Technology Helps Manufacturers Create a Manufacturing
Compliance Platform
May Feature
Technology Helps Manufacturers
Create a Manufacturing Compliance Platform
Joseph Vinhais is
vice-president of regulatory compliance at Camstar
Systems, Inc., 2815 Coliseum Center Dr., Suite 600, Charlotte,NC 28217,
tel. 707.227.6600 or 800.588.0030, fax 704.227.6780, jvinhais@camstar.com
In
his March 2002 presentation to the Consortium for the Advancement of
Manufacturing in Pharmaceuticals, Raymond Scherzer, senior
vice-president for engineering, global manufacturing, and supply for
GlaxoSmithKline, discussed the current state of pharmaceutical
manufacturing. Scherzer said that large pharmaceutical manufacturers
have aggregate sales of more than $300 billion annually, but spend more
than $250 billion on manufacturing. According to Scherzer’s estimates,
the industry spends more than $45 billion on materials, $22.5 billion
on personnel, and $22.5 billion on depreciation and operating expenses
(1). Fortunately, new developments in technology and business processes
provide opportunities for pharmaceutical manufacturers to improve their
bottom lines and their return on invested capital. When technology and
business processes align, drug manufacturers become more efficient,
leading to faster delivery to consumers of safer, cheaper products. One
innovative solution aligns process analytical technology (PAT), Lean
Manufacturing, and Six Sigma to create a manufacturing compliance
platform (MCP) that could lead to significant improvements in
pharmaceutical manufacturing.
Challenges
are opportunities
Scherzer also discussed the increasing effect of the consumer market on
the pharmaceutical industry. First, the growth in the senior citizen
population has increased the use of the medications already on the
market, and heightened the need for new drug development. At the same
time, as healthcare costs continue to rise, providers and manufacturers
face increasing pressures to reduce the costs of pharmaceuticals.
Finally, because of broader access to pharmaceutical information on the
Internet, payers and consumers are more knowledgeable, leading to a
demand for demonstrable health and economic value when purchasing
medications.
To address these market needs, pharmaceutical manufacturers must
improve manufacturing processes. New products must meet the needs of
consumers while remaining safe, effective, and reasonably priced.
Manufacturing sites must manage supply logistics, quality assurance,
and quality control to increase efficiencies while maintaining safety
and efficacy. Simultaneously, companies must improve their overall
levels of regulatory compliance. Observing regulations such as Sarbanes
Oxley, 21 CFR Part 11,
current good manufacturing practices (CGMPs), and the Health Insurance
Portability and Accountability Act of 1996 (HIPAA) can be complicated
and can lead to sizeable infrastructure expenses and even fines if not
properly addressed. Coordinating these processes is a synchronization
challenge, but it also provides opportunities to reduce inefficiencies.
Pharmaceutical companies must find novel ways to integrate compliance
into their manufacturing infrastructures rather than viewing compliance
as a separate process. Policies initiated by top corporate
decision-makers affect processes and procedures downstream, ultimately
influencing daily manufacturing tasks. At the same time, risk exposure,
mitigation, and controls affect operational metrics, thereby
influencing the way businesses measure success. In addition, the
heightened visibility of risk management, as defined
in the US Food and Drug Administration’s recent initiative,
“Pharmaceutical CGMPs for the Twenty-First Century: A Risk Based
Approach,” emphasizes the importance of integrating PAT into current
manufacturing quality processes (2). Successful process management will
lead to faster product deployment and improved
productivity, ultimately leading to marketable performance and
superior quality.
Opportunities
for noncompliance
Many manufacturers believe that if they are 99% error-free, they are
functioning at optimal efficiency. But, what does it mean to perform at
99% accuracy? If all aspects of healthcare were 99% error-free, we
would have:
• ~5000 errors per week during surgical procedures
• 30,000 newborn babies dropped at birth per year
• at least 100,000 prescriptions filled incorrectly per year.
To surpass 99% quality levels, drug companies have started to examine
Six Sigma, a process currently used with success in the automotive and
electronics industries. Six Sigma is a business process methodology
based on the concept that minimizing variation, both in product and
process, will significantly reduce product defects. According to the
definitions of this methodology, one standard deviation from the mean
is one sigma. At a one-sigma level of operation (within ±1
standard deviation), a manufacturer would be operating at 30.23%
compliance. Ideally, however, manufacturers should operate at ±6
sigma (i.e., at 99.9997%
compliance).
When manufacturers are out of compliance, what does it cost them?
Manufacturers that operate within ±2 sigma spend more than 65%
of their sales revenue on efforts to ensure quality. Companies
operating within ±4 sigma spend 20–40% of their sales revenue
ensuring quality. Operating at ±6 sigma makes compliance a
bargain because manufacturers operating at this level of compliance
spend between <1 to 10% of sales revenue ensuring quality (3). These
numbers may sound extreme, but when a company adds up all costs of
identifying, isolating, investigating, and solving compliance problems,
the costs mount quickly. Less-immediate costs, such as legal fees,
market credibility, and share price, also are consequential.
Lean
Six Sigma: the union of Lean Manufacturing and Six Sigma
Lean Manufacturing is a business initiative that focuses on eliminating
manufacturing waste, with the goal of making manufacturers more
responsive to customer demand. Lean Manufacturing seeks to achieve this
objective by decreasing human effort, inventory, product development
time, and poor use of space. When businesses combine Six Sigma and Lean
Manufacturing, the result is an excellent business process that is
readily applicable to the pharmaceutical manufacturing industry.
According to Michael L. George, Lean Six Sigma reduces mean
manufacturing delivery time and reduces time variation in the
manufacturing process, quickly
resulting in improved customer satisfaction,
costs, quality, process speed, and need for invested capital (4). Six
Sigma brings statistical control to business processes and Lean
Manufacturing reduces invested capital and improves process speed.
Together, they reduce time to market, time to volume, and research and
development time, all while installing defect-prevention mechanisms and
processes to ensure product quality. Ultimately, these improvements
also increase shareholder value.
How does this management methodology benefit the pharmaceutical
industry (3)? Primarily, Lean Six Sigma controls process and product
variation by identifying, recognizing, and defining manufacturing
problems and then characterizing, measuring, and analyzing them. It
also optimizes quality control in the manufacturing process
to improve production rates, enhance innovation, and reduce cycle
times. Institutionalizing these changes enables manufacturers to
increase their return on investment and continue revenue growth. (continued)