68 ] (Reproduced with permission. [
68 ] Copyright 2004, IEEE), ii) a flexible and biocompatible piezoelectric force sensor made of PVDF‐TrFE film mounted on the catheter [
69 ] (left figure) (Reproduced with permission. [
69 ] Copyright 2012, IEEE); and piezoelectric sensor with BaTiO 3 filler in the PDMS matrix integrated into the catheter [
92 ] (right figure)(Reproduced with permission., [
92 ] Copyright 2021, Wiley), iii) polymer substrate‐based MEMS pressure piezoresistive sensors on catheter tip [
70 ] (Reproduced under the terms of the CC‐BY‐2.0 license., [
70 ] Copyright 2012, Springer Nature), iv) real‐time arterial pulse monitoring with near‐field communication (NFC) from sensor‐integrated catheter [
71 ] (Reproduced with permission. [
71 ] Copyright 2022, American Chemical Society). b) Cardiac activity/contact mapping: i) illustration representing the electro‐anatomic mapping using CARTO (Biosense Webster, United States) (top figure) and generated 3D cardiac chamber anatomic structure (bottom figure) in combination with electrophysiology mapping catheter (NaviSTAR, Biosense Webster, United States) [
72 ] (Reproduced under the terms of Creative Commons Attribution License. [
72 ] Copyright 2008, Elsevier), ii) electrophysiology mapping with basket‐shaped catheter (left figure) and pulmonary vein potentials captured from leads on basket‐shaped catheter (right figure) [
104 ] (Reproduced with permission. [
104 ] Copyright 2015, Heart Rhythm Society and Elsevier), iii) soft robotic sensor arrays for conformal contact, an actuatable multilayered sensor for atrial mapping performing electrophysiology mapping with actuation [
74 ] (Reproduced under the terms of CC BY‐NC license., [
74 ] Copyright 2008, AAAS). " width="100%" height="100%">
Journal: Advanced Science
Article Title: A Review of Recent Advancements in Sensor‐Integrated Medical Tools
doi: 10.1002/advs.202307427
Figure Lengend Snippet: Sensor‐integrated catheters for vascular pressure monitoring and cardiac activity/contact mapping. a) Vascular pressure monitoring: i) MEMS fabricated sensor‐integrated piezoresistive pressure sensor mounted into the dual lumen neonatal catheter [ 68 ] (Reproduced with permission. [ 68 ] Copyright 2004, IEEE), ii) a flexible and biocompatible piezoelectric force sensor made of PVDF‐TrFE film mounted on the catheter [ 69 ] (left figure) (Reproduced with permission. [ 69 ] Copyright 2012, IEEE); and piezoelectric sensor with BaTiO 3 filler in the PDMS matrix integrated into the catheter [ 92 ] (right figure)(Reproduced with permission., [ 92 ] Copyright 2021, Wiley), iii) polymer substrate‐based MEMS pressure piezoresistive sensors on catheter tip [ 70 ] (Reproduced under the terms of the CC‐BY‐2.0 license., [ 70 ] Copyright 2012, Springer Nature), iv) real‐time arterial pulse monitoring with near‐field communication (NFC) from sensor‐integrated catheter [ 71 ] (Reproduced with permission. [ 71 ] Copyright 2022, American Chemical Society). b) Cardiac activity/contact mapping: i) illustration representing the electro‐anatomic mapping using CARTO (Biosense Webster, United States) (top figure) and generated 3D cardiac chamber anatomic structure (bottom figure) in combination with electrophysiology mapping catheter (NaviSTAR, Biosense Webster, United States) [ 72 ] (Reproduced under the terms of Creative Commons Attribution License. [ 72 ] Copyright 2008, Elsevier), ii) electrophysiology mapping with basket‐shaped catheter (left figure) and pulmonary vein potentials captured from leads on basket‐shaped catheter (right figure) [ 104 ] (Reproduced with permission. [ 104 ] Copyright 2015, Heart Rhythm Society and Elsevier), iii) soft robotic sensor arrays for conformal contact, an actuatable multilayered sensor for atrial mapping performing electrophysiology mapping with actuation [ 74 ] (Reproduced under the terms of CC BY‐NC license., [ 74 ] Copyright 2008, AAAS).
Article Snippet: Until now, MEMS pressure sensors and technologies for miniaturized packaging have led to successful commercialization from several companies (e.g., Amphenol, TEconnectivity, Millar) and utilization in clinical fields, which are used for minimally invasive and interventional pressure measurement.
Techniques: Activity Assay, Polymer, Generated