Chemotherapy revolution with selective reduction of platinum levels

Minimizing chemotherapy side effects: selective platinum reduction

Chemotherapy is a pivotal tool in the fight against cancer; however, its application often brings about unwanted side effects. One primary challenge is the persistence of toxic metals, such as platinum (Pt2+), in patients’ systems post-treatment. Such heavy metals can inflict organ damage and give rise to severe side effects, including nephrotoxicity, hepatotoxicity, and neurotoxicity. To address this concern, Byotic has pioneered a promising prototype, specifically tailored for the selective retention of metals, with a particular focus on platinum. Consequently, this initiative aims at reducing toxic platinum levels post chemotherapy.

An innovative focus with selective metal retention

The main aim of the present project is to research and gauge the efficacy of this prototype in metal retention, via apheresis, in animals with tumors subjected to chemotherapy. The prototype features a selective adsorbent column for platinum (Pt2+), harnessing an adsorbent biomaterial.

Apheresis is an extracorporeal filtration method employed to eradicate unwanted substances from the bloodstream. Herein, the prototype is intended to retain heavy metals, notably platinum, potentially lingering post-chemotherapy. By selectively adsorbing these heavy metals through the apheresis membrane, the hope is to curtail chemotherapy’s side effects linked to the presence of toxic metals in the body.

Chemotherapy with equal efficacy and reduced toxicity

In order to realize the project’s overarching objective, preclinical studies will be conducted on porcine models. Specifically, these studies aim to assess the adsorbent column’s efficacy in decreasing plasma platinum levels.

This project, jointly financed by the Centre for the Development of Industrial Technology (CDTI) of Spain’s Ministry of Economy and Competitiveness, represents a crucial milestone in Byotic’s R&D endeavors. Nevertheless, while hurdles like the crafting of a porcine xenotransplant model and the feasibility of apheresis in these animals lie ahead, this groundbreaking approach not only promises to better the lives of cancer patients but also pave the way for more efficacious treatments.

TECNIC and Byotic are currently partnering to carry out a national project on bioreactors and autologous cells.

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Cassette

We understand the importance of flexibility and efficiency in laboratory processes. That's why our equipment is designed to be compatible with Cassette filters, an advanced solution for a variety of filtration applications. Although we do not manufacture the filters directly, our systems are optimized to take full advantage of the benefits that Cassette filters offer.

Cassette filters are known for their high filtration capacity and efficiency in separation, making them ideal for ultrafiltration, microfiltration, and nanofiltration applications. By integrating these filters into our equipment, we facilitate faster and more effective processes, ensuring high-quality results.

Our equipment, being compatible with Cassette filters, offers greater versatility and adaptability. This means you can choose the filter that best suits your specific needs, ensuring that each experiment or production process is carried out with maximum efficiency and precision.

Moreover, our equipment stands out for its 100% automation capabilities. Utilizing advanced proportional valves, we ensure precise control over differential pressure, transmembrane pressure, and flow rate. This automation not only enhances the efficiency and accuracy of the filtration process but also significantly reduces manual intervention, making our systems highly reliable and user-friendly.

Hollow Fiber

We recognize the crucial role of flexibility and efficiency in laboratory processes. That's why our equipment is meticulously designed to be compatible with Hollow Fiber filters, providing an advanced solution for a broad spectrum of filtration applications. While we don't directly manufacture these filters, our systems are finely tuned to harness the full potential of Hollow Fiber filters.

Hollow Fiber filters are renowned for their exceptional performance in terms of filtration efficiency and capacity. They are particularly effective for applications requiring gentle handling of samples, such as in cell culture and sensitive biomolecular processes. By integrating these filters with our equipment, we enable more efficient, faster, and higher-quality filtration processes.

What sets our equipment apart is its 100% automation capability. Through the use of sophisticated proportional valves, our systems achieve meticulous control over differential pressure, transmembrane pressure, and flow rate. This level of automation not only boosts the efficiency and precision of the filtration process but also significantly diminishes the need for manual oversight, rendering our systems exceptionally reliable and user-friendly.

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Cellular configuration

The cellular configuration of the eLab Advanced is equipped with a pitched-blade impeller designed to support efficient mixing for cell culture processes in both laboratory development and early scale-up. The blade geometry promotes mainly axial flow, helping to distribute gases, nutrients and pH control agents uniformly throughout the vessel while keeping shear stress at a moderate level. This makes it suitable for mammalian, insect and other shear-sensitive cell lines when operated with appropriate agitation and aeration settings. In combination with the vessel aspect ratio and baffle design, the pitched blade supports stable foaming behavior and reproducible oxygen transfer, which is essential when comparing batches or transferring processes between working volumes.

Operators can fine-tune agitation speed to balance oxygen demand and mixing time without excessively increasing mechanical stress on the culture. 

Cellular configuration

The cellular configuration of the eLab Advanced is equipped with a pitched-blade impeller designed to support efficient mixing for cell culture processes in both laboratory development and early scale-up. The blade geometry promotes mainly axial flow, helping to distribute gases, nutrients and pH control agents uniformly throughout the vessel while keeping shear stress at a moderate level. This makes it suitable for mammalian, insect and other shear-sensitive cell lines when operated with appropriate agitation and aeration settings. In combination with the vessel aspect ratio and baffle design, the pitched blade supports stable foaming behavior and reproducible oxygen transfer, which is essential when comparing batches or transferring processes between working volumes.

Operators can fine-tune agitation speed to balance oxygen demand and mixing time without excessively increasing mechanical stress on the culture. 

Cellular configuration

The cellular configuration of the eLab Advanced is equipped with a pitched-blade impeller designed to support efficient mixing for cell culture processes in both laboratory development and early scale-up. The blade geometry promotes mainly axial flow, helping to distribute gases, nutrients and pH control agents uniformly throughout the vessel while keeping shear stress at a moderate level. This makes it suitable for mammalian, insect and other shear-sensitive cell lines when operated with appropriate agitation and aeration settings. In combination with the vessel aspect ratio and baffle design, the pitched blade supports stable foaming behavior and reproducible oxygen transfer, which is essential when comparing batches or transferring processes between working volumes.

Operators can fine-tune agitation speed to balance oxygen demand and mixing time without excessively increasing mechanical stress on the culture. 

Microbial configuration

The microbial configuration of the eLab Advanced is equipped with a Rushton turbine specifically designed for high-oxygen-demand processes such as bacterial and yeast fermentations. The radial-flow impeller generates strong mixing and intense gas dispersion, promoting high oxygen transfer rates and fast homogenization of nutrients, antifoam and pH control agents throughout the vessel. This makes it particularly suitable for robust microbial strains operating at elevated agitation speeds and aeration rates.

Operators can adjust agitation and gas flow to reach the required kLa while maintaining consistent mixing times, even at high cell densities. This configuration is an excellent option for users who need a powerful, reliable platform to develop and optimize microbial processes before transferring them to pilot or production scales.