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clinical decision support DICOM Products

Medical Devices vs. Drugs: ClinFlows is your provider for medical image exchange in clinical trials

The clinical trial landscape for new medicines and medical devices continually expands. Working with a software provider that has extensive experience in this area is becoming increasingly important for sponsors and clinical research organizations (CROs).  Although similar goals are shared, there are inherent differences between clinical trials for the two product types.

Regulatory requirements, clinical study designs, and the on-site team composition reflect this disparity, making drug trials typically longer and more complex than device trials. In this blog post, we’ll explore the key distinctions and show you how ClinFlows can support you along the way by simplifying complex study workflows, especially concerning medical imaging and data exchange.

Medical Devices vs. Drugs - Clinflows

Navigating the Regulatory Maze

Pharmaceuticals: A Rigorous Approval Process

In the United States, market approval for medicines is regulated by the Center for Drug Evaluation and Research (CDER) of the Food and Drug Administration (FDA). After extensive clinical studies, manufacturers submit a New Drug Application (NDA) or Biologics License Application (BLA). This process ensures that new medicines are safe and effective for public use.

In Europe, the responsible regulatory authority is the European Medicines Agency (EMA). In collaboration with National Competent Authorities (NCAs) drugs are approved centrally or through national regulatory routes, depending on the market entry strategy chosen by the manufacturer.

Despite both regions demanding rigorous testing and post-market monitoring, the structure and execution of these regulations differ, impacting timelines and complexity.

Medical Devices: Risk classification is key

For manufacturers of medical devices, it is a different situation. Here, the regulatory focus shifts to a detailed examination of engineering, mechanical function, and the device’s performance (efficiency) in the body.

Unlike pharmaceuticals, medical devices are categorized by risk classes:

  • Low- to Moderate-Risk Devices: Class I/II in the USA and Class I/IIa in Europe. Comparable data are often available for these devices, potentially bypassing the need for clinical investigations.
  • High-Risk Devices: Class III devices, in the USA, and Class IIb/III devices, in Europe, require more extensive scrutiny.

In the United States, the FDA’s Center for Devices and Radiological Health (CDRH) manages market authorizations of high-risk devices through a Premarket Approval (PMA). For low-risk devices, the 510(k) process is utilized.

In Europe, the Medical Device Regulation (MDR 2017/745) mandates clinical investigations for all Class IIb/III devices with Notified Bodies assessing data for CE marking.

Clinical Trials: Different Paths to Market

Pharmaceuticals: Standard Progression through Phase 1-3

Clinical drug trials are highly structured and typically follow these phases:

  1. Phase I: Evaluates safety and dosage in a small group of healthy volunteers.
  2. Phase II: Explores efficacy and side effects in a larger patient group with the target condition.
  3. Phase III: Confirms effectiveness, monitors side effects, and compares the drug to commonly used treatments in large populations.

Drug development can often take up to 10+ years, with a few exceptions, such as specific fast-track or orphan drug designations. The long timelines are mainly caused by the extensive clinical testing required and the fact that manufacturers cannot speed up the process by risk classification and clinical equivalent data of existing therapies.

Medical Devices: A More Flexible Approach

  • Pilot Studies: Evaluate safety and functionality in a small group of patients
  • Pivotal Studies: Confirm safety and efficiency in a larger patient population, akin to Phase III in pharmaceuticals.

Bringing a medical device from concept to approval takes approximately 3 to 7 years.

Phase IV: Ongoing Surveillance for Both

Phase IV refers to post-market surveillance studies to continuously monitor the product’s safety and efficacy or performance in the general population. Both pharmaceuticals and medical devices engage in this crucial phase to ensure long-term patient protection.

The Stakeholders on-site: Who’s Involved?

Behind every successful clinical trial is a dedicated team of professionals on-site:

  • Investigators: In pharmaceutical trials, investigators are usually physicians with extensive expertise in a specific therapeutic area. In medical device trials, investigators can also be surgeons, specialized clinicians, or technical experts.
  • Clinical Research Coordinators and Study Nurses: Manage daily study operations, patient coordination, and data collection.
  • Technical Staff: Certain clinical investigations require medical imaging staff on site for DICOM data collection and image-based patient eligibility checks. Additionally, device trials, often involve highly trained technicians and programmers to set up, maintain, and calibrate devices. In drug trials, there is no need for this technical expertise.

Understanding the different team compositions and tasks on-site in drug and medical device trials can enhance collaboration between sponsors, CROs, and software providers and help to efficiently manage your clinical workflows.

How ClinFlows Can Simplify Your Clinical Study?

When it comes to medical imaging, ClinFlows is your trusted partner.

In early-phase trials, patient data and medical images (DICOMs) need to be reviewed to determine eligibility.  We provide you with the necessary tools to quickly and safely exchange this information with other stakeholders, for second opinions and/or screening reviews. You can ensure that the right patients participate in the trial while saving great time and travel expenses.

Do your projects involve central imaging reads? Then quality checks of images, timely communication, and data handling between different electronic systems can sometimes be a challenge. With almost 15 years of experience, we know about the particularities of medical image exchange in clinical drug and medical device trials. We can tailor our online solutions to your specific needs, making complex workflows easily manageable.

Ready to optimize your clinical trials? Contact ClinFlows today to discover how we can assist with medical imaging and data exchange.

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clinical decision support DICOM dicomdrop GDPR Products

How to Use dicomdrop: Secure and Convenient Transfer of Medical Images in DICOM Format

Due to increasing interdisciplinary cooperation between medical specialists and the digitalization of healthcare in general, efficiently transferring medical images in DICOM format is crucial, especially in fields like medical device development, clinical research, and physician consultations. This process, however, comes with its own set of challenges, such as ensuring the secure transmission of these files while adhering to stringent data protection laws like the GDPR. In this article, we introduce dicomdrop, an easy-to-use yet powerful, privacy-compliant solution from ClinFlows for the online transfer of medical images.

The era of using physical media, such as CDs or DVDs, for exchanging medical images is fading, especially when data exchanges between physicians or medical experts are needed quickly. Today, the focus is on smarter, digital solutions. DICOM files, which contain both critical image data and sensitive patient information, demand an advanced approach to ensure secure and confidential transfers.

Facing these challenges head-on requires a strategic shift to digital platforms that prioritize security and compliance. While general web-based file-sharing platforms offer convenience for regular, non-regulated data, they are typically not designed to adequately manage DICOM file structures or maintain patient privacy by treating metadata (DICOM tags) which contain patient’s private information. This is where specialized tools like dicomdrop make a significant difference.

dicomdrop: A Tailored Solution for Secure Image Exchange 

dicomdrop is a state-of-the-art, web-based tool designed specifically for the secure exchange of medical images. It facilitates the quick, effortless transfer of DICOM files in a manner that fully complies with data protection regulations. One of its standout features is the ability to anonymize defined DICOM tags, ensuring that only pseudonymized or fully anonymized data sets are exchanged, depending on the need, and provided consent of the patient. Technical and organizational measures, like encryption during data transfer and during the controlled hosting of data, are mandatory prerequisites provided by dicomdrop, in order to meet GDPR requirements.

Choosing dicomdrop means peace of mind, knowing that your medical image transfers are not only secure but also fully compliant with privacy regulations. This eliminates risks associated with unauthorized access to sensitive patient data and ensures adherence to GDPR standards. Still, every data controller dealing with medical images is responsible for obtaining the patient’s consent before sharing their medical information.

Beyond security, dicomdrop excels in project management efficiency. Whether you are collaborating on a research project, seeking expert medical opinions, or involved in medical device development, dicomdrop streamlines your workflow and manages DICOM transfers effectively within your projects. Sponsors or initiators of a clinical project can take care of the payment for the dicomdrop service and invite their participating physicians to use the service within a clinical project.

Here’s how dicomdrop works:

  1. Go to https://dicomdrop.com and register to begin.
  • Receive three complimentary credits for your initial DICOM transfers. Additional credits can be purchased for 5 Euros each.
  • Enter up to 7 recipient’s email addresses.
  • Compress your DICOM folder or CD into a single file (zip) and select or simply drag and drop it onto dicomdrop. The maximum file size is 4 GB.
  • Utilize our integrated anonymization and de-identification features. Choose from “Full Anonymization,” “De-Identification,” or “No Anonymization” to ensure data privacy.
  • Use the CASE ID feature. This ID automatically replaces the patient’s name (DICOM tag 0010,0010), making case tracking very simple. This feature is often used within clinical studies.
  • Click “Send” to initiate the data protection-compliant, real-time transmission of your DICOM data. 

All participants of the transfer are informed by automated email notifications about available data downloads. Data is deleted automatically after 10 days.

Additional Benefits:

  • Create collaborative projects, ideal for clinical studies, especially for investigator-initiated studies.
  • Sponsors can provide credits and invite all project participants.
  • No software installation required; a web browser and internet connection are all you need.
  • Self-explaining and very easy to use.

Curious to see how it can transform your medical image transfer process? Register at dicomdrop.com, claim your free credits, and experience this innovative tool firsthand.

Have further questions or would like a demo? Contact us at info@clinflows.com.

Categories
Case Study clinical decision support decidemedical GDPR

Case study: How to provide clinical decision support during post-training phase

They are essential to our health: new medical products. Every year, medical device manufacturers, biotech companies, and pharmaceutical companies spend billions to develop them – and then millions to train and educate physicians to know how to use them and how to best help patients. But what happens after that, and how can medical product manufacturers support physicians when it comes to treating real people?

Once a medical product or treatment has been developed, various methods are initially used in the training phase. These range from descriptions and instructions supported by e-learning platforms, videos and audio files to sophisticated training centers with hands-on learning in real operating room facilities with training on animals or cadaver explants. Simulation software and 3D-printed artificial materials to mimic real-world scenarios are also emerging technologies for training and preparing physicians to use new treatments.

Time gap between training and first patient treatment

All of these efforts are designed to prepare medical teams for the moment when a real patient is to be treated. Right after training, what usually happens first is…. nothing! That’s because often the first treatment of a real patient doesn’t happen until weeks or months after training. This is the moment when training and reality meet. 

Now it’s up to the physician in his or her clinic to decide whether the patient meets the criteria for a particular implant or interventional treatment. The physician may need to select the right size implant or decide on the access route. 

Assessment of medical images vital during post-training-phase

Medical images play a key role in the best treatment outcome, such as methodological selection and determining the size of an implant. And this is where medical device manufacturers can come in: Namely, by supporting physicians with a second opinion at these critical moments. But this is not always so easy and, above all, often too slow, for example because of a physical distance. It is not uncommon, for example, for the attending physician and his patient to be located in Europe, but the manufacturer in the USA, and for medical images to be exchanged by mail.

Clinical decision support via web-based tools to ensure the best treatment possible

A straightforward and secure solution here can be provided by web-based clinical decision support tools, such as our GDPR-compliant online solution decidemedical, which has been used by the medical device industry for ten years. With its help, clinicians can upload their clinical data and medical images and submit them securely and compliantly to industry experts to either get their opinion on the suitability of a case or industry provides sizing services. Clinical experts from the manufacturer review and measure the medical images using specialized imaging software and submit their assessments to the physician via the web-based platform to recommend the best treatment option and implant size.

The benefits to the physician, the industry – and most importantly, the patient – from using web-based Clinical Decision Support tools in the post training phase are clear:

  • Utilization of existing medical expertise,
  • available worldwide,
  • fast turnaround time,
  • enables a controlled product launch,
  • efficient customer support,
  • compliance with regulations, and it’s
  • accessible from anywhere – no software required.

How do you manage physician support in the post-training phase? And how does your clinical team share medical images with the different sites?

Discuss here or contact us at info(at)clinflows.com