[go: up one dir, main page]

Li et al., 2010 - Google Patents

A low power, on demand electrothermal valve for wireless drug delivery applications

Li et al., 2010

View PDF
Document ID
12987297443564390743
Author
Li P
Givrad T
Sheybani R
Holschneider D
Maarek J
Meng E
Publication year
Publication venue
Lab on a Chip

External Links

Snippet

We present a low power, on demand Parylene MEMS electrothermal valve. A novel Ω- shaped thermal resistive element requires low power (∼ mW) and enables rapid valve opening (∼ ms). Using both finite element analysis and valve opening experiments, a robust …
Continue reading at pmc.ncbi.nlm.nih.gov (PDF) (other versions)

Similar Documents

Publication Publication Date Title
US9370628B2 (en) Wireless microactuators and control methods
Khan et al. Radio frequency controlled wireless drug delivery devices
JP4707660B2 (en) Electric open type micro fluid valve
Li et al. A low power, on demand electrothermal valve for wireless drug delivery applications
Spieth et al. The NeuroMedicator—a micropump integrated with silicon microprobes for drug delivery in neural research
Cheong et al. Wirelessly activated device with an integrated ionic polymer metal composite (IPMC) cantilever valve for targeted drug delivery
CA2431237A1 (en) Valves and pumps for microfluidic systems and method for making microfluidic systems
US20090275925A1 (en) Device for the controlled release of a substance
Li et al. Self-adaptive chip cooling with template-fabricated nanocomposite P (MEO2MA-co-OEGMA) hydrogel
Li et al. A parylene MEMS electrothermal valve
Li et al. Out-of-plane microvalves for whole blood separation on lab-on-a-CD
KR100893250B1 (en) Active microneedle device
WO2012116957A1 (en) Electrocoagulation device with limited heat damage
Baek et al. A wireless sequentially actuated microvalve system
US11260642B2 (en) Methods for fast and reversible dry adhesion tuning between composite structures and substrates using dynamically tunable stiffness
Elman et al. Electro-thermally induced structural failure actuator (ETISFA) for implantable controlled drug delivery devices based on Micro-Electro-Mechanical-Systems
Lei et al. A parylene-filled-trench technique for thermal isolation in silicon-based microdevices
Li et al. A wirelessly-activated Parylene electrothermal valve for mapping brain function in freely moving subjects
Li Implantable bioMEMS drug delivery systems
Fong Wireless MEMS drug delivery device enabled by a micromachined Nitinol actuator as a pumping mechanism
JPWO2016136551A1 (en) Valve, fluid device, and fluid device manufacturing method
Rahimi et al. A wireless implantable drug delivery device with hydrogel microvalves controlled by field-frequency tuning
JP2008298162A (en) Micro-machined one-shot valve and manufacturing method thereof
Abidin et al. Joule heating effect reduction of an electromagnet system utilizing on-chip magnetic core
Damalerio et al. Biopackaging of intracranial pressure microsystem for multimodality neuro monitoring of severe head injury patients