PHYSICOCHEMICAL AND MICROBIOLOGICAL QUALITIES OF UMUARIAGA RIVER

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Product Code: 00008504

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ABSTRACT

This study determined the microbiological and physicochemical qualities of Umuariaga River in Ikwuano LGA of Umuahia. A total of 30 samples collected over a 10 day period from three different points of the river were analyzed. Total viable counts were enumerated and they ranged as follows; Total Heterotrophic Plate Count (1.7 × 101 to 7.8 × 101 for upstream, 1.1 × 103 to 5.9 × 103 for midstream and 1.4 × 103 to 3.8 × 103 for downstream), Total Coliform Plate Count (1.6 × 101 to 4.3 × 101 for upstream, 1.5 × 103 to 5.6 × 10for midstream and 2.5 × 103 to 9.0 × 103 for downstream), Total Fungal Count (1.4 × 10to 9.0 × 101 for upstream, 1.5 × 10to 4.6 × 103 for midstream and 1.1 × 103 to 4.0 × 103 for downstream). The results showed that the midstream region had the highest viable counts and this could be attributed to high human and possibly animal activities in the region of Umuariaga River. Due to the relatively low coliform count in the upstream region, it was implied that the upstream region of Umuariaga River was quite fit and safe drinking. The physicochemical quality of the river was also studied. The parameters studied were pH, temperature, total dissolved solids, total suspended solids and conductivity and the results were observed to be well within the WHO standards. From this study, it can be said that Umuariaga River is not polluted and can be deemed fit and safe for drinking. However, proper treatment of the water is required as a safety measure before consumption.






TABLE OF CONTENTS

Title page                                                                                                                                i

Certification                                                                                                                           ii

Dedication                                                                                                                              iii

Acknowledgments                                                                                                                  iv

Table of contents                                                                                                                    v

List of tables                                                                                                                           ix

Abstract                                                                                                                                  x

CHAPTER ONE

INTRODUCTION                                                                                                                  1

1.1       Aim and Objectives                                                                                                    3

1.1.1    Objectives                                                                                                                   3

CHAPTER TWO

LITERATURE REVIEW                                                                                                       4

2.1       Pollution                                                                                                                     4

2.2       Water                                                                                                                          4

2.3       Water Pollution                                                                                                          5

2.3.1    Contamination of Drinking Water                                                                             6

2.4       Water Quality                                                                                                             6

2.4.1    Economic Effects of Water Quality                                                                           7

2.5       Classes of Water Related Diseases                                                                             7

2.6       World Health Organization (Who) Standards for Drinking Water                                    8

2.7       Typical Chemical Contamination                                                                              9

2.8       Types of Contaminants                                                                                              10

2.9       Bacteriological Water Quality                                                                                    11

2.10     Water Borne Pathogens and Diseases                                                                        11

2.11     Indicator Organisms of Water Quality                                                                       13

2.11.1 Coliform Organisms (Total Coliform)                                                                       14

2.11.2 Thermotolerant Coliform Bacteria                                                                             15

2.11.3 Escherichia Coli                                                                                                         16

2.11.4 Faecal Streptococci and Enterococci                                                                         16

2.11.5 Clostridium Perfringens                                                                                             18

2.11.6 Heterotrophic Plate Count                                                                                          19

2.12     Use of Bacteria as Indicators of Pathogenic Organisms in Water                                    20

2.13     Physicochemical Water Quality                                                                                 21

2.13.1 Biochemical Oxygen Demand                                                                                   23

2.13.2 Dissolved Oxygen                                                                                                      25

2.14     Physical Water Quality                                                                                               26

2.14.1 Total Dissolved Solids (TDS)                                                                                    26

2.14.2 pH                                                                                                                               27

2.14.3 Turbidity                                                                                                                     28

2.14.4 Electrical Conductivity (EC)                                                                                      29

2.14.5 Temperature                                                                                                               29

CHAPTER THREE

MATERIALS AND METHODS                                                                                           31

3.1       Study Area                                                                                                                  31

3.2       Materials                                                                                                                     31

3.2.1    Sterilization of Materials                                                                                            31

3.2.2    Media Used and Their Preparation                                                                             32

3.3       Sample Collection                                                                                                      32

3.4       Enumeration of Microorganisms                                                                                32

3.4.1    Pour Plate Techniques                                                                                                            33

3.5       Microbiological Analysis                                                                                           33

3.5.1    Total Plate Counts                                                                                                      34

3.5.2    Total Coliform Count                                                                                                 34

3.5.3    Total Fungal Count                                                                                                     34

3.6       Chemical Tests                                                                                                           35

3.6.1    pH Test                                                                                                                       35

3.6.2    Suspended Solid Determination (SS)                                                                                     35

3.6.2.1 Total Suspended Solids (TSS) Determination                                                            35

3.6.2.2 TDS Test (Total Dissolved Solids)                                                                            35

3.6.3    Conductivity Test                                                                                                       36

CHAPTER FOUR

Results                                                                                                                                    37

4.1       Microbiological Properties                                                                                         37

4.2       Physicochemical Properties                                                                                        37

CHAPTER FIVE

DISCUSSION, CONCLUSION AND RECOMMENDATION                                            43

5.1       Discussion                                                                                                                   43

5.2       Conclusion and Recommendation                                                                             45

References                                                                                                                              47

 

 

 

 

 

LIST OF TABLES

TABLE

TITLE

PAGE

4.1

Total Viable Count (TVC) at different Sampling Regions of Umuariaga River

 

39

4.2

Total Coliform Count (TCC) at different Sampling Regions of Umuariaga River

 

40

4.3

Total Fungal Count (TFC) at different Sampling Regions of Umuariaga River

 

41

4.4

Physicochemical Properties of Water Samples from Umuariaga River over a 10-day Period

 

42

 

 

 

 

 


CHAPTER ONE

INTRODUCTION

Water is an indispensable natural resource essential for the existence of all living creatures. It is required for various human daily activities such as drinking, cooking, tooth-brushing, bathing, washing utensils and also for agricultural and industrial purposes. However, poor water quality continues to be a leading cause of health problems especially in developing countries where it is estimated that 80% of all illnesses are linked to water and sanitation and 15% of all child deaths under the age of 5 years result from diarrheal diseases (Thompson and Khan, 2003). Currently, an estimated 884 million people worldwide do not use improved sources of drinking water and 2.6 billion are not provided with adequate sanitation. The majority of these are in Southern Asia (25%) and sub-Saharan Africa (37%). In Nigeria, increasing population and infrastructural breakdown have made municipal pipe borne water to be inadequate in quantity and quality (Rahman et al., 2001). Water is abundant in nature and is an important part of the earthly environment, covering about (75%) of the earth surface. It occurs as surface water in lakes, streams, rivers, ponds, shallow aquifers, oceans, seas, ice caps, glaciers, etc., and as ground water (when it accumulates in the ground) which is obtained as spring water, well water, and borehole water. Small amount of gases like N2, O2 and CO2 in the atmosphere are contained in all natural water. Water is made up of two element, hydrogen and oxygen and is the most popular solvent as it has the ability to dilute many chemicals. Water also has tremendous heat absorbency and plays an important role in the physiology of both flora and fauna (plant and animals) and also in their metabolic processes (Golterman, 2008).

Today, less than 30% Nigerians have access to safe drinking water due to these inadequacies and most of the populations have to resort to drinking water from wells and streams especially in the rural and suburban communities (Zvidzai et al., 2007). These water sources are largely untreated and might harbor waterborne and vector-borne diseases such as cholera, typhoid fever, diarrhea, hepatitis and guinea worm. These diseases are caused by pathogenic bacteria, viruses, protozoa and other microbes which are shed in human faeces and pollute water supplies which people utilize for drinking and washing purposes (Fenwick, 2006).

Water is essential natural resources as it is impossible for life to exist without water and most manufacturing industries cannot function in its absence. An essential pre-requisite for the establishment of a stable community is the presence of safe and reliable sources of water. Water pollution is a change in the quality of water which renders it unstable or dangerous as regards foods, man and animal health, industry, agriculture, fishing or leisure. However, before the advent of industrialization, the degree of contamination of water by pollutant was low. New age activities like manufacturing process led to pollution of service water source. Typical example is the location of chemical industries at river banks with effluent released into the river. Sewage disposal into water bodies, as is practiced in Lagos lagoon, leaves streams and rivers polluted (Okonkwo, et al., 2009).

Many rivers, streams and wells worldwide are affected by faecal contamination leading to increased health risks to persons exposed to the water, degradation of recreational and drinking water quality (Obiri-Danso et al., 2009). Pollution of river waters with pathogenic microorganisms has been on steady increase in the recent past. The major source of microbes in water is faeces from human and other mammals (Abednego et al., 2013). Entry of pathogens into rivers can occur either from a point source, non- point sources or both. Non-point source microbial pollution of rivers occurs from rain water surface run-offs, storm sewer spillages or overflow, while point-source pollution comes from discharge of untreated or partially treated effluents from waste water treatment plants (Donovan et al., 2008). One of the most frequent types of contamination in rural communities is faecal pollution from different sources, most frequently livestock and inadequate on-site human waste disposal systems (Fellheim and Raddum, 2007). Microbiological contamination, is therefore dispersed, sporadically and influenced by a range of interacting environmental factors such as the water sheds physical characteristics, climatic conditions and the activities of man like waste disposal and agricultural management practices (Ezekwe et al., 2013). Therefore this study investigated microbial load and physicochemical quality of Umuariaga River, Umuahia.


1.1       Aim and Objectives

The aim of this work is to determine the physicochemical and microbiological qualities of Umuariaga River in Ikwuano LGA, Abia State.


1.1.1    Objectives

1.     To determine the physical and chemical characteristics of Umuariaga River to identify the sources of pollution to the River.

2.     To determine the microbiological quality of Umuariaga River.

3.     To discuss the possible implications of the physicochemical properties of Umuariaga River.

 

 

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