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DTSTAMP:20211216T150313Z
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DTSTART;TZID=US/Eastern:20211118T180000
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DESCRIPTION:Biomechanics research has a significant role on evaluation and 
 optimization of surgical techniques for treatments of orthopedic and spine
  related disorders. Traditionally mechanical testing and Ex Vivo experimen
 ts have been used for assessment of surgical procedures. Also\, computatio
 nal modeling methods such as Finite Element analysis has been utilized for
  assessment of the effect of implant design or variation on the surgical s
 etting on the outcomes of the procedures. However\, with the advancement i
 n manufacturing technology now we can design advanced structures which ben
 efit from unique and sophisticated design features to match requirements o
 f biological environment and patient’s anatomy. AM of metal parts is bec
 oming more common as an alternative approach to transform traditional prod
 uction manufacturing because it has many benefits\, including the seemingl
 y limitless degree of freedom for mechanical designs as well enabling the 
 production of complex geometries and customized parts directly from the pa
 rt design without dedicated tooling.\n\nOne of the common applications of 
 3D printing of metals in orthopedics is patient specific implants (PSI) wh
 ere the implant intended to replace part of the bone/joint is designed to 
 match patient’s native anatomy. Computational modeling can be used as a 
 reliable tool to optimize the design of such PSI constructs prior to the s
 urgery. This presentation will focus on description of a novel method and 
 workflow for simulation of the biomechanics of a patient specific orthoped
 ic implant using image-based modeling technique.\n\nSpeaker(s): Dr. Ali Ki
 apour\, \n\nVirtual: https://events.vtools.ieee.org/m/288671
LOCATION:Virtual: https://events.vtools.ieee.org/m/288671
ORGANIZER:aseemsingh84@gmail.com
SEQUENCE:10
SUMMARY:Using 3D Image Based Inspection and Simulation Methods for Computat
 ional Modeling and Analysis of Patient-Specific Orthopedic Joints and Impl
 ants
URL;VALUE=URI:https://events.vtools.ieee.org/m/288671
X-ALT-DESC:Description: <br /><p>Biomechanics research has a significant ro
 le on evaluation and optimization of surgical techniques for treatments of
  orthopedic and spine related disorders. Traditionally mechanical testing 
 and Ex Vivo experiments have been used for assessment of surgical procedur
 es. Also\, computational modeling methods such as Finite Element analysis 
 has been utilized for assessment of the effect of implant design or variat
 ion on the surgical setting on the outcomes of the procedures. However\, w
 ith the advancement in manufacturing technology now we can design advanced
  structures which benefit from unique and sophisticated design features to
  match requirements of biological environment and patient&rsquo\;s anatomy
 .&nbsp\; AM of metal parts is becoming more common as an alternative appro
 ach to transform traditional production manufacturing because it has many 
 benefits\, including the seemingly limitless degree of freedom for mechani
 cal designs as well enabling the production of complex geometries and cust
 omized parts directly from the part design without dedicated tooling.&nbsp
 \;</p>\n<p>One of the common applications of 3D printing of metals in orth
 opedics is patient specific implants (PSI) where the implant intended to r
 eplace part of the bone/joint is designed to match patient&rsquo\;s native
  anatomy. Computational modeling can be used as a reliable tool to optimiz
 e the design of such PSI constructs prior to the surgery. This presentatio
 n will focus on description of a novel method and workflow for simulation 
 of the biomechanics of a patient specific orthopedic implant using image-b
 ased modeling technique.</p>
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