + 6e
Fe
2
O
3
(s) + 10OH
0.81 6 [12]
Au [AuBr
4
]
+ 3e
Au(s) + 4Br
0.85 3
Hg Hg2+
+ 2e
Hg(l) 0.85 2
Ir [IrCl
6
]2−
+ e
[IrCl
6
]3−
0.87 1 [6]: 153 
Mn MnO
4
+ H+ + e
HMnO
4
0.9 1
Po Po4+ + 2e Po2+ 0.9 2 [8]
Hg 2Hg2+
+ 2e
Hg2+
2
0.91 2 [13]
Pd Pd2+
+ 2e
Pd(s) 0.915 2 [15]
Au [AuCl
4
]
+ 3e
Au(s) + 4Cl
0.93 3
N NO
3
+ 3H+ + 2e
HNO2(aq) 0.94 2 [6]: 789 
Mn MnO
2
(s) + 4H+ + e
Mn3+
+ 2H2O
0.95 1
N NO
3
(aq) + 4H+ + 3e
NO(g) + 2H2O(l) 0.958 3 [7]
Au [AuBr
2
]
+ e
Au(s) + 2Br
0.96 1
Fe Fe
3
O
4
(s) + 8H+ + 2e
3Fe2+
+ 4H2O
0.98 2 [18]: p.100 
Xe [HXeO
6
]3−
+ 2H2O + 2e
[HXeO
4
]
+ 4OH
0.99 2 [6]: 792 [26]
N HNO2(aq) + H+ + e NO(g) + H2O(l) 0.996 1 [6]: 789 
At HAtO + H+ + e At + H2O 1.0 1 [20]
V [VO
2
]+
(aq) + 2H+ + e
[VO]2+
(aq) + H2O
1 1 [27]
Te H
6
TeO
6
(aq) + 2H+ + 2e
TeO
2
(s) + 4H2O
1.02 2 [27]
N NO2(g) + 2H+ + 2e NO(g) + H2O(l) 1.03 2 [16]
Br Br
3
+ 2e
3Br
1.05 2 [16]
Sb Sb2O5(s) + 2H+ + 2e Sb2O4(s) + H2O(l) 1.055 2 [6]: 789 
I ICl
2
+ e
2Cl
+ I(s)
1.06 1 [16]
Br Br
2
(l) + 2e
2Br
1.066 2 [10]
N N2O4(g) + 2H+ + 2e 2HNO2 1.07 2 [6]: 789 
Br Br
2
(aq) + 2e
2Br
1.0873 2 [10]
Ru RuO
2
+ 4H+ + 2e
Ru2+
(aq) + 2H2O
1.120 2 [19]
Cu Cu2+
+ 2CN
+ e
Cu(CN)
2
1.12 1 [13]
I IO
3
+ 5H+ + 4e
HIO(aq) + 2H2O 1.13 4 [6]: 791 
O H2O2(aq) + H+ + e H2O(l) + HO• 1.14 1 [6]: 790 
Au [AuCl
2
]
+ e
Au(s) + 2Cl
1.15 1
Se HSeO
4
+ 3H+ + 2e
H
2
SeO
3
(aq) + H2O
1.15 2 [6]: 790 
Ag Ag
2
O
(s) + 2H+ + 2e
2Ag(s) + H2O 1.17 2
Cl ClO
3
+ 2H+ + e
ClO
2
(g) + H2O
1.175 1 [6]: 791 
Xe [HXeO
6
]3−
+ 5H2O + 8e
Xe(g) + 11OH 1.18 8 [26]
Pt Pt2+
+ 2e
Pt(s) 1.188 2 [15]
Cl ClO
2
(g) + H+ + e
HClO
2
(aq)
1.19 1 [28]
I 2IO
3
+ 12H+ + 10e
I
2
(s) + 6H2O
1.2 10 [16]
Mn MnO
2
(s) + 4H+ + 2e
Mn2+
+ 2H2O
1.224 2 [10]
O O
2
(g) + 4H+ + 4e
2H2O 1.229 4 [7]
N N2H+
5
+ 3H+ + 2e
2NH+
4
1.28 2 [6]: 789 
Cl ClO
4
+ 2H+ + 2e
ClO
3
+ H2O
1.23 2 [29]
Ru [Ru(bipy)
3
]3+
+ e
[Ru(bipy)
3
]2+
1.24 1 [1]
Xe [HXeO
4
]
+ 3H2O + 6e
Xe(g) + 7OH 1.24 6 [6]: 792 [26]
N 2NO
3
+ 12H+ + 10e
N2(g) + 6H2O(l) 1.25 10 [6]: 789 
Tl Tl3+
+ 2e
Tl+
1.25 2 [6]: 788 
N 2HNO2(aq) + 4H+ + 4e N2O(g) + 3H2O(l) 1.297 4 [6]: 789 
Cr Cr
2
O2−
7
+ 14H+ + 6e
2Cr3+
+ 7H2O
1.38 6 [6]: 793 
N NH3OH+ + 2H+ + 2e NH+
4
+ H2O(l)
1.35 2 [6]: 789 
Cl Cl
2
(g) + 2e
2Cl
1.36 2 [7]
Ru RuO
4
(aq) + 8H+ + 5e
Ru2+
(aq) + 4H2O
1.368 5 [19]
Ru RuO
4
+ 4H+ + 4e
RuO
2
+ 2H2O
1.387 4 [19]
Co CoO
2
(s) + 4H+ + e
Co3+
+ 2H2O
1.42 1
N 2NH
3
OH+
+ H+ + 2e
N
2
H+
5
+ 2H2O
1.42 2 [4]
I 2HIO(aq) + 2H+ + 2e I
2
(s) + 2H2O
1.44 2 [6]: 791 
Br BrO
3
+ 5H+ + 4e
HBrO(aq) + 2H2O 1.447 4 [6]: 791 
Pb β-PbO
2
(s) + 4H+ + 2e
Pb2+
+ 2H2O
1.46 2 [13]
Pb α-PbO
2
(s) + 4H+ + 2e
Pb2+
+ 2H2O
1.468 2 [13]
Br 2BrO
3
+ 12H+ + 10e
Br
2
(l) + 6H2O
1.48 10
At HAtO3 + 4H+ + 4e HAtO + 2H2O 1.5 4 [20]
Mn MnO
4
+ 8H+ + 5e
Mn2+
+ 4H2O
1.51 5 [16]
O HO
2
+ H+ + e
H
2
O
2
(aq)
1.51 1
Au Au3+
+ 3e
Au(s) 1.52 3
Ru RuO2−
4
(aq) + 8H+ + 4e
Ru2+
(aq) + 4H2O
1.563 4 [19]
N 2NO(g) + 2H+ + 2e N2O(g) + H2O(l) 1.59 2 [6]: 789 
Ni NiO
2
(s) + 2H+ + 2e
Ni2+
+ 2OH
1.59 2
Ce Ce4+
+ e
Ce3+
1.61 1
Cl 2HClO(aq) + 2H+ + 2e Cl
2
(g) + 2H2O
1.63 2 [28]
I IO
4
+ 2H+ + 2e
IO
3
+ H2O
1.64 2 [29]
Ag Ag
2
O
3
(s) + 6H+ + 4e
2Ag+
+ 3H2O
1.67 4
Cl HClO
2
(aq) + 2H+ + 2e
HClO(aq) + H2O 1.67 2 [28]
Pb Pb4+
+ 2e
Pb2+
1.69 2 [13]
Mn MnO
4
+ 4H+ + 3e
MnO
2
(s) + 2H2O
1.7 3 [16]
Br BrO
4
+ 2H+ + 2e
BrO
3
+ H2O
1.74 2 [29]
Ag AgO(s) + 2H+ + e Ag+
+ H2O
1.77 1
N N2O(g) + 2H+ + 2e N2(g) + H2O(l) 1.77 2 [6]: 789 
O H
2
O
2
(aq) + 2H+ + 2e
2H2O 1.78 2 [28]
Au Au+
+ e
Au(s) 1.83 1 [13]
Co Co3+
+ e
Co2+
1.92 1 [8]
Ag Ag2+
+ e
Ag+
1.98 1 [13]
O S
2
O2−
8
+ 2e
2SO2−
4
2.01 2 [10]
O O
3
(g) + 2H+ + 2e
O
2
(g) + H2O
2.075 2 [15]
Mn HMnO
4
+ 3H+ + 2e
MnO
2
(s) + 2H2O
2.09 2
Xe XeO
3
(aq) + 6H+ + 6e
Xe(g) + 3H2O 2.12 6 [6]: 792 [26]
Xe H
4
XeO
6
(aq) + 8H+ + 8e
Xe(g) + 6H2O 2.18 8 [6]: 792 [26]
Fe FeO2−
4
+ 8H+ + 3e
Fe3+
+ 4H2O
2.2 3 [30]
Xe XeF
2
(aq) + 2H+ + 2e
Xe(g) + 2HF(aq) 2.32 2 [26][28]
O HO• + H+ + e H2O(l) 2.38 1 [6]: 790 
Xe H
4
XeO
6
(aq) + 2H+ + 2e
XeO
3
(aq) + 3H2O
2.42 2 [26][6]: 792 
F F
2
(g) + 2e
2F
2.87 2 [6]: 153 [7][13]
Cm Cm4+ + e Cm3+ 3.0 1 Estimated[3]
F F
2
(g) + 2H+ + 2e
2HF(aq) 3.077 2 [3]
Tb Tb4+ + e Tb3+ 3.1 1 Estimated[3]
Pr Pr4+ + e Pr3+ 3.2 1 Estimated[3]
Kr KrF
2
(aq) + 2e
Kr(g) + 2F
(aq)
3.27 2 Estimated[31]

See also

Notes

  1. ^ a b Not specified in the indicated reference, but assumed due to the difference between the value −0.454 and that computed by (2×(−0.499) + (−0.508))/3 = −0.502, exactly matching the difference between the values for white (−0.063) and red (−0.111) phosphorus in equilibrium with PH3.

References

  1. ^ a b c d e f g h i j k l m n o p q r s t u v w x y z aa ab ac ad ae af ag ah ai aj ak al am an ao ap aq ar as at au av aw ax ay az ba bb bc bd be bf bg bh bi bj bk bl bm bn bo bp bq br bs bt bu bv Lide, David R., ed. (2006). CRC Handbook of Chemistry and Physics (87th ed.). Boca Raton, FL: CRC Press. ISBN 0-8493-0487-3.
  2. ^ Greenwood and Earnshaw, p. 1263
  3. ^ a b c d e Bratsch, Stephen G. (July 29, 1988) [1 March 1988]. "Standard electrode potentials and temperature coefficients in water at 298.15 K" (PDF). Journal of Physical and Chemical Reference Data. 18 (1). American Institute of Physics (published 1989): 1–21. doi:10.1063/1.555839 – via NIST.
  4. ^ a b c d Greenwood, Norman N.; Earnshaw, Alan (1997). Chemistry of the Elements (2nd ed.). Butterworth-Heinemann. ISBN 978-0-08-037941-8.
  5. ^ a b c d e f g h i j k l m n o p q Vanýsek, Petr (2011). "Electrochemical Series". In Haynes, William M. (ed.). CRC Handbook of Chemistry and Physics (92nd ed.). CRC Press. pp. 5–80–9. ISBN 978-1-4398-5512-6.
  6. ^ a b c d e f g h i j k l m n o p q r s t u v w x y z aa ab ac ad ae af ag ah ai aj ak al am an ao ap aq ar as at au av aw ax ay az ba bb bc bd be bf bg bh bi bj bk bl bm bn bo bp bq br bs bt bu bv bw bx by bz ca cb cc cd ce Atkins, Peter; Overton, Tina; Rourke, Jonathan; Weller, Mark; Armstrong, Fraser; Hagerman, Michael (2010). Inorganic Chemistry (5th ed.). New York: W. H. Freeman. ISBN 978-1-42-921820-7.
  7. ^ a b c d e f g h i j k l m Atkins, Peter W. (1997). Physical Chemistry (6th ed.). W.H. Freeman. ISBN 9780716734659.
  8. ^ a b c d e f g h i j k l m n o p q r s t u v Petr Vanysek. "Electrochemical series" (PDF). depa.fquim.unam.mx. Archived from the original (PDF) on 2021-09-16.
  9. ^ David R. Lide, ed., CRC Handbook of Chemistry and Physics, Internet Version 2005, http://www.hbcpnetbase.com Archived 2017-07-24 at the Wayback Machine, CRC Press, Boca Raton, FL, 2005.
  10. ^ a b c d e f g h i j k l m n o p q r s t u v w x y z aa ab Vanýsek, Petr (2012). "Electrochemical Series". In Haynes, William M. (ed.). Handbook of Chemistry and Physics (93rd ed.). CRC Press. pp. 5–80. ISBN 9781439880494.
  11. ^ Aylward, Gordon; Findlay, Tristan (2008). SI Chemical Data (6th ed.). Wiley. ISBN 978-0-470-81638-7.
  12. ^ a b c d e "compounds information". Iron. WebElements Periodic Table of the Elements.
  13. ^ a b c d e f g h i j k l m n o p q r s t u Bard, Allen J.; Parsons, Roger; Jordan, Joseph (1985). Standard Potentials in Aqueous Solution. CRC Press. ISBN 978-0-8247-7291-8.
  14. ^ Brown, Susan A.; Brown, Paul L. (2020). "The pH-potential diagram for polonium". The Aqueous Chemistry of Polonium and the Practical Application of its Thermochemistry. Elsevier. doi:10.1016/b978-0-12-819308-2.00004-8. ISBN 978-0-12-819308-2. S2CID 213141476.
  15. ^ a b c d e f g h i j Bard, A.J.; Faulkner, L.R. (2001). Electrochemical Methods. Fundamentals and Applications (2nd ed.). Wiley. ISBN 9781118312803.
  16. ^ a b c d e f g h i j k l Lee, J. L. (1983) [1977]. A New Concise Inorganic Chemistry (3rd ed.). London / Wokingham, Berkshire: English Language Book Society & Van Nostrand Reinhold (UK). p. 107. ISBN 0-442-30179-0. OL 4079768W – via the Internet Archive.
  17. ^ Pourbaix, Marcel (1966). Atlas of Electrochemical Equilibria in Aqueous Solutions. Houston, Texas; Cebelcor, Brussels: NACE International. OCLC 475102548.
  18. ^ a b c Pang, Suh Cem; Chin, Suk Fun; Anderson, Marc A. (July 2007). "Redox equilibria of iron oxides in aqueous-based magnetite dispersions: Effect of pH and redox potential". J. Colloid Interface Sci. 311 (1): 94–101. Bibcode:2007JCIS..311...94P. doi:10.1016/j.jcis.2007.02.058. PMID 17395194. Retrieved 2017-03-26.
  19. ^ a b c d e f Greenwood and Earnshaw, p. 1077
  20. ^ a b c Lavrukhina, Avgusta Konstantinovna; Pozdni︠a︡kov, Aleksandr Aleksandrovich (1970). Analytical chemistry of technetium, promethium, astatine and francium. Ann Arbor: Ann Arbor-Humphrey Science Publishers. p. 237. ISBN 0-250-39923-7. OCLC 186926.
  21. ^ a b Champion, J.; Alliot, C.; Renault, E.; Mokili, B. M.; Chérel, M.; Galland, N.; Montavon, G. (2009-12-16). "Astatine Standard Redox Potentials and Speciation in Acidic Medium" (PDF). The Journal of Physical Chemistry A. 114 (1). American Chemical Society (ACS): 576–582. doi:10.1021/jp9077008. ISSN 1089-5639. PMID 20014840. S2CID 15738065.
  22. ^ Rock, Peter A. (February 1966). "The Standard Oxidation Potential of the Ferrocyanide-Ferricyanide Electrode at 25° and the Entropy of Ferrocyanide Ion". The Journal of Physical Chemistry. 70 (2): 576–580. doi:10.1021/j100874a042. ISSN 0022-3654.
  23. ^ Pavlishchuk, Vitaly V.; Addison, Anthony W. (January 2000). "Conversion constants for redox potentials measured versus different reference electrodes in acetonitrile solutions at 25°C". Inorganica Chimica Acta. 298 (1): 97–102. doi:10.1016/S0020-1693(99)00407-7.
  24. ^ Toyoshima, A.; Kasamatsu, Y.; Tsukada, K.; Asai, M.; Kitatsuji, Y.; Ishii, Y.; Toume, H.; Nishinaka, I.; Haba, H.; Ooe, K.; Sato, W.; Shinohara, A.; Akiyama, K.; Nagame, Y. (8 July 2009). "Oxidation of element 102, nobelium, with flow electrolytic column chromatography on an atom-at-a-time scale". Journal of the American Chemical Society. 131 (26): 9180–1. doi:10.1021/ja9030038. PMID 19514720.
  25. ^ Kaufmann, H. P. (1925). "Das freie Rhodan und seine Anwendung in der Maßanalyse. Eine neue Kennzahl der Fette" [Unbound rhodanium and its application to elemental analysis: A new measurement technique for fats]. Archiv der Pharmazie und Berichte der Deutschen Pharmazeutischen Gesellschaft (in German). 263: 675–721 – via HathiTrust.
  26. ^ a b c d e f g "compounds information". Xenon. WebElements Periodic Table of the Elements.
  27. ^ a b Cotton, F. Albert; Wilkinson, Geoffrey; Murillo, Carlos A.; Bochmann, Manfred (1999), Advanced Inorganic Chemistry (6th ed.), New York: Wiley-Interscience, ISBN 0-471-19957-5.
  28. ^ a b c d e Ghosh, Abhik; Berg, Steffen (2014). Arrow Pushing in Inorganic Chemistry: A logical approach to the chemistry of the main-group elements. Hoboken: Wiley. p. 12. ISBN 978-1-118-17398-5.
  29. ^ a b c Appelman, Evan H. (1973-04-01). "Nonexistent compounds. Two case histories". Accounts of Chemical Research. 6 (4). American Chemical Society (ACS): 113–117. doi:10.1021/ar50064a001. ISSN 0001-4842.
  30. ^ Courtney, Arlene. "Oxidation Reduction Chemistry of the Elements". Ch 412 Advanced Inorganic Chemistry: Reading Materials. Western Oregon University.
  31. ^ Leszczyński, P.J.; Grochala, W. (2013). "Strong Cationic Oxidizers: Thermal Decomposition, Electronic Structure and Magnetism of Their Compounds" (PDF). Acta Chim. Slov. 60 (3): 455–470. PMID 24169699. Archived (PDF) from the original on 2022-10-09.

Read other articles:

PT Bank Maspion Indonesia TbkKantor pusat di SurabayaNama dagangBank MaspionJenisPerusahaan publikKode emitenIDX: BMASIndustriJasa keuanganDidirikan6 November 1989; 34 tahun lalu (1989-11-06)KantorpusatSurabaya, IndonesiaWilayah operasiIndonesiaTokohkunciHerman Halim[1](Direktur Utama)M. Pujiono Santoso[1](Komisaris Utama)ProdukGiroTabunganDepositoKreditMerekDasyattPendapatanRp 900,997 milyar (2021)[1]Laba bersihRp 80,275 milyar (2021)[1]Total asetRp 14,234 t…

District of Uttar Pradesh in India District of Uttar Pradesh in IndiaAyodhya district Faizabad districtDistrict of Uttar PradeshClockwise from top-left: Diwali at Ram ki Paidi, Bahu Begum ka Maqbara, Amsin Bazar, Saryu river near Ayodhya, Gulab BariLocation of Ayodhya district in Uttar PradeshCountry IndiaStateUttar PradeshDivisionAyodhyaHeadquartersAyodhyaTehsils5Government • Lok Sabha constituenciesFaizabad Lok Sabha constituency - Ayodhya, Bikapur, Milkipur, RudauliAmbedkar N…

Asociación Mexicana de Productores de Fonogramas y Videogramas ou AMPROFON é uma organização oficial do México que representa os interesses da indústria musical no país. Foi fundada em 3 de abril de 1963 e é associada ao IFPI.[1] Ver também Certificações de vendas de discos no mundo Referências ↑ [1] Ligações externas «Oficial site»  vdeAssociações de gravadorasMundo: IFPIAméricas AMPF · APDIF · APFV · CAPFV · CUD · Pro-Música Brasil …

Domingos Quina Quina (derecha) con el West Ham United F. C. en 2016.Datos personalesNacimiento Guinea-Bisáu18 de noviembre de 1999 (24 años)Nacionalidad(es) Bisauguineana PortuguesaAltura 1,77 m (5′ 10″)Carrera deportivaDeporte FútbolClub profesionalDebut deportivo 2016(West Ham United F. C.)Club Udinese CalcioLiga Serie APosición CentrocampistaSelección nacionalSelección POR Portugal sub-21Part. 1Trayectoria West Ham United F. C. (2016-2018) Watford F. C. (2018-2023) → Gra…

Entstuckung (zuweilen auch Abstuckung) ist die willentliche Beseitigung von Stuckdekorationen an Gebäuden. Mit dem Beginn der Klassischen Moderne wurde von etwa 1920 bis 1975 vorwiegend in Deutschland der Gipsstuck-Dekor zahlreicher gründerzeitlicher Fassaden und Innenräume aus unterschiedlichen Motiven entfernt. Als wesentlicher Beweggrund galten Vorbehalte gegenüber den als überbordend empfundenen historistischen und zumal eklektizistischen Fassadenelementen. Diese sollten fortan nicht me…

Jazeera Palace Hotel bombingPart of Somali Civil War (2009–present)Jazeera Palace Hotel, renovated months after the attacks.LocationMogadishu, SomaliaDateJuly 26, 2015Attack typeSuicide bombingDeaths10-15+InjuredSeveralPerpetratorsal-Shabab vteSomali Civil War(2009–present) Timeline 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020 2021 2022 2023 Operations and battles 2009 S Mogadishu Mogadishu C Somalia Wabho Kismayo 2010 Beledweyne Ayn Kenyan border Mogadishu 2011 Lower Juba Ged…

Transplantasi kepala anjing yang terakhir kalinya ia lakukan pada 13 Januari 1959 in Jerman Timur. Vladimir Petrovich Demikhov (bahasa Rusia: Влади́мир Петро́вич Де́михов; Khutor Kulikovsky, 18 Juli 1916 – Moskwa, 22 November 1998) adalah seorang menjadi ilmuwan dari Uni Soviet. Beliau juga merupakan pionkr dari transplantasi organ di dunia. Beliau juga melakukan beberapa transplantasi pada tahun 1930 - 1950, antara lain transplantasi jantung, transplantasi paru-p…

PT Kawasan Industri MakassarJenisPerseroan terbatasIndustriKawasan industriDidirikan31 Maret 1988; 35 tahun lalu (1988-03-31)KantorpusatMakassar, IndonesiaWilayah operasiIndonesiaTokohkunciAlif Abadi[1](Direktur Utama)Murtir Jeddawi[2](Komisaris Utama)JasaPenyewaan dan penjualan lahan dan bangunanDepo peti kemasPenyewaan alat beratPengolahan air limbahPengembangan fasilitas pendukungPendapatanRp 89,234 milyar (2019)[3]Laba bersihRp 38,198 milyar (2019)[3]Tota…

Pflasterstein für Maurice Desimpelaere zu Ehren seines Sieges bei Paris-Roubaix Frederic Maurice Desimpelaere (* 28. Mai 1920 in Ledegem; † 30. Januar 2005 in Wevelgem) war ein belgischer Radrennfahrer. Maurice Desimpelaere war Profi-Radrennfahrer von 1942 bis 1950. 1944 gewann er Paris–Roubaix, im Jahr darauf wurde er Fünfter. 1945 wurde er Zweiter bei der ersten Austragung von Omloop Het Volk. 1946 gewann er Quer durch Flandern und 1947 das Rennen Gent–Wevelgem, bei dem er im Jahr zuvo…

湘語发音/siɔŋ44.ny42/(老湘语娄底话)/ɕiæ̃33.y41/(新湘语长沙话)母语国家和地区 中华人民共和国区域湖南省内湘江、资江流域的广大区域,广西北部五县,以及贵州和四川的少數乡镇,等地母语使用人数3,800萬人[1] (2007年)語系漢藏語系 漢語族漢語湘語語言代碼ISO 639-3hsnGlottologxian1251[2] 湘语(新湘语长沙话:/ɕiæ̃33 y43/;老湘语娄底话:/siɔŋ33 ny42/)…

VSS Voyager beralih ke halaman ini, yang bukan mengenai USS Voyager. VSS Unity Pesawat Unity pada 19 Februari 2016 di FAITH hangar, Mojave, California Jenis Scaled Composites Model 339 SpaceShipTwo Pembuat The Spaceship Company Nomor konstruksi 2[1] Registrasi N202VG[2] Penerbangan pertama 8 September 2016[3] (dibawa oleh pesawat indukt)3 Desember 2016 (penerbangan glide)5 April 2018 (penerbangan ditenagai mesin)13 Desember 2018 (penerbangan antariksa suborbital) Pemilik …

Katedral LutskKatedral Santo Petrus dan Paulus, LutskKatedral Lutsk50°44′18″N 25°19′12″E / 50.738302°N 25.319923°E / 50.738302; 25.319923Koordinat: 50°44′18″N 25°19′12″E / 50.738302°N 25.319923°E / 50.738302; 25.319923LokasiLutskNegara UkrainaDenominasiGereja Katolik RomaSejarahTanggal konsekrasi1639 (1640)ArsitekturStatusKatedralStatus fungsionalAktifArsitekGiacomo Briano, Pawel Gizycki etc.GayaRenaisans, KlasikDibangu…

Kazuchika OkadaOkada pada Oktober 2021Lahir08 November 1987 (umur 36)Anjō, Aichi, JepangPasanganSuzuko Mimori ​(m. 2019)​Karier gulat profesionalNama ringKazuchika OkadaOkatoDragon George[1]Tinggi1,91 m (6 ft 3 in)[2][3]Berat107 kg (236 pon) (236 pon)[2][4]Asal dariTokyo, Jepang[5]Dilatih olehÚltimo Dragón[6]Debut29 Agustus 2004 Kazuchika Okada (岡田 和睦code: ja is deprecate…

For the Washington Metro station, see Congress Heights Station. Malcolm X Avenue redirects here. For Malcolm X Boulevard in Manhattan, see Lenox Avenue. For Malcolm X Boulevard in Brooklyn, see Utica Avenue. Neighborhood in Ward 8, United StatesCongress HeightsNeighborhoodMap of Washington, D.C., with the Congress Heights neighborhood highlighted in redCoordinates: 38°50′25.5948″N 077°00′00″W / 38.840443000°N 77.00000°W / 38.840443000; -77.00000CountryUnited S…

1940 novel The Stoat First edition (UK)AuthorLynn BrockCountryUnited KingdomLanguageEnglishSeriesColonel GoreGenreMystery thrillerPublisherCollins Crime Club (UK) Harper & Brothers (US)Publication date1940Media typePrintPreceded byQ.E.D.  The Stoat is a 1940 mystery detective novel by the Irish-born writer Lynn Brock.[1] It was the seventh and last novel in his series featuring the character of the Golden Age detective Colonel Wyckham Gore.[2] It was also his l…

Supreme constitutional court for the Federal Republic of Germany This article needs additional citations for verification. Please help improve this article by adding citations to reliable sources. Unsourced material may be challenged and removed.Find sources: Federal Constitutional Court – news · newspapers · books · scholar · JSTOR (December 2021) (Learn how and when to remove this template message) Federal Constitutional CourtBundesverfassungsgericht49…

Type of computer processor design In computer architecture, a transport triggered architecture (TTA) is a kind of processor design in which programs directly control the internal transport buses of a processor. Computation happens as a side effect of data transports: writing data into a triggering port of a functional unit triggers the functional unit to start a computation. This is similar to what happens in a systolic array. Due to its modular structure, TTA is an ideal processor template for …

This article does not cite any sources. Please help improve this article by adding citations to reliable sources. Unsourced material may be challenged and removed.Find sources: Chief Scout's Award Scouts Canada – news · newspapers · books · scholar · JSTOR (December 2016) (Learn how and when to remove this template message)Chief Scout's AwardOwnerScouts CanadaCountryCanadaFounded1973FounderRoland Michener  Scouting portal The Chief Scout's Award…

2000 studio album by DarudeBefore the StormStudio album by DarudeReleased18 September 2000Recorded1998–2000Length61:35Label 16 Inch BMG Producer Ville Virtanen Jaakko Salovaara Darude chronology Before the Storm(2000) Rush(2003) Singles from Before the Storm SandstormReleased: 26 October 1999 Feel the BeatReleased: 20 November 2000 Out of Control (Back for More)Released: 1 February 2001 Alternate coverDigital download cover Before the Storm is the debut studio album by Finnish DJ and r…

1950 Indian filmPrasannaDirected byS. M. Sriramulu NaiduWritten byMunshi ParamupillaiScreenplay byMunshi ParamupillaiProduced byPakshiraja StudiosStarringPappukutty Bhagavathar, Kottarakkara Sreedharan Nair, P. A. ThomasMusic byM. S. GnanamaniRelease date 17 August 1950 (1950-08-17) CountryIndiaLanguageMalayalam Prasanna is a 1950 Indian Malayalam-language film, directed by S. M. Sriramulu Naidu and produced by Pakshiraja Studios.[1] The film stars Pappukutty Bhagavathar, …

Kembali kehalaman sebelumnya

Lokasi Pengunjung: 3.145.65.168