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//
// CCP4 Coordinate Library: support of coordinate-related
// functionality in protein crystallography applications.
//
// Copyright (C) Eugene Krissinel 2000-2008.
//
// This library is free software: you can redistribute it and/or
// modify it under the terms of the GNU Lesser General Public
// License version 3, modified in accordance with the provisions
// of the license to address the requirements of UK law.
//
// You should have received a copy of the modified GNU Lesser
// General Public License along with this library. If not, copies
// may be downloaded from http://www.ccp4.ac.uk/ccp4license.php
//
// This program is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
// GNU Lesser General Public License for more details.
//
// =================================================================
//
// 08.07.08 <-- Date of Last Modification.
// ~~~~~~~~~~~~~~~~~~~~~~~~~~~~
// -----------------------------------------------------------------
//
// **** Module : mmdb_sbase0 <implementation>
// ~~~~~~~~~
// **** Classes : CSBase0 ( structure base manager 0 )
// ~~~~~~~~~ CSBAtom ( SB atom class )
// CSBBond ( SB bond class )
// CSBStructure ( SB structure (monomer) class )
// CSBIndex ( SB index class )
//
// (C) E. Krissinel 2000-2008
//
// =================================================================
//
#ifndef __MMDB_SBase0__
#define __MMDB_SBase0__
#ifndef __MMDB_Manager__
#include "mmdb_manager.h"
#endif
#ifndef __MMDB_Graph__
#include "mmdb_graph.h"
#endif
// =================================================================
// -- oracle data field lengths
#define compoundID_len 10
#define formula_len 1000
#define charge_len 5000
#define name_len 1000
#define synonym_len 1000
#define sca_name_len 20
#define pdb_name_len 20
#define element_len 5
#define sca_leaving_atom_len 3
#define chirality_len 1
#define scb_bond_order_len 10
#define energy_type_len 8
typedef char CompoundID [compoundID_len+1];
typedef char SBPDBName [pdb_name_len+1];
typedef char SBElementName[element_len+1];
// -- names for graph files
#define sbIndexFile cpstr("index.sbase")
#define sbGraphFile cpstr("graph.sbase")
#define sbStructFile cpstr("struct.sbase")
// ====================== SB Atom Class =========================
DefineClass(CSBAtom)
class CSBAtom : public CStream {
public :
char sca_name [sca_name_len+1]; // SCA atom name
char pdb_name [pdb_name_len+1]; // PDB atom name (aligned)
char old_pdb_name[pdb_name_len+1]; // old PDB atom name (aligned)
char element [element_len+1]; // chemical element (aligned)
char energyType[energy_type_len+1]; // energy type; set to empty
// string "" if not provided
realtype x,y,z; // cartesian coordinates; set
// to -MaxReal if not provided
realtype x_esd,y_esd,z_esd; // ESDs for cartesian coordi-
// nates; set to 0.0 if not
// provided
realtype ccp4_charge; // atom charge from ccp4 libs
realtype sca_charge; // formal atom charge (MSD)
realtype partial_charge; // partial atom charge (MSD)
realtype vdw_radius; // Van-der-Waals radius
realtype vdwh_radius; // Van-der-Waals radius with
// hydrogen
realtype ion_radius; // ion radius
int valency; // valency
char chirality; // chirality: 'R', 'S' or 'N'
char leaving; // leaving atom: 'Y' or 'N'
char hb_type; // hydrogen bond type:
// 'D' donor
// 'A' acceptor
// 'B' both
// 'H' hydrogen candidate
// 'N' neither
CSBAtom ();
CSBAtom ( RPCStream Object );
~CSBAtom();
void makeCAtom ( RPCAtom a );
PCAtom makeCAtom ();
virtual void Copy ( PCSBAtom A );
void read ( RCFile f );
void write ( RCFile f );
protected :
void SBAtomInit();
};
DefineStreamFunctions(CSBAtom)
// ======================= SB Bond Class ========================
DefineClass(CSBBond)
class CSBBond : public CStream {
public :
int atom1,atom2,order; // bonded atoms ordinal numbers in
// reference to the atom array in
// CSBStructure; atom1 and atom2
// number atoms like 1,2 on; these
// fields are always provided
realtype length,length_esd; // bond length in A and its esd;
// set to 0.0 if not provided by
// data base
CSBBond ();
CSBBond ( RPCStream Object );
~CSBBond();
void SetBond ( int at1, int at2, int ord );
virtual void Copy ( PCSBBond B );
void read ( RCFile f );
void write ( RCFile f );
protected :
void SBBondInit();
};
DefineStreamFunctions(CSBBond)
// ======================= SB Angle Class =======================
DefineClass(CSBAngle)
class CSBAngle : public CStream {
public :
int atom1,atom2,atom3; // number atoms like 1,2 on; always
// provided
realtype angle,angle_esd; // angle is always provided; esd
// is set to 0.0 if not provided
CSBAngle ();
CSBAngle ( RPCStream Object );
~CSBAngle();
virtual void Copy ( PCSBAngle G );
void read ( RCFile f );
void write ( RCFile f );
protected :
void SBAngleInit();
};
DefineStreamFunctions(CSBAngle)
// ====================== SB Torsion Class ======================
DefineClass(CSBTorsion)
class CSBTorsion : public CStream {
public :
int atom1,atom2,atom3,atom4; // number atoms like 1,2 on;
// always provided
realtype torsion,torsion_esd; // torsion is always provided;
// esd is set to 0.0 if not provided
CSBTorsion ();
CSBTorsion ( RPCStream Object );
~CSBTorsion();
virtual void Copy ( PCSBTorsion T );
void read ( RCFile f );
void write ( RCFile f );
protected :
void SBTorsionInit();
};
DefineStreamFunctions(CSBTorsion)
// ==================== Structure Class =========================
DefineClass(CSBStructure)
class CSBStructure : public CStream {
public :
CompoundID compoundID; // CIF ID -- always provided
pstr Formula; // NULL if not provided
pstr Name; // NULL if not provided
pstr Synonym; // NULL if not provided
pstr Charge; // NULL if not provided
// Atom, Bond, Angle and Torsion point on the vectors of
// PCSBAtom[nAtoms], PCSBBond[nBonds], PCSBAngle[nAngles] and
// PCSBTorsion[nTorsions], respectively. Not all of them may be
// provided by the data base. If not provided, NULL is assigned.
int nAtoms,nBonds,nAngles,nTorsions;
PPCSBAtom Atom; // always provided
PPCSBBond Bond; // report if not provided
PPCSBAngle Angle; // NULL if not provided
PPCSBTorsion Torsion; // NULL if not provided
int nLeavingAtoms;
ivector leavingAtom;
ivector bondedAtom;
char xyz_source; // 'A' for ACD coordinates,
// 'R' for RCSB coordinates
// 'P' for PDB coordinates
// 'N' if xyz are not provided
CSBStructure ();
CSBStructure ( RPCStream Object );
~CSBStructure();
void Reset ();
void PutFormula ( cpstr F );
void PutName ( cpstr N );
void PutSynonym ( cpstr S );
void PutCharge ( cpstr G );
void AddAtom ( PCSBAtom atom );
void AddBond ( PCSBBond bond );
void MakeLeavingAtoms();
void AddAngle ( PCSBAngle angle );
void AddTorsion ( PCSBTorsion torsion );
void RemoveEnergyTypes();
int SetEnergyType ( cpstr sca_name, cpstr energyType,
realtype partial_charge );
int GetAtomNo ( cpstr sca_name ); // returns 0 if atom not
// found, >0 gives the atom ordinal number
PCSBAtom GetAtom ( cpstr sca_name );
// GetAtomTable(..) does not deallocate atomTable!
void GetAtomTable ( PPCAtom & atomTable, int & nOfAtoms );
// CheckAtoms() returns -1 if there is no atoms
// -2 if not all atoms are annotated
// -3 if not all coordinates are set
// 0 otherwise
int CheckAtoms();
// GetAtomNameMatch(..) returns anmatch[i], i=0..nAtoms-1, equal
// to j such that name(Atom[i])==name(A[j]). Note that atom names
// are similarly aligned and space-padded in both MMDB and SBase.
// If ith atom in the structue is not found in A, anmatch[i] is
// set -1.
// If array A contains atoms in different alternative
// conformations, the the value of altLoc is interpreted as
// follows:
// NULL - the highest occupancy atom will be taken
// if all occupancies are equal then atom with
// first altLoc taken
// other - atoms with given altLoc are taken. If such
// altLoc is not found, the function does as if
// NULL value for altLoc is given.
// A clean PDB file is anticipated, so that atoms with
// alternative conformations are grouped together.
// It is Ok to have NULL pointers in A.
void GetAtomNameMatch ( PPCAtom A, int nat, pstr altLoc,
ivector anmatch );
PCResidue makeCResidue ( Boolean includeHydrogens=False,
Boolean makeTer=False );
int AddHydrogens ( PCResidue R );
virtual void Copy ( PCSBStructure S );
void read ( RCFile f );
void write ( RCFile f );
protected :
int nAAlloc,nBAlloc,nGAlloc,nTAlloc;
void SBStructureInit();
void FreeMemory ();
};
DefineStreamFunctions(CSBStructure)
// ==================== Index Class ==============================
DefineClass(CSBIndex)
class CSBIndex : public CStream {
public :
CompoundID compoundID; // CIF ID of the compound
int nAtoms; // number of atoms in the compound
int nBonds; // number of bonds in the compound
int fGraphPos; // offset for CGraph
int fStructPos; // offset for CSBStructure
int loadPos; // load ordinal number, not in the file
int nXTs; // total number of "XT"-atoms
pstr Comp1; // composition string
pstr Comp2; // composition string with leaving atom
CSBIndex ();
CSBIndex ( RPCStream Object );
~CSBIndex();
int MakeCompositions ( PCSBStructure SBS );
void read ( RCFile f );
void write ( RCFile f );
protected :
void SBIndexInit();
};
DefineStreamFunctions(CSBIndex)
// ========================== CSBase0 ============================
extern int MakeChirInd ( char chirality );
extern int MakeElementType ( int ElType, int Chirality,
Boolean Cflag );
extern int MakeElementType ( int ElType, char chirality,
Boolean Cflag );
#define SBASE_noHBonds 6
#define SBASE_noDonors 5
#define SBASE_noAcceptors 4
#define SBASE_Incomplete 3
#define SBASE_AlreadyUnloaded 2
#define SBASE_AlreadyLoaded 1
#define SBASE_Ok 0
#define SBASE_FileNotFound -1
#define SBASE_StructNotFound -2
#define SBASE_WrongIndex -3
#define SBASE_ReadError -4
#define SBASE_ConnectivityError -5
#define SBASE_CheckFail -6
#define SBASE_NoAtomsFound -7
#define SBASE_NoBonds -8
#define SBASE_NoAtomData -9
#define SBASE_EmptyResidue -10
#define SBASE_NoSimilarity -11
#define SBASE_SuperpositionFailed -12
#define SBASE_Fail -13
#define SBASE_BrokenBonds -14
#define SBASE_EmptyResSet -15
#define SBASE_noCoordHierarchy -16
#define CMPLF_Hydrogens 0x00000001
#define CMPLF_nonHs 0x00000002
#define CMPLF_XT 0x00000004
#define CMPLF_All 0x00000007
// SDASelHandles is optionally used in MakeBonds(..), when
// the latter works for hydrogen bond calculations.
DefineStructure(SDASelHandles)
struct SDASelHandles {
int selHndDonor;
int selHndAcceptor;
int selHndHydrogen;
int selKey;
void getNewHandles ( PCMMDBManager MMDB );
void makeSelIndexes ( PCMMDBManager MMDB );
void deleteSelections ( PCMMDBManager MMDB );
};
DefineClass(CSBase0)
class CSBase0 {
public :
CSBase0 ();
~CSBase0();
// LoadIndex() loads index of the structural database. 'path'
// must point on the directory containing the database files.
// The index must be loaded once before retrieving any
// information from the database.
// LoadIndex() may return either SBASE_Ok or SBASE_FileNotFound.
int LoadIndex ( cpstr path );
int LoadIndex1 ( cpstr EnvVar );
// LoadStructure(..) reads structure from *.sbase files and
// stores it in RAM for faster access. There is no special
// functions to access loaded structures, all requests to
// *.sbase files and RAM-storage are dispatched automatically.
int LoadStructure ( cpstr compoundID );
// UnloadStructure(..) deletes strtucture from RAM and releases
// its memory. The structure is then accessible in the normal
// way from *.sbase files, which is slower.
int UnloadStructure ( cpstr compoundID );
// GetPath() returns full path to a file with file name FName
// in the database directory. Length of S should suffice for
// accomodating the path. The function returns S.
// GetPath() will work only after loading the database index.
pstr GetPath ( pstr & S, cpstr FName );
// GetStructFile() creates and opens the database structure
// file and returns its pointer. In the case of errors returns
// NULL. Application is responsible for deleting this file.
PCFile GetStructFile();
// GetGraphFile() creates and opens the database graph
// file and returns its pointer. In the case of errors returns
// NULL. Application is responsible for deleting this file.
PCFile GetGraphFile();
// GetStructure(..) returns pointer to the monomer structure
// identified by 3-letter compoundID. If such structure is not
// found, the function returns NULL.
// The function returns a pointer to a private copy of the
// structure. Modifying it will not change data in the structural
// database. The application is responsible for deallocating
// the structure after use (simply use delete).
// See description of CSBStructure for the explanation of
// its fields.
PCSBStructure GetStructure ( cpstr compoundID );
PCSBStructure GetStructure ( int structNo, PCFile structFile );
// 0...nStructures-1
// Another form of GetStructure(..) uses an open structure
// file, which allows to save on opening/closing file if
// multiple access to SBase structures is required. The file
// is neither open nor closed by the function
PCSBStructure GetStructure ( cpstr compoundID,
PCFile structFile );
PCResidue makeCResidue ( cpstr compoundID,
PCFile structFile,
Boolean includeHydrogens=False,
Boolean makeTer=False );
PCResidue makeCResidue ( int structNo,
PCFile structFile,
Boolean includeHydrogens=False,
Boolean makeTer=False );
// GetGraph(..) retrieves data for chemical structure number
// structNo (as described in Index) from graph file graphFile,
// then allocates and builds the corresponding graph, which is
// returned in G.
// If Hflag is set >= 1, all hydrogens are removed from
// the graph. If Hflag is set to 2, element types of atoms,
// to which hydrogens are bonded, are modified with flag
// HYDROGEN_BOND.
// Returns SBASE_Ok in case of success. Other return code are
// SBASE_WrongIndex and SBASE_ReadError.
int GetGraph ( PCFile graphFile, int structNo, RPCGraph G,
int Hflag );
int GetGraph ( PCFile graphFile, RPCGraph G, int Hflag );
int GetGraph ( int structNo , RPCGraph G, int Hflag );
int GetGraph ( cpstr compoundID, RPCGraph G, int Hflag );
// GetStructNo() returns position of the structure with
// (3-letter) name 'name' as found in the database index.
// Non-negative return means success, otherwise
// SBASE_StructNotFound indicates that the requested structure
// was not found in the database index.
int GetStructNo ( cpstr compoundID );
int GetNofAtoms ( cpstr compoundID );
int GetNofAtoms ( int structNo );
// GetNofStructures() returns number of structures in the
// database index.
int GetNofStructures() { return nStructures; }
// CheckGraph(..) checks graph G against a same-name
// structure in the database. The name must be passed in
// G->name as a standard 3-letter code.
// If Hflag is set >= 1, all hydrogens are removed from
// the graph. If Hflag is set to 2, element types of atoms,
// to which hydrogens are bonded, are modified with flag
// HYDROGEN_BOND.
// If Cflag is set to True, then chirality information is
// assumed in the input graph G and it is used for the
// checking. If Cflag is set to False, then chirality
// information is neither assumed nor used for the checking.
// If chirality is there, all element IDs in the graph are
// assigned flag CHIRAL_RIGHT for 'R'-chirtality, CHIRAL_LEFT
// for 'S'-chirality and no flag if the atom is not a chiral
// center.
// If a same-name structure is found in the database,
// the function returns the number of matched vertices
// (nMatched) from those found in the database (nInStructure).
// The correspondence between the input and database graphs
// is returned in array match (it should be of sufficient
// length) such that ith vertex of input graph corresponds
// to the match[i]th vertex of the database graph. The
// function then returns SBASE_Ok if the number of matched
// vertices coincides with nInStructure and nMatched, and
// the return is SBASE_CheckFail otherwise.
// If a same-name structure is not found, the function
// returns SBASE_StructNotFound or SBASE_FileNotFound.
int CheckGraph ( PCGraph G, int Hflag, Boolean Cflag,
int & nInStructure, int & nMatched,
ivector match, int minMatchSize=0 );
// In the current implementation of CheckResidue, Cflag
// must be always set False, as the chirality information
// cannot be calculated (in this version) from 3D coordinates.
// See the meaning of altLoc in mmdb_graph.h, other parameters
// are the same as in CheckGraph(..) above.
int CheckResidue ( PCResidue R, int Hflag, Boolean Cflag,
int & nInResidue, int & nInStructure,
int & nMatched, ivector match,
cpstr altLoc=pstr(""),
int minMatchSize=0 );
// MakeBonds(..) makes bonds between atoms in MMDB's residue R
// from data found in SBase. Residue R must be associated with
// coordinate hierarchy. Data is retrieved from SBase on the basis
// of residue name only. In case of multiple conformations, if
// altLoc:
// NULL - the highest occupancy atom will be taken
// if all occupancies are equal then atom with
// first altLoc taken
// other - atoms with given altLoc are taken. If such
// altLoc is not found, the function does as if
// NULL value for altLoc is given.
// If selHandles is not NULL, the function also selects atoms
// in the residue according to their hydrogen bond attributes.
// This is a special option for hydrogen bond calculations
// If ignoreNegSigOcc is set True then the function will ignore
// atoms with negative occupancy standard deviation. Such atoms
// may be hydrogens added by CSBase0::AddHydrogen(..) function,
// in general any atoms added by CSBAtom::MakeCAtom(..) function.
// Added hydrogens may be ignored if MakeBonds is used in
// CSbase::CalcHBonds(..) function.
// Return:
// SBASE_Ok success
// SBASE_FileNotFound non-initiated SBase
// SBASE_StructNotFound the residue's name is not found
// in SBase
// SBASE_EmptyResidue residue R does not contain atoms
// SBASE_NoAtomsFound SBase entry does not contain atoms
// SBASE_BrokenBonds some bonds could not be set up because
// of missing atoms in R. This could be
// a result of residue R named wrongly.
int MakeBonds ( PCResidue R,
pstr altLoc,
PCFile structFile,
PSDASelHandles selHandles,
Boolean ignoreNegSigOcc );
int GetEnergyTypes ( PCResidue R, PCFile structFile );
int GetEnergyTypes ( PPCResidue R, int nRes, PCFile structFile );
int GetEnergyTypes ( PCChain chain, PCFile structFile );
int GetEnergyTypes ( PCModel model, PCFile structFile );
int GetEnergyTypes ( PCMMDBManager MMDB, PCFile structFile );
int AddHydrogens ( PCResidue R, PCFile structFile );
int AddHydrogens ( PCChain chain, PCFile structFile );
int AddHydrogens ( PCModel model, PCFile structFile );
int AddHydrogens ( PCMMDBManager MMDB, PCFile structFile );
// ComplementResidue(..) extracts data from SBase by residue
// name, then superposes atoms having identical names and
// adds the residue with atoms that are found in SBase but are
// absent in the residue. The added atoms are rotated and
// translated such as to comply with the superposed parts.
// complFlag:
// CMPLF_Hydrogens complement residue with hydrogens
// CMPLF_nonHs complement residue with non-hydrogens
// CMPLF_XT complement with C-terminus
// Return:
// SBASE_Ok success
// SBASE_FileNotFound SBase is not initialized
// SBASE_StructNotFound the residue's name is not found
// in SBase
// SBASE_EmptyResidue residue R does not contain atoms
// SBASE_NoAtomsFound SBase entry does not contain atoms
// SBASE_NoAtomsData SBase entry is not complete
// SBASE_NoSimilarity too few coomon atom names in R
// and SBase entry with the same
// structure name
// SBASE_SuperpositionFailed failed residue superposition
// NOTE: the function rearranges ALL atoms in the residue according
// to PDB order as written in SBase.
int ComplementResidue ( PCResidue R, int complFlag,
PCFile structFile=NULL );
// The following will return
// SBASE_Ok success
// SBASE_FileNotFound SBase is not initialized
// SBASE_Incomplete some residues were not fully completed
// (warning)
// SBASE_Fail no residues were completed
int ComplementChain ( PCChain chain, int complFlag,
PCFile structFile=NULL );
int ComplementModel ( PCModel model, int complFlag,
PCFile structFile=NULL );
int ComplementFile ( PCMMDBManager MMDB, int complFlag,
PCFile structFile=NULL );
// GetAtomNames(...) returns atom names (AtName[i]), total
// number of atoms (nAtoms) and number of hydrogens (nH) for
// structure number structNo, as found in the database index.
// Length of AtName should allow for accomodating all atom
// names.
// The function may return SBASE_Ok, SBASE_FileNotFound,
// SBASE_WrongIndex and SBASE_ReadError.
int GetAtNames ( int structNo, PAtomName AtName,
int & nAtoms, int & nH );
// GetAtomNames(RCFile..) works exactly like its overload
// version above, however it allows to save time on reopening
// the database's description file (structFile). The file
// reference, passed to the function, should be associated with
// opened description file. The function does not close the file.
// The function may return SBASE_Ok, SBASE_WrongIndex and
// SBASE_ReadError.
int GetAtNames ( PCFile structFile, int structNo,
PAtomName AtName, int & nAtoms, int & nH );
// GetNofAtoms(..) returns number of non-hydrogen atoms
// (nNonHAtoms) and number of hydrogens (nHAtoms) for structure
// number structNo, as found in the database index.
// The function may return SBASE_Ok or SBASE_WrongIndex.
int GetNofAtoms ( int structNo, int & nNonHAtoms, int & nHAtoms );
// GetAtoms(...) retrieves the number of non-hydrogen atoms
// (nNonHAtoms), their names (NonHAtName), number of hydrogens
// (nHAtoms) and their names (HAtName), hydrogens' connectivity
// to non-hydrogen atoms (Hconnect), element IDs (Elem) and
// chiralities (Chiral) for structure named 'name'.
// Hydrogen HAtName[i] is connected to non-hydrogen atom
// NonHAtom[Hconnect[i]], if Hconnect[i]>=0.
// The function may return SBASE_Ok, SNASE_StructNotFound,
// SBASE_FileNotFound, SBASE_ReadError, SBASE_ConnectivityError.
int GetAtoms ( cpstr compoundID,
int & nNonHAtoms, PAtomName NonHAtName,
int & nHAtoms, PAtomName HAtName,
ivector Hconnect, ivector Elem,
ivector Chiral );
// GetAtoms(...) retrieves the number of atoms (nAtoms) and
// number of bonds (nBonds[i]) and connectivity (bondPair[i][j])
// for all atoms in the structure named 'name'. bondPair[i][j],
// 0<=i<nAtoms, 0<=j<nBonds[i], gives the number of atom connected
// to i-th atom. Only pairs i<j are returned.
// maxNAtoms is the length of nBonds[] and bondPairs[],
// maxNBonds is the length of bondPairs[][].
// The function may return SBASE_Ok, SBASE_StructNotFound,
// SBASE_FileNotFound, SBASE_ReadError.
int GetBonds ( cpstr compoundID,
ivector nBonds, imatrix bondPair,
int & nAtoms, int maxNAtoms,
int maxNBonds );
int GetHetInfo ( cpstr name,
pstr Formula,
pstr Hname,
pstr Hsynonym,
pstr Hcharge,
PAtomName & ClinkAtom, // will
PElement & ClinkEle, // be
PAtomName & SlinkAtom, // allocated
PElement & SlinkEle, // or NULL
int & nLeavingAtoms );
protected :
pstr dirpath;
PPCSBIndex Index;
int nStructures;
void InitSBase0 ();
void FreeMemory0();
private :
int nIAlloc,nLoad,nLAlloc;
PPCGraph ldGraph;
PPCSBStructure ldStructure;
};
#endif
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