Neuronal High Content Imaging (HCI) Assay Service
By incorporating high-content Assay, Creative Biolabs positions itself at the forefront of neuroscience research, offering clients powerful tools to advance their studies and accelerate the development of new therapies for neurological disorders. To learn more about our products and services, submit a project inquiry, or request pricing, please contact us.
Overview
High-content imaging (HCI) has revolutionized neuroscience research and drug discovery by combining automated microscopy with advanced image analysis. This powerful technique allows scientists to simultaneously visualize and quantify multiple cellular parameters, providing unprecedented insights into neuronal morphology, function, and pathology. In neuroscience, HCI has diverse applications, ranging from detailed analysis of neuronal morphology to the study of synaptic function, investigation of neuroinflammation, and modeling of neurodegenerative diseases.
Fig.1 Workflow for HCI and analysis.1
Applications in Neuroscience
HCI enables the collection of multiple parameters over long-time courses, providing researchers with highly sensitive, high-throughput screens that generate replicable results. In basic research applications in neuroscience, HCI can be used to observe the pathology of many diseases, including diseases such as Alzheimer's, Parkinson's, and other protein aggregate-based neurodegenerative diseases. Where HCI truly shines, however, is in preclinical drug screening. The automation of HCI allows for many compounds to be evaluated simultaneously. In neuroscience-specific applications, this enables researchers to, for example, test several iterations of a compound for its ability to inhibit aggregation or test less related compounds for their ability to promote neurite growth. This quickly provides insights that allow researchers to optimize their compound designs, identify useful classes of molecules, or select particular compounds for further research.
Advantages of HCI
HCI offers numerous advantages that make it indispensable in modern neuroscience:
Advantages | Descriptions |
Multi-parametric analysis | HCI allows for the simultaneous measurement of multiple cellular parameters, providing a comprehensive view of cellular responses and interactions. |
High-throughput capability | The automated nature of HCI enables rapid screening of large sample sets, significantly accelerating research and drug discovery processes. |
Quantitative data | HCI provides objective, quantitative measurements, reducing subjectivity in data interpretation and improving reproducibility. |
Time-lapse studies | HCI can capture cellular dynamics over time, enabling the study of processes like cell division, migration, and differentiation. |
Increased sensitivity | The technology can detect subtle cellular changes that might be missed by conventional methods. |
Reduced sample size | HCI often requires smaller sample volumes compared to traditional biochemical assays, conserving valuable research materials. |
Impact on Neuroscience Research
The high-throughput capability of HCI accelerates research and drug discovery processes, while its multi-parametric analysis provides a comprehensive view of cellular responses. By offering quantitative data and preserving spatial information within cells and tissues, HCI reduces subjectivity in data interpretation and enhances our understanding of cellular organization in the nervous system. These capabilities make HCI an indispensable technology in modern neuroscience, driving advancements in both basic research and the development of new therapies for neurological disorders.
Creative Biolabs, leveraging HCI technology, can offer cutting-edge services in neuroscience research and drug discovery. These services include custom assay development, high-throughput drug screening, neurotoxicity testing, and detailed mechanism of action studies. Please do not hesitate to contact us to discuss your project plans in more detail.
Reference
- Menduti, Giovanna, and Marina Boido. "Recent Advances in High-Content Imaging and Analysis in iPSC-Based Modelling of Neurodegenerative Diseases." International Journal of Molecular Sciences 24.19 (2023): 14689. Distributed under Open Access license CC BY 4.0, without modification.
- iNeuMab™ Anti-F-Spondin/SPON1 Antibody, Clone 3F4 (Cat#: NRZP-0822-ZP4740)
- iNeuMab™ Rabbit Anti-LRRK2 Monoclonal Antibody (CBP1887) (Cat#: NAB-08-PZ735)
- iNeuMab™ Mouse Anti-LRP1 Monoclonal Antibody (CBP3363) (Cat#: NAB-0720-Z6479)
- iNeuMab™ Mouse Anti-SHANK3 Monoclonal Antibody (CBP929) (Cat#: NAB-0720-Z3477)
- iNeuMab™ Rabbit Anti-Alpha-synuclein (CBP1631) (Cat#: NAB-08-PZ079)
- iNeuMab™ Mouse Anti-EFNB2 Monoclonal Antibody (CBP1159) (Cat#: NAB-0720-Z4396)
- Mouse Anti-SCN5A Monoclonal Antibody (CBP708) (Cat#: NAB-0720-Z2720)
- Mouse Anti-Human α-Synuclein Phospho (Tyr39) (CBP3706) (Cat#: NAB201250LS)
- Human Dental Pulp Stem Cells (Cat#: NRZP-1122-ZP113)
- Green Fluorescent Tau cell Line (Cat#: NCL2110P219)
- Mouse Microglia Cell Line BV-2, Immortalized (Cat#: NCL2110P153)
- Mouse Microglia N9 (Cat#: NCL2110P073)
- iNeu™ Human Sensory Neurons (Cat#: NCL-2103-P62)
- Mouse Midbrain Dopaminergic Neuron Cell MN9D (Cat#: NCL2110P059)
- iNeu™ Human Motor Neurons (Cat#: NCL-2103-P71)
- Human Retinal Epithelial Cell ARPE-19 (Cat#: NCL2110P069)
- Mouse Glioma Cell Line GL261 (Cat#: NCL-2108P28)
- Green Fluorescent Alpha-synuclein Cell Line (Cat#: NCL2110P209)
- Human Poly ADP ribose polymerase,PARP Assay Kit (Cat#: NRZP-1122-ZP62)
- Human GFAP ELISA Kit [Colorimetric] (Cat#: NPP2011ZP383)
- Amyloid beta 1-42 Kit (Cat#: NRP-0322-P2170)
- Beta Amyloid (1-42), Aggregation Kit (Cat#: NRZP-0323-ZP200)
- Human Tau Aggregation Kit (Cat#: NRP-0322-P2173)
- Beta Amyloid (1-40), Aggregation Kit (Cat#: NRZP-0323-ZP199)
- Alpha-Synuclein Aggregation Assay Kit (Cat#: NRZP-1122-ZP37)
- Alpha Synuclein Aggregation Kit (Cat#: NRZP-1122-ZP15)
- Dextran, NHS Activated (Cat#: NRZP-0722-ZP124)
- VSV-eGFP (Cat#: NTA-2011-ZP20)
- AAV2 Full Capsids, Reference Standards (Cat#: NTC2101070CR)
- Human apolipoprotein E (APOE) (NM_000041) ORF clone, Untagged (Cat#: NEP-0421-R0232)
- Rat Parkinson disease (autosomal recessive, juvenile) 2, parkin (Park2) (NM_020093) ORF clone/lentiviral particle, Myc-DDK Tagged (Cat#: NEP-0621-R0041)
- App Rat amyloid beta (A4) precursor protein (App)(NM_019288) ORF clone, Untagged (Cat#: NEP-0421-R0053)
- Human huntingtin (HTT) (NM_002111) ORF clone, Myc-DDK Tagged (Cat#: NEP-0521-R0497)
- Mouse SOD1 shRNA Silencing Adenovirus (Cat#: NV-2106-P14)
- Human huntingtin-associated protein 1 (HAP1) transcript variant 2 (NM_177977) ORF clone, Myc-DDK Tagged (Cat#: NEP-0521-R0676)
- Human presenilin 1 (PSEN1), transcript variant 2 (NM_007318) ORF clone, TurboGFP Tagged (Cat#: NEP-0421-R0140)
- Mouse Parkinson disease (autosomal recessive, early onset) 7 (Park7) (NM_020569) clone, Untagged (Cat#: NEP-0621-R0133)
- Tau Antisense Oligonucleotide (IONIS-MAPTRx) (Cat#: NV-2106-P29)
- Human superoxide dismutase 1, soluble (SOD1) (NM_000454) ORF clone, TurboGFP Tagged (Cat#: NEP-0521-R0748)
- NeuroBiologics™ Monkey Cerebrospinal Fluid (Cat#: NRZP-0822-ZP495)
- NeuroBiologics™ Mouse Cerebrospinal Fluid (Cat#: NRZP-0822-ZP497)
- NeuroBiologics™ Rat Cerebrospinal Fluid (Cat#: NRZP-0822-ZP496)
- NeuroBiologics™ Human Cerebrospinal Fluid (Cat#: NRZP-0822-ZP491)
- NeuroBiologics™ Pig Cerebrospinal Fluid (Cat#: NRZP-0822-ZP498)
- NeuroPro™ Anti-GDNF BBB Shuttle Protein (Cat#: NRZP-0423-ZP500)
- NeuroPro™ Anti-IDUA BBB Shuttle Protein (Cat#: NRZP-0423-ZP498)
- NeuroPro™ Anti-idursulfase BBB Shuttle Protein (Cat#: NRZP-0423-ZP497)
- NeuroPro™ Anti-TNFR BBB Shuttle Protein (Cat#: NRZP-0423-ZP501)
- NeuroPro™ Anti-Erythropoietin BBB Shuttle Protein (Cat#: NRZP-0423-ZP499)
- NeuroPro™ Anti-IDUA BBB Shuttle Protein (Cat#: NRZP-0423-ZP502)
- NeuroPro™ Anti-EPO BBB Shuttle Protein (Cat#: NRZP-0423-ZP508)
- NeuroPro™ Anti-GDNF BBB Shuttle Protein (Cat#: NRZP-0423-ZP509)
- NeuroPro™ Anti-TNFR BBB Shuttle Protein (Cat#: NRZP-0423-ZP510)
- NeuroPro™ Anti-IDS BBB Shuttle Protein (Cat#: NRZP-0423-ZP503)