The Autonomous Synthesis and Analysis of Battery electrolytes (ASAB) system used to perform the experiments described in this study is shown in Figure . It comprises a base module for power supply, six syringe pumps and ten eleven-position valve modules including a matching API commercially available from the company CETONI GmbH. Furthermore, an Entris II laboratory balance from Sartorius AG and a DMA 4100 M densimeter with an additional Lovis 2000 viscometer by Anton Paar Germany GmbH are connected to the system. A PC is used to control the system via an in-house implemented Python client. The software package comprises servers for the densimeter and viscometer, the pump and valve system and the balance, all based on the FastAPI framework . These servers call functions in an actions level within the in-house developed software, which run more complex tasks by calling functions in the driver level. The tubing and interconnections of pumps, valves, vials and connected devices are digitally represented by a graph. This allows searching for the shortest connection between two nodes or paths passing defined nodes in a given order. Its graph-implementation makes ASAB flexible regarding the tubing interconnections and enables processing of high-level requests even after reconfiguring the hardware. Prior to any mixing step, the system fills every syringe related to a reservoir containing a component included in the formulation to avoid gas being located at the top of the syringes resulting in flawed mixing ratios. The hardware-layout is loaded from a configuration file, which needs to be supplied by the operator prior to starting an experiment. FINALES requests are pulled via the servers and the corresponding functionality is triggered on the device requested. The setup offers functionalities to request mixing, providing a sample to a device, retrieving data and draining the sample from the device. The deduction of detailed step-by-step procedures from these high-level requests is performed within the ASAB actions and drivers exploiting its internal flexibility.