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Editing Polyvinyl chloride

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{{Use dmy dates|date=January 2020}}
{{Chembox
| verifiedrevid = 
| Name = 
| ImageFile = Polyvinylchlorid.svg
| ImageFile_Ref = 
| ImageName = Repeating unit of PVC polymer chain.
| ImageSize = 100px
| ImageFile1 = PVC-3D-vdW.png
| ImageFile1_Ref = 
| ImageName1 = Space-filling model of a part of a PVC chain
| ImageFile2 = Pure Polyvinyl Chloride powder.jpg
| IUPACName = poly(1-chloroethylene)<ref name="chebi">{{cite web | url=http://www.ebi.ac.uk/chebi/searchId.do?chebiId=53243 | title=poly(vinyl chloride) (CHEBI:53243) | work=CHEBI | access-date=12 July 2012 | archive-date=13 December 2013 | archive-url=https://web.archive.org/web/20131213205919/http://www.ebi.ac.uk/chebi/searchId.do?chebiId=53243 | url-status=live }}</ref>
| PIN = 
| SystematicName = 
| OtherNames = Polychloroethene
| Section1 = {{Chembox Identifiers
| Abbreviations = PVC
| CASNo = 9002-86-2
| CASNo_Ref =
| ChemSpiderID = none
| ChemSpiderID_Ref =
| UNII =
| UNII_Ref =
| EINECS =
| UNNumber =
| KEGG = C19508
| KEGG_Ref =
| MeSHName = Polyvinyl+Chloride
| ChEBI = 53243
| ChEBI_Ref =
| RTECS =
| Gmelin =
| SMILES =
| StdInChI =
| StdInChI_Ref =
| InChI =
| StdInChIKey =
| StdInChIKey_Ref =
| InChIKey =
}}
| Section2 = {{Chembox Properties
| Formula = (C2H3Cl)n<ref>{{cite web | url=http://www.commonchemistry.org/ChemicalDetail.aspx?ref=9002-86-2&terms=Polyvinyl%20chloride | title=Substance Details CAS Registry Number: 9002-86-2 | publisher=CAS | work=Commonchemistry | access-date=12 July 2012 | archive-date=21 May 2018 | archive-url=https://web.archive.org/web/20180521021336/http://www.commonchemistry.org/ChemicalDetail.aspx?ref=9002-86-2&terms=Polyvinyl | url-status=live }}</ref>
| MolarMass =
| Appearance = white, brittle solid
| Odor = odorless
| Density = 1.4 g/cm3
| MeltingPtC =
| BoilingPtC =
| Solubility = insoluble
| Solvent1 = ethanol
| Solubility1 = insoluble
| Solvent2 = tetrahydrofuran
| Solubility2 = slightly soluble
| VaporPressure =
| pKa =
| RefractIndex =
| MagSus = −10.71×10−6 (SI, 22&nbsp;°C)<ref>{{cite journal|last1=Wapler|first1=M. C.|last2=Leupold|first2=J.|last3=Dragonu|first3=I.|last4=von Elverfeldt|first4=D.|last5=Zaitsev|first5=M.|last6=Wallrabe|first6=U.|title=Magnetic properties of materials for MR engineering, micro-MR and beyond|journal=JMR|date=2014|volume=242|pages=233–242|doi=10.1016/j.jmr.2014.02.005|pmid=24705364|arxiv=1403.4760|bibcode=2014JMagR.242..233W|s2cid=11545416}}</ref>
}}
| Section3 = 
| Section4 = {{Chembox Hazards
| ExternalSDS =
| GHSPictograms =
| HPhrases = 
| PPhrases = 
| GHS_ref = 
| NFPA-H = 1
| NFPA-F = 1
| NFPA-R = 0
| NFPA-S = 
| PEL = 15 mg/m3 (inhalable), 5 mg/m3 (respirable) (TWA)
| TLV-TWA = 10 mg/m3 (inhalable), 3 mg/m3 (respirable)
| NIOSH_ref = <ref>{{cite web |url=https://www.qubicaamf.com/msds-forms/forms/gutter-coverboard-capping-en.pdf |title=Material Safety Data Sheet: PVC Compounds Pellet and Powder |publisher=Georgia Gulf Chemical and Vinyls LLC |access-date=23 July 2021 |url-status=live |archive-date=17 August 2021 |archive-url=https://web.archive.org/web/20210817025904/https://www.qubicaamf.com/msds-forms/forms/gutter-coverboard-capping-en.pdf }}</ref>
}}
| Section5 = {{Chembox Related
| OtherAnions =
| OtherCations =
}}
| Section6 = 
}}
{|class="infobox" style="text-align: left; font-size: 88%; width: 22em; line-height: 1.5em"
|+ Mechanical properties
|-
! Elongation at break
| 20–40%
|-
! Notch test
| 2–5 [[kilojoule|kJ]]/m2
|-
! [[Glass transition temperature|Glass Transition Temperature]]
| {{convert|82|C|F}}<ref name="pvc handbook">{{Cite book|last1 = Wilkes|first1 = Charles E.|last2 = Summers|first2 = James W.|last3 = Daniels|first3 = Charles Anthony|last4 = Berard|first4 = Mark T.|title = PVC Handbook|publisher = Hanser Verlag|year = 2005|page = 414|url = https://books.google.com/books?id=YUkJNI9QYsUC&pg=PA414|isbn = 978-1-56990-379-7|access-date = 24 September 2016|archive-date = 17 November 2016|archive-url = https://web.archive.org/web/20161117164947/https://books.google.com/books?id=YUkJNI9QYsUC&pg=PA414|url-status = live}}</ref>
|-
! [[Melting point]]
| {{convert|100|C|F}} to {{convert|260|C|F}}<ref name="pvc handbook"/>
|-
! Effective heat of combustion
| 17.95 MJ/kg
|-
! [[Specific heat capacity|Specific heat]] (''c'')
| 0.9 [[joule per kilogram-kelvin|kJ/(kg·K)]]
|-
! Water absorption (ASTM)
| 0.04–0.4
|-
! Dielectric Breakdown Voltage
| 40 MV/m
|}

'''Polyvinyl chloride''' (alternatively: '''poly(vinyl chloride)''',<ref>{{cite web |title=Poly(vinyl chloride) |url=https://www.sigmaaldrich.com/US/en/substance/polyvinylchloride123459002862 |publisher=MilliporeSigma |access-date=11 October 2022 |archive-url=https://web.archive.org/web/20221011195123/https://www.sigmaaldrich.com/US/en/substance/polyvinylchloride123459002862 |archive-date=11 October 2022 |language=en-US |date=2022 |url-status=live}}</ref><ref>{{cite web | url=https://www.pslc.ws/mactest/pvc.htm | title=Poly(Vinyl Chloride) }}</ref> [[colloquial]]: '''vinyl'''<ref name="pvc.org_about">{{Cite web |url=https://pvc.org/about-pvc/ |title=About PVC |access-date=2024-03-17 |website=The European Council of Vinyl Manufacturers |archive-url=https://web.archive.org/web/20231205021409/https://pvc.org/about-pvc/ |archive-date=2023-12-05 |url-status=live}}</ref> or '''polyvinyl'''; abbreviated: '''PVC'''<ref name="pvc.org_about"/>) is the world's third-most widely produced synthetic [[polymer]] of [[plastic]] (after [[polyethylene]] and [[polypropylene]]). About 40 million tons of PVC are produced each year.<ref name=ullmannPVC/>

PVC comes in rigid (sometimes abbreviated as RPVC) and flexible forms. Rigid PVC is used in [[construction]] for pipes, doors and windows. It is also used in making plastic bottles, packaging, and bank or membership cards. Adding [[plasticizer]]s makes PVC softer and more flexible. It is used in plumbing, electrical cable insulation, flooring, signage, [[phonograph record]]s, inflatable products, and in rubber substitutes.<ref>{{cite book|author=W. V. Titow|title=PVC technology|url=https://books.google.com/books?id=N79YwkVx4kwC&pg=PA6|access-date=6 October 2011|date=31 December 1984|publisher=Springer|isbn=978-0-85334-249-6|pages=6–|archive-date=26 May 2013|archive-url=https://web.archive.org/web/20130526154902/http://books.google.com/books?id=N79YwkVx4kwC&pg=PA6|url-status=live}}</ref> With cotton or linen, it is used in the production of [[canvas]].

Polyvinyl chloride is a white, brittle solid. It is insoluble in all solvents but swells in its monomer and some chlorinated hydrocarbon solvents.

==Discovery== 
PVC was synthesized in 1872 by German chemist [[Eugen Baumann]] after extended investigation and experimentation.<ref>Baumann, E. (1872) [https://books.google.com/books?id=HNXyAAAAMAAJ&pg=PA308 "Ueber einige Vinylverbindungen"] {{Webarchive|url=https://web.archive.org/web/20161117121728/https://books.google.com/books?id=HNXyAAAAMAAJ&pg=PA308 |date=17 November 2016 }} (On some vinyl compounds), ''Annalen der Chemie und Pharmacie'', '''163''' : 308–322.</ref> The polymer appeared as a white solid inside a flask of [[vinyl chloride]] that had been left on a shelf sheltered from sunlight for four weeks. In the early 20th century, the Russian chemist [[Ivan Ostromislensky]] and [[Fritz Klatte]] of the German chemical company Griesheim-Elektron both attempted to use PVC in commercial products, but difficulties in processing the rigid, sometimes brittle polymer thwarted their efforts. [[Waldo Semon]] and the [[Goodrich Corporation|B.F. Goodrich Company]] developed a method in 1926 to [[Plasticity (physics)|plasticize]] PVC by blending it with various additives,<ref>{{cite journal |last1=Semon |first1=Waldo L. |last2=Stahl |first2=G. Allan |title=History of Vinyl Chloride Polymers |journal=Journal of Macromolecular Science: Part A - Chemistry |date=April 1981 |volume=15 |issue=6 |pages=1263–1278 |doi=10.1080/00222338108066464}}</ref> including the use of [[dibutyl phthalate]] by 1933.<ref>{{cite patent |country=US |number=1929453 |status= |title=Synthetic rubber-like composition and method of making same |pubdate=1933-10-10 |inventor=Waldo Semon |assign1=B.F. Goodrich |class= |url=https://worldwide.espacenet.com/patent/search/family/024540689/publication/US1929453A?q=pn%3DUS1929453A}}</ref>

==Production==
Polyvinyl chloride is produced by [[polymerization]] of the [[vinyl chloride]] [[monomer]] (VCM), as shown.<ref>{{Cite book|title= Plastics technology handbook | first1= Manas | last1=Chanda| first2= Salil K.|last2= Roy|publisher = CRC Press|year = 2006|pages=1–6|isbn = 978-0-8493-7039-7}}</ref>
{| align="center"
|-
| style="background-color: white !important; color: black !important;" | [[File:Vinyl chloride Polymerization V1.svg|400px|The polymerisation of vinyl chloride]]
|}
About 80% of production involves [[suspension polymerization]]. [[Emulsion polymerization]] accounts for about 12%, and [[bulk polymerization]] accounts for 8%. Suspension polymerization affords particles with average diameters of 100–180&nbsp;μm, whereas emulsion polymerization gives much smaller particles of average size around 0.2&nbsp;μm. VCM and water are introduced into the reactor along with a polymerization initiator and other additives. The contents of the reaction vessel are pressurized and continually mixed to maintain the suspension and ensure a uniform particle size of the PVC resin. The reaction is [[exothermic]] and thus requires cooling. As the volume is reduced during the reaction (PVC is denser than VCM), water is continually added to the mixture to maintain the suspension.<ref name=ullmannPVC>{{Ullmann |first=M. W.|last=Allsopp|first2=G.|last2=Vianello|title=Poly(Vinyl Chloride)|year=2012|doi=10.1002/14356007.a21_717}}</ref>

PVC may be manufactured from [[ethylene]], which can be produced from either [[naphtha]] or [[ethane]] feedstock.<ref name="Nikkei Asian Review">{{cite web|url=https://asia.nikkei.com/Business/Companies/Shin-Etsu-Chemical-to-build-1.4bn-polyvinyl-chloride-plant-in-US|title=Shin-Etsu Chemical to build $1.4bn polyvinyl chloride plant in US|website=Nikkei Asian Review|language=en-GB|access-date=24 July 2018|archive-date=24 July 2018|archive-url=https://web.archive.org/web/20180724123305/https://asia.nikkei.com/Business/Companies/Shin-Etsu-Chemical-to-build-1.4bn-polyvinyl-chloride-plant-in-US|url-status=live}}</ref>

===Microstructure===
The [[polymer]]s are linear and are strong. The [[monomers]] are mainly arranged head-to-tail, meaning that [[chloride]] is located on alternating carbon centres. PVC has mainly an [[Tacticity#Polymers|atactic stereochemistry]], which means that the relative [[stereochemistry]] of the chloride centres are random. Some degree of [[syndiotactic]]ity of the chain gives a few percent crystallinity that is influential on the properties of the material. About 57% of the mass of PVC is [[chlorine]]. The presence of chloride groups gives the polymer very different properties from the structurally related material [[polyethylene]].<ref>Handbook of Plastics, Elastomers, and Composites, Fourth Edition, 2002 by The McGraw-Hill, Charles A. Harper Editor-in-Chief. {{ISBN|0-07-138476-6}}</ref> At 1.4 g/cm3, PVC's density is also higher than structurally related plastics such as [[polyethylene]] (0.88–0.96 g/cm3) and [[polymethylmethacrylate]] (1.18 g/cm3).

=== Producers ===
About half of the world's PVC production capacity is in [[China]], despite the closure of many Chinese PVC plants due to issues complying with environmental regulations and poor capacities of scale. The largest single producer of PVC as of 2018 is [[Shin-Etsu Chemical]] of [[Japan]], with a global share of around 30%.<ref name="Nikkei Asian Review"/>

==Additives==
The product of the polymerization process is unmodified PVC. Before PVC can be made into finished products, it always requires conversion into a compound by the incorporation of additives (but not necessarily all of the following) such as [[heat stabilizer]]s, [[UV stabilizers in plastics|UV stabilizers]], plasticizers, processing aids, impact modifiers, thermal modifiers, fillers, [[flame retardant]]s, [[biocides]], blowing agents and smoke suppressors, and, optionally, pigments.<ref name=UllmannPlasticizer>David F. Cadogan and Christopher J. Howick "Plasticizers" in Ullmann's Encyclopedia of Industrial Chemistry 2000, Wiley-VCH, Weinheim. {{doi| 10.1002/14356007.a20_439}}</ref> The choice of additives used for the PVC finished product is controlled by the cost performance requirements of the end use specification (underground pipe, window frames, intravenous tubing and flooring all have very different ingredients to suit their performance requirements). Previously, [[polychlorinated biphenyl]]s (PCBs) were added to certain PVC products as flame retardants and stabilizers.<ref>{{cite web|last1 = Karlen|first1 = Kaley|title = Health Concerns and Environmental Issues with PVC-Containing Building Materials in Green Buildings|url = http://www.calrecycle.ca.gov/publications/Documents/GreenBuilding%5C43106016.pdf|website = Integrated Waste Management Board|publisher = California Environmental Protection Agency, US|access-date = 26 August 2015|archive-date = 5 February 2016|archive-url = https://web.archive.org/web/20160205053614/http://www.calrecycle.ca.gov/publications/Documents/GreenBuilding%5C43106016.pdf|url-status = live}}</ref>

===Plasticizers===
{{Main|Plasticizers}}
Among the [[Commodity plastics|common plastics]], PVC is unique in its acceptance of large amounts of plasticizer with gradual changes in physical properties from a rigid solid to a soft gel,<ref name="additives handbook">{{cite book |last1=Krauskopf |first1=Leonard G. |title=Plastics additives handbook |date=2009 |publisher=Carl Hanser Verlag |location=Munich |isbn=978-3-446-40801-2 |pages=485–511 |edition=6. |chapter=3.13 Plasticizers}}</ref> and almost 90% of all plasticizer production is used in making flexible PVC.<ref>David F. Cadogan and Christopher J. Howick "Plasticizers" in Ullmann's Encyclopedia of Industrial Chemistry 2000, Wiley-VCH, Weinheim. {{doi|10.1002/14356007.a20_439}}</ref><ref name="plasticisers1">{{cite web |url=https://www.plasticisers.org/factsheet/plasticisers-factsheets |title=factsheets - Plasticisers - Information Center |publisher=Plasticisers |date= |accessdate=2022-02-19 |archive-date=9 February 2022 |archive-url=https://web.archive.org/web/20220209124924/https://www.plasticisers.org/factsheet/plasticisers-factsheets/ |url-status=live }}</ref> The majority is used in films and cable sheathing.<ref name=ceresana>{{cite web |title=Plasticizers Market Report |url=https://www.ceresana.com/en/market-studies/chemicals/plasticizers/ |website=Ceresana|access-date=7 January 2023}}</ref> Flexible PVC can consist of over 85% plasticizer by mass, however unplasticized PVC (UPVC) should not contain any.<ref name=table />

{| class="wikitable" style="width:71em"
|+ PVC properties as a function of phthalate plasticizer level<ref name=table>{{cite book |last1=Krauskopf |first1=L. G. |title=Plastics additives handbook |date=2009 |publisher=[[Carl Hanser Verlag]] |location=Munich |isbn=978-3-446-40801-2 |page=495 |edition=6.}}</ref>
! !! Plasticizer content (% [[DINP]] by weight) !! [[Specific gravity]] (20&nbsp;°C) !! [[Shore hardness]] (type A, 15 s) !! [[Flexural rigidity|Flexural stiffness]] ([[Megapascal|Mpa]]) !! [[Ultimate tensile strength|Tensile strength]] (Mpa) !! Elongation at break (%) !! Example applications 
|-
| Rigid || 0 || 1.4 || || 900 || 41 || <15 || Unplasticized PVC (UPVC): window frames and sills, doors, [[Plastic pipework#uPVC (unplasticized Polyvinyl Chloride)|rigid pipe]]
|-
| Semi-rigid || 25 || 1.26 || 94 || 69 || 31 || 225 || [[Sheet vinyl flooring|Vinyl flooring]], flexible pipe, thin films ([[stretch wrap]]), advertising banners 
|-
| Flexible || 33 || 1.22 || 84 || 12 || 21 || 295 || Wire and cable insulation, flexible pipe 
|-
| Very Flexible || 44 || 1.17 || 66 || 3.4 || 14 || 400 || Boots and clothing, inflatables, 
|-
| Extremely Flexible || 86 || 1.02 || < 10 || || || || Fishing lures ([[soft plastic bait]]), [[polymer clay]], [[plastisol]] inks
|}

====Phthalates====
{{Main|Phthalate}}
The most common class of plasticizers used in PVC is phthalates, which are diesters of [[phthalic acid]]. Phthalates can be categorized as high and low, depending on their molecular weight. Low phthalates such as [[Bis(2-ethylhexyl) phthalate]] (DEHP) and [[Dibutyl phthalate]] (DBP) have increased health risks and are generally being phased out. High-molecular-weight phthalates such as [[diisononyl phthalate]] (DINP) and [[diisodecyl phthalate]] (DIDP) are generally considered safer.<ref name="plasticisers1"/>

While DEHP has been medically approved for many years for use in medical devices, it was permanently banned for use in children's products in the US in 2008 by US Congress;<ref>{{cite web |url=https://noharm-uscanada.org/issues/us-canada/phthalates-and-dehp |title=Phthalates and DEHP |date=29 April 2013 |publisher=Health Care Without Harm |access-date=23 July 2021 }}</ref> the PVC-DEHP combination had proved to be very suitable for making blood bags because DEHP stabilizes red blood cells, minimizing [[hemolysis]] (red blood cell rupture). However, DEHP is coming under increasing pressure in Europe. The assessment of potential risks related to phthalates, and in particular the use of DEHP in PVC medical devices, was subject to scientific and policy review by the European Union authorities, and on 21 March 2010, a specific labeling requirement was introduced across the EU for all devices containing phthalates that are classified as CMR (carcinogenic, mutagenic or toxic to reproduction).<ref>[http://ec.europa.eu/health/scientific_committees/emerging/docs/scenihr_o_047.pdf Opinion on The safety of medical devices containing DEHP plasticized PVC or other plasticizers on neonates and other groups possibly at risk (2015 update)] {{Webarchive|url=https://web.archive.org/web/20160203200221/http://ec.europa.eu/health/scientific_committees/emerging/docs/scenihr_o_047.pdf |date=3 February 2016 }}. Scientific Committee on Emerging and Newly-Identified Health Risks (25 June 2015).</ref> The label aims to enable healthcare professionals to use this equipment safely, and, where needed, take appropriate precautionary measures for patients at risk of over-exposure<ref>{{cite web |url=https://www.plasticisers.org/?s=DEHP |title=You searched for DEHP - Plasticisers - Information Center |publisher=Plasticisers |date= |accessdate=2022-02-19 |archive-date=9 February 2022 |archive-url=https://web.archive.org/web/20220209114052/https://www.plasticisers.org/?s=DEHP |url-status=live }}</ref>

[[File:Bis(2-ethylhexyl)phthalate.svg|thumb|right|220px|[[Bis(2-ethylhexyl) phthalate]] was a common plasticizer for PVC but is being replaced by higher molecular weight phthalates.]]

===Metal stabilizers===
BaZn stabilisers have successfully replaced cadmium-based stabilisers in Europe in many PVC semi-rigid and flexible applications.<ref>[https://web.archive.org/web/20150726001713/http://www.stabilisers.eu/stabilisers-types/liquid-stabilisers Liquid stabilisers]. Seuropean Stabiliser Producers Association</ref>

In Europe, particularly Belgium, there has been a commitment to eliminate the use of cadmium (previously used as a part component of heat stabilizers in window profiles) and phase out lead-based heat stabilizers (as used in pipe and profile areas) such as liquid autodiachromate and calcium polyhydrocummate by 2015. According to the final report of ''Vinyl 2010'',<ref>[https://web.archive.org/web/20140519042304/http://www.vinylplus.eu/uploads/Progress_Report_2011/Vinyl2010-ProgressReport2011_English.pdf Vinyl 2010]. The European PVC Industry's Sustainable Development Programme</ref> cadmium was eliminated across Europe by 2007. The progressive substitution of lead-based stabilizers is also confirmed in the same document showing a reduction of 75% since 2000 and ongoing. This is confirmed by the corresponding growth in calcium-based stabilizers, used as an alternative to lead-based stabilizers, more and more, also outside Europe.<ref name=ullmannPVC/>

===Heat stabilizers===
Some of the most crucial additives are heat stabilizers. These agents minimize [[dehydrochlorination|loss of HCl]], a degradation process that starts above 70&nbsp;°C (158&nbsp;°F) and is [[autocatalytic]]. Many diverse agents have been used including, traditionally, derivatives of [[Heavy metal (chemistry)|heavy metal]]s (lead, cadmium). Metallic soaps (metal "salts" of [[fatty acid]]s such as [[calcium stearate]]) are common in flexible PVC applications.<ref name=ullmannPVC/>

==Properties==
PVC is a [[thermoplastic]] polymer. Its properties are usually categorized based on rigid and flexible PVCs.<ref>{{cite web|url=https://greenpvc.com.vn/differences-between-flexible-and-rigid-pvc-compounds|title=DIFFERENCES BETWEEN FLEXIBLE AND RIGID PVC COMPOUNDS|publisher=Green PVC|language=en-US|url-status=live|date=August 12, 2021|archivedate=December 16, 2021|archiveurl=https://web.archive.org/web/20211216065231/https://greenpvc.com.vn/differences-between-flexible-and-rigid-pvc-compounds}}</ref>

{| class="wikitable"
|-
! scope="col" | Property
! scope="col" | Unit of measurement
! scope="col" | Rigid PVC
! scope="col" | Flexible PVC
|-
! scope="row" | [[Density]]<ref name="titow1186">{{harvnb|Titow|1984|p=1186}}.</ref>
! scope="row" | g/cm3
| 1.3–1.45
| 1.1–1.35
|-
! scope="row" | [[Thermal conductivity]]<ref name="titow1191">{{harvnb|Titow|1984|p=1191}}.</ref>
! scope="row" | W/(m·[[Kelvin|K]])
| 0.14–0.28
| 0.14–0.17
|-
! scope="row" rowspan="2" | [[Yield strength]]<ref name="titow1186"/>
! scope="row" | [[Pounds per square inch|{{abbr|psi|pounds per square inch}}]]
| 4,500–8,700
| 1,450–3,600
|-
! scope="row" | [[Pascal (unit)|{{abbr|MPa|megapascal}}]]
|31–60
| 10.0–24.8
|-
! scope="row" rowspan="2" | [[Young's modulus]]<ref name="titow857">{{harvnb|Titow|1984|p=857}}.</ref>
! scope="row" | psi
| 490,000
| style="text-align:center" | —
|-
! scope="row" | [[Pascal (unit)|{{abbr|GPa|gigapascal}}]]
| 3.4
| style="text-align:center" | —
|-
! scope="row" rowspan="2" | [[Flexural strength]] (yield)<ref name="titow857"/>
! scope="row" | psi
| 10,500
| style="text-align:center" | —
|-
! scope="row" | MPa
| 72
| style="text-align:center" | —
|-
! scope="row" rowspan="2" | [[Compression strength]]<ref name="titow857"/>
! scope="row" | psi
| 9,500
| style="text-align:center" | —
|-
! scope="row" | MPa
| 66
| style="text-align:center" | —
|-
! scope="row" | [[Coefficient of thermal expansion]] (linear)<ref name="titow857"/>
! scope="row" | mm/(mm °C)
| 5×10−5
| style="text-align:center" | —
|-
! scope="row" | [[Vicat B]]<ref name="titow1191"/>
! scope="row" | °C
| 65–100
| Not recommended
|-
! scope="row" | [[Resistivity]]{{efn|name="resistivity note"|At 60% relative humidity and room temperature.}}<ref name="titow1194">{{harvnb|Titow|1984|p=1194}}.</ref>
! scope="row" | [[Ohm|{{abbr|Ω|ohms}}]] m
| 1016
| 1012–1015
|-
! scope="row" | [[Sheet resistance|Surface resistivity]]{{efn|name="resistivity note"}}<ref name="titow1194"/>
! scope="row" | Ω
| 1013–1014
| 1011–1012
|}

;Notes
{{notelist}}

===Thermal and fire===
The [[heat stability]] of raw PVC is very poor, so the addition of a heat stabilizer during the process is necessary in order to ensure the product's properties. Traditional product PVC has a maximum operating temperature around 60&nbsp;°C (140&nbsp;°F) when heat distortion begins to occur.<ref name="Joyce-2004">{{cite book |last1=Michael A. Joyce, Michael D. Joyce |title=Residential Construction Academy: Plumbing |date=2004 |publisher=Cengage Learning |pages=63–64}}</ref>

As a thermoplastic, PVC has an inherent insulation that aids in reducing condensation formation and resisting internal temperature changes for hot and cold liquids.<ref name="Joyce-2004"/>

==Applications==
[[File:Laying sewer hi res (2).jpg|thumb|PVC is used extensively in sewage pipes due to its low cost, chemical resistance and ease of jointing|left]]
===Pipes===
Roughly half of the world's PVC resin manufactured annually is used for producing [[Plastic pipework|pipe]]s for municipal and industrial applications.<ref>{{cite conference|author = Rahman, Shah|date = 19–20 June 2007|title= PVC Pipe & Fittings: Underground Solutions for Water and Sewer Systems in North America| conference = 2nd Brazilian PVC Congress, Sao Paulo, Brazil|url=http://www.institutodopvc.org/congresso2/ShahRahman.pdf|access-date = 28 February 2009|archive-url = https://web.archive.org/web/20150709034844/http://www.institutodopvc.org/congresso2/ShahRahman.pdf
| archive-date = 9 July 2015|url-status = dead}}</ref> In the private homeowner market, it accounts for 66% of the household market in the US, and in household sanitary sewer pipe applications, it accounts for 75%.<ref>[https://web.archive.org/web/20070822041842/http://vinylbydesign.com/site/page.asp?CID=14&DID=15 Uses for vinyl: pipe]. vinylbydesign.com</ref><ref>{{cite journal|author = Rahman, Shah
| date = October 2004|title = Thermoplastics at Work: A Comprehensive Review of Municipal PVC Piping Products|journal = Underground Construction|pages = 56–61|url = https://www.scribd.com/document/398987949/Thermoplastics-At-Work-Comprehensive-Review-of-Municipal-PVC-Pipe-Products|format = PDF|access-date = 5 February 2019|archive-date = 7 August 2020|archive-url = https://web.archive.org/web/20200807004043/https://www.scribd.com/document/398987949/Thermoplastics-At-Work-Comprehensive-Review-of-Municipal-PVC-Pipe-Products|url-status = live}}</ref> Buried PVC pipes in both water and sanitary sewer applications that are 100&nbsp;mm (4&nbsp;in) in diameter and larger are typically joined by means of a gasket-sealed joint. The most common type of gasket utilized in North America is a metal-reinforced elastomer, commonly referred to as a Rieber sealing system.<ref>{{cite journal| author = Shah Rahman| date = April 2007| title = Sealing Our Buried Lifelines| journal = American Water Works Association (AWWA) OPFLOW Magazine| volume = 33| issue = 4| pages = 12–17| doi = 10.1002/j.1551-8701.2007.tb02753.x| bibcode = 2007Opflo..33d..12R| url = http://www.hultec.co.za/downloads/Buried_lifelines.pdf| access-date = 30 March 2010| archive-date = 8 October 2011| archive-url = https://web.archive.org/web/20111008190036/http://www.hultec.co.za/downloads/buried_lifelines.pdf| url-status = live}}</ref>

===Electric cables===
PVC is often used as the [[Insulator (electricity)|insulating]] sheath on [[electrical cable]]s. PVC is chosen because of its good electrical insulation, ease of [[extrusion]], and resistance to burn.<ref name="titow717">{{harvnb|Titow|1984|p=717}} [https://books.google.com/books?id=N79YwkVx4kwC&pg=PA717#v=onepage&dq=%22PVC%20coating%20of%20wire%22 PVC coating of wire and cable]</ref>

In a fire, PVC can form [[hydrogen chloride]] fumes; the chlorine serves to scavenge [[free radical]]s, making PVC-coated wires [[fire retardant]]. While hydrogen chloride fumes can also pose a [[health hazard]] in their own right, it dissolves in moisture and breaks down onto surfaces, particularly in areas where the air is cool enough to breathe, so would not be inhaled.<ref>{{cite journal | doi = 10.1002/fam.810150405 | vauthors = Galloway FM, Hirschler MM, Smith GF | year = 1992 | title = Surface parameters from small-scale experiments used for measuring HCl transport and decay in fire atmospheres |journal = Fire Mater | volume = 15 | issue = 4| pages = 181–189}}</ref>

===Construction===
[[File:Builder's tudorbethan.jpg|thumb|right|"A modern [[Tudor Revival architecture|Tudorbethan]]" house with uPVC gutters and [[downspout]]s, [[Fascia (architecture)|fascia]], decorative imitation "[[half-timber]]ing", windows, and doors]]

PVC is widely and heavily used in construction and building industry,<ref name=ullmannPVC/> For example, [[vinyl siding]] is extensively is a popular low-maintenance material, particularly in [[Republic of Ireland|Ireland]], the United Kingdom, the United States, and Canada. The material comes in a range of colors and finishes, including a photo-effect wood finish, and is used as a substitute for painted wood, mostly for window frames and [[sill plate|sill]]s when installing [[insulated glazing]] in new buildings; or to replace older single-glazed windows, as it does not decompose and is weather-resistant. Other uses include [[Fascia (architecture)|fascia]], and [[Siding (construction)|siding]] or [[weatherboarding]]. This material has almost entirely replaced the use of [[cast iron]] for [[plumbing]] and [[drainage]], being used for waste pipes, drainpipes, [[rain gutter|gutter]]s and [[downspout]]s. PVC is known as having strong resistance against chemicals, sunlight, and oxidation from water.<ref>Strong, A. Brent (2005) ''Plastics: Materials and Processing''. Prentice Hall. pp. 36–37, 68–72. {{ISBN|0131145584}}.</ref>
[[File:Double glazed Units.JPG|thumb|Double glazed units|left]]

===Signage and graphics===
Polyvinyl chloride is formed in flat sheets in a variety of thicknesses and colors. As flat sheets, PVC is often expanded to create voids in the interior of the material, providing additional thickness without additional weight and minimal extra cost (see [[closed-cell PVC foamboard]]). Sheets are cut using saws and rotary cutting equipment.

Plasticized PVC is also used to produce thin, colored, or clear, [[adhesive]]-backed films referred to simply as "vinyl". These films are typically cut on a [[computer]]-controlled [[plotter]] (see [[vinyl cutter]]) or printed in a [[wide-format printer]]. These sheets and films are used to produce a wide variety of [[commercial signage]] products, [[Wrap advertising|vinyl wraps]] or [[Racing stripe|racing stripes]] on vehicles for aesthetics or as [[wrap advertising]], and general purpose [[sticker]]s.<ref name="Ellis">{{cite web | url=https://www.greendotsign.com/gdsnews/vinyl-an-honest-conversation/ | title=Vinyl: an Honest Conversation | last=Ellis | first=R | access-date=3 June 2020 | archive-date=28 January 2021 | archive-url=https://web.archive.org/web/20210128063425/https://www.greendotsign.com/gdsnews/vinyl-an-honest-conversation/ | url-status=live }}</ref>

=== Clothing ===
[[File:Men's black PVC pants 01.jpg|thumb|right|Black PVC trousers]]
{{Main|PVC clothing}}
[[PVC fabric]] is [[water-resistant]], used for its weather-resistant qualities in coats, skiing equipment, shoes, [[jacket]]s, and [[apron]]s.{{fact|date=April 2023}}

=== Healthcare ===
The two main application areas for [[disposable|single-use]] medically approved PVC compounds are flexible containers and tubing: containers used for blood and blood components, for urine collection or for ostomy products and tubing used for blood taking and blood giving sets, catheters, heart-lung bypass sets, hemodialysis sets etc. In Europe the consumption of PVC from medical devices is approximately 85,000 tons each year. Almost one third of plastic-based medical devices are made from PVC.<ref>[https://web.archive.org/web/20150607064149/http://www.pvcmed.org/learning-centre/pvc-medical-applications/ PVC Healthcare Applications]. pvcmed.org</ref>

=== Food packaging ===
PVC has been applied to various items such as: bottles,<ref name="Marsh2007"/> [[packaging]] films,<ref name="Marsh2007"/> [[blister pack]]s,<ref name="Marsh2007"/> [[cling wrap]]s,<ref name="Marsh2007">{{Cite journal |title=Food Packaging – Roles, Materials, and Environmental Issues |journal=[[Journal of Food Science]] |url=https://ift.onlinelibrary.wiley.com/doi/10.1111/j.1750-3841.2007.00301.x |last=Marsh |first=Kenneth |date=2007-03-31 |issue=3 |volume=72 |last2=Bigusu |first2=Betty |doi=10.1111/j.1750-3841.2007.00301.x |page=R43 |issn=1750-3841}}</ref> and seals on metal lids.

=== Wire rope ===
PVC may be [[Extrusion coating|extruded]] under pressure to encase [[wire rope]] and aircraft cable used for general purpose applications. PVC coated wire rope is easier to handle, resists corrosion and abrasion, and may be color-coded for increased visibility. It is found in a variety of industries and environments both indoor and out.<ref>{{cite web|url=http://www.lexcocable.com/vinyl-and-nylon-coated-cables.html|title=Coated Aircraft Cable & Wire Rope|publisher=Lexco Cable|language=en|access-date=25 August 2017|archive-date=26 August 2017|archive-url=https://web.archive.org/web/20170826032003/http://www.lexcocable.com/vinyl-and-nylon-coated-cables.html|url-status=live}}</ref>

=== Other uses ===
[[File:12in-Vinyl-LP-Record-Angle.jpg|left|thumb|A [[vinyl record]].]]
Molded PVC is used to produce [[Phonograph record|phonograph, or "vinyl," records]]. PVC piping is a cheaper alternative to metal tubing used in musical instrument making; it is therefore a common alternative when making wind instruments, often for leisure or for rarer instruments such as the [[contrabass flute]]. An instrument that is almost exclusively built from PVC tube is the [[thongophone]], a percussion instrument that is played by slapping the open tubes with a [[Flip-flops|flip-flop]] or similar.<ref>[https://web.archive.org/web/20150704042228/http://devices.natetrue.com/pvc/pvc.htm Building a PVC Instrument]. natetrue.com</ref> PVC is also used as a raw material in automotive underbody coating.<ref>{{cite book | chapter-url=https://www.sae.org/publications/technical-papers/content/2002-01-0293/ | doi=10.4271/2002-01-0293 | chapter=Post PVC Sound Insulating Underbody coating | title=SAE Technical Paper Series | year=2002 | last1=Takata | first1=Ayumi | last2=Ohashi | first2=Yutaka | volume=1 }}</ref>

==Chlorinated PVC==
{{main|Chlorinated polyvinyl chloride}}
PVC can be usefully modified by chlorination, which increases its chlorine content to or above 67%. [[Chlorinated polyvinyl chloride]], (CPVC), as it is called, is produced by chlorination of aqueous solution of suspension PVC particles followed by exposure to [[Ultraviolet|UV light]] which initiates the free-radical chlorination.<ref name=ullmannPVC/>

==Health and safety==
===Plasticizers===
Phthalates, which are incorporated into plastics as plasticizers, comprise approximately 70% of the US plasticizer market; phthalates are by design not covalently bound to the polymer matrix, which makes them highly susceptible to leaching. Phthalates are contained in plastics at high percentages. For example, they can contribute up to 40% by weight to intravenous medical bags and up to 80% by weight in medical tubing.<ref>{{cite journal|doi=10.1146/annurev.publhealth.012809.103714| doi-access=free|pmid=20070188|title=Plastics and Health Risks|journal=Annual Review of Public Health|volume=31|pages=179–194|year=2010|last1=Halden|first1=Rolf U.}}</ref> Vinyl products are pervasive—including toys,<ref>[http://eur-lex.europa.eu/LexUriServ/site/en/oj/2005/l_344/l_34420051227en00400043.pdf Directive 2005/84/EC of the European Parliament and of the Council 14 December 2005] {{Webarchive|url=https://web.archive.org/web/20130504104216/http://eur-lex.europa.eu/LexUriServ/site/en/oj/2005/l_344/l_34420051227en00400043.pdf |date=4 May 2013 }}. Official Journal of the European Union. 27 December 2005</ref> car interiors, shower curtains, and flooring—and initially release chemical gases into the air. Some studies indicate that this [[outgassing]] of additives may contribute to health complications, and have resulted in a call for banning the use of DEHP on shower curtains, among other uses.<ref>[http://www.canada.com/cityguides/winnipeg/info/story.html?id=dfe49cb3-b104-4d4a-a449-14e4faf17e2b Vinyl shower curtains a 'volatile' hazard, study says] {{Webarchive|url=https://web.archive.org/web/20100904012142/http://www.canada.com/cityguides/winnipeg/info/story.html?id=dfe49cb3-b104-4d4a-a449-14e4faf17e2b |date=4 September 2010 }}. Canada.com (12 June 2008). Retrieved on 6 October 2011.</ref>

In 2004 a joint Swedish-Danish research team found a statistical association between allergies in children and indoor air levels of DEHP and BBzP ([[butyl benzyl phthalate]]), which is used in vinyl flooring.<ref>{{cite journal| doi = 10.1289/ehp.7187| author = Bornehag, Carl-Gustaf| year = 2004| title = The Association between Asthma and Allergic Symptoms in Children and Phthalates in House Dust: A Nested Case–Control Study| journal = Environmental Health Perspectives| volume = 112| issue = 14| pages = 1393–1397| pmid = 15471731| pmc = 1247566| last2 = Sundell| first2 = Jan| last3 = Weschler| first3 = Charles J.| last4 = Sigsgaard| first4 = Torben| last5 = Lundgren| first5 = Björn| last6 = Hasselgren| first6 = Mikael| last7 = Hägerhed-Engman| first7 = Linda|display-authors=etal}}</ref> In December 2006, the [[European Chemicals Bureau]] of the European Commission released a final draft risk assessment of BBzP which found "no concern" for consumer exposure including exposure to children.<ref>[https://web.archive.org/web/20080602175817/http://blog.phthalates.org/archives/2007/01/more_good_news.html Phthalate Information Center Blog: More good news from Europe]. phthalates.org (3 January 2007)</ref>

===Lead===
[[Lead]] compounds had previously been widely added to PVC to improve workability and stability but have been shown to leach into drinking water from PVC pipes.<ref>{{cite web|url=http://www.plasticsnews.com/article/20130906/NEWS/130909958/chinas-pvc-pipe-makers-under-pressure-to-give-up-lead-stabilizers|title=China's PVC pipe makers under pressure to give up lead stabilizers|date=6 September 2013}}</ref>

In Europe the use of lead-based stabilizers has been discontinued. The [[VinylPlus]] voluntary commitment which began in 2000, saw European Stabiliser Producers Association (ESPA) members complete the replacement of Pb-based stabilisers in 2015.<ref>{{cite web|url=https://www.stabilisers.eu/lead-replacement/|title=Lead replacement|website=European Stabiliser Producers Association|archive-url=https://web.archive.org/web/20181205030017/https://www.stabilisers.eu/lead-replacement/|archive-date=5 December 2018|url-status=live|access-date=5 December 2018}}</ref><ref name="vinylplus.eu">{{cite web|url=https://www.vinylplus.eu/uploads/downloads/VinylPlus_Progress_Report_2016.pdf|title=VinylPlus Progress Report 2016|date=30 April 2016|publisher=[[VinylPlus]]|archive-url=https://web.archive.org/web/20161220164127/https://www.vinylplus.eu/uploads/downloads/VinylPlus_Progress_Report_2016.pdf|archive-date=20 December 2016|url-status=live}}</ref>

===Vinyl chloride monomer===
{{main|Vinyl chloride}}
In the early 1970s, the carcinogenicity of vinyl chloride (usually called vinyl chloride monomer or VCM) was linked to cancers in workers in the polyvinyl chloride industry. Specifically workers in polymerization section of a [[Goodrich Corporation|B.F. Goodrich]] plant near [[Louisville, Kentucky]], were diagnosed with liver [[angiosarcoma]] also known as [[hemangiosarcoma]], a rare disease.<ref>{{cite journal
| date=March 1974| title = Angiosarcoma of liver in the manufacture of polyvinyl chloride| journal = Journal of Occupational Medicine| volume = 16| issue = 3| pages = 150–1| pmid=4856325| last1 = Creech| first1 = J. L. Jr.| last2 = Johnson| first2 = M. N.}}</ref> Since that time, studies of PVC workers in Australia, Italy, Germany, and the UK have all associated certain types of occupational cancers with exposure to vinyl chloride, and it has become accepted that VCM is a carcinogen.<ref name=ullmannPVC/>

===Combustion===
PVC produces [[Hydrogen chloride|HCl]] and carbon dioxide upon combustion.

===Dioxins===
{{Main|Polychlorinated dibenzodioxins}}

Studies of household waste burning indicate consistent increases in dioxin generation with increasing PVC concentrations.<ref name=costner2005>Costner, Pat (2005) [http://www.pops.int/documents/meetings/cop_2/followup/toolkit/submissions/IPEN%20Comments/Estimating%20Dioxin%20Releases%20English.pdf "Estimating Releases and Prioritizing Sources in the Context of the Stockholm Convention"] {{webarchive|url=https://web.archive.org/web/20070927024749/http://www.pops.int/documents/meetings/cop_2/followup/toolkit/submissions/IPEN%20Comments/Estimating%20Dioxin%20Releases%20English.pdf |date=27 September 2007 }}, International POPs Elimination Network, Mexico.</ref> According to the U.S. EPA dioxin inventory, [[landfill fire]]s are likely to represent an even larger source of dioxin to the environment. A survey of international studies consistently identifies high dioxin concentrations in areas affected by open waste burning and a study that looked at the homologue pattern found the sample with the highest dioxin concentration was "typical for the pyrolysis of PVC". Other EU studies indicate that PVC likely "accounts for the overwhelming majority of chlorine that is available for dioxin formation during landfill fires."<ref name=costner2005/>

The next largest sources of dioxin in the U.S. EPA inventory are medical and municipal waste incinerators.<ref>{{cite journal|doi=10.1016/0004-6981(87)90267-8 |author=Beychok, M.R.|title=A data base of dioxin and furan emissions from municipal refuse incinerators|journal=Atmospheric Environment|year=1987|volume =21|issue =1|pages =29–36|bibcode=1987AtmEn..21...29B}}</ref> Various studies have been conducted that reach contradictory results. For instance a study of commercial-scale incinerators showed no relationship between the PVC content of the waste and dioxin emissions.<ref>National Renewable Energy Laboratory, [http://www.nrel.gov/docs/legosti/old/5518.pdf Polyvinyl Chloride Plastics in Municipal Solid Waste Combustion] {{Webarchive|url=https://web.archive.org/web/20130215043431/http://www.nrel.gov/docs/legosti/old/5518.pdf |date=15 February 2013 }} NREL/TP-430- 5518, Golden CO, April 1993</ref><ref>{{Cite book|last1 = Rigo|first1 = H. G.|last2 = Chandler|first2 = A. J.|last3 = Lanier|first3 = W.S.|title = The Relationship between Chlorine in Waste Streams and Dioxin Emissions from Waste Combustor Stacks|journal = American Society of Mechanical Engineers Report CRTD|volume = 36|year = 1995|url = http://www.pvcinfo.be/bestanden/ASME%20abstract1.pdf|isbn = 978-0-7918-1222-8|publisher = American Society of Mechanical Engineers|location = New York, NY|access-date = 31 October 2009|archive-url = https://web.archive.org/web/20160407153408/http://www.pvcinfo.be/bestanden/ASME%20abstract1.pdf|archive-date = 7 April 2016|url-status = dead}}</ref> Other studies have shown a clear correlation between dioxin formation and chloride content and indicate that PVC is a significant contributor to the formation of both dioxin and PCB in incinerators.<ref>{{cite journal|author=Katami, Takeo |year=2002|title=Formation of PCDDs, PCDFs, and Coplanar PCBs from Polyvinyl Chloride during Combustion in an Incinerator|journal= Environ. Sci. Technol.|volume= 36|pages= 1320–1324|doi=10.1021/es0109904|pmid=11944687|issue=6|last2=Yasuhara|first2=Akio|last3=Okuda|first3=Toshikazu|last4=Shibamoto|first4=Takayuki|display-authors=etal|bibcode=2002EnST...36.1320K}}</ref><ref>{{cite journal |author1=Wagner, J. |author2=Green, A. |year=1993|title=Correlation of chlorinated organic compound emissions from incineration with chlorinated organic input|journal= Chemosphere |volume=26 |issue=11|pages=2039–2054|doi=10.1016/0045-6535(93)90030-9|bibcode=1993Chmsp..26.2039W}}</ref><ref>{{cite book|author=Thornton, Joe|year=2002|title=Environmental Impacts of polyvinyl Chloride Building Materials|publisher=[[Healthy Building Network]]|place=Washington, DC|url=http://www.healthybuilding.net/pvc/Thornton_Enviro_Impacts_of_PVC.pdf|isbn=978-0-9724632-0-1|access-date=6 October 2011|archive-url=https://web.archive.org/web/20130920032531/http://healthybuilding.net/pvc/Thornton_Enviro_Impacts_of_PVC.pdf|archive-date=20 September 2013|url-status=dead}}</ref>

In February 2007, the Technical and Scientific Advisory Committee of the [[US Green Building Council]] (USGBC) released its report on a PVC avoidance related materials credit for the [[LEED]] Green Building Rating system. The report concludes that "no single material shows up as the best across all the human health and environmental impact categories, nor as the worst" but that the "risk of dioxin emissions puts PVC consistently among the worst materials for human health impacts."<ref>[https://www.usgbc.org/ShowFile.aspx?DocumentID=2372 The USGBC document] {{Webarchive|url=https://web.archive.org/web/20070713170713/https://www.usgbc.org/ShowFile.aspx?DocumentID=2372 |date=13 July 2007 }}; [http://www.pharosproject.net/wiki/index.php?title=USGBC_TSAC_PVC An analysis by the Healthy Building NEtwork] {{Webarchive|url=https://web.archive.org/web/20080602205050/http://www.pharosproject.net/wiki/index.php?title=USGBC_TSAC_PVC |date=2 June 2008 }}</ref>

In Europe the overwhelming importance of combustion conditions on dioxin formation has been established by numerous researchers. The single most important factor in forming dioxin-like compounds is the temperature of the combustion gases. Oxygen concentration also plays a major role on dioxin formation, but not the chlorine content.<ref>{{cite journal|last=Wikstrom|first=Evalena|author2=G. Lofvenius |author3=C. Rappe |author4=S. Marklund |title=Influence of Level and Form of Chlorine on the Formation of Chlorinated Dioxins, Dibenzofurans, and Benzenes during Combustion of an Artificial Fuel in a Laboratory Reactor|journal=Environmental Science & Technology|year=1996|volume=30|issue=5|pages=1637–1644|doi=10.1021/es9506364|bibcode=1996EnST...30.1637W}}</ref>

Several studies have also shown that removing PVC from waste would not significantly reduce the quantity of dioxins emitted. The EU Commission published in July 2000 a Green Paper on the Environmental Issues of PVC"<ref>[http://ec.europa.eu/environment/waste/pvc/pdf/en.pdf Environmental issues of PVC] {{Webarchive|url=https://web.archive.org/web/20120512144023/http://ec.europa.eu/environment/waste/pvc/pdf/en.pdf |date=12 May 2012 }}. European Commission. Brussels, 26 July 2000</ref>

A study commissioned by the European Commission on "Life Cycle Assessment of PVC and of principal competing materials" states that "Recent studies show that the presence of PVC has no significant effect on the amount of dioxins released through incineration of [[plastic pollution|plastic waste]]."<ref>[https://web.archive.org/web/20140327075103/http://ec.europa.eu/enterprise/sectors/chemicals/files/sustdev/pvc-final_report_lca_en.pdf Life Cycle Assessment of PVC and of principal competing materials Commissioned by the European Commission]. European Commission (July 2004), p. 96</ref>

====Industry initiatives====
In Europe, developments in PVC waste management have been monitored by Vinyl 2010,<ref>[http://www.vinyl2010.org Home – Vinyl 2010 The European PVC industry commitment to Sustainability] {{Webarchive|url=https://web.archive.org/web/20130725200810/http://www.vinyl2010.org/ |date=25 July 2013 }}. Vinyl2010.org (22 June 2011). Retrieved on 6 October 2011.</ref> established in 2000. Vinyl 2010's objective was to recycle 200,000 tonnes of post-consumer PVC waste per year in Europe by the end of 2010, excluding waste streams already subject to other or more specific legislation (such as the European Directives on [[End of Life Vehicles Directive|End-of-Life Vehicles]], Packaging and Waste Electric and Electronic Equipment).{{fact|date=June 2022}}

Since June 2011, it is followed by VinylPlus, a new set of targets for sustainable development.<ref>[https://web.archive.org/web/20141120080145/http://www.vinylplus.eu/en_GB/about-vinylplus/our-voluntary-commitment Our Voluntary Commitment]. vinylplus.eu</ref> Its main target is to recycle 800,000 tonnes per year of PVC by 2020 including 100,000 tonnes of "difficult to recycle" waste. One facilitator for collection and recycling of PVC waste is Recovinyl.<ref>[http://www.recovinyl.com Incentives to collect and recycle] {{Webarchive|url=https://web.archive.org/web/20220119005124/https://www.recovinyl.com/ |date=19 January 2022 }}. Recovinyl.com. Retrieved on 28 January 2016.</ref> The reported and audited mechanically recycled PVC tonnage in 2016 was 568,695 tonnes which in 2018 had increased to 739,525 tonnes.<ref>{{cite web|url=https://vinylplus.eu/uploads/images/ProgressReport2019/VinylPlus%20Progress%20Report%202019_sp.pdf|title=VinylPlus Progress Report 2019|access-date=22 September 2019|archive-date=14 February 2020|archive-url=https://web.archive.org/web/20200214043955/https://vinylplus.eu/uploads/images/ProgressReport2019/VinylPlus%20Progress%20Report%202019_sp.pdf|url-status=live}}</ref>

One approach to address the problem of waste PVC is also through the process called [[Vinyloop]]. It is a mechanical recycling process using a solvent to separate PVC from other materials. This solvent turns in a closed loop process in which the solvent is recycled. Recycled PVC is used in place of virgin PVC in various applications: coatings for swimming pools, shoe soles, hoses, diaphragms tunnel, coated fabrics, PVC sheets.<ref>[http://www.solvayplastics.com/sites/solvayplastics/EN/vinyls/vinyloop/Pages/VinyloopHome.aspx Solvay, asking more from chemistry] {{Webarchive|url=https://web.archive.org/web/20120101172817/http://www.solvayplastics.com/sites/solvayplastics/EN/vinyls/vinyloop/Pages/VinyloopHome.aspx |date=1 January 2012 }}. Solvayplastics.com (15 July 2013). Retrieved on 28 January 2016.</ref> This recycled PVC's primary energy demand is 46 percent lower than conventional produced PVC. So the use of recycled material leads to a significant better [[ecological footprint]]. The [[global warming potential]] is 39 percent lower.<ref>[http://www.solvayplastics.com/sites/solvayplastics/SiteCollectionDocuments/VinyLoop/The%20VinyLoop%20Eco-Footprint%20Study.pdf Solvay, asking more from chemistry] {{Webarchive|url=http://arquivo.pt/wayback/20160516130930/http://www.solvayplastics.com/sites/solvayplastics/SiteCollectionDocuments/VinyLoop/The%20VinyLoop%20Eco-Footprint%20Study.pdf |date=16 May 2016 }}. Solvayplastics.com (15 July 2013). Retrieved on 28 January 2016.</ref>

====Restrictions====
In November 2005, one of the largest hospital networks in the US, [[Catholic Healthcare West]], signed a contract with [[B. Braun]] Melsungen for vinyl-free intravenous bags and tubing.<ref>{{cite journal |date = 21 November 2005 |title = CHW Switches to PVC/DEHP-Free Products to Improve Patient Safety and Protect the Environment |journal = Business Wire |url = http://www.businesswire.com/news/home/20051121005624/en/CHW-Switches-PVCDEHP-Free-Products-Improve-Patient-Safety |access-date = 28 January 2016 |archive-date = 9 April 2016 |archive-url = https://web.archive.org/web/20160409063746/http://www.businesswire.com/news/home/20051121005624/en/CHW-Switches-PVCDEHP-Free-Products-Improve-Patient-Safety |url-status = live }}</ref>

In January 2012, a major US West Coast healthcare provider, [[Kaiser Permanente]], announced that it will no longer buy intravenous (IV) medical equipment made with PVC and DEHP-type plasticizers.<ref>Smock, Doug (19 January 2012) [https://web.archive.org/web/20151110104103/http://www.plasticstoday.com/articles/kaiser-permanente-bans-pvc-tubing-and-bags0119201201 Kaiser Permanente bans PVC tubing and bags]. plasticstoday.com</ref>

In 1998, the [[U.S. Consumer Product Safety Commission]] (CPSC) arrived at a voluntary agreement with manufacturers to remove phthalates from PVC rattles, teethers, baby bottle nipples and pacifiers.<ref>{{cite web|url=http://chej.org/pvcfactsheets/PVC_Policies_Around_The_World.html|title=PVC Policies Across the World|website=chej.org|access-date=25 August 2017|archive-date=10 August 2017|archive-url=https://web.archive.org/web/20170810185527/http://www.chej.org/pvcfactsheets/PVC_Policies_Around_The_World.html|url-status=live}}</ref>

===Vinyl gloves in medicine===
[[File:Vinyl Einmalhandschuhe.JPG|thumb|Vinyl gloves]]
Plasticized PVC is a common material for [[medical glove]]s. Due to vinyl gloves having less flexibility and elasticity, several guidelines recommend either [[Natural rubber|latex]] or [[Nitrile rubber|nitrile]] gloves for clinical care and procedures that require manual dexterity and/or that involve patient contact for more than a brief period. Vinyl gloves show poor resistance to many chemicals, including glutaraldehyde-based products and alcohols used in formulation of disinfectants for swabbing down work surfaces or in hand rubs. The additives in PVC are also known to cause skin reactions such as allergic contact dermatitis. These are for example the antioxidant [[bisphenol A]], the biocide [[benzisothiazolinone]], propylene glycol/adipate polyester and ethylhexylmaleate.<ref name=ansell>{{cite web|title=Vinyl Gloves: Causes For Concern|url=http://www.anselleurope.com/medical/pdf/Position%20Paper_EN.pdf|publisher=[[Ansell]] (glove manufacturer)|access-date=17 November 2015|archive-url=https://web.archive.org/web/20150922064819/http://www.anselleurope.com/medical/pdf/Position%20Paper_EN.pdf|archive-date=22 September 2015|url-status=dead}}</ref>

==Sustainability==
The life cycle, sustainability, and appropriateness of PVC are discussed.<ref>[http://learninglegacy.independent.gov.uk/documents/pdfs/sustainability/cp-london-2012-use-of-pvc-policy.pdf London 2012 Use of PVC Policy] {{Webarchive|url=https://web.archive.org/web/20160201074938/http://learninglegacy.independent.gov.uk/documents/pdfs/sustainability/cp-london-2012-use-of-pvc-policy.pdf |date=1 February 2016 }}. independent.gov.uk.</ref>{{by whom|date=March 2024}} In Europe, a 2021 VinylPlus Progress Report indicated that 731,461 tonnes PVC were recycled in 2020, a 5% reduction compared to 2019 due to the [[COVID-19 pandemic]].<ref>{{cite web |url=https://www.vinylplus.eu/resources/vinylplus-at-a-glance-2021/ |title=VinylPlus at a Glance 2021 - VinylPlus |publisher=Vinylplus.eu |date=2021-05-17 |accessdate=2022-02-19 |archive-date=7 February 2022 |archive-url=https://web.archive.org/web/20220207144311/https://www.vinylplus.eu/resources/vinylplus-at-a-glance-2021/ |url-status=live }}</ref>

==See also==
{{Portal|Chemistry}}
{{div col|colwidth=15em}}
* [[Chloropolymer]]s
* [[Plastic pressure pipe systems]]
* [[Plastic recycling]]
* [[Polyethylene]]
* [[Polypropylene]]
* [[Polymer clay]]
* [[Polyvinyl fluoride]]
* [[Polyvinylidene chloride]]
* [[Polyvinylidene fluoride]]
* [[PVC Bendit]]
* [[PVC Clothing|PVC clothing]]
* [[PVC decking]]
* [[PVC fetishism]]
* [[Vinyl roof membrane]]
* [[Chlorinated polyethylene]]
{{div col end}}

==References==
===General references===
* {{Cite book |last=Titow |first=W. |title=PVC Technology |publisher=Elsevier Applied Science Publishers |location=London |year=1984 |url=https://books.google.com/books?id=N79YwkVx4kwC |isbn=978-0-85334-249-6 }}

===Inline citations===
{{reflist}}

==External links==
{{Commons category|Polyvinyl chloride}}

* [https://web.archive.org/web/20161004023754/http://www.pvc.org/en/ The European PVC Portal (European Council of Vinyl Manufacturers)]
* [https://www.cdc.gov/niosh/ipcsneng/neng1487.html Polyvinyl Chloride International Chemical Safety Cards—CDC/NIOSH]
* [http://www.plastics.ca/ The Vinyl Council of Canada]
* [https://web.archive.org/web/20160323211843/http://vinylinfo.org/vinyl-info/about-vinyl/ US Vinyl Institute]
 
{{HealthIssuesOfPlastics}}
{{Plastics}}

{{DEFAULTSORT:Polyvinyl Chloride}}
[[Category:Dielectrics]]
[[Category:Nonwoven fabrics]]
[[Category:Plastics]]
[[Category:Thermoplastics]]
[[Category:Vinyl polymers]]
[[Category:Commodity chemicals]]
[[Category:1872 in science]]
[[Category:1872 in Germany]]
[[Category:Food packaging]]

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Greek: Ά ά Έ έ Ή ή Ί ί Ό ό Ύ ύ Ώ ώ Α α Β β Γ γ Δ δ Ε ε Ζ ζ Η η Θ θ Ι ι Κ κ Λ λ Μ μ Ν ν Ξ ξ Ο ο Π π Ρ ρ Σ σ ς Τ τ Υ υ Φ φ Χ χ Ψ ψ Ω ω {{Polytonic|}}
Cyrillic: А а Б б В в Г г Ґ ґ Ѓ ѓ Д д Ђ ђ Е е Ё ё Є є Ж ж З з Ѕ ѕ И и І і Ї ї Й й Ј ј К к Ќ ќ Л л Љ љ М м Н н Њ њ О о П п Р р С с Т т Ћ ћ У у Ў ў Ф ф Х х Ц ц Ч ч Џ џ Ш ш Щ щ Ъ ъ Ы ы Ь ь Э э Ю ю Я я ́
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