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Microarray

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239:-filtered and have controlled humidity and temperature surroundings, which is typically around 25°C, 50% humidity. Early microarrays were directly printed onto the surface by using printer pins which deposit the samples in a user-defined pattern on the slide. Modern methods are faster, generate less cross-contamination, and produce better spot morphology. The surface to which the probes are printed must be clean, dust free and hydrophobic, for high-density microarrays. Slide coatings include poly-L-lysine, amino silane, epoxy and others, including manufacturers solutions and are chosen based on the type of sample used. Ongoing efforts to advance microarray technology aim to create uniform, dense arrays while reducing the necessary volume of solution and minimizing contamination or damage. 27: 309:-based printing, Electro-printing and droplet dispensing. In contrast to the other methods, non-contact printing does not involve contact between the surface and the stamp, pin, or other used dispenser. The main advantages are reduced contamination, lesser cleaning and higher throughput which increases steadily. Many of the methods are able to load the probes in parallel, allowing multiple arrays to be produced simultaneously. 272:, which in theory covers different, related pattern transfer technologies using patterned polymer monolithic substrates, the most prominent being microstamping. In contrast to pin printing, microstamping is a more parallel deposition method with less individuality. Certain stamps are loaded with reagents and printed with these reagent solutions identically. 254:
as a sample anymore, but also proteins, antibodies, antigens, glycans, cell lysates and other small molecules. All samples used are presynthesized, regularly updated, and more straightforward to maintain. Array fabrication techniques include contact printing, lithography, non-contact and cell free
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of a plant were printed on glass slide typically used for light microscopy, modern microarrays on the other hand include now thousands of probes and different carriers with coatings. The fabrication of the microarray requires both biological and physical information, including sample libraries,
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In cell free systems, the transcription and translation are carried out in situ, which makes the cloning and expression of proteins in host cells obsolete, because no intact cells are needed. The molecule of interest is directly synthesized onto the surface of a solid area. These assays allow
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A large number of technologies underlie the microarray platform, including the material substrates, spotting of biomolecular arrays, and the microfluidic packaging of the arrays. Microarrays can be categorized by how they physically isolate each element of the array, by spotting (making small
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printers, and slide substrates. Though all procedures and solutions always dependent on the fabrication technique employed. The basic principle of the microarray is the printing of small stains of solutions containing different species of the probe on a slide several thousand times.
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combines various methods like Photolithography, Interference lithography, laser writing, electron-beam and Dip pen. The most widely used and researched method remains Photolithography, in which photolithographic masks are used to target specific nucleotides to the surface.
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microarray contact printing. This technique uses pin types like solid pins, split or quill pins to load and deliver the sample solution directly on solid microarray surfaces. Microstamping offers an alternative to the commonly used pin printing and is also referred as soft
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has been blocked, the area will remain protected from the addition of nucleotides, whereas in areas which were exposed to UV light, further nucleotides can be added. With this method high-quality custom arrays can be produced with a very high density of
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physical wells), on-chip synthesis (synthesizing the target DNA probes adhered directly on the array), or bead-based (adhering samples to barcoded beads randomly distributed across the array).
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For the manufacturing process, a sample library which contains all relevant information is needed. In the early stages of microarray technology, the sole sample used was
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Guo, W; Vilaplana, L; Hansson, J; Marco, P; van der Wijngaart, W (2020). "Immunoassays on thiol-ene synthetic paper generate a superior fluorescence signal".
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miniaturized, multiplexed and parallel processing and detection methods. The concept and methodology of microarrays was first introduced and illustrated in
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Schena, M.; Shalon, D.; Davis, R. W.; Brown, P. O. (1995). "Quantitative Monitoring of Gene Expression Patterns with a Complementary DNA Microarray".
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Contact printing microarray include Pin printing, microstamping or flow printing. Pin printing is the oldest and still widest adopted methodology in
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is passed through the mask that acts as a filter to either transmit or block the light from the chemically protected microarray surface. If the
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has become the most sophisticated and the most widely used, while the use of protein, peptide and carbohydrate microarrays is expanding.
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Sack, Matej; Hölz, Kathrin; Holik, Ann-Katrin; Kretschy, Nicole; Somoza, Veronika; Stengele, Klaus-Peter; Somoza, Mark M. (2016-03-02).
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Wang, D; Carroll, GT; Turro, NJ; Koberstein, JT; Kovác, P; Saksena, R; Adamo, R; Herzenberg, LA; Herzenberg, LA; Steinman, L (2007).
61:. Its purpose is to simultaneously detect the expression of thousands of biological interactions. It is a two-dimensional array on a 188: 861: 808: 752:
Zhou; et al. (2017). "Thiol–ene–epoxy thermoset for low-temperature bonding to biofunctionalized microarray surfaces".
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Romanov, Valentin; Davidoff, S. Nikki; Miles, Adam R.; Grainger, David W.; Gale, Bruce K.; Brooks, Benjamin D. (2014).
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Barbulovic-Nad, Irena; Lucente, Michael; Sun, Yu; Zhang, Mingjun; Wheeler, Aaron R.; Bussmann, Markus (January 2006).
1075:"Express photolithographic DNA microarray synthesis with optimized chemistry and high-efficiency photolabile groups" 206:, individual cells can be moved independently and simultaneously on a microarray of magnetic coils. A microarray of 151: 107:
article by the Ron Davis and Pat Brown labs at Stanford University. With the establishment of companies, such as
848:, Advances in Experimental Medicine and Biology, vol. 593, New York, NY: Springer New York, pp. 1–11, 332: 62: 167: 419:
Tse-Wen Chang, TW (1983). "Binding of cells to matrixes of distinct antibodies coated on solid surface".
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high-throughput analysis in a controlled environment without inferences associated with intact cells.
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Ham, Donhee; Westervelt, Robert M. (2007). "The silicon that Moves and Feels Small Living Things".
564:"Photogenerated glycan arrays identify immunogenic sugar moieties of Bacillus anthracis exosporium" 788: 708: 203: 70: 43: 20: 202:
People in the field of CMOS biotechnology are developing new kinds of microarrays. Once fed
133:, such as cDNA microarrays, oligonucleotide microarrays, BAC microarrays and SNP microarrays 1193: 966: 520: 327: 183: 26: 8: 172: 161: 86: 970: 524: 1169: 1109: 1074: 1055: 1042: 932: 734: 681: 628: 593: 544: 476:, "Immunoassay device enclosing matrixes of antibody spots for cell determinations" 396: 363: 147: 142: 116: 699:
Barbulovic-Nad; et al. (2008). "Bio-Microarray Fabrication Techniques—A Review".
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Carroll, Gregory T.; Wang, Denong; Turro, Nicholas J.; Koberstein, Jeffrey T. (2008).
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The initial publication on microarray production process dates back to 1995, when 48
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Petersen, David W.; Kawasaki, Ernest S. (2007), "Manufacturing of Microarrays",
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amplification via bacterial vectors. Modern approaches do not include just
177: 31: 1009: 540: 440: 1025: 364:"Photons to illuminate the universe of sugar diversity through bioarrays" 289: 285: 280: 269: 66: 954: 668: 246:, obtained from commonly available clone libraries and acquired through 978: 765: 108: 1134:"Cell-free synthesis-based protein microarrays and their applications" 955:"A critical comparison of protein microarray fabrication technologies" 495:, "Antibody matrix device and method for evaluating immune status" 457:, "Matrix of antibody-coated spots for determination of antigens" 98: 35: 97:
in 1983 in a scientific publication and a series of patents. The "
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Small-scale two-dimensional array of samples on a solid support
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features by using a compact device with few moving parts.
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outlining and contrasting some aspects of the fields of
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Chandra, Harini; Srivastava, Sanjeeva (2009-12-01).
19:"Microarrays" redirects here. For the journal, see 1131: 1008:Miller, Melissa B.; Tang, Yi-Wei (October 2009). 1185: 897:"Bio-Microarray Fabrication Techniques—A Review" 841: 845:Microarray Technology and Cancer Gene Profiling 698: 610: 418: 194:Interferometric reflectance imaging sensor ( 150:, for detailed analyses or optimization of 1007: 412: 139:, for surveillance of microRNA populations 1108: 1090: 1041: 712: 667: 579: 395: 214:Fabrication and operation of microarrays 189:Reverse phase protein lysate microarrays 25: 793:DNA Microarrays for Biomedical Research 305:Non-contact printing methods vary from 1186: 164:(also called transfection microarrays) 948: 946: 890: 888: 886: 837: 835: 786: 222: 751: 613:IEEE Solid-State Circuits Newsletter 258: 13: 943: 883: 832: 14: 1205: 901:Critical Reviews in Biotechnology 701:Critical Reviews in Biotechnology 210:microcoils is under development. 191:, microarrays of lysates or serum 115:, Applied Microarrays, Arrayjet, 421:Journal of Immunological Methods 119:, and others, the technology of 1125: 1066: 1001: 789:"Fabrication of DNA Microarray" 780: 745: 692: 639: 604: 555: 504: 485: 466: 447: 355: 333:Microarray analysis techniques 300: 275: 126:Types of microarrays include: 1: 1014:Clinical Microbiology Reviews 648:Biosensors and Bioelectronics 168:Chemical compound microarrays 1079:Journal of Nanobiotechnology 533:10.1126/science.270.5235.467 433:10.1016/0022-1759(83)90318-6 312: 152:protein–protein interactions 7: 854:10.1007/978-0-387-39978-2_1 801:10.1007/978-1-59745-538-1_5 321: 10: 1212: 660:10.1016/j.bios.2020.112279 625:10.1109/N-SSC.2007.4785650 208:nuclear magnetic resonance 18: 1092:10.1186/s12951-016-0166-0 913:10.1080/07388550600978358 723:10.1080/07388550600978358 380:10.1007/s10719-007-9052-1 83:high-throughput screening 77:(tests) large amounts of 348: 1150:10.1002/pmic.200900462 581:10.1002/pmic.200600478 368:Glycoconjugate Journal 204:magnetic nanoparticles 71:silicon thin-film cell 47: 493:US patent 5100777 474:US patent 4829010 455:US patent 4591570 184:Phenotype microarrays 180:(carbohydrate arrays) 89:(also referred to as 29: 21:Microarrays (journal) 1026:10.1128/cmr.00019-09 328:Microarray databases 235:Modern printers are 173:Antibody microarrays 162:Cellular microarrays 87:antibody microarrays 971:2014Ana...139.1303R 525:1995Sci...270..467S 148:Peptide microarrays 143:Protein microarrays 79:biological material 979:10.1039/c3an01577g 766:10.1039/C7LC00652G 223:Production process 157:Tissue microarrays 48: 863:978-0-387-39977-5 810:978-1-934115-69-5 787:Dufva, M (2008). 760:(21): 3672–3681. 1201: 1178: 1177: 1129: 1123: 1122: 1112: 1094: 1070: 1064: 1063: 1045: 1005: 999: 998: 965:(6): 1303–1326. 950: 941: 940: 892: 881: 880: 879: 878: 839: 830: 829: 827: 825: 784: 778: 777: 749: 743: 742: 716: 696: 690: 689: 671: 643: 637: 636: 608: 602: 601: 583: 559: 553: 552: 519:(5235): 467–70. 508: 502: 501: 500: 496: 489: 483: 482: 481: 477: 470: 464: 463: 462: 458: 451: 445: 444: 416: 410: 409: 399: 359: 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Index

Microarrays (journal)

Venn diagram
bio-MEMS
lab-on-a-chip
ÎĽTAS
multiplex
lab-on-a-chip
solid substrate
glass slide
silicon thin-film cell
assays
biological material
high-throughput screening
antibody microarrays
antibody matrix
Tse Wen Chang
gene chip
Science Magazine
Affymetrix
Agilent
Illumina
DNA microarrays
DNA microarrays
MMChips
Protein microarrays
Peptide microarrays
protein–protein interactions
Tissue microarrays
Cellular microarrays

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