Found 237 chains in Knotoided chains table. Displaying 1 - 150. Applied filters: Probabilistic

Search results query: topological notation for knotoids: S 3.1, 2.1

Hide raw data panel 
#pdbid|chain|deposition date|is S/K-not|(slip)knot types;
      
  6mp6|A|2019-11-15|S|3.1 2.1;
  6scf|A|2019-11-07|S|3.1 2.1;
  6prm|A|2019-10-19|S|3.1 2.1;
  5kgn|A|2018-10-20|S|3.1 2.1;
  3e2d|A|2018-10-19|S|3.1 2.1;
  3q3q|A|2018-10-19|S|3.1 2.1;
  5vpu|A|2018-10-19|S|3.1 2.1;
  5xwk|A|2018-09-26|S|3.1 2.1;
  5kgl|A|2018-09-26|S|3.1 2.1;
  5xnu|A|2018-09-14|S|3.1 2.1;
  5tj3|A|2018-09-13|S|3.1 2.1;
  5znm|A|2018-09-13|S|3.1 2.1;
  5g2v|A|2018-09-12|S|3.1 2.1;
  5ijs|A|2018-06-28|S|3.1 2.1;
  3nkm|A|2018-06-27|S|3.1 2.1;
  3nkp|A|2018-06-27|S|3.1 2.1;
  3wav|A|2018-06-27|S|3.1 2.1;
  3wax|A|2018-06-27|S|3.1 2.1;
  4b56|A|2018-06-26|S|3.1 2.1;
  3bdh|A|2018-06-26|S|3.1 2.1;
  4zg7|A|2018-06-12|S|3.1 2.1;
  5k4p|A|2018-06-12|S|3.1 2.1;
  5lrm|A|2018-06-12|S|3.1 2.1;
  5m0s|A|2018-06-12|S|3.1 2.1;
  5nj5|A|2018-06-12|S|3.1 2.1;
  5nja|A|2018-06-12|S|3.1 2.1;
  5tcd|A|2018-06-12|S|3.1 2.1;
  5udy|A|2018-06-12|S|3.1 2.1;
  5yle|A|2018-06-12|S|3.1 2.1;
  5ylf|A|2018-06-12|S|3.1 2.1;
  1ali|A|2018-06-12|S|3.1 2.1;
  1alj|A|2018-06-12|S|3.1 2.1;
  1alk|A|2018-06-12|S|3.1 2.1;
  1ani|A|2018-06-12|S|3.1 2.1;
  1anj|A|2018-06-12|S|3.1 2.1;
  1auk|A|2018-06-12|S|3.1 2.1;
  1b8j|A|2018-06-12|S|3.1 2.1;
  3mk0|A|2018-06-11|S|3.1 2.1;
  3mk1|A|2018-06-11|S|3.1 2.1;
  1ura|A|2018-06-11|S|3.1 2.1;
  2vtk|A|2018-06-11|S|3.1 2.1;
  3mk2|A|2018-06-11|S|3.1 2.1;
  1urb|A|2018-06-11|S|3.1 2.1;
  2w5q|A|2018-06-11|S|3.1 2.1;
  2w5r|A|2018-06-11|S|3.1 2.1;
  2w5s|A|2018-06-11|S|3.1 2.1;
  1k7h|A|2018-06-11|S|3.1 2.1;
  2w5t|A|2018-06-11|S|3.1 2.1;
  1vpb|A|2018-06-11|S|3.1 2.1;
  1kh4|A|2018-06-11|S|3.1 2.1;
  1vtk|A|2018-06-11|S|3.1 2.1;
  1kh5|A|2018-06-11|S|3.1 2.1;
  2w5w|A|2018-06-11|S|3.1 2.1;
  4fdi|A|2018-06-11|S|3.1 2.1;
  1kh7|A|2018-06-11|S|3.1 2.1;
  2w5x|A|2018-06-11|S|3.1 2.1;
  4fdj|A|2018-06-11|S|3.1 2.1;
  1kh9|A|2018-06-11|S|3.1 2.1;
  1khj|A|2018-06-11|S|3.1 2.1;
  3mvk|A|2018-06-11|S|3.1 2.1;
  1khk|A|2018-06-11|S|3.1 2.1;
  2w8d|A|2018-06-11|S|3.1 2.1;
  1khl|A|2018-06-11|S|3.1 2.1;
  1khn|A|2018-06-11|S|3.1 2.1;
  2wcv|A|2018-06-11|S|3.1 2.1;
  1ki2|A|2018-06-11|S|3.1 2.1;
  1ki6|A|2018-06-11|S|3.1 2.1;
  1ki6|B|2018-06-11|S|3.1 2.1;
  1ki7|A|2018-06-11|S|3.1 2.1;
  1ki8|A|2018-06-11|S|3.1 2.1;
  1kim|A|2018-06-11|S|3.1 2.1;
  4gtw|A|2018-06-11|S|3.1 2.1;
  1y6v|A|2018-06-11|S|3.1 2.1;
  4gtx|A|2018-06-11|S|3.1 2.1;
  1y7a|A|2018-06-11|S|3.1 2.1;
  4gty|A|2018-06-11|S|3.1 2.1;
  4gtz|A|2018-06-11|S|3.1 2.1;
  2x98|A|2018-06-11|S|3.1 2.1;
  3nkq|A|2018-06-11|S|3.1 2.1;
  5gov|A|2018-06-11|S|3.1 2.1;
  3nkr|A|2018-06-11|S|3.1 2.1;
  5grr|A|2018-06-11|S|3.1 2.1;
  5gs6|A|2018-06-11|S|3.1 2.1;
  2xr9|A|2018-06-11|S|3.1 2.1;
  2xrg|A|2018-06-11|S|3.1 2.1;
  3nvl|A|2018-06-11|S|3.1 2.1;
  1n2k|A|2018-06-11|S|3.1 2.1;
  1n2m|A|2018-06-11|S|3.1 2.1;
  2zkt|A|2018-06-11|S|3.1 2.1;
  4tn0|A|2018-06-11|S|3.1 2.1;
  1zeb|A|2018-06-11|S|3.1 2.1;
  1zed|A|2018-06-11|S|3.1 2.1;
  1zef|A|2018-06-11|S|3.1 2.1;
  3ot9|A|2018-06-11|S|3.1 2.1;
  1o98|A|2018-06-11|S|3.1 2.1;
  1o99|A|2018-06-11|S|3.1 2.1;
  4ivq|A|2018-06-11|S|3.1 2.1;
  4ivr|A|2018-06-11|S|3.1 2.1;
  1ogc|A|2018-06-11|S|3.1 2.1;
  3bdf|A|2018-06-11|S|3.1 2.1;
  3p13|A|2018-06-11|S|3.1 2.1;
  1ogd|A|2018-06-11|S|3.1 2.1;
  3bdg|A|2018-06-11|S|3.1 2.1;
  1oge|A|2018-06-11|S|3.1 2.1;
  3bdg|B|2018-06-11|S|3.1 2.1;
  1ogf|A|2018-06-11|S|3.1 2.1;
  4uoo|A|2018-06-11|S|3.1 2.1;
  4jbx|A|2018-06-11|S|3.1 2.1;
  4uop|A|2018-06-11|S|3.1 2.1;
  1osn|A|2018-06-11|S|3.1 2.1;
  4jby|A|2018-06-11|S|3.1 2.1;
  4uor|A|2018-06-11|S|3.1 2.1;
  1p49|A|2018-06-11|S|3.1 2.1;
  1p6x|A|2018-06-11|S|3.1 2.1;
  1p72|A|2018-06-11|S|3.1 2.1;
  3nko|A|2018-06-11|S|3.1 2.1;
  1p73|A|2018-06-11|S|3.1 2.1;
  1p75|A|2018-06-11|S|3.1 2.1;
  3waw|A|2018-06-11|S|3.1 2.1;
  1p7c|A|2018-06-11|S|3.1 2.1;
  3way|A|2018-06-11|S|3.1 2.1;
  3cmr|A|2018-06-11|S|3.1 2.1;
  1qhi|A|2018-06-11|S|3.1 2.1;
  1rh1|A|2018-06-11|S|3.1 2.1;
  4kav|A|2018-06-11|S|3.1 2.1;
  3rdp|A|2018-06-11|S|3.1 2.1;
  4kjg|A|2018-06-11|S|3.1 2.1;
  1shn|A|2018-06-11|S|3.1 2.1;
  4km4|A|2018-06-11|S|3.1 2.1;
  1shq|A|2018-06-11|S|3.1 2.1;
  3dyc|A|2018-06-11|S|3.1 2.1;
  3e7n|A|2018-06-11|S|3.1 2.1;
  3ed4|A|2018-06-11|S|3.1 2.1;
  5mx9|A|2018-06-11|S|3.1 2.1;
  3f0t|A|2018-06-11|S|3.1 2.1;
  2anh|A|2018-06-11|S|3.1 2.1;
  5nj9|A|2018-06-11|S|3.1 2.1;
  2axc|A|2018-06-11|S|3.1 2.1;
  2b5u|A|2018-06-11|S|3.1 2.1;
  3szy|A|2018-06-11|S|3.1 2.1;
  3szz|A|2018-06-11|S|3.1 2.1;
  4lr8|A|2018-06-11|S|3.1 2.1;
  3t00|A|2018-06-11|S|3.1 2.1;
  4lr9|A|2018-06-11|S|3.1 2.1;
  3t01|A|2018-06-11|S|3.1 2.1;
  3t02|A|2018-06-11|S|3.1 2.1;
  4lrb|A|2018-06-11|S|3.1 2.1;
  4lrc|A|2018-06-11|S|3.1 2.1;
  4lrd|A|2018-06-11|S|3.1 2.1;
  4lre|A|2018-06-11|S|3.1 2.1;
  4lrf|A|2018-06-11|S|3.1 2.1;
  3tg0|A|2018-06-11|S|3.1 2.1;
  3tv9|A|2018-06-11|S|3.1 2.1;
  5too|A|2018-06-11|S|3.1 2.1;
  3twz|A|2018-06-11|S|3.1 2.1;
  5tpq|A|2018-06-11|S|3.1 2.1;
  2g9y|A|2018-06-11|S|3.1 2.1;
  2ga3|A|2018-06-11|S|3.1 2.1;
  4miv|C|2018-06-11|S|3.1 2.1;
  2glq|A|2018-06-11|S|3.1 2.1;
  4miv|D|2018-06-11|S|3.1 2.1;
  2gsn|A|2018-06-11|S|3.1 2.1;
  3igy|B|2018-06-11|S|3.1 2.1;
  3un2|A|2018-06-11|S|3.1 2.1;
  4miv|E|2018-06-11|S|3.1 2.1;
  2gso|A|2018-06-11|S|3.1 2.1;
  3igz|B|2018-06-11|S|3.1 2.1;
  3un3|A|2018-06-11|S|3.1 2.1;
  4miv|F|2018-06-11|S|3.1 2.1;
  3un5|A|2018-06-11|S|3.1 2.1;
  3uny|A|2018-06-11|S|3.1 2.1;
  4miv|H|2018-06-11|S|3.1 2.1;
  3uo0|A|2018-06-11|S|3.1 2.1;
  1e2h|A|2018-06-11|S|3.1 2.1;
  2hjn|A|2018-06-11|S|3.1 2.1;
  1e2i|A|2018-06-11|S|3.1 2.1;
  5veo|A|2018-06-11|S|3.1 2.1;
  1e2j|A|2018-06-11|S|3.1 2.1;
  1e2k|A|2018-06-11|S|3.1 2.1;
  1e2l|A|2018-06-11|S|3.1 2.1;
  1e2m|A|2018-06-11|S|3.1 2.1;
  1e2n|A|2018-06-11|S|3.1 2.1;
  1e2p|A|2018-06-11|S|3.1 2.1;
  5aj9|A|2018-06-11|S|3.1 2.1;
  2iuc|A|2018-06-11|S|3.1 2.1;
  1e3c|P|2018-06-11|S|3.1 2.1;
  2iuc|B|2018-06-11|S|3.1 2.1;
  1ed8|A|2018-06-11|S|3.1 2.1;
  1ed9|A|2018-06-11|S|3.1 2.1;
  3kbc|A|2018-06-11|S|3.1 2.1;
  1elx|A|2018-06-11|S|3.1 2.1;
  1ely|A|2018-06-11|S|3.1 2.1;
  1elz|A|2018-06-11|S|3.1 2.1;
  2ki5|A|2018-06-11|S|3.1 2.1;
  3vtk|A|2018-06-11|S|3.1 2.1;
  4nwj|A|2018-06-11|S|3.1 2.1;
  1ew2|A|2018-06-11|S|3.1 2.1;
  1ew8|A|2018-06-11|S|3.1 2.1;
  5c66|A|2018-06-11|S|3.1 2.1;
  1ew9|A|2018-06-11|S|3.1 2.1;
  5ylc|A|2018-06-11|S|3.1 2.1;
  5zjv|A|2018-06-11|S|3.1 2.1;
  2nwl|A|2018-06-11|S|3.1 2.1;
  4a34|A|2018-06-11|S|3.1 2.1;
  2nww|A|2018-06-11|S|3.1 2.1;
  2nwx|A|2018-06-11|S|3.1 2.1;
  4oql|A|2018-06-11|S|3.1 2.1;
  1fsu|A|2018-06-11|S|3.1 2.1;
  6b1v|A|2018-06-11|S|3.1 2.1;
  4oqn|A|2018-06-11|S|3.1 2.1;
  4oqx|A|2018-06-11|S|3.1 2.1;
  5dlv|A|2018-06-11|S|3.1 2.1;
  6bat|A|2018-06-11|S|3.1 2.1;
  5dlw|A|2018-06-11|S|3.1 2.1;
  6bau|A|2018-06-11|S|3.1 2.1;
  2ob5|A|2018-06-11|S|3.1 2.1;
  3lxq|A|2018-06-11|S|3.1 2.1;
  6bmi|A|2018-06-11|S|3.1 2.1;
  1hdh|A|2018-06-11|S|3.1 2.1;
  1hjk|A|2018-06-11|S|3.1 2.1;
  1hqa|A|2018-06-11|S|3.1 2.1;
  5egh|A|2018-06-11|S|3.1 2.1;
  4cxk|A|2018-06-11|S|3.1 2.1;
  4cxs|A|2018-06-11|S|3.1 2.1;
  3m8y|A|2018-06-11|S|3.1 2.1;
  4cxu|A|2018-06-11|S|3.1 2.1;
  1e33|P|2018-06-11|S|3.1 2.1;
  3m8z|A|2018-06-11|S|3.1 2.1;
  4cyr|A|2018-06-11|S|3.1 2.1;
  2qzu|A|2018-06-11|S|3.1 2.1;
  4cys|A|2018-06-11|S|3.1 2.1;
  2rh6|A|2018-06-11|S|3.1 2.1;
  1aja|A|2018-06-10|S|3.1 2.1;
  1ajb|A|2018-06-10|S|3.1 2.1;
  1ajc|A|2018-06-10|S|3.1 2.1;
  1ajd|A|2018-06-10|S|3.1 2.1;
  5ijq|A|2018-06-08|S|3.1 2.1;
Knotoid types pdb Title
S 3.1, 2.1 6mp6A Cryo-em structure of the human neutral amino acid transporter asct2
S 3.1, 2.1 6scfA A viral anti-crispr subverts type iii crispr immunity by rapid degradation of cyclic oligoadenylate
S 3.1, 2.1 6prmA Crystal structure of apo pss1_19b
S 3.1, 2.1 5kgnA 1.95a resolution structure of independent phosphoglycerate mutase from c. elegans in complex with a macrocyclic peptide inhibitor (2d)
S 3.1, 2.1 3e2dA The 1.4 a crystal structure of the large and cold-active vibrio sp. alkaline phosphatase
S 3.1, 2.1 3q3qA Crystal structure of spap: an novel alkaline phosphatase from bacterium sphingomonas sp. strain bsar-1
S 3.1, 2.1 5vpuA Crystal structure of 2,3-bisphosphoglycerate-independent phosphoglycerate mutase bound to 3-phosphoglycerate, from acinetobacter baumannii
S 3.1, 2.1 5xwkA Crystal structure of spap, an alkaline phosphatase from sphingomonas in complex with inorganic phosphate
S 3.1, 2.1 5kglA 2.45a resolution structure of apo independent phosphoglycerate mutase from c. elegans (orthorhombic form)
S 3.1, 2.1 5xnuA Structure of a catalytic domain of the colistin resistance enzyme
S 3.1, 2.1
2
5tj3A Crystal structure of wild type alkaline phosphatase pafa to 1.7a resolution
S 3.1, 2.1
3
5znmA Colicin d central domain and c-terminal trnase domain
S 3.1, 2.1 5g2vA Structure of bt4656 in complex with its substrate d-glucosamine-2-n, 6-o-disulfate.
S 3.1, 2.1
7
5ijsA Crystal structure of autotaxin with orthovanadate bound as a trigonal bipyramidal intermediate analog
S 3.1, 2.1 3nkmA Crystal structure of mouse autotaxin
S 3.1, 2.1
3
3nkpA Crystal structure of mouse autotaxin in complex with 18:1-lpa
S 3.1, 2.1
2
3wavA Crystal structure of autotaxin in complex with compound 10
S 3.1, 2.1
2
3waxA Crystal structure of autotaxin in complex with 3boa
S 3.1, 2.1 4b56A Structure of ectonucleotide pyrophosphatase-phosphodiesterase-1 (npp1)
S 3.1, 2.1 3bdhA Crystal structure of zinc-deficient wild-type e. coli alkaline phosphatase
S 3.1, 2.1
4
4zg7A Structural basis for inhibition of human autotaxin by four novel compounds
S 3.1, 2.1
5
5k4pA Catalytic domain of mcr-1 phosphoethanolamine transferase
S 3.1, 2.1
5
5lrmA Structure of di-zinc mcr-1 in p41212 space group
S 3.1, 2.1
1
5m0sA Structure-based evolution of a hybrid steroid series of autotaxin inhibitors
S 3.1, 2.1 5nj5A E. coli microcin-processing metalloprotease tldd/e with phosphate bound
S 3.1, 2.1 5njaA E. coli microcin-processing metalloprotease tldd/e with angiotensin analogue bound
S 3.1, 2.1 5tcdA Human alkaline sphingomyelinase (enpp7) in complex with phosphocholine
S 3.1, 2.1 5udyA Human alkaline sphingomyelinase (alk-smase, enpp7, npp7)
S 3.1, 2.1
5
5yleA Mcr-1 complex with ethanolamine (eta)
S 3.1, 2.1
4
5ylfA Mcr-1 complex with d-glucose
S 3.1, 2.1 1aliA Alkaline phosphatase mutant (h412n)
S 3.1, 2.1 1aljA Alkaline phosphatase mutant (h412n)
S 3.1, 2.1 1alkA Reaction mechanism of alkaline phosphatase based on crystal structures. two metal ion catalysis
S 3.1, 2.1 1aniA Alkaline phosphatase (d153h, k328h)
S 3.1, 2.1 1anjA Alkaline phosphatase (k328h)
S 3.1, 2.1
3
1aukA Human arylsulfatase a
S 3.1, 2.1
4
1b8jA Alkaline phosphatase complexed with vanadate
S 3.1, 2.1
3
3mk0A Refinement of placental alkaline phosphatase complexed with nitrophenyl
S 3.1, 2.1
4
3mk1A Refinement of placental alkaline phosphatase complexed with nitrophenyl
S 3.1, 2.1 1uraA Alkaline phosphatase (d51zn)
S 3.1, 2.1
5
2vtkA Thymidine kinase from herpes simplex virus type 1 in complex with adp and deoxythymidine
S 3.1, 2.1
5
3mk2A Placental alkaline phosphatase complexed with phe
S 3.1, 2.1 1urbA Alkaline phosphatase (n51mg)
S 3.1, 2.1 2w5qA Structure-based mechanism of lipoteichoic acid synthesis by staphylococcus aureus ltas.
S 3.1, 2.1 2w5rA Structure-based mechanism of lipoteichoic acid synthesis by staphylococcus aureus ltas.
S 3.1, 2.1 2w5sA Structure-based mechanism of lipoteichoic acid synthesis by staphylococcus aureus ltas.
S 3.1, 2.1 1k7hA Crystal structure of shrimp alkaline phosphatase
S 3.1, 2.1 2w5tA Structure-based mechanism of lipoteichoic acid synthesis by staphylococcus aureus ltas.
S 3.1, 2.1 1vpbA Crystal structure of a putative modulator of dna gyrase (bt3649) from bacteroides thetaiotaomicron vpi-5482 at 1.75 a resolution
S 3.1, 2.1 1kh4A E. coli alkaline phosphatase mutant (d330n) in complex with phosphate
S 3.1, 2.1
7
1vtkA Thymidine kinase from herpes simplex virus type 1 in complex with adp and deoxythymidine-monophosphate
S 3.1, 2.1 1kh5A E. coli alkaline phosphatase mutant (d330n) mimic of the transition states with aluminium fluoride
S 3.1, 2.1
4
2w5wA Structure of tab5 alkaline phosphatase mutant his 135 asp with zn bound in the m3 site.
S 3.1, 2.1
5
4fdiA The molecular basis of mucopolysaccharidosis iv a
S 3.1, 2.1 1kh7A E. coli alkaline phosphatase mutant (d153gd330n)
S 3.1, 2.1
3
2w5xA Structure of tab5 alkaline phosphatase mutant his 135 glu with mg bound in the m3 site.
S 3.1, 2.1
4
4fdjA The molecular basis of mucopolysaccharidosis iv a, complex with galnac
S 3.1, 2.1 1kh9A E. coli alkaline phosphatase mutant (d153gd330n) complex with phosphate
S 3.1, 2.1 1khjA E. coli alkaline phosphatase mutant (d153hd330n) mimic of the transition states with aluminium fluoride
S 3.1, 2.1 3mvkA The crystal structure of fucu from bifidobacterium longum to 1.65a
S 3.1, 2.1 1khkA E. coli alkaline phosphatase mutant (d153hd330n)
S 3.1, 2.1
3
2w8dA Distinct and essential morphogenic functions for wall- and lipo-teichoic acids in bacillus subtilis
S 3.1, 2.1 1khlA E. coli alkaline phosphatase mutant (d153hd330n) complex with phosphate
S 3.1, 2.1 1khnA E. coli alkaline phosphatase mutant (d153hd330n) zinc form
S 3.1, 2.1
7
2wcvA Crystal structure of bacterial fucu
S 3.1, 2.1
3
1ki2A Crystal structure of thymidine kinase from herpes simplex virus type i complexed with ganciclovir
S 3.1, 2.1
4
1ki6A Crystal structure of thymidine kinase from herpes simplex virus type i complexed with a 5-iodouracil anhydrohexitol nucleoside
S 3.1, 2.1
4
1ki6B Crystal structure of thymidine kinase from herpes simplex virus type i complexed with a 5-iodouracil anhydrohexitol nucleoside
S 3.1, 2.1
7
1ki7A Crystal structure of thymidine kinase from herpes simplex virus type i complexed with 5-iododeoxyuridine
S 3.1, 2.1
4
1ki8A Crystal structure of thymidine kinase from herpes simplex virus type i complexed with 5-bromovinyldeoxyuridine
S 3.1, 2.1
5
1kimA Crystal structure of thymidine kinase from herpes simplex virus type i complexed with deoxythymidine
S 3.1, 2.1 4gtwA Crystal structure of mouse enpp1 in complex with amp
S 3.1, 2.1 1y6vA Structure of e. coli alkaline phosphatase in presence of cobalt at 1.60 a resolution
S 3.1, 2.1 4gtxA Crystal structure of mouse enpp1 in complex with tmp
S 3.1, 2.1 1y7aA Structure of d153h/k328w e. coli alkaline phosphatase in presence of cobalt at 1.77 a resolution
S 3.1, 2.1 4gtyA Crystal structure of mouse enpp1 in complex with gmp
S 3.1, 2.1 4gtzA Crystal structure of mouse enpp1 in complex with cmp
S 3.1, 2.1 2x98A H.salinarum alkaline phosphatase
S 3.1, 2.1
1
3nkqA Crystal structure of mouse autotaxin in complex with 18:3-lpa
S 3.1, 2.1
3
5govA Crystal structure of mcr-1, a phosphoethanolamine transferase, extracellular domain
S 3.1, 2.1
1
3nkrA Crystal structure of mouse autotaxin in complex with 22:6-lpa
S 3.1, 2.1 5grrA Crystal structure of mcr-1
S 3.1, 2.1 5gs6A Full-length ns1 structure of zika virus from 2015 brazil strain
S 3.1, 2.1
1
2xr9A Crystal structure of autotaxin (enpp2)
S 3.1, 2.1
2
2xrgA Crystal structure of autotaxin (enpp2) in complex with the ha155 boronic acid inhibitor
S 3.1, 2.1 3nvlA Crystal structure of phosphoglycerate mutase from trypanosoma brucei
S 3.1, 2.1
4
1n2kA Crystal structure of a covalent intermediate of endogenous human arylsulfatase a
S 3.1, 2.1 1n2mA The s53a proenzyme structure of methanococcus jannaschii.
S 3.1, 2.1
2
2zktA Structure of ph0037 protein from pyrococcus horikoshii
S 3.1, 2.1
5
4tn0A Crystal structure of the c-terminal periplasmic domain of phosphoethanolamine transferase eptc from campylobacter jejuni
S 3.1, 2.1
4
1zebA X-ray structure of alkaline phosphatase from human placenta in complex with 5'-amp
S 3.1, 2.1 1zedA Alkaline phosphatase from human placenta in complex with p-nitrophenyl-phosphonate
S 3.1, 2.1
5
1zefA Structure of alkaline phosphatase from human placenta in complex with its uncompetitive inhibitor l-phe
S 3.1, 2.1
3
3ot9A Phosphopentomutase from bacillus cereus bound to glucose-1,6-bisphosphate
S 3.1, 2.1 1o98A 1.4a crystal structure of phosphoglycerate mutase from bacillus stearothermophilus complexed with 2-phosphoglycerate
S 3.1, 2.1 1o99A Crystal structure of the s62a mutant of phosphoglycerate mutase from bacillus stearothermophilus complexed with 2-phosphoglycerate
S 3.1, 2.1
4
4ivqA Crystal structure of thymidine kinase from herpes simplex virus type 1 in complex with in43/5
S 3.1, 2.1
6
4ivrA Crystal structure of thymidine kinase from herpes simplex virus type 1 in complex with in52/10
S 3.1, 2.1 1ogcA The structure of bacillus subtilis rbsd complexed with d-ribose
S 3.1, 2.1
7
3bdfA Crystal structure of metal-free e. coli alkaline phosphatase (t155v)
S 3.1, 2.1 3p13A Complex structure of d-ribose pyranase sa240 with d-ribose
S 3.1, 2.1 1ogdA The structure of bacillus subtilis rbsd complexed with d-ribose
S 3.1, 2.1
7
3bdgA Crystal structure of wild-type/t155v mixed dimer of e. coli alkaline phosphatase
S 3.1, 2.1 1ogeA The structure of bacillus subtilis rbsd complexed with ribose 5-phosphate
S 3.1, 2.1
5
3bdgB Crystal structure of wild-type/t155v mixed dimer of e. coli alkaline phosphatase
S 3.1, 2.1 1ogfA The structure of bacillus subtilis rbsd complexed with glycerol
S 3.1, 2.1
5
4uooA Structure of lipoteichoic acid synthase ltas from listeria monocytogenes
S 3.1, 2.1
7
4jbxA Crystal structure of thymidine kinase from herpes simplex virus type 1 in complex with sk-78
S 3.1, 2.1 4uopA Crystal structure of the lipoteichoic acid synthase ltap from listeria monocytogenes
S 3.1, 2.1
3
1osnA Crystal structure of varicella zoster virus thymidine kinase in complex with bvdu-mp and adp
S 3.1, 2.1
7
4jbyA Crystal structure of thymidine kinase from herpes simplex virus type 1 in complex with f-sk78
S 3.1, 2.1
6
4uorA Structure of lipoteichoic acid synthase ltas from listeria monocytogenes in complex with glycerol phosphate
S 3.1, 2.1
4
1p49A Structure of human placental estrone/dhea sulfatase
S 3.1, 2.1 1p6xA Crystal structure of ehv4-tk complexed with thy and so4
S 3.1, 2.1
3
1p72A Crystal structure of ehv4-tk complexed with thy and adp
S 3.1, 2.1
2
3nkoA Crystal structure of mouse autotaxin in complex with 16:0-lpa
S 3.1, 2.1
5
1p73A Crystal structure of ehv4-tk complexed with tp4a
S 3.1, 2.1
4
1p75A Crystal structure of ehv4-tk complexed with tp5a
S 3.1, 2.1
1
3wawA Crystal structure of autotaxin in complex with 2boa
S 3.1, 2.1
6
1p7cA Crystal structure of hsv1-tk complexed with tp5a
S 3.1, 2.1 3wayA Crystal structure of autotaxin in complex with 4boa
S 3.1, 2.1 3cmrA E. coli alkaline phosphatase mutant r166s in complex with phosphate
S 3.1, 2.1
5
1qhiA Herpes simplex virus type-i thymidine kinase complexed with a novel non-substrate inhibitor, 9-(4-hydroxybutyl)-n2-phenylguanine
S 3.1, 2.1 1rh1A Crystal structure of the cytotoxic bacterial protein colicin b at 2.5 a resolution
S 3.1, 2.1
3
4kavA Crystal structure of the soluble domain of lipooligosaccharide phosphoethanolamine transferase a from neisseria meningitidis
S 3.1, 2.1 3rdpA Crystal structure of thymidine kinase from herpes simplex virus type 1 in complex with n-methyl-fhbt
S 3.1, 2.1 4kjgA Structure of rat intestinal alkaline phosphatase expressed in insect cell
S 3.1, 2.1 1shnA Crystal structure of shrimp alkaline phosphatase with phosphate bound
S 3.1, 2.1 4km4A E. coli alkaline phosphatase mutant s102g/r166s in complex with inorganic phosphate
S 3.1, 2.1 1shqA Crystal structure of shrimp alkaline phosphatase with magnesium in m3
S 3.1, 2.1 3dycA Structure of e322y alkaline phosphatase in complex with inorganic phosphate
S 3.1, 2.1 3e7nA Crystal structure of d-ribose high-affinity transport system from salmonella typhimurium lt2
S 3.1, 2.1 3ed4A Crystal structure of putative arylsulfatase from escherichia coli
S 3.1, 2.1 5mx9A High resolution crystal structure of the mcr-2 catalytic domain
S 3.1, 2.1
6
3f0tA Crystal structure of thymidine kinase from herpes simplex virus type 1 in complex with n-methyl-dhbt
S 3.1, 2.1 2anhA Alkaline phosphatase (d153h)
S 3.1, 2.1 5nj9A E. coli microcin-processing metalloprotease tldd/e with drvy angiotensin fragment bound
S 3.1, 2.1
3
2axcA Crystal structure of cole7 translocation domain
S 3.1, 2.1 2b5uA Crystal structure of colicin e3 v206c mutant in complex with its immunity protein
S 3.1, 2.1 3szyA Crystal structure of phosphonoacetate hydrolase from sinorhizobium meliloti 1021 in apo form
S 3.1, 2.1 3szzA Crystal structure of phosphonoacetate hydrolase from sinorhizobium meliloti 1021 in complex with acetate
S 3.1, 2.1
2
4lr8A Phosphopentomutase s154a variant soaked with ribose 5-phosphate
S 3.1, 2.1 3t00A Crystal structure of phosphonoacetate hydrolase from sinorhizobium meliloti 1021 in complex with vanadate
S 3.1, 2.1
3
4lr9A Phosphopentomutase s154a variant soaked with 2,3-dideoxyribose 5-phosphate
S 3.1, 2.1 3t01A Crystal structure of phosphonoacetate hydrolase from sinorhizobium meliloti 1021 in complex with phosphonoformate
S 3.1, 2.1 3t02A Crystal structure of phosphonoacetate hydrolase from sinorhizobium meliloti 1021 in complex with phosphonoacetate
S 3.1, 2.1
4
4lrbA Phosphopentomutase s154g variant soaked with 2,3-dideoxyribose 5-phosphate
S 3.1, 2.1
3
4lrcA Phosphopentomutase v158l variant
S 3.1, 2.1
3
4lrdA Phosphopentomutase 4h11 variant
S 3.1, 2.1
2
4lreA Phosphopentomutase soaked with 2,3-dideoxyribose 5-phosphate
How to cite
KnotProt | Interdisciplinary Laboratory of Biological Systems Modelling