Siemens Fuse Systems Brochure
© Siemens AG 2016
Fuse Systems
SENTRON
Configuration
Manual
Edition
10/2015
siemens.com/lowvoltage
© Siemens AG 2016
Fuse Systems
© Siemens AG 2016
2 Introduction
NEOZED fuse systems
8 NEOZED fuse links
15 DIAZED fuse systems
Cylindrical fuse systems
24 Cylindrical fuse links and cylindrical
fuse holders
32 Fuse holders in size
10 x 38 mm and Class CC
36 Class CC fuse systems
40 Busbar systems
3NA, 3ND LV HRC fuse systems
45 LV HRC fuse links
68 LV HRC signal detectors
69 LV HRC fuse bases and accessories
SITOR seimconductor fuses
78 LV HRC design
147 Cylindrical fuse design
168 NEOZED and DIAZED design
172 Configuration
Photovoltaic fuses
186 Introduction
186 PV cylindrical fuses
191 PV cumulative fuses
For further technical
product information:
Siemens Industry Online Support:
www.siemens.com/lowvoltage/productsupport
Entry type:
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Technical data
Siemens · 10/2015
© Siemens AG 2016
Fuse Systems
Introduction
■
Overview
Devices Page Application Standards Used in
NEOZED fuse systems 8 MINIZED switch disconnectors, bases,
DIAZED fuse systems
fuse links from 2 A to 63 A of operational class gG and accessories.
Everything you need for a complete
system.
15 Fuse links from 2 A to 100 A in various
operational classes, base versions with
classic screw base connections.
A widely used fuse system.
Fuse system:
IEC 60269-3;
DIN VDE 0636-3
Safety switching
devices
IEC/EN 60947-3
DIN VDE 0638;
DIN EN 60947-3
(VDE 0660-107)
IEC 60269-3;
DIN VDE 0635;
DIN VDE 0636-3;
CEE 16
Non-residential
buildings
Residential
buildings
✓ ✓ ✓
✓ ✓ ✓
Industry
Cylindrical fuse systems
Cylindrical fuse links and cylindrical
fuse holders
Fuse holders in size 10 x 38 mm and
Class CC
Class CC fuse systems
Busbar systems
24 Line protection or protection of
switching devices.
The fuse holders with touch protection
ensure the safe "no-voltage"
replacement of fuse links.
Auxiliary switches can be retrofitted.
32 For installing fused loaded motor starter
combinations.
36 These comply with American standard
and have UL and CSA approval, for
customers exporting OEM products
and mechanical engineers.
Modern design with touch protection
according to BGV A3 for use in "branch
circuit protection".
40 Busbars for NEOZED fuse bases,
NEOZED fuse disconnectors, MINIZED
switch disconnectors, DIAZED fuse
systems and for the cylindrical fuse
systems.
Compact cylindrical fuse holders for
busbars.
IEC 60269-1, -2, -3;
NF C 60-200;
NF C 63-210, -211;
NBN C 63269-2,
CEI 32-4, -12
Fuse holders:
File No. E171267
IEC 60269-1, -2;
IEC 60947-4;
UL 4248-1,
File No. E171267
CSA 250269, 6225-01
Auxiliary switches:
UL 508,
File No. E334003
Fuse holders:
UL 4248-1, E171267
CSA 22.2
Fuse links:
UL 248-4,
File No. E258218,
CSA 231237, 1422-02
and 1422-82
DIN EN 60439-1
(VDE 0660-500)
UL 4248-1, E337131
✓ ✓ ✓
✓ -- ✓
✓ ✓ ✓
✓ ✓ ✓
2
Siemens · 10/2015
© Siemens AG 2016
Fuse Systems
Introduction
Devices Page Application Standards Used in
Non-residen-
tial buildings
3NA, 3ND LV HRC fuse systems
LV HRC fuse links 45 Fuse links from 2 A to 1250 A for
selective line protection and system
protection in non-residential buildings,
industry and power utilities.
IEC 60269-1, -2;
EN 60269-1;
DIN VDE 0636-2;
CSA 16325 - 1422-02
✓ ✓ ✓
Residential
buildings
Industry
LV HRC signal detectors 68 Signal detectors for when a fuse is
LV HRC fuse bases and
accessories
SITOR semiconductor fuses
LV HRC design 78 Fuse links in LV HRC design and a
Cylindrical fuse design
NEOZED and DIAZED design
tripped on all LV HRC fuse links with
combination or front indicators with
non-insulated grip lugs.
Plus the comprehensive accessory
range required for LV HRC fuse
systems.
69 Fuse bases for screw or snap-on
mounting onto standard mounting rails,
available as 1-pole or 3-pole version.
huge variety of models support a wide
range of applications from 500 V to
1500 V and 150 A to 1600 A.
Fuses with slotted blade contacts,
bolt-on links or female thread, and
special designs.
147 Fuse links, fuse holders – usable as
fuse switch disconnectors and fuse
bases up to 600/690 V AC and
400/700 V DC from 1 A to 100 A
in the sizes 10 × 38 mm, 14 × 51 mm
and 22 × 58 mm.
168 NEOZED fuse links for 400 V AC and
250 V DC and DIAZED for 500 V AC
and 500 V DC.
-- ✓ ✓ ✓
IEC 60269-1, -2;
EN 60269-1;
DIN VDE 0636-2
UL 4248-1,
File No. E171267-IZLT2
(only downstream from
branch circuit protection)
CSA C22.2
No. 4248.1-07
UL 4248-13, File No.
E167357-JFHR2
Fuse links:
UL 4248-13, File No.
E167357-JFHR2
CSA 248170, 1422-30
Fuse holders:
UL 4248-1, File No.
E171267- IZLT
CSA 248170, 6225-01
-- -- -- ✓
✓ ✓ ✓
-- -- ✓
-- -- ✓
Photovoltaic fuses
PV cylindrical fuses 186 Fuses with a rated voltage of
PV cumulative fuses
1000 V DC and operational class gPV
for the protection of photovoltaic
modules, their connecting cables
and other components.
191 Fuses with a rated voltage of 1000 V
and 1500 V DC, a rated current of 63 A
to 630 A and operational class gPV for
the protection of connecting cables and
other components.
IEC 60269-6 ✓ ✓ ✓
IEC60269-6 ✓ ✓ ✓
Siemens · 10/2015
3
Fuse Systems
Introduction
■
Overview
Rated voltage U
The rated voltage is the designated voltage of the fuse and is
used to determine its test conditions and operational voltage
limits.
For LV HRC and SITOR fuse links, the rated voltage is always the
rms value of an AC voltage.
For wind power plants and some industrial applications, a higher
voltage tolerance is demanded of the LV HRC and SITOR fuses
than the tolerance of +5 % defined in the standard. On request,
you can obtain a manufacturer's declaration for the rated voltage
of 690 V +10 %.
In the case of NEOZED and DIAZED fuse links, a distinction is
made between AC and DC voltage values.
Rated current I
The rated current of a fuse link is the designated current of the
fuse link and is the current up to which it can be continuously
loaded under prescribed conditions without adverse affects.
Rated frequency
The rated frequency is the frequency for which the fuse link
is rated with regard to power dissipation, current, voltage,
characteristic curve and breaking capacity.
Selectivity
Several fuses are usually connected in series in a system. Selectivity ensures that only the faulty electric circuit and not all operating processes are interrupted in a system in serious cases.
Siemens fuses of operational class gG, at an operational voltage
of up to 400 V AC and a ratio of 1:1.25, are interselective, i.e.
from rated current level to rated current level. This is achieved by
means of the considerably smaller band of scatter of ± 5 % of
the time/current characteristics, which far exceeds the demand
for a ratio of 1:1.6 specified in the standard.
It is therefore possible to use smaller conductor cross-sections
due to the lower rated currents.
Breaking capacity
The rated breaking capacity is the highest prospective shortcircuit current I
conditions.
A key feature of these fuses is their high rated breaking capacity
with the smallest footprint. The basic demands and circuit data
for tests – voltage, power factor, actuating angle, etc. – are
specified in both national (DIN VDE 0636) and international
(IEC 60269) regulations.
However, for a constant fail-safe breaking capacity, from the
smallest non-permissible overload current through to the highest
short-circuit current, a number of quality characteristics need to
be taken into account when designing and manufacturing fuse
links. These include the design of the fuse element with regard
to dimensions and punch dimension and its position in the
fuse body, as well as its compressive strength and the thermal
resistance of the body. The chemical purity, particle size and
the density of the quartz sand also play a key role.
The rated breaking capacity for AC voltage for NEOZED fuses –
and the majority of DIAZED fuses – is 50 kA, and in the case of
our LV HRC fuses (NH type), it is even 120 kA. The various type
ranges of SITOR semiconductor fuses have different switching
capacities ranging from 50 to 100 kA.
.
n
n
that the fuse link can blow under prescribed
p
© Siemens AG 2016
Faster arcing and precise arc quenching are the requirements for a
reliable breaking capacity.
Operational classes
Fuses are categorized according to function and operational
classes. The first letter defines the function class and the second
the object to be protected:
1st letter
a = Partial range protection
Fuse links that carry currents at least up to their specified rated
current and can switch currents above a specific multiple of their
rated current up to their rated breaking current.
g = Full range protection
Fuse links that can continuously carry currents up to at least their
specified rated current and can switch currents from the smallest melting current through to the breaking current. Overload
and short-circuit protection.
2nd letter
G = Cable and line protection
M = Switching device protection in motor circuits
R, S = Semiconductor protection/thyristor protection
L = Cable and line protection
B = Mine equipment protection
Tr = Transformer protection
The designations "slow" and "quick" still apply to DIAZED fuses.
These are defined in IEC/CEE/DIN VDE.
In the case of "quick" characteristics, the fuse blows in the breaking range faster than those of operational class gG.
In the case of DIAZED fuse links for DC railway network protection, the "slow" characteristic is particularly suitable for switching
off direct currents with greater inductance. Both characteristics
are also suitable for the protection of cables and lines.
Full range fuses (gG, gR, quick, slow) reliably break the
current in the event of non-permissible overload and shortcircuit currents.
Partial range fuses (aM, aR) exclusively serve short-circuit
protection.
(
accompanied fuses):
(
general purpose fuses):
(general applications)
(for protection of motor circuits)
(for protection of rectifiers)
(in acc. with the old, no longer valid DIN VDE)
4
Siemens · 10/2015
t
v
i
2
dt
I
p
2
------------=
I201_06997b
P
c
sL
U
t
tt
t
c
:
Maximum let-through current
t
s
:
Pre-arcing time
t
L
:
Arcing time
P
:
Peak short-circuit current
Us: Arc voltage
© Siemens AG 2016
The following operational classes are included in the product
range:
gG (DIN VDE/IEC) = Full-range cable and line protection
aM (DIN VDE/IEC) = Partial-range switching device
protection
aR (DIN VDE/IEC) = Partial-range semiconductor protection
gR (DIN VDE/IEC) = Full-range semiconductor protection
gS (DIN VDE/IEC) = Full-range semiconductor protection
and cable and line protection
quick (DIN VDE/IEC/CEE) = Full-range cable and
line protection
slow (DIN VDE) = Full range cable and line protection
Characteristic curves (time/current characteristic curves)
The time/current characteristic curve specifies the virtual time
(e.g. the melting time) as a function of the prospective current
under specific operating conditions.
Melting times of fuse links are presented in the time/current
diagrams with logarithmic subdivision as a function of their currents. The melting time characteristic curve extends from the
lowest melting current, which still just causes the melting conductor to melt asymptotically to the I
values in the range of higher short-circuit currents, which specifies the constant melting heat value I
the time/current characteristics diagrams omit the I
9
10
[s]
t
5
10
a
2
t line of equal Joulean heat
2
t. For the sake of simplicity,
2
t lines (c).
Fuse Systems
Introduction
Virtual time t
The virtual time is the time span calculated when an I2t value is
divided by the square of the prospective current:
The time/current characteristic curve specifies the prospective
current I
Prospective short-circuit current I
The prospective short-circuit current is the rms value of the
line-frequency AC component, or the value of direct current to
be expected in the event of a short-circuit occurring downstream
of the fuse, were the fuse to be replaced by a component of
negligible impedance.
Let-through current characteristic curves
The let-through current characteristic curve specifies the value
of the let-through current at 50 Hz as a function of the prospective current.
The let-through current I
of the current reached during a switching operation of a fuse.
The fuse element of the fuse links melts so quickly at very high
currents that the surge short-circuit current I
occurring. The highest instantaneous value of the current
reached during the breaking cycle is called the let-through
current I
diagrams, otherwise known as let-through current diagrams.
v
and the virtual melting time tvs.
p
p
is the maximum instantaneous value
c
is prevented from
p
. The current limits are specified in the current limiting
c
1
10
1234
10 10 10 10
General representation of the time/current characteristic curve of a fuse
link of operational class gL/gG
I
: Smallest melting current
min
a: Melting time/current characteristic
b: Breaking time characteristic curve
2
c: I
t line
min
b
c
I201_06996a
[A]
The curve of the characteristic depends on the outward heat
transfer from the fuse element. DIN VDE 0636 specifies tolerance-dependent time/current ranges within which the characteristic curves of the fuse must lie. Deviations of ± 10 % are permissible in the direction of the current axis. With Siemens LV HRC
fuse links of operational class gG, the deviations work out at
less than ± 5 %, a mark of our outstanding production accuracy.
For currents up to approx. 20 I
teristic curves are the same as the breaking time characteristic
curves. In the case of higher short-circuit currents, the two
characteristic curves move apart, influenced by the respective
arc quenching time.
The difference between both lines (= arc quenching time) also
, the melting time/current charac-
n
depends on the power factor, the operational voltage and the
breaking current.
The Siemens characteristic curves show the mean virtual melting time characteristic curves recorded at an ambient temperature of (20 ± 5) °C. They do not apply to preloaded fuse links.
Oscillograph of a short-circuit current breaking operation through
a fuse link
Siemens · 10/2015
5
I2ti2td
t
0
t
1
=
© Siemens AG 2016
Fuse Systems
Introduction
Current limiting
As well as a fail-safe rated breaking capacity, the current-limiting
effect of a fuse link is of key importance for the cost effectiveness
of a system. In the event of short-circuit breaking by a fuse, the
short-circuit current continues to flow through the network until
the fuse link is switched off. However, the short-circuit current
is only limited by the system impedance.
The simultaneous melting of all the bottlenecks of a fuse element
produce a sequence of tiny partial arcs that ensure a fast breaking operation with strong current limiting. The current limitation is
also strongly influenced by the production quality of the fuse –
which in the case of Siemens fuses is extremely high. For example, an LV HRC fuse link, size 2 (224 A) limits a short-circuit current with a possible rms value of approximately 50 kA to a letthrough current with a peak value of approx. 18 kA. This strong
current limitation provides constant protection for the system
against excessive loads.
c
100 A
50 A
10 A
6 A
Rated power dissipation
Rated power dissipation is the power loss during the load of
a fuse link with its rated current under prescribed conditions.
The cost effectiveness of a fuse depends largely on the rated
power dissipation (power loss). This should be as low as possible and have low self-heating. However, when assessing the
power loss of a fuse, it must also be taken into account that there
is a physical dependence between the rated breaking capacity
and the rated power dissipation. On the one hand, fuse elements
need to be very thick in order to achieve the lowest possible
resistance value, on the other, a high rated breaking capacity
requires the thinnest possible fuse elements in order to achieve
reliable arc quenching.
Siemens fuses have the lowest possible rated power dissipation while also providing the highest possible load breaking
reliability.
These values lie far below the limit values specified in the r
egulations. This means a low temperature rise, reliable breaking
capacity and high cost effectiveness.
2
I
t value
2
t value (joule integral) is the integral of the current squared
The I
over a specific time interval:
I201_06998a
eff
Current limiting diagram
Let-through current diagram of LV HRC fuse links, size 00
Operational class gL/gG
Rated currents 6 A, 10 A, 50 A, 100 A
Legend
= Virtual melting time
t
vs
I
= Max. let-through current
c
=rms value of the prospective short-circuit current
I
rms
2
I
ts= Melting I2t value
2
I
ta=Breaking I2t value
= Rated current
I
n
P
= Rated power dissipation
v
= Temperature rise
k
= Correction factor for I2t value
A
= Recovery voltage
U
w
Û
= Peak arc voltage
s
I
= Peak short-circuit current
p
$ = Peak short-circuit current with largest DC component
% = Peak short-circuit current without DC component
U =Voltage
i =Current
t
= Melting time
s
= Arc quenching time
t
L
Specifies the I
the breaking cycle ((I
2
I
t value). The melting I2t value, also known as the total I2t value
or breaking I
2
t values for the melting process (I2ts) and for
2
tA, , – sum of melting and quenching
2
t value, is particularly important when dimension-
ing SITOR semiconductor fuses. This value depends on the
voltage and is specified with the rated voltage.
Peak arc voltage Û
s
The peak arc voltage is the maximum value of the voltage
that occurs at the connections of the fuse link during the arc
quenching time.
Residual value factor RV
The residual value factor is a reduction factor for determining the
permissible load period of the fuse link with currents that exceed
the permissible load current I
is applied when dimensioning SITOR semiconductor fuses.
’ (see rated current In). This factor
n
Varying load factor VL
The varying load factor is a reduction factor for the rated current
with varying load states. This factor is applied when dimensioning SITOR semiconductor fuses.
Recovery voltage U
w
The recovery voltage (rms value) is the voltage that occurs at the
connections of a fuse link after the power is cut off.
6
Siemens · 10/2015
■
More information
Load capability with increased ambient temperature
The time/current characteristic curve of the NEOZED/DIAZED
and LV HRC fuse links is based on an ambient temperature of
20 °C ± 5 °C in accordance with DIN VDE 0636. When used in
higher ambient temperatures (see diagram) a reduced load-car-
rying capacity must be planned for. At an ambient temperature
of 50 °C, for example, an LV HRC fuse link should be dimensioned for only 90 % of the rated current. While the short-circuit
behavior is not influenced by an increased ambient temperature,
it is influenced by overload and operation at rated value.
120
100
90
80
60
40
Current carrying capacity [%]
20
0
Influence of the ambient temperature on the load capability of
NEOZED/DIAZED and LV HRC fuses of operational class gG with
natural convection in the distribution board.
5020 40 60 80 100 1200
Ambient temperature [°C]
I201_06648c
© Siemens AG 2016
Assignment of cable and line protection
When gG fuses are assigned for cable and line protection
against overloading, the following conditions must be met in
order to comply with DIN VDE 0100 Part 430:
(1) I
= In = Iz (rated current rule)
B
= 1.45 × Iz (tripping rule)
(2) I
2
: Operational current of electrical circuit
I
B
: Rated current of selected protective device
I
n
: Permissible current carrying capacity of the cable or line
I
z
under specified operating conditions
I
: Tripping current of the protective device under specified
2
operating conditions ("high test current").
These days, the factor 1.45 has become an internationally
accepted compromise of the protection and utilization ratio of a
line, taking into account the breaking response of the protective
device (e.g. fuse).
In compliance with the supplementary requirements for
DIN VDE 0636, Siemens fuse links of operational class gG
comply with the following condition:
"Load breaking switching with I
test duration under special test conditions in accordance with
the aforementioned supplementary requirements of
DIN VDE 0636".
This therefore permits direct assignment.
Fuse Systems
Introduction
=1.45 × In during conventional
2
Siemens · 10/2015
7
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
■
Overview
The NEOZED fuse system is primarily used in distribution technology and industrial switchgear assemblies. The system is easy
to use and is also approved for domestic installation.
The MINIZED switch disconnectors are primarily used in switchgear assemblies and control engineering. They are approved for
switching loads as well as for safe switching in the event of short
circuits. The MINIZED D02 is also suitable for use upstream of
the meter in household applications in compliance with the
recommendations of VDEW according to TAB 2007.
© Siemens AG 2016
Due to its compact design, the MINIZED D01 fuse switch
disconnector is primarily used in control engineering.
The NEOZED fuse bases are the most cost-effective solution for
using NEOZED fuses. All NEOZED bases must be fed from the
bottom to ensure that the threaded ring is insulated during removal of the fuse link. The terminals of the NEOZED bases are
available in different versions and designs to support the various
installation methods.
Fuse bases D01 with terminal version BB
• Incoming feeders, clamp-type terminal B
• Outgoing feeders, clamp-type terminal B
Fuse bases D02, with terminal version SS
• Incoming feeders, saddle terminal S
• Outgoing feeders, saddle terminal S
Fuse bases D02, with terminal version KS
• Incoming feeders, screw head contact K
• Outgoing feeders, saddle terminal S
8
Siemens · 10/2015
■
Technical specifications
Standards
Operational class
Rated voltage U
Rated current I
Rated breaking capacity kA AC
Non-interchangeability
Resistance to climate °C
Ambient temperature °C
n
n
NEOZED fuse links
5SE2
IEC 60269-3; DIN VDE 0636-3
gG
VAC 400
VDC
A 2...100
kA DC
250
50
8
Using adapter sleeves
Up to 45 at 95 % rel. humidity
-5 to +40, humidity 90 % at 20
© Siemens AG 2016
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
MINIZED
switch disconnectors
D02
5SG71
Standards
Main switch characteristic,
EN 60204-1
Insulation characteristic
EN 60664-1
Rated voltage U
•1P VDC
• 2P in series V DC
Rated current I
Rated insulation voltage VAC
Rated impulse withstand voltage KV AC
Overvoltage category
Utilization category acc. to VDE 0638
•AC-22 A 63 16 --
Utilization category acc. to EN 60947-3
•AC-22A A -- 16 --
•AC-22B A
•AC-23B A
• DC-22 B A
Sealable
When switched on
Mounting position
Reduction factor of I
• Side-by-side mounting 0.9 --
• On top of one another, with vertical standard
mounting rail
Degree of protection acc. to IEC 60529
Terminals
With touch protection acc. to BGV A3
Ambient temperature °C
Terminal versions
Conductor cross-sections
• Solid and stranded mm
• Flexible, with end sleeve mm
• Finely stranded, with end sleeve mm
Tightening torque Nm
1)
Degree of protection IP20 is tested according to regulations using a
straight test finger (from the front), with the device mounted and equipped
with a cover, housing or some other enclosure.
n
n
with 18 pole
n
VAC 230/400, 240/415 400
A 63 16 16 63 100 16/63 16/63
DIN VDE 0638;
EN 60947-3
(VDE 0660-107)
IEC/EN 60947-3
Yes -- --
Yes -- --
65 48 250
130 110 250
500 400 --
6 2.5 --
IV IV --
63 -- --
35 -- --
63 -- --
Yes Yes, with sealable screw caps
Any, preferably vertical
0.87 --
IP20, with connected conductors
Yes No Ye s
-5 to +40, humidity 90 % at 20
-- -- B K, S K/S -- --
2
1.5 ... 35 1.5 ... 16 1.5 ... 4 1.5 ... 25 10 ... 50 0.75 ... 35 1.5 ... 35
2
1.5 ... 35 1.5 1.5 1.5 10 -- --
2
-- -- 0.75 ... 25 -- -- -- --
2.5 ... 3 2.5 1.2 2 3.5/2.5 3.5 3
MINIZED fuse
switch disconnectors
D01
5SG76
Fuse bases,
made of ceramic
D01
5SG15
5SG55
IEC 60269-3; DIN VDE 0636-3
1)
D02
5SG16
5SG56
D03
5SG18
Comfort
bases
D01/02
5SG1. 01
5SG5.01
Fuse bases
5SG1. 30
5SG1. 31
5SG5.30
Siemens · 10/2015
9
214
3
54
214
3
81
6
5
214
3
108
65N
N
70
44
45
5
90
I2_12122
81
27
79
70
44
55
5
90
45
I201_17072
246
135
I201_07988a
18 36 54 72
644
64
107
45
88
70
83
45
64
446,2
I2_12123
I201_07536b
71,5
58,7
45
26,6 79,8
4
44
47,2
59,2
Protective
caps
© Siemens AG 2016
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
■
Dimensional drawings
5SG71.3 MINIZED D02 switch disconnectors, with draw-out technology
1P 1P+N 2P 3P 3P+N
Locking cap for MINIZED D02 switch disconnectors
5SG76 MINIZED D01 fuse switch disconnectors, with draw-out technology
1P 1P+N, 2P 3P 3P+N
Fuse bases with touch protection BGVA3 (VBG4), molded plastic
Sizes D01/D02, with combined terminal, can be busbar mounted With cover
5SG1301,
5SG1701
10
5SG5301,
5SG5701
Siemens · 10/2015
5SG1330,
5SG1331,
5SG1730,
5SG1731
5SG5330,
5SG5730
NEOZED fuse bases made of ceramic
a
i
e
c
d
b
h
g
k
I201_06258b
screw cap
touch
protection
cover
I2_07537
71,5
45
26,6
79,8
16
I201_06206
45
21
1227
70
18
I201_06207
60
45
45
13
Sizes D01/D02/D03
5SG15 5SG55
© Siemens AG 2016
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
Typ e Versio n Size Connection
Snap-on with cover
5SG1553
5SG1653
5SG1693
5SG5553
5SG5653
5SG5693
Snap-on without cover
5SG1595
5SG1655
5SG1695
5SG1812
5SG5555
5SG5655
5SG5695
Screw-on without cover
5SG1590
5SG1650
5SG1810
5SG5550
5SG5650
5SG5690
Legend
Connection type:
K = Screw head contact
B = Clamp-type terminal
S = Saddle terminal
1-pole D01 BB 26.8 36 40 56 70 23/26.5 54 -- --
3-pole D01 BB 80.8 36 40 56 70 23/26.5 54 -- --
1-pole D01 BB 26.8 36 40 56 70 23/26.5 54 -- --
3-pole D01 BB 80.8 36 40 56 70 23/26.5 54 -- --
1-pole D01 BB 26.8 36 40 56 70 23/26.5 54 20 22
3-pole D01 BB 80.8 36 40 56 70 23/26.5 54 74 22
D02 SS 26.8 36 41 56 70 23/26.5 59 -- -D02 KS 26.8 36 41 56 70 23/26.5 60 -- --
D02 SS 80.8 36 41 56 70 23/26.5 59 -- -D02 KS 80.8 36 41 56 70 23/26.5 60 -- --
D02 SS 26.8 36 41 56 70 23/26.5 59 -- -D02 KS 26.8 36 41 56 70 23/26.5 60 -- -D03 KS 44.9 50 44 54.5 76 44 86 -- --
D02 SS 80.8 36 41 56 70 23/26.5 59 -- -D02 KS 80.8 36 41 56 70 23/26.5 60 -- --
D02 SS 26.8 36 41 56 70 23/26.5 59 20 22
D03 KS 44.9 50 46 54.5 76 44 86 32 32
D02 SS 80.8 36 41 56 70 23/26.5 59 74 22
D02 KS 80.8 36 41 56 70 23/26.5 60 74 22
type
Dimensions
a b c d e g
BB = Clamp-type terminal at incoming feeder
SS = Saddle terminal at incoming feeder
KS = Screw head contact at incoming feeder
NEOZED covers made of molded plastic
NEOZED covers for NEOZED fuse bases, made of molded plastic
Clamp-type terminal at outgoing feeder
Saddle terminal at outgoing feeder
Saddle terminal at outgoing feeder
Not sealed/
sealed
h i k
5SH5244 (A1) 5SH5245 (A2)
NEOZED covers for NEOZED fuse bases, made of ceramic
I201_06209
81
5SH5251 (A4) and 5SH5253 (A10) 5SH5252 (A5) and 5SH5254 (A11) 5SH5233 (A6)
45
70
12
21
Siemens · 10/2015
11
a
b
Size
n
A
D01/E14 2 ... 16
D02/E18 20 ... 63
D03/M30 80 ... 100
2
1
214
3
1212N
N
123456N
N
© Siemens AG 2016
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
NEOZED screw caps
5SH4 Typ e Size Sealable For mounting
5SH4116 D01 -- 70 27.5 24
5SH4163
5SH4316
5SH4363
5SH4100
5SH4317
5SH4362
D02 -- 70 27.5 24
D01 ✔ 70 33 26.5
D02 ✔ 76 33 26.5
D03 -- 70 37 44
D01 -- 70 29.5 25
D02 -- 70 30.5 25
NEOZED fuse links
Size/thread Rated current in A Dimension
D01/E14 2...16 9.8 11 6 36
D02/E18
D03/M30
20 ... 63 13.8 15.3 10 36
80 ... 100 20.8 22.5 36 43
d
2min
depth
Dimension
d
3
Dimensions
a b
Dimension
d
4max
Dimension
h
■
Circuit diagrams
Graphical symbols
5SG71.3 MINIZED D02 switch disconnectors, with draw-out technology
N
1
1
2
2
N
5SG7113 5SG7153 5SG7123 5SG7133
1P 1P+N 2P 3P 3P+N
5
21436
5SG7133-8BA25
5SG7133-8BA35
5SG7133-8BA50
5SG76 MINIZED D01 fuse switch disconnectors, with draw-out technology
123
4
5SG7610 5SG7650 5SG7620 5SG7630 5SG7660
1P 1P+N 2P 3P 3P+N
12345
6
NEOZED fuse bases/fuses in general
5SG1 5SG5
1P 3P
21436
5SG7163
5
N
N
12
Siemens · 10/2015
■
p
[A]
[s]
I201_10887
46810
1
24
6810
2
24681032
4
6
10
-2
2
4
6
2
4
6
10
0
2
4
6
10
1
10
-1
2
4
6
2
4
6
10
3
2
4
6
10
4
10
2
2
4
2 A
4 A
6 A
10 A
13 A
16 A
20 A
25 A
32 A
35 A
50 A
40 A
63 A
80 A
100 A
vs
1 0
1
2
64 1 0
2
8
2
64 8 2 64
4
6
1 0
2
4
6
1 0
c
e f f
[ A ]
[ A ]
I 2 _ 1 0 8 8 8
2
4
6
1 0
2
2 4
2
3
4
1 0
3
8
1 0
4
6 8
1 0
5
2 4
1
2
4 A
2 A
1 0 0 A
8 0 A
6 3 A
5 0 A
4 0 A
3 5 A
3 2 A
2 5 A
2 0 A
1 6 A
1 3 A
1 0 A
6 A
2 6 1 01 0 4
0
2
64 1 0
1
8 2 64 1 028
3
8 2 6 1 0448
1 0
2
4
6
1 0
2
4
6
1 0
2
4
6
1 0
2
4
6
1 0
2
4
6
1 0
2
4
6
1 0
I 2 _ 1 0 8 8 9
0
1
2
3
4
5
6
e f f
[ A ]
2
s
[ A s ]
2
6
4
1 00s
1 0
- 1
s 1 0
- 2
s
1 0
- 3
s
1 0
- 4
s
8 0 A
6 3 A
5 0 A
4 0 A
3 5 A
2 5 A
2 0 A
1 6 A
1 3 A
1 0 A
6 A
4 A
2 A
3 2 A
1 0 0 A
Characteristic curves
Series 5SE2
Sizes: D01, D02, D03
Operational class: gG
Rated voltage: 400 V AC/250 V DC
Rated current: 2 ... 100 A
Time/current characteristics diagram
© Siemens AG 2016
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
Melting I2t values diagram
Current limiting diagram
Peak short-circuit current with largest DC component
$
% Peak short-circuit current without DC component
Ta bl e see page 14.
Siemens · 10/2015
13
Fuse Systems
NEOZED Fuse Systems
NEOZED fuse links
Series 5SE2
Sizes: D01, D02, D03
Operational class: gG
Rated voltage: 400 V AC/250 V DC
Rated current: 2 ... 100 A
Typ e I
5SE2302
5SE2304
5SE2306
5SE2310
5SE2013-2A
5SE2316
5SE2320
5SE2325
5SE2332
5SE2335
5SE2340
5SE2350
5SE2363
5SE2280
5SE2300
n
A W K A2s A2s A2s A2s
2 1.6 19 1.2 1.4 2.9 3.9
4 1.3 14 12.5 13.6 22 30
6 1.7 19 46.7 48 58 75
10 1.3 16 120 136 220 280
13 2.0 23 220 244 290 370
16 2.1 24 375 410 675 890
20 2.4 26 740 810 1250 1650
25 3.2 33 1210 1300 1900 2600
32 3.6 34 2560 2800 4300 5500
35 3.8 36 3060 3500 5100 6500
40 4.0 37 4320 4800 7900 9500
50 4.2 38 6750 7400 10500 13000
63 5.3 45 10000 10900 16000 20500
80 5.3 43 13000 15400 25000 34500
100 6.4 47 22100 30000 46000 60000
P
v
© Siemens AG 2016
I2t
1ms 4ms 230 V AC 400 V AC
s
I2t
a
(t < 4ms)
14
Siemens · 10/2015
■
Overview
The DIAZED fuse system is one of the oldest fuse systems in
the world. It was developed by Siemens as far back as 1906.
It is still the standard fuse system in many countries to this day.
It is particularly widely used in the harsh environments of industrial applications.
The series is available with rated voltages from 500 V to 750 V.
All DIAZED bases must be fed from the bottom to ensure an
insulated threaded ring when the fuse link is being removed.
Reliable contact of the fuse links is only ensured when used
together with DIAZED screw adapters.
The terminals of the DIAZED bases are available in different versions and designs to support the various installation methods.
The high-performing EZR bus-mounting system for screw fixing
is an outstanding feature. The busbars, which are particularly
suited for bus-mounting bases, have a load capacity of up to
150 A with lateral infeed.
DIAZED stands for Dia
system mit Ed
isongewinde (diametral two-step fuse system with
metral gestuftes zweiteiliges Sicherungs-
Edison screw).
© Siemens AG 2016
■
Benefits
1
2
3
4
5 9
6 10
7 11
8
Fuse Systems
DIAZED fuse systems
1
2
5
6
7
11
DIAZED cap for fuse bases
DIAZED collar for fuse bases
DIAZED fuse bases
DIAZED cover for fuse bases
DIAZED screw adapter
DIAZED fuse link
DIAZED screw cap
DIAZED fuse base (with touch protection BGV A3)
3
4
9
10
i201_18300
8
DIII fuse bases with terminal version BS
• Outgoing feeders (top), saddle terminal S
• Incoming feeders (bottom), clamp-type terminal B
DIII fuse bases with terminal version BB
• Outgoing feeders (top), clamp-type terminal B
• Incoming feeders (bottom), clamp-type terminal B
NDZ fuse bases with terminal version KK
• Outgoing feeders (top), screw head contact K
• Incoming feeders (bottom), screw head contact K
DIII fuse bases with terminal version SS
• Outgoing feeders (top), saddle terminal S
• Incoming feeders (bottom), saddle terminal S
Siemens · 10/2015
15
© Siemens AG 2016
Fuse Systems
DIAZED fuse systems
■
Technical specifications
5SA, 5SB, 5SC, 5SD
Standards
Operational class Acc. to IEC 60269;
Characteristic Acc. to DIN VDE 0635
Rated voltage U
Rated current I
Rated breaking capacity kA AC
Overvoltage category
Mounting position
Non-interchangeability
Degree of protection Acc. to IEC 60529
Resistance to climate °C Up to 45, at 95 % rel. humidity
Ambient temperature °C
1)
Degree of protection IP20 is tested according to regulations using a
straight test finger (from the front), with the device mounted and equipped
with a cover, housing or some other enclosure.
n
n
DIN VDE 0636
V AC 500, 690, 750
V DC
A 2...100
kA DC
IEC 60269-3; DIN VDE 0635; DIN VDE 0636-3; CEE 16
gG
Slow and quick
500, 600, 750
50, 40 at E16
8, 1.6 at E16
III
II (DIAZED fuse bases made of molded plastic for use at 690 V AC / 600 V DC)
Any, preferably vertical
Using screw adapter or adapter sleeves
IP20, with connected conductors
-5 to +40, humidity 90 % at 20
1)
Terminal version
B K S R
Size
Conductor cross-sections
• Rigid, min. mm
• Rigid, max. mm
• Flexible, with end sleeve mm
Tightening torque
• Screw M4 Nm 1.2 --
• Screw M5 Nm
• Screw M6 Nm
• Screw M8 Nm
DII DIII NDz DII DIII DIII DIV DII DIII
2
1.5 2.5 1.0 1.5 2.5 2.5 10 1.5 1.5
2
10 25 6 10 25 25 50 35 35
2
10 25 6 10 25 25 50 35 35
2.0 --
2.5 3.0
3.5 --
16
Siemens · 10/2015
49
I201_06251a
13,2
d
I201_06247
d
49
22,5
49
I201_06248
d
28
34,5
57
d
I201_06682
70
I201_06329a
ød
ø28
© Siemens AG 2016
■
Dimensional drawings
DIAZED fuse links
5SA1, 5SA2 Size/thread TNDz/E16, NDz/E16
Rated current in A 2 4 6 10 16 20 25
Dimension d
5SB1, 5SB2 Size/thread DII/E27
Rated current in A 2 4 6 10 16 20 25
Dimension d
5SB3, 5SB4 Size/thread DIII/E33
Rated current in A 32 35 50 63
Dimension d
6 6 6 8 10 12 14
6 6 6 8 10 12 14
16 16 18 20
Fuse Systems
DIAZED fuse systems
5SC1, 5SC2 Size/thread DIV/R1¼"
Rated current in A 80 100
Dimension d
5SD6, 5SD8 Size/thread DIII/E33
Rated current in A 2 4 6 10 16 20 25 35 50 63
Dimension d
5 7
6 6 6 8 10 12 14 16 18 20
Siemens · 10/2015
17
Fuse Systems
I201_06242
a
b
h
Øi
c
g
d
e
80
max.113
12
5
105
50
65
M6
I2_06443a
I201_11344
a
b
43,6
6
80
DIAZED fuse systems
DIAZED fuse bases made of ceramic
5SF1
5SF4230
© Siemens AG 2016
Version
Typ e a b c d e g h i
NDz/25 A
5SF1012 KK 29 49 44.6 55 75 32 49 --
DII/25 A
5SF1005 BB 38.4 41 46.6 53 83 34 63 --
5SF1024
DIII/63 A
5SF1205 BS 45.5 46 47 54 83 43 78 --
5SF1215
5SF1224
DIV/100 A
5SF1401 Flat terminal 68 68 -- 79 110 65 116 6.5
Connection
type
Dimensions
BB 38.4 41 46.6 53 83 34 63 4.3
SS 45.5 46 47 54 83 43 78 -BS 45.5 46 47 54 83 43 78 4.3
DIAZED fuse bases made of molded plastic
5SF1, 5SF5 Typ e Dimensions
5SF1060
5SF1260
5SF5068
5SF5268
a b
40 -50 --
-- 120
-- 150
18
Siemens · 10/2015
41,5
45
18
11
14
max.83
31
16
27
max.38,5
30
20,5
31
5
I2_06444a
34
max.49
3722
5,3
34
51,5
55
18
11
14
max.83
31
I2_06445a
16
a
I201_06257
b
I201_13741a
b
a
I201_06242
a
b
h
Øi
c
g
d
e
© Siemens AG 2016
Fuse Systems
DIAZED fuse systems
DIAZED EZR bus-mounting bases
5SF6005 5SF6205
DIAZED screw caps/cover rings made of molded plastic/ceramic
Screw caps Cover rings Screw caps Cover rings
5SH1 5SH3 Size/thread
NDz/E16
DII/E27 5SH1221 42 33 5SH3401 17.5 39.5
DIII/E33 5SH1231 42 40 5SH3411 17.5 49.5
Typ e Dimensions Typ e Dimensions
a b a b
5SH1112 36 24
5SH112 45.5 34 5SH332 17.5 41.5
5SH122 43 39
5SH113 45.5 43 5SH334 19 51.5
5SH123 47 45
5SH1161 48 48
5SH1170 68 43
DIAZED caps made of molded plastic
5SH2 Size/thread Ty pe Dimensions
NDz/E16 5SH201 33 68 51.7 75
DII/E27
DIII/E33
5SH202 43 74.7 53.6 83
5SH222 51 90.5 53.6 83
a
max
b
max
c
max
d
max
Siemens · 10/2015
19
Fuse Systems
210
0
10
-3
2
4
6
10
-2
6410
1
82 64
10
2
824
2
4
6
10
-1
2
4
6
10
0
2
4
6
10
1
2
4
6
10
2
2
4
6
10
3
2
4
6
10
4
I2_06069c
6
10
3
8
2 A
vs
[A]
[s]
4 A 6 A 10 A 20 A
16 A 25 A
ef
ef
10
2
2
6410
3
8
2
4
6
2
4
6
10
I2_07032b
5
2 A
c
[A]
[A]
10
2
6
10
3
2
4
6
10
4
2
6410
4
8
2
6410
5
8
2
4
4 A
6 A
10 A
16 A
20 A
25 A
1
2
261010 4
0
2
6410
1
82 6410
2
8
3
82 610448
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
I2_07545c
0
1
2
3
4
5
6
25 A
20 A
16 A
2 A
[A]
2
s
[A s]
2
100s
10-1s
10-2s
10-3s
10-4s
4 A
6 A
10 A
ef
DIAZED fuse systems
■
Characteristic curves
Series 5SA2
Size: E16
Characteristics: Slow
Rated voltage: 500 V AC/500 V DC
Rated current: 2 ... 25 A
Time/current characteristics diagram
© Siemens AG 2016
Melting I2t values diagram
Current limiting diagram
$
Peak short-circuit current with largest DC component
% Peak short-circuit current without DC component
20
Siemens · 10/2015
Typ e I
A W K A2s A2s
5SA211
5SA221
5SA231
5SA251
5SA261
5SA271
5SA281
10 1.4 17 200 190
16 2.4 30 290 550
20 2.6 36 470 1990
25 3.4 34 1 000 2090
Typ e I2t
230 V AC 320 V AC 500 V AC
A2s A2s A2s
5SA211
5SA221
5SA231
5SA251
5SA261
5SA271
5SA281
1200 1350 1620
2400 2600 3450
n
2 0.85 15 1.2 2.3
4 1.3 17 8.5 13
6 1.9 14 40 80
a
22 26 34
66 76 100
240 270 340
890 950 1 090
P
v
6.6 7.8 0.7
I2t
1ms 4ms
s
Series 5SB2, 5SB4, 5SC2
210
0
10
-3
2
4
6
10
-2
6410
1
82 64
10
2
824
2
4
6
10
-1
2
4
6
10
0
2
4
6
10
1
2
4
6
10
2
2
4
6
10
3
2
4
6
10
4
6
10
3
8
vs
[A]
[s]
2
I2_07551a
2 A
4 A
6 A
10 A
16 A
20 A
25 A
32 A
35 A
50 A
63 A
80 A
100 A
ef
10
2
2
6410
3
8
2
4
6
2
4
6
10
I2_06055b
5
2 A
c
[A]
[A]
10
2
6
10
3
2
4
6
10
4
2
6410
4
8
2
6410
5
8
2
4
4 A
6 A
10 A
16 A
20 A
25 A
32 A
50 A
63 A
80 A
100 A
1
2
35 A
ef
Size: DII, DIII, DIV
Operational class: gG
Rated voltage: 500 V AC/500 V DC
Rated current: 2 ... 100 A
Time/current characteristics diagram
© Siemens AG 2016
Melting I2t values diagram
6
10
6
4
2
2
[A s]
s
5
10
2
6
4
2
4
10
6
4
2
3
10
6
4
2
2
10
6
4
2
1
10
6
4
2
0
10
0
100s
2
10-1s
10-2s
1
6410
82 6410
10-3s
Fuse Systems
DIAZED fuse systems
10-4s
2
261010 4
8
82 610448
I2_07552a
100 A
80 A
63 A
50 A
35 A
32 A
25 A
20 A
16 A
10 A
6 A
4 A
2 A
3
[A]
ef
Typ e I
Current limiting diagram
$ Peak short-circuit current with largest DC component
% Peak short-circuit current without DC component
5SB211
5SB221
5SB231
5SB251
5SB261
5SB271
5SB281
5SB4010
5SB411
5SB421
5SB431
5SC211
5SC221
Typ e I2t
5SB211
5SB221
5SB231
5SB251
5SB261
5SB271
5SB281
5SB4010
5SB411
5SB421
5SB431
5SC211
5SC221
n
A W K A2s A2s
10 1.6 20 120 140
16 2.4 23 500 580
20 2.6 26 750 1100
25 3.4 38 1600 2000
32 3.6 23 2300 2500
35 3.7 25 3450 3000
50 5.7 41 6500 5200
63 6.9 48 11000 12 000
80 7.5 33 14600 16 400
100 8.8 46 28600 30 000
230 V AC 320 V AC 500 V AC
A2s A2s A2s
1200 1450 1 620
2400 3150 3 450
3450 4150 4 850
5200 6200 7 200
9750 12350 14500
16500 22200 26500
23000 28500 32500
44000 56000 65000
P
v
2 2.6 15 3.7 3.9
4 2.0 13 15 16
6 2.2 14 42 45
a
6.6 8.8 10.7
22 28 34
66 85 100
240 300 340
890 1 060 1090
I2t
s
1ms 4ms
Siemens · 10/2015
21
ef
10
2
2
6410
3
8
2
4
6
I2_07101a
2 A
c
[A]
[A]
10
2
6410
4
8
2
6410
5
8
2
4
4 A
6 A
10 A
16 A
20 A
25 A
2
10
3
6
2
4
10
4
6
2
63 A
50 A
35 A
1
2
261010 4
0
2
6410
1
82 6410
2
8
3
82 610448
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
I2_06425b
0
1
2
3
4
5
6
2 A
[A]
2
s
[A s]
2
100s
10-1s
10-2s
10-3s
10-4s
25 A
20 A
16 A
4 A
6 A
10 A
35 A
50 A
63 A
ef
© Siemens AG 2016
Fuse Systems
DIAZED fuse systems
Series 5SD8
Size: DIII
Operational class: gG
Rated voltage: 690 V AC/600 V DC
Rated current: 2 ... 63 A
Time/current characteristics diagram
4
10
6
4
[s]
vs
2
3
10
6
4
2
2
10
6
4
2
1
10
6
4
2
0
10
6
4
2
-1
10
6
4
2
-2
10
6
4
2
-3
10
0
210
4 A 10 A 20 A 30 A 63 A
2 A 6 A 16 A 25 A 50 A
1
6410
82 64
2
10
824
6
8
[A]
ef
Current limiting diagram
$
Peak short-circuit current with largest DC component
% Peak short-circuit current without DC component
22
Siemens · 10/2015
Melting I2t values diagram
I2_06412c
Typ e I
3
10
5SD8002
5SD8004
5SD8006
5SD8010
5SD8016
5SD8020
5SD8025
5SD8035
5SD8050
5SD8063
n
P
v
I2t
s
I2t
a
4ms 242 V AC
A W A2s A2s
2 1 4.4 7
4 1.2 40 62
6 1.6 88 140
10 1.4 240 380
16 1.8 380 600
20 2 750 1 200
25 2.3 2000 3 200
35 3.1 3300 5 100
50 4.6 7000 11 000
63 5.5 9500 15 000
21 0
0
1 0
- 3
2
4
6
1 0
- 2
64 1 018 2 64
1 0
2
8 2 4
2
4
6
1 0
- 1
2
4
6
1 0
0
2
4
6
1 0
1
2
4
6
1 0
2
2
4
6
1 0
3
2
4
6
1 0
4
I 2 _ 0 6 0 4 8 a
6
1 0
3
8
v s
e f f
[ A ]
[ s ]
2 A 6 A 5 0 A2 5 A1 6 A
4 A 1 0 A 2 0 A 3 0 A 6 3 A
10
2
2
6410
3
8
2
4
I2_06411a
2 A
c
[A]
[A]
10
2
6410
4
8
2
6410
5
8
2
4
4 A
6 A
10 A
16 A
20/25 A
2
10
3
6
2
4
10
4
6
63 A
50 A
35 A
1
2
ef
261010 4
0
2
6410
1
82 6410
2
8
3
82 610448
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
2
4
6
10
I2_06077b
-1
0
1
2
3
4
5
[A]
2
s
[A s]
2
6 A
2 A
4 A
10 A
16 A
20 A
25 A
35 A
50 A
63 A
10-1s
10-2s
10-3s
10-4s
100s
ef
© Siemens AG 2016
Series 5SD6
Size: DIII
Operational class: Quick (railway network protection)
Rated voltage: 750 V AC/750 V DC
Rated current: 2 ... 63 A
Time/current characteristics diagram
Fuse Systems
DIAZED fuse systems
Melting I2t values diagram
Typ e I
Current limiting diagram
Peak short-circuit current with largest DC component
$
% Peak short-circuit current without DC component
5SD601
5SD602
5SD603
5SD604
5SD605
5SD606
5SD607
5SD608
5SD610
5SD611
n
A W A2s A2s
2 2.8 0.7 2
4 4 4.5 13
6 4.8 10 29
10 4.8 50 135
16 5.9 78 220
20 6.3 125 380
25 8.3 265 800
35 13 550 1600
50 16.5 1800 5 500
63 18 3100 9 600
P
v
I2t
s
I2t
a
4ms 500 V AC
Siemens · 10/2015
23
Fuse Systems
Cylindrical Fuse Systems
Cylindrical fuse links and cylindrical fuse holders
■
Overview
Cylindrical fuses are standard in Europe. There are a range of
different cylindrical fuse links and holders that comply with the
standards IEC 60269-1, -2 and -3, and which are suitable for use
in industrial applications. In South West Europe they are also
approved for use in residential buildings.
The cylindrical fuse holders are also approved according to
UL 512. The cylindrical fuse holders are tested and approved as
fuse disconnectors according to the switching device standard
IEC 60947-3. They are not suitable for switching loads.
Cylindrical fuse holders can be supplied with or without signal
detectors. In the case of devices with signal detector, a small
electronic device with LED is located behind an inspection
window in the plug-in module. If the inserted fuse link is tripped,
this is indicated by the LED flashing.
The switching state of the fuse holder can be signaled over a
laterally retrofitted auxiliary switch, which enables the integration
of the fuses in the automation process.
■
Technical specifications
Size mm × mm
Standards
Operational class
Rated voltages U
Rated current I
Rated breaking capacity
• 500 V versions kA AC
• 400 V versions kA AC
Mounting position
n
n
VAC 400 400 or 500
A 2...20 0.5 ... 32 4...50 8...100 0.5 ... 32 2...50 10 ... 100
© Siemens AG 2016
■
Benefits
• Devices with pole number 1P+N are available in a single
modular width. This reduces the footprint by 50 %
• The sliding catch for type ranges 8 x 32 mm and 10 x 38 mm
enables the removal of individual devices from the assembly
• Space for a spare fuse in the plug-in module enables the
fast replacement of fuses. This saves time and money and
increases system availability
• A flashing LED signals that a fuse link has been tripped.
This enables fast detection during runtime
Cylindrical fuse links
3NW63.. 3NW60.. 3NW61.. 3NW62.. 3NW80.. 3NW81.. 3NW82..
8×32 10 × 38 14 × 51 22 × 58 10 × 38 14 × 51 22 × 58
IEC 60269-1, -2, -3; NF C 60-200; NF C 63-210, -211; NBN C 63269-2, CEI 32-4, -12
gG aM
-- 120 100
20 120 120
Any, preferably vertical
20
120 100
20
Cylindrical fuse holders
3NW73.. 3NW70.. 3NW71.. 3NW72..
Size mm × mm
Standards
Approvals Acc. to UL
Rated voltage U
Rated current I
Rated breaking capacity kA
Breaking capacity
• Utilization category AC-20B (switching without load), DC-20B
No-voltage changing
of fuse links
Sealable
when installed
Mounting position
Degree of protection Acc. to IEC 60529
Terminals with touch protection
according to BGV A3 at incoming
and outgoing feeder
Ambient temperature °C -5 to +40, humidity 90 % at +20
Conductor cross-sections
• Rigid mm
•Stranded mm
• Finely stranded, with end sleeve mm
• AWG (American Wire Gauge) AWG
Tightening torque Nm
1)
Degree of protection IP20 is tested according to regulations using a
straight test finger (from the front), with the device mounted and equipped
with a cover, housing or some other enclosure.
2)
Max. cross-section 10 mm2 with K28 crimper from Klauke.
n
n
Acc. to CSA
Acc. to UL/CSA V AC
VAC 400 690
AAC 20 32 50 100
2
2
2
8×32 10 × 38 14 × 51 22 × 58
IEC 60269-1, -2, -3; NF C 60-200, NF C 63-210, -211; NBN C 63269-2-1; CEI 32-4, -12;
UL 4248-1
-- U U --
-- s s --
400 600
20 100
Ye s
Ye s
Any, preferably vertical
IP20, with connected conductors
Ye s
0.5 ... 10 2.5 ... 10 4...10
0.5 ... 10 2.5 ... 25 4...50
2)
0.5 ... 10
-- 10 ... 20 6...10 --
1.2 2.0 2.5
1)
2.5 ... 16 4...35
24
Siemens · 10/2015
31,5
8,5
I2_06702c
58
22,2
I2_06704c
I201_12124
18 18 36 54 54 44
64
45
81
7
2
55
43
90
45
27
54
81 108
I201_07853b
7
70
70
43
45
7
117
I201_07869c
144
108
72
36
48,5
5
45
90
9
I201_10891
49,8
© Siemens AG 2016
Cylindrical Fuse Systems
Cylindrical fuse links and cylindrical fuse holders
■
Dimensional drawings
I2_06703c
38
Size
8 × 32 mm 10 × 38 mm 14 × 51 mm 22 × 58 mm
3NW70, 3NW73
1P 1P + N 2P 3P 3P+N
10,3
I2_06701c
14,3
51
Fuse Systems
3NW71
1P 1P+N/2P 3P 3P+N
3NW72
1P 1P+N/2P 3P 3P+N
Auxiliary switches
3NW7901
3NW7902
I201_15459
45
83
4469
64
3NW7903
Siemens · 10/2015
25
Fuse Systems
2
1
22 14
13/21
22
12
21
11
Cylindrical Fuse Systems
Cylindrical fuse links and cylindrical fuse holders
■
Circuit diagrams
Graphical symbols
21N
© Siemens AG 2016
214
21436
2
N
1P 1P+N 2P 3P 3P+N
3
5
Auxiliary switches
3NW7901
3NW7902
3NW7903
NN56341
26
Siemens · 10/2015
■
2
4
6
2
4
6
2
4
6
2
4
6
2
4
6
2
4
6
2
4
6
2
4
6
2 4 6 8 2 4 6 8 2 4 6 8 2 4 6 8 10
1
10
2
10
3
10
-4
10
-3
10
-2
10
-1
10
0
10
1
10
2
10
3
10
4
10
4
32 A
25 A
20 A
16 A
12 A
10 A
8 A
6 A
4 A
2 A
1 A
0,5 A
[A]
p
[s]
vs
Prospective short-circuit current
Virtual pre-arcing time
I201_19158
Characteristic curves
3NW60 series
Size: 10 × 38 mm
Operational class: gG
Rated voltage: 500 V AC (0.5 ... 25 A),
400 V AC (32 A)
Rated current: 2 ... 32 A
Time/current characteristics diagram
© Siemens AG 2016
Melting I2t values diagram
10
s]
2
t [A
2
10
10
10
10
10
10
Fuse Systems
Cylindrical Fuse Systems
Cylindrical fuse links and cylindrical fuse holders
4
6
4
2
3
6
4
2
2
6
4
2
1
6
4
2
0
6
4
2
-1
6
4
2
-2
500 V
400 V
230 V
0,512
²t
s
²t
a
681012
4
162025 32
n
[A]
I201_19160a
Current limiting diagram
$
% Peak short-circuit current without DC component
4
10
6
4
[A]
c
2
3
10
6
4
2
Peak current
2
10
6
4
2
1
10
5
36 246 246 246 246
32 A
25 A
20 A
= 2,3
m
p
16 A
12 A
10 A
8 A
6 A
1
10
2
10
Prospective short-circuit current
3
10
10
Peak short-circuit current with largest DC component
Typ e InPv I2tsI2t
a
1ms 230 V AC 400 V AC 500 V AC
A W K A2s A2s A2s A2s
0.5 0.07 On req. 0.06 0.06 0.09 0.10
1 0.45 On req. 0.50 0.45 0.63 0.7
2 0.50 On req. 4 4.80 6.80 7.50
4 0.85 On req. 34 35.70 49.50 55
6 0.95 On req. 12.5 45.50 63 70
8 1.15 On req. 29 10 153 170
10 1.30 On req. 56 201 279 310
12 1.40 On req. 99 344 477 530
16 1.90 On req. 199 630 873 970
20 2.40 On req. 333 975 1350 1500
25 2.70 On req. 619 1560 2160 2400
32 2.80 On req. 1331 3250 4500 --
4 A
I201_19159
3NW6000-1
3NW6011-1
3NW6002-1
3NW6004-1
3NW6001-1
3NW6008-1
3NW6003-1
3NW6006-1
3NW6005-1
3NW6007-1
3NW6010-1
3NW6012-1
2 A
1 A
0,5 A
4
p
5
10
[A]
Siemens · 10/2015
27
Fuse Systems
210
0
10
-2
2
4
6
10
-1
6410
1
82 64
10
2
824
2
4
6
10
0
2
4
6
10
1
2
4
6
10
2
2
4
6
10
3
2
4
6
10
4
I2_06603b
6
10
3
8
vs
[A]
[s]
4 A
6 A
10 A
16 A
20 A
25 A
32 A
40 A
50 A
ef
10
2
c
[A]
[A]
10
I201_06560c
2
468 2 10
3
4
6
8
2
10
4
468
210
5
46
8
2
4
6
6
10
3
2
4
2
4
6
10
4
1
2
4 A
6 A
8 A
10 A
12 A
16 A
20 A
25 A
32 A
40 A
50 A
rms
Cylindrical Fuse Systems
Cylindrical fuse links and cylindrical fuse holders
3NW61series
Size: 14 × 51 mm
Operational class: gG
Rated voltage: 500 V AC (4 ... 40 A),
400 V AC (50 A)
Rated current: 4 ... 50 A
Time/current characteristics diagram
© Siemens AG 2016
Melting I2t values diagram
10
6
4
2
2
[A s]
2
10
6
4
2
10
6
4
2
10
6
4
2
10
6
4
2
10
5
500 A
2
400 A
t
a
230 A
2
t
4
3
2
1
0
4
s
6
10 401650
8 12
20 25 32
[A]
n
I2_06599c
Current limiting diagram
Peak short-circuit current with largest DC component
$
% Peak short-circuit current without DC component
28
Siemens · 10/2015
Typ e InPv I2tsI2t
1ms 230 V AC 400 V AC 500 V AC
A W K A2s A2s A2s A2s
3NW6104-1
3NW6101-1
3NW6108-1
3NW6103-1
3NW6106-1
3NW6105-1
3NW6107-1
3NW6110-1
3NW6112-1
3NW6117-1
3NW6120-1
4 1.9 19 5 16 20 26
6 2.5 25 48 85 100 120
8 2.4 18 110 200 250 350
10 0.8 12 230 420 750 1050
12 1.0 16 390 600 800 1200
16 1.6 27 600 1000 1 400 1700
20 2.3 32.5 670 1400 1800 2100
25 2.2 31.5 1300 2300 2800 3200
32 3.2 39.5 2500 4100 5500 6500
40 4.5 48 3600 6100 8 000 9200
50 4.8 55 8000 12 200 16000 --
a
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