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31 results for “RAPD”
Fig. 2 in Protocol Optimization For Genomic Dna Extraction And Rapd-Pcr Of Alien Ponto-Caspian Amphipod Pontogammarus Robustoides
Fig. 2. RAPD fingerprints results from different samples of Pontogammarus robustoides with primers OPA-02 (1-12 runners- different samples of Pontogammarus robustoides; K- control) using RAPD-PCR 10 × Taq buffer with KCl.
Fig. 2 in Optimisation Of Dna Extraction And Rapd-Pcr Amplification For Population Genetic Analysis Of Daphnia Cucullata Sars, 1862 (Crustacea: Cladocera)
Fig. 2. RAPD fingerprints results from different samples of Daphnia cucullata with primers OPA-03 and OPA-05 (M- marker, 1-11 runners- different samples of Daphnia cucullata; 12- control) using RAPD-PCR 10 × Taq buffer with (NH4)2SO4.
Fig.1 in Optimisation Of Dna Extraction And Rapd-Pcr Amplification For Population Genetic Analysis Of Daphnia Cucullata Sars, 1862 (Crustacea: Cladocera)
Fig.1. RAPD fingerprints results from different samples of Daphnia cucullata with primers OPA-03 and OPA-05 (M- marker, 1-16 runners- different samples of Daphnia cucullata; 17- control) using RAPD-PCR 10 × Taq buffer with KCl.
Fig.1 in Protocol Optimization For Genomic Dna Extraction And Rapd-Pcr Of Alien Ponto-Caspian Amphipod Pontogammarus Robustoides
Fig.1. Localities of sampling sities in the Latvian reservoirs.
Fig. 6. RAPD band patterns and mean heterozygosity across S in MORPHOLOGICALAND GENETIC DIFFERENTIATION OF SAXIFRAGA HIRCULUS L. (SAXIFRAGACEAE) POPULATIONS IN LITHUANIA Edita Meškauskaitė, Donatas Naugžemys, Donatas Žvingila, Jonas Remigijus
Fig. 6. RAPD band patterns and mean heterozygosity across S. hirculus populations in Lithuania
FIGURE 6 in Discrimination of the bumble bee species Bombus occidentalis Greene and B. terricola Kirby by morphometric, colour and RAPD variation
FIGURE 6. Right forewing of a Bombus queen. The distance to point E from each of the other 13 points was measured.
FIGURE 2 in Discrimination of the bumble bee species Bombus occidentalis Greene and B. terricola Kirby by morphometric, colour and RAPD variation
FIGURE 2. Two variant colour patterns of B. occidentalis found in Alberta. The specimen on the left has faint yellow hair on the abdomen and some additional yellow on the rear of the thorax, while the specimen on the right has a definite yellow band on abdominal tergum IV.
FIGURE 7 in Discrimination of the bumble bee species Bombus occidentalis Greene and B. terricola Kirby by morphometric, colour and RAPD variation
FIGURE 7. Plot of the first two Canonical scores for the 1985 and 1986 specimens of B. occidentalis and B. terricola. Yellow squares = occidentalis, 1985; green triangles = occidentalis 1986; red circles = terricola, 1985; blue pentagons = terricola 1986.
FIGURE 5 in Discrimination of the bumble bee species Bombus occidentalis Greene and B. terricola Kirby by morphometric, colour and RAPD variation
FIGURE 5. Bumble bee collection locations in Alberta: 1 = Ya-Ha Tinda Ranch, 2 = Calgary, 3= Sibbald Flats, 4 = Barrier Lake, 5 = Fortress Mountain, 6 = High Level, 7 = Fort McMurray, 8 = Lesser Slave Lake.
Fig. 1 in A RAPD study of the Sarcostemma group of Cynanchum (Apocynaceae-Asclepiadoideae-Asclepiadeae)
Fig. 1 Examples from the Sarcostemma subgroup of Cynanchum (a–e). (a) Cynanchum antsiranense (Madagascar, Lavranos 28772). (b) Cynanchum arabicum (Yemen, Radcliffe-Smith 4624). (c) Cynanchum forskaolianum (Yemen, Noltee 864). (d) Cynanchum stoloniferum (Tanzania, Noltee 199). (e) Cynanchum viminale subsp. viminale in habitat (Tanzania, Mkomasi; Liede & Meve 3389). Photos by U. Meve
FIGURE 2. The dendrogram constructed from RAPD bands from 14 in DNA profiles to identify Dillenia species (Dilleniaceae) in Thailand
FIGURE 2. The dendrogram constructed from RAPD bands from 14 primers in 28 individuals of 14 species and of the Dillenia sp. by NTSYS-pc version 2.1 UPGMA.
FIG. 8. RAPD fragments amplified using primers 617–624 in Synonymy of Rhynchophorus ferrugineus (Olivier), 1790 and R. vulneratus (Panzer), 1798 (Coleoptera, Curculionidae, Rhynchophorinae)
FIG. 8. RAPD fragments amplified using primers 617–624 on DNA from R. ferrugineus (F) and R. vulneratus (V) specimens from Bojong Kalong, Java. Primer nucleotide sequences (5'–3'): 617, CGG-ACT-ATG-T; 618, CGG-ACT-ATG-T; 619, TTC-CCT- AGC-G; 620, TTG-CGC-CCG-G; 621, GTC-TGC-GCT-A; 622, ACA-GGT-GGT-T; 623, TGC-GGG-ACT-G; 624, GTG-ATA-AGC-C.
FIG. 6. RAPD fragments amplified using primers 601–608 in Synonymy of Rhynchophorus ferrugineus (Olivier), 1790 and R. vulneratus (Panzer), 1798 (Coleoptera, Curculionidae, Rhynchophorinae)
FIG. 6. RAPD fragments amplified using primers 601–608 on DNA from R. ferrugineus (F) and R. vulneratus (V) specimens from Bojong Kalong, Java. Lanes 1 and 10 contain a 100 bp ladder for reference. Primer nucleotide sequences (5'–3'): 601, CCG-CCC- ACT-G; 602, GCG-AAG-ACT-A; 603, ACC-CAC-CGC-G; 604, GGC-CCA-TTG-C; 605, CCG-ATC-ATT-C; 606, CGG-TCG-GCC-A; 607, AGT-GTC-GTC-G; 608, GAG-CCC-GAA-A.
FIG. 7. RAPD fragments amplified using primers 609–616 in Synonymy of Rhynchophorus ferrugineus (Olivier), 1790 and R. vulneratus (Panzer), 1798 (Coleoptera, Curculionidae, Rhynchophorinae)
FIG. 7. RAPD fragments amplified using primers 609–616 on DNA from R. ferrugineus (F) and R. vulneratus (V) specimens from Bojong Kalong, Java. Lanes 7, 12 and 13 contain a 100 bp ladder for reference. Primer nucleotide sequences (5'–3'): 609, ACA- GCA-CCA-T; 610, TTT-GCC-GCC-C; 611, CCA-TCG-TAC-C; 612, CCG-TGA- GTA-T; 613, TGC-ACC-CAC-G; 614, GTA-GTC-TCG-C; 615, CGT-CGA-GCG-G; 616, CGG-AAG-AAA-C.
Fig. 4 in Characterisation of Thai strawberry (Fragaria × ananassa Duch.) cultivars with RAPD markers and metabolite profiling techniques
Fig. 4. Metabolite pathway display shows significant difference between Praratchatan No.80 and Akihime at 25Daa. Changes of metabolites are displayed as ratio>1 (blue), <1 (red), no change (grey) and not detected (white). Analysis comprised six biological replicates per cultivar. (For interpretation of the references to colour in this figure legend, the reader is referred to the Web version of this article.)
Fig. 5 in Characterisation of Thai strawberry (Fragaria × ananassa Duch.) cultivars with RAPD markers and metabolite profiling techniques
Fig. 5. PCA analysis of volatile analysis of Akihime and Praratchatan No.80. Freeze-dried tissue was analysed by SPME-GC-MS. Samples and metabolites are displayed as score plot (A) and loading plot (B). Six biological replicates are displayed individually.
Fig. 3 in Characterisation of Thai strawberry (Fragaria × ananassa Duch.) cultivars with RAPD markers and metabolite profiling techniques
Fig. 3. Heatmap of metabolites detected in strawberry fruits of Praratchatan No.80 and Akihime. Metabolites were analysed by GC-MS and LC-MS from polar extracts and by GC-MS from non-polar extracts. Ripening stages are displayed as 7, 10, 13, 16, 19, 22, 25, 28Daa. Only significant compounds, as determined by twoway ANOVA analysis, are displayed. Biological replicates are displayed individually. A more detailed version of this figure is available as Supplementary Fig. 3.
Fig. 2 in Characterisation of Thai strawberry (Fragaria × ananassa Duch.) cultivars with RAPD markers and metabolite profiling techniques
Fig. 2. Stages of fruit development from flower (FL) to overripe fruit of strawberry cultivar Akihime (A) and Praratchatan No.80 (B). Stages are labelled as days after anthesis (Daa). PCA analysis of metabolite composition of Praratchatan No.80 (circles) and Akihime (squares) at eight different fruit ripening stages (C). Metabolites of polar and non-polar extracts were analysed by GC-MS and LC-MS. Data includes 134 identified metabolites including primary and specialised metabolism. Analysis comprised six biological replicates, which are displayed individually.
Fig. 1 in Characterisation of Thai strawberry (Fragaria × ananassa Duch.) cultivars with RAPD markers and metabolite profiling techniques
Fig. 1. Dendrograms of six strawberry varieties based on their genetic (A) and metabolic (B) similarities. The genetic information is based on the degree of band sharing of 228 polymorphic alleles. The metabolic data comprises 129 metabolites identified in polar and non-polar leaf extracts by GC-MS. (C) Representative leaf of six strawberry cultivars.
Fig. 2 in Efficiency of RAPD, ISSR, iPBS, SCoT and phytochemical markers in the genetic relationship study of five native and economical important bamboos of North-East India
Fig. 2. Mantel test showing significant correlation between different markers: (A) ISSR vs RAPD, (B) ISSR vs iPBS, (c) RAPD vs iPBS, (D) ISSR vs SCoT, (E) RAPD vs SCoT, (F) SCoT vs iPBS.
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