PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 32778291-5 2020 Up to 468 mL L-1 of hydrogen and 203 mg L-1 of poly-beta-hydroxybutyrate can be produced starting from an initial chemical oxygen demand of 1500 mg L-1. Hydrogen 20-28 L1 cell adhesion molecule Homo sapiens 13-16 32812959-7 2020 Furthermore, complexation of L1 with Cu(BF4)2 H2O and Zn(CF3SO3)2 provided a 2D 3D interpenetrated network containing a classic dimeric copper paddle-wheel SBU, and an infinite 1D chain which extended into a 3D structure facilitated by hydrogen-bonding interactions, respectively. Hydrogen 238-246 L1 cell adhesion molecule Homo sapiens 29-31 31806513-2 2020 RCPH-biochar at concentration of 15 g L-1 substantially enhanced hydrogen generation during batch tests, with the highest cumulative hydrogen volume (3990 mL L-1) being 1.7 times that without RCPH-biochar. Hydrogen 65-73 L1 cell adhesion molecule Homo sapiens 38-41 31806513-2 2020 RCPH-biochar at concentration of 15 g L-1 substantially enhanced hydrogen generation during batch tests, with the highest cumulative hydrogen volume (3990 mL L-1) being 1.7 times that without RCPH-biochar. Hydrogen 133-141 L1 cell adhesion molecule Homo sapiens 158-161 31806513-2 2020 RCPH-biochar at concentration of 15 g L-1 substantially enhanced hydrogen generation during batch tests, with the highest cumulative hydrogen volume (3990 mL L-1) being 1.7 times that without RCPH-biochar. Hydrogen 133-141 L1 cell adhesion molecule Homo sapiens 38-41 31806513-3 2020 Then, continuous hydrogen production performance demonstrated that RCPH-biochar was capable of retaining biomass in the reactor, at 6 h hydraulic retention time, hydrogen production rate (22.8 mmol H2 L-1 h-1) was tripled compared to the control, meanwhile, glucose and xylose utilization reached to 82.3% and 54.6%, respectively. Hydrogen 162-170 L1 cell adhesion molecule Homo sapiens 201-204 31799844-2 2019 L1 displays crystallographic symmetry (orthorhombic, Pccn) higher than its molecular symmetry (point group C1) and also displays supercooling, with a difference in the melting and solidification points of over 100 C. Upon complexation with ZnCl2, L1 engages in both primary cation and secondary anion coordination via hydrogen bonding, and the complex exhibits a room-to-low-temperature single crystal-to-crystal phase transition. Hydrogen 319-327 L1 cell adhesion molecule Homo sapiens 0-2 23939620-6 2013 Thus, the RNA loading and tight coupling of NTPase activity with RNA translocation in 8 P4 is due to a remarkable C-terminal structure, which wraps right around the outside of the molecule to insert into the central hole where RNA binds to coupled L1 and L2 loops, whereas in 12 P4, a C-terminal residue, serine 282, forms a specific hydrogen bond to the N7 of purines ring to confer purine specificity for the 12 enzyme. Hydrogen 334-342 L1 cell adhesion molecule Homo sapiens 248-257 31299615-1 2019 Here in we report tris (3-aminopropyl) amine based tripodal receptors L, L1 and L2 which were functionalized with 4-nitrophenyl moieties having thio-urea, amide and sulfonamide as hydrogen bonding moieties respectively, shows a strong selectivity towards cyanide. Hydrogen 180-188 L1 cell adhesion molecule Homo sapiens 73-82 28956596-2 2017 The ligand L1 and complexes 1 and 2 have been meticulously characterized by elemental analyses and spectral studies (IR, electrospray ionization mass spectrometry, 1H and 13C NMR, UV/vis, fluorescence) and their structures explicitly authenticated by single-crystal X-ray analyses. Hydrogen 164-166 L1 cell adhesion molecule Homo sapiens 11-35 30633442-2 2019 L1 and L2 comprise pyridyl triazole chelating units with pendant diaminotriazine units, capable of donor-acceptor-donor (DAD) hydrogen bonding, while L3 and L4 contain ADA hydrogen bonding units proximal to N^N and N^O cleating sites, respectively. Hydrogen 126-134 L1 cell adhesion molecule Homo sapiens 0-9 30633442-3 2019 X-ray crystallography shows the L1 and L2 containing RuII complexes to assemble via R 2 2 8 hydrogen bonding dimers, while [RuII (bpy)2 L4] assembles via extended hydrogen bonding motifs to form one dimensional chains. Hydrogen 95-103 L1 cell adhesion molecule Homo sapiens 32-41 30633442-6 2019 The L1 and L2 complexes of IrIII and RuII complexes are emissive in the solid state and it seems likely that hydrogen bonding to complementary species may facilitate tuning of their 3 ILCT emission. Hydrogen 109-117 L1 cell adhesion molecule Homo sapiens 4-13 25635520-3 2015 Neighboring molecules in L1H and 1 are linked into supramolecular chains through hydrogen bonds. Hydrogen 81-89 L1 cell adhesion molecule Homo sapiens 25-34 18165316-7 2008 A homology model of hL1 Ig1-4 (residues 33-422), based on the structure of the Ig1-4 domains of axonin-1, suggests that Glu-33 and Tyr-418 hydrogen-bond at the interface of Ig1 and Ig4 to stabilize a horseshoe conformation of L1 that favors homophilic binding. Hydrogen 139-147 L1 cell adhesion molecule Homo sapiens 20-23 18165316-7 2008 A homology model of hL1 Ig1-4 (residues 33-422), based on the structure of the Ig1-4 domains of axonin-1, suggests that Glu-33 and Tyr-418 hydrogen-bond at the interface of Ig1 and Ig4 to stabilize a horseshoe conformation of L1 that favors homophilic binding. Hydrogen 139-147 L1 cell adhesion molecule Homo sapiens 21-23 11468348-2 2001 In the structure, four out of the six hypervariable loops of the Fab (complementarity determining regions [CDRs] L1, H1, H2, and H3) are involved in peptide association through hydrogen bonding, salt bridge formation, and hydrophobic interactions. Hydrogen 177-185 L1 cell adhesion molecule Homo sapiens 113-131 16333500-1 2005 Treatment of a glycosylamine derived Cu(II) complex with ethylamine resulted in crystal-to-crystal transformation from trinuclear complex [Cu3(L1)2(EtNH2)2(MeOH)2]x2MeOHxCHCl3 (2x2MeOHxCHCl3) to a dimeric structure of mononuclear complex [Cu(HL1)(EtNH2)] (3) through proton transfer reaction and rearrangement of hydrogen bonding networks. Hydrogen 313-321 L1 cell adhesion molecule Homo sapiens 139-145