https://www.avient.com/sites/default/files/2020-07/avient-abac-hungarian-200721.pdf
Az Avient globális
vesztegetésellenes
és korrupcióellenes
irányelve
Kiadva: 2020. július 1.
Globális vesztegetésellenes és korrupcióellenes irányelvünk 1
A megfelelés fontossága 1
Felelősségünk 1
Mi tekinthető vesztegetésnek?
Észak-Amerika
Globális Központ Avon Lake,
Egyesült Államok
33587 Walker Road Avon Lake, OH,
Egyesült Államok 44012
Ingyenesen hívható telefonszám:
+1 866 765 9663
Telefon: +1 440 930 1000
Fax: +440 930 3064
Ázsia és a Csendes-óceáni
térség
Regionális Központ Sanghaj, Kína
2F, Block C 200 Jinsu Road
Pudong, 201206 Sanghaj, Kína
Telefonszám: +86 (0) 21 6028 4888
Fax: +86 (0) 21 6028 4999
Dél-Amerika
Regionális központ São Paulo,
Brazília
Av.
https://www.avient.com/sites/default/files/2025-05/Avient Announces First Quarter 2025 Results_0.pdf
The company noted that first quarter 2025 GAAP EPS includes special items of $0.82
primarily related to an impairment associated with ceasing the development of S/4HANA, a
cloud-based ERP system (see attachment 3), and $0.16 of intangible amortization expense
(see attachment 1).
You are advised to consult any further
disclosures we make on related subjects in our reports on Form 10-Q, 8-K and 10-K that we
provide to the Securities and Exchange Commission.
5
Investor Relations Contact:
Giuseppe (Joe) Di Salvo
Vice President, Treasurer and Investor Relations
Avient Corporation
+1 440-930-1921
giuseppe.disalvo@avient.com
Media Contact:
Kyle G.
Rose
Vice President, Corporate Communications
Avient Corporation
+1 440-930-3162
kyle.rose@avient.com
6
Attachment 1
Avient Corporation
Reconciliation of Adjusted Net Income and Earnings Per Share (Unaudited)
(In millions, except per share data)
Senior management uses comparisons of adjusted net income attributable to Avient common shareholders and diluted adjusted
earnings per share (EPS) attributable to Avient common shareholders, excluding special items, to assess performance and
facilitate comparability of results.
https://www.avient.com/sites/default/files/2021-05/renol-ul94-compliant-masterbatches-brochure.pdf
The most common tests specified by UL94 are the vertical burning (V-0; V-1; V-2) test and horizontal
burning (HB) test.
For V-0, V-1, V-2, 5VA and 5VB, the color
concentrates have to be listed with reference to
specific resin grades.
RENOL™ UL94 COMPLIANT
MASTERBATCHES
HOW TO USE THE TABLES
UL HB
GENERIC RESIN TYPE FLAME
MINIMUM
THICKNESS
MAXIMUM
LET-DOWN
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
ASCEND
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polyamide 66
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
BASF
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polyamide 6
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
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
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
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
CELANESE
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
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
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
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polycarbonate
2407 + (z)(f1) 0.75-2.60 V-2 1:10
2807 + MAS183 0.75 V-2 1:25
6455 + (z)
6485 + (z)(f1) 1.50 V-0 1:25
Acrylonitrile
Butadiene Styrene
FR110 + 1.50 V-0 1:33
FR3005 HF + (z), FR3005 HF + BBS314 1.50 V-0 1:12.5
FR3010 + (z)
1.50 V-0 1:25
FR3010 HF + 3.00 V-0 1:25
FR3030 + 3.00 V-0 1:25
DSM
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polyamide 46
(PA46) TE250F6(h1)(j) 0.50 V-0 1:25
Polyamide 6
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
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
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
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
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
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
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
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
EXXONMOBIL
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Ethylene
Propylene
Thermoplastic
Rubber
(EPTR)
251-80W232(f7) 1.50 V-2 1:20
251-92W232 1.50 V-0 1:20
251-70W232
1.00 V-2 1:10
LANXESS
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polyamide 6
B30S+(f1) 1.50 V-2 1:25
B31SK+ 1.50 V-2 1:25
Polybutylene
Terephthalate
B4235+ 1.50 V-0 1:10
TP364-302+, BF4232+(f1) 0.75 V-0 1:25
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polybutylene
Terephthalate
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
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
Polycarbonate
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
Acrylonitrile
Butadiene Styrene
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
SOLVAY
GENERIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
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
GENERIC
SPECIFIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
ALBIS Polypropylene
(PP) PP 13 CV2 14 1.50 V-2 1:25
AVIENT Polyvinylchloride
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
Acrylonitrile
Butadiene Styrene
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
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
1:25
INEOS Polystyrene
(PS) 855 HV 3.00 V-1 100:4
INVISTA Polyamide 66
FRU4800 XHL (r1) 0.40 V-0 1:25
U4820L (r1) 0.40 V-2 1:25
BASE RESIN
GENERIC
SPECIFIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
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
Acrylonitrile
Butadiene Styrene
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
1.20 V-1 1:10
Polystyrene
(PS) VH-1800+
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-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
BASE RESIN
GENERIC
SPECIFIC
MINIMUM
THICKNESS
FLAME
MAXIMUM
LET-DOWN
TORAY
Polyamide 6
(PA6) 1017 1.60 V-2 1:16.5
Polyamide 66
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
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
GENERIC
SPECIFIC
MINIMUM
THICKNESS
FLAME
RATING COLORS
MAXIMUM
LET-DOWN
AVIENT Polyvinylchloride
(PVC) M3900 1.50 5VB
ALL 1:25
WHITE 1:10
COVESTRO
Acrylonitrile
Butadiene Styrene
FR3010 + (z) 3.00 5VA ALL 1:25
DUPONT
Polyamide 66/6T
(PA66/6T) FR95G25V0NH 1.50 5VA ALL 1:25
Polybutylene
Terephthalate
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
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/2022-06/Nymax BIO Bio-based Polyamide Solutions Processing Guide.pdf
Vents
1.
Draft 1.
Draft angle should be 1/2° to 1° per side.
https://www.avient.com/sites/default/files/resources/Polyone%2520AR.pdf
POLYONE CORPORATION 1
ITEM 1.
Tianjin, China 1.
Committees: 1, 2
COMMITTEES
1.
https://www.avient.com/sites/default/files/2020-11/cotrep-at-20-21-avient-corporation-cesar-ir-pe-94000828.pdf
Cotrep AT 20-21_AVIENT CORPORATION_CESA® IR PE 94000828
AT 20-21
1
Avis Technique – Tri
Détectabilité et tri de la solution colorante AVIENT CORPORATION / CESA® IR PE 94000828
dans les centres de tri
ES
C
R
IP
TI
O
N
D
E
LA
D
EM
A
N
E GENERALITES
Demandeur Avient Corporation
Date de la demande 2020
Référence de la solution colorante CESA® IR PE 94000828
Limite max de concentration de la
solution colorante
4%
DESCRIPTION DE LA SOLUTION COLORANTE
Couleur Noire
Solution colorante adaptée pour : Emballages rigides en PP
OBJET DE LA DEMANDE
Etude de la détectabilité dans les centres de tri français de la solution colorante noire CESA® IR PE 94000828
proposée par Avient Corporation et utilisée pour colorer des emballages rigides en PP.
D’une part, l’entreprise Avient Corporation s’est engagée à :
- utiliser le protocole de tri fournis par le COTREP (« Procédure de tests de tri optique
COTREP pour évaluer la détectabilité d’emballages sombres lors des étapes de tri
optique » - version Janvier 20191) ;
- réaliser les tests chez les deux Fabricants T.O. représentatifs des capacités de tri
existantes en France ;
- remettre au COTREP les rapports des essais pour analyse et avis ;
- proposer une solution colorante :
o qui réponde aux exigences essentielles de la directive emballage 94/62/CE
o qui ne fait pas basculer la densité de l’emballage : les emballages
majoritairement en PP ou PE doivent conserver une densité < 1 et les emballages
majoritairement en PET ou en PS une densité > 1.
À Paris, le 17 juillet 2020
1
Disponible sur le site du COTREP : https://www.cotrep.fr/content/uploads/sites/3/2019/02/tri-p1-emballages-sombres-v01-2019.pdf
https://www.avient.com/sites/default/files/2020-11/cotrep-at-20-20-avient-corporation-cesar-ir-pp-94000721.pdf
AT 20-20
1
Avis Technique – Tri
Détectabilité et tri de la solution colorante AVIENT CORPORATION / CESA® IR PP
94000721dans les centres de tri
S
C
R
IP
TI
O
N
D
L
A
D
M
A
N
GENERALITES
Demandeur Avient Corporation
Date de la demande 2020
Référence de la solution colorante CESA® IR PP 94000721
Limite max de concentration de la
solution colorante
4%
DESCRIPTION DE LA SOLUTION COLORANTE
Couleur Noire
Solution colorante adaptée pour : Emballages rigides en PP
OBJET DE LA DEMANDE
Etude de la détectabilité dans les centres de tri français de la solution colorante noire CESA® IR PP
94000721proposée par Avient Corporation et utilisée pour colorer des emballages rigides en PP.
D’une part, l’entreprise Avient Corporation s’est engagée à :
- utiliser le protocole de tri fournis par le COTREP (« Procédure de tests de tri optique
COTREP pour évaluer la détectabilité d’emballages sombres lors des étapes de tri
optique » - version Janvier 20191) ;
- réaliser les tests chez les deux Fabricants T.O. représentatifs des capacités de tri
existantes en France ;
- remettre au COTREP les rapports des essais pour analyse et avis ;
- proposer une solution colorante :
o qui réponde aux exigences essentielles de la directive emballage 94/62/CE
o qui ne fait pas basculer la densité de l’emballage : les emballages
majoritairement en PP ou PE doivent conserver une densité < 1 et les emballages
majoritairement en PET ou en PS une densité > 1.
À Paris, le 17 juillet 2020
1
Disponible sur le site du COTREP : https://www.cotrep.fr/content/uploads/sites/3/2019/02/tri-p1-emballages-sombres-v01-2019.pdf
https://www.cotrep.fr/content/uploads/sites/3/2019/02/tri-p1-emballages-sombres-v01-2019.pdf
https://www.avient.com/sites/default/files/2021-11/artisan-ar7300-pre-colored-formulation-processing-guide.pdf
BASE RESIN ABS
Drying Temperature 80–90°C
Drying Time 2–3 Hours
Barrel Temperatures °C
Rear Zone 180–210
Center Zone 190–220
Front Zone 200–230
Nozzle 210–240
Mold Temperature 50–80
Screw Speed Moderate
Back Pressure 3–10 bar
Cushion 5–15 mm
Injection Speed Low to medium
Injection Pressure Moderate to high
Holding Pressure 10–30% of injection pressure
Screw Type General purpose
Screw L/D 20:1
Screw Compression Ratio 2.0:1–2.5:1
Non-return Check Valve Free flow check ring
Nozzle Type Reverse taper
Barrel Capacity 30–80% of barrel should be used
STARTUP & SHUTDOWN RECOMMENDATIONS
Purge Compound 2–3 melt flow PP or purging compound.
Draft Angle • Maintain a minimum draft angle of 1° per side.
https://www.avient.com/sites/default/files/2023-11/2023 Syncure Wire and Cable Product Selection Guide_SPANISH.pdf
Syncure™ XLPE
Formulaciones Para
Polietileno Reticulable
PARA CABLES DE BAJA TENSIÓN
GUÍA DE SELECCIÓN DE PRODUCTO
Syncure™ XLPE
POLIETILENO RETICULABLE POR HUMEDAD PARA AISLAMIENTO PARA CABLES DE BAJA TENSIÓN
SISTEMA S100FH S100FH-XUV S100FH-UV S100FV S100FV-UV S112NA S120NA S200FH S200FV
Aplicaciones Cable para construcción,
Cable para construcción,
Cable fotovoltaico
(PV)
Cable para construcción,
Cable para construcción,
Cable para construcción,
Teck-90 Tuberia
Cable para edificaciones,
tray cables,
cables de servicio
Cable para edificaciones,
tray cables,
cables de servicio
Especificaciones UL 44 UL 44 UL 44, UL 4703 UL 44 UL 44 CSA 22.2 Usable para
NSF 61 UL 44 UL 44
Tipo de alambre XHHW-2, RHW-2, USE-2,
XHHW-2, RHW-2, USE-2,
SIS
XHHW-2, RHW-2,
USE-2, SIS, PV
XHHW-2, RHW-2,
XHHW-2, RHW-2,
USE-2, SIS, PV RW-90, Teck-90 – RHW-2, RHW, RHH,
XHHW-2, XHH, XHHW, SIS RHW, RHH, RHW-2
% de
componentes
83% S1054A
17% V0022G RoHS
83% S1054A
17% V0022G-UV RoHS
70% S1054A
30% V0022G-UV RoHS
50% S1054A
50% V0044G RoHS
50% S1054A
50% V0044G-UV RoHS
95% S1054A
5% S1000B
95% S1016A
5% S1037B
78% S1054A
22% SC5400-0002 RoHS
MB ALT FR
50% S1054A
50% SC5400-0003 RoHS
MB ALT FR
Caracteristicas Flama horizontal
Flama horizontal,
resistencia UV,
Flama horizontal,
flama FV-1, resistencia UV,
VW-1 VW-1, resistencia UV,
Sin retardante
a la flama
Para aplicaciones
de tuberia
Flama horizontal,
libre de DBDPE VW-1, libre de DBDPE
PROPIEDADES GENERALES
Gravedad Específica 1.01 1.02 1.10 1.31 1.31 0.92 0.95 1.01 1.31
Rigidez Shore D,
10 Segundos 47 47 47 48 48 47 59 47 48
% de Contenido
de Gel 68 68 70 70 70 72 72 68 70
PROPIEDADES DE RESISTENCIA A LA TRACCIÓN
Resistencia a la
Tracción (psi) 2800 2500 2500 3200 2650 2800 4500 2800 3200
% de Elongación 400 400 400 470 540 400 80 400 470
% de Retención
de Tracción 100 100 97 110 110 95 75 95 100
% de Retención
de Elongación 90 90 94 100 100 90 75 90 93
PROPIEDADES ELÉCTRICAS
Resistencia Dieléctrica
(V/mil) 1000 1400 1400 1200 1200 1000 –– 1000 1200
Constante Dieléctrica 2.31 2.45 2.61 2.61 2.61 2.24 2.1 2.31 2.61
% de Factor
de Disipación 0.0012 0.0080 0.008 0.0043 0.0043 0.0008 0.002 0.0012 0.0043
PROPIEDADES TÉRMICAS
Condiciones Nominales
de Temperatura en °C 90 90 90 90 90 90 125 90 90
% de Deformación
Térmica 10 10 5 5 5 10 10 10 5
La cartera Syncure XLPE es un sistema de dos pasos
de Polietileno reticulable por humedad, injertado con
Silano.
https://www.avient.com/sites/default/files/2020-09/surround-processing-guide-2020.pdf
TEMPERATURE
Material Rear
Center
Front
Nozzle
Melt
Mold
Nylon 6,6
540–570
530–560
530–560
540–570
540–570
200–300
(90–150)
Nylon 6,6
30% SS
540–570
530–560
530–560
540–570
540–570
200–300
(90–150)
PBT
510–410
(265–280)
490–540
(255–280)
480–530
480–530
480–530
150–250
(65–120)
PC
14% NiCF
540–570
540–570
530–560
530–560
530–560
150–250
(65–120)
ABS
470–520
460–520
460–520
460–530
(240–275)
460–530
(240–275)
100–200
(40–90)
PP
440–480
(225–250)
440–480
(225–250)
430–470
(220–245)
420–460
(215–240)
420–460
(215–240)
125–175
(50–80)
DRYING
Material Temperature
°F (°C) Time Minimum
Moisture
Maximum
Moisture
Nylon 6,6
14% NiCF 180 (80) 4–5 hours 0.05% 0.20%
Nylon 6,6
30% SS 180 (80) 4–5 hours 0.05% 0.20%
PBT
14% NiCF 250 (120) 6-8 hours 0.02% 0.03%
PC
14% NiCF 250 (120) 3–4 hours 0.02% 0.02%
ABS
14% NiCF 200 (90) 2–4 hours 0.05% 0.10%
PP
14% NiCF 180 (80) 2–4 hours 0.20% 0.30%
Equipment
• Feed throats smaller than 2.5" may cause bridging due to pellet size
- Larger feed throats will be more advantageous with long fiber EMI shielding resins
• General purpose metering screw is recommended
- Mixing/barrier screws are not recommended
• L/D ratio
- 18:1–20:1 (40% feed, 40% transition, 20% metering)
• Low compression ratio
- 2:1–3:1
• Deep flights recommended
- Metering zone 3.5 mm
- Feed zone 7.5 mm
• Check ring
- Three-piece, free-flowing check ring
• General purpose nozzle (large nozzle tips are recommended)
- Minimum orifice diameter of 7/32"
- Tapered nozzles are not recommended for long fiber EMI shielding resins
• Clamp tonnage:
- 2.5–5 tons/in2
Gates
• Large, free-flow gating recommended
- 0.25" x 0.125" land length
- 0.5" gate depth
Runners
• Full round gate design
• No sharp corners
• Minimum of 0.25" diameter
• Hot runners can be used
PROCESSING
Screw Speed Slower screw speeds are recommended to protect fiber length
Back Pressure Lower back pressure is recommended to protect fiber length
Pack Pressure 60–80% of max injection pressure
Hold Pressure 40–60% of max injection pressure
Cool Time 10–30 seconds (depends on part geometry and dimensional stability)
PROCESS CONSIDERATIONS
Recommended – retain fiber length (maximize conductivity)
• Low shear process
• Low screw speed and screw RPM
• Slow Injection speed
• Fill to 99–100% on first stage of injection
- Reduces potential nesting of fibers at gate location
- Improves mechanical performance near gate location
- Promotes ideal fiber orientation
Resin Rich Surface
• Achieved when using a hot mold temperature and longer cure times
≥ Max mold temperature recommendation
• Improved surface aesthetic
• Reduced surface conductivity
• Could reduce attenuation performance in an assembly
Fiber Rich Surface
• Achieved when using a cold mold temperature and shorter cure times
≤ Minimum mold temperature recommendation
• Improved surface aesthetic
• Reduced surface conductivity
• Could improve attenuation performance in an assembly
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