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U·;yMAP Universiti Malaysia Perlis

INVEMTDRS

KAHTAN S. MOHAMMED MUSTAFA AL BAKRI alN ABDULLAH KAMMUD. HUSSill

ENVIRONMENT FRIENDLY ANTI-RADIATION

ALI aASIlEER AZEEl NIK NDRIMAN alN ZULKEPLI CHE MDHD RUZAIDI &HAZAi.

CONTACT DETAILS

Centre of ExceHencl Gaopolymer" GrHn T~I!'E_T'cI!). School 01 Malariel E",IIttI'kII, Univenili Mllaysll PIfIII IUnIMAP). P.O. aax 77. D/A P'jobol POI Balr, Kanglr. Plrlil.

EIIIII: bhhlnOulllMJl.ldl.my CoalacIllo..: -tl017-21Sa41112

VEST FOR PROTECTION AGAINST GAMMA RAY

PHOTONS

Patent No.: US08580029-B2; US2012/0304894-Al

INTRODUCTION

• The utilization of waste rubber powder in polymer matrices provides an attractive strategy for polymer waste disposal. In this research. lead free flexible composite material samples for anti- radiation purposes were produced. 25 wt% of recycled acrylonitrile-butadiene rubber (NBRr) were added to Natural rubber (NR) to prepare the composite's matrix part

• The matrix was incorporated with various hard materials wastes such as (iron particulates. iron fillings and slags) brought from different industry zones. The amounts of these added particulates were ranged from 15- 75 wt%.

• All fabricated samples were assessed for their anti-radiation attenuation properties, the attenuation measurements were performed using gamma spectrometer of Nal (TI) detector. The utilized radiation sources comprised 13'CS and "Co radioactive elements with photon energies of 0.662 MeV for 13'CS and two energy levels of 1.17 and 1.33 MeV for "Co.

PROBLEM STATEMENT

There are many byproduct materials of various industries represent a burden on the environment and ways to get rid of them need to waste a large amount of money, such as steel slag, iron filings, ball bearings components and other spin-offs that appear in industry.

• Development in many areas summoned the use of radioactive materials and the latter has to be preventable well because it is very harmful.

• The free-lead rubber shielding properties may vary depending on the composite constituent of the rubber blend.

• It Is therefore possible to use these materials consumed by mixing with rubber for the manufacture of armor vest for protection against ionizing radiation.

_ PRODUCT DESCRIPTION

• Disposal of metal by-products from various industries, which represent a burden on the environment.

• Incorporate these consumed substances into rubber blend to produce protective shields against the threat of certain harmful radiations from different sources.

• Addition of carbon based byproducts material (slags)from steel industry to improve anti radiation performance of the rubber composites.

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::~) NOVELTY

• Blend of natural rubber, recycled rubber and heavy waste materials are used to fabricate green anti radiation armor vest.

• The invented material is flexible and can be arranged in the required shape that can be facility at the movement of the workers wearing this vest.

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II CONCLUSIONS

The above description should suffice to show that:

TECHNICAL DATA

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Meanfreepathforthreerubbersamplecontaln 65wt% from thre. typasadditiV8 at gamma-ray nrgy 0.e62MeV. For "'Cs radioactive oource Set3 SteBl slags.

• Rubber NR/NBRr mixture with.jron particulates can be an effective candidate as radiation protection shield as opposed to the pure lead sample currentiy used in radiotherapy. These fabricated samples can be used for covering walls of nuclear stores. also as protection clothing in nuclear medicine departments and nuclear investigations centers and even to prevent astronauts from cosmic radiation etc. for anti damage against gamma-ray.

• Giving the opportunity to recycle huge amounts used rubber, metal particulates and slags to be utilized to fabricate useful part instead of been sent to the landfill.

• The prepared samples are characterized to be flexible and not to break at bending.

There is an inverse proportionality between ~ and radiation energy and direct proportionality with the samples overall density.

Kahtan S. Mohammed, MoM Mustafa AI Bakri Abdullah. KamarudlnHussin, Andrei Victor Sanduand Rafiza Abdul Razak. "The Effect of Various Waste M:rterials' Contents on the Attenuation Level of Anti-Radiation Shieldmg Concrete .. , MaterialS2013, 6, 4836-4846; dOI:1o.s390;' factor. 2.25

Mohammed, Andrei Victor Sanduand. Mobd Mustafa AI Baltri Abdullah. K':U1l3rudin Hussm, • loan Gabriel Sandu," Evaluation of ftldiatlOn Shielding Properties lor Concretewlth Different Aggregate Granule Sizes", REV. CH!M. (Buchnrest)· 64· No.8· 2013.1mpactfactor: 0.6

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AdVanced Materials Research 0712013; 795;195"200.

Scopus

• Voi. 925 {:ro14} pp 190-194 • (2014). Scopus.

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U;)/MAP Universiti Malaysia Perlis

INVENTORS

ASSOC. PROF. IR. DR. SALMAH HUSSElNSYAH KDAY SEDNG CHUN

CHAN MING YENG

CONTACT DETAILS

SCHOOL OF MATERIALS ENGINEERING UNIVERSITI MALAYSIA PERLiS II20tIfI JEJAWI, PERUS e-mail: iraalmahOulimap.lIIl.my PIMMtt: +l04·17U012

GREEN ORGANIC

COUPLING AGENT FOR AGRO-WASTE PLASTIC COMPOSITES

II PRODUCT DESCRIPTION

Gre en organic coupling agent is kind of glycidyl fatty acid made from virgin coconut oil. The green coupling agent is highly effective coupling agent for agro-waste plastic composites, instance of expen sive synthetic coupling agent which is commonly used. The green c oupling agent is inexpensive and made from sustainable resource. The used of green coupling agent will improve the wettability, filler dispersion a nd in terfacial b onding between agro-waste filler and plastic composites.

: iIa COMMERCIAL POTENTIAL

T h e green organic coupling agent is an ideal additive in plastic

indust~y

as it used to improve mechanical properties, enhanced filler dispersion, and increased the water resistance of agro-waste plastic composites material. It is a low cost additive.

~ NOVELTIES

• Green Chemical

• Made from sustainable resources Low Cost

COST ESTIMATION

Agro·waste Plastic Composites Estimation Price iRm/Kgl With Green OrganiC Coupling Agent 8.90 _ .;

With Fatty Acid 9.38

With Silane coupling agent " , .. ;;1:': 9,80 :'H:

IMPROVE WATER RESISTIVITY

12

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.eontrol

• FattvAcld Silane

• Green Organic Coupling Agent

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PROCESS OF GREEN ORGANIC COUPLING AGENT

Coconut milk Vlllin Coconut 011

made from coconut milk Chemical Modification

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Application Use in agra-waste plastic composites as coupllnJ! agent

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PUBLICATIONS

composites

Green O'l:onlc cOupling Agent Produced' fr.om virgin coconut oil via chemral modifICation

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COmposites CompOSite with green coupling agent show higher tensile strength and tensile modulus then composite with commercial eouplina agent without losing the ductility

Green Organic

Coupling Agent

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• K.S. Chun & S. Husseinsyah. Polylactic acidlcorn cob eco-composltes: effect of new organic coupling agent.

Joumal of Thermoplastic CompOSite Materials. In Press. 001: 001: 10.1177/0892705712475008. (Impact Factor 2012: 0.750)

• S. Husseinsyah. K.S. Chun, A. Hadl. R. Ahmad. Efffect of coconut oil coupling agenl on properties of low density poly1heylene and palm kernel sha!1 eco-composites. Journal of Vinyl Additive and Tachnology.

Accepted. (Impact Factor 2012: 1.107)

Referensi

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