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In co-operation with: 1 Advanced Development of Recombinant Protein Production – A comprehensive Introduction in Design of Experiments Applications The applications of advanced PAT-Process Analytical Technology in combination with repeated fed batch control strategies, DoE-Design of Experiments and MVDA-Multi Variate Data Analysis offer powerful tools for process on-line monitoring, integration, intensification and optimization. This course includes the theoretical background and experimental demonstrations of especially development devices and integrated production processes for API-Active Pharmaceutical Ingredients as well as for RTE- Recombinant Technical Enzymes. The main focus is based on fast applicable tools for DoE in upstream and downstream development. As an example of pharmaceutical proteins whole production processes of potential Malaria vaccines are investigated in detail. In the field of technical enzymes intensified processes for Lipase CALB are demonstrated. Fig. 1: A multi-bioreactor plant for a fast upstream optimization with DoE

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  • In co-operation with:

    1

    Advanced Development of Recombinant Protein Production

    A comprehensive Introduction in Design of Experiments Applications

    The applications of advanced PAT-Process Analytical Technology in combination with repeated fed batch

    control strategies, DoE-Design of Experiments and MVDA-Multi Variate Data Analysis offer powerful tools

    for process on-line monitoring, integration, intensification and optimization.

    This course includes the theoretical background and experimental demonstrations of especially development

    devices and integrated production processes for API-Active Pharmaceutical Ingredients as well as for RTE-

    Recombinant Technical Enzymes.

    The main focus is based on fast applicable tools for DoE in upstream and downstream development.

    As an example of pharmaceutical proteins whole production processes of potential Malaria vaccines are

    investigated in detail. In the field of technical enzymes intensified processes for Lipase CALB are

    demonstrated.

    Fig. 1: A multi-bioreactor plant for a fast upstream optimization with DoE

  • In co-operation with:

    2

    A fully automated multibioreactor plant, shown in fig. 1, with a BIOSTAT Bplus cell breeding system in

    connection with six BIOSTAT Qplus screening vessels (both Sartorius Stedim Biotech) is developed for a fast

    optimization of expression conditions in both, cultivation operation parameters and media components,

    with DoE.

    In the field of down-stream processing an KTAavant (GE Healthcare) system, shown in fig. 2, is used for

    optimization of chromatography conditions, strategies and column scouting in purification procedures.

    Both strategies are part of a full process optimization. Therefore two fully automated integrated production

    lines are developed.

    In a lower pilot scale a 5 L BIOSTAT ED5 reactor for repeated protein production is combined with a

    preparative EBA-Expanded Bed Adsorption chromatography system for a fast in-situ cell retention and

    protein pre-purification. Here methods for a sequential production of sensitive APIs and their fast release

    and recovery from the reaction space are developed and optimized.

    Fig. 2: Chromatography system KTAavant for purification optimization

  • In co-operation with:

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    In order to image an industrial production plant a direct up-scalable pilot plant with a 10 L cell breeding

    reactor BIOSTAT ED10, a 30L protein production reactor BIOSTAT C30 (both Sartorius Stedim Biotech), a

    scale-down separator SC1 (GEA Westfalia Separator), two Sartocon Slice cross flow systems for micro- and

    ultrafiltration (Sartorius), and an KTApurifier 100 (GE Healthcare) are integrated under control of SIMATIC

    PCS7 (Siemens).

    This plant, shown in fig. 3, is used for intensive DoE-applications in the whole upstream- and downstream

    line.

    Fig. 3: Integrated recombinant protein production plant for DoE-applications

    Umetrics AB Organizers

    Mr. C. Wikstrm

    Phone: +46 (0)90-18 48 49

    Mobile: +46 (0)73-682 48 49

    Email:

    [email protected]

    Box 7960

    SE-907 19 Umea

    Sweden

    URL: http://www.umetrics.com

    HAW Hamburg

    Prof. Dr.-Ing. R. Luttmann

    Phone: +49 (0)40-42875-6357

    Fax: +49 (0)40-42875-6399

    Email:

    [email protected]

    Lohbrgger Kirchstr. 65

    21033 Hamburg

    Germany

    mailto:[email protected]://www.umetrics.com/

  • In co-operation with:

    4

    Location

    Research Center of Bioprocess Engineering and Analytical Techniques

    Hamburg University of Applied Sciences

    Faculty of Life Sciences

    Lohbrgger Kirchstr. 65

    D-21033 Hamburg

    Date

    16.-18.10.2012

    Contributors:

    Umetrics: Dr. I.-M. Lindstrm, C. Wikstrm

    GE Healthcare: Dr. M. Ahnfelt

    HAW Hamburg: Prof. Dr.-Ing. R. Luttmann

    Dipl.-Ings. (M.Sc.) J. Fricke, K. Pohlmann, C. Mller, K. Lgering, S. O. Borchert, J. Paul, S. Martens

    Sartorius: Dipl.-Ing. (M.Sc.) A. Ellert

    Seminars:

    R. Luttmann: Course overview and DoE-topics

    C. Wikstrm: Introduction and statistical background of DoE

    J. Fricke: Upstream optimization in a multi bioreactor plant

    C. Wikstrm: Optimization theory possibilities and consequences with different designs

    M. Ahnfelt: Optimization of protein purification with KTAavant

    C. Mller: Applications of DoE and MVDA in a scale-down production plant

    C. Wikstrm: Robustness tests and more

    Computer labs:

    1. Set up of screening design possibilities and consequences (Umetrics)

    2. Data analysis of screening designs in MODDE and presentation of results (Umetrics)

    3. Optimization and robustness design and analysis of those (Umetrics)

    4. Implementation of Design of Experiments into cultivation strategies (HAW, Sartorius)

  • In co-operation with:

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    Experimental demonstration: 1. Optimization of upstream processes with a multi-bioreactor plant (J. Fricke, K. Pohlmann)

    2. Optimization of integrated processes with EBA - cell release and protein capture (S. O. Borchert, S. Martens)

    3. Optimization of protein purification with KTAavant (J. Paul)

    4. Optimization of an integrated scale-down production plant (C. Mller, K. Lgering)

    This course is targeted at biotechnologists in research and production divisions of manufacturers of

    biochemical products as well as in bioengineering research institutes.

    Audience

    The objectives are also intended to give newcomers an overview of the state of art. People from practise will

    get an insight of innovative biochemical engineering approaches.

    Executives will get decision guidance for acquisition of new devices and plants and ideas and guidance for

    application of DoE in bioprocess optimization.

    No prior knowledge of statistics is assumed.

    Programme of seminar, experimental demonstrations and tutorials in small groups. Detailed course guide

    and documentation.

    Costs and conditions

    Lunch and catering while the whole course as well as a dinner at 16.10.2012 are included in the course fee

    of 1.600,- + VAT. The third day is optional without additional costs.

    Early bird registration: If you book at least 2 months prior to course date the price DISCOUNT is 150 Euro.

    Also if you are more than three participants from one company booking the same course date you will

    receive an 100 Euro DISCOUNT/person.

    Course fee (+VAT) includes coffee, lunch and course documentation. An invoice will be sent and payment is

    required within 30 days of the invoice date. Course application is binding. Cancellations registered later than

    two weeks before the course start will not be refunded. Provided that Umetrics AB is notified, the

    registering company may substitute its participant(s).

    If the customer cancels prior to 14 days of the course, 10% of the class fee will be applied to cover

    processing costs. The balance of class fees already paid to Umetrics may be credited towards a future

    course. The registering company may substitute its participant(s) provided that Umetrics is notified.

    Umetrics holds courses based on a sufficient number of registrants. Therefore, Umetrics reserves the right to

    cancel the course 14 days prior to the course start date if the number of registrants is too low. Full refund

    will be made to these registrants. Alternately a 10% refund will be made to any registrant(s) enrolling in the

    next available course.

  • In co-operation with:

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    Advanced Development of Recombinant Protein Production

    A comprehensive Introduction in Design of Experiments Applications 1st day: Screening

    Time Description Lecturer / moderator 08:45 09:30 Salutation and introduction of the candidates C. Wikstrm 09:30 10:05 Course overview and DoE-topics R. Luttmann 10:05 10:15 Coffee break 10:15 11:00 Introduction and statistical background of DoE C. Wikstrm 11:00 11:35 Upstream optimization in a multi-bioreactor plant J. Fricke

    11:35 12:35 Computer Lab 1, group A and B / Experiment 1, group C, and Experiment 2, group D

    Umetrics, HAW

    12:35 13:25 Lunch and Coffee

    13:25 14:25 Computer Lab 1, group C and D / Experiment 1, group A, and Experiment 2, group B

    Umetrics, HAW

    14:25 14:35 Coffee break and transfer 14:35 15:20 Analysis of screening designs C. Wikstrm

    15:20 16:20 Computer Lab 2, group A and B / Experiment 2, group C, and Experiment 1, group D

    Umetrics, HAW

    16:20 16:30 Coffee break and transfer

    16:30 17:30 Computer Lab 2, group C and D / Experiment 2, group A, and Experiment 1, group B

    Umetrics, HAW

    18:00 Course dinner in the Mensa VIP room, participants and lecturer 2nd day: Optimization and robustness

    Time Description Lecturer / moderator

    08:30 09:10 Optimization design C. Wikstrm 09:10 09:50 Optimization of protein purification with KTAavant M. Ahnfelt 09:50 10:00 Coffee break and transfer

    10.00 11.00 Computer Lab 3, group A and B / Experiment 3, group C, and Experiment 4, group D Umetrics, HAW

    11:00 11:10 Coffee break and transfer

    11.10 12:10 Computer Lab 3, group C and D / Experiment 3, group A, and Experiment 4, group B

    Umetrics, HAW

    12:10 13:00 Lunch and coffee 13:00 13:35 Applications of DoE and MVDA in a scale-down production plant C. Mller

    13:35 14:15 Robustness test and more C. Wikstrm / I. M. Lindstrm

    14:15 14:25 Coffee break and transfer

    14:25 15:25 Computer Lab 4, group A and B / Experiment 4, group C, and Experiment 3, group D HAW, Sartorius

    15:25 15:35 Transfer

    15:35 16:35 Computer Lab 4, group C and D / Experiment 4, group A, and Experiment 3, group B

    HAW, Sartorius

    16:35 16:45 Transfer and coffee break 16:45 17:15 Course conclusion and first fare well

    3rd day: Problems and discussion

    Time Description Lecturer / moderator 08:30 09:30 Course discussion continuation Umetrics, HAW 09:30 09:40 Coffee break 09:40 12:00 Discussion of participants problems Umetrics, HAW 12:00 12:40 Lunch and coffee 12:40 13:00 Second fare well

  • In co-operation with:

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    A Comprehensive Introduction in Design of Experiments Applications

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