76 resultados para BUN
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min taʼlīfāt Mīrzā Muḥammad ibn Sulaymān al-Tunukābunī.
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1. Chūshingura bunko--2. Chinsetsu yumihari-zuki, Shunkan Sōzu shima monogatari, Raigō Ajari kaisoden--3. Saikaku bunshū--4. Dōchū hizakurige zenshū--5. Kyōkaku zenden--6-8. Nansō satomi hakkenden--9. Engeki kyakuhonshū--10. Chūgi fukushūden--11. Kikōbun hen--12. Sewa jōruri meisakushū.
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Yamiyo.
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Mode of access: Internet.
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Mode of access: Internet.
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Limited edition of 100 copies.
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Includes section "Directories and statistics".
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"Shinkoku jūyō bun-bukanhyō" (1 folded leaf) inserted.
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Hatsubai: Tōkyōdō Shoten hoka.
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Honsho wa "Nara to Kyōto" no shimaihen to shite "Kobijutsu angya" no uchi Kantō ni zokusuru bun o teiseishita mono ni arata ni nihen o kuwaeta mono de aru.
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The syntheses of the hexadentate ligands 2,2,10,10-tetra(methyleneamine)-4,8-dithiaundecane (PrN(4)S(2)amp), 2,2,11,11-tetra(methyleneamine)-4,9-dithiadodecane (BuN(4)S(2)amp), and 1,2-bis(4,4-methyleneamine)-2-thiapentyl)benzene (XyN(4)S(2)amp) are reported and the complexes [Co(RN(4)S(2)amp)](3+) (R = Pr, Bu, Xy) characterised by single crystal X-ray study. The low-temperature (11 K) absorption spectra have been measured in Nafion films. From the observed positions of both spin-allowed (1)A(1g) --> T-1(1g) and (1)A(1g) --> T-1(2g) and spin forbidden (1)A(1g) --> T-3(1g) and (1)A(1g) --> T-3(2g) bands, octahedral ligand-field parameters (10D(q), B and C) have been determined. DFT calculations suggest that significant interaction between the d-d and CT excitations occurs for the complexes. The calculations offer an explanation for the observed deviations from linearity of the relationship between Co-59 magnetogyric ratio and beta(DeltaE)(-1) (beta = the nephelauxetic ratio; DeltaE the energy of the (1)A(1g) --> T-1(1g) transition) for a series of amine and mixed amine/thioether donor complexes.
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In this paper, we present results of the internal structure (pore size and pore wall thickness distributions) of a series of activated carbon fibers with different degrees of burn-off, determined from interpretation of argon adsorption data at 87 K using infinite and finite wall thickness models. The latter approach has recently been developed in our laboratory. The results show that while the low bun-off samples have nearly uniform pore size (
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This survey is one of a series of nutritional surveys safefood has commissioned. The others include; Nutritional content of chicken & potato products in deli counters and takeaway outlets (2009) Survey of salt levels in soup in catering establishments on the island of Ireland (2011) Pizza - what’s in that box? – Nutritional content of a range of takeaway and shop-bought pizzas (2012) What’s in that bun? – Nutritional content of a range of takeaway burgers (2012) What’s in your Chinese takeaway? – Nutritional content of a range of takeaway Chinese food (2012) This survey looks at the nutritional content of a popular and convenient "on-the-go" food, the wrap, and sheds light on whether it is a healthy option. - See more at: http://www.safefood.eu/Publications/Research-reports/What%E2%80%99s-in-your-favourite-wraps.aspx#sthash.3UE6R6d4.dpuf
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Seals must manage their energy reserves carefully while they fast on land to ensure that they go to sea with sufficient fuel to sustain them until they find food. Glucocorticoids (GCs) have been implicated in the control of fuel metabolism and termination of fasting in pinnipeds. Here we tested the hypothesis that dexamethasone, an artificial GC, increases fat and protein catabolism, and induces departure from the breeding colony in wild, fasting grey seal pups. A single intramuscular dose of dexamethasone completely suppressed cortisol production for 24–72 h, demonstrating activation of GC receptors. In experiment 1, we compared the effects of a single dose of dexamethasone or saline administered 10 days after weaning on fasting mass and body composition changes, cortisol, blood urea nitrogen (BUN) and glucose levels, and timing of departure from the colony. In experiment 2, we investigated the effects of dexamethasone on short-term (5 days) changes in mass loss, body composition and BUN levels. In experiment 1, dexamethasone induced a short-lived increase in mass loss, but there was no difference in timing of departure between dexamethasone- and saline-treated pups (N=10). In experiment 2, dexamethasone increased protein and water loss and prevented a decrease in BUN levels (N=11). Our data suggest changes in cortisol contribute to regulation of protein catabolism in fasting seal pups, irrespective of the sex of the animal, but do not terminate fasting. By affecting the rate of protein depletion, lasting changes in cortisol levels could influence the amount of time seal pups have to find food, and thus may have important consequences for their survival.
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Purpose: To investigate the anti-hyperuricemic effect of Dioscorea tokoro Makino extract (DTME) in potassium oxonate-induced hyperuricemic mice. Method: The effect of DTME was investigated in the hyperuricemic mice induced by potassium oxonate. DTME. The extract was administered to the mice daily at doses of 220, 440 and 880 mg/kg for 10 days; allopurinol (5 mg/kg) was given as positive control. Serum and urine levels of uric acid and creatinine were determined by colorimetric method. Simultaneously, protein levels of urate transporter 1 (URAT1) and organic anion transporter 1 (OAT1) in the rat kidney were analyzed by Western blotting. Results: Compared with control, a high dose of DTME inhibited xanthine oxidase (XOD) activity in both serum (18.12 ± 1.33 U/L) and in liver (70.15 ± 5.20 U/g protein) (p < 0.05); decreased levels of serum uric acid (2.04 ± 0.64 mg/L) (p < 0.05), serum creatinine (0.35 ± 0.18 μmol/L) and blood urea nitrogen (BUN) (8.83 ± 0.71 mmol/L) (p < 0.05). Furthermore, the extract increased levels of urine uric acid (38.34 ± 8.23 mg/L), urine creatinine (34.38 ± 1.98 mmol/L), down regulated of URAT1 and up regulated of OAT1 protein expressions (p < 0.05) in the renal tissue of hyperuricemic mice. Conclusion: DTME improves renal dysfunction in rats by regulating renal urate transporters in hyperuricemic rats. This may find therapeutic application in antihypertensive therapy.