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    Merken
    Figure 1:Typical thermal usage by system type (all figures provided by CRB Germany).

    Sustainable By Design

    Optimizing Pharmaceutical Water and Heat Sources in the Life Science Facility

    Technik

    IntroductionReduce overall thermal demandsCase study #1Case study #2Maximize water recovery and recyclingCase study #3Beyond water: sustainability by design in life sciences
    Keywords: Sustainability |  Energy |  Renewable |  Membrane-based WFI |  Zero Liquid Discharge 

    Abstract

    Today’s life science companies have ambitious sustainability targets, but the pathway to fulfilling those commitments is far from clear. With insights drawn from recent case studies, this article illuminates that pathway by examining 2 high-impact sustainability strategies. The first focuses on the thermal demand of manufacturing. By applying measures to reduce the “need for heat,” primarily through a shift to membrane-based water for injection production and storage and distribution systems with ozone-based sanitization, manufacturers can significantly reduce their energy consumption.

    Next, the article examines the concept of Zero Liquid Discharge and best practices that will help manufacturers recover and recycle water to support the full production lifecycle.

    Finally, the article will examine these strategies in the context of an overall “sustainability by design” perspective, helping today’s manufacturers take steps towards a more efficient, cost-effective life science industry.

    Sanjay Kolawale · CRB Germany

    Correspondence:

    Sanjay Kolawale
    CRB Germany GmbH, Konrad-Zuse-Platz 1, 71034 Böblingen
    sanjay.kolawale@crbgroup.com

    The figure shows the author Sanjay Kolawale.Sanjay Kolawale
    is a mechanical engineer with experience in design and project management of life science facilities, advanced technology, and clean utility systems. With over 20 years in the industry, his expertise includes clean and plant utility system design for pharmaceutical facilities, project management, and design for pharmaceutical facilities, equipment in various dosages (injectable, oral solid dosage, and biotech). He is also an active member of the CoP Clean Utilities at ISPE.

    Abstract

    Today’s life science