Literature DB >> 21902613

Scaffold translation: barriers between concept and clinic.

Scott J Hollister1, William L Murphy.   

Abstract

Translation of scaffold-based bone tissue engineering (BTE) therapies to clinical use remains, bluntly, a failure. This dearth of translated tissue engineering therapies (including scaffolds) remains despite 25 years of research, research funding totaling hundreds of millions of dollars, over 12,000 papers on BTE and over 2000 papers on BTE scaffolds alone in the past 10 years (PubMed search). Enabling scaffold translation requires first an understanding of the challenges, and second, addressing the complete range of these challenges. There are the obvious technical challenges of designing, manufacturing, and functionalizing scaffolds to fill the Form, Fixation, Function, and Formation needs of bone defect repair. However, these technical solutions should be targeted to specific clinical indications (e.g., mandibular defects, spine fusion, long bone defects, etc.). Further, technical solutions should also address business challenges, including the need to obtain regulatory approval, meet specific market needs, and obtain private investment to develop products, again for specific clinical indications. Finally, these business and technical challenges present a much different model than the typical research paradigm, presenting the field with philosophical challenges in terms of publishing and funding priorities that should be addressed as well. In this article, we review in detail the technical, business, and philosophical barriers of translating scaffolds from Concept to Clinic. We argue that envisioning and engineering scaffolds as modular systems with a sliding scale of complexity offers the best path to addressing these translational challenges. © Mary Ann Liebert, Inc.

Entities:  

Mesh:

Year:  2011        PMID: 21902613      PMCID: PMC3223015          DOI: 10.1089/ten.TEB.2011.0251

Source DB:  PubMed          Journal:  Tissue Eng Part B Rev        ISSN: 1937-3368            Impact factor:   6.389


  173 in total

Review 1.  Controlled delivery of inductive proteins, plasmid DNA and cells from tissue engineering matrices.

Authors:  W L Murphy; D J Mooney
Journal:  J Periodontal Res       Date:  1999-10       Impact factor: 4.419

2.  Optimal design and fabrication of scaffolds to mimic tissue properties and satisfy biological constraints.

Authors:  S J Hollister; R D Maddox; J M Taboas
Journal:  Biomaterials       Date:  2002-10       Impact factor: 12.479

3.  A novel method for biomaterial scaffold internal architecture design to match bone elastic properties with desired porosity.

Authors:  Cheng Yu Lin; Noboru Kikuchi; Scott J Hollister
Journal:  J Biomech       Date:  2004-05       Impact factor: 2.712

4.  Role of poly(lactide-co-glycolide) particle size on gas-foamed scaffolds.

Authors:  Kathryn W Riddle; David J Mooney
Journal:  J Biomater Sci Polym Ed       Date:  2004       Impact factor: 3.517

5.  The effect of scaffold architecture on properties of direct 3D fiber deposition of porous Ti6Al4V for orthopedic implants.

Authors:  J P Li; J R de Wijn; C A van Blitterswijk; K de Groot
Journal:  J Biomed Mater Res A       Date:  2010-01       Impact factor: 4.396

6.  A prospective randomized study of posterolateral lumbar fusion using osteogenic protein-1 (OP-1) versus local autograft with ceramic bone substitute: emphasis of surgical exploration and histologic assessment.

Authors:  Masahiro Kanayama; Tomoyuki Hashimoto; Keiichi Shigenobu; Shigeru Yamane; Thomas W Bauer; Daisuke Togawa
Journal:  Spine (Phila Pa 1976)       Date:  2006-05-01       Impact factor: 3.468

7.  Adverse effects associated with high-dose recombinant human bone morphogenetic protein-2 use in anterior cervical spine fusion.

Authors:  Lisa B E Shields; George H Raque; Steven D Glassman; Mitchell Campbell; Todd Vitaz; John Harpring; Christopher B Shields
Journal:  Spine (Phila Pa 1976)       Date:  2006-03-01       Impact factor: 3.468

8.  Poly(propylene fumarate) bone tissue engineering scaffold fabrication using stereolithography: effects of resin formulations and laser parameters.

Authors:  Kee-Won Lee; Shanfeng Wang; Bradley C Fox; Erik L Ritman; Michael J Yaszemski; Lichun Lu
Journal:  Biomacromolecules       Date:  2007-02-28       Impact factor: 6.988

9.  An image-based approach for designing and manufacturing craniofacial scaffolds.

Authors:  S J Hollister; R A Levy; T M Chu; J W Halloran; S E Feinberg
Journal:  Int J Oral Maxillofac Surg       Date:  2000-02       Impact factor: 2.789

10.  Neurologic impairment from ectopic bone in the lumbar canal: a potential complication of off-label PLIF/TLIF use of bone morphogenetic protein-2 (BMP-2).

Authors:  David A Wong; Anant Kumar; Sanjay Jatana; Gary Ghiselli; Katherine Wong
Journal:  Spine J       Date:  2007-11-26       Impact factor: 4.166

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  47 in total

1.  Controllable mineral coatings on PCL scaffolds as carriers for growth factor release.

Authors:  Darilis Suárez-González; Kara Barnhart; Francesco Migneco; Colleen Flanagan; Scott J Hollister; William L Murphy
Journal:  Biomaterials       Date:  2011-10-19       Impact factor: 12.479

Review 2.  Leveraging "raw materials" as building blocks and bioactive signals in regenerative medicine.

Authors:  Amanda N Renth; Michael S Detamore
Journal:  Tissue Eng Part B Rev       Date:  2012-05-21       Impact factor: 6.389

3.  Design control for clinical translation of 3D printed modular scaffolds.

Authors:  Scott J Hollister; Colleen L Flanagan; David A Zopf; Robert J Morrison; Hassan Nasser; Janki J Patel; Edward Ebramzadeh; Sophia N Sangiorgio; Matthew B Wheeler; Glenn E Green
Journal:  Ann Biomed Eng       Date:  2015-02-10       Impact factor: 3.934

4.  3D printed PLA-based scaffolds: a versatile tool in regenerative medicine.

Authors:  Tiziano Serra; Miguel A Mateos-Timoneda; Josep A Planell; Melba Navarro
Journal:  Organogenesis       Date:  2013-08-19       Impact factor: 2.500

Review 5.  Infected animal models for tissue engineering.

Authors:  Alexander M Tatara; Sarita R Shah; Carissa E Livingston; Antonios G Mikos
Journal:  Methods       Date:  2015-04-02       Impact factor: 3.608

Review 6.  The current state of scaffolds for musculoskeletal regenerative applications.

Authors:  Benjamin D Smith; Daniel A Grande
Journal:  Nat Rev Rheumatol       Date:  2015-03-17       Impact factor: 20.543

Review 7.  Controlled release strategies for bone, cartilage, and osteochondral engineering--Part II: challenges on the evolution from single to multiple bioactive factor delivery.

Authors:  Vítor E Santo; Manuela E Gomes; João F Mano; Rui L Reis
Journal:  Tissue Eng Part B Rev       Date:  2013-01-30       Impact factor: 6.389

Review 8.  Bone tissue engineering: recent advances and challenges.

Authors:  Ami R Amini; Cato T Laurencin; Syam P Nukavarapu
Journal:  Crit Rev Biomed Eng       Date:  2012

9.  Enhanced differentiation of human embryonic stem cells on extracellular matrix-containing osteomimetic scaffolds for bone tissue engineering.

Authors:  Katy Rutledge; Qingsu Cheng; Marina Pryzhkova; Greg M Harris; Ehsan Jabbarzadeh
Journal:  Tissue Eng Part C Methods       Date:  2014-06-18       Impact factor: 3.056

10.  Adaptive growth factor delivery from a polyelectrolyte coating promotes synergistic bone tissue repair and reconstruction.

Authors:  Nisarg J Shah; Md Nasim Hyder; Mohiuddin A Quadir; Noémie-Manuelle Dorval Courchesne; Howard J Seeherman; Myron Nevins; Myron Spector; Paula T Hammond
Journal:  Proc Natl Acad Sci U S A       Date:  2014-08-18       Impact factor: 11.205

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