Biosensors can be made to detect almost anything.
You could design a biosensor to detect a non-pathogenic bacteria but there would be few people who would want to buy it.
There are different types of biosensors based on different principles. However, generally they are categorized as: Optical biosensors Potentiometric biosensors Resonant Biosensors Thermal-detection Biosensors Ion-Sensitive Biosensors Electrochemical Biosensors Conductimetric Amperometric Potentiometric Calorimetric biosensors
It is appropriate to use biosensors for pollution control or when one moves their eye. The biosensors control the movement in which the eye makes from one's nerves.
F. Scheller has written: 'Biosensoren' 'Biosensors' -- subject(s): Biosensors
Nonpathogens are nonharmful and are not disease-producing microorganisms.
A urine culture with mixed flora consisting predominately of nonpathogens is usually an incomplete test. This generally means that urine was not obtained by a clean catch method.
M. Todd Jarvis has written: 'Biosensors' -- subject(s): Biosensors, Technology assessment
While a bioprobe has some things in common with a biosensor, most biosensors are not bioprobes, and most bioprobes are not biosensors. A biosensor is a kind of sensor -- i.e., it is used to detect something -- that uses at least some biological tissue in its construction. Perhaps the most well-known biosensor is the miner's canary, a small bird in a cage used to detect carbon monoxide and other deadly gases. The thing sensed by a biosensor is not necessarily biological -- as in this case, carbon monoxide. A bioprobe is a kind of sensor used to detect some kind of biological thing. Perhaps the most well-known bioprobe is the blood pressure meter, used to measure blood pressure. The bioprobe itself -- in this case, the pressure cuff -- is not necessarily biological. A hybridization probe is used to detect a particular DNA sequence. Because the thing it is designed to detect (a particular DNA sequence) is biological, and the hybridization probe itself is made of something biological (the complementary DNA sequence), a hybridization probe is simultaneously a bioprobe and a biosensor.
Thomas Scheper has written: 'Bioanalytik' -- subject(s): Analysis, Biomolecules, Bioreactors, Biosensors
Richard F. Taylor has written: 'Biosensors' -- subject(s): Biosensor industry, Market surveys
Tuan Vo-Dinh has written: 'Advanced environmental, chemical, and biological sensing technologies V' -- subject(s): Environmental monitoring, Congresses, Biosensors, Detectors, Industrial applications, Chemical detectors 'Advanced environmental, chemical, and biological sensing technologies VII' -- subject(s): Environmental monitoring, Congresses, Biosensors, Detectors, Industrial applications, Chemical detectors 'Nanotechnology in Biology and Medicine' 'Advanced environmental, chemical, and biological sensing technologies VI' -- subject(s): Environmental monitoring, Congresses, Biosensors, Detectors, Industrial applications, Chemical detectors 'Plasmonics in biology and medicine IX' -- subject(s): Instrumentation, Surface Plasmon Resonance, Methods, Biosensors, Congresses, Plasmons (Physics), Nanotechnology, Raman Spectrum Analysis 'Plasmonics in biology and medicine VI' -- subject(s): Biosensors, Congresses, Plasmons (Physics) 'Advanced biomedical and clinical diagnostic systems VI' -- subject(s): Spectrum Analysis, Technological innovations, Congresses, Diagnostic imaging, Diagnostic Imaging
Sensors provide information to other parts of the machine. There are temperature, pressure, level, flow, biosensors, gas, and proximity sensors.
Roberto Andres has written: 'Development of fibre-optic biosensors based on immobilised enzymes and studies on their analytical applications'