High-loading incorporation
Find robust carrier/niobium combinations that remain cohesive and processable as inorganic loading increases.
PoliNb⁴¹ is being developed through a partner ecosystem: niobium materials, polymer-carrier technology, laboratory processing, independent validation and industrial-scale capabilities working together around clear technical gates.
PoliNb⁴¹ is being developed through a partner ecosystem: niobium materials, polymer-carrier technology, laboratory processing, independent validation and industrial-scale capabilities working together around clear technical gates.
The immediate product-development problem is not a single end-use property. It is the creation of a concentrated material form that can carry niobium through practical polymer-processing operations with repeatability and traceability.
Find robust carrier/niobium combinations that remain cohesive and processable as inorganic loading increases.
Convert promising observations into controlled, traceable repetitions with retained samples and defined review criteria.
Progress from laboratory compound to a form that can be milled, fed, extruded, pelletized and thermoplastically reprocessed.
Use qualified characterization to distinguish promising development observations from validated product-base data.
The current program is designed to identify maximum controlled loading, carrier behavior and critical process observations across selected niobium materials before advancing to more capital-intensive industrial operations.
Screen controlled combinations and identify which material pairings justify continued development.
Define the highest loading window that remains sufficiently cohesive and processable for the next gate.
Repeat the most promising points with documented conditions, sample retention and predefined acceptance logic.
Translate the selected concentrate into feeding, extrusion, pelletization and downstream thermoplastic processing.
The immediate product-development problem is not a single end-use property. It is the creation of a concentrated material form that can carry niobium through practical polymer-processing operations with repeatability and traceability.
Find robust carrier/niobium combinations that remain cohesive and processable as inorganic loading increases.
Convert promising observations into controlled, traceable repetitions with retained samples and defined review criteria.
Progress from laboratory compound to a form that can be milled, fed, extruded, pelletized and thermoplastically reprocessed.
Use qualified characterization to distinguish promising development observations from validated product-base data.
The current program is designed to identify maximum controlled loading, carrier behavior and critical process observations across selected niobium materials before advancing to more capital-intensive industrial operations.
Screen controlled combinations and identify which material pairings justify continued development.
Define the highest loading window that remains sufficiently cohesive and processable for the next gate.
Repeat the most promising points with documented conditions, sample retention and predefined acceptance logic.
Translate the selected concentrate into feeding, extrusion, pelletization and downstream thermoplastic processing.
CBMM brings the niobium-material dimension. Therpol / Proquitec brings the structural polymer carrier and laboratory-processing environment. PoliNb⁴¹ integrates these layers into one protected development platform.
Since the beginning of the project, CBMM has supported the PoliNb⁴¹ development journey by making selected niobium samples available to EVABIO and maintaining an ongoing technical and institutional dialogue around the opportunity to expand niobium into polymer systems.
The current program includes the evaluation of multiple niobium material options in controlled polymer-processing studies, providing the inorganic phase required to investigate incorporation, loading limits, material form and future transfer into host polymers.
Structural base + processing support
In the current PoliNb⁴¹ architecture, Therpol® is the structural polymer base that makes the niobium-in-polymer delivery concept technically actionable. It provides the organic phase in which the selected niobium material is incorporated before subsequent thermoplastic processing. Without this carrier architecture, the current development route would not be technically viable in its present form.
Therpol / Proquitec is supporting the current discovery stage with access to polymer expertise, candidate Therpol systems and laboratory processing using an internal mixer / Banbury-Kneader route to evaluate controlled incorporation and define the next development window.
CBMM brings the niobium-material dimension. Therpol / Proquitec brings the structural polymer carrier and laboratory-processing environment. PoliNb⁴¹ integrates these layers into one protected development platform.
Since the beginning of the project, CBMM has supported the PoliNb⁴¹ development journey by making selected niobium samples available to EVABIO and maintaining an ongoing technical and institutional dialogue around the opportunity to expand niobium into polymer systems.
The current program includes the evaluation of multiple niobium material options in controlled polymer-processing studies, providing the inorganic phase required to investigate incorporation, loading limits, material form and future transfer into host polymers.
Structural base + processing support
In the current PoliNb⁴¹ architecture, Therpol® is the structural polymer base that makes the niobium-in-polymer delivery concept technically actionable. It provides the organic phase in which the selected niobium material is incorporated before subsequent thermoplastic processing. Without this carrier architecture, the current development route would not be technically viable in its present form.
Therpol / Proquitec is supporting the current discovery stage with access to polymer expertise, candidate Therpol systems and laboratory processing using an internal mixer / Banbury-Kneader route to evaluate controlled incorporation and define the next development window.
CBMM and Therpol anchor two critical layers. The project still needs qualified organizations to convert laboratory feasibility into independent evidence and industrial material form.
Qualified microscopy, morphology, composition, rheology, thermal and other decision-grade analytical methods.
Discuss this role →Modular extrusion, solids feeding, side feeding and pelletization capability for industrial-form validation.
Discuss scale-up partnership →Repeatable thermoplastic molding and preparation of plaques / test specimens for future validation programs.
Discuss this role →Pilot production, drying, packaging, quality control, traceability and manufacturing-readiness capabilities.
Explore pilot role →A useful partner is one that removes a specific technical risk with the right equipment, method, know-how or independent evidence.
Internal mixers, Banbury/Kneader, DRAIS or related equipment for controlled high-solids incorporation, mixing studies and sample preparation.
Offer this capability →Modular twin-screw extrusion, solids feeding, side feeding, discharge control and pelletization for downstream material-form validation.
Discuss scale-up partnership →Compression molding, film or plaque preparation, injection molding and reproducible test-specimen production.
Offer this capability →Morphology, composition, microscopy, rheology, thermal behavior and other qualified methods appropriate to the defined validation question.
Offer this capability →Scale-up infrastructure for feeding, drying, milling, pelletization, quality control, packaging and controlled pilot production.
Discuss scale-up partnership →Universities, materials centers, polymer scientists and qualified researchers capable of designing or independently evaluating defined technical questions.
Discuss scientific collaboration →CBMM and Therpol anchor two critical layers. The project still needs qualified organizations to convert laboratory feasibility into independent evidence and industrial material form.
Qualified microscopy, morphology, composition, rheology, thermal and other decision-grade analytical methods.
Discuss this role →Modular extrusion, solids feeding, side feeding and pelletization capability for industrial-form validation.
Discuss scale-up partnership →Repeatable thermoplastic molding and preparation of plaques / test specimens for future validation programs.
Discuss this role →Pilot production, drying, packaging, quality control, traceability and manufacturing-readiness capabilities.
Explore pilot role →A useful partner is one that removes a specific technical risk with the right equipment, method, know-how or independent evidence.
Internal mixers, Banbury/Kneader, DRAIS or related equipment for controlled high-solids incorporation, mixing studies and sample preparation.
Offer this capability →Modular twin-screw extrusion, solids feeding, side feeding, discharge control and pelletization for downstream material-form validation.
Discuss scale-up partnership →Compression molding, film or plaque preparation, injection molding and reproducible test-specimen production.
Offer this capability →Morphology, composition, microscopy, rheology, thermal behavior and other qualified methods appropriate to the defined validation question.
Offer this capability →Scale-up infrastructure for feeding, drying, milling, pelletization, quality control, packaging and controlled pilot production.
Discuss scale-up partnership →Universities, materials centers, polymer scientists and qualified researchers capable of designing or independently evaluating defined technical questions.
Discuss scientific collaboration →We prefer focused, stage-gated collaborations instead of broad projects with undefined outcomes.
Agree on what uncertainty the collaboration is intended to remove.
Use NDA and IP boundaries when confidential formulations, data or know-how are involved.
Define materials, methods, records, samples, deliverables and deviations before the work begins.
Decide whether the evidence justifies repetition, progression, redesign or termination.
Clear IP boundaries protect both sides and make technical collaboration easier to scale. Exact rights are defined by the applicable written agreement.
Pre-existing technology, know-how, data and intellectual property remain attributable to their original owner unless otherwise agreed.
Patent-sensitive formulations, process logic, platform architecture and confidential development knowledge are shared only as needed.
Ownership, permitted use and disclosure of newly generated results should be defined before the relevant project begins.
No confidential technical result, partner name or unpublished data should be publicly disclosed without the appropriate approval.
We prefer focused, stage-gated collaborations instead of broad projects with undefined outcomes.
Agree on what uncertainty the collaboration is intended to remove.
Use NDA and IP boundaries when confidential formulations, data or know-how are involved.
Define materials, methods, records, samples, deliverables and deviations before the work begins.
Decide whether the evidence justifies repetition, progression, redesign or termination.
Clear IP boundaries protect both sides and make technical collaboration easier to scale. Exact rights are defined by the applicable written agreement.
Pre-existing technology, know-how, data and intellectual property remain attributable to their original owner unless otherwise agreed.
Patent-sensitive formulations, process logic, platform architecture and confidential development knowledge are shared only as needed.
Ownership, permitted use and disclosure of newly generated results should be defined before the relevant project begins.
No confidential technical result, partner name or unpublished data should be publicly disclosed without the appropriate approval.
The fastest way to start is to describe your relevant equipment, method, expertise or facility and the type of technical collaboration you believe you can support.

Scientific collaboration, analytical validation, technology strategy and global development relationships.
rafa@polinb.com →
Laboratories, processing equipment, compounding, extrusion, pilot manufacturing and industrial execution in Brazil.
marques@polinb.com →Independent evidence, extrusion, pelletization, pilot production and host-polymer validation are the next capabilities that can turn a promising platform into an industrial one.
The fastest way to start is to describe your relevant equipment, method, expertise or facility and the type of technical collaboration you believe you can support.

Scientific collaboration, analytical validation, technology strategy and global development relationships.
rafa@polinb.com →
Laboratories, processing equipment, compounding, extrusion, pilot manufacturing and industrial execution in Brazil.
marques@polinb.com →Independent evidence, extrusion, pelletization, pilot production and host-polymer validation are the next capabilities that can turn a promising platform into an industrial one.