Cross-plot analyses of rock physics attributes were carried out to evaluate hydrocarbon charged reservoir in G–Field onshore Niger Delta Basin in other to reduce the ambiguity and risk associated with fluid and lithology discrimination using well logs. The well based rock physics attribute cross-plots used were Lambda-Rho against Mu-Rho, Lambda-Rho against Vp/Vs ratio, Lambda-Rho against P-Impedance and Vp/Vs ratio against P-Impedance colour-coded with various reservoir properties such as gamma ray, density, resistivity, and water saturation to successfully distinguish between fluids and lithology. The results showed that Hydrocarbon-saturated sand, shale, and brine sand zones were distinguished in the reservoir using cross-plots of P–Impedance, Lambda-Rho, Mu-Rho, and V_P/V_S ratio. The results from well-based cross plot analysis showed that hydrocarbon sands have low P–Impedance, V_P/V_S, Lambda-Rho and Mu-Rho values. P–Impedance and V_P/V_S are sensitive to both fluid and lithology whereas Lambda-Rho is only sensitive to fluid and Mu-Rho is only sensitive to rock matrix. The low values observed for hydrocarbon sands as relative to shale, are defining trait of Niger Delta fields that originates from the reservoir’s unconsolidated nature.

Water resources are key in the economy across all sectors such as energy generation, industry and tourism, agriculture and livestock development, and consumption both in the rural and urban. Water crisis has been a big threat towards world progress and to development. the performance of water projects in the developing countries has been low. Water remains crucial requirement for the survival of people. Provision of safe water for drinking and sanitation remains a bare minimum for any nation to its citizens. The Constitution of Kenya Article 43 calls for access to clean water for all citizen. The United Nations has classified as a chronically water scarce country with limited natural source of freshwater, with an annual supply of freshwater of about 647 cubic meters per capita which is below the 1,000 cubic meters threshold of water scarcity. For any government to be successful, performance of projects is inevitable. Decentralization of development projects aims to fix development of projects beyond the constraints of funding sources, infrastructure, community beliefs, stakeholders’ participation, insecurity, and technology. For success of any project, team management is crucial. The main objective of the study was to investigate the influence of Team Management Dynamics and Performance of Water Projects in Bomet County, Kenya. Specifically, the study was operationalized: Project Team Design and Organizational resources, and their influence on performance of water projects in Bomet county. The study targeted 103 water projects where 211 respondents comprising of project team members and leaders, and other agencies related to the projects. A sample of 138 respondents was drawn from the population. The study used questionnaire as the main data collection tool. The study found that Team Management Dynamics correlated with performance of water projects in Bomet County. Further, the study found that Team Management explained 88.7% variation of performance of water projects in Bomet County. Specifically, the study found that Project Team Design and Organizational Resources all had significant positive correlation with performance of water projects in Bomet County. All the variables also had significant influence in performance of water projects in Bomet County. The study found Organizational resources had the highest influence on performance of water projects followed Project Team Design. The study thus, concluded that Team Management Dynamics significantly influenced performance of water projects. The study recommends embracing Team Management Dynamics in projects to improve on performance of projects.