https://www.avient.com/sites/default/files/resources/PolyOne%2520Proxy%2520Statement%25202016.pdf
The following chart compares cumulative TSR on our common shares against the cumulative total return of the
S&P 500 Index and the S&P Mid Cap Chemicals Index for the five-year period December 31, 2010 to December 31,
2015, assuming in each case a fixed investment of $100 and reinvestment of all dividends.
Our performance has
exceeded the S&P 500 Index as well as the S&P Mid Cap Chemicals Index.
The $1 million
deduction limit generally does not apply to compensation that satisfies Section 162(m)’s requirements for qualified
performance-based compensation.
https://www.avient.com/sites/default/files/2020-10/2020-gravi-tech-design-guide-.pdf
CHAPTER 3 | PART DESIGN GUIDELINES
Wall Thickness (mm)
C
o
o
li
n
g
T
im
e
(
S
e
c
)
40
35
30
25
20
15
10
5
0
0 1 2 3 4
ABS
PC
Nylon 6/6
Figure 2 - Designing for Wall Thickness Changes
Bad
Better
Recommended
Recommended
Poor
High Stress
Ideal
Figure 3 - Internal and External
Radius Guidelines
.5W Min
Inside Rad + W
Poor
High Volume
FIGURE 1 - Wall thickness vs . cooling
time of various plastics
FIGURE 2 - Designing for
wall thickness changes
FIGURE 3 - Internal and external
radius guidelines
Design Guide 9
RIB DESIGN GUIDELINES
The minimum distance ribs should be spaced is
three times the nominal wall thickness (3W) .
This will
FIGURE 43 - Non-Newtonian Fluid Flow
Low Level of Orientation Frozen Layer
Highly Oriented Laminates Gate
Pressure
Transducer A
Pressure
Transducer B
Hydraulic x 10
Filling Hold Start of
mold shrinkage
Time
Pack
P
re
s
s
u
re
A
B
FIGURE 45 - Non-Newtonian fluid flow
Relative Viscosity = Transfer Position * Fill Time
Shear Rate = 1
Fill time
FIGURE 46 - Pressure vs .
End of Fill
Part Length
Dynamic Pressure
Hydrostatic Pressure
P
re
s
s
u
re
Gate End
Part
FIGURE 61 - Deflection Equations
H
F
WLMax Deflection:
0.002" (0.05mm)
1 =
W • H3
12
_______
bending =
F • L3
48 • E • I
_______
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
FIGURE 60 - Pressure vs Part Length
FIGURE 61 - Deflection equations
FIGURE 62 - For Plate Shaped Parts
FIGURE 63 - For Cylindrical Shaped Parts
Design Guide 49
• M
Moldings
= Combined mass of molded parts
• C
p
= Specific Heat of the material
Step 3 – Heat Removal Rate
• N
lines
= The total number of independent cooling
lines there are in the mold
• t
c
= The cooling time required by the part
(Determined in step 1)
Step 4 – Coolant Volumetric Flow Rate
• ΔT
Max,Coolant
= Change in coolant
Temperature During Molding (1°C)
• ρ
Coolant
= Density of coolant
• CP = Specific heat of coolant
Step 5 – Determine Cooling Line Diameter
• ρ
Coolant
= Density of coolant
• V
Coolant
= Volumetric flow rate of coolant
• μ
Coolant
= Viscosity of coolant
• ΔP
line
= Max pressure drop per line
(Usually equals half of the pump capacity)
• L
Line
= Length of the cooling lines
COOLING LINE SPACING
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
4
π
tc =
h2
1n
π2 • a
•
Tmelt – Tcoolant
Teject – Tcoolant
tc =
D2
1.61n
23.1 • a
Tmelt – Tcoolant
Teject – Tcoolant
a =
k
p * Cp
Qmoldings = mmoldings • Cp • Tme • Cplt – Teject
cooling
nlines
moldings
tccooling
Vcoolant
line
nmax, coolant • Pcoolant • Cp, coolant
Dmax =
4 • Pcoolant • Vcoolant
π • µcoolant • 4000
Dmin =
Pcoolant • Lline • V2coolant5
10π • ∆Pline
2D < H
line
< 5D
H
line
< W
line
< 2H
line
FIGURE 70 - Cooling Line Spacing
FIGURE 64 - Heat Transfer Equation
FIGURE 65 - Total Cooling for Mold
FIGURE 66 - Cooling Required by Each Line
FIGURE 68 - Max Diameter Equation
FIGURE 69 - Min Diameter Equation
FIGURE 67 - Volumetric Flow Rate Equation
50 Gravi-Tech
ADHESIVE ADVANTAGES DISADVANTAGES
Cyanoacrylate
Rapid, one-part process
Various viscosities
Can be paired with primers
for polyolefins
Poor strength
Low stress crack resistance
Low chemical resistance
Epoxy
High strength
Compatible with various
substrates
Tough
Requires mixing
Long cure time
Limited pot life
Exothermic
Hot Melt
Solvent-free
High adhesion
Different chemistries for
different substrates
High temp dispensing
Poor high temp performance
Poor metal adhesion
Light Curing Acrylic
Quick curing
One component
Good environmental resistance
Oxygen sensitive
Light source required
Limited curing configurations
Polyurethane
High cohesive strength
Impact and abrasion resistance
Poor high heat
performance
Requires mixing
Silicone
Room temp curing
Good adhesion
Flexible
Performs well in high temps
Low cohesive strength
Limited curing depth
Solvent sensitive
No-Mix Acrylic
Good peel strength
Fast cure
Adhesion to variety
of substrates
Strong odor
Exothermic
Limited cure depth
Design Guide 51
Bibliography
1 .
https://www.avient.com/sites/default/files/2021-05/renol-ul94-compliant-masterbatches-brochure.pdf
RENOL™ UL94 COMPLIANT
MASTERBATCHES
HOW TO USE THE TABLES
UL HB
GENERIC RESIN TYPE
FLAME
RATING
MINIMUM
THICKNESS
(MM)
MAXIMUM
LET-DOWN
RATIO
Acetal Copolymer (POM) HB 1.50 1:20
Acrylonitrile Butadiene Styrene (ABS) HB 1.50 1:10
Ethylene Propylene Thermoplastic Rubber (EPTR) HB 1.50 1:20
High Impact Polystyrene (HIPS) HB 1.50 1:10
Liquid Crystal Polymer (LCP) HB 0.83 1:10
Polyamide (PA) HB 3.20 1:33
Polyamide (PA66 and PA 4/6) HB 0.81 1:20
Polyamide 6 (PA6) HB 0.75 1:25
Polyamide 66 (PA66) HB 0.40 1:40
Polybutylene Terephthalate (PBT) HB 0.81 1:20
Polybutylene Terephthalate/Polycarbonate (PBT/PC) HB 1.50 1:10
Polycarbonate (PC) HB 1.50 1:15
Polycarbonate/Acrylonitrile Butadiene Styrene (PC/ABS) HB 1.50 1:20
Polycarbonate/Polyethylene Terephthalate (PC/PET) HB 1.50 1:20
Polyethylene (PE) HB 1.50 1:50
Polyethylene Terephthalate (PET) HB 0.80 1:16.7
Polyketone HB 1.50 1:20
Polymethyl Methacrylate (PMMA) HB 3.00 1:25
Polypropylene (PP) HB 1.50 1:15
Polystyrene (PS) HB 0.83 1:15
Polyurethane (PUR) HB 1.50 1:25
Polyvinylchloride (PVC) HB 1.50 1:20
Styrene Acrylonitrile (SAN) HB 1.50 1:20
Thermoplastic Elastomer (TPE) HB 0.75 1:25
UL94 V-0, V-1, V-2
ASCEND
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyamide 66
(PA66)
21X1(a)(f2), 21SPC1(a)(f2),
21SPF1(a)(f2), 21SPG1(a)(f2),
21SPM1(a)(f2), 20NSP1(a)(f2)
0.75 V-2 1:40
22HSP(e) 0.75 V-2 1:40
64C-R 3.0 V-2 1:50
ECO366(e) 0.4 V-0 1:40
ECO366H(e) 0.2 V-0 1:25
FR350J 0.4 V-0 1:25
20NSP(a)(f2), 21SPF(a)(f2),
21SPM(a)(f2), 21SPC(a)(f2)
0.4 V-2 1:40
20NSP(a)(h)(f2), 21SPF(a)(h)(f2),
21SPM(a)(h)(f2), 21SPC(a)(h) (f2)
1.5 V-2 1:20
Polyamide 66/6
(PA66/6)
ECO315(e), ECO315J(e) 0.4 V-0 1:40
M344 3.0 V-0 1:25
909 0.75 V-0 1:25
UL94 V-0, V-1, V-2
BASF
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyamide 6
(PA6)
8202(t1), 8202 Blend (t1) 0.71 V-2 1:25
8202C(t1), 8202C BLEND (t1) 1.50 V-2 1:25
8202CHS(t1) (t3), 8202C HS Blend 1.50 V-2 1:25
8202HS(t1) 1.50 V-2 1:25
B3S
0.80 V-2 1:25
1.50 V-2 1:25
B3S Q661 1.50 V-2 1:25
B3S R03 1.50 V-2 1:25
8232G HSFR(t9), B3U10G5 (t9) 1.50 V-0 1:25
Polyamide 6/66
(PA6/66)
C3U (m) 0.40 V-0 1:25
KR4205(m), C3U (m), C3U (t)(m) 0.40 V-0 1:25
KR4205, C3U 0.40 V-0 1:25
Polyamide 66
(PA66)
1000(b), 1310-(b), Ultramid A3K Q603(+) 1.50 V-2 1:10
A3K (o) Q790(g)(f2) 0.41 V-2 1:20
A3K(f2), A3K Q601(f2) 0.41 V-2 1:20
A3SK 0.41 V-2 1:25
A5 3.00 V-2 1:33
A3W(f1), A3W FC (f1) 0.75 V-2 1:10
A3K R01 (t)(g)(f2) 0.40 V-2 1:20
Polybutylene
Terephthalate
(PBT)
B4406 G2 (o) Q798 1.50 V-0 1:20
B4406 G2(a), B4406 G2 (o) Q717(a) 1.50 V-0 1:20
B4406 G3 (o) Q798 1.50 V-0 1:20
B4406 G3(a), B4406 G3 (o) Q717(a) 1.50 V-0 1:20
B4406 G4 (o) Q798 1.50 V-0 1:20
B4406 G4(a2), B4406 G4 (o) Q717(a2) 1.50 V-0 1:20
B4406 G6 (o) Q798 3.00 V-0 1:12.5
B4406 G6(%) 1.50 V-0 1:20
B4406 G6(a1), B4406 G6 (o) Q717(a1),
B4406 G6 (o) Q717 High Speed(a1)
1.50 V-0 1:20
B4406(a), B4406 (o) Q717(a) 1.50 V-0 1:20
B4406@ 1.50 V-0 1:20
B4450 G5, B4450 G5 (t) 0.40 V-2 1:50
Polyurethane
(PUR)
11 85 A(a) FHF 000 (f2) 0.75 V-0 1:33
UL94 V-0, V-1, V-2
CELANESE
GENERIC
RESIN TYPE
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Liquid Crystal
Polymer
(LCP)
A130(+), MT1310 1.50 V-0 1:40
Polyamide 66
(PA66)
A3 GF 25 V0XI, A G5 FR C4 0.40 V-0 1:25
Polybutylene
Terephthalate
(PBT)
2012-2 1.50 V-0 1:20
2016(b) 1.50 V-0 1:20
3112-2 1.50 V-0 1:20
3116(b) 1.50 V-0 1:20
3216(b) 1.50 V-0 1:20
3310-2(f2) 1.50 V-0 1:20
3311-3(f2) 1.50 V-0 1:20
3316(b) 1.50 V-0 1:20
3316(b), 3316HF 1.50 V-0 1:20
COVESTRO
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polycarbonate
(PC)
2407 + (z)(f1) 0.75-2.60 V-2 1:10
2807 + MAS183 0.75 V-2 1:25
6455 + (z)
3.00 V-0 1:25
1.50 V-2 1:25
6485 + (z)(f1) 1.50 V-0 1:25
Polycarbonate/
Acrylonitrile
Butadiene Styrene
(PC/ABS)
FR110 + 1.50 V-0 1:33
FR3005 HF + (z), FR3005 HF + BBS314 1.50 V-0 1:12.5
FR3010 + (z)
3.00 V-0 1:25
1.50 V-0 1:25
FR3010 HF + 3.00 V-0 1:25
FR3030 + 3.00 V-0 1:25
UL94 V-0, V-1, V-2
DSM
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyamide 46
(PA46)
TE250F6(h1)( j) 0.50 V-0 1:25
Polyamide 6
(PA6)
F223-D(f1), F223-D /A(f1) 0.75 V-2 1:25
K222-KGV5(f1)
0.75 V-2 1:16.7
1.50 V-2 1:16.7
K-FKGS6/B(f1)(y) 0.80 V-0 1:25
Polyamide 66
(PA66)
SG-KGS6/HV 0.75 V-0 1:25
Thermoplastic
Elastomer
(TPE)
PL460-S 1.60 V-0 1:25
Polyamide 4T
(PA4T)
T11 (h) 0.40 V-0 1:20
DOMO
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyamide
(PA)
J 60X1 V30 0.40 V-0 1:25
Polyamide 6
(PA6)
PSB 286
0.80 V-2 1:25
3.00 V-2 1:25
Polyamide 66
(PA66)
A 205F(r4) 0.38 V-2 1:25
A 225F 0.75 V-2 1:25
A 50H1 (r3)(f2) 0.40 V-0 1:25
A 30G1 0.40 V-0 1:25
DUPONT
UL94 V-0, V-1, V-2
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyamide
(PA)
132F(+)(f1), 135F(+)(f1) 0.75 V-2 1:20
HTNFR42G30NH 0.40 V-0 1:25
Polyamide 6/12
(PA6/12)
151, 151L 1.50 V-2 1:25
Polyamide 66
(PA66)
101(r9)(f1), 101F(r9)(f1), 101L(r9)(f1),
E101(r9)(f1), E101L(r9)(f1)
0.75 V-2 1:20
103FHS(+), 103HSL(+), RN5077E(+),
E103HSL(+)
0.75 V-2 1:20
A428 0.75 V-0 1:20
FE3757(+) 0.75 V-2 1:25
FR15(+) 0.75 V-0 1:20
FR50(+)(f1) 0.35 V-0 1:20
FR7025V0F(+) 0.50 V-0 1:33
Polyamide 66/6
(PA66/6)
FR72G25V0 0.80 V-0 1:25
Polyamide 66/6T
(PA66/6T)
FR95G25V0NH 0.40 V-0 1:25
Polyamide 6T/66
(PA6T/66)
HTNFR52G15AL 0.75 V-0 1:33
HTNFR52G30BL(r3) 0.75 V-0 1:33
HTNFR52G30L(+), FE15502(+),
HTNFR52G30AL(+)
0.75 V-0 1:33
HTNFR52G30NH(r6)
0.40 V-0 1:25
0.75 V-0 1:10
HTNFR52G35BL 0.75 V-0 1:25
HTNFR52G35L(+), HTNFR52G35AL 0.75 V-0 1:33
Polyamide 6T/
MPMDT
HTNFR51G35L(+) 0.81 V-0 1:33
Polybutylene
Terephthalate
(PBT)
LW9030FR 1.50 V-0 1:25
S650FR 1.50 V-0 1:25
SK642FR 1.50 V-0 1:25
SK652FR1 1.50 V-0 1:16.5
T841FR (r4) 1.50 V-0 1:25
Polyethylene
Terephthalate
(PET)
FR530(l)(+)(f1), FR530L(l)(+)(f1) 0.75 V-0 1:25
Thermoplastic
Elastomer
(TPE)
HTR8068 1.60 V-0 1:25
UL94 V-0, V-1, V-2
EXXONMOBIL
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Ethylene
Propylene
Thermoplastic
Rubber
(EPTR)
251-80W232(f7) 1.50 V-2 1:20
251-92W232 1.50 V-0 1:20
251-70W232
1.50 V-0 1:10
1.00 V-2 1:10
LANXESS
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyamide 6
(PA6)
B30S+(f1) 1.50 V-2 1:25
B31SK+ 1.50 V-2 1:25
Polybutylene
Terephthalate
(PBT)
B4235+ 1.50 V-0 1:10
TP364-302+, BF4232+(f1) 0.75 V-0 1:25
UL94 V-0, V-1, V-2
SABIC
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polybutylene
Terephthalate
(PBT)
310(w) 1.50 V-0 1:20
310SE0(w) 1.50 V-0 1:20
310SE0(w),310SE0R(w) 1.50 V-0 1:20
420SE0(f1)(w)(GG)(rr1) 1.50 V-0 1:20
420SE0(f1)(w)(GG)(rr2) 1.50 V-0 1:20
457(w) 1.50 V-0 1:20
457(w), 451(w) 1.50 V-0 1:20
553(a)(f1)(w) 1.50 V-0 1:20
553(a)(f1)(w), 553E(a)(f1)(w),
553U(a)(f1)(w)
1.50 V-0 1:20
553(w)(f1), 553M(w)(f1) 1.50 V-0 1:20
DR48(w) 1.50 V-0 1:20
DR48,DR48M 1.50 V-0 1:20
V4760(a2) 0.40 V-0 1:20
EXVX1259, ENH4550 0.40 V-0 1:20
771 0.75 V-0 1:25
Polybutylene
Terephthalate/
Polycarbonate
(PBT/PC)
357(f1)(w)(IC), 357M(f1)(w)(IC),
357U(f1)(w)(IC)
1.50 V-0 1:20
357(f1)(w)(IC), 357U(f1)(w)(IC) 1.50 V-0 1:20
357X(f1) 1.50 V-0 1:20
V3900WX(GG)(f1)(IA),
V3901WX(GG)(f1)(IA)
3.00 V-0 1:20
1.50 V-0 1:20
357(w)(f2)(IC), 357M(w)(f2)(IC),
357U(w)(f2)(IC)
1.50 V-0 1:20
UL94 V-0, V-1, V-2
SABIC
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polycarbonate
(PC)
221(f2) 1.50 V-2 1:25
221R(f2) 1.50 V-2 1:25
500(f2), 500R(f2) 3.00 V-0 1:33
503(f1)
3.00 V-0 10:1
1.50 V-0 10:1
503(f1), 503R(f1)
3.00 V-0 10:1
1.50 V-0 10:1
943(ab) 1.50 V-0 1:20
943(f1) 1.50 V-0 1:20
943(f1), 923(f1) 1.50 V-0 1:20
950A, 920ASR, FXD911A(GG), 940ASR 1.50 V-2 1:25
CFR7630(f1)(gg*) 1.50 V-0 1:25
ML5139R(f2) 3.00 V-0 1:33
950A, FXD911A(GG), 940ASR 3.00 V-0 1:25
943 1.50 V-0 1:20
920A
3.00 V-0 1:25
1.50 V-2 1:25
Polycarbonate/
Acrylonitrile
Butadiene Styrene
(PC/ABS)
C2950 1.50 V-0 6:100
C6200(GG) 2.00 V-0 1:20
Acrylonitrile
Styrene Acrylate/
Polycarbonate
(ASA/PC)
HRA222 (GG) 0.80 V-2 1:20
UL94 V-0, V-1, V-2
SOLVAY
OTHERS
GENERIC
RESIN TYPE
SPECIFIC BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
Polyphenyl Sulfone
(PPSU)
R-5100 (r1)(##), R-5000 (r1)(##) 1.50 V-0 1:10
Polyphthalamide
(PPA)
AFA-4133 V0(+) (*) 0.75 V-0 1:25
BASE RESIN
MANUFACTURER
GENERIC
RESIN TYPE
SPECIFIC
BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
ALBIS
Polypropylene
(PP)
PP 13 CV2 14 1.50 V-2 1:25
AVIENT
Polyvinylchloride
(PVC)
M3700(X), M3755(X) 1.50 V-0 1:25
M3900 1.50 V-0 1:25
CHI MEI
Acrylonitrile
Butadiene Styrene
(ABS)
PA-765(+) 1.50 V-0 1:10
Polycarbonate/
Acrylonitrile
Butadiene Styrene
(PC/ABS)
PC-510(+) 1.50 V-0 1:25
EMS-CHEMIE
Polyamide 6
(PA6)
Grilon A 26 V0 0.75 V-0 1:25
FORMOSA
Polycarbonate
(PC)
#1700+(f2) 0.36-0.42 V-2 1:50
GEON
Polyvinylchloride
(PVC)
85891(f1) 1.70 V-0 1:20
85891(f2) 1.70 V-0 1:20
M3700(X) 1.50 V-0 1:25
M3900
1.50 V-0 1:10
1:25
INEOS
Polystyrene
(PS)
855 HV 3.00 V-1 100:4
INVISTA
Polyamide 66
(PA66)
FRU4800 XHL (r1) 0.40 V-0 1:25
U4820L (r1) 0.40 V-2 1:25
UL94 V-0, V-1, V-2
OTHERS
BASE RESIN
MANUFACTURER
GENERIC
RESIN TYPE
SPECIFIC
BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
KINGFA
Polyamide 66
(PA66)
PA66-R11G25 (##) 0.25 V-0 1:25
KURARAY
Polyamide 9T
(PA9T)
GP2300S 0.40 V-0 1:25
LG CHEM
Polycarbonate/
Acrylonitrile
Butadiene Styrene
(PC/ABS)
LUPOY GP-5106-F 3.00 V-0 1:20
LOTTE CHEMICAL
Acrylonitrile
Butadiene Styrene
(ABS)
VH-0800(+) 1.50 V-0 1:25
Polycarbonate
(PC)
HN-1064(+)
0.75 V-2 1:10
1.50 V-0 1:10
1.20 V-1 1:10
Polystyrene
(PS)
VH-1800+
3.00 V-0 1:25
1.50 V-0 1:25
MITSUBISHI
Polycarbonate
(PC)
S-2000+(f1) 1.50-1.80 V-2 1:10
POLYMER
PRODUCTS
Polystyrene
(PS)
ZYNTAR 351
2.00 V-0 1:20
1.50 V-0 1:20
ZYNTAR 7000 2.00 V-0 1:25
ZYNTAR 702 2.00 V-0 1:25
8020 2.00 V-0 1:20
8120 2.00 V-0 1:20
8130 1.50 V-0 1:20
POLYMER
RESOURCES
Polycarbonate
(PC)
PC-FR1A-D, PC-
FR2A-D, PC-FR3A-D
3.00 V-0 1:33
1.50 V-2 1:33
SUMITOMO
Liquid Crystal
Polymer
(LCP)
E6007LHF(ra) 0.30 V-0 1:25
E6007LHF-MR(gt) 0.20 V-0 1:12.5
UL94 V-0, V-1, V-2
OTHERS
BASE RESIN
MANUFACTURER
GENERIC
RESIN TYPE
SPECIFIC
BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
MAXIMUM
LET-DOWN
RATIO
TORAY
Polyamide 6
(PA6)
1017 1.60 V-2 1:16.5
Polyamide 66
(PA66)
3004-V0(rr),
CM3004-V0(rr)
0.40 V-0 1:25
TRINSEO
Polycarbonate
(PC)
891(w) 1.10 V-0 1:25
WELLMAN
Polyamide 66/6
(PA66/6)
220-N, 21L-N, 22L-N 1.50 V-2 1:25
WESTLAKE
Polyvinylchloride
(PVC)
6597(f1), HF-6597(f1) 1.50 V-0 1:25
SP-7107 (f1)(a) 3.00 V-0 1:25
5VA AND 5VB
BASE RESIN
MANUFACTURER
GENERIC
RESIN TYPE
SPECIFIC
BASE RESIN
MINIMUM
THICKNESS
(MM)
FLAME
RATING
COLORS
MAXIMUM
LET-DOWN
RATIO
AVIENT
Polyvinylchloride
(PVC)
M3900 1.50 5VB
ALL 1:25
WHITE 1:10
COVESTRO
Polycarbonate/
Acrylonitrile
Butadiene Styrene
(PC/ABS)
FR3010 + (z) 3.00 5VA ALL 1:25
DUPONT
Polyamide 66/6T
(PA66/6T)
FR95G25V0NH 1.50 5VA ALL 1:25
Polybutylene
Terephthalate
(PBT)
LW9030FR
2.00 5VA BLACK 1:25
3.00 5VA ALL 1:25
SK642FR 1.50 5VA BLACK 1:25
GEON
Polyvinylchloride
(PVC)
M3900 1.50 5VB
ALL 1:25
WHITE 1:10
SABIC
Polybutylene
Terephthalate/
Polycarbonate
(PBT/PC)
V3900WX(GG)(f1)(IA),
V3901WX(GG)(f1)(IA)
3.00 5VA ALL 1:20
1.844.4AVIENT
www.avient.com
Copyright © 2020, Avient Corporation.
https://www.avient.com/sites/default/files/resources/POL%2520IR%2520Presentation%2520-%2520Credit%2520Suisse%2520-%2520June%25202015.pdf
PolyOne Corporation Page 4
PolyOne Commodity to Specialty Transformation
• Volume driven,
commodity producer
• Heavily tied to
cyclical end markets
• Performance largely
dependent on non-
controlling joint
ventures
2000-2005 2006 - 2009 2010 – 2014 2015 and beyond
• Steve Newlin
appointed, Chairman,
President and CEO
• New leadership team
appointed
• Implementation of four
pillar strategy
• Focus on value based
selling, investment in
commercial resources
and innovation to drive
transformation
• Substantial EPS growth
from $0.13 to all-time
high of $1.80
• Shift to faster growing,
high margin, less
cyclical end markets
• Key acquisitions propel
current and future
growth, as well as
margin expansion
• Specialty mix expands
to 65% of Operating
Income – strongest mix
of earnings in history
• Accelerating growth
• Deliver consistent
double digit annual
EPS growth
• Maintain >35% vitality
index
• Pursue strategic
acquisitions that
expand specialty
offerings and
geographic breadth
• Invest and grow
current and next
generation talent
PolyOne Corporation Page 5
Appliances
5%
Building &
Construction
12%
Consumer
10%
Electrical &
Electronics
5%
Healthcare
11%
Industrial
14%
Packaging
14%
Transportation
20%
Wire & Cable
9%
Distribution
28%
PP&S
20%
Specialty
52%
United States
69%
Europe
13%
Canada
7% Asia
6%
Latin America
5%
2014 Revenues: $3.8 Billion
End Markets
2014 Revenues: $3.8 Billion
PolyOne
At A Glance
$13
$31
$46 $46
$87 $96
$122
$195
$242
2006 2007 2008 2009 2010 2011 2012 2013 2014
Specialty Operating Income ($M)
PolyOne Corporation Page 6
Old
PolyOne
*Operating Income excludes corporate charges and special items
2%
34% 43%
62%
65%
69%
0%
20%
40%
60%
80%
100%
2005 2008 2010 2013 2014 Q1 2015 2020
%
o
f O
pe
ra
tin
g
In
co
m
e*
JV's Performance Products & Solutions Distribution Specialty
80%+
Specialty OI $5M $46M $87M $195M $242M $60M
Mix Shift Highlights Specialty Transformation
Transformation
2020
Platinum
Vision
Platinum
Vision
PolyOne Corporation Page 7
Confirmation of Our Strategy
The World’s Premier Provider of Specialized
Polymer Materials, Services and Solutions
Specialization Globalization
Operational
Excellence
Commercial
Excellence
PolyOne Corporation Page 8
-100%
0%
100%
200%
300%
400%
500%
600%
Strategy and Execution Drive Results
$0.12
$0.27
$0.21
$0.13
$0.68
$0.82
$1.00
$1.31
$1.80
'06 '07 '08 '09 '10 '11 '12 '13 '14
‘06-‘14 Adjusted EPS CAGR = 40%
Adjusted EPS Share Price vs.
S&P 500
PolyOne Corporation Page 9
2006 Q1 2015 2020
“Where we were” “Where we are” Platinum Vision
1) Operating Income %
Specialty:
Global Color, Additives & Inks 1.7% 16.2% 20%+
Global Specialty Engineered
Materials 1.1% 16.3% 20%+
Designed Structures & Solutions 1.4% (2012) 2.7% 12 – 14%
Performance Products &
Solutions 5.5% 6.5% 10 – 12%
Distribution 2.6% 5.9% 6.5 – 7.5%
2) Specialty Platform % of
Operating Income 6.0% 69% 80%+
3) ROIC 5.0% 11.4% 15%
4) Adjusted EPS Growth N/A
22 Consecutive
Quarters of
EPS Growth
Double Digit
Expansion
Proof of Performance & 2020 Goals
PolyOne Corporation Page 10
Platinum Vision: Pathway to Accelerated Growth
Organic
Sales Growth
Margin
Expansion
Share
Repurchases
Acquisitions
PolyOne Corporation Page 11
Innovation Drives Earnings Growth
*Percentage of Specialty Platform revenue from products introduced in last five years
$20
$53
2006 2014
Research & Development
Spending
($ millions)
Specialty Platform
Vitality Index Progression*
14%
27%
2006 2014
Specialty Platform
Gross Margin %
20%
44%
2006 2014
Specialty Vitality Index Target ≥ 35%
PolyOne Corporation Page 12
Megatrends Aligned with Key End Markets
Decreasing
Dependence
on Fossil
Fuels
Protecting
the
Environment
Improving
Health and
Wellness
Megatrend End Markets
Globalizing
and
Localizing
Health &
Wellness
Transportation
Packaging
Consumer
PolyOne Corporation Page 13
Prototype Frame
Opportunity
Scale-up &
Test Market
Build
Business Case
Commercial
Launch
Phase
1
Phase
2
Phase
3
Phase
4
Phase
5
6
9
7
3
5
12
5 3 2
8
4
2
4
3
1
Breakthrough
Platform
Derivative
A Rich Pipeline of Opportunity
Number of Projects 14 8 18 12 22 74
Addressable Market
($ millions)
$700 $600 $600 $1,900
PolyOne Corporation Page 14
60%
98%
20%
30%
40%
50%
60%
70%
80%
90%
100%
2008 Q1 2015
Pension Funding**
As of March 31, 2015
Debt Maturities & Pension Funding
Net Debt / EBITDA* = 2.1x
$49
$317
$600
$0
$100
$200
$300
$400
$500
$600
$700
$800
2015 2020 2023
Debt Maturities
As of March 31, 2015
($ millions)
Coupon Rate: 7.500% 7.375% 5.250%
** includes US-qualified pension plans only *TTM 3/31/2015
PolyOne Corporation Page 15
Free Cash Flow and Strong Balance Sheet
Fund Investment / Shareholder Return
Expanding our sales,
marketing, and
technical capabilities
Investing in operational
and LSS initiatives
~75% of capital
expenditures fund
growth initiatives Organic
Growth
Acquisitions
Share
Repurchases
Dividends
$0.16
$0.20
$0.24
$0.32
$0.40
$0.10
$0.20
$0.30
$0.40
$0.50
2011 2012 2013 2014 2015
Annual Dividend
Targets that expand
our:
• Specialty offerings
• End market
presence
• Geographic breadth
Synergy opportunities
Adjacent material
solutions
Repurchased over
500k shares in Q1
2015
Repurchased 11.8
million shares since
early 2013
8.2 million shares are
available for
repurchase under the
current authorization
PolyOne Corporation Page 16
PolyOne Core Values
Innovation
Collaboration
Excellence
PolyOne Corporation Page 17
The New PolyOne: A Specialty Growth Company
Why Invest In PolyOne?
https://www.avient.com/sites/default/files/resources/Terms%2520and%2520Conditions%2520of%2520Sale%2520for%2520Mexico%2520%2528English%2520and%2520Spanish%2520Language%2520Version%2529.pdf
Seller has based any
recommendations to Buyer for the use of the Product
upon information that Seller considers reliable, but
Seller makes no warranty as to any results Buyer might
obtain in Buyer’s use(s) for the Product.
El Vendedor ha basado sus
recomendaciones al Comprador para el uso del Producto en la
información que el Vendedor considera confiable, pero el
Vendedor no garantiza ningún resultado que el Comprador
pudiera obtener mediante el/los uso(s) del Producto por el
Comprador.
https://www.avient.com/sites/default/files/2024-12/Terms and Conditions of Sale for France.pdf
TERMS AND CONDITIONS
These Terms and Conditions govern the sale of Products (“Product(s)”) to another (“Buyer”) by Avient Corporation
and its affiliates (“Seller”).
1.
Seller has
based any recommendations to Buyer upon information that Seller considers reliable, but Seller makes no warranty as to
any results Buyer might obtain in Buyer’s use(s) for the Product.
https://www.avient.com/sites/default/files/2020-09/lubrione-processing-guide.pdf
BASE
RESIN
PPA PC PSU PES PPS
CO-
POLYMER
ACETAL
PEEK PA
Barrel Temperatures* °F (°C)
Rear Zone
550–580
(288–305)
520–560
(271–293)
600–640
(316–338)
630–660
(332–338)
550–580
(288–304)
350–370
(177–188)
660–700
(349–371)
440–490
(227–254)
Center Zone
560–600
(293–316)
530–570
(277–299)
620–670
(327–354)
650–680
(343–360)
560–615
(293–324)
380–390
(193–200)
700–730
(371–388)
470–510
(243–266)
Front Zone
580–620
(304–327)
550–580
(288–305)
630–680
(332–360)
670–730
(354–388)
590–630
(310–332)
390–430
(200–221)
720–750
(382–400)
490–540
(254–282)
Nozzle
575–615
(302–324)
550–600
(288–316)
630–680
(332–360)
680–700
(360–371)
600–625
(316–330)
380–415
(193–213)
720–750
(382–400)
520–570
(271–300)
Melt
Temperature
575–615
(302–324)
560–600
(293–316)
625–675
(330–358)
650–710
(343–377)
600–625
(316–330)
370–410
(188–210)
670–740
(354–393)
520–570
(271–300)
Mold
Temperature
250–300
(121–150)
175–240
(80–116)
190–300
(88–150)
225–325
(107–164)
250–325
(121–164)
150–225
(66–107)
290–375
(143–190)
150–200
(66–93)
Pack & Hold
Pressure
50%–75%
of Injection Pressure
Injection
Velocity
in/s
1.0–3.0
Back Pressure
psi
50
Screw Speed
rpm
50–90
Drying
Parameters
°F (°C)
6 hrs @ 175
(80)
4 hrs @ 250
(121)
4 hrs @ 275
(135)
4 hrs @ 300
(150)
4 hrs @ 250
(121)
2 hrs @ 200
(93)
3 hrs @ 300
(150)
4 hrs @ 180
(82)
Allowable
Moisture
%
< 0.05 < 0.02 < 0.02 < 0.04 < 0.02 0.15–0.20 < 0.02 0.10–0.20
Cushion
in
0.125–0.250
Screw
Compression
Ratio
2.5:1–3.5:1 2.0:1–2.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1
Nozzle
Type
General
Purpose
General
Purpose
General
Purpose
General
Purpose
General
Purpose
General
Purpose
General
Purpose
Reverse
Taper
Clamp
Pressure
5–6 Tons/in2 of projected area of cavities and runner system
* Barrel temperatures should be elevated for compounds designed for electrical insulative properties.
https://www.avient.com/sites/default/files/2020-09/edgetek-processing-guide.pdf
Base Resin PPA PC PSU PES PPS
Co-
polymer
Acetal
PEEK PA
Barrel Temperatures* °F (°C)
Rear Zone
550–580
(288–305)
550–590
(288–310)
600–640
(316–338)
630–660
(332–338)
550–580
(288–304)
350–370
(177–188)
660–700
(349–371)
440–490
(227–254)
Center Zone
560–600
(293–316)
570–600
(300–316)
620–670
(327–354)
650–680
(343–360)
560–615
(293–324)
380–390
(193–200)
700–730
(371–388)
470–510
(243–266)
Front Zone
580–620
(304–327)
580–630
(304–322)
630–680
(332–360)
670–730
(354–388)
590–630
(310–332)
390–430
(200–221)
720–750
(382–400)
490–540
(254–282)
Nozzle
575–615
(302–324)
580–630
(304–322)
630–680
(332–360)
680–700
(360–371)
600–625
(316–330)
380–415
(193–213)
720–750
(382–400)
520–570
(271–300)
Melt
Temperature
575–615
(302–324)
580–625
(304–330)
625–675
(330–358)
650–710
(343–377)
600–625
(316–330)
370–410
(188–210)
670–740
(354–393)
520–570
(271–300)
Mold
Temperature
250–300
(121–150)
175–240
(80–116)
190–300
(88–150)
225–325
(107–164)
250–325
(121–164)
190–250
(88–121)
290–375
(143–190)
150–200
(66–93)
Pack & Hold
Pressure
50%–75%
of Injection Pressure
Injection
Velocity
in/s
1.0–3.0
Back Pressure
psi
50
Screw Speed
rpm
50–90
Drying
Parameters
°F (°C)
6 hrs @ 175
(80)
4 hrs @ 250
(121)
4 hrs @ 275
(135)
4 hrs @ 250
(121)
3 hrs @ 300
(150)
2 hrs @ 200
(93)
3 hrs @ 275
(135)
4 hrs @ 180
(82)
Cushion
in
0.125–0.250
Screw
Compression
Ratio
2.5:1–3.5:1 2.0:1–2.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1 2.5:1–3.5:1
Nozzle
Type
General
Purpose
General
Purpose
General
Purpose
General
Purpose
General
Purpose
General
Purpose
General
Purpose
Reverse
Taper
Clamp
Pressure
5–6 Tons/in2 of projected area of cavities and runner system
* Barrel temperatures should be elevated for compounds designed for electrical insulative properties.
https://www.avient.com/sites/default/files/2020-08/specialty-dispersions-overview.pdf
COLORANT DISPERSIONS
RUBBER COLORANT DISPERSIONS
Stan-Tone™ MB/MC & EP
Stan-Tone™ MB/MC & EP are pigment dispersions
for rubber systems, available in customizable binder
systems suited for nitrile, EPR, EPDM, SBR, natural
rubber, CPE and EVA compounds
Applications: industrial goods, auto mats, rubber
flooring, sponge rubber, wire and cable
URETHANE COLORANT DISPERSIONS
Polyester Urethane Paste Colorants:
Stan-Tone™ PEP
Stan-Tone™ PEP colorants are reactive and
compatible with polyester systems, reacting to
become part of the final cured product
Applications: cast urethane wheels, industrial
rollers, rigid foams, adhesives, laminates, pultrusion,
glass reinforced composites, coated fabrics
Polyether Urethane Paste Colorants:
Stan-Tone™ ET
Stan-Tone™ ET colorants for urethane are compatible
with polyether systems, reacting to become part of
the final cured product
Applications: flexible foam, cast-able rolls
and wheels, adhesives and laminates
EPOXY COLORANT DISPERSIONS
Stan-Tone™ EPX
Stan-Tone™ EPX consists of selected pigments
dispersed in a Bisphenol A undiluted epoxy resin with
an epoxide equivalent of 185
Applications: protective coatings, adhesives, epoxy
flooring, electrical potting and laminates
VINYL COLORANT DISPERSIONS
Stan-Tone™ VC & VCP
Stan-Tone™ VC and VCP are products based on single
pigment or multi-pigment blends and are designed
for applications in which dispersion, uniformity,
compatibility and cleanliness are essential
Applications: profile extrusions, decking, outdoor
furniture, calendaring applications
Plasticizer-Based Colorants for Vinyl Paste:
Stan-Tone™ HCC
Stan-Tone™ HCC dispersions consist of selected
pigments dispersed in diisodecyl phthalate
plasticizer (DIDP) and are designed for applications
in which dispersion, uniformity, compatibility and
cleanliness are essential
Applications: coated fabric, vinyl sealants,
adhesives, wall coverings, toys and sporting goods
SILICONE COLORANT DISPERSIONS
Liquid Silicone Colorants:
Silcopas™
Stan-Tone™ SP or FSP (FDA-compliant)
Silcotec™ SL
Stan-Tone™ HC Plus LSR (class VI certified)
Silicone paste colorants are single pigment or custom-
made dispersions using a silicone carrier specially
developed for liquid silicone rubber (LSR) injection
molding applications
Applications: infant care, toys, seals, gaskets and
medical equipment
High Consistency Silicone Rubber Colorants:
Silcogum™
Silcotec™ S
Stan-Tone™ SMB
Stan-Tone™ HC Plus HCR (class VI certified)
Silicone rubber colorants are made with a silicone
elastomer gum binder resulting in cuttable
masterbatches or slabs for ease of handling, especially
for 2-roll, open-mill mixing
Applications: mechanical seals, keypads, gaskets, wire
and cable jacketing
Room Temperature Vulcanization Colorants:
Silcopas™ RTV and Stan-Tone™ SP
Silcopas™ RTV and Stan-Tone™ SP colorants
offer a standard line of single pigment or custom
made dispersions using a low viscosity dimethyl
fluid specially developed for room temperature
vulcanization (RTV) rubber
Applications: caulks, sealants, adhesives
WATER-BASED COLORANT DISPERSIONS
Water-Based Liquid Colorants:
Stan-Tone™ WDN
Stan-Tone™ WDN water dispersions are high-solids
organic or inorganic pigment dispersions designed to
help meet standards for dispersion including pH levels
and strength and shade
Applications: dipped latex balloons and gloves,
coatings and adhesive systems
ADDITIVE
DISPERSIONS
AQUEOUS ADDITIVE DISPERSIONS
Aquamix™
Aquamix™ chemical dispersions are a full line of
dispersed and emulsified curatives, antioxidants,
fillers, vulcanizers, optical brighteners, flame
retardants, UV stabilizers and tackifiers
Applications: adhesives and latex compounding,
curatives
SILICONE ADDITIVE DISPERSIONS
Electrically Conductive Additives for Silicone:
Silcosperse™ EC
Silcosperse™ EC electrically conductive additives
provide high conductivity and lower filler loadings
Applications: resistors, printable electronics, flexible
electronics, insulator depolarizers
Laser Marking Additives for Silicone:
Silcosperse™ LM
Silcosperse™ LM laser marking additives are
dispersions that contain laser absorbers and color
formers that eliminate the need for secondary etching
Applications: medical device housings, electronic
device housings, wire and cable jacketing
Peroxide Additives for Silicone:
Silcocat™
Silcocat™ dispersions can improve silicone molding
process by stabilizing silicone peroxide compound levels
Applications: automotive hoses, seals, gaskets
Heat Stabilizer Additives for Silicone:
Silcosperse™
The Silcosperse™ family of heat stabilizing additives
provide a high quality dispersion into silicone
designed to enhance heat resistance of silicone
compounds
Mold Release Additives for Silicone:
Silcosperse™ IMR
Silcosperse™ IMR is an internal mold release
dispersion designed to be added to the silicone or
fluorosilicone compound to facilitate the de-molding
of finished parts
Acid Acceptor Additives for Silicone:
Silcosperse™ 180
Silcosperse™ 180 acid acceptor is a premium
dispersion used to neutralize acid by-products
generated by certain peroxides
Viscosity Modifiers for Silicone:
Silcosperse™ 237
Silcosperse™ 237 modifier dispersions are designed
to raise or control the viscosity without changing
solid content
SPECIALTY
PRODUCTS
DRY POWDER COLORANTS
Stan-Tone™ D and Stan-Tone™ DC
Stan-Tone™ D and Stan-Tone™ DC are dry powder
pigments available in a range of hues and
chemical types
WET OR DRY BLEND COLORANTS
Stan-Tone™ DB
Stan-Tone™ DB dry blend colorants provide
enhanced performance over dry colors, resulting
in uniform critical pigment weight ratios for
improved color control
SELF-BONDING SILICONE
Silcotec™ SCB
Silcotec™ SCB self-bonding silicone solutions
allow silicone to bond to various substrates
without prime coating
To learn more about our colorant & additive dispersions,
please contact us at +1.844.4AVIENT (1.844.428.4368) or
visit www.avient.com.
https://www.avient.com/sites/default/files/resources/PolyOne%2520India%2520Terms%2520and%2520Conditions%2520of%2520Sale%2520of%2520Products.May%25202016.pdf
Seller has
based any recommendations to Buyer for the use of the Product upon
information that Seller considers reliable, but Seller makes no warranty as to
any results Buyer might obtain in Buyer’s use(s) for the Product.