Healthcare Industry Webcast Series: Discovering and Adopting in Silico Modeling
Ninety-six percent of the top 50 healthcare companies in the world are using engineering simulation and computer-based models routinely. Leading medical device companies are realizing that a large fraction of their engineering force should be using simulation regularly. The FDA and other regulatory authorities encourage the adoption of computer models and simulation (CM&S) — also known as the “in silico” approach — to accelerate the approval process. But many companies are still unsure of how best to adopt and deploy this technology. This monthly webcast series shares the knowledge and experience of ANSYS experts and our partners to guide you in the strategic adoption of engineering simulation.
Webinars on Demand
How Particles Issues Can Ruin Your Pharmaceutical Process — and the Modeling Solution to Avoid It
In the pharmaceutical industry, granular materials are handled by equipment that perform processes such as powder mixing and blending, powder compaction, granulation and tablet coating. Pharmaceutical equipment design is very important to the control of the tablet mixing to avoid defects such as tablet erosion, over-coating, and high coating variability between the tablets.
Attend this webinar and learn how DEM and CFD simulations can be used to predict tasks like tablet mixing in a coating operation. Find out how to improve and develop high-efficiency pharmaceutical equipment design.
Modeling a Dielectrophoresis-based Application to Personalize Cancer Treatment and Increase Recovery Rates
Modern bio-medicine practitioners are showing increasing interest in dielectrophoresis (DEP) because of the recent progress in the development of micro-electrodes. DEP gives you control of the trajectories of bio-particles (tumor cells, white blood cells, bio-markers, etc.), resulting in efficient separation and/or selective trapping with low particle damage.
View this on-demand webinar and learn how using ANSYS simulation as a virtual prototyping tool can shorten the path to commercialization of this technology and make it more robust and repeatable. We will demonstrate how to explore and optimize electrode design and operating conditions to adapt them to the specific properties of bio-particles.
Preventing Surgical Site Infections in Modern Operating Rooms
“The solution to pollution is dilution” has long been the standard philosophy when it comes to cleanroom applications of HVAC equipment. However, preventing surgical site infections (SSIs) in modern operating rooms is often associated with ensuring laminar downwash of air over the patient on the operating table. While some research indicates that laminar flow is indeed the answer, other works contraindicate this finding, concluding that laminar airflows are no more or less effective than dilution methods in preventing SSIs. Using ANSYS CFD, Nortek Air Solutions has been able to demonstrate that their Cleansuite products meet both laminar downwash and dilution design requirements, ensuring that operating rooms fitted with Nortek cleanroom products are as safe as possible for patients.
View this webinar and learn how computational fluid dynamics (CFD) can help to optimize airflow in the operating room and prevent surgical site infections (SSIs). Concrete examples as well as the benefits of this innovative modeling approach will be discussed.
In-silico Modeling of the Patient-specific Heart
The predictive modeling of cardiac mechanics to accurately reproduce the heart’s functionality and response to external disturbances remains a challenging task. The need to assess multiple physical domains — structural mechanics, fluid dynamics and electrophysiology — places high demands on numerical solution strategies.
We will present a high-resolution, 3-D, nonlinear finite element model of patient-specific heart geometries and function. The model includes an active material law prescribing the ventricular contraction along a generic muscle fiber orientation and a passive component that captures the highly anisotropic nonlinear behavior of the myocardium.
By coupling the structural model with the ventricular blood compartments, which act as zero-dimensional fluid representations of the cardiovascular system, we can model venous return by assuring conservation of volume within the closed loop circulatory system. The resulting monolithic, multifield system of equations, provides a physiologically meaningful solution of heart contraction mechanics for in silico modeling of medical device and novel disease treatment.
Computational-based MRI Thermal Injury Risk Assessment for Patients implanted with Passive Spinal Devices
Using computational modeling and simulation (CM&S) to generate evidence that a medical device meets regulatory standards is evolving quite rapidly. Regulatory agencies such as the FDA are increasingly accepting simulation data as part of the approval process. In this webinar, we will address the use of CM&S to assess the safety of patients with implanted passive devices who must undergo MRI scanning. The goal is to answer the question, “Will radio-frequency field interaction with the implanted device induce unsafe high temperatures in the surrounding tissues?”
View this webinar to learn more about the role of CM&S as a tool in generating evidence for MR device safety. The speaker will also cover important topics such as worst-case selection methodology and computational model verification, validation and uncertainty quantification.
Closing the Loop on Medical Device Systems Simulation: An Insulin Delivery System
Computational modeling is recognized by both industry and regulatory agencies as an alternative to physical testing, but it has historically been used in silos with minimal collaboration between various design disciplines and engineering departments. To address the needs of today’s product development teams, ANSYS has developed a multi-domain, system simulation and digital prototyping platform that enables multi-specialty teams with diverse engineering backgrounds to work in unison to achieve a deep understanding of integrated product behavior.
Attend this webinar to learn about a systems simulation solution of a wearable insulin pump that illustrates the complexities of developing these multi-disciplinary systems. The model includes evaluation of various physical components, control algorithms, display interfaces and power electronics. In addition to the presentation, a live demo will show how various components can be combined to model the drug delivery sub-system using a hardware-in-the-loop approach.
Coupling HumMod to ANSYS Fluent: A Tool for Advanced Patient-Specific Simulation
Computational fluid dynamics has long been a resource for understanding how geometry and physics influence bodily function. But CFD is only part of the equation. Human physiology is determined by biological and physical factors that influence, and are influenced by, the objects of CFD models; combining these two domains is critical for increased validity of simulations. Combining HumMod, a lumped parameter model of human physiology, with advanced 3-D CFD tools like ANSYS Fluent will enable researchers, clinicians and healthcare companies to better understand proposed physiological mechanisms and interactions, allowing higher level properties of complex physiological systems to emerge.
This webinar illustrates unsteady breathing in Fluent with boundary conditions imported from HumMod as an example of the work in progress.
Changing Development And Manufacturing Paradigms in Biopharmaceutical Operations
This webinar provides a compelling overview of how predictive models are used at various stages of development and manufacturing in the biopharmaceutical industry. Case studies covering a wide range of the biologic product chain from drug substance to drug product and devices are presented, to show how modeling contributes to the scientific advancement, strategic objectives, and bottom line of our technical operations at Biogen. While our main focus is on mainstream applications of CFD modeling in the biopharmaceutical industry, non-traditional uses of CFD and other first-principles modeling techniques will also be presented here. Through this presentation, we intend to provide inspiring perspectives on the value of predictive models and advocate their increased adoption in the Biopharmaceutical industry.
New Orthopedic Shoulder Implants: Optimized through Patient Specific Multiphysics Modeling
For more than 20 years, the orthopedic sector has widely adopted engineering simulation and finite element analysis to accelerate the development of new implants. Today, most hip prostheses, knee joints and spinal implants are optimized through computer modeling. During the last few years leading orthopedic companies have developed an in silico testing approach, which enables them to test new prototypes on a relatively large population of virtual patients.
Attend this webinar to learn how ANSYS simulation solutions can give you a more detailed understanding of all articulations including the shoulder, elbow, wrist and ankle. For patient-specific implants to become standard, including synovial fluid and electromagnetic interaction modeling are the obvious next steps. Learn about a workflow that takes you from patient to simulation, while including fluid–structure interaction behavior in your shoulder model.
How the InSilicoTrials.com Platform Can Help Define Good Simulation Practices
Recent reports by the EU Council and U.S. Congress encourage a number of innovative approaches to streamline the regulatory approval process for approving medical devices, including the large-scale adoption of computer-based models. The extensive use of simulation in clinical research will lead to the definition of Good Simulation Practice (GSP) standard guidelines for computer modeling and testing as Good Clinical Practices (GCP) are used in traditional clinical trials.
Attend this webinar to learn how the web-based platform, InSilicoTrials.com, will provide healthcare companies with an easy-to-use tool to perform computational testing on their devices during the development and validation process.
How to Successfully Address Embedded Software Challenges for the Medical Device Industry
With the rapid increase of biotronics, especially wearable and implantable electronic medical devices, the pressure on biosoftware engineers to produce code to complement the hardware is growing rapidly. This code must be able to properly interpret large amounts of continuously acquired data and to deduce relevant diagnoses, possibly leading to immediate actions. Because many of these products and systems will be safety critical — defibrillators, for example — the control software must operate flawlessly and satisfy stringent software safety certification requirements from regulatory authorities (FDA, EU, etc.).
Attend this webinar to discover how the ANSYS model-based embedded software development and simulation environment — with a built-in (and safety certified) automatic code generator — significantly accelerates the pace of embedded software development projects, including complex user interfaces and control software. Learn how the use of familiar ANSYS tools can help medical engineers make mobile health smarter and more effective.
How Simulation is Assisting with the Adoption of Internet of Things Through the Development of Smart Medical Implants
Digital health is taking healthcare by storm and is expected to reach $233.3 billion by 2020, driven particularly by the mobile health market. Connected medical devices and associated services are perceived to be able to offer safer and more effective healthcare. Novel connected medical device examples include Saluda’s closed-loop neuromodulation system for pain management, EBR’s wireless pacing system and St Jude Medical’s wireless-enabled pacemaker – all examples of implants with wireless connectivity.
A key challenge for medical device designers is to understand and optimize the communication between the device and the receiver. Pioneering companies like Cambridge Consultants were early adopters of engineering simulation to model the behavior of medical devices and their communication components, together with the surrounding environment – and particularly ‘through-body’ communication. In this webinar, we will discuss the growing importance of connectivity and the necessity of using computer-based modeling to enable this critical technology. Cambridge Consultants will also present a case study that highlights the use of computer modeling to quantify the impact of different body morphologies on implant radio performance. An understanding of these coupled with use case and end user morphology will define if the radio performance is incredibly successful or marginally adequate.
Leveraging Engineering Simulation in the Development of Vaccine Delivery Devices
Intranasal delivery can provide better protection than traditional injected vaccines for diseases such as influenza due to mucosal and cross-protection. But current intranasal delivery technology uses expensive and difficult-to-manufacture vaccines inefficiently. Creare has recently developed two novel vaccine delivery devices: a dry powder inhaler (DPI), which effectively delivers the vaccine dose to targeted regions of the nasal tract; and an ultra-compact InVaxTM intranasal nebulizer for liquid vaccines, which is an optimal platform for large-scale influenza vaccination.
Attend this webinar to learn how Creare used ANSYS Fluent for aerodynamic design and nasal deposition modeling in support of the DPI device development. Discover how analyses performed with ANSYS Mechanical were used to design the piezoelectric actuator, a key component in the aerosol generation process for the InVax device.
10 Compelling Reasons to Upgrade to ANSYS 17.0 for Healthcare Applications
In silico medicine enables doctors to customize a treatment based on simulations run on models of the patient’s own anatomical geometry, which can be obtained from various scanning methods. Such patient-specific treatments understandably achieve better clinical results. ANSYS 17.0, with hundreds of enhancements across all physics, could be a significant catalyst in the discovery of many more devices and applications in this expanding medical sector.
Attend this webinar to learn how advances in ANSYS 17.0 could boost medical innovation by a factor of ten (10x) by accelerating computation time, increasing adoption of simulation by non-expert users, and multiplying the reliability and safety of new medical devices. Discover 10 reasons why enhancements to ANSYS fluid, mechanical, electronic and systems simulation software can benefit all healthcare sectors — cardiovascular, orthopedic, pharmaceutical, hospital and medical supplies, diagnosis — through increased use of in silico medicine.
How Engineering Simulation can Facilitate the Addition of Internet of Things to Medical Devices
Healthcare providers are demanding technologies that reduce overall costs for the prevention or management of chronic illnesses. This category includes technologies that use devices that constantly monitor health indicators; devices that auto-administer therapies; or devices that track in real-time when a patient self-administers a therapy. Engineering simulation solutions from ANSYS are making medicine participatory, personalized, predictive and preventive (P4 medicine) via the medical Internet of Things (IoT).
Attend this webinar to learn how medical device engineers are designing IoT devices with increasing requirements for thermal and power management, ruggedness, miniaturization, number of sensors, wireless capabilities, MR compliance, etc. Discover how ANSYS simulation solutions have the potential to increase both the effectiveness and affordability of healthcare by expanding the medical IoT.
Vertical Medical Applications: Bringing Simulation to Clinicians
For years clinicians have progressively discovered the benefits that engineering simulation can bring to medicine. Still, fidelity of simulation for a large variety of patients, computational time and ease of use of existing general purpose tools have remained strong entry barriers to simulations for doctors. Now, building on their long medical and engineering experience and taking advantage of new ANSYS 17.0 capabilities to further improve their inventions, medical entrepreneurs are increasingly customizing ANSYS solutions to their clinical needs.
Attend this webinar to learn how two entrepreneurial clinical groups have adapted ANSYS software for new medical treatments. Discover how BRACESIM, developed by Rodin 4d, assists orthotists in customizing braces to treat scoliosis, decreasing the number of physical iterations needed to get the right brace, while reducing brace weight and increasing patient satisfaction. And find out how WOST, created by Sim & Cure, provides crucial assistance to neurosurgeons treating cerebral aneurysms by performing patient-specific stent development in less than 15 seconds.
What are Healthcare Thought Leaders Foreseeing for 2016?
Patients and healthcare professionals have great expectations that 2016 will make some of the major medical advances talked about in 2015 available to clinicians. Thought leaders in healthcare clinical practice and in the medical device field are predicting major progress in the medical Internet of Things (Medical IoT), in silico clinical trials and personalized medicine.
Attend this webinar to meet some of these healthcare innovators and learn about their thoughts and expectations for 2016. What developments can we reasonably expect to see in this field in the coming months, and how will engineering simulation accelerate new devices to market? By interviewing a few key thought leaders in this webinar, we will help you gain some deep insight into major initiatives that will advance healthcare in the near future.
Quality by Design: Using Simulation for Biotech and Pharmaceutical Mixing Tank Scale-Up: No Need of CAE Experts Anymore
Mixing tank design scale-up has traditionally required a large number of CAE experts. While engineering simulation has strongly reduced development costs and time to market, using CAE experts made this task increasingly cost-prohibitive, until now. Join us for this webinar to discover how the ANSYS India team, working with some pharma and biotech leaders, developed a simplified, customized interface for ANSYS Fluent that enables non-expert users to set up advanced mixing tank modeling. Learn how this innovative mixing tank template allows new users to gain simulation experience, while freeing up CAE experts for more advanced tasks.
Quality by Design: The Strategic Role of Simulation in this Essential Pharmaceutical Initiative
Quality by Design (QbD) is a concept encouraged by the FDA that integrates quality into a product through understanding of both the product and the process by which it was manufactured. This webinar will provide an introduction to the application of CFD tools in the biopharmaceutical industry and will continue with two case studies. Both case studies will focus on designing production-scale bioreactors using CFD. The first will summarize a DOE-based design of bioreactor to optimize gas sparging, and the second will describe a methodology to engineer and design a production-scale bioreactor that reduces the risk of scaling-up a microcarrier-based mammalian cell culture process.
VHP-Female Computational Human Phantom and Its Use in ANSYS HFSS and ANSYS Maxwell 3-D
It’s a challenge to model the human body’s interaction with electromagnetic, structural, thermal and acoustic stimuli. One large limitation is the availability of anatomically accurate and numerically efficient computational phantoms. In this study, we disclose a new computational phantom designed specfically for ANSYS HFSS and ANSYS Maxwell 3-D.
AirPROM: Airway Disease Predicting Outcomes through Patient Specific Computational Modelling
AirPROM (Airway Disease Predicting Outcomes through Patient Specific Computational Modeling) is a five year European project; it aims to produce computer and physical models of the whole airway system for people with asthma and chronic obstructive pulmonary disease. Using a model of a patient’s own airway system and simulating its functionality through software could help to improve diagnoses, treatments and outcomes for people suffering from these conditions.
In Silico Modeling of the Cardiovascular System
Use of in silico, patient-specific models has become popular for both the design of medical devices and personalized therapies. In silico, or computer-simulated, models based on medical imaging of the cardiovascular system can provide invaluable data on the in vivo environment, where medical devices are deployed and surgery is carried out, and can predict outcomes of alternative therapeutic interventions for individual patients.
How ANSYS SpaceClaim Will Help You Streamline In Silico Testing and Computer Aided Surgery
Customizing surgical treatments and medical devices by incorporating patient-specific geometries in simulations opens the door to better, more successful healthcare. Patient-specific geometries typically come from medical scans — MRI, PET, CT — and they often require preprocessing for accurate simulations. In this webinar, we will discuss how ANSYS SpaceClaim provides the medical community with new techniques to make editing of patient-specific geometries faster and easier, leading to better treatment planning and more successful outcomes.
Functional Respiratory Imaging: Accelerating Clinical Research
By combining High Resolution CT Thorax (HRCT) imaging and flow simulation (CFD), FLUIDDA has developed Functional Respiratory Imaging (FRI). FRI provides local information about the lung structure (using HRCT measurement) and function (using ANSYS CFD). This combination of imaging technology and engineering simulation was applied to more than 1,500 patients suffering from various pathologies, including asthma, COPD, cystic fibrosis, chronic sinusitis, idiopathic pulmonary fibrosis and others. For these patients, FRI provides a more detailed picture of how their treatment is working, and guides physicians to choose the optimal next steps for improved outcomes.
Implementing a Microstructure-enhanced Material Model using ANSYS USERMAT for the Prediction of Bone Failure
Continuum FE models of bones and bone-implant configurations have become a standard tool to estimate bone strength. These models are usually based on clinical CT scans. In virtually all of these models, material properties assigned to the bone elements are chosen as isotropic with a stiffness based only on the density distribution. It has been shown, however, that trabecular bone can be highly anisotropic and it shows elastic plastic damage mechanical behaviour with softening.