This page contains a Flash digital edition of a book.
inside view Trials, tests and tribulations


Kevin McNulty, director of product marketing for life sciences at Intralinks, explores the technology behind secure collaboration within the life sciences industry


F


or several years now, the life sciences industry has been moving away from its traditional, vertically integrated business model, oſten referred to as


the fully integrated pharmaceutical company or FIPCO model, and is now in search of more efficient and nimble research and development paradigms. Tis is in no small part due to the demise of blockbuster drugs and the current and impending patent cliff facing the industry. As a result of the move away from


blockbuster drugs, pharmaceutical companies have been shedding core competencies and embracing a new development model, oſten called the fully integrated pharmaceutical network (FIPNet). Under this new paradigm, the industry has been engaging in new partnerships and relying more heavily on outsourcing. As a consequence, one of the most


essential aspects of running a clinical trial efficiently has become the necessity to share critical information between all partners and investigator sites in a timely, traceable and confidential way. Tis ensures that the document trail is fully auditable (and therefore complies with regulation) and also maximises the window in which companies have exclusive rights to sell a drug. Phase III of a trial is when document


sharing becomes most vital and problematic. Tere can be well over 1,000 participating patients, more than 50 investigator sites, and several research organisations involved in the study – all spread across multiple geographies in order for research to be carried out in a compliant, timely and cost-effective manner. It is crucial, therefore, that global sites are able to collaborate on research quickly and securely, while maintaining control of critical IP.


With this in mind, it is staggering that


recent research has found that 43 per cent of investigator sites[1]


continue to exclusively


use paper files throughout the clinical trial process. Tere are a number of issues with this; the most significant being that this


30 SCIENTIFIC COMPUTING WORLD


process is incredibly time-consuming. It is important that pharmaceutical organisations try to reduce time-to-market as much as possible, without compromising the quality of the study. In addition to this, in order to get a


drug approved by the US Food and Drug Administration, European Medicines Agency or the Medicines and Healthcare products Regulations Agency, it is necessary that the document trail can be demonstrated in the final submission of the research, as stipulated in Part 21 of the FDA’s Code of Federal Regulations (CFR). If a patient based


model. Tis means there is no additional burden on IT departments and the soſtware can be scaled globally. As for the platform itself, this should have a friendly, role-based user interface so that each party involved in the study requires minimal training and each user only receives information that is relevant to them. Personnel should be able to review documents in an effective and traceable manner, annotating and comparing documents side by side. Te soſtware must also enable CFR Part 11


compliance. Tis means that any documents shared or edited should be fully traceable, while the soſtware itself should capture all metadata at both the document and file level so it is auditable. Tese platforms help laboratory managers keep personnel up to date on all training and safety protocols, as alerts and notifications confirm that staff have accessed training material. Tis is essential for a global study with thousands of


WHAT TECHNOLOGY SHOULD LAB MANAGERS BE USING TO ENSURE SECURE COLLABORATION, AUTOMATED WORKFLOWS AND COMPLIANCE?


at a site in Italy, for example, suffered an adverse reaction to a drug, this needs to be communicated as soon as possible to every investigator site, as well as to regulatory bodies and ethics committees. Trial sponsors must ensure that everyone affected across the world has seen the file, and must also demonstrate the manner in which this communication was carried out to the FDA. Logically, digitising these documents is the


next stage in reducing the time and cost of a trial, while also providing a more distinct document audit. However, the concept of digitising processes in itself is not a solution, especially when it comes to sharing documents and collaborating securely. Email, for example, is not an adequate way to share sensitive documents from a trial, not only because it doesn’t comply with regulation, but also because it has proved to be an ineffective platform in the past. So, if more is needed beyond paper


documents and email, what type of technology should lab managers be using to ensure secure collaboration, automated workflows and compliance? Firstly, technology should be delivered via the cloud using a soſtware-as-a-service (SaaS)


concerned parties, as it gives each employee access to the correct training material, which can be monitored. By deploying SaaS solutions such as


these, laboratory managers are able to track information, reduce paper usage and allow access to the most current information available. In turn, by automating crucial processes, pharmaceutical companies can ensure higher levels of compliance, while speeding up time to market. Te FIPNet model is proving successful


for the life sciences industry and as more organisations become associated with one research project and the number of individuals involved increases, workflow inevitably becomes more complicated. Yet it is possible for organisations to complete these processes at a faster rate, with a more concrete document trail and a more secure system. Te technology is out there, and as more pharmaceutical organisations adopt these secure collaboration platforms the industry will enhance compliance while driving down the costs associated with clinical development.


1 www.intralinks.com/blog/2013/07/10/dia-2013-global-survey- reveals-advantages-portals-clinical-trials


@scwmagazine l www.scientific-computing.com


Page 1  |  Page 2  |  Page 3  |  Page 4  |  Page 5  |  Page 6  |  Page 7  |  Page 8  |  Page 9  |  Page 10  |  Page 11  |  Page 12  |  Page 13  |  Page 14  |  Page 15  |  Page 16  |  Page 17  |  Page 18  |  Page 19  |  Page 20  |  Page 21  |  Page 22  |  Page 23  |  Page 24  |  Page 25  |  Page 26  |  Page 27  |  Page 28  |  Page 29  |  Page 30  |  Page 31  |  Page 32