State of the Art Technology Center

Think along with you about your process, define each others issues and optimize the process from there out. In this way the process will be better, more smart and efficient, resulting in a much higher and more consistent quality.

Jongia’s (inhouse) Technology Center enables us to finetune your process to guarantee the best possible results. In close collaboration with our R&D team, our customers have been able to achieve considerable process improvements.

Process Technology

Single phase liquid blending/mixing (L-L)

In single phase liquid blending, two miscible liquids are blended together to form a single liquid mixture. The intensity of mixing two liquids depends on the liquid volume fractions in the final product, the densities and viscosities of the liquids. The molecules of the two liquids dissolve in each other, which creates a single homogeneous phase. Depending on the degree of mixing, several degrees of blending between two liquids can be achieved. A typical application of this type of system is the blending of different gasoline feedstocks to obtain the right reaction mixture.

 

Multiphase liquid blending/emulsification (L – L)

Emulsification is the process of mixing two immiscible liquids into each other. Liquids are often immiscible due to the polarity of the involved molecules. For example, water is a very polar liquid while hexane is very apolar due to the carbon chain. The molecules of the different liquids tend to stay together instead of form one mixture. Two immiscible liquids can be mixed by changing one of the liquids into a phase of extremely small particles. These particles are dispersed over the other continuous liquid phase to produce a homogeneous multiphase flow. These multiphase flows require continuous mixing as the particles tend to agglomerate and separate from the continuous liquid phase. Examples of emulsification processes are the production of mayonnaise and milk.

 

Solvation of solids (S – L)

In this process, solids are dissolved in a fluid to create a new solution of solvent and dissolved molecules. Often in these processes, a molecule is dissociated into its corresponding ions. The ions are stabilized by the solvent to form a solution. Mixers serve a dual function in these types of systems. Mixers can cleave crystals/powders, increasing the contact area between solvent and solid. In addition, the mixer can distribute the solid and dissolved molecules over de solvent phase to obtain a uniform concentration. Examples of applications are the solvation of glucose crystals and the dissolving of salts.

 

Gas dispersion (G – L)

A dispersion can also consist of a gas phase suspended in a liquid continuous phase. The gas is bubbled into the liquid phase at the bottom of the tank. Gas dispersion can increase the contact area between gas and liquid by breaking apart gas bubbles into multiple smaller bubbles. The mixer also works to distribute the gas evenly over the liquid phase. Additionally, the mixer provides a uniform distribution over the liquid phase and can increase contact time due to the induced flow profiles. These systems are often applied in multiphase reactions of gasses and liquids. Typically, the gas dissolves in the liquid so it can react with the reactant in the liquid. Contact area and time are important as the mass transfer limitation is often in the transfer from gas to liquid.

 

Heat- and energy transfer

All the other described processes are examples of mixers providing solutions to mass transfer problems. However, mixers can also assist in the transfer of energy (heat). This is especially the case in liquid phases, where heat transfer can be significantly improved by agitation. In a stagnant liquid, energy transfer occurs due to diffusion and free convection in the phase. Agitation of the liquid phase induces flow profiles, which stimulates the transfer of energy due to the addition of forced convection phenomena to the system. Additionally, liquid is rapidly replaced at the transfer area due to the flow profiles redistributing the liquid throughout the tank.

 

Multiphase mixing (G – L – S)

Three phase systems consist of a solid, liquid and gas phase. Mixers can also be applied in these three phase systems. The mechanism and purpose of mixing remain the same as for two phase system. However, it adds another design element for mixers, as one must optimize for multiple phases. A typical application of a three-phase system is a slurry hydrogenation reactor in the Fischer Tropsch process. Gaseous hydrogen is bubbled through the liquid hydrocarbon phase. The hydrocarbons and hydrogen react together on the surface of a solid catalyst to higher hydrocarbons.

 

Test Center

Jongia’s (scale) testing facilities enable us to finetune our customer’s process to guarantee the best possible results. In close collaboration with our R&D team, customers have been able to achieve considerable process improvements.

Training

Qualified staff are key to accomplish increased productivity which essentially leads to maximizing your profitability. Jongia can get your staff qualified by providing Agitator technology, Operation and Maintenance training.

Process Optimisation

Think along with you about your process, define each others issues and optimize the process from there out. In this way the process will be better, more smart and efficient, resulting in a much higher and more consistent quality.

Challenge us to improve your process.