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Showing posts with label GuidelinesG. Show all posts
Showing posts with label GuidelinesG. Show all posts

Sunday, November 6, 2016

APIC updates its Guidance on Cleaning Validation with regard to the PDE Concept

Image result for ACTIVE PHARMACEUTICAL INGREDIENTS COMMITTEE (APIC)

The revised guideline which is inline ema.
The original 55-page document is still divided into 13 chapters:
  • Foreword
  • Objective
  • Scope
  • Acceptance criteria
  • Levels of Cleaning
  • Control of Cleaning Process
  • Bracketing and Worst Case Rating
  • Determination of the Amount or Residue
  • Cleaning Validation Protocol
  • Validation Questions
  • References
  • Glossary
  • Copyright and Disclaimer
The main changes were made to Chapter 4 on Acceptance Criteria so that the guideline is now 57 pages long. The document frequently uses the term PDE beside the criterion ADE so far mentioned. Both terms ADE/PDE i.e. ADE or PDE can be found. Whereby, it is stated in the document that the guidance preferably refers to ADE in the calculations examples as it enables a better comparison to the examples listed in the ISPE document Risk MaPP. A new element in Chapter 4 is the calculation formula for PDE with explanation of the respective abbreviations. The glossary has been updated accordingly. Moreover, editorial changes have been made to the document.
Conclusion: The revision of the APIC "Guidance on Aspects of Cleaning Validation in Active Pharmaceutical Ingredients Plants" in its current version from September 2016 has now introduced the PDE concept consequently. The content changes are only marginal though, as the PDE concept supplements only the previous ADE concept.

You can find the revised document on the (click to Download) APIC-Website.  In addition a comparison of the May 2014 Version with the September 2016 Revision is available in the Members' Area on the ECA Website.


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Sunday, October 30, 2016

Impact of Quality by Design on Topical Product Excipient Suppliers, Part I: A Drug Manufacturer's Perspective

Image result for QbD

QbD concerns of topical product development scientists


When focusing on topical product risk and criticality as related to raw materials, typical CQA items are phase separation, rheology, precipitation of dissolved active/excipient or particle changes in suspended active, microbial contamination, pH, assay/impurities, heavy metals, and residual solvents.
Phase separation. Phase separation of a topical product in a multi-use container can result in super-potent dosing for some of the treatment applications and sub-potent dosing for the remaining treatment applications. In the example QTPP for fluorouracil cream (7), this element was labeled “homogeneity and tube uniformity.” Phase separation can be most dramatic when the active is found primarily in the dispersed phase of a product that contains little of the dispersed phase (e.g., a hydrophobic drug that is almost completely dissolved in the oil phase of an oil-in-water emulsion that has more than 85% water). If this product is a cream that separates into a half milliliter of oil-rich phase that is at the orifice of the tube, then 90% of the drug may be applied in the first few applications. Alternatively, if the separated oil-rich phase of a lotion creams to the top of a bottle fitted with a pump that has a long dip tube, then 90% of the drug may remain inside the bottle and never be applied. Another example is when a gel containing uniformly dispersed solid-drug particles loses viscosity on storage and the previously dispersed drug falls to the bottom of the container. For topical products that are semisolids or fluid dispersions, assuring content uniformity (i.e., avoiding phase separation) tends to dominate the control strategy.
Rheology. Rheology is the science that characterizes the flow of materials. For topical products, rheology considers the impact of shear on the apparent viscosity of a non-Newtonian liquid. Rheological behavior is directly correlated to microstructure of a topical product formulation. For two products that have the same composition (qualitatively [Q1] and quantitatively [Q2] the same), if they have the same microstructure (Q3), then these two products will have the same bioavailability. The manufacturing process can have a significant impact on the formulation microstructure (6). This means that characterizing rheological behavior as a function of excipient variability, processing parameters, and even active purity or particle size distribution may provide valuable insight with regards to the microstructure of the product. Dramatic change in rheological properties may affect the bioavailability. This impact applies to rheological changes over the shelf-life of the product, lot-to-lot changes in the rheology of the product, and differences in rheological properties between a generic formulation and the reference listed drug.
Precipitation. If the API is completely dissolved in the topical product, then it must remain completely dissolved over the shelf life of the product. Because only dissolved drug penetrates the stratum corneum of intact skin (14), the precipitation of drug is expected to change bioavailability. Formulations that are prone to supersaturation, followed by unpredictable timing for precipitation, are rarely viable commercial products. Likewise, topical products formulated near API saturation that precipitate with relatively small drops in temperature need to rapidly redissolve upon storage at their labeled temperature range to be viable commercial products. Concerns about precipitation midway through stability of a material completely dissolved at product release are not limited to API. A good illustration of the preservative methylparaben precipitating out of a topical gel is provided in the specification and examples of US patent 8,053,427 (15).
Particle changes. If the drug substance is dispersed in the formulation as solid particles, particle size and content uniformity throughout the entire container/closure system will be two critical attributes for the topical drug product. Characterization of segregation and/or aggregation of particles will be necessary, in addition to demonstrating that no changes in the drug substance polymorph occur throughout the stability studies. Particle size of the drug substance throughout the shelf life of the topical product must be determined and may need to be controlled. For particles less than 10 microns, changes in particle size and/or morphology of suspended drugs in topical products are presumed to change bioavailability (14, 16).
Microbial contamination. It is important that products applied to the skin are not contaminated by bacteria or fungi and for this reason, topical products, especially products packaged in multiple-use containers, are usually preserved. Healthy skin provides a reasonably effective barrier against microbes, but this barrier is often compromised in skin conditions that are treated with topical products. Products applied to the face will eventually find their way into a patient’s eyes, which is another reason that even vehicle controls must be adequately preserved to assure patient safety. For topical products, passing United States Pharmacopeia (USP) <51> Antimicrobial Effectiveness Testing (AET) over the entire product shelf life is sufficient to assure that if contaminated, the product will not support growth and be a risk to the patient (17). AET testing assumes that incoming raw materials will not have significant lot-to-lot differences in the level of bacteria/fungi contaminating the API or excipients that are used to make the product.
pH. Most topical formulations will be adjusted to a specified pH at some point during processing. If the pH remains stable over the shelf-life of the product, then an appropriate control strategy can be put into place to keep pH as a very low risk, non-critical quality attribute. However, some actives degrade into weak acids (e.g., benzoyl peroxide degrading into benzoic acid) and if the product is not buffered (or insufficiently buffered), then the pH steadily drops over the shelf life of the product. If the active has pH-dependent solubility or a dissociation constant near the product pH, then it is likely that bioavailability may change with changing pH (8). The acid/base properties of some excipients can significantly impact the initial pH of the formulation. Lot-to-lot variability of excipients that can shift pH should be a risk mitigation focus for APIs that carry charge.
Assay and impurity tests. Assay tests that are specific, accurate, and precise are mandatory to quantify the amount of API present (per unit weight or volume) in the topical drug product. Likewise, impurity tests are required for specified impurities as justified by ICH Q3B (18) qualification threshold and unspecified impurities as justified by the identification threshold based on the maximum daily dose for the drug product (7). Excipients must be compatible with the API, and drug–excipient incompatibility is usually noted early in development and the formulation modified to assure an adequate shelf-life. A much more difficult problem is when trace level substances (e.g., catalysts, heavy metals, unreacted reagents) contained within an excipient are incompatible with the API. Degradation of the API may be rapid and limited by complete consumption of the trace levels of the excipient impurity. Usually this degradation of the activewill be viewed as a processing loss and be ignored (if less than 1%) or corrected by use of an overage. However, if this reactive trace excipient impurity has significant lot-to-lot variability or is not uniform throughout the excipient batch, then the drug product may risk occasional lots failing on stability.
Residual solvents and heavy metals. The drug product manufacturer will always be concerned about complying with USP General Chapter <467> Residual Solvents (19) and USP General Chapter <232> Elemental Impurities-Limits (20). The requirements include not exceeding limits for the finished drug product by controlling the elemental impurities and residual solvent of excipients. It should be noted that topical products may contain a significant amount of solvent (e.g., ethyl alcohol) and for these products, the solvent used is counted as an excipient, not a residual solvent (6).

Conclusion

The goal of Part I of this series is to familiarize the excipient supplier with some of the QbD concepts and terminology specifically related to topical pharmaceutical products. The pharmaceutical industry is embracing QbD for topical products for both NDA and ANDA products. With this understanding of QbD, it should be possible to build more effective partnerships between topical product development scientists and topical excipient vendors. QbD is truly the new paradigm in topical product development and is providing patients with more robust treatment options. Part II will propose reasonable customer expectations regarding excipient sample requests and specific information about excipients needed for the QbD approach.

References

  1. FDA, Pharmaceutical CGMPs for the 21st Century—A Risk-Based ApproachFinal Report (Silver Spring, MD, September 2004).
  2. ICH, ICH Harmonised Tripartite Guideline: Evaluation and Recommendation of Pharmacopoeial Texts for Use in the ICH Regions Q4B, Step 4. (Geneva, Switzerland, Nov. 1, 2007)
  3. ICH, ICH Harmonised Tripartite Guideline: Pharmaceutical Development Q8(R2) (Geneva, Switzerland, August 2009).  
  4. ICH, ICH Harmonised Tripartite Guideline: Quality Risk ManagementQ9 (Geneva, Switzerland, Nov. 9, 2005).  
  5. ICH, ICH Harmonised Tripartite Guideline: Pharmaceutical Quality System Q10 (Geneva, Switzerland, June 4, 2008). 
  6. R.K. Chang et al. AAPS J. 15 (1) 41-52 (2013).
  7. R.K. Chang et al. AAPS J 15 (3) 674-683 (2013).
  8. Y.S.R. Krishnaiah et al. Int. J. Pharmaceutics 475 (1­­-2) 110-122 (2014).
  9. H. Winkle, et al. Pharm. Tech. 33 (10) (2009).
  10. FDA, Guidance for Industry Q8(R2) Pharmaceutical Development (Silver Spring, MD, November 2009).
  11. FDA, Guidance for Industry Q9 Quality Risk Management. (Silver Spring, MD, June 2006).
  12. ICH, Quality Implementation Working Group Points to Consider (R2) ICH-Endorsed Guide for ICH Q8/Q9/Q10 Implementation. (Geneva, Switzerland, Dec. 6, 2011).
  13. R.A. Lionberger et al. AAPS J. 10 (2) 268-276 (2008).
  14. M.S. Roberts and K.A. Walters. The Relationship Between Structure and Barrier Function of Skin. Chapter 1 Dermal Absorption and Toxicity Assessment, M.S. Roberts and K.A. Walters, Eds. (Marcel Dekker, New York, 1998) pages 1-42.
  15. J.C. Buge, K. Nadau-Fourcade, and C. Meunier. "Bromonidine gel composition," US Patent 8,053,427, Nov. 8, 2011.
  16. A. Vogt et al., JID Symposium Proceedings 10 (3) 252-255 (2005).
  17. USP, USP Chapter  <51>, "Antimicrobial Effectiveness Testing," USP29-NF24 (US Pharmacopeial Convention, Rockville, MD, 2005), p. 2499. 
  18. ICH, ICH Harmonised Tripartite Guideline: Impurities in New Drug Products Q3B(R2) (Geneva, Switzerland, June 2, 2006).
  19. USP, USP Chapter <467>, "Residual Solvents," USP37 (US Pharmacopeial Convention, Rockville, MD, 2011), https://hmc.usp.org/sites/default/files/documents/HMC/GCs-Pdfs/c467.pdf
  20. USP, USP Chapter <232>, "Elemental Impurities—Limits," (US Pharmacopeial Convention, Rockville, MD, Feb. 1, 2013), www.usp.org/sites/default/files/usp_pdf/EN/USPNF/key-issues/c232_final.pdf

About the Author

David W. Osborne is chief scientific officer and founder of Independent Derm Solutions, LLC, 4215 Creekside Court, Fort Collins, CO 80525,dosborne@independentdermsolutions.com. 

Article Details

Pharmaceutical Technology
Vol. 40, No. 10
Pages: 38–43

Citation

When referring to this article, please cite it as D. Osborne, "Impact of Quality by Design on Topical Product Excipient Suppliers, Part I: A Drug Manufacturer's Perspective," Pharmaceutical Technology 40 (10) 2016.

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Data Integrity Challenges in Manufacturing Designing systems using the principles of good documentation practice

Image result for Data Integrity Challenges in ManufacturingDesigning systems using the principles of good documentation practice, including validated audit trails, is a key piece of a manufacturing data integrity program.

Data integrity, which refers to the completeness, consistency, and accuracy of data, is a key part of CGMP compliance for drugs, said FDA in its April 2016 draft guidance (1). The agency said at a 2014 conference that it anticipated more enforcement of data integrity issues, including warning letters, product seizures, import alerts, and broader injunctions (2), and indeed, several warning letters since then have focused on data integrity.

Regulatory and industry organizations have tried to clearly spell out what data integrity means. Several other regulatory bodies have also published guidelines and guidance regarding data integrity. The United Kingdom Medicines and Healthcare products Regulatory Agency (MHRA) published a guidance for industry defining data integrity in March 2015 (3). The United States Pharmacopeial Convention (USP) proposed a new General Chapter <1029> on good documentation practices (4). And in June 2016, the World Health Organization (WHO) published a guidance on good data and record management practices (5).  

Data integrity should be thought of as a whole system, says Rebecca Brewer, strategic practice lead for Quality Executive Partners. “All components of the system—organization, culture, and oversight; training and performance management; data management; physical controls; and documentation practices—must be working effectively to provide the highest level of assurance of data integrity.”

"Management must align expectations with the capability of a process, site, or even a person," adds Monica Cahilly, president of Green Mountain Quality Assurance. "If the infrastructure or the resources aren't there—for example, to achieve a certain throughput—errors may result and there may be a greater risk for falsification of data to try to meet targets. Establishing and staying within the boundaries of a design space that yield a safe and effective product is fundamental to meaningful data integrity and data governance programs."

"In large-molecule production, with all the complexities of this technology compared to small molecule, companies must be mindful of what targets can be realistically achieved given the variability of the technology. Saying we can hit a target that we can not is a mistake," says Cahilly. Regulatory guidance documents are beginning to acknowledge this with more realistic targets specific to large-molecule testing. For example, a 2013 FDA draft guidance on bioanalytical methods (6), which revises a 2001 guidance, gives broader acceptance criteria (e.g., for accuracy and precision) for ligand-binding assays, notes Cahilly. 

As companies work to improve data integrity, computerized systems and electronic records are playing a key role. The International Society for Pharmaceutical Engineering (ISPE) GAMP Community of Practice started a data integrity special interest group (SIG) in January 2014 due to the high interest in this area, says Michael Rutherford, the GAMP global chair and sponsor of the SIG. The group has published concept papers and offered education sessions to help members get a handle on data integrity, including challenges with electronic records.

Paper and electronic records
Recent attention to electronic records is primarily because these systems have not yet been as closely examined as traditional paper systems, says Cahilly. But whether records are paper or electronic doesn't really matter, say experts; the core principles of ALCOA+ (data must be attributable, legible, contemporaneous, original, accurate, complete, consistent, and enduring) apply to both. 

Manual systems most commonly suffer from failure to be a contemporaneous record, and may not be original, accurate, and complete,” notes Brewer. “Since the inception of GMPs, the industry has been emphasizing the importance of good documentation practices, yet today we still see occasional ‘pencil whipping’ of records, where an employee finishes a series of tasks and then signs for all of them (rather than completing the entries as the tasks were accomplished) or occasions where one employee signs for another employee’s activities.” Automated, electronic systems can be better if they restrict access and ensure that entries are attributable.

Making sure records are original is key in both paper and electronic versions. "There is a trash can on the computer just like a trash can in the lab," notes Lorrie Schuessler, a co-leader of the GAMP SIG. "Controls must be in place for computers to prevent deleting or renaming files or changing a record's date. Inspectors are trained to detect the specific ways that data changes can be covered up in computer systems just as they look for fraud in paper records."

"Sometimes people change records intentionally, but sometimes they may just be trying to make it less sloppy, for example," notes Rutherford. "Any time you have a human in the process, we make mistakes. Someone might not strictly follow procedures, and there might not be strict enough controls that force good data integrity."

One challenging area is having controls to prevent 'orphan data', which are results that are acquired but not reported or reviewed. "A good example of orphan data is when there are 'test' injections performed under the auspices of an investigation or in preparation for running a sample on a chromatography system, where these samples are never included in the formal investigation or run report," explains Brewer. "These unreported sample results can, intentionally or unintentionally, prevent failing data from coming to light or serve as a way in which an operator can change the operating conditions to ensure a good result. Management oversight should include a combination of policy, procedure, training, monitoring, and metrics. 'Trust but verify' should be the watchwords for the program, with frequent inspection to look to ensure that no orphan data are detected and to ensure that all operations comply with the intended policies and procedures.”

Self-recorded data (i.e., data that are not captured directly from a networked automation system) is another concern. "In these cases, it is important to think carefully about when the 'four eyes' principle should be employed and when a 'second check' is required," suggests Brewer.

A special concern for electronic data is security—changes should be made only by authorized personnel and these changes should be recorded. "Making a change on paper is more obvious, because you can easily initial, date, and note a reason for the change," notes Rutherford, but with electronic records, systems need to be set up to control changes. "Shared accounts or roles are common in manufacturing control systems, but this is a challenge for data integrity because, for example, six different engineers could change a parameter. Regulatory agencies would prefer to not have shared accounts. But for situations where they are necessary, such as for running a test over a 24-hour period, there must be other ways of showing the integrity of the data."

"Ideally there would be a technological solution to the problem of having shared accounts by keeping track of who to attribute data to," adds Schuessler. "If an electronic solution isn't available, sometimes the way to deal with this situation is a paper log."

"Whether you use a computer or paper, you can have data integrity issues," concludes Rutherford. "The key is to manage and control the risk so it doesn’t affect patient safety. Doing this includes having a quality culture, proper procedures, and making sure people are reviewing data properly and catching problems before they impact product quality and ultimately patient safety."

Audit trails
A data integrity program should include a review of an audit trail, in which critical data points are reviewed. FDA's data integrity guidance promotes a risk-based approach to reviewing the content of the original electronic record, with a focus on changes to critical data, explains Cahilly. It is important to understand that the entire original electronic record is considered the original, even if only a subset of it is printed. "Regulators and quality units are now starting to understand where to find meaningful data and metadata and make more informed decisions about whether products are safe and effective," says Cahilly. "The challenge is to facilitate an efficient review by thinking through what is critical when you’re validating the system."

In addition, people need to be trained to review audit trails to find problems in electronic data, says Cahilly. "On paper, reviewers are already trained to look for cross-outs and focus on the ones that may represent significant changes that could affect process, or method, or product, for example. In computer audit trails and metadata, reviewers would also look at audit trails and other meaningful metadata to determine whether a change to data was appropriate and properly investigated, if required. A review that is risk-based requires process understanding and thus would focus on changes to data potentially impactful to process rather than those of indirect or no impact. For example, was a datapoint changed, or was the change to correct a misspelling? Audit trails in process control systems in manufacturing may track alterations to recipe parameters, some of which may be significant. A focus on prevention makes less work in detection. For example, by securing the recipe to prevent alteration of significant parameters, there will be less metadata to review.”

Electronic records can be an advantage in the review process, because the data are more accessible than with paper. However, "Reviewing all data all the time is impossible," notes Rutherford. "Review by exception allows you to focus on what is most critical. Computerized systems do this well by flagging unusual conditions to be reviewed."  A manufacturing execution system (MES) can flag when numbers are modified, for example, or when set-up parameters are out of specification. "If there are too many flags, they may be ignored," warns Rutherford. "It gets back to understanding the process and knowing which ones are important to flag."

Current coding systems often have audit trail or "history" features, but they may need to be turned on. In some cases, software systems don’t have what is needed, such as the ability to capture data at the time of the analysis or activity, so some redesign of software is occurring as the industry's understanding of good documentation practice grows, notes Cahilly.

Because process understanding is crucial, audit trail review should be done by the business function—by the operators, engineers, or laboratory analysts—rather than by the information technology (IT) group. "The quality group can oversee the review and IT can implement a system, but the business needs to own the data and its integrity," says Rutherford.

The business group, not IT, should also be doing validation of flags and the audit system. "Validation is proving that the system meets your needs and is fit for purpose—that it provides technological control of data integrity," says Rutherford. "Some consider validation merely a documentation exercise, but really it comes down to whether you care if it works. You should know what a flag is supposed to do and test to show that it functions that way." Periodic reviews and a change-control process are also important.

A practice that can be used in addition to audit trail review is a forensic audit, which involves selecting high-risk targets based upon triggering criteria. "These targets are then reviewed and traced from initial data source to final data output—an end-to-end evaluation—to detect any wrong-doing," explains Brewer. "Forensic audits can be used either proactively, as part of the monitoring associated with the site management controls, or in response to a specific known failure or suspected wrong-doing.”

References

FDA, Draft Guidance for Industry: Data Integrity and Compliance With CGMP (April 2016).
  1. J. Weschler, Pharm. Tech. 38 (9) (2014).
  2. MHRA, GMP Data Integrity Definitions and Guidance for Industry(March 2015).
  3. USP, Proposed General Chapter <1029> Good Documentation Guidelines (May 2014).
  4. WHO, Annex 5 Guidance on good data and record management practices, WHO Technical Report Series No. 996 (June 2016).
  5. FDA, Draft Guidance for Industry: Bioanalytical Method Validation(September 2013).
Article Details
Pharmaceutical Technology
Vol. 40, No. 7
Pages: 50–54
Citation:
When referring to this article, please cite it as J. Markarian, "Data Integrity Challenges in Manufacturing," Pharmaceutical Technology 40 (7) 2016 (
Pharmtech).

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Saturday, September 3, 2016

Data Integrity how to ensure data integrity by Siegfried Schmitt

Siegfried Schmitt
Siegfried Schmitt

Q. Data integrity has been making headlines recently, in response to foreign inspections by FDA and European regulatory agencies (1). Based on these reports, it appears that data integrity issues center largely on manufacturing companies in Asia. Should we conclude that these issues only concern firms already struggling to comply with basic good practices in this part of the world?

A. In general, media tend to report on the most serious violations uncovered by regulators. Often when companies find similar issues through their own internal investigations, they remain confidential and unreported. It would, therefore, be presumptuous to assume violations reported on by the press are representative of the industry as a whole.

What inspections have triggered, however, is increased attention toward potential data integrity issues lurking across the industry. Few companies would have data integrity verification activities integrated into their quality oversight programs before these examples of serious violations of healthcare regulations became public knowledge in the form of warning letters (2), consent decrees (3), or reports in the European EudraGMDP database (4).

Conscientious companies have taken these potential data integrity issues seriously by starting internal investigations, incorporating data integrity assessments into their quality assurance oversight programs, and in some cases, establishing a special data integrity office. Companies—even those in good standing with regulators--have initiated such activities regardless of existing or anticipated compliance concerns.
The question is: what have these internal investigations uncovered, if anything? The answer, surprisingly, is that they have uncovered a significant amount. Once you start studying analytical data, root cause analyses, logbooks, and any other data source, gaps are repeatedly found in data traceability and trustworthiness. A few data-related issues include: uncertainty where the data originated from and who created it (e.g., where several analysts use the same user ID and password on a set of similar instruments); which raw information produced the reported data (e.g., where a summary table reports stability data results, but all raw data on the chromatography instrument have since been deleted); and whether these are the original data (e.g., where there is no audit trail on the analytical instrument). These issues are not necessarily the result of willful malpractice, but are often caused by insufficiently controlled processes, poor documentation practices, suboptimal quality oversight, and often enough, professional ignorance.
Occasionally people do intentionally falsify data. This is unfortunate but, thankfully, still a rarity.

The following are some steps companies should take to ensure data integrity:
  • Embed data integrity verification activities into internal audit processes
  • Create awareness among staff so they can assist with this endeavor, and report concerns before they become full-fledged issues
  • Train internal auditors to understand what to look for when detecting data integrity deficiencies
  • Seek external support to assure completely unbiased, third-party investigations and/or to enhance your internal investigation program.
  • It should come as no surprise that companies already struggling to meet basic compliance standards are at a disadvantage when it comes to data integrity. Making data integrity a key element of a compliance approach, however, will give the company a competitive advantage. It is always better to proactively prevent issues, such as data integrity failures, to occur, than trying to remediate and resolve inspection findings. Compliance excellence makes good business sense. 
About the Author
Siegfried Schmitt
Siegfried Schmitt, Principal Consultant, PAREXEL International.









Source: Pharma Tech news
(This story has not been edited by GMP Violations staff and is auto-generated from a syndicated feed.)
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Root Cause Analysis–Finding the Root of the Problem by Siegfried Schmitt

Siegfried Schmitt
Dr.Siegfried Schmitt

Siegfried Schmitt, principal consultant, PAREXEL International, discusses how to find the root cause of the problem.

Q:Deviations in clinical trials happen, and as such, FDA requires deviations to be investigated and documented. Our company has an established deviation investigation process. What advice can you give to ensure that deviation investigations provide the most optimal corrective actions and preventive actions (CAPA)?

A:Standard operating procedures (SOPs) for deviation investigations are generally similar from company to company, detailing a logical process flow with execution instructions, and a section on roles and responsibilities. Following a risk-based approach, deviations are classified as minor or major, requiring investigations that differ in resource requirements and detail.

Finding the root causes of the deviation, rather than merely causal factors, is absolutely essential to follow through with CAPA, a concept that focuses on the root causes of identified problems in an attempt to ultimately prevent their recurrence.

Root-cause investigations can be performed using a plethora of methodologies (see Table I), providing the deviation investigators with all the tools they need. These tools require familiarity with the methodology and regular practice to understand which method(s) will provide the answers you are looking for. It is almost always necessary to apply two or more methodologies in order to find the root causes of a deviation.

Table I: Selected root-cause analysis methodologies.
8D methodology
Affinity diagrams
Awareness and problem definition
Barrier analysis
Brain storming
Cause and effect diagrams
Define, measure, analyse, improve, control (DMAIC)
Failure modes and effects analysis (FMEA)
Five whys
Flow diagrams
Hazard analysis and critical control points (HACCP)
Impact assessment
Ishikawa diagrams
Kepner-Tregoe
Mind mapping
Modeling
Pareto charts
Pivot tables
Risk tree
Run charts
Statistical methods and sampling
Statistical process capability analysis
Statistical process control
The interview
Trend analysis
Trending

One factor that can derail the investigation is if too many operators and managers are involved in root-cause investigations. Unless the individuals regularly participate in root-cause investigations, they will not be fully familiar with either process or methodologies. Instead, it is best practice to have core teams of experienced subject matter experts (SMEs) fully support and execute all deviation investigations. This practice delivers consistency, quality, and assurance that the real root causes are found.

Another factor is that SMEs might be tempted to mistake root causes for causal factors, since the latter would require less investment or resources to fix. This is not good practice—almost always it will be possible to find at least partial solutions that can be implemented.

To give an example, an operator picked up the wrong tool to fasten a pipe. An investigation revealed the causal factor as ‘human error’ and the actual root causes as ‘tools not clearly and unambiguously labeled’ and ‘insufficient lighting to read the labels.’ Thus, instructing the operator in the procedure would not have resolved the problem. The solutions needed are improved labeling and lighting.

This example addresses why deviation investigations are so often found to be lacking when reviewed by agency inspectors. These issues can be grouped like this:

  • Far too many root causes assigned as ‘human error’
  • Inadequate or incorrect use of methodologies
  • CAPAs not addressing actual root causes.
  • Of course, where human interaction occurs, human error is a possibility. Thus, regulatory agencies expect companies to take measures to either prevent or detect human errors through procedural or technical solutions. If these are applied correctly, the remaining number of deviations that truly are human error will be small (perhaps around the 10% mark).

The source of the problem with deviation investigations is not the procedure or methodology; it typically is how root-cause analyses are being performed. Improving on that step and following up with logical CAPAs will almost certainly guarantee compliance and satisfied regulatory inspectors.

Article Details
Pharmaceutical Technology
Vol. 40, No. 9
September 2016
Pages: 98
Citation
When referring to this article, please cite it as S. Schmitt, "Root Cause Analysis: Finding the Root of the Problem," Pharmaceutical Technology 40 (9) 2016.

Source: Pharma Tech news
(This story has not been edited by GMP Violations staff and is auto-generated from a syndicated feed.)
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