###### Abstract  
There are various groundwater data bases and scanty/sketchy groundwater monitoring and information systems. Groundwater monitoring has been difficult in the Southern African region, particularly, the Democratic Republic of Congo (DRC), for the water administrative authorities. Water clients do not submit the required compulsory critical data for effective monitoring of water use. This, combined with the absence of limits to boreholes dug by permit holders to the water authorities, has led to challenges in decision-making and groundwater conservation. In this mixed method research, using an Android telephone, well data (water levels) and climatic related information such as precipitation were assembled and sent to a composed store through a sort code/USSD/Instrument free line in texts (SMS). This is proficient through a 3G/GSM/GPRS module that is part of the sensor equipment to be used for this procedure. Once in the store, requests were used to recuperate data in the required design. Additionally, a cloud framework at the point where a long-lasting file was followed up. Although the experimentation is still on-going for the case of the Kimbanseke catchment in DRC, the preliminary findings are that the Kimbanseke catchment has a fluctuating abstraction rate resulting from no clear monitoring mechanism, and that research on the development of an application and/or MS Excel@ monitoring spreadsheet, using the scores, and ranking of the factors, is necessary. Therefore, a study was carried out with the aim of creating an analysis application for groundwater sustainability in the Kimbanseke catchment. An application for monitoring and evaluation of the groundwater level should be considered so that the sustainable yield is routinely adjusted for the Kimbanseke catchment. apps; artificial intelligence; groundwater; monitoring system; yield Article  
Apps for Smart Groundwater Monitoring and Assessments:  
A Case Study of Regideso Catchment in Kimbanseke  
the water necessary for industry [5]. In addition to this, it helps preserve the ecosystem and the river's baseflow [6]. Groundwater is an important source of storage for climate change adaptation because it reduces land subsidence and ocean intrusion [7]. However, aquifers are frequently misunderstood and inadequately managed due to their invisibility [8]. Groundwater levels, abstraction rates, spring discharge and groundwater quality are all measured around the world [9]. However, because of insufficient monitoring and limited access to monitoring data/outcomes, there is insufficient understanding regarding the state and trends of groundwater resources globally [8]. Groundwater level and quality monitoring in an aquifer can operate as an early warning system in preventing infinite groundwater exploitation and pollution, which is becoming increasingly important due to rising concerns about groundwater exploitation and pollution [10]. Most of the current research focuses on the exchange of surface and groundwater, as well as groundwater system models [11], and little is known about monitoring of this resource both in quantity and quality. Since the cost of installing and maintaining a groundwater monitoring network is so high, it is necessary to create an optimal monitoring network, which necessitates the study of effective network design approaches [12]. Borehole information such as water levels is critical to regulators [13]. For example, [14] suggested that a permit for the abstraction of 1.6 million cubic meters of water by a water consumer from the nearby aquifer could take 5, 10 or 20 boreholes. It should be noted that it is possible to convey this volume of water from an aquifer that has been assessed to reasonably yield an adequate volume for this allotment. It is the volume that has been authorized, not the number of boreholes [15]. With this volume, there should be challenges in investigating the amount of groundwater withdrawn [16] because there are not many non-hydroological methodologies behind how this volume may be investigated [5].