• Login
    • Join
  • FOLLOW:
  • Subscribe Free
    • Magazine
    • eNewsletter
    Checkout
    • Magazine
    • News
    • Opinions
    • Top 30
    • Research
    • Supply Chain
    • Device Sectors
    • Directory
    • Events
    • Resources
    • Microsites
    • More
  • Magazine
  • News
  • Opinions
  • Top 30
  • Research
  • Supply Chain
  • Device Sectors
  • Directory
  • Events
  • Resources
  • Microsites
  • Current / Back Issues
    Features
    Editorial
    Digital Edition
    eNewsletter Archive
    Our Team
    Editorial Guidelines
    Reprints
    Subscribe Now
    Advertise Now
    Top Features
    Pharmaceutical Focus: A Look at Combination Products

    The Printed World: Additive Manufacturing in Medtech

    The Lost Year: 2020 Year in Review

    Extrusion Evolution

    Little Big Parts: Micromolding Under the Microscope
    OEM News
    Supplier News
    Service / Press Releases
    Online Exclusives
    Press Releases
    People in the News
    Product & Service Releases
    Supplier News
    Medtech Makers
    Technical Features
    International News
    Videos
    Product & Service Releases
    Live From Shows
    Top News
    Spectrum Solutions Collaborates with UCLA School of Dentistry

    Kwivik Therapeutics, EirMed Partner to Accelerate Product Commercialization

    Europe Marks its First Successful Remote Robotic-Assisted Coronary Angioplasty

    Twist on Heart Valve Design Boosts Blood Flow, Prevents Clots

    FDA Clears 3D Acellular Dermal Matrix
    From the Editor
    Blogs
    Guest Opinions
    Top Opinions
    Pharmaceutical Focus: A Look at Combination Products

    The Printed World: Additive Manufacturing in Medtech

    The Lost Year: 2020 Year in Review

    Extrusion Evolution

    Little Big Parts: Micromolding Under the Microscope
    Top 30 Medical Device Companies
    Market Data
    White Papers
    Top Research
    Fixing Face Mask Form and Function

    The Heart of the Matter: Trends in Cardiology

    Virtually the Same? The Challenges of Online Conferences

    Digital Health Delivers During a Year for the Ages

    Advanced Technology for Staking and Swaging Medical Plastics
    3D/Additive Manufacturing
    Contract Manufacturing
    Electronics
    Machining & Laser Processing
    Materials
    Molding
    Packaging & Sterilization
    R&D & Design
    Software & IT
    Testing
    Tubing & Extrusion
    Cardiovascular
    Diagnostics
    Digital Health
    Neurological
    Patient Monitoring
    Surgical
    Orthopedics
    All Companies
    Categories
    Company Capabilities
    Add New Company
    Outsourcing Directory
    Creganna Medical, part of TE Connectivity

    PTI Engineered Plastics Inc.

    Qosina Corp.

    K-Tube Technologies

    MW Life Sciences
    MPO Summit
    Industry Events
    Webinars
    Live From Show Event
    Industry Associations
    Videos
    Career Central
    eBook
    Slideshows
    Top Resources
    Meeting Critical Ventilator Product Requirements Amid Pandemic

    Impact of COVID-19 on the Medtech Supply Chain

    Finding the Upside to a Challenging Year

    Preparing Your Design Controls for FDA Approval

    A 'Trial and Error' Approach to Micromolded Parts
    Companies
    News Releases
    Product Releases
    Press Releases
    Product Spec Sheets
    Service Releases
    Case Studies
    White Papers
    Brochures
    Videos
    Outsourcing Directory
    maxon

    K-Tube Technologies

    Medicoil

    Spectrum Plastics Group

    MW Life Sciences
    • Magazine
      • Current/Back Issues
      • Features
      • Editorial
      • Columns
      • Digital Editions
      • Subscribe Now
      • Advertise Now
    • News
    • Directory
      • All Companies
      • ALL CATEGORIES
      • Industry Associations
      • Company Capabilities
      • Add Your Company
    • Supply Chain
      • 3D/Additive Manufacturing
      • Contract Manufacturing
      • Electronics
      • Machining & Laser Processing
      • Materials
      • Molding
      • Packaging & Sterilization
      • R&D & Design
      • Software & IT
      • Testing
      • Tubing & Extrusion
    • Device Sectors
      • Cardiovascular
      • Diagnostics
      • Digital Health
      • Neurological
      • Patient Monitoring
      • Surgical
      • Orthopedics
    • Top 30 Company Report
    • Expert Insights
    • Slideshows
    • Videos
    • Podcasts
    • Resources
    • eBook
    • Infographics
    • Whitepapers
    • Research
      • White Papers
      • Case Studies
      • Product Spec Sheets
      • Market Data
    • MPO Summit
    • Events
      • Industry Events
      • Live From Show Events
      • Webinars
    • Microsite
      • Companies
      • Product Releases
      • Product Spec Sheets
      • Services
      • White Papers / Tech Papers
      • Press Releases
      • Videos
      • Literature / Brochures
      • Case Studies
    • About Us
      • About Us
      • Contact Us
      • Advertise with Us
      • eNewsletter Archive
      • Privacy Policy
      • Terms of Use
    Online Exclusives

    3D Printing Helps Researchers Translate Medical Breakthroughs into Lifesaving Technologies

    EOS supports University of Michigan to customize biocompatible material for on-site patient-specific additive manufacturing.

    3D Printing Helps Researchers Translate Medical Breakthroughs into Lifesaving Technologies
    Dr. Scott Hollister, a professor of biomedical engineering at University of Michigan, and Dr. Glenn Green, a pediatric otolaryngologist.
    3D Printing Helps Researchers Translate Medical Breakthroughs into Lifesaving Technologies
    The EOS FORMIGA P 100 upon which the implants were additively manufactured (3D printed).
    3D Printing Helps Researchers Translate Medical Breakthroughs into Lifesaving Technologies
    The two splints attached to a model of a trachea (that was based on scan data from an actual patient). (Credit: Leisa Thompson, Photography/UMHS)
    3D Printing Helps Researchers Translate Medical Breakthroughs into Lifesaving Technologies
    Kaiba Gionfriddo was the first child to receive the 3D printed implants.
    3D Printing Helps Researchers Translate Medical Breakthroughs into Lifesaving Technologies
    Photo shows two splints as they come out of the 3D printer. (Credit: Leisa Thompson, Photography/UMHS)
    Related CONTENT
    • IRADIMED Names Chief Operating Officer
    • Biodegradable Polymer Coating for Implants
    • Beyond Prototyping: The Promises and Problems of 3D Printing
    • Hacking Medtech: Not a Question of When, but Who Will Be First?
    • ARC Devices Appoints New Chief Technology Officer
    Lynn A. Manning, Technical Writer11.24.15
    An adolescent girl has now joined the cohort of three baby boys and one baby girl who’ve received novel 3D-printed tracheal splints to treat a congenital breathing condition called tracheobronchomalasia (TBM). All five continue to thrive thanks to the surgical procedures that helped their collapsed airways function normally and saved their lives.

    The first child is now nearly four years old and an active preschooler. And, as planned by researchers at the University of Michigan who used additive manufacturing (AM) to produce the splints right in their laboratory, the boy’s own tissues have successfully taken over the job of the implant, which has been almost completely reabsorbed by his body.

    The five life-saving procedures took place under FDA Emergency Clearance; the surgeries were performed at C.S. Mott Children's Hospital, Ann Arbor, MI, which is affiliated with the University’s medical school. Now the engineering and surgical team that designed, built, and implanted the splints is applying for an Investigational Device Exemption (IDE) from the FDA to treat an additional 10 patients. And they are preparing for a larger clinical trial that will compare the splint’s performance against the traditional solution of keeping a child with TBM on a ventilator.

    “We’re at a state-of-the art stage now,” said Dr. Scott Hollister, a professor of Biomedical Engineering who conducts research with his team in the biomedical engineering department of the university. “We evolved the design a bit from the very first patient so it’s now pretty automatic to generate an individualized splint design and print it; the whole process only takes about two days now instead of three to five.” (See sidebar.)

    Designing an Implantable Device for Additive Manufacturing

    Customizing a tracheal splint for an individual patient is an exercise in precision. The University of Michigan bioengineering team starts with patient data (from magnetic resonance imaging or computed tomography) scans to determine the extent of the defect to be repaired and the dimensions of the patient’s existing anatomy. Computer models of this anatomy are then made from the data using Materialise Mimics software. The design engineers then use Mimics as well as their own custom software (written in MATLAB) to create a model of the splint that best addresses each defect, with circular bellows for support and flexibility, and suture holes so the surgeon can fix the implant in place. The splints are designed with a highly compliant, porous structure of interconnected spaces—in the future these could potentially be infused with biologics that greatly enhance tissue ingrowth—and slowly expand along with the maturing airway over time. Topology optimization software perfects each complex shape with the least amount of material possible. Next the function of the implant is simulated, as attached to the airway with sutures, with nonlinear finite element analysis to ensure that it will operate properly and stand up to years inside the body. Finally the splint is manufactured via the EOSINT P 100 system. Multiples are usually made, or “grown,” of the same device, so they can be put through quality control analysis prior to implantation.

    “Laser sintering is one of the only methods I know that allows us to actually fabricate these complex designs,” said Dr. Hollister.

    After fabrication, the researchers measure the splint dimensions and then mechanically test them (compression, tensile opening, and three-point bending) to confirm that the fabricated splints meet the quantitative design outputs.

    “We always have confidence that when we make a design within our fabrication parameters that we can build it on our EOS system,” said Dr. Hollister.

    Surgery to install a splint, which wraps around the outside of a collapsed airway, usually takes about four to eight hours, depending on the condition of the patient and if there are other issues that must be addressed. The splint-supported trachea expands and is functional right away so that when patients are weaned off oxygen, they are able to breathe normally.
    According to team surgeon Dr. Glenn Green, a pediatric otolaryngologist, phone calls and emails from parents and doctors asking about the “4D-printed splints” (so called because the implant expands with the child’s growth over time) continue to come into his office. “We should not have any difficulty getting enough participants for the clinical trial,” he said. It’s estimated that one in every 2,000 children is affected by the life-threatening condition worldwide.

    Dr. Green and his surgical team joined forces with Dr. Hollister to pioneer the patient-specific designs. The cross-pollination of ideas came about when the two were introduced by an alert colleague at the University—Dr. Green expressed a desire to try tissue engineering of babies’ trachea and the colleague knew that Dr. Hollister was working on 3D printing of engineered tissues.

    Specialized for Individual Needs
    Dr. Hollister’s group is also developing craniofacial, spine, long bone, ear, and nose scaffolds and implants—and producing them all using AM technology solutions from EOS to laser sinter a material with characteristics that promote reconstruction and regrowth following birth defects, illnesses, or accidents. While 3D printing is being adapted to serve an ever-widening breadth of industrial applications, it’s this kind of clinical translation of the technology to individual patient-specific solutions that is making life-altering history in the field of medicine.

    But there’s no huge biomedical device company behind the tracheal-splint breakthrough. “Large companies must understandably pursue those therapies that can recoup costs and make profits,” said Dr. Hollister. “Since we project that the tracheal splint will be needed for fewer than four thousand patients per year in the United States, we’ve begun by seeking a regulatory path through humanitarian device exemption.”

    So how did the relatively small university team achieve their feat of surgery-ready implants on an academic research budget? Computer-aided design sped up the engineering side and 3D printing provided cost-effective, patient-specific production. “Even if a market is relatively small, this doesn’t diminish the human need to be treated,” says Dr. Hollister. “Our additive manufacturing process is very efficient, and the cost is the same whether you are making one or 1,000 splints.”

    The United States Food and Drug Administration (FDA) has been extremely supportive and helpful to the team’s efforts to develop medical applications of laser sintering, Dr. Hollister noted. “This is a significant area of interest for them,” he said. “They see the future of personalized medicine to be partly founded on the ability to make patient-specific devices and implants using AM.” The FDA has published a whitepaper on the subject that includes an article (see page 9) about the tracheal splint.

    Applying Additive Manufacturing to Academic Research
    Dr. Hollister first learned about AM in the 1990s from his former Ph.D. advisor, who was using it to build complex structures designed with topology optimization software. “Later, when I started designing my own porous scaffolds for anatomic reconstruction, I realized that 3D printing would be useful for creating the complex geometries I had in mind,” he said.

    In 2006 Dr. Hollister and the University of Michigan purchased an EOSINT P 100 FORMIGA laser-sintering system to aid his research into scaffolds and biomaterials. “I chose EOS because we were looking for a system that was flexible and allowed us to change parameter settings like laser power, speed, bed temperature, and so on, which we needed to do to customize our builds,” he said. “Also, because biomaterials can be expensive and implants and scaffolds are typically not too large, we wanted a more limited build platform that didn’t use a lot of material. The P 100 fit the bill for both.”

    Dr. Hollister’s material of choice, polycaprolactone (PCL), was perfectly suited to Dr. Green’s tracheal implant idea when the two men joined forces. “We use PCL for a number of reasons,” Dr. Hollister said. “One, it has a long resorption time, which is very important for the airway application because the implant should remain in place for at least two years and then resorb. Two, PCL is very ductile and therefore, if it fails, it won’t produce particles that could puncture tissue. Third, PCL could be readily processed for, and fabricated on, our laser-sintering system.”

    Additive manufacturing expertise was provided by EOS, who helped the team on site in their laboratory, advising them on how best to prepare the material for production. While EOS offers a wide variety of proprietary materials for laser sintering of plastics and metals on different systems, the use of PCL was a first in this case.

    “We make a point of being very open in terms of materials,” said EOS medical business development manager Martin Bullemer. “We support academia in the development of their own parameters for novel materials on EOS systems and, if they are interested, with further guidance through an active consultancy such as this one with the University of Michigan.”

    Dr. Hollister welcomed the support. “EOS worked with us in the lab a great deal, helping us interact with the software that runs the P 100 and allowing us access with software patches to change the range of parameters of the machine to best sinter PCL,” he said. “They did this specifically for our department, which was very helpful.”

    The researchers purchase their raw PCL powder from Polysciences, Inc. and have it milled into a target particle size range of between 25 and 125 microns by Jet Pulverizer under Good Manufacturing Practice (GMP) conditions. The laser-sintering parameters include bed temperature (48-56 degrees C), laser power between 1 and 5.4 W, laser scan speed (900-1,800 mm/sec), and scan spacing (0.07-0.2 mm). “We published these parameters in a journal article in the ASME Journal of Manufacturing Science and Engineering1, which makes the technology accessible,” noted Hollister.

    Meeting Regulations with Design Control
    With the first clinical trials on the horizon, in which manufacturing will be done at the University of Michigan on the EOS P 100, Drs. Hollister and Green, as well as their team, are now focusing on meeting all the associated regulatory requirements for their work as it evolves and is applied to medical research and surgical solutions founded in AM. They’ve published a paper with the Biomedical Engineering Society2 that demonstrates how design control can be implemented in academic translation of scaffold-based tissue engineering therapies, using the examples of the tracheobronchial splint and a resorbable cervical-spine fusion cage.

    “We’re adopting a modular approach based around 3D printing to address the issues of expense for verifying and validating production processes,” said Dr. Hollister. “We’re trying to provide a roadmap for 3D printing of 4D biomaterials with FDA-required design control and standard operating procedures.”

    A Wide-Open Future
    While the University of Michigan collaborative group’s work on the tracheal splint and other otolaryngology applications is certainly unique, Dr. Hollister notef that a number of universities and research centers are also actively pursuing AM to build patient models, surgical guides, and implants. “Complete integration of patient-specific modeling, image-based design, simulation, and additive manufacturing technologies like laser sintering will enable an explosion of new medical devices and implants,” he said.

    His team is already investigating the use of other 3D-printed materials. “If we can expand the number of biomaterials used in laser sintering, we can tackle a tremendous amount of problems currently faced in all field of reconstructive surgery and make enormous strides for patients,” he said. The group has already collaborated with EOS customer Oxford Performance Materials to make a non-absorbable tracheal splint out of PEKK material (also laser-sintered on an EOS system, the high-temperature EOSINT P 800) for the 14-year-old girl mentioned earlier. “We expect that her trachea is basically done growing,” he said, “which is why we developed a splint from a permanent material.”

    The group is also looking into regenerative medicine therapies where they deliver cells—or even attach proteins and vectors for gene therapies—to the surface of 3D-printed materials.

    The future role of AM is clearly wide open in the medical field, Dr. Hollister believes. “I see a time soon, probably within the next five years, when many hospitals and medical centers will print their own devices specifically for their own patients, and not need to get them off-the-shelf.”

    1 Partee B, Hollister SJ, Das S “Selective Laser Sintering Process Optimization for Layered Manufacturing of CAPA 6501 Polycaprolactone Bone Tissue Engineering Scaffolds,” ASME J. Manufacturing Science Engineering, 128:531-540.
    2 Hollister SJ, et al. “Design Control for Clinical Translation of 3D Printed Modular Scaffolds,” Annals Biomedical Engineering, 2015, 43:774-786.
    Related Searches
    • additive manufacturing
    • splint
    • 3d printing
    • resorbable
    Related Knowledge Center
    • Software & IT
    • Contract Manufacturing
    • 3D/Additive Manufacturing
    Suggested For You
    IRADIMED Names Chief Operating Officer IRADIMED Names Chief Operating Officer
    Biodegradable Polymer Coating for Implants Biodegradable Polymer Coating for Implants
    Beyond Prototyping:  The Promises and Problems  of 3D Printing Beyond Prototyping: The Promises and Problems of 3D Printing
    Hacking Medtech: Not a Question of When, but Who Will Be First? Hacking Medtech: Not a Question of When, but Who Will Be First?
    ARC Devices Appoints New Chief Technology Officer ARC Devices Appoints New Chief Technology Officer
     Delphinus Relocates Headquarters, Triples Size of Facility Delphinus Relocates Headquarters, Triples Size of Facility
    NSF International Buys Avarent LLC NSF International Buys Avarent LLC
    EOS Imaging Names Board Chairman EOS Imaging Names Board Chairman
    Delphinus Hires Clinical Affairs VP Delphinus Hires Clinical Affairs VP
    Delphinus Adds Clinical Affairs VP to its Executive Team Delphinus Adds Clinical Affairs VP to its Executive Team
    First Software Offering from EOS Imaging Approved by FDA
First Software Offering from EOS Imaging Approved by FDA
    ArtVentive Medical Receives FDA Clearance for Endoluminal Occlusion System ArtVentive Medical Receives FDA Clearance for Endoluminal Occlusion System
    ArtVentive Medical Debuts New Endovascular Tumor Treatment ArtVentive Medical Debuts New Endovascular Tumor Treatment
    Partership Formed to Offer Unique 3-D Metal-Implant Manufacturing Tool Partership Formed to Offer Unique 3-D Metal-Implant Manufacturing Tool
    GF AgieCharmilles and EOS Develop New Manufacturing Process
GF AgieCharmilles and EOS Develop New Manufacturing Process

    Related Online Exclusives

    • Materials
      Setting the Standard: Protective Nanocoatings for Today

      Setting the Standard: Protective Nanocoatings for Today's Medtech

      Ensuring medical products are safe from the outside environment is a significant challenge that nanocoatings can help resolve.
      Zsolt Pulai, EVP, Technology & Development, HZO Inc. 12.02.20

    • Software & IT
      Leveraging Virtual Technology for Customer Service and Support

      Leveraging Virtual Technology for Customer Service and Support

      VR/AR solutions enable contactless interactions with customers to address a variety of needs.
      Dijam Panigrahi, Co-Founder and COO, Grid Raster Inc. 12.02.20

    • Software & IT
      Medtech’s Path Toward Paperless, Patient-Centric Trials

      Medtech’s Path Toward Paperless, Patient-Centric Trials

      The “year of evaluating everything” represents a significant opportunity to modernize clinical research.
      Seth J. Goldenberg, Ph.D., Vice President, Vault Medical Device & Diagnostics; Kevin Liang, Ph.D., Sr. Director, Strategy, Medical Device and Diagnostics, Veeva Systems 11.18.20


    • R&D & Design
      How Design Controls Can Prevent Medical Device Recalls

      How Design Controls Can Prevent Medical Device Recalls

      Incorporating risk management early in development will help eliminate problems before they impact the product’s manufacturing lifecycle.
      Ramya Sriram, Digital Content Manager, Kolabtree 11.16.20

    • Materials
      Stock vs. Custom Springs for Medtech

      Stock vs. Custom Springs for Medtech

      A review of the pros and cons for medical equipment designers.
      Edward Jones, Marketing Manager, John Evans’ Sons 10.08.20

    • Contract Manufacturing | Electronics
      Innovation, Miniaturization are Top Priorities for Electronic Components Manufacturers

      Innovation, Miniaturization are Top Priorities for Electronic Components Manufacturers

      But many companies are hesitant to start new development projects while the coronavirus is still rampant.
      Michael Barbella, Managing Editor 10.05.20


    • Contract Manufacturing
      Innovation and Expertise Drive Evolution in Medical Device Manufacturing

      Innovation and Expertise Drive Evolution in Medical Device Manufacturing

      MICRO’s president offers a look at the company his family founded 75 years ago as well as the industry it’s supported.
      Brian Semcer, President, MICRO 09.29.20

    • Software & IT
      Adopting a Data-Driven Approach to Quality with an MDQMS

      Adopting a Data-Driven Approach to Quality with an MDQMS

      FlexLogical is making quality a competitive advantage through its software solution.
      Jon Speer, Founder and VP of QA/RA, Greenlight Guru 09.24.20

    • 3D/Additive Manufacturing | Software & IT
      4 Ways the IIoT Improves Medical Manufacturing

      4 Ways the IIoT Improves Medical Manufacturing

      The Industrial Internet of Things is expected to register annual growth of around 24 percent between now and 2023.
      Megan Ray Nichols, Science Writer; Editor, Schooled By Science 09.02.20


    • Software & IT
      Areas to Consider in Medical Device Risk Management

      Areas to Consider in Medical Device Risk Management

      How to ensure the production of safe and effective medical devices.
      Jon Speer, Founder and VP of QA/RA at Greenlight Guru 08.24.20

    • Contract Manufacturing
      Partnering with CMOs

      Partnering with CMOs

      What to expect from a new CMO partner or an existing partnership.
      Patrick Malone, Vice President Operations, West Pharmaceutical Services 08.24.20

    • Software & IT
      Preparing Medtech Firms for Augmented and Virtual Reality

      Preparing Medtech Firms for Augmented and Virtual Reality

      AR/VR technologies can bring benefit to medtech firms, but implementing it can prove to be challenging.
      Dijam Panigrahi, Co-Founder and COO, Grid Raster Inc. 08.12.20


    • Digital Health | Software & IT
      How Is Digital Health Reviving Clinical Care During the COVID-19 Outbreak?

      How Is Digital Health Reviving Clinical Care During the COVID-19 Outbreak?

      Adoption of virtual care and telehealth applications has risen by nearly 158 percent in the U.S.
      Saloni Walimbe, Research Content Developer, Global Market Insights (GMI) 08.10.20

    • R&D & Design | Software & IT
      COVID-19 Marks a Need for Virtual Development Tech

      COVID-19 Marks a Need for Virtual Development Tech

      Medical device developers can gain benefits from the use of MR/AR, but challenges need to be addressed first.
      Dijam Panigrahi, Co-Founder and COO, Grid Raster Inc. 08.10.20

    • R&D & Design
      From the Experts: Best Practices to Ensure Device Success

      From the Experts: Best Practices to Ensure Device Success

      Experts break down the issues device makers are faced with.
      Jon Speer, Founder and VP of QA/RA at Greenlight Guru 07.27.20


    Trending
    • Senseonics Forges Strategic Collaboration With Ascensia Diabetes Care
    • Portable, Home-Use Device Quickly Measures Inflammation Levels
    • Henry Schein Buys Majority Interest In Prism Medical Products
    • Top 10 Trends In The Medical Device And Equipment Industry
    • Masimo Earns CE Mark For New Fingertip Pulse Oximeter
    Breaking News
    • Spectrum Solutions Collaborates with UCLA School of Dentistry
    • Kwivik Therapeutics, EirMed Partner to Accelerate Product Commercialization
    • Europe Marks its First Successful Remote Robotic-Assisted Coronary Angioplasty
    • Twist on Heart Valve Design Boosts Blood Flow, Prevents Clots
    • FDA Clears 3D Acellular Dermal Matrix
    View Breaking News >
    CURRENT ISSUE

    November/December 2020

    • Pharmaceutical Focus: A Look at Combination Products
    • The Printed World: Additive Manufacturing in Medtech
    • The Lost Year: 2020 Year in Review
    • View More >

    Cookies help us to provide you with an excellent service. By using our website, you declare yourself in agreement with our use of cookies.
    You can obtain detailed information about the use of cookies on our website by clicking on "More information”.

    • About Us
    • Privacy Policy
    • Terms And Conditions
    • Contact Us

    follow us

    Subscribe
    Nutraceuticals World

    Latest Breaking News From Nutraceuticals World

    PepsiCo and Beyond Meat Partner to Develop Plant-Based Protein
    New Study on Sage Extract Formula Suggests Memory Enhancement
    Omega-3s Evidenced to Reduce Low-Grade Inflammation in Elderly Men
    Coatings World

    Latest Breaking News From Coatings World

    Mayzo Makes 2 Appointments
    Mississippi Lime Company Announces New Director of Safety
    IFS Coatings Launches IFS Puroplaz PE20 Texture
    Medical Product Outsourcing

    Latest Breaking News From Medical Product Outsourcing

    Spectrum Solutions Collaborates with UCLA School of Dentistry
    Kwivik Therapeutics, EirMed Partner to Accelerate Product Commercialization
    Europe Marks its First Successful Remote Robotic-Assisted Coronary Angioplasty
    Contract Pharma

    Latest Breaking News From Contract Pharma

    Lilly, Vir, GSK Partner to Evaluate COVID Combo Therapies
    Novartis Invests in Credence MedSystems
    Ajinomoto Bio-Pharma, Humanigen Expand Manufacturing Agreement
    Beauty Packaging

    Latest Breaking News From Beauty Packaging

    Coty to Shut Down Manufacturing Site in Cologne, Germany
    L’Occitane Files for Bankruptcy in U.S.
    Bésame Cosmetics Collaborates with Disney on Mary Poppins Collection
    Happi

    Latest Breaking News From Happi

    CLT Introduces Private Label Solid Air Freshener Cones
    The Florida Sunscreen Symposium Is Back!
    TFF Opens Nominations for 2021 Awards
    Ink World

    Latest Breaking News From Ink World

    Epson Partner Creates Label Applicators for Pharmaceutical Products
    Smurfit Kappa Sets New Sustainability Targets with Better Planet 2050
    Georgia-Pacific Acquires 3rd HP PageWide Corrugated Press to Expand Hummingbird Digital Printing
    Label & Narrow Web

    Latest Breaking News From Label & Narrow Web

    Arjobex acquires MDV Group
    Fix-A-Form eyes global expansion
    McCracken Label installs Fujifilm water-wash plate system
    Nonwovens Industry

    Latest Breaking News From Nonwovens Industry

    Nice-Pak Receives EPA Approval for Disinfecting Wipes
    Rockline to Invest $18 Million in Arkansas
    Essity’s Sales Negatively Impacted by Covid-19 Pandemic
    Orthopedic Design & Technology

    Latest Breaking News From Orthopedic Design & Technology

    ChoiceSpine's Tiger Shark Cervical Spacer Earns Additional 510(k)
    FDA Green Lights Inspired Spine's Trident SI Joint Screw System
    FDA Clears Method to Extract Bone Measurements From X-Rays
    Printed Electronics Now

    Latest Breaking News From Printed Electronics Now

    Osram Sees Jump in Profits in Preliminary 2020 Report
    LG Display Reports 4Q 2020 Results
    Xerox Releases 4Q, Full Year Results

    Copyright © 2021 Rodman Media. All rights reserved. Use of this constitutes acceptance of our privacy policy The material on this site may not be reproduced, distributed, transmitted, or otherwise used, except with the prior written permission of Rodman Media.

    AD BLOCKER DETECTED

    Our website is made possible by displaying online advertisements to our visitors.
    Please consider supporting us by disabling your ad blocker.


    FREE SUBSCRIPTION Already a subscriber? Login