Additional file 4 of 1H-NMR based-metabolomics reveals alterations in the metabolite profiles of chickens infected with ascarids and concurrent histomonosis infection
Creators: name: Oladosu, Oyekunle John
name: Correia, Banny Silva Barbosa
name: Grafl, Beatrice
name: Liebhart, Dieter
name: Metges, Cornelia C.
name: Bertram, Hanne Christine
name: Daş, Gürbüz
Publisher: name: figshare
Year: 2024
Subjects: subject: Biochemistry
subject: Medicine
subject: Microbiology
subject: FOS: Biological sciences
subject: Biotechnology
subject: Chemical Sciences not elsewhere classified
subject: Ecology
subject: Immunology
subject: FOS: Clinical medicine
subject: Cancer
subject: Infectious Diseases
subject: FOS: Health sciences
subject: Virology
subject: Computational Biology

description: Additional file 4: Figure S2. NMR spectral signal of Trimethylamine-N-oxide from database shown in one-dimensional experiment (1D) data (A) and in two-dimensional (2D) experiment data (B); and from plasma sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (C). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D). Figure S3. NMR spectral signal of Dimethyl sulfone from database shown in one-dimensional experiment (1D) data (A) and in two-dimensional (2D) experiment data (B); and from plasma sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (C). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D). Figure S4. NMR spectral signal of Myo-inositol from database shown in one-dimensional experiment data (1D) (A) and in two-dimensional (2D) experiment data (B); and from plasma sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (C). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D). Figure S5. NMR spectral signal of Serine from database shown in one-dimensional experiment data (1D) (A) and in two-dimensional (2D) experiment data (B); and from plasma sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (c). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D). Figure S6. NMR spectral signal of 3-Methylhistidine from database shown in one-dimensional experiment (1D) data (A); and from plasma sample of nematode infected hens during wpi 18 shown in 1D experiment (B); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (B). Figure S7. NMR spectral signal of 1,7-Dimethylxanthine from database shown in one-dimensional experiment (1D) data (A); and from liver sample of nematode infected hens during wpi 18 shown in 1D experiment (B); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (B). Figure S8. NMR spectral signal of 3-Methylxanthine from database shown in one-dimensional experiment (1D) data (A) and in two-dimensional (2D) experiment data (B); and from liver sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting obtained from Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (C). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D). Figure S9. NMR spectral signal of Oxypurinol from database shown in one-dimensional experiment (1D) data (A) and in two-dimensional (2D) experiment data (B); and from liver sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting of Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (C). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D). Figure S10. NMR spectral signal of TMAO from database shown in one-dimensional experiment (1D) data (A) and in two-dimensional (2D) experiment data (B); and from liver sample of nematode infected hens during wpi 18 shown in 1D experiment (C) and in 2D experiment (D); X axis represents the 1H chemical shift in ppm. The blue colour represents the fitting of Chenomx database, the black line represents the real sample, and the Match Factor is given in percentage (C). Frequency 1 (F1 ppm) represents the 13C chemical shift in ppm, while the frequency 2 (F2 ppm) represents the 1H chemical shift in ppm (B, D).