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1 spontaneous defects and aids development of biological sensors.
2 hemes are key components of many enzymes and biological sensors.
3 areas as varied as light-emitting diodes and biological sensors.
4 le nanoscale LED arrays, logic circuits, and biological sensors.
5 cient low-cost solar cells, and chemical and biological sensors.
6 undwork for the creation of new chemical and biological sensors.
7 are not widely studied or accepted as proven biological sensors.
8 ion schemes in the heme-based GAF domains of biological sensors.
9 rovements in the sensitivity of chemical and biological sensors.
10 be expected to lead to entirely new types of biological sensors.
11 able building block for microelectronics and biological sensors.
12 noparticles as background free self-standing biological sensors.
13 ich demonstrates their incredible utility as biological sensors.
16 torial review we describe how the regulatory biological sensors and switches can be transferred from
20 study for the fabrication of molecular-scale biological sensors are discussed at the end of the paper
22 pment of specific and efficient chemical and biological sensors, as well as the investigation of the
23 proaches to develop arrayable and label-free biological sensors based on fluorescence unquenching of
24 deal for inexpensive, single-use chemical or biological sensors because of their compatibility with f
29 policy makers in selecting the most suitable biological sensor for their intended biomagnetic monitor
32 pods that stand out among the most sensitive biological sensors known, even better than photoreceptor
33 ent advances in microscopy, transgenics, and biological sensors may be used to identify and functiona
34 noantennas for high-sensitivity chemical and biological sensors, nanoscale control of active devices,
36 n of sensitive and selective electrochemical biological sensor platforms are accomplished conceivably
37 owed with K(ATP) channels, which function as biological sensors, regulating membrane potentials and e
38 ic switches for computing and ultrasensitive biological sensors scaled down to a single atomic unit c
40 ms the basis for one of the most significant biological sensor systems of tissue oxygenation in respo
42 eps used to prepare arrayable and label-free biological sensors that are based on the fluorescence un
43 the blood coagulation system as an exquisite biological sensor, the fibrin clot end-product was repla
44 tical to accessing relevant quantum bits and biological sensors, through a designer macrocyclic ligan
45 inherent and well established limitations of biological sensors to operate efficiently at a given res
46 e developed a micromachined nanocalorimetric biological sensor using a small number of isolated livin
47 o prepare microcantilever-based chemical and biological sensors when molecular recognition agents are
49 al physical and chemical systems and compact biological sensors will rely on densely packed transform