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  <titleInfo>
    <title>Studies of bio waste materials from sago hampas and oil palm leaves for cell imaging applications</title>
  </titleInfo>
  <name type="personal">
    <namePart>Shoriya Aruni Abdul Manaf</namePart>
    <role>
      <roleTerm authority="marcrelator" type="text">creator</roleTerm>
    </role>
  </name>
  <typeOfResource manuscript="yes">text</typeOfResource>
  <originInfo>
    <place>
      <placeTerm type="code" authority="marccountry">my</placeTerm>
    </place>
    <place>
      <placeTerm type="text">Kuantan, Pahang</placeTerm>
    </place>
    <publisher>UMP</publisher>
    <dateIssued>2015</dateIssued>
    <issuance>monographic</issuance>
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  <language>
    <languageTerm authority="iso639-2b" type="code">eng</languageTerm>
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  <physicalDescription>
    <form authority="marcform">print</form>
    <extent>xvi, 107 p. : ill. ; 30 cm. + 1 CD-ROM</extent>
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  <abstract>Synthesizing of carbon nanospheres (CNSs) from bio waste is  a good approach due to its availability,  environmental  friendly  and  low  cost.  On  the  other  hand,  utilization  of  bio waste  to  the  high  added  value  products  attracts  much  attention  where  it  can  prevent  the environmental problems due to  its  overload. Although  there are many types of bio wastes available,  very  limited  studies  were  attempted  to  use  oil  palm  leaves  (OPL)  and  sagohampas  as the precursor for synthesizing carbon nanospheres. The CNSs  were obtained by using a single step pyrolysis method in nitrogen atmosphere at different temperature in tube furnace without any catalysts support. For the OPL precursor, the pyrolysis temperaturesare  500  °C,  600  °C  and  700  °C  and  for  sago  hampas,  its  temperatures  are  400  °C  and 600  °C,  which  has  been  identified  using  TGA  analysis.  The  key  approach  is  the  natural silica bodies found in the precursor that plays important template role in the formation of CNSs.  In  addition,  the  lignocellulosic  content  in  the  bio  waste  also  plays  the  role  as  a carbon source for the CNSs synthesis. Different pyrolysis temperature gives different effect on the pyrolyzed materials. The obtained CNSs were characterized by TGA, XRD, Raman, FTIR,  FESEM-EDX,  TEM  and  Zeta  potential.  The  optimum  temperature  for  the  CNSs obtained  from  OPL  is  600  °C.  At  this  temperature,  CNSs  exhibit  small  sizes  of  particle,which  is  ~20  nm  with  uniform  distribution  of  spherical  shape  particles  under  FESEM analysis. In addition, TEM with a high magnification view shows the particle size of 30 nm. The carbon content of CNSs at 600  °C gives highest value,  which is 87.90  % compared to the other pyrolysis temperature. On the other hand, the CNSs obtained from sago  hampasshow that the higher temperature gives better performance. The FESEM images show that the particle  size is in the range of 60-70 nm whereas the TEM images exhibit the 50 nm of particle size with spherical shape observed. The carbon content at higher temperature gives 83.90  %,  which is higher than the lower pyrolysis temperature. It shows that the different precursor gives different carbonizations effect depending  on the pyrolysis temperature. The obtained CNSs were used for biotechnology applications which are cell imaging. The CNSswas tagged with fluorescent dye  of  Coumarin 6  (C-6).  Few cell lines including UMR 106, A375, N2A and MDCK were used as biological model to observe  CNSs  ability as a nano carriers  for  drug  delivery.  The  cellular  uptake  study observed  under  fluorescence microscope shows that the CNSs were efficiently taken up by the cell lines and cytotoxicity was determined by MTT assay method.  From the results it shows that the CNSs  can inhibit the cell proliferation of MDCK and N2A at low percentages whereas for A375 it can be clearly observed the apoptosis with dose dependent. This finding shows the alternative way to produce low cost  and high value  carbon nanospheres with spherical shape and porous structure by utilization of bio waste as a precursor. The CNSs can be applied in many other applications such as drug delivery, water purification and energy storage device.</abstract>
  <targetAudience authority="marctarget">specialized</targetAudience>
  <note type="statement of responsibility">Shoriya Aruni Abdul Manaf</note>
  <note>Faculty of Industrial Science and Technology</note>
  <note>Thesis (Master of Science) -- Universiti Malaysia Pahang – 2015</note>
  <note>Bibliography : p. 96-105</note>
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    <name type="corporate">
      <namePart>Faculty of Industrial Science and Technology</namePart>
    </name>
    <topic>Dissertations</topic>
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  <subject authority="lcsh">
    <topic>Universities and Colleges</topic>
    <topic>Dissertations</topic>
  </subject>
  <subject authority="lcsh">
    <topic>Theses</topic>
  </subject>
  <identifier type="isbn">THE0007948(Local)</identifier>
  <identifier type="uri">http://ecollib.ump.edu.my/25681/</identifier>
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    <url>http://ecollib.ump.edu.my/25681/</url>
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    <recordCreationDate encoding="marc">160317</recordCreationDate>
    <recordChangeDate encoding="iso8601">20251117113435.0</recordChangeDate>
    <recordIdentifier source="KUKTEM">vtls000093941</recordIdentifier>
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