Dispensing solid materials is considered a far more challenging task, in part due to the variable particle sizes and shapes and electrostatic interactions between them . M. N. Bahr et al. researched on high throughput-automated powder dispensing platforms, all of which rely on gravity to exert a force on the powder, to be then held or released by control systems in which they differ. Examples in this study include Chemspeed FLEX Powderdose, Chemspeed SWING GDU-Pfd and Mettler Toledo CHRONECT Quantos. Generally, the commercial solutions operating at lab scales are expensive and suffer limitations. Researchers find it necessary to look for more suitable alternatives. Y. Jiang et al. developed their own system for powder dispensing with the difference that their system is compatible with both powder and pellet dispensing. In this approach, two biomimetic robot arms imitate human dispensing by using the same utensils -namely, a spatula and balance -including corrections for defect and excess dispensing. The downside of this approach is that the mass flow rate is lower than needed for a lab-scale compounding process. Our dispensomixer is specifically designed to work with material in the pellet form and with an output rate compatible with the needs of thermoplastic experimentation (e.g. a lab scale-extruder operates at 10g/h-1kg/h range). It consist of eight pellet dispensers with combined outputs allowing for mixing materials from different dispensers. An external balance is also incorporated to monitor the mass flow. Our device was inspired by earlier works in the field of animal feeding, e.g. fish feeding .