• Modeling Of Gas Pollution From Ilorin Animal Waste Dumpsite

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    • CHAPTER ONE
      INTRODUCTION
      1.0 INTRODUCTION
      Atmospheric emission of methane (CH4) associated with animal waste are worldwide problem and may contribute to a detrimental impact on the environment.
      CH4 are important green house gases that are produced anthropogenic ally but mainly by plant, animal waste and from natural geothermal source. Other green house gases include CO2, NH3.     
      ‘Greenhouse’ gases are gases that have a molecular structure such that they obstruct the radiation of heat from the earth, thus acting like the glass or membrane over a greenhouse. The gases that are most effective at absorbing this radiated heat are carbon dioxide, methane, nitrous oxide, hydro fluorocarbons and sculpture hexafluoride.
      The above ‘greenhouse’ gases have differing abilities to absorb the heat radiated from the earth and are assigned factors (their ‘global warning potential’) based on their absorbing ability relative to that of carbon dioxide. The factors depend on the lifetime over which the effect of the gases is assessed. A gas which is quickly removed from the atmosphere may initially have a large effect but over a longer period the effect will be much less important.
      1.1    BACKGROUND OF STUDY
      Waste products are valuable resources as fertilizer and suitable to be applied to crops and pastures. However. When concentrated into relatively small geographical area or applied in excessive amounts, waste can have detrimental environmental effects. This can results in enhanced CO2, CH4 and NS0 emission to the atmosphere influencing global warming and destruction of the ozone layer (mosier, 1998). These gases have long atmospheric lifetimes, are consequently fairly well mixed and therefore of global as well as local or regional importance. They represent a most serious threat to global climate in terms of greenhouse effect and their overall radioactive forcing from pre industrial time to date were estimated as 1.85,0.15 and 0.1.2Wm-2 respectively. Anthropogenic sources account for 70% of the total annual release of CH4, 16% of which coming from production of waste (IPCC, 1994). Soil microbial processes accesses account for 65% of the total N2) source strength (5 to 5 TG year-1). These researches measured the emission of NH3 using ToxiREA pro and modeling to estimate emission by Gabi 6 tools.
      1.2 STATEMENT OF THE PROBLEM
      Scientist agree that even a small increase in the global temperature would led to significant climate and whether changes, affecting cloud cover, precipitation, wind patterns, the frequency and severity of storms, and the duration of season.
      I.    Rising temperature would raise sea levels as well, reducing supplies if fresh wash water as flooding occurs along coastlines world and salt water reaches inland.
      II.    Many of the world endangered species would become extinct as raise in temperature would change their habitat.
      III.    Millions of people also will be affected especially poor people who live in precarious locations or depend on land for sustenance living.
      IV.    Certain vector bam diseases carried by animals or insects such as malaria would become wide spread as warmer conditions expand their range.
      1.3    AIMS AND OBJECTIVES:
      1.3.1 AIM
      The aim of the project is to model trace gas pollution from Ilorin animal waste dumpsite.

      1.3.2     OBJECTIVES:
      i.    Pollution locator (animal waste)
      ii.    To quantity emission rate of trace gases from animal waste dump site in Ilorin
      iii.    To understand better trace gases emission level from pollution and its effect on global warning
      iv.    To  model trace gas pollution from Ilorin animal waste dumpsite
      1.4 SCOPE OF RESEARCH:
      I.    To locate animal waste dumpsite in Ilorin
      II.    To detect and monitor trace gases from located dumpsite using Toxireapro gas monitor
      III.    To analyze the effect of trace gases from animal dumpsite to Ilorin environment
      IV.    And to model the effect of trace gases on the environment
      1.5 DEFINATION OF TERMS
      1.5.1 TRACE GAS: A trace gas is a gas which makes up less 1% by volume of the Earth’s atmosphere, and it includes all gases except nitrogen (78.1%) and oxygen (20.9%). The most abundant trace gas at 0.934% is argon. Water vapor also occurs in the atmosphere with highly variable abundance
      1.5.2 POLLUTION: This is the process of making air, water soil etc dangerously dirty and not suitable for people to use.
      1.5.3 ANIMAL WASTE: Is a material composed of excreta with or without animal dung, collected from poultry and other animals except human.

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    • ABSRACT - [ Total Page(s): 1 ]ABSTRACTAtmospheric emission of trace gases such as carbon (iv) oxide (co4), carbon (II) oxide (co), methane (ch4) e.t.c. associated with animal waste are world wild problem and may contribute to a detrimental impact on the environment in such a way that millions of people will be affected especially poor people who live in precarious location or depend on land for sustenance living. And this effect was determined by modeling the effect of trace gases on the environment. The two (2) main approac ... Continue reading---

         

      LIST OF TABLES - [ Total Page(s): 1 ]LIST OF TABLESTable 1:    Data Obtained for day 1                   Table 2:    Data Obtained for day 2                     Table 3:    Data Obtained for day 3                 Table 4:    Data Obtained for day 4                   Table 5:    Data Obtained for day 5                        Table 6:    Compress Field Value Results In ppm            Table 7:    Compress field value results in ton ... Continue reading---

         

      TABLE OF CONTENTS - [ Total Page(s): 1 ]TABLE OF CONTENTSTitle Page                                     Certification                                   Dedication                                        Acknowledgement                            Table of contents                                      CHAPTER ONE 1.0    Introduction                                      1.1   ... Continue reading---

         

      CHAPTER TWO - [ Total Page(s): 2 ]CHAPTER TWOLITERATURE REVIEW2.1 CARBON DIOXIDE EMISSIONSCarbon dioxide (CO2) emissions occurring result from the decomposition of animal wastes in the presence of a sufficient supply of air to ensure aerobic conditions. Under aerobic conditions naturally occurring bacteria utilize the oxygen in air to oxidize the biodegradable carbon in the animal waste to carbon dioxideAerobic conditions occur when animal wastes are:I.    Treated in an oxidation pond or on aerated lagoonII.    Composted w ... Continue reading---

         

      CHAPTER THREE - [ Total Page(s): 1 ]CHAPTER THREEMETHODOLOGY3.0    METHODOLOGY3.1    DESCRIPTION OF STUDY AREAIlorin is the capital city of kwara state in western Nigeria As of 2007 it had a population of 847,582, making it the 13th largest city in Nigeria by population. Wikipedia Weather 32c, wind W at 10 km/h 61% Humidity Population: 532, 089 (1991) Undata    3.2    METHOD OF STUDYThe two (2) main approaches to this study was fieldwork and software application. 3.2.1    FIELD METHODThe fieldwork was carried out on ... Continue reading---

         

      CHAPTER FOUR - [ Total Page(s): 8 ]CHAPTER FOUR Result and discussion4.1    DATA OBTAINED FROM THE FIELDTable 1:    Data obtained for Day 1 ... Continue reading---

         

      CHAPTER FIVE - [ Total Page(s): 1 ]CHAPTER FIVE5.0    CONCLUSION AND RECOMMENDATION5.1    Conclusion     Integrated waste management (IWM) tools model the trace gas pollution from Ipata in Ilorin animal waste dump site. The study concludes that carbon IV oxide (CO2) among the three trace gases that was model is of higher concentration in that environment. The study also shows that carbon ii oxide (CO2) and methane (CH4) emission rate from the animal waste dump site is not of threat to the global warming.5.2     Recomm ... Continue reading---

         

      REFRENCES - [ Total Page(s): 1 ]REFERENCESMessenger. J.J, and W.E jokily. 2000. Ammonia losses from manure. In proceeding 62nd  Cornell Nutrition Conference for feed Manufacturers, 109-116. Ithaca, N.Y.Mills, M.J; Langford, A.O; O’Leary, T.J; Arpad, K.; Miller, H.L; profit M.H; sanders, R.W; Solomon, S. (1993). ‘’On the relationship between stratospheric aerosols and nitrogen dioxide’’ (pdf). Geophysical Research Letters 20 (12): 1187-1190. NRC. 2003 Air Emissions from Animal Feeding Operatio ... Continue reading---