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1 Waals gap is 0.3 A smaller for crystals with odd chains.
2 ucing C(21:0)-C(29:0) fatty acids, including odd-chain and branched ones.
3 rmediates in the metabolism of valine and of odd-chain and branched-chain fatty acids.
4                                              Odd-chain and stable isotope-labeled acyl-CoAs were used
5 g-chain ceramides using two nonphysiological odd chain ceramide (C17 and C25) internal standards was
6 ientry and multiexit biosynthesis of various odd-chain compounds at high efficiency.
7 nstrate that wild-type mice fed an 11-carbon odd-chain dicarboxylic acid (undecanedioic acid, DC(11))
8                                              Odd-chain dicarboxylic acids like DC(11) are not present
9 nsaturated FA, conjugated linoleic acids and odd chain FA, compared to feeding maize silage.
10  the sum of even chain-saturated FA (ECSFA), odd chain-FA (OCFA), unsaturated FA (UFA), conjugated li
11 evels of lactate and several medium- to long/odd-chain FAs.
12 terification of propionate and catabolism of odd chain fatty acids and select amino acids.
13  that the PAP strain had increased levels of odd chain fatty acids esterified into TAGs, suggesting t
14 ased methylmalonic acid, propionylcarnitine, odd chain fatty acids, and sphingoid bases, a new potent
15 trate lyases required for growth on even and odd chain fatty acids.
16 nnected pathways that involve reduced plasma odd-chain fatty acid levels, decreased gamma and beta el
17 ting the synthesis of pentadecanoic acid, an odd-chain fatty acid, from Bacteroides acidifaciens.
18 y acids (precursors of acetyl-CoA) by medium-odd-chain fatty acids (precursors of acetyl-CoA and anap
19 ely correlated with plasma concentrations of odd-chain fatty acids [OCFAs; pentadecanoic acid (15:0)
20 P. gingivalis, were also able to incorporate odd-chain fatty acids into lipid A when grown in the pre
21 Propionyl-CoA generated by beta-oxidation of odd-chain fatty acids is metabolized via the methylcitra
22               A product of beta-oxidation of odd-chain fatty acids is propionyl-CoA.
23  oxidation of branched-chain amino acids and odd-chain fatty acids to the TCA cycle.
24 rmediate from the degradation of propionate, odd-chain fatty acids, and some amino acids.
25 sed by high concentrations of linoleic acid, odd-chain fatty acids, and very long-chain fatty acids,
26 ncentrations of linoleic acid, stearic acid, odd-chain fatty acids, and very-long-chain saturated fat
27        Increased concentrations of BCAAs and odd-chain fatty acids, both of which are metabolized to
28  one-carbon metabolism and the catabolism of odd-chain fatty acids, branched-chain amino acids, and c
29                         Supplementation with odd-chain fatty acids, cholesterol or vitamin B(12) rest
30 ecursors of propionyl-CoA, i.e., propionate, odd-chain fatty acids, isoleucine, threonine, and valine
31 species, including TGs comprised of shorter, odd-chain fatty acids, which strongly suggests an increa
32 ential precursor for the biosynthesis of the odd-chain fatty acids.
33  tissues and in bacteria grown in culture on odd-chain fatty acids.
34 e involved in the catabolism of amino acids, odd-chained fatty acids and other metabolites.
35 porting mouse brain tissue by the diagnostic odd-chained fatty acids and reflected control bacterial
36  short-chain PFAS alternatives, H-PFCAs, and odd-chain FTCAs were found to increase over time.
37 leiotropic changes, including an increase in odd-chain glycerophospholipids, and perturbations in the
38                         The lipid A contains odd-chain hydroxylated fatty acids, lacks phosphate, and
39 , in differentiating adipocytes, unsaturated odd chain length fatty acids in TAG molecular species co
40 sulting in the absence of Delta8 unsaturated odd chain length fatty acids.
41 pocytes, leading to a marked accumulation of odd chain length fatty acyl moieties.
42 , which is manifested in the accumulation of odd chain length unbranched fatty acids in all major lip
43 nerated by the peroxisomal beta-oxidation of odd chain-length dicarboxylic fatty acids.
44                  In contrast, both even- and odd-chain-length alcohols (C3 to C7) were able to induce
45 pane oxidation and of the oxidation of other odd-chain-length alkanes following beta-oxidation, was a
46 (-1).mg protein(-1)) following growth on the odd-chain-length alkanes, propane and pentane.
47 es were observed in response to even- versus odd-chain-length alkanes.
48                                Specifically, odd-chain-length films are oriented such that the last C
49 al production of the full range of even- and odd-chain-length MCFAs and found that MCFA production is
50                               SAM films with odd chain lengths (n, m = 14 and 16) have a consistently
51 ol biosynthetic pathway for the synthesis of odd-chain molecules and the development of a complementa
52 mine sensor, with pronounced selectivity for odd chains of medium length.
53                                              Odd chain PFA (15:0, 17:0) concentrations were significa
54 opionic acid facilitated the biosynthesis of odd-chain PUFAs without the need for genetically modifie
55 proach led to an increased yield of specific odd-chain PUFAs, including C17:2omega6, C17:3omega3, C17
56  and TWEEN 80 to stimulate the production of odd-chain PUFAs.
57 , which enables the controlled production of odd-chain PUFAs.
58  (1.4 kJ/mol) of interlamellae interfaces of odd-chain samples, possibly due to registration/packing.
59                                      Dietary odd-chain saturated fatty acids (OCFAs) are present in t
60 GAT1 KK was associated with higher levels of odd-chain saturated triacylglycerols than DGAT1 AA, and
61 ngly, levels of pentadecylic acid (C15:0, an odd-chain SFA) and palmitoleic acid were inversely corre
62                        By contrast, measured odd-chain SFAs (15:0 [pentadecanoic acid] and 17:0 [hept
63 ed variations in the milk lipidome with many odd chain triacylglycerides upregulated in hay milk.