Results 71 to 80 of about 141,475 (198)

Mode-switching: a new technique for electronically varying the agglomeration position in an acoustic particle manipulator

, 2010
Acoustic radiation forces offer a means of manipulating particles within a fluid. Much interest in recent years has focussed on the use of radiation forces in microfluidic (or “lab on a chip”) devices.
Boltryk, Rosemary J., Cranny, Andy W.J., Glynne-Jones, Peter, Harris, Nicholas R., Hill, Martyn   +4 more
core   +1 more source

A high-flux BEC source for mobile atom interferometers [PDF]

, 2015
Quantum sensors based on coherent matter-waves are precise measurement devices whose ultimate accuracy is achieved with Bose-Einstein condensates (BEC) in extended free fall.
Ahlers, Holger, Becker, Dennis, Ertmer, Wolfgang, Gaaloul, Naceur, Grote, Alexander, Grzeschik, Christoph, Herr, Waldemar, Lämmerzahl, Claus, Müntinga, Hauke, Peters, Achim, Popp, Manuel, Rasel, Ernst M., Rudolph, Jan, Sengstock, Klaus, Sternke, Tammo   +14 more
core   +3 more sources

Microfluidic DNA amplification - a review [PDF]

, 2009
The application of microfluidic devices for DNA amplification has recently been extensively studied. Here, we review the important development of microfluidic polymerase chain reaction (PCR) devices and discuss the underlying physical principles for the ...
Ozdemir, Pinar, Zhang, Yonghao
core   +1 more source

DETECTION OF MODIFIED CELLS USING “LAB-ON-A-CHIP (LOC)” MICROFLUIDIC DEVICES

Nonconventional Technologies Review, 2018
Biological medicine is also called “the medicine of the future” because of its performances to detect in time different diseases which the world population is facing. Sometimes, it can be the only chance to survive or to recover.
Maria Roxana Marinescu, Liviu Daniel Ghiculescu   +1 more
doaj  

Continuous, quantifiable, and simple osmotic preconcentration and sensing within microfluidic devices.

PLoS ONE, 2019
Insurmountable detection challenges will impede the development of many of the next-generation of lab-on-a-chip devices (e.g., point-of-care and real-time health monitors).
Andrew Jajack, Isaac Stamper, Eliot Gomez, Michael Brothers, Gavi Begtrup, Jason Heikenfeld   +5 more
doaj   +1 more source

From Lab on a Chip to Point of Care Devices: The Role of Open Source Microcontrollers

Micromachines, 2018
Microcontrollers are programmable, integrated circuit chips. In the last two decades, their applications to industrial instruments, vehicles, and household appliances have reached the extent that microcontrollers are now the number-one selling electronic
Trieu Nguyen, Sune Zoëga Andreasen, Anders Wolff, Dang Duong Bang   +3 more
doaj   +1 more source

A Review of Microfluidic Chips Applications in Biological Diagnosis [PDF]

Journal of Advanced Biomedical Sciences, 2019
Recent advances in science and technology caused the Revolution in many different fields of science and Industry. The term lab on a chip or performing difficult analyses only in a short time and in a small space is an expression which becomes very common
Saeed Parhoodeh, Ghader Allahverdi
doaj  

Microfluidic Devices for Terahertz Spectroscopy of Live Cells Toward Lab-on-a-Chip Applications

Sensors, 2016
THz spectroscopy is an emerging technique for studying the dynamics and interactions of cells and biomolecules, but many practical challenges still remain in experimental studies.
Qi Tang, Min Liang, Yi Lu, Pak Kin Wong, Gerald J. Wilmink, Donna Zhang, Hao Xin   +6 more
doaj   +1 more source

A Lab-on-a-chip Device for Telomerase Activity Detectionbased on ATP Bioluminescence System [PDF]

, 2014
Lab-on-a-chip (LOC) devices are a subset of Micro Electro Mechanical Systems (MEMS) devices and also called as Micro Total Analysis Systems (μTAS). Telomerase is an unique enzyme which can keep the length and stability of telomeres in order to protect ...
Li, Chengsi, Patra, Prabir, Xiong, Xingguo, Zhan, Wei   +3 more
core  

Advances in Microfluidics and Lab-on-a-Chip Technologies

, 2017
Advances in molecular biology are enabling rapid and efficient analyses for effective intervention in domains such as biology research, infectious disease management, food safety, and biodefense.
Abate, Adley, Aebersold, Ahlford, Almassian, Almoguera, Asiello, Athamanolap, Baker, Becker, Blazej, Brehm-Stecher, Burger, Business-Wire, Byrnes, Cai, Cao, Chang, Chao, Chatterjee, Chin, Chin, Coupland, Craw, Crews, Crews, Czilwik, Derveaux, DeVoe, Dharmasiri, Dodsworth, Domon, Duffy, Erlich, Farrar, Fredrickson, Fu, Gagnon, Gao, Gonzalez de Castro, Grover, Hadd, Han, Hanyoup, Hardouin, Hauck, Hayden, He, He, He, Hindson, Ho, Hsieh, Huang, Hughes, Jacobs, Jansson, Jarvius, Jayamohan, Jayamohan, Jenkins, Jha, Ji, Jin, Jin, Kalra, Karimi, Karns, Khandurina, Kim, Kim, Kim, Kim, Kim, Klein, Klostranec, Konry, Kuroda, Kwasny, Kwasny, Kühnemund, Küster, Lagally, Lapierre, Lazar, Lazar, Lee, Lee, Lee, Li, Liu, Lochovsky, Macosko, Mahmoudian, Mani, Manz, Mao, Mariella, Melin, Mery, Metzker, Mezger, Mitchell, Mitchell, Neuzil, Ng, Northen, Oblath, Oxford Nanopore, Paegel, Paegel, Paliwal, Park, Pekin, Pennisi, Perez-Toralla, Pješčić, Pješčić, Pješčić, Prakash, Priye, Priye, Quick, Ro, Romanov, Safavieh, Sainiemi, Samuel, Sanvicens, Sato, Sayad, Schoenitz, Schuler, Shamsi, Shih, Song, Srbek, Stumpf, Sun, Sundberg, Tanaka, Teh, Tehranirokh, Thompson, Thuy, Tian, Tröger, Unger, Vergauwe, Volpatti, Weisenberger, Wheeler, Whitesides, Woolley, Xie, Xu, Xue, Yetisen, Yin, Zhang, Zhang, Zhu   +161 more
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