Bioreactor/Fermenter Combinations TRIZ Cases

Removable lid forms the incubation cavity end wall to enable direct access for cell retrieval and medium exchange.

A cell dispersion measurement mechanism circulates suspensions through a flow path to apply shearing forces.

Segmented temperature control blocks enable parallel processing of diverse sample protocols, eliminating idle waiting time between cycles.

Optical windows enable non-invasive detection of cell density, resolving monitoring precision limits without increasing contamination risk.

A modular automated system processes and detects microorganisms using interlocking modules for sample handling and incubation.

A disposable tubing device with a multiple-way connector mixes sterile media without heavy bags or complex cleaning.

An integrated microfluidic device employs a sterile barrier film and electrically controlled flow barriers to sort cells without aerosol generation.

Diluting fermentation broth with water breaks stable emulsions, shortening PUFA oil recovery time and lowering processing costs.

A bioenergy system converts glycerol waste into algal biomass for biodiesel production.

Dielectrophoresis electrodes align and attach stem cells via electric fields, reducing labor intensity in automated culture processes.

A segmented bioreactor cultivates cartilage and bone tissues in distinct chambers.

Double light shielding housing blocks stray light interference while movable shutter reduces photodetector distance to enhance microbe detection sensitivity.

Ultrasonic vibration from a vibrating electrode suppresses aerosol contamination, maintaining sterility during biological particle treatment.

Reduced gravity eliminates gravitational deformation of low-viscosity bioinks, enabling faster printing and improved vascular integration.

A hybrid energy system combines combustion and photovoltaic processes to power continuous hydrogen electrolysis.

Replacing nuts and bolts with buckle clamps reduces assembly time and minimizes contaminant exposure during fluidic sealing of biological components.

An enclosed cell processing system circulates gas through purification filters to prevent pathogen release during iPS cell production.

Projection optics project a magnified pattern onto a substrate, expanding the active area to increase oligomer yield and reduce processing time.

Micro flow passages quantify cell damage resistance via shear stress to select clones for high-density perfusion culture.

Stacked shelves with apertures enable efficient gas flow and media distribution, reducing operational costs for sterile cell culture.

Rocking platforms use elastic coupling to drive synchronized tilting movements for precise liquid distribution in incubation devices.

A microfluidic device uses a phase transition valve to control fluid transfer between interconnected chambers for cholesterol analysis.

A wireless cell culture monitoring system uses adaptive light pulses to reduce power consumption.

Cooperative hybridization of multiple target capture probes enables simultaneous nucleic acid isolation on solid support particles.

Disc turntable automates nanomagnetic particle separation, resolving manual bottlenecks in batch processing efficiency.

A blood coagulation accelerator uses beta-alanine and radiation-inactivated enzyme to maintain stable activity.

A microfluidic cell culture device uses separate flow and return channels to drive fluid through a culture chamber for physiological simulation.

A rotating plate apparatus creates oscillating fluid movement across analyte supports to ensure uniform wetting and treatment.

An inclined accommodation portion directs microalgae gas to a side wall gathering portion, preventing mixing with culturing gas to ensure high purity.

Segmenting multiplex amplification into separate reaction vessels eliminates fluorochrome spectrum overlap during simultaneous nucleic acid detection.

Radially extending side accommodation parts collect separated stromal vascular fraction layers, eliminating stirring effects that reduce isolation efficiency.

Photobioreactors utilize algae to strip high CO2 concentrations from natural gas, converting waste into purified fuel and recoverable oxygen.

An oxygen-impermeable film prevents external gas permeation, enabling accurate fluorescence-based dissolved oxygen measurement in cell culture.

A reusable Raman probe assembly couples to single-use bioreactor ports using a disposable barb with an integrated optical window and focusing lens.

An engagement apparatus with a movable piston holds the immersion tube in an intermediate position, preventing uncontrolled movement during seal cleaning.

ATPS forms microscale cell-laden matrices to reduce assay volume while enabling high-throughput fibrosis screening.

A microcavity plate with a dedicated fluid inlet area enables gentle media exchange without disrupting cultured spheroids.

A rotating body aggregates cell masses using centripetal force within a biocompatible specific gravity adjustment solution.

Robotic discrete fluid transfer eliminates complex tubing and valves, reducing dead volume and fluid waste in interconnected systems.

Liquid chromatography isolates microbial RNA through void volume fractionation, bypassing time-consuming incubation steps that degrade biomarkers.

A cell handling device uses a detection unit and control logic to manage cell storage states within containers.

Microfluidic organ-on-chip devices replicate human tissue interfaces to analyze drug efficacy and toxicity without animal subjects.

Methanotrophic microorganisms convert methane into polyhydroxyalkanoates within a controlled bioreactor environment.

An automated system prepares single microbial isolates for simultaneous identification and susceptibility testing.

Polyclonal antibodies targeting hookworm ASP5 enable rapid coproantigen detection in fecal samples.

Segmenting probes by hybridization temperature enables simultaneous quantification of multiple target nucleic acids without increasing device complexity.

A tray system compresses fibrin clots to uniform thickness using a reversible screen attachment and aligned lid structure.

Acoustic fields replace mechanical filters to retain cells, reducing operational complexity and downtime while maintaining high cell densities.

A hologram lens focuses ultrasonic waves into specific patterns to stimulate cells selectively while isolating the sample from mechanical vibration.

Series valves in a high-pressure bioreactor stabilize pressure during sampling, preventing cell lysis and preserving microbial community integrity.