Philafin Test Report


PHILAFIN


(+125° C -65°C – Cross Linked Polyolifin Rubber)


Test Report

PHILAFIN
™ Provides Superior:
  • Oil Resistance
  • Low Temp
    Resistance
  • Heat Aging
  • Ozone
    Resistance

 

  • Chemical
    Resistance
  • Abrasion
    Resistance
  • Mechanical
    Strength
  • Lighter Weight

 

_________________________________________________________________________________________________________________________
  • LOWER
    TEMPERATURE FLEXIBILITY
  • GREATER OZONE RESISTANCE
PHILAFIN™ rubber flexible
cord jackets resist cracking to
lower temperatures than either thermoset Neoprene or
thermoset rubber. The following are results of bend tests:
Ozone as generated around
most electrical equipment can
cause cracking in most conventional rubbers. PHILAFIN™
rubber has excellent resistance to cracking caused by ozone.
Below are results of bent loop ozone aging tests of flexible
cord jackets.
PHILAFIN RUBBER NEOPRENE PHILAFIN RUBBER NEOPRENE
Type SEO Type S Type SO Type SEO Type S Type SO
Cold Bend @ -35°C Pass Pass Pass Hours to Cracking 1,000 24 300
Cold Bend @ -50°C Pass Cracked Cracked    
Cold Bend @ -65°C Pass Cracked Cracked    
PHILAFIN™ cables & cords are
UL rated at -50°C to +105°C.
NOTE: OZONE EXPOSURE -
100pphm/100°F
_________________________________________________________________________________________________________________________
  • SUPERIOR HEAT
    AGING
  • TOUGHER ABRASION
    RESISTANCE
PHILAFIN™ rubber resists
cracking and brittleness caused
by heat far better than Neoprene or rubber. Comparative
heat aging at 250°F. is shown.
Shown below are comparative
grinding wheel type abrasion
test results on flexible cord jackets. Again, PHILAFIN™
rubber outperforms Neoprene and rubber flexible cord
jackets.
Oven Aged at 7
Days @ 250F
CYCLES TO FAILURE
Custom Cable Custom Cable

 

 

 
PHILAFIN
- Test Report
(continued)
  • SUPERIOR
    MECHANICAL STRENGTH
  • LIGHTER
    WEIGHT
One measure of the
mechanical strength of a flexible cord is

resistance to failure under a crushing load. Below are results of

crushing strength tests for flexible cords.

Another important
consideration in “portable” power supply

cordage is weight. PHILAFIN can offer a lighter, more portable

cable than either rubber or Neoprene. Typical weight savings on

12/3 cords are shown as follows:

 
CRUSHING STRENGTH 12 / 3 CORDAGE
WEIGHT
PHILAFIN RUBBER NEOPRENE PHILAFIN RUBBER NEOPRENE
Type SEO Type S Type SO Type SEO Type S Type SO
Pounds Force @ Failure
3,400
2,000 3,000 Pounds Per 1,000
feet

164
199 235
Weight Reduction
n/a
18% 33%
_________________________________________________________________________________________________________________________
COMPARISON OF
FLEXIBLE CORD JACKET MATERIALS
UNAGED PYSICALS PHILAFIN RUBBER NEOPRENE
Tensile Strength (PSI)…………………………………………… 2,000 1,420 1,630
100% Modulus
(PSI)……………………………………………
340 690 770
Elongation
(%)…………………………………………………….
550 300 300

LOW TEMPERATURE
PROPERTIES
     
Brittle
Point (°F)……………………………………………………
-100° -52° -38°
Cold Bend @
-35
°C……………………………………………..
Pass Pass Pass
Cold Bend @
-50
°C……………………………………………..
Pass Failed Failed
Cold Bend @
-65
°C……………………………………………..
Pass Failed Failed

AGING
PROPERTIES
     
Air Oven 7
Days @ 121°C
     
% Retention
of Tensile…………………………………………….

123
104 188
% Retention
of Elongation………………………………………..

89
17 17
Air Oven 7
Days @ 136°C
     
% Retention
of Tensile…………………………………………….
150 0 0
% Retention
of Elongation………………………………………..
116 0 0
Air Bomb 43
Hrs. @ 127°C
     
% Retention
of Tensile…………………………………………….
117 56 93
% Retention
of Elongation………………………………………..
116 18 43

OZONE
RESISTANCE
     
Hours To
Cracking (100 pphm/100°F)………………………
1,000 24 300

HEAT
DEFORMATION (T²/T¹)
     
2000 gms @
121°C………………………………………………..
.76 .93 .95

MECHANICAL
PROPERTIES
     
(Crushing
Strength) Lbs. Force To Failure…………………
3,400 2,000 3,000
Abrasion
Resistance Cycles To Wear Through Jacket….
36 18 14

CHEMICAL
RESISTANCE
     
% Diameter
Change–30 Day Immersion at Room Temperature
     

Alcohol–Ethyl………………………………………………………….
0 -1 0
Ammonia………………………………………………………………. 1 2 1
Gasoline–Unleaded……………………………………………….. 61 58 63
Kerosene……………………………………………………………… 34 25 17
Oil–Motor
10/40………………………………………………………
9 6 0

Oil–Vegetable…………………………………………………………
-2 6 0
Skydrol
500……………………………………………………………
0 -3 22
Toluene………………………………………………………………… 26 60 56
Water……………………………………………………………………. -1 -2 -1