With the rapid progress that is being made in the imaging and sensing domain, we are now able to capture images of particles and cells at a microscopic and sub-microscopic level. The potential for such improvements promises to make healthcare more efficient, more accurate, and more effective. Towards these goals, the development of imaging technologies also offers an opportunity for new business models.
Since opening in 2013, the DPC has received more than 200 applications for funding from established and start-up companies. The DPC’s funding model is highly flexible, because it provides the necessary financial support and resources to launch a new product or service. For example, if you want to develop a new process and clinical software tool that allows doctors to better monitor patients remotely from their homes, the DPC will be able to provide $500,000 in funding to help you get started. This initial investment helps establish a proof of concept as well as collect data that can be used as part of a “proof of value” submission to traditional investors such
Overview of Fluorescent Sensors
Fluorescent sensors are devices that can detect particles in a sample by their fluorescence. These devices are used in a variety of applications, including medical diagnostics, environmental monitoring, and food safety. Fluorescent sensors usually consist of a light source, a fluorescence detector, and a readout device.
Fluorescent sensors have many advantages over other types of sensor. They are highly sensitive and can detect very small amounts of particles. They are also specific, meaning that they can discriminate between different types of particles. Fluorescent sensors can be used to measure both the concentration and the size of particles in a sample.
There are two main types of fluorescent sensor: those that use natural fluorescent particles, and those that use artificial fluorescent particles. Natural fluorescent particles are typically proteins or small molecules that have been engineered to fluoresce. Artificial fluorescent particles are typically synthetic polymers or quantum dots.
Fluorescent sensors have a wide range of applications. In medicine, they are used to detect cancer cells, bacteria, and viruses. In environmental monitoring, they are used to measure air pollution and water contamination. In food safety, they are used to detect pathogens and contaminants.
What are fluorescent channel detection?
Fluorescent channel detection (FCD) is a new sensing technology that uses fluorescent particles to detect a wider range of particles than traditional sensors. This improved sensing ability could be used for a variety of applications, including detecting environmental contaminants and medical diagnostics.
FC D works by shining a light on a sample, which causes the fluorescent particles to emit light of their own. The emitted light is then detected by a camera, which can identify the type and amount of particles present. This information can be used to monitor environmental conditions or to diagnose and treat diseases.
The improved sensitivity of FCD could have a major impact on public health, as it would allow for earlier detection of environmental contaminants and diseases. This technology could also be used to improve food safety, as it could help to identify pathogens in food samples before they reach consumers.
Benefits of Fluorescent Sensor Detection
Fluorescent sensors have many benefits over traditional detection methods, including improved sensitivity and greater diversity detection. Fluorescent sensors can also be used to monitor multiple particles simultaneously, making them ideal for detecting a wider range of particles. In addition, fluorescent sensors can be used to monitor changes in particle size and shape over time, providing valuable information about the dynamics of particles in a given system.
Drawbacks to Sensors for Particle Detection
One of the main drawbacks to using sensors for particle detection is that they can be easily fooled by background noise. This is why it is important to have a way to filter out false signals from the sensor data. Another drawback is that sensors tend to be less sensitive at detecting smaller particles. This means that they may not be able to detect all of the particles in a sample, which could lead to inaccurate results.
AccuCount Blank | ||||
ACBP-50-10 | Spherotech | 10 mL | 230.4 EUR | |
AccuCount Blank | ||||
ACBP-70-10 | Spherotech | 10 mL | 230.4 EUR | |
AccuCount Blank Particles | ||||
ACBP-100-10 | Cusabio | 10 mL | 230.4 EUR | |
AccuCount Blank Particles | ||||
ACBP-150-10 | Spherotech | 10 mL | 237.6 EUR | |
AccuCount Blank Particles | ||||
ACBP-20-10 | Spherotech | 10 mL | 230.4 EUR | |
AccuCount Blank Particles | ||||
ACBP-30-10 | Spherotech | 10 mL | 225.6 EUR | |
MIDASplus 10 mL | ||||
M-MD1-106 | MiTeGen | 96 x 10 ml ml | 930 EUR | |
Ammonium Fluoride, 10 M, 100 ML | ||||
M-CSS-134 | MiTeGen | 4 x 25 ml | 90 EUR | |
Ammonium Nitrate, 10 M, 100 ML | ||||
M-CSS-138 | MiTeGen | 100 ml | 90 EUR | |
Potassium Formate, 10 M, 100 ML | ||||
M-CSS-269 | MiTeGen | 100 ml | 130 EUR | |
Lithium Chloride, 10 M, 100 ML | ||||
M-CSS-356 | MiTeGen | 100 ml | 83 EUR | |
Human Hepatocyte growth factor receptor (MET) | ||||
1-CSB-EP013714HU(M) | Cusabio |
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Mouse Serine protease inhibitor A3N (Serpina3n) | ||||
1-CSB-EP835578MO(M) | Cusabio |
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Mouse Serine protease 29 (Prss29) | ||||
1-CSB-EP859566MO(M) | Cusabio |
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Mouse Serine protease inhibitor A3N (Serpina3n) | ||||
1-CSB-YP835578MO(M) | Cusabio |
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Human Glucosylceramidase (GBA) | ||||
1-CSB-BP009289HU(M) | Cusabio |
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Escherichia coli Protease 7 (ompT) | ||||
1-CSB-EP348292EOD(M) | Cusabio |
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Macaca mulatta Gonadotropin-releasing hormone II receptor (GNRHR2) | ||||
1-CSB-CF856800MOW(M) | Cusabio |
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Crassostrea gigas A-kinase anchor protein 7 isoform X2 | ||||
1-CSB-EP2586DXQ(M)e1 | Cusabio |
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Crassostrea gigas A-kinase anchor protein 7 isoform X2 | ||||
1-CSB-EP2586DXQ(M)f1 | Cusabio |
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CAPS pH 10, 1 M N,3-(Cyclohexylamino)-1-1propanesulfonic acid (100 ml) | ||||
M-CSS-505-10 | MiTeGen | 100 ml | 119 EUR | |
AccuCount Fluorescent Particles | ||||
ACFP-70-10 | Spherotech | 10 mL | 352.8 EUR | |
Blank Calibration | ||||
BCP-10-5 | Spherotech | 5 mL | 218.4 EUR | |
SG1 Screen 10 mL | ||||
M-MD1-88 | MiTeGen | 96 x 1 ml ml | 666 EUR | |
Imidazole, 1 M (100 ml) | ||||
M-CSS-512 | MiTeGen | 4 x 25 ml | 79 EUR | |
1,4-Dioxane, 50 % w/v, 100 ML | ||||
M-CSS-106 | MiTeGen | 4 x 25 ml | 77 EUR | |
Morpheus Complete 10 ml kit | ||||
M-MD1-123 | MiTeGen | 1 kit kit | 4578 EUR | |
In Situ Plate Seals, 10 seals | ||||
ML-CDSF1-10 | MiTeGen | 10 SEALS | 160 EUR | |
1,6-Hexanediol, 5 M, 100 ML | ||||
M-CSS-109 | MiTeGen | 100 ml | 70 EUR | |
Ammonium Acetate, 5 M, 100 ML | ||||
M-CSS-129 | MiTeGen | 100 ml | 70 EUR | |
Ammonium Chloride, 5 M, 100 ML | ||||
M-CSS-131 | MiTeGen | 100 ml | 70 EUR | |
Ammonium Formate, 5 M, 100 ML | ||||
M-CSS-136 | MiTeGen | 100 ml | 108 EUR | |
Ammonium Iodide, 1 M, 100 ML | ||||
M-CSS-137 | MiTeGen | 100 ml | 108 EUR | |
Ammonium Sulfate, 4 M, 100 ML | ||||
M-CSS-143 | MiTeGen | 100 ml | 70 EUR | |
Cadmium Chloride, 1 M, 100 ML | ||||
M-CSS-151 | MiTeGen | 4 x 25 ml | 108 EUR | |
Cadmium Sulfate, 1 M, 100 ML | ||||
M-CSS-152 | MiTeGen | 4 x 25 ml | 108 EUR | |
Cesium Chloride, 1 M, 100 ML | ||||
M-CSS-157 | MiTeGen | 100 ml | 108 EUR | |
Lithium Nitrate, 8 M, 100 ML | ||||
M-CSS-204 | MiTeGen | 4 x 25 ml | 108 EUR | |
Lithium Sulfate, 2.5 M, 100 ML | ||||
M-CSS-207 | MiTeGen | 100 ml | 77 EUR | |
Sodium Malonate, 2 M, 100 ML | ||||
M-CSS-217 | MiTeGen | 100 ml | 177 EUR | |
Potassium Acetate, 5 M, 100 ML | ||||
M-CSS-262 | MiTeGen | 100 ml | 77 EUR | |
Potassium Bromide, 4 M, 100 ML | ||||
M-CSS-264 | MiTeGen | 100 ml | 90 EUR | |
Potassium Iodide, 1 M, 100 ML | ||||
M-CSS-270 | MiTeGen | 100 ml | 77 EUR | |
Potassium Nitrate, 1 M, 100 ML | ||||
M-CSS-272 | MiTeGen | 4 x 25 ml | 77 EUR | |
Potassium Sulfate 0.5 M, 100 ML | ||||
M-CSS-275 | MiTeGen | 100 ml | 70 EUR | |
Potassium Thiocyanate, 2 M, 100 ML | ||||
M-CSS-276 | MiTeGen | 100 ml | 90 EUR | |
Sodium Acetate, 2.5 M, 100 ML | ||||
M-CSS-284 | MiTeGen | 100 ml | 70 EUR | |
Sodium Bromide, 3 M, 100 ML | ||||
M-CSS-285 | MiTeGen | 100 ml | 70 EUR | |
Sodium Chloride, 5 M, 100 ML | ||||
M-CSS-286 | MiTeGen | 100 ml | 70 EUR | |
Sodium Fluoride, 1 M, 100 ML | ||||
M-CSS-290 | MiTeGen | 100 ml | 77 EUR | |
Sodium Formate, 5 M, 100 ML | ||||
M-CSS-291 | MiTeGen | 100 ml | 77 EUR | |
Sodium Iodide, 1 M, 100 ML | ||||
M-CSS-293 | MiTeGen | 100 ml | 90 EUR | |
Sodium Nitrate, 7 M, 100 ML | ||||
M-CSS-294 | MiTeGen | 4 x 25 ml | 77 EUR | |
Sodium Sulfate, 1 M, 100 ML | ||||
M-CSS-300 | MiTeGen | 100 ml | 62 EUR | |
Sodium Thiocyanate, 8 M, 100 ML | ||||
M-CSS-303 | MiTeGen | 100 ml | 90 EUR | |
Zinc Chloride, 1 M, 100 ML | ||||
M-CSS-325 | MiTeGen | 4 x 25 ml | 77 EUR | |
Potassium Chloride, 4 M, 100 ML | ||||
M-CSS-371 | MiTeGen | 100 ml | 70 EUR | |
Hexadecyltrimethylammonium Bromide, 0.05 M, 100 ML | ||||
M-CSS-395 | MiTeGen | 100 ml | 77 EUR | |
Succinic Acid, 0.5 M (100 ml) | ||||
M-CSS-522 | MiTeGen | 100 ml | 48 EUR | |
AccuCount Ultra Rainbow Fluorescent Particles | ||||
ACURFP-50-10 | Spherotech | 10 mL | 364.8 EUR | |
The BCS Screen 10 mL kit | ||||
M-MD1-104 | MiTeGen | 96 x 10 ml ml | 531 EUR | |
Potassium chloride 1 M, 1000 ml | ||||
12-9175-10 | Medicago | 1000 ml | 174 EUR | |
Glycine, 1 M Glykokoll (100 ml) | ||||
M-CSS-510-10.6 | MiTeGen | 100 ml | 62 EUR | |
Ammonium dihydrogen Phosphate, 3 M, 100 ML | ||||
M-CSS-133 | MiTeGen | 100 ml | 90 EUR | |
Calcium Acetate Hydrate, 1 M, 100 ML | ||||
M-CSS-153 | MiTeGen | 100 ml | 77 EUR | |
Calcium Chloride Dihydrate, 5 M, 100 ML | ||||
M-CSS-155 | MiTeGen | 100 ml | 70 EUR | |
di-Ammonium Tartrate, 2 M, 100 ML | ||||
M-CSS-172 | MiTeGen | 100 ml | 90 EUR | |
L-Glutathion reduced, 0.16 M, 100 ML | ||||
M-CSS-199 | MiTeGen | 100 ml | 175 EUR | |
Lithium Citrate Hydrate, 1.5 M, 100 ML | ||||
M-CSS-203 | MiTeGen | 100 ml | 77 EUR | |
Magnesium Acetate Tetrahydrate, 1 M, 100 ML | ||||
M-CSS-210 | MiTeGen | 100 ml | 90 EUR | |
Magnesium Chloride Hexahydrate, 1 M, 100 ML | ||||
M-CSS-211 | MiTeGen | 100 ml | 70 EUR | |
Magnesium Nitrate Hexahydrate, 1 M, 100 ML | ||||
M-CSS-214 | MiTeGen | 100 ml | 70 EUR | |
Magnesium Sulfate Heptahydrate, 2.5 M, 100 ML | ||||
M-CSS-216 | MiTeGen | 100 ml | 90 EUR | |
Nickel Sulfate Hexahydrate, 1 M, 100 ML | ||||
M-CSS-227 | MiTeGen | 4 x 25 ml | 77 EUR | |
Potassium dihydrogen Phosphate, 1 M, 100 ML | ||||
M-CSS-268 | MiTeGen | 100 ml | 62 EUR | |
Zinc Acetate Dihydrate, 1 M, 100 ML | ||||
M-CSS-324 | MiTeGen | 4 x 25 ml | 77 EUR | |
Zinc Sulfate Heptahydrate, 1 M, 100 ML | ||||
M-CSS-326 | MiTeGen | 4 x 25 ml | 77 EUR | |
TBG pH 4.0, 1 M, 100 ML | ||||
M-CSS-384 | MiTeGen | 100 ml | 108 EUR | |
TBG pH 9.0, 1 M, 100 ML | ||||
M-CSS-385 | MiTeGen | 100 ml | 108 EUR | |
PCB pH 4.0, 1 M, 100 ML | ||||
M-CSS-387 | MiTeGen | 4 x 25 ml | 122 EUR | |
PCB pH 9.0, 1 M, 100 ML | ||||
M-CSS-388 | MiTeGen | 4 x 25 ml | 122 EUR | |
SPG pH 4.0, 1 M, 100 ML | ||||
M-CSS-389 | MiTeGen | 100 ml | 77 EUR | |
SPG pH 9.0, 1 M, 100 ML | ||||
M-CSS-390 | MiTeGen | 100 ml | 77 EUR | |
Magnesium Formate Dihydrate, 1 M, 100 ML | ||||
M-CSS-393 | MiTeGen | 100 ml | 77 EUR | |
Sodium dihydrogen Phosphate, 1 M, 100 ML | ||||
M-CSS-394 | MiTeGen | 100 ml | 70 EUR | |
MMT pH 4.0, 1 M, 100 ML | ||||
M-CSS-398 | MiTeGen | 100 ml | 96 EUR | |
MMT pH 9.0, 1 M, 100 ML | ||||
M-CSS-399 | MiTeGen | 100 ml | 96 EUR | |
MIB pH 4.0, 1 M, 100 ML | ||||
M-CSS-400 | MiTeGen | 4 x 25 ml | 81 EUR | |
MIB pH 10.0, 1 M, 100 ML | ||||
M-CSS-401 | MiTeGen | 4 x 25 ml | 81 EUR | |
CHC pH 4.0, 1 M, 100 ML | ||||
M-CSS-402 | MiTeGen | 100 ml | 122 EUR | |
CHC pH 10.0, 1 M, 100 ML | ||||
M-CSS-403 | MiTeGen | 100 ml | 122 EUR | |
AAB pH 4.0, 1 M, 100 ML | ||||
M-CSS-404 | MiTeGen | 100 ml | 96 EUR | |
AAB pH 9.0, 1 M, 100 ML | ||||
M-CSS-405 | MiTeGen | 100 ml | 96 EUR | |
DiaEasy? Dialyzer (10 ml) MWCO 3.5 kDa | ||||
K1002-10 | Biovision | each | 216 EUR | |
DiaEasy? Dialyzer (10 ml) MWCO 1 kDa | ||||
K1011-10 | Biovision | each | 438 EUR | |
Cobalt(II) Chloride Hexahydrate, 1 M, 100 ML | ||||
M-CSS-163 | MiTeGen | 4 x 25 ml | 108 EUR | |
di-Ammonium hydrogen Phosphate, 3.5 M, 100 ML | ||||
M-CSS-171 | MiTeGen | 100 ml | 90 EUR | |
Ferric(III) Chloride Hexahydrate, 1 M, 100 ML | ||||
M-CSS-184 | MiTeGen | 4 x 25 ml | 77 EUR | |
Nickel(II) Chloride Hexahydrate, 1 M, 100 ML | ||||
M-CSS-228 | MiTeGen | 4 x 25 ml | 90 EUR | |
tri-Potassium Citrate Monohydrate, 2.5 M, 100 ML | ||||
M-CSS-266 | MiTeGen | 100 ml | 77 EUR |
Conclusion
The new fluorescent sensors are more sensitive and can detect a wider range of particles, making them ideal for use in a variety of applications. With these new sensors, we can get a better understanding of the composition of complex mixtures, identify pollutants more effectively, and track the movement of particles in real-time. This is just the beginning for these new sensors, and we are excited to see what other uses they will be put to in the future.