Fiber Data Sheet
Singlemodefiber (SM)
Common
fiber type
standard
fiber decribtion
E9
E9/125 Singlemode Fiber
ITU-T G.652 D; EN188000, EN1888100, EN1888101; VDE 0888/part 102, VDE 0888/part 103, TS 0311/part 3
and TS 0311/part 2 of DTAG
The fiber is ideally designed for use in metropolitan, local and access networks due to its superior specifications - low optical loss aross the entire wavelength range from 1260 to 1625 nm, tightest available geometry,
low splice loss and low polarization mode dispersion.
Mechanical Properties
core diameter d
core concentricity error
cladding diameter
cladding non-circularity
cladding/coating concentricity error
coating non-circularity
fiber diameter
at 1310 nm
at 1550 nm
uncoloured
coloured
tensile strength according to EN 188000 PV201, 1s
strain level
coating strip force
bending radius
Optical Properties
attenuation
attenuation inequality (.......)
attenuation (Makrobending)
attenuation alteration (range -60 up to +85°C)
attenuation for WDM/EÜS
chromatic dispersion
at 1310
at 1383
at 1490
at 1550
at 1625
at 1310
at 1310
at 1310
at 1550
at 1285
at 1260
at 1480
nm
nm
nm
nm
nm
and 1550 nm
and 1550 nm
and 1550 nm
±20 nm
÷ 1330 nm
÷ 1360 nm
÷ 1580 nm
polarization mode dipersion (PMD)
PMD Link Design Value acc. IEC 60794/5.5 Method 1
fiber cut-off wavelength (referred to RTM)
λcf-range
1
µm
µm
µm
µm
%
µm
%
µm
µm
N
kpsi
N
mm
max / typical
≤0.34 / ≤0.32
≤0.31 / ≤0.28
≤0.23 / ≤0.21
≤0.21 / ≤0.19
≤0.23 / ≤0.20
≤0.05
≤0.05
≤0.05
≤0.22
≤3
≤12
≤19
≤0.1
≤0.06
1150÷1330
dB/km
dB/km
dB/km
dB/km
dB/km
dB/km
dB
dB/km
dB/km
ps/(nm*km)
ps/(nm*km)
ps/(nm*km)
ps/√km
ps/√km
nm
1260
nm
point defect at pulse-width 10ns
zero dispersion wavelength
at 1310 and 1550 nm
λ0
≤0.05
1300 ÷ 1322
dB
nm
zero dispersion slope
s0
≤0.092
ps/(nm²*km)
refraction index
at 1310 nm
at 1550 nm
1.467
1.468
cable cut-off wavelength
λcff-range
9.2 ±0.4
10.4 ±0.5
≤0.5
125 ±0.7
0.7
≤12.0
≤6.0
242 ±5
250 ±10
≥8
≥120
≤3.5
≥30
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Fiber Data Sheet
Singlemodefiber (SM) - Low Bend Sensitive
E9/125 Singlemode Fiber with higher Bend Performance
ITU-T G.657 A1, A2/B2; IEC 60793-2-50 type B.1.3
The macrobending and microbending loss improvements of this low bend sensitive fiber offer a number of advantages for demanding access, enterprise and central office applications. The fiber enables more compact cabinet and
enclosure designs and protects the network against excessive loss resulting from inadvertent fiber bends. It is less
susceptible to physical disturbancees from cable flexing, pulling and crushing, as well as the intricate routing conditions within enclosures and cabinets. The optimized bend characteristics of this fiber also help improve cable performance in demanding high-stress and low-temperature environments by providing double the microbend protection
of conventional singl-mode fibers.
Mechanical Properties
core diameter d
coreconcentricity error
cladding diameter
cladding non-circularity
cladding/coating concentricity error
coating non-circularity
fiber diameter
at 1310 nm
at 1550 nm
uncoloured
coloured
tensile strength according to EN 188000 PV201, 1s
strain level
coating strip force
bending radius
Optical Properties
attenuation
refraction index
attenuation inequality (.......)
attenuation alteration (range -60 up to +85°C)
chromatic dispersion
polarization mode dipersion (PMD)
fiber cut-off wavelength (referred to RTM)
at 1310 nm
at 1383 nm
at 1490 nm
at 1550 nm
at 1625 nm
at 1310 nm
at 1550 nm
at 1310 and 1550 nm
at 1310 und 1550 nm
at 1288 ÷1339 nm
at 1550 nm
λcf-range
A2/B2
8.5 - 9.3
9.5 - 10.5
≤0.5
125 ±0.7
1.0
≤12.0
≤6.0
235 - 245
max. 265
≥8
≥100
≤3.5
≥10
max. / typical
≤0.35 / ≤0.34
≤0.31 / ≤0.28
≤0.24 / ≤0.21
≤0.21 / ≤0.19
≤0.24 / ≤0.20
1.467
1.468
≤0.05
≤0.05
≤3.5
≤18
≤0.2
1150÷1330
max. / typical
≤0.35 / ≤0.34
≤0.31 / ≤0.28
≤0.24 / ≤0.21
≤0.21 / ≤0.19
≤0.24 / ≤0.20
1.467
1.468
≤0.05
≤0.05
≤3.5
≤18
≤0.2
1150÷1330
µm
µm
µm
µm
%
µm
%
µm
µm
N
kpsi
N
mm
dB/km
dB/km
dB/km
dB/km
dB/km
dB/km
dB/km
ps/(nm*km)
ps/(nm*km)
ps/√km
nm
1260
1260
nm
point defect at pulse-width 10ns
zero dispersion wavelength
at 1310 and 1550 nm
λ0
≤0.05
1302 ÷ 1322
≤0.05
1300 ÷ 1324
dB
nm
zero dispersion slope
s0
≤0.092
≤0.092
ps/(nm²*km)
at 1550 nm
at 1625 nm
at 1550 nm
at 1625 nm
at 1550 nm
at 1625 nm
at 1550 nm
at 1625 nm
≤0.01
≤0.05
≤0.2
≤0.5
≤0.2
≤0.5
-
≤0.03
≤0.1
≤0.1
≤0.2
≤0.5
≤1.0
dB
dB
dB
dB
dB
dB
dB
dB
cable cut-off wavelength
Macrobend Performances
100 turns on a 25mm radius mandrel
10 turns on a 15mm radius mandrel
1 turns on a 10mm radius mandrel
1 turns on a 7.5mm radius mandrel
λcff-range
A1
8.5 - 9.3
9.5 - 10.5
≤0.5
125 ±0.7
1.0
≤12.0
≤6.0
235 - 245
max. 265
≥8
≥100
≤3.5
≥10
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Fiber Optic
Cables
Common
fiber type
standard
fiber describtion
E9
2
Fiber Data Sheet
NZDF-Singlemodefiber (NZDF)
Common
fiber type
standard
fiber describtion
E8
Non-Zero-Dispersion-Shifted Singlemode Fiber
ITU-T G.655, ITU-T G.656; EN188000, EN1888100, EN1888101
core consists of SiO2 doped with GeO2; optical cladding of quarzglass (SiO2); step profile of the refraction index,
matched cladding, phosphorus free; protective coating consisting of two layers of UV-cured acrylate resins
Mechanical Characteristics
G.656
(G.655.c, e)
True-Wave
Reach
8.6 ±0.4
125 ±0.7
≤0.5
≤0.7
≤12.0
≤6.0
242 ±5
265
≥8
G.655.d
(G.655.c)
True-Wave
RS
8.4 ±0.6
8.7 ±0.6
125 ±0.7
≤0.5
≤0.7
≤12.0
≤6.0
242 ±5
265
≥8
Tera Light
MetroFiber
9.2 ±0.5
125 ±1
≤0.6
≤1.0
≤12.0
≤5.0
242 ±7
265
≥8
Tera Light
UltraFiber
9.2 ±0,5
125 ±1
≤0.6
≤1.0
≤12.0
≤6.0
242 ±7
265
≥8
9.6 ±0.4
125 ±0.7
≤0.5
≤0.7
≤12.0
≤6.0
245 ±5
265
≥8
µm
µm
µm
µm
%
µm
%
µm
µm
N
100
≤3.5
≥30
≥100
≤3.5
≥30
≥100
≤3
≥30
≥100
≤3.5
≥30
≥100
≤3
≥30
kpsi
N
mm
at 1550 nm
at 1625 nm
at 1383 ±3 nm
≤0.22
≤0.24
≤0.4
≤0.22
≤0.24
≤0.4
≤0.25
≤0.28
≤1.0
≤0.22
≤0.25
≤0.7
≤0.22
≤0.24
≤0.4
dB/km
dB/km
dB/km
at 1550 nm
at 1625 nm
≤0.5
≤0.5
≤0.5
≤0.5
≤0.5
≤0.5
≤0.5
≤0.5
≤0.5
≤0.5
dB
dB
at 1550 nm
at 1625 nm
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
dB
dB
dB/km
at 1550 nm
at 1530 ÷ 1565 nm
at 1565 ÷ 1620 nm
link design value
max. individual fiber
at 1550 nm
at 1550 nm
≤0.05
5.5-8.9
6.9-11.4
≤0.04
≤0.1
≤0.05
1.470
≤0.05
2.6-6.0
4.0-8.9
≤0.04
≤0.1
≤0.05
1.470
≤0.05
5.5-10.0
7.5-13.8
≤0.08
≤0.2
≤0.1
1.469
≤0.1
5.5-10.0
7.5-13.4
≤0.04
≤0.05
1.469
≤0.05
2.6-6.0
4.5-11.2
≤0.04
0.1
≤0.05
1.468
dB
ps/(nm*km)
ps/(nm*km)
ps/√km
ps/√km
dB
®
core diameter d
cladding diameter
core/cladding excentricity
cladding non-circularity
cladding/coating excentricity
coating non-circularity
fiber diameter
at 1550 nm
at 1600 nm
uncoloured
coloured
tensile strength according to
EN 188000 PV201, 1s
strain level
stripping force
bending radius
Optical Characteristics
attenuation
attenuation (water peak)
attenuation (macrobending)
1 turn, Ø 32mm
100 turns, Ø 75mm1)
attenuation alteration
(range -60 up to +85°C)
no point discontinuity
chromatic dispersion
polarisation modedispersion (PMD)
point defect
refraction index
1)
3
G.656
(G.655.e)
®
G.656
(G.655.e)
TM
G.655.d
TM
Leaf
®
at TeraLight Fibers: Ø 60 mm
TM
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Fiber Data Sheet
NZDF-Singlemodefiber (NZDF)
Non-Zero-Dispersion-Shifted Singlemode Fiber
ITU-T G.655, ITU-T G.656; EN188000, EN1888100, EN1888101
PENGG KABEL offers non-zero dispersion shifted single mode optical fibers produced by the Vapour Phase Axial
Deposition (VAD) method, which enables construction of high-capacy, ultra long haul WDM systems. This fibers
allows the easier deployment of WDM in metropolitan areas, and increases the capacity of fiber in WDM systems
throughout the wavelength region between 1460 nm and 1625 nm (S, C, L-bands, 1460 nm only for G.656 fiber).
It’s non-zero dispersion caracteristic reduces four-wave mixing and cross-phase modulation over a wider wavelength range than conventional NZDF. Our NZDF fibers has the ability to increase transmission speeds of systems
up to 10 Gb/s and 40 Gb/s and also has superior polarization mode dispersion performance.
Compostion
core
cladding
coating
Germanium doped silica
Silica
Dual layers of UV-cured acrylate
Geometrical Characteristics
core diameter d
cladding diameter
core/cladding concentricity error
cladding non-circularity
fiber curl radius
primary coating diameter
coating/cladding concentricity error
Optical Characteristics
attenuation
point discontinuity
chromatic dispersion
at 1550 nm
at
at
at
at
at
at
at
1460
1550
1625
1550
1460
1530
1565
nm (only G.656)
nm
nm
nm
to 1625 nm (only G.656)
to 1565 nm
to 1625 nm
cut-off wavelength of cabled fiber
PMD
individual fiber
link design value (typical)
Mechanical Characteristics
fiber proof test level
macrobending loss for
100 turns at a 75 or 60 mm mandrel diameter
1 turn at a 32 mm mandrel diameter
coating strip force
dynamic fatigue resistance parameter
Enviromental Characteristics
induced attenuation at 1310 nm and 1550 nm
from -60°C to +85°C temperature cycling
85°C / 98% RH temperature humidity cycling
+85°C heating aging
+23°C water immersion
at 1550 (and 1625 nm at G.655.a)
at 1550 (and 1625 nm at G.655.a)
G.656
(G.655.c, e)
9.0 ±0.5
125.0 ±1.0
≤0.7
≥4
242 ±5
≤12
G.655.a
(G.655.d)
9.6 ±0.4
125.0 ±0.7
≤0.5
≤0.7
≥4
245 ±5
≤12
µm
µm
≤0.5
%
m
µm
µm
≤0.26
≤0.22
≤0.25
≤0.10
2.0 bis 13.5
5.5 bis 10.0
7.5 bis 13.5
≤1450
≤0.22
≤0.25
≤0.05
2.0 bis 6.0
4.5 bis 11.2
≤1450
dB/km
dB/km
dB/km
dB
ps/(nm*km)
ps/(nm*km)
ps/(nm*km)
nm
≤0.10
-
≤0.10
≤0.04
ps/√km
ps/√km
≥120
≥120
kpsi (1.2% strain)
≤0.05
≤0.5
1.3 bis 8.9
≥20
≤0.05
≤0.5
1.3 bis 8.9
≥20
dB
dB
N
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
≤0.05
dB/km
dB/km
dB/km
dB/km
µm
Fiber Optic
Cables
Common
fiber type
standard
fiber describition
E8
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
4
Fiber Data Sheet
Multimodefiber (MM) OM 2 - Quality
Common
fiber type
standard
fiber describtion
G50
G50/125 according to VDE (Typ A1a), G50/125 according ÖVE or TA
ITU-T G.651; EN188000, EN1888200, EN1888202; VDE0888/part 105, VDE0888/part 106, FZA TS0053/01
core consists of SiO2 doped with GeO2; optical cladding of quarzglass (SiO2); graded profile of the refraction index,
matched cladding, phosphorus free; protective coating consisting of two layers of UV-cured acrylate resins
Mechanical Properties
core diameter d
core non-circularity
core/cladding concentricity error
cladding diameter
cladding non-circularity
cladding/coating concentricity error
coating non-circularity
fiber diameter
uncoloured
coloured
tensile strength according to EN 188000 PV201, 1s
strain level
stripping force
bending radius
Optical Properties
attenuation
band width
attenuation (makrobending)
attenuation alteration (range -60 up to +85°C)
numeric aperture
refraction index
link lengths at 1 Gb/s
5
at
at
at
at
at
850nm
1300 nm
1383 nm
850 nm
1300 nm
at
at
at
at
at
850 nm
850 nm
1300 nm
850 nm
1300 nm
50 ±2.5
5.0
≤1.5
125 ±2
1.0
≤10.0
≤6.0
245 ±10
265
≥8
≥100
≤3.5
≥30
µm
%
µm
µm
%
µm
%
µm
µm
N
kpsi
N
mm
≤2.5
≤0.6
≤2.0
≥400 - ≥750
≥500 - ≥1200
≤0.5
≤0.2
≤0.2 ±0.015
1.4825
1.4775
≥500 - ≥750
≥550 - ≥2000
dB/km
dB/km
dB/km
MHz*km
MHz*km
dB
dB/km
(others on request)
(others on request)
m
m
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Fiber Data Sheet
Multimodefiber (MM) OM 3 - Quality (OM 3+ , OM 4)
Common
fiber type
standard
fiber describition
G50
G50/125 according to VDE (Typ A1a), G50/125 according ÖVE or TA
ITU-T G.651; EN188000, EN1888200, EN1888202; VDE0888/part 105, VDE0888/part 106, FZA TS0053/01
core consists of SiO2 doped with GeO2; optical cladding of quarzglass (SiO2); graded profile of the refraction index,
matched cladding, phosphorus free; protective coating consisting of two layers of UV-cured acrylate resins
Mechanical Properties
core diameter d
core non-circularity
core/cladding concentricity error
cladding diameter
cladding non-circularity
cladding/coating concentricity error
coating non-circularity
fiber diameter
uncoloured
coloured
tensile strength according to EN 188000 PV201, 1s
strain level
stripping force
bending radius
Optical Properties
attenuation
refraction index
attenuation (makrobending)
attenuation alteration (range -60 up to +85°C)
numeric aperture
at
at
at
at
at
850nm
1300 nm
1383 nm
850 nm
1300 nm
at 850 nm
50 ±2.5
5.0
≤1.5
125 ±1
1.0
≤10.0
≤6.0
245 ±10
265
≥8
≥100
≤3.5
≥30
µm
%
µm
µm
%
µm
%
µm
µm
N
kpsi
N
mm
≤2.5
≤0.7
≤2.0
1.4825
1.4775
≤0.5
≤0.2
≤0.2 ±0.015
dB/km
dB/km
dB/km
dB
dB/km
Performance Characteristics
Upon request our fiber can be selected meeting inner mask radial specifications more stringent than the TIA/EIA-492 AAAC requirement:
Inner mask: Rinner = 0 µm to Router = 18 µm
Further to meeting the respective DMD template all OptiGrade fiber meets the additional requirement of IEC 60793-2-10 in the radial offset
intervall masks, which sources out fibers, having rapid changes of the DMD.
Transmission link lenghts
850 nm
300
400
500
550
m
for 10 Gb/s*
1300 nm (LX4)
300
300
300
300
m
*at 850 nm operating
radius 4.5 µm
≤30 %
wavelenth with transmitters
radius 19.0 µm
≥86 %
meeting encircled flux at
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Fiber Optic
Cables
OptiGrade Classes
300
400
500
550
Bandwith
850 nm
≥1500
≥2000
≥2500
≥3500
MHz*km
(Overfilled Launch, LED based sources) 1300 nm
≥500
≥500
≥500
≥500
MHz*km
Effective Modal Bandwith
850 nm
≥2000
≥2700
≥4000
≥4700
MHz*km
Assured by: Differential Mode Delay (DMD)
Fibers shall meet the respective DMD templates specified in or according to the standard TIA/EIA or IEC 60793-2-10, for transmitters meeting TIA/EIA-492 AAAC. Each template includes an inner and an outer mask requirement with:
Inner mask:
Outer mask:
Rinner = 5 µm to Router = 18 µm
Rinner = 0 µm to Router = 23 µm
6
Fiber Data Sheet
Multimodefiber (MM)
Common
fiber type
standard
fiber describition
G62,5
G62,5/125 according to VDE (Typ A1b), , G62,5/125 according ÖVE or TA
EN188000, EN1888200, EN1888202; VDE0888/part 105, VDE0888/part 107, FZA TS0053/01
core consists of SiO2 doped with GeO2; optical cladding of quarzglass (SiO2); graded profile of the refraction
index, matched cladding, phosphorus free; protective coating consisting of two layers of UV-cured acrylate resins
Mechanical Properties
core diameter d
core non-circularity
cladding diameter
core/cladding concentricity error
cladding non-circularity
cladding/coating excentricity
coating non-circularity
fiber diameter
uncoloured
coloured
tensile strength according to EN 188000 PV201, 1s
strain level
stripping force
bending radius
Optical Properties
attenuation
band width
attenuation (makrobending)
attenuation alteration (range -60 up to +85°C)
numeric aperture
refraction index
link lengths at 1 Gb/s
7
at
at
at
at
at
850nm
1300 nm
1383 nm
850 nm
1300 nm
at
at
at
at
at
850 nm
850 nm
1300 nm
850 nm
1300 nm
62.5 ±2.5
5.0
125 ±2
≤1.5
1.0
≤10.0
≤6.0
245 ±10
265
≥8
≥100
≤3.5
≥30
µm
%
µm
µm
%
µm
%
µm
µm
N
kpsi
N
mm
≤3.0
≤1.0
≤2.0
≥160 - ≥250
≥500 - ≥800
≤0.05
≤0.2
≤0.275 ±0.015
1.4965
1.4920
≥300 - ≥500
≥550 - ≥1000
dB/km
dB/km
dB/km
MHz*km
MHz*km
dB
dB/km
dB
(Standard 200)
(Standard 600)
m
m
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Letter Symbols - Fiber Optics
Letter symbols according to VDE (outdoor cables)
Fiber Optic
Cables
Letter symbols according to VDE (indoor cables)
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
8
Colour Codes - Fiber Optics
Colour Code - Fibers (Standard, others on request)
Pengg Standard Fiber Colouring:
Ring Signing:
Colour Code - Tubes (Standard)
5-tubes construction
1xn
2xn
3xn
4xn
5xn
1xn
2xn
3xn
4xn
5xn
Singlemode Fibers
NZDF-Fibers E8
Multimode Fibers G50
Multimode Fibers G62,5
no fiber assignment
6-tubes construction
6x n
Singlemode Fibers E9
NZDF-Fibers E8
Multimode Fibers G50
Multimode Fibers G62,5
no fiber assignment
9
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Types
Signalling- and measuring cables
Switchboard cables
Signal and measuring cables are used for transmission of DC- and low Switchboard cables are used as connection between racks, main disfrequency AC-signals in telemetering-, signal-, clock- and paging tributors and switch stations in different kinds of railway offices (censystems as well as for control system (railway signals, signal boxes) tral offices, amplification bases and signal boxes).
and for supervision systems.
The cores are PVC-insulated. Cores are stranded together in layers;
The cables consist of PE-insulated cores, which are stranded together shielded pairs, triples, quads or quintuples are stranded together in
in concentric layers. The non-armoured types have a PVC-sheath over layers or units. The shielded types have a screening of aluminium lamithe cable core, the armoured types have a PVC-sheath (PE-sheath nated PET-foil (static shield) over the cable core, the switchboard
according to ÖVE), a steel tape armouring and a PVC-outer protective cables have a PVC-sheath.
cover.
Local outdoor telecommunication cables
Telecommunication switchboard wires
They are used in local telecom networks, for the connection of tele- They are used for switching and wiring of telecommunication instruphone sets to telephone exchanges and as connection cables in indu- ments and similar ones, i.e. telephone exchanges, amplification bases
strial fields and in offices.
and selection amplifiers.
The cables have quads of PE-, foam-PE- or foam-skin-PE They consist of one or more twisted cores with PVC-insulation.
insulated cores; the quads are stranded to unitss, the units are stranded to the cable core. The composite-layer sheath have a double-coated aluminium foil bonded with the PE-sheath. Petrol jelly fillings or
swellable materials prevents water penetration along the cable.
Shielded switchboard strands
For special applications or customer-specifications the cables get They are used for switching of telecommunication instruments and
additionally components, for example:
similar ones, e.g. telephone exchanges, amplification bases and selection amplifiers.
– PE-sheath, reinforced
– steel tape or steel wire armouring
Shielded switchboard strands consists of one or more twisted, PVC– PE or PVC protective cover
insulated cores, a copper braid screening and a PVC-sheath.
– aluminium laminated PET-foil instead of aluminium
tape
Selfsupporting aerial cables
Telecommunication installation wires
Selfsupporting aerial carrier cables, so called SETRA cables, are used Telecommunication installation wires are used for switching of telewithin the telecommunication network of the PTTs as well as in the com instruments in dry and eventually dump areas.
domain of private telecom and data transmission networks.
They consists of one or more twisted PVC-insulated cores.
They have PE-insulated quads cabled to units and if necessary a
shielding of aluminium foil; cable core and a supporting rope of galvanized steel wires with common PE-sheath (e.g. PVC-sheath). Also
available with quads stranded in layers.
Installation cables
Special cables for telecommunication
They are mainly needed for construction of telephone sets and exten- Telecom cables for very specified applications and different special
sions and suited for fixed laying on dry and wet ground material indo- constructions (i.e. power protection cables, lightning protected teleor and outdoor.
communication cables,railway signalling cables with inductive protection,...) belong to this field.
The PVC-insulated pairs or quads are stranded together in layers or
units. Depending on the type the cables are unshielded or shielded
with an aluminium foil (static shield) and surrounded with a PVCsheath.
Cables for industrial electronics
Control cables
These cables are used for transmission of signals and measuring Control cables are used for transmission of analogue and digital sigvalues in units of the measuring, control and power electronic techni- nals. Special constructions have proven to work under difficult transques as well as for data processing.
fer conditions and extreme severe environmental influences.
They are composed of PVC-insulated cores or pairs stranded Main applications: industrial process control, refineries, fuel dumps,
together into units. The shielded types have a screening of aluminium chemical industry, power plants, as well as in sciences and research
foil or copper braid. The cables for industrial electronics have a PVC- work.
sheath.
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
10
Letter symbols - copper cables
Letter
symbol
Description
Letter
symbol
Description
AA
AB
AD-
outdoor cable (GE)
aluminium shield (AT)
outdoor cable with high voltage protection (GE)
outdoor cable for power line protection (e.g. Differentialschutz) (GE)
outdoor cable with inductive protection (GE)
aluminium shield (DK)
aluminium-PE laminated sheath (DK)
armouring (AT/GE)
cables with units (GE)
one layer steel tape; ...mm thickness of steel tape
(GE)
protective cover of tarred jute (GE)
shield (copper braid) (GE)
shield (copper tape) (AT)
copper conductor (DK)
shield with stranded copper wires (GE)
Dieselhorst-Martin quad (GE)
drain wire (AT)
filling of cable core (GE)
quad with phantom utilization (GE)
installation cable, flat design (GE)
flat wire armouring (AT)
telecomunication outdoor cable (AT)
telecommunication indoor cable (AT)
foil (DK)
longitudinally aluminiumtape (GE)
flat wire; thickness in ...mm (GE)
conter helix (AT)
mine cable (GE)
skin (in foam-skin insulations) (AT)
peak value of mutual capacitance [nF/km] (GE)
cable core jelly filled (AT)
installations cable (GE)
installations cable for industrial electronics (GE)
element with metallic foil and drain wire (AT/GE)
additionally corrosion proofing over armouring (GE)
innersheath and shield of londgitudinally copper
tape (GE)
coax pair (AT/GE)
design with resistance to cold (GE)
smooth aluminium tape (GE)
laminated aluminium tape (GE)
composite layer sheath (GE)
sheathed flexible cable (GE)
corrugated aluminium sheath (GE)
LG
LI
M
MZ
2M
(M...)
OF
P
P
PAP
PE
perf
Q
(R...)
R
S
SSSMPE
SPE
ST
cabling in layers (GE)
stranded or bunched conductor (GE)
lead sheath (AT/GE)
lead sheath with addition of setting (GE)
lead sheath with addition of setting (AT)
max. mean value of mutual capacitance [nF/km] (GE)
filling of cable core with special material (GE)
paper insulation (AT/GE)
pair (GE)
paper (wrapping) (DK)
polyethylene (outer) sheath (DK)
perforated (GE)
steel wire braid (AT/GE)
round wire; diameter in ... mm (GE)
round wire armouring (AT)
railway signalling cable (GE)
switchboard cable (GE)
railway signalling cable (AT)
foam-skin-PE insulation (DK)
foam-PE insulation (DK)
quad in cables for long distances and phantom
utilisation (GE)
quad in cables for long distances (GE)
quad in local telecommuncation cables (GE)
set value of mutual capacitance [nF/km] (GE)
static shield of metallic tape or aluminium laminated pet-foil (GE)
suspension wire (AT/GE)
carrier frequency quad (GE)
swelling material (GE)
tinned copper wire (AT)
filling of cable core (DK)
tinned (GE)
corrugated steel sheath (GE)
PVC insulation, sheath or protective cover PVC (AT/GE)
PVC sheath or protective cover, reinforced (GE)
PVC sheath or protective cover, reinforced (AT)
steel- or PA-braid, rssistant to extension (GE)
glass yarn strength members (GE)
PE isulation, sheath or protective cover (AT/GE)
PE sheath or protective cover, reinforced (GE)
PE sheath or protective cover, reinforced (AT)
foam-PE insulation (AT/GE)
foam-skin-PE insulation (AT)
foam-skin-PE insulation (GE)
AJAL
AL+PE
B
BD
(1B...)
C
C
C
CU
D
DM
E
F
F
F
F
FFIFOL
(FA)
(F...)
G
GH
(H...)
J
JJE...IMF
-K
(K)
Kx
KF
L
(L)
(L)2Y
LLD
ST I
ST III
(S...)
(ST)
T
TF
TF
V
VAS
vzn
W
Y
YV
Y3V
(Z)
(ZG)
2Y
2YV
2Y3V
02Y
02YH
02YS
Examples for telecommunication cables
A-02YSF(L)2Y 200x2x0.8 ST III BD
Longitudinally waterproof local telecommunication cable with 100 foam-skin PE insulated quads, bare copper conductor, diameter 0.8 mm,
stranded to units, jelly filled, paper tape covering and composite layer sheath; (similar to FTZ).
J-Y(ST)Y 20x2x0.6 LG
Installation cablel with 20 PVC-insulated pairs, bare copper conductor, diameter 0,6 mm, stranded in layers, plastic tape wrapping, static
shield PETP aluminium foil with drain wire and PVC-sheath; (according to VDE 0815).
A-2YYBY 16x1x0.9 S LG
Railway signal cable with 16 PE insulated cores, stranded in layers, bare copper conductor, diameter 0.9 mm, plastic tape wrapping, PVCsheath, stell tape armouring and PVC protective cover (according to VDE 0816/part 2).
11
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Basic Formulas of Telecommunication Technique
Units
Term
Symbol
Letter symbol
angular frequency
attenuation (equivalent)
attenuation coefficient
capacitance load per unit length
capacitance unbalance
conductivity
conductance
conductance per unit length
conductor cross section
conductor resistance
current, strength of current
dissipation factor
frequency
group delay
inductivity
inductivity load per unit length
insulation resistance
image phase change coefficient
impedance (amount)
impedance (complex)
impedance (imaginary part)
impedance (real part)
line length
level
magnetic unbalance
mutual capacitance
mutual inductance
near end cross talk attenuation (equivalent)
phase delay
power
reduction factor
reflection coefficient
relative permittivity
resistance load per unit length
specific resistance
temperature
velocity of propagation
voltage
wave length
ω
a, α
α
C’
k, / k1 / k2,3 /k9-12 / e1,2
κ
G
G’
q
R
I
tan δ
f
τg
L
L’
Ris
β
Z
ZL
Zi
Zr
l
p
m
C
M
a n, α n
τp
P
rk
r
εr
R’
s
t
vü
U
λ
s-1
dB (Np)
dB/km (Np/km)
F/km
pF
Sm/mm²
mS/km
S/km
mm²
Ω/km
A
Hz
s/km
mH/km
H/km
MΩkm
rad/km
Ω
Ω
Ω
Ω
km
dB (Np)
nH
nF/km
mH/km
dB (Np)
s/km
W
Ω/km
Ωmm²/m
°C
bit/s
V
m
Unit
1/second
dezibel (neper)
dezibel (neper)/km
farad/km
pikofarad
siemensmeter/mm²
millisiemens/km
siemens/km
millimeter²
ohm/km
ampere
hertz
second/km
millihenry/km
henry/km
megaohmkilometer
rad/km
ohm
ohm
ohm
ohm
kilometer
dezibel (neper)
nanohenry
nanofarad/km
millihenry/km
dezibel (neper)
second/km
watt
ohm/km
ohm mm²/m
degree celsius
bit/second
volt
meter
Basic formulas for homogeneous, symmetrical cables
Conductor resistance
Rt
R20
t
k
Complex characteristic impedance
resistance at t °C in Ohm
resistance at 20°C in Ohm
temperature in °C
0.00393 for Cu or 0.00403 for Al
Angular frequency
Dissipation factor
(Ω)
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
12
Basic Formulas of Telecommunication Technique
Basic formulas for homogeneous, symmetrical cables
Impedance (amount) at low frequencies
(voice frequency)
Impedance (amount) at high frequencies (ω L>R)
(Ω)
(Ω)
L
C
Attenuation at low frequencies
(voice frequency)
inductivity (H/km)
mutual capacitance (F/km)
Attenuation at high frequencies (w L>R)
(Np/km)
(dB/km)
13
(Np/km)
R
G
loop resistance (Ω/km)
conductance (S/km)
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Shifting Guideline
Bending radius
When laying and bending the cables as well as at the mounting points (e.g. brackets) the bending radius R may not come up to those
below stated. When forming out the cables during the assembly of appropriate treatment the minimum bending radius may be reduced at
the most to half of the indicated values.
Cable typ
installation cables, switchboard cables
Bending radius R
minimum value
7.5 x DA
outdoor cables with composite layer sheath 7.5 x DA
outdoor cables
10 x DA
DA .... cable outer diameter
Installation temperature
For the transfer not the ambient temperature but the temperature of the cable is determining. With low ambient temperatures cables can
be warmed up before shifting by suitable measures in such a way that the cable inside is not cooling under the permissible shifting temperature during the entire shifting procedure. Stress and jerks as well as stress by impact are to be avoided at low temperatures. The pulling speed of the cables should be as even as possible.
temperature range during installation:
cables with Polyethylene sheath (PE)
cables with Polyvinylchlorid sheath (PVC)
-20ºC up to +50ºC
-5ºC up to + 50ºC
Tensile load for control- and telecommunication cables
(according to VDE 0891/part 6)
The tensile stress indicated in the following tables applies uniformly to all for with guaranteeing tensile strength armouring cable, with
which is included the cable core frictional connected with the cable sheath - either over a tie rod with pulling eye or a firmly mounting
pulling trunk.
Number of
Maximum allowed value of tensile load [N]
cores
Conductor diam.
4
5
8
12
16
21
27
33
40
48
56
65
75
80
96
108
114
133
147
154
176
200
0.9
100
150
250
350
500
650
800
1000
1200
1450
1650
1950
2200
2350
2800
3100
3250
3700
4000
4200
4700
5300
1.4
300
400
600
900
1200
1500
1900
2300
2700
3200
3700
4300
4800
5100
6000
6800
7100
7900
8600
8900
9900
11000
1.8
500
650
1000
1450
1900
2400
3100
3700
4400
5300
5800
6700
7600
8000
9200
10000
10600
12000
13000
13500
15200
17000
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
14
Shifting Guideline
Tensile strength of telecommunication outdoor cables with guaranteeing tensile strength resistance
Number of
Maximum allowed value of tensile load [N]
double cores
Conductor diam.
5
6
10
20
30
40
50
60
70
80
100
120
150
200
250
300
350
400
500
600
700
800
1000
1200
1500
2000
0.4
250
300
400
500
650
750
850
1000
1100
1400
1600
2000
2600
3300
3900
4300
4900
5900
6800
7600
8400
9800
11000
12500
14400
0.6
350
400
500
700
950
1200
1500
1700
2000
2300
2800
3400
4100
5200
6400
7400
8600
9600
11500
13200
14500
15500
17500
19000
0.8
600
1000
1500
2000
2500
2900
3400
3800
4600
5400
6600
8500
10000
11500
13000
14500
17000
19000
20500
21500
0.9
700
1300
1900
2500
3000
3500
4100
4600
5700
6600
8000
10000
12000
13500
15000
16300
18700
1.2
1200
2300
3200
4100
5000
6000
6700
7500
9000
10500
12500
15700
18800
20000
1.4
1600
2800
4000
5200
6400
7500
8500
9500
11400
The values in the tables above refer to unarmoured cables with no guaranteeing tensile strength armouring. If higher traction loads are
necessary, cables with a a garanteeing tensile strength armouring (steel round or rectangular wire) are to be planned.
For the calculation of the tensile load for such cables applies an approximate value of 12 daN for each mm2 steel cross section.
15
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Common Explanations
Pictograms Copper Cables
All datasheets are signed with common pictograms, which describe the cable make up and will lighten the localisation of the most applicable cable type.
Mutual capacitance
C35
C38
C42
C50
C52
C55
C60
Dimension of copper conductor
conductor diameter [mm]
Ø
0,4
Ø
0,5
Ø
0,6
Ø
0,8
triple
quad
Ø
0,9
Ø
1,0
Ø
1,2
Ø
1,4
Ø
1,8
cross section [mm2]
Cable elements
core
pair
quintuple
pair in metal foil “PIMF”
Number of double cores (DC)
DC, talking circuit
DC
4
DC
2-4
DC
4-8
DC
n
Filling
unfilled
petrol jelly
Füllnidz
dry filling / swellable materials
Overall screening, armouring
unshielded
foil
copper braid
or tape
foil and copper
braid
copper wires
composite layer (L)
armouring (steel tape,
round steel wires)
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
16
Common Explanations
Pictograms Fiber Optic Cables
Construction
metal-free
halogenfree, flame retardant rodent protection
longitudinally water-tight
Application
indoor cable
outdoor cable
aerial cable (ADSS)
Characteristic features of insulation and sheath materials
Material
Resistance to
break-down
[kV/mm]
Spec. volume
resistance
[Ωcm]
Continous possible
operating temperature
dauernd [°C]
PVC (standard compound)
PVC (compound for telephon cores)
LDPE
HDPE
Foam-PE
25
25
70
85
60
1013
1015
1017
1017
1017
–20
–10
–50
–50
–50
Material
Operating temperatur
(short time)
[°C]
Decompositionor distortiontemperature [°C]
Inflammability
PVC (standard compound)
PVC (compound for telephon cores)
LDPE
HDPE
Foam-PE
+100
+100
+100
+120
+90
+120
+120
+110
+130
+110
self-extinguishing
self-extinguishing
inflammable
inflammable
inflammable
Material
Waterabsorption
%
Weatherproof
Chemical
resistance
(general)
Radioresistance
x106 rad
PVC (standard compound)
PVC (compound for telephon cores)
LDPE
HDPE
Schaum-PE
0.4
0.4
0.1
0.1
0.1
good
good
good
limited
good
limited
limited
limited good
limited good
limited good
17
17
19
19
19
Material
Relative
permittivity
ε
Density
5–8
3–4
2.3
2.3
1.6
PVC (standard compound)
PVC (compound for telephon cores)
LDPE
HDPE
Foam-PE
17
up
up
up
up
up
to
to
to
to
to
+70
+70
+70
+90
+70
[g/cm3]
Tensile
strength
[MPa]
Breaking
elongation
%
Lettersymbol
1.45
1.4
0.92
0.945
0.65
15
20
20
25
10
250
200
400
500
500
Y
Y
2Y
2Y...HD
02Y
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Common Explanations
RAL-colour code
colournumber
colour
hueexpresion
colournumber
colour
hueexpresion
1001
1012
1013
1014
1015
1016
1019
1021
2000
2002
2003
2004
3000
3002
3004
3015
4001
4003
4005
5002
5010
5012
5014
beige
yellow
white
ivory
beige
yellow
beige
yellow
orange
orange
orange
orange
red
red
red
pink
violet
violet
violet
blue
blue
blue
blue
beige
lemon yellow
oyster white
ivory
light ivory
sulfur yellow
grey beige
rape yellow
yellow orange
vermilion
pastel orange
pure orange
flame red
carmine red
purple red
light pink
red lilac
hether violet
blue lilac
ultramarine blue
gentian blue
light blue
pigeon blue
5015
5019
6000
6001
6003
6005
6010
6018
6027
7000
7001
7021
7032
7035
7037
8003
8011
8014
8024
9001
9005
9007
9010
light blue
blue
green
green
green
green
green
green
turquoise
grey
grey
grey
grey (ptt grey)
grey
grey
brown
brown
brown
brown
white
black
silver grey
white
sky blue
capri blue
patina green
emerald green
olive green
moss green
grass green
yellow green
light green
squirrel grey
silver grey
black grey
pebble grey
light grey
dusty grey
clay grey
nut brown
sepia brown
beige brown
cream
jet black
grey aluminium
pure white
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
18
Behaviour in Case of Fire, Fire Away Line, Fire Load
Requirement
In the European standards EN 50167, EN 50168 and EN 50169 data
cables with halogen-free outer sheath are required. The consideration
and adherence to these standards are recommended particularly with
public setting e.g. hospitals, schools and airports. In addition with
other buildings with high person or real value concentration a use of
halogen-free cables is practical.
Cable with PVC-sheath
In the case of fire standard PVC materials can transmit fires and form
hydrochloric acid (HCI) by splitting off hydrogen chloride gas in
connection with moisture (e.g. fire fighting water). It continues to come
to a strong smoke development with burning PVC (polyvinyl chloride)
and the corrosive damage at buildings and equipment can often devastating extents assume, which exceed far the actual fire damage.
Testing method according to IEC 60332-1
Samples
From the end of the tested cable a sample piece of 600±25 mm is taken.
Preparation (fig.1)
Propane from cylinder with burner, flame height 175 mm.
Sample is hung up vertically into the center of a metal box, (metal
box: h=1200±25 mm, b=300±25 mm, t=450±25 mm, front open).
Flame cone of the gas burner has to be fixed in an angle of 45° approx. 100 mm above the lower sample.
With cable diameter up to 50 mm one burner is used, with cable diameter over 50 mm two burners are used.
Execution
m
t = 60 + ——
25
t = duration of the flaming action in s
m = weight of the sample in g
Cables with halogenfree sheath
Hereby materials are used, which do not contain halogens (e.g. chlorine)
and which do not set free corrosive gases in the case of fire. Also the
proportion of toxic gases is reduced to a minimum, and smoke development and fire away line are hardly still available or possible. Designation notes at the cable are e.g. the abbreviations FRNC or LSOH.
In detail these designations are meaning:
FR – flame retardant
(fire-away-line-restraining)
NC – non corrosiv
(no corrosive constituents)
LS – low smoke
(low smoke development)
0H – zero halogen (halogen-free)
Another big advantage by using such materials is, that the free view
on gears and escape routes is kept. Please note that you have to take
care that such kinds of materials are also used by other products,
e.g. power cables or cable run channels.
Fire load [kWh/m], [MJ/m]
In each building there are many different inflammable installations or
products. Also cable and cores (although hidden in intermediate ceilings or channels), which can in particular represent a substantial
component in administration buildings belong to them. These cables
have most divergent powers (heat values) and the total fire load of a
building could clearly increase. Therefore you should be pay attention
to the fact, when planning that the fire load quantities are kept as
small as possible.
19
Analysis
The test is considered as positively passed if the sample did not burn
or the flames automatically go out and the fire damage does not
reach the upper end of the sample.
Fire-pure e.g. soot lining and colour modification are not does claimed.
Testing method according to IEC 60332-2
Samples
From the end of the tested cable a sample piece of 600±25 mm is taken.
Preparation
Propane from cylinder with burner, flame height 125 mm.
Sample is hung up vertically into the center of a metal box, (metal
box: h=1200±25 mm, b=300±25 mm, t=450±25 mm, front open).
Flame cone of the gas burner has to be fixed in an angle of 45° approx.
100 mm above the lower sample.
Execution
max. 20s
Analysis
The test is considered as positively passed if the sample did not burn
or the flames automatically go out and the fire damage does not
reach the upper end of the sample.
Fire-pure e.g. soot lining and colour modification are not does claimed.
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Behaviour in Case of Fire, Fire Away Line, Fire Load
Testing methodes according to IEC 60332-3
Samples
From the end of the tested cable sample pieces of 360 mm are taken.
The number of samples depends on the cable diameter.
Testing method 1
Testing methode 3
Preparation (fig. 2)
The samples are arranged at the test rack as follows:
Telecommunication cables and cords as well as control cables and
cords with an outside diameter ≤30 mm without distance.
The number has to be selected in such a way that the grouping width
results of min.180 mm; the distance of the outside samples to the lateral side piece of the ladder should be approx. 90 up to 120 mm;
mounting of the samples with steel wires; the test rack is inserted
vertically into the suspension of the furnace. Dimensions of the
furnance as well as air volume and temperature are exactly regulated.
Burner, 77.7±4.8 l/min propane and 13.5±0.5 l/h air measured at
20°C and 1 bar.
Before starting the test the test set-up has to be conditioned at room
temperature for mind. 16 h.
Flame of the gas burner has to be fixed in an angle of 90° approx. 600
mm above the lower sample end, in a distance of 75 mm.
Execution
Duration of the flaming action at least min. 20 minutes
Fig.1
Fig.2
The test according to test type 3 shows very realistically the possible
fire in a vertical duct.
Analysis
The test is considered as positively passed if the sample did not burn
or the flames automatically go out and the fire damage does not
reach the upper end of the sample.
Fire-pure e.g. soot lining and color modification are not does claimed.
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
20
Nominal Data of Wooden Drums (DIN 46391)
Drums according to DIN 46391 (dimensions, weights)
identification
number
drum
dimesion
flange-diameter
D
[mm]
barrel-diameter width
d
B
[mm]
[mm]
traverse width carrying
b
capacity
[mm]
aprrox. [kg]
drumweight
aprrox. [kg]
051
E6
061
071
E8
081
091
E10
101
E12
121
E14
141
E16
161
162
E18
181
182
E20
201
202
E22
221
222
E24
250
251
252
E26
E28
281
E30
05
06
06
07
08
08
09
10
10
12
12
14
14
16
16/8
16/10
18
18/10
18/12
20
20/12
20/14
22
22/14
22/16
24
25/14
25/16
25/18
26
28
28/18
30
500
600
630
710
800
800
900
1000
1000
1200
1250
1400
1400
1600
1600
1600
1800
1800
1800
2000
2000
2000
2200
2240
2240
2400
2500
2500
2500
2600
2800
2800
3000
150
300
315
355
400
400
450
550
500
700
630
850
710
1000
800
1000
1150
1000
1250
1300
1250
1400
1450
1400
1600
1600
1400
1600
1800
1700
1800
1800
1900
400
–
315
400
–
400
560
–
560
–
666
–
660
–
844
835
–
835
825
–
1035
1030
–
1140
1130
–
1140
1130
1120
–
–
1280
1270
8
20
13
25
40
31
47
80
71
150
144
200
175
350
280
271
500
380
352
600
550
544
700
710
738
900
875
900
909
1100
1400
1175
1600
470
450
415
500
560
500
670
700
690
790
860
870
870
970
1060
1100
1110
1060
1100
1190
1310
1345
1330
1410
1475
1380
1450
1450
1475
1450
1650
1590
–
–
–
250
400
–
600
800
–
900
–
1700
–
2000
–
3000
3000
–
4000
4000
–
5000
5000
–
6000
6000
–
7500
7500
7500
–
–
10000
10000
up to drum dimension 10 with cable bushing
21
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
Nominal Data of Wooden Drums (DIN 46391)
Capacity (spooling length in m)
identification
number
061
071
081
091
101
121
141
161
162
181
182
201
202
222
cable diameter in millimeter [mm]
6
7
8
9
10
cable-diameter 6 - 23 mm
11
12
13
14
15
16
17
20
21
22
93
165
219
402
576
1139
1352
2435
1849
2831
2772 2405 2076 1985
90
159
211
387
485
991
1304
2172
1600
2527
1704
122
167
315
468
856
1145
1931
1539
2248
1636
Capacity (spooling length in m)
identification
number
081
091
101
121
141
161
162
181
182
201
202
221
222
250
251
252
281
282
121
141
161
162
181
182
201
202
221
222
250
251
252
281
282
19
cable diameter in millimeter [mm]
24
25
26
27
28
156
294
377
709
967
1657
1278
1927
1343
2608
2096
151
285
365
688
839
1608
1235
1867
1295
2522
2023
32
33
34
209
428
537
866
655
1009
779
1500
1081
2035
1553
2978
2976 2893 2558 2491
2944 2848 2474 2398 2327 2004 1948
204
352
451
846
638
985
635
1289
1052
1984
1511
2908
2428
1896
344
441
828
622
962
618
1257
1024
1726
1264
2605
2134
1614
116
228
299
668
814
1419
1053
1650
1093
2218
1732
221
290
567
700
1244
1020
1450
1057
2150
1675
2861
2881 2493 2408 2329
215
282
551
681
1211
860
1409
1023
1879
1418
2777
2000
cable diameter in millimeter [mm]
42
43
44
45
46
190
259
529
348
61S
415
779
577
1107
877
1633
1406
963
1995
1666
254
437
341
511
315
763
565
1085
699
1603
1199
942
1956
1401
249
430
334
502
309
749
553
1064
684
1574
1175
923
1693
1373
245
422
328
492
302
611
542
890
670
1373
1153
904
1661
1345
240
415
321
484
296
600
531
874
657
1349
1131
886
1630
1319
23
117
161
304
389
827
999
1869
1324
2172
1394
2953
2629 2524 2176
2992
cable-diameter 24 - 41 mm
29
30
31
209
226
462
663
1180
835
1371
851
1826
1374
2450
1939
162
220
450
564
1028
811
1197
825
1583
1333
2383
1882
214
438
550
1003
789
1166
802
1540
1295
2089
1598
35
36
37
38
39
40
41
336
431
707
607
824
603
1227
998
1685
1232
2547
2083
1573
2890
2737 2663 2594 2242
329
422
692
493
806
587
1041
816
1646
1201
2271
2035
1534
2822
2186
265
348
678
482
788
466
1017
796
1418
1170
2223
1774
1286
2759
2134
259
341
664
471
772
454
994
777
1386
960
1969
1735
1255
2432
2084
254
334
560
460
653
444
972
759
1356
938
1930
1697
1226
2379
1780
249
327
549
451
640
434
812
742
1328
917
1892
1466
1199
2329
1740
244
264
539
356
627
424
795
590
1130
896
1664
1435
1172
2036
1702
Capacity (spooling length in m)
identification
number
18
1113
845
637
472
386
314
253
237
189
179
140
134
102
97
2024 1481 1064
892
677
564
468
385
364
297
239
228
218
172
2755 2340 1463 1152
980
761
643
542
454
430
358
294
281
228
2731 2202 1768 1404 1206 1032
881
749
632
603
505
485
2866 2349 1912 1540 1339 1159 1000
860
736
705
599
2727 2255 1991 1756 1545 1355 1784
2967 2479 2205 1959 1737 1535
2722
2903 2543 2220 2123
cable-diameter 42 - 59 mm
47
48
49
50
51
52
53
54
55
56
57
58
59
187
408
330
325
319
314
310
305
243
238
234
230
226
222
218
214
151
149
146
475
386
380
373
367
361
356
280
276
271
267
290
285
279
274
195
191
188
184
181
178
175
589
578
568
558
442
435
428
421
414
408
401
405
397
389
382
375
369
362
356
254
249
245
858
842
828
678
666
655
644
634
624
614
488
644
632
620
474
465
457
449
441
434
426
419
1326 1144 1125 1107 1089 1072
912
898
885
872
860
1110
931
914
898
883
869
713
701
690
679
668
708
694
681
668
656
645
633 48S
477
469
461
1600 1367 1343 1320 1298 1276 1073 1073 1039 1022 1006
1293 1065 1046 1026 1008
990
973
779
766
753
741
144
263
172
304
241
480
413
719
658
454
991
729
142
260
169
300
237
473
29S
709
649
446
815
718
Technical Information • 08/2013 • © by PENGG KABEL GmbH • Subject to technical alterations
22