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CONTENTS
   Introduction.
   Construction of Fluidized Bed Dryer (FBD).
   Working of FBD.
   Validation of FBD.
   Validation protocol .
   Design Qualification (DQ).
   Installation Qualification (IQ).
   Operational Qualification (OQ).
   Performance Qualification (PQ).
   Conclusion.
   References.


                                                 2
   Fluid bed drying is most widely used technique for drying
    Pharmaceutical powders , granules and slurries

   Fluid bed processing involves drying, mixing, granulation,
    and coating of particulate materials.

   In fluid bed drying, heat is supplied by the fluidization gas,
    but the gas flow need not be the only source. Heat may be
    effectively introduced by heating surfaces (panels or tubes)
    immersed in the fluidized layer.


                                                             3
contd…

   The direct contact between particles and air/gas is possible in
    fluid bed system.

   Fluid bed drying is suited for powders, granules,
    agglomerates, and pellets with an average particle size
    normally between 50 to 5,000 microns. Very fine, light
    powders or highly elongated particles may require vibration
    for successful fluid bed drying.

   Materials with moisture content up to 80% such as some
    polymers, dye stuffs and molecular sieve catalysts can also be
    accommodated.
                                                              4
   Fluidized bed dryer requires less time to complete drying. i.e.,
    20 to 40 min.

   Hot spots are not observed in the dryer, because of its
    excellent mixing and drying capacities.

   The thermal efficiency is 2 to 6 times greater than tray dryer.

   It facilitates the drying of thermolabile substances , since the
    contact time for drying is short.

                                                              5
   The dryer is made up of stainless steel or plastic.

   It consist of a hollow vertical chamber where dry, heated air
    enters through the bottom of the chamber and exhaust air
    exits through the top of the chamber.

   A detachable bowl is placed at the bottom of the dryer, which
    is used for charging and discharging of material.




                                                            6
   The bowl has a perforated bottom with a wire mesh support
    for placing materials to be dried and to diffuse the upward
    flowing air which helps to create a stable and uniform
    fluidized bed.

   A fan is mounted in the upper part for circulating hot air.

   Fresh air inlet, pre-filter and heat exchanger are connected
    serially to heat the air to the required temperature.

   Bag filters are placed above the drying bowl for the recovery
    of fines.


                                                              7
8
   The main principle involved in fluidized bed dryer is
    “Fluidization”.

   In this state the granules are completely suspended          in a
    stream of hot air which is being supplied from the bottom of
    the container.

   Fluidization produces full agitation of solid particles and
    since each particle gets surrounded by hot air, heat transfer is
    extremely high and uniform.


                                                             9
   The product is dried fast without appreciable loss of heat.
    Filter bags prevent particles escaping from the dryer.

   The material is left for some time in the dryer for reaching
    ambient temperature.

   The end product is free flowing.

   Warning:-

    The FBD is not an explosion proof instrument and therefore
    samples having volatile compounds that are flammable or
    able to reach their flash point should not be used with this
    dryer.
                                                             10
Drying of granules in FBD


                            11
Fixed parameters:
 Porosity of filter bags,
 Bowl sieve.
  Variable ( to be monitored):
 Inlet/exhaust air temperature,
 Product temperature,
 Drying time,
 Air volume,
 Humidity of incoming air and exhaust air.




                                              12
VALIDATION
“ Establishing documented evidence that provides a high
 degree of assurance that a specific process will consistently
 produce a product meeting its predetermined specifications
 and quality attributes.”

 Validation applies to processes or analytical methods.




                                                           12
   Validation provides an approach to prove quality,

    functionality and performance of a

    pharmaceutical/biotechnological manufacturing process.

   This approach can be applied to individual pieces of

    equipment as well as the manufacturing process as a whole.




                                                           14
QUALIFICATION
“Qualification is a process of assurance that the specific system,
 premises or equipment are able to achieve the predetermined
 acceptance criteria to confirm the attributes what it purports to
 do.’’

 Qualification applies to equipment.




                                                           15
Equipment Qualification:

             Studies which establish with confidence that the process
 equipment and ancillary systems are capable of consistently operating
 within established limits and tolerances. The studies must include
 equipment specifications, installation qualification (IQ), operational
 qualification (OQ) and performance qualification all major equipment to
 be used in the manufacture of commercial scale batches. Equipment
 qualification should simulate actual production conditions, including
 "worst case"/ stressed conditions.



 Worst Case Condition: The highest and /or lowest value of a given
 parameter actually evaluated in the validation exercise.

                                                                 16
• A Validation Protocol is an approved document which outlines
  the program to be employed, the tests that will be made and
  the acceptance criteria for those tests.

    Validation Phases:

       DQ- Design Qualification

       IQ- Installation Qualification

       OQ-Operational Qualification

       PQ- Performance Qualification
DESIGN QUALIFICATION

   Documented verification that the proposed design of
    equipment/systems is suitable for the intended purpose.

   Requirements are best created before “shopping” is
    undertaken.

   Requirements are created by the needs of the system/process
    of which the equipment/system will be a part.




                                                          18
INSTALLATION QUALIFICATION

   “Assurance that the intended equipment is received as
    designed and specified”.

   Verifying proper installation of utilities; water, steam,
    electrical, compressed air, ventilation, etc.

   Instruments for measuring temperature, humidity, time, air
    volume , pressure as well as recording devices for these
    variables should be calibrated.


                                                                19
OPERATIONAL QUALIFICATION

   The documented evidence that the system or equipment
    performs as intended throughout all anticipated operating
    ranges.
   “Confirmation that the equipment functions as specified and
    operates correctly”.
   Verifies correct operation of critical components and
    operating ranges as defined by the specification and required
    performance.
    Operational Tests: Empty Chamber Mapping



                                                           20
PERFORMANCE QUALIFICATION
   The documented evidence that the system, equipment or
    process is capable of consistently producing a safe product of
    high quality.

   Tests to demonstrate that the equipment/system performs in
    an actual as-used scenario.

     › Heat Distribution Studies

     › Heat Penetration Studies



                                                            21
   Design qualification is the documentation of the planning phase,
    including the decision making for the equipment.
   The goal is to perform something similar to a risk analysis and to
    check the design documents of a technical system to ensure that it
    fulfils the user requirements.
   Design qualification takes place before the equipment is
    constructed. The risk analysis is often part of the design
    qualification. The earlier risks can be recorded and evaluated, the
    sooner their minimisation can be taken into consideration in the
    equipment construction phase.
                                                            22
    In fluidized bed dryer the design of the instrument should be:

    Should occupy the small place.

     Based on our requirement we can go for horizontal or
    vertical.

    All technical considerations should be kept in mind while
     doing the design.

    Every fluid bed dryer must have explosion relief device of
     required size



                                                             23
Installation Qualification for fluidized bed dryer include the
    following steps:

   Verifying the approved purchase order.

   Verify model number, serial number.

   Ensure that all relevant documentation is received:

          User manual,

          Maintenance manual,

          List of change parts,

          Electrical drawings.
                                                           24
   Check the manufacturer and supplier.

   Check for any physical damage.

   Confirm location and installation requirements per
    recommendation of manufacturer.

   Verify that the utilities required are available.

   Dust free area and moisture free air should be provided.

   Installation shall be conducted per instructions provided in
    the manual.


                                                            25
   Verify alarm control.
   Operate the equipment at low, medium, and high speed per
    operations manual to verify the operating control.
   Verify that all switches and push buttons are functioning
    properly.
    Establish procedures for operation, maintenance, and
    calibration.
   Establish training program for relevant staff.
   All the electrical fittings in the room must conform to ISI
    specifications of Flameproof Electrical fittings.
   Do the tests for uniform distribution of air.
                                                            26
Run three batches of each product and analyze for:

   Active ingredients homogeneity.

   Moisture content.

   Particle size distribution.

   Percentage fines.

            Based on this data we can fix drying end points for
    each process.




                                                             27
Specially for FBD:


i.    Air temperature distribution: Using thermocouples.

ii.   Inlet air installation:

      a) Delay time for achieving constant air conditions: Using
      thermocouple and hygrometer.

      b) Microbiological quality of the inlet air: Using centrifugal
      air sampler.




                                                               28
It is check up of what we want actually for that particular
       process from the equipment.
i.     Inlet air speed.
ii.    Quality of air.
iii.   Uniform distribution of air.
iv.    Mixing of air with temperature.
        Run the trial batch during operation and there should not be any
       change in the:
         1. Size, 2. Shape , 3.Surface characteristics of the material
       which we kept for drying.
                                                                29
   Validation provides an approach to prove quality,
    functionality and performance of a
    pharmaceutical/biotechnological manufacturing process.

   Each time before use of the equipment it should be calibrated
    and maintained and proper precautions should be taken to
    increase the life span of the equipment.




                                                           30
 C.V.S. Subrahmanyam et al, page no. 396-398,Pharmaceutical
  Engineering.
 Development Pharmaceutics and Process Validation, CPMP,
  1988.
 Guidelines on the Validation of Manufacturing Process,
  WHO, 1996.
 Principles of Qualification and Validation in Pharmaceutical
  Manufacture, PIC, 1996.
 www.google.co.in




                                                       31
   www.pharmainfo.net
   www.ikev.org/haber/bozzonejune1.pdf
   www.pharmweb.net
   en.wikipedia.org/wiki/Validation
   www.ikev.org/haber/inspection/.../ Turkey
    Qualification_Validation.pdf

   http://www.qclabequipment.com/Sherwood_Digital___Analo
    gue.pdf



                                                    32
33

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FBD ppt

  • 1.
  • 2. CONTENTS  Introduction.  Construction of Fluidized Bed Dryer (FBD).  Working of FBD.  Validation of FBD.  Validation protocol .  Design Qualification (DQ).  Installation Qualification (IQ).  Operational Qualification (OQ).  Performance Qualification (PQ).  Conclusion.  References. 2
  • 3. Fluid bed drying is most widely used technique for drying Pharmaceutical powders , granules and slurries  Fluid bed processing involves drying, mixing, granulation, and coating of particulate materials.  In fluid bed drying, heat is supplied by the fluidization gas, but the gas flow need not be the only source. Heat may be effectively introduced by heating surfaces (panels or tubes) immersed in the fluidized layer. 3
  • 4. contd…  The direct contact between particles and air/gas is possible in fluid bed system.  Fluid bed drying is suited for powders, granules, agglomerates, and pellets with an average particle size normally between 50 to 5,000 microns. Very fine, light powders or highly elongated particles may require vibration for successful fluid bed drying.  Materials with moisture content up to 80% such as some polymers, dye stuffs and molecular sieve catalysts can also be accommodated. 4
  • 5. Fluidized bed dryer requires less time to complete drying. i.e., 20 to 40 min.  Hot spots are not observed in the dryer, because of its excellent mixing and drying capacities.  The thermal efficiency is 2 to 6 times greater than tray dryer.  It facilitates the drying of thermolabile substances , since the contact time for drying is short. 5
  • 6. The dryer is made up of stainless steel or plastic.  It consist of a hollow vertical chamber where dry, heated air enters through the bottom of the chamber and exhaust air exits through the top of the chamber.  A detachable bowl is placed at the bottom of the dryer, which is used for charging and discharging of material. 6
  • 7. The bowl has a perforated bottom with a wire mesh support for placing materials to be dried and to diffuse the upward flowing air which helps to create a stable and uniform fluidized bed.  A fan is mounted in the upper part for circulating hot air.  Fresh air inlet, pre-filter and heat exchanger are connected serially to heat the air to the required temperature.  Bag filters are placed above the drying bowl for the recovery of fines. 7
  • 8. 8
  • 9. The main principle involved in fluidized bed dryer is “Fluidization”.  In this state the granules are completely suspended in a stream of hot air which is being supplied from the bottom of the container.  Fluidization produces full agitation of solid particles and since each particle gets surrounded by hot air, heat transfer is extremely high and uniform. 9
  • 10. The product is dried fast without appreciable loss of heat. Filter bags prevent particles escaping from the dryer.  The material is left for some time in the dryer for reaching ambient temperature.  The end product is free flowing.  Warning:- The FBD is not an explosion proof instrument and therefore samples having volatile compounds that are flammable or able to reach their flash point should not be used with this dryer. 10
  • 11. Drying of granules in FBD 11
  • 12. Fixed parameters:  Porosity of filter bags,  Bowl sieve. Variable ( to be monitored):  Inlet/exhaust air temperature,  Product temperature,  Drying time,  Air volume,  Humidity of incoming air and exhaust air. 12
  • 13. VALIDATION “ Establishing documented evidence that provides a high degree of assurance that a specific process will consistently produce a product meeting its predetermined specifications and quality attributes.” Validation applies to processes or analytical methods. 12
  • 14. Validation provides an approach to prove quality, functionality and performance of a pharmaceutical/biotechnological manufacturing process.  This approach can be applied to individual pieces of equipment as well as the manufacturing process as a whole. 14
  • 15. QUALIFICATION “Qualification is a process of assurance that the specific system, premises or equipment are able to achieve the predetermined acceptance criteria to confirm the attributes what it purports to do.’’ Qualification applies to equipment. 15
  • 16. Equipment Qualification: Studies which establish with confidence that the process equipment and ancillary systems are capable of consistently operating within established limits and tolerances. The studies must include equipment specifications, installation qualification (IQ), operational qualification (OQ) and performance qualification all major equipment to be used in the manufacture of commercial scale batches. Equipment qualification should simulate actual production conditions, including "worst case"/ stressed conditions. Worst Case Condition: The highest and /or lowest value of a given parameter actually evaluated in the validation exercise. 16
  • 17. • A Validation Protocol is an approved document which outlines the program to be employed, the tests that will be made and the acceptance criteria for those tests. Validation Phases:  DQ- Design Qualification  IQ- Installation Qualification  OQ-Operational Qualification  PQ- Performance Qualification
  • 18. DESIGN QUALIFICATION  Documented verification that the proposed design of equipment/systems is suitable for the intended purpose.  Requirements are best created before “shopping” is undertaken.  Requirements are created by the needs of the system/process of which the equipment/system will be a part. 18
  • 19. INSTALLATION QUALIFICATION  “Assurance that the intended equipment is received as designed and specified”.  Verifying proper installation of utilities; water, steam, electrical, compressed air, ventilation, etc.  Instruments for measuring temperature, humidity, time, air volume , pressure as well as recording devices for these variables should be calibrated. 19
  • 20. OPERATIONAL QUALIFICATION  The documented evidence that the system or equipment performs as intended throughout all anticipated operating ranges.  “Confirmation that the equipment functions as specified and operates correctly”.  Verifies correct operation of critical components and operating ranges as defined by the specification and required performance.  Operational Tests: Empty Chamber Mapping 20
  • 21. PERFORMANCE QUALIFICATION  The documented evidence that the system, equipment or process is capable of consistently producing a safe product of high quality.  Tests to demonstrate that the equipment/system performs in an actual as-used scenario. › Heat Distribution Studies › Heat Penetration Studies 21
  • 22. Design qualification is the documentation of the planning phase, including the decision making for the equipment.  The goal is to perform something similar to a risk analysis and to check the design documents of a technical system to ensure that it fulfils the user requirements.  Design qualification takes place before the equipment is constructed. The risk analysis is often part of the design qualification. The earlier risks can be recorded and evaluated, the sooner their minimisation can be taken into consideration in the equipment construction phase. 22
  • 23. In fluidized bed dryer the design of the instrument should be:  Should occupy the small place.  Based on our requirement we can go for horizontal or vertical.  All technical considerations should be kept in mind while doing the design.  Every fluid bed dryer must have explosion relief device of required size 23
  • 24. Installation Qualification for fluidized bed dryer include the following steps:  Verifying the approved purchase order.  Verify model number, serial number.  Ensure that all relevant documentation is received: User manual, Maintenance manual, List of change parts, Electrical drawings. 24
  • 25. Check the manufacturer and supplier.  Check for any physical damage.  Confirm location and installation requirements per recommendation of manufacturer.  Verify that the utilities required are available.  Dust free area and moisture free air should be provided.  Installation shall be conducted per instructions provided in the manual. 25
  • 26. Verify alarm control.  Operate the equipment at low, medium, and high speed per operations manual to verify the operating control.  Verify that all switches and push buttons are functioning properly.  Establish procedures for operation, maintenance, and calibration.  Establish training program for relevant staff.  All the electrical fittings in the room must conform to ISI specifications of Flameproof Electrical fittings.  Do the tests for uniform distribution of air. 26
  • 27. Run three batches of each product and analyze for:  Active ingredients homogeneity.  Moisture content.  Particle size distribution.  Percentage fines. Based on this data we can fix drying end points for each process. 27
  • 28. Specially for FBD: i. Air temperature distribution: Using thermocouples. ii. Inlet air installation: a) Delay time for achieving constant air conditions: Using thermocouple and hygrometer. b) Microbiological quality of the inlet air: Using centrifugal air sampler. 28
  • 29. It is check up of what we want actually for that particular process from the equipment. i. Inlet air speed. ii. Quality of air. iii. Uniform distribution of air. iv. Mixing of air with temperature. Run the trial batch during operation and there should not be any change in the: 1. Size, 2. Shape , 3.Surface characteristics of the material which we kept for drying. 29
  • 30. Validation provides an approach to prove quality, functionality and performance of a pharmaceutical/biotechnological manufacturing process.  Each time before use of the equipment it should be calibrated and maintained and proper precautions should be taken to increase the life span of the equipment. 30
  • 31.  C.V.S. Subrahmanyam et al, page no. 396-398,Pharmaceutical Engineering.  Development Pharmaceutics and Process Validation, CPMP, 1988.  Guidelines on the Validation of Manufacturing Process, WHO, 1996.  Principles of Qualification and Validation in Pharmaceutical Manufacture, PIC, 1996.  www.google.co.in 31
  • 32. www.pharmainfo.net  www.ikev.org/haber/bozzonejune1.pdf  www.pharmweb.net  en.wikipedia.org/wiki/Validation  www.ikev.org/haber/inspection/.../ Turkey Qualification_Validation.pdf  http://www.qclabequipment.com/Sherwood_Digital___Analo gue.pdf 32
  • 33. 33

Hinweis der Redaktion

  1. Drying of granules in FBD