The chembl_webresource_client from ozgurozkan123

ChEMBL webresource client

This is the only official Python client library developed and supported by ChEMBL group.

The library helps accessing ChEMBL data and cheminformatics tools from Python. You don't need to know how to write SQL. You don't need to know how to interact with REST APIs. You don't need to compile or install any cheminformatics frameworks. Results are cached.

The client handles interaction with the HTTPS protocol and caches all results in the local file system for faster retrieval. Abstracting away all network-related tasks, the client provides the end user with a convenient interface, giving the impression of working with a local resource. Design is based on the Django QuerySet interface. The client also implements lazy evaluation of results, which means it will only evaluate a request for data when a value is required. This approach reduces number of network requests and increases performance.

Installation

pip install chembl_webresource_client

Quick start

Some most frequent use cases below.

Search molecule by synonym:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
res = molecule.search('viagra')

Search target by gene name:

from chembl_webresource_client.new_client import new_client
target = new_client.target
gene_name = 'BRD4'
res = target.search(gene_name)

or directly in the target synonym field:

from chembl_webresource_client.new_client import new_client
target = new_client.target
gene_name = 'GABRB2'
res = target.filter(target_synonym__icontains=gene_name)

Having a list of molecules ChEMBL IDs in a CSV file, produce another CSV file that maps every compound ID into a list of Uniprot accession numbers and save the mapping into output CSV file. Note the use of the only operator allowing to specify which fields should be included in the results, making critical API queries faster.

import csv
from chembl_webresource_client.new_client import new_client

# This will be our resulting structure mapping compound ChEMBL IDs into target uniprot IDs
compounds2targets = dict()

# First, let's just parse the csv file to extract compounds ChEMBL IDs:
with open('compounds_list.csv', 'r') as csvfile:
    reader = csv.reader(csvfile)
    for row in reader:
        compounds2targets[row[0]] = set()

# OK, we have our source IDs, let's process them in chunks:
chunk_size = 50
keys = list(compounds2targets.keys()) # for Python 3 we need to convert keys() to list

for i in range(0, len(keys), chunk_size):
    # we jump from compounds to targets through activities:
    activities = new_client.activity.filter(molecule_chembl_id__in=keys[i:i + chunk_size]).only(
        ['molecule_chembl_id', 'target_chembl_id'])
    # extracting target ChEMBL IDs from activities:
    for act in activities:
        compounds2targets[act['molecule_chembl_id']].add(act['target_chembl_id'])

# OK, now our dictionary maps from compound ChEMBL IDs into target ChEMBL IDs
# We would like to replace target ChEMBL IDs with uniprot IDs

for key, val in compounds2targets.items():
    # We don't know how many targets are assigned to a given compound so again it's
    # better to process targets in chunks:
    lval = list(val)
    uniprots = set()
    for i in range(0, len(val), chunk_size):
        targets = new_client.target.filter(target_chembl_id__in=lval[i:i + chunk_size]).only(
            ['target_components'])
        uniprots |= set(
            sum([[comp['accession'] for comp in t['target_components']] for t in targets],[]))
    compounds2targets[key] = uniprots

# Finally write it to the output csv file
with open('compounds_2_targets.csv', 'w') as csvfile:
    writer = csv.writer(csvfile)
    for key, val in compounds2targets.items():
        writer.writerow([key] + list(val))

If you run the example above to get all distinct Uniprot accession for targets related with oxacillin (CHEMBL819) you will find only 3 targets for E.coli (A1E3K9, P35695, P62593). ChEMBL website (https://www.ebi.ac.uk/chembl/compound/inspect/CHEMBL819), on the other hand will show 4 targets (A1E3K9, P35695, P62593 and P00811). You may wonder why this discrepancy occurs. The ChEMBL interface aggregates data from salts and parent compounds and API just returns the data as they are stored in the database. In order to get the same results you will need to add in a call to the molecule_forms endpoint like in the example below, which is taken directly from Marco Galadrini repository (https://github.com/mgalardini/chembl_tools) exposing more useful functions that will soon become a part of the client (chembl#25).

from chembl_webresource_client.new_client import new_client

organism = 'Escherichia coli'
compounds2targets = dict()
header = True
for name, chembl in [(x.split('\t')[0], x.rstrip().split('\t')[1])
                     for x in open('compounds_list.csv')]:
    if header:
        header = False
        continue
    compounds2targets[chembl] = set()

chunk_size = 50
keys = list(compounds2targets.keys())

ID_forms = dict()
for x in keys:
    ID_forms[x] = set()

for i in range(0, len(keys), chunk_size):
    for form in new_client.molecule_form.filter(parent_chembl_id__in=keys[i:i + chunk_size]):
        ID_forms[form['parent_chembl_id']].add(form['molecule_chembl_id'])

for i in range(0, len(keys), chunk_size):
    for form in new_client.molecule_form.filter(molecule_chembl_id__in=keys[i:i + chunk_size]):
        ID_forms[form['molecule_chembl_id']].add(form['parent_chembl_id'])

values = []
for x in ID_forms.values():
    values.extend(x)
forms_to_ID = dict()
for x in values:
    forms_to_ID[x] = set()

for k in forms_to_ID:
    for parent, molecule in ID_forms.items():
        if k in molecule:
            forms_to_ID[k] = parent

for i in range(0, len(values), chunk_size):
    activities = new_client.activity.filter(molecule_chembl_id__in=values[i:i + chunk_size]).filter(
        target_organism__istartswith=organism).only(['molecule_chembl_id', 'target_chembl_id'])
    for act in activities:
        compounds2targets[forms_to_ID[act['molecule_chembl_id']]].add(act['target_chembl_id'])

for key, val in compounds2targets.items():
    lval = list(val)
    uniprots = set()
    for i in range(0, len(val), chunk_size):
        targets = new_client.target.filter(target_chembl_id__in=lval[i:i + chunk_size]).only(
            ['target_components'])
        uniprots = uniprots.union(
            set(sum([[comp['accession'] for comp in t['target_components']] for t in targets],[])))
    compounds2targets[key] = uniprots

print('\t'.join(('chembl', 'target')))
for chembl in sorted(compounds2targets):
    for uniprot in compounds2targets[chembl]:
        print('\t'.join((chembl, uniprot)))

Having a list of molecules ChEMBL IDs in a CSV file, produce another CSV file that maps every compound ID into a list of human gene names. Again, please note the use of the only operator which makes API calls faster.

import csv
from chembl_webresource_client.new_client import new_client

# This will be our resulting structure mapping compound ChEMBL IDs into target uniprot IDs
compounds2targets = dict()

# First, let's just parse the csv file to extract compounds ChEMBL IDs:
with open('compounds_list.csv', 'r') as csvfile:
    reader = csv.reader(csvfile)
    for row in reader:
        compounds2targets[row[0]] = set()

# OK, we have our source IDs, let's process them in chunks:
chunk_size = 50
keys = list(compounds2targets.keys())

for i in range(0, len(keys), chunk_size):
    # we jump from compounds to targets through activities:
    activities = new_client.activity.filter(molecule_chembl_id__in=keys[i:i + chunk_size]).only(
        ['molecule_chembl_id', 'target_chembl_id'])
    # extracting target ChEMBL IDs from activities:
    for act in activities:
        compounds2targets[act['molecule_chembl_id']].add(act['target_chembl_id'])

# OK, now our dictionary maps from compound ChEMBL IDs into target ChEMBL IDs
# We would like to replace target ChEMBL IDs with uniprot IDs

for key, val in compounds2targets.items():
    # We don't know how many targets are assigned to a given compound so again it's
    # better to process targets in chunks:
    lval = list(val)
    genes = set()
    for i in range(0, len(val), chunk_size):
        targets = new_client.target.filter(target_chembl_id__in=lval[i:i + chunk_size]).only(
            ['target_components'])
        for target in targets:
            for component in target['target_components']:
                for synonym in component['target_component_synonyms']:
                    if synonym['syn_type'] == "GENE_SYMBOL":
                        genes.add(synonym['component_synonym'])
    compounds2targets[key] = genes

# Finally write it to the output csv file
with open('compounds_2_genes.csv', 'w') as csvfile:
    writer = csv.writer(csvfile)
    for key, val in compounds2targets.items():
        writer.writerow([key] + list(val))

Display a compound image in Jupyter (IPython) notebook:

from chembl_webresource_client.new_client import new_client
Image(new_client.image.get('CHEMBL25'))

or if the compound doesn't exist in ChEMBL but you have SMILES or molfile:

from chembl_webresource_client.utils import utils
Image(utils.smiles2image(smiles))

# or:

Image(utils.ctab2image(molfile))

Find compounds similar to given SMILES query with similarity threshold of 85%:

from chembl_webresource_client.new_client import new_client
similarity = new_client.similarity
res = similarity.filter(smiles="CO[C@@H](CCC#C\C=C/CCCC(C)CCCCC=C)C(=O)[O-]", similarity=85)

Find compounds similar to aspirin (CHEMBL25) with similarity threshold of 70%:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
similarity = new_client.similarity
aspirin_chembl_id = molecule.search('aspirin')[0]['molecule_chembl_id']
res = similarity.filter(chembl_id=aspirin_chembl_id, similarity=70)

Two similarity search examples above can be slow. This is because by default the similarity endpoint returns the same information as the molecule endpoint, which causes many joins on data. Often all you need is simply a list of CHEMBL_IDs and maybe a similarity score. This is why the API and client support the only method where you can specify fields you want to be included in response. Below is an example of iterating over a large file containing thousands of SMILES strings. Each SMILES string from the file is checked against ChEMBL database to see if there are any similar compounds. We just need a simple yes/no answer to the question: if there is any compound in ChEMBL that may be considered similar to the given SMILES query.
```
from chembl_webresource_client.new_client import new_client
similarity_query = new_client.similarity
dark_smiles = []
with open('12K_smile_strings.smi') as f:
    content = f.readlines()

for idx, line in enumerate(content):
    smile = line.strip()
    res = similarity_query.filter(smiles=smile, similarity=70).only(['molecule_chembl_id'])
    print("{0} {1} {2}".format(idx, smile, len(res)))
    if len(res) == 0:
        dark_smiles.append(smile)
```
If you also want to know the similarity score, replace only(['molecule_chembl_id']) with only(['molecule_chembl_id', 'similarity']).

Perform substructure search using SMILES:

from chembl_webresource_client.new_client import new_client
substructure = new_client.substructure
res = substructure.filter(smiles="CN(CCCN)c1cccc2ccccc12")

Perform substructure search using ChEMBL ID:

from chembl_webresource_client.new_client import new_client
substructure = new_client.substructure
substructure.filter(chembl_id="CHEMBL25")

Two substructure search examples above can be slow. Please use the only operator to specify required fields. For example this code will be faster then one above:

from chembl_webresource_client.new_client import new_client
substructure = new_client.substructure
substructure.filter(chembl_id="CHEMBL25").only(['molecule_chembl_id'])

Get a single molecule by ChEMBL ID:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
m1 = molecule.get('CHEMBL25')

Get a single molecule by SMILES:
```
from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
m1 = molecule.get('CC(=O)Oc1ccccc1C(=O)O')
```
Please note that using the get method will perform string-based comparison between the query SMILES and ChEMBL contents. Because there are many different canonicalisation algorithms this may not be the optimal way to search for SMILES in ChEMBL. This is why we provide a flexmatch filter that finds compounds described by the query SMILES string regardless of the canonicalisation used. Example will look like this:
```
from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
res = molecule.filter(molecule_structures__canonical_smiles__flexmatch='CN(C)C(=N)N=C(N)N')
len(res) # this returns 6 compounds
```
Another way would be using similarity or substructure search using SMILES, described in example 7 and 10 respectively.

Get a single molecule by InChi Key:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
molecule.get('BSYNRYMUTXBXSQ-UHFFFAOYSA-N')

Get many compounds by their ChEMBL IDs:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
records = molecule.get(['CHEMBL6498', 'CHEMBL6499', 'CHEMBL6505'])

Get many compounds by a list of SMILES:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
records = molecule.get(['CNC(=O)c1ccc(cc1)N(CC#C)Cc2ccc3nc(C)nc(O)c3c2',
      'Cc1cc2SC(C)(C)CC(C)(C)c2cc1\\N=C(/S)\\Nc3ccc(cc3)S(=O)(=O)N',
      'CC(C)C[C@H](NC(=O)[C@@H](NC(=O)[C@H](Cc1c[nH]c2ccccc12)NC' # <- notice lack of coma, we just...
      '(=O)[C@H]3CCCN3C(=O)C(CCCCN)CCCCN)C(C)(C)C)C(=O)O']) # ... broke long SMILE into 2 pieces

Get many compounds by a list of InChi Keys:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
records = molecule.get(['XSQLHVPPXBBUPP-UHFFFAOYSA-N',
                        'JXHVRXRRSSBGPY-UHFFFAOYSA-N', 'TUHYVXGNMOGVMR-GASGPIRDSA-N'])

Obtain the pChEMBL value for compound:

from chembl_webresource_client.new_client import new_client
activities = new_client.activity
res = activities.filter(molecule_chembl_id="CHEMBL25", pchembl_value__isnull=False)

Obtain the pChEMBL value for a specific compound AND a specific target:

from chembl_webresource_client.new_client import new_client
activities = new_client.activity
activities.filter(molecule_chembl_id="CHEMBL25", target_chembl_id="CHEMBL612545",
                  pchembl_value__isnull=False)

Get all approved drugs:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
approved_drugs = molecule.filter(max_phase=4)

Get approved drugs for lung cancer:

from chembl_webresource_client.new_client import new_client
drug_indication = new_client.drug_indication
molecules = new_client.molecule
lung_cancer_ind = drug_indication.filter(efo_term__icontains="LUNG CARCINOMA")
lung_cancer_mols = molecules.filter(
    molecule_chembl_id__in=[x['molecule_chembl_id'] for x in lung_cancer_ind])

Get all molecules in ChEMBL with no Rule-of-Five violations:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
no_violations = molecule.filter(molecule_properties__num_ro5_violations=0)

Get all biotherapeutic molecules:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
biotherapeutics = molecule.filter(biotherapeutic__isnull=False)

Get all natural products:

The molecule resource has a natural_product flag but it's only set for approved drugs. So if you want an sdf file with approved drugs being natural products you can simply use this URL:

https://www.ebi.ac.uk/chembl/api/data/molecule.sdf?natural_product=1

Which can be translated into the following client code:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
molecule.set_format('sdf')
molecule.filter(natural_product=1)

If you want to retrieve all the natural products compounds regardless it they are approved drugs or not, you can fetch all compounds extracted from the Journal of Natural Products. Using the client you will write a following code:

from chembl_webresource_client.new_client import new_client
document = new_client.document
docs = document.filter(journal="J. Nat. Prod.").only('document_chembl_id')
compound_record = new_client.compound_record
records = compound_record.filter(
    document_chembl_id__in=[doc['document_chembl_id'] for doc in docs]).only(
    ['document_chembl_id', 'molecule_chembl_id'])
molecule = new_client.molecule
natural_products = molecule.filter(
    molecule_chembl_id__in=[rec['molecule_chembl_id'] for rec in records]).only(
    'molecule_structures')

Return molecules with molecular weight <= 300:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
light_molecules = molecule.filter(molecule_properties__mw_freebase__lte=300)

Return molecules with molecular weight <= 300 AND pref_name ending with nib:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
light_nib_molecules = molecule.filter(
    molecule_properties__mw_freebase__lte=300).filter(pref_name__iendswith="nib")

Get all Ki activities related to the hERG target:

from chembl_webresource_client.new_client import new_client
target = new_client.target
activity = new_client.activity
herg = target.search('herg')[0]
herg_activities = activity.filter(target_chembl_id=herg['target_chembl_id']).filter(standard_type="Ki")

Get all activities related to the Open TG-GATES project:

from chembl_webresource_client.new_client import new_client
activity = new_client.activity
res = activity.search('"TG-GATES"')

Get all activities for a specific target with assay type B (Binding) OR F (Functional):

from chembl_webresource_client.new_client import new_client
activity = new_client.activity
res = activity.filter(target_chembl_id='CHEMBL3938', assay_type__iregex='(B|F)')

Search for ADMET-related inhibitor assays (type A):

from chembl_webresource_client.new_client import new_client
assay = new_client.assay
res = assay.search('inhibitor').filter(assay_type='A')

Get cell line by cellosaurus id:

from chembl_webresource_client.new_client import new_client
cell_line = new_client.cell_line
res = cell_line.filter(cellosaurus_id="CVCL_0417")

Filter drugs by approval year and name:

from chembl_webresource_client.new_client import new_client
drug = new_client.drug
res = drug.filter(first_approval=1976).filter(usan_stem="-azosin")

Get tissue by BTO ID:

from chembl_webresource_client.new_client import new_client
tissue = new_client.tissue
res = tissue.filter(bto_id="BTO:0001073")

Get tissue by Caloha id:

from chembl_webresource_client.new_client import new_client
tissue = new_client.tissue
res = tissue.filter(caloha_id="TS-0490")

Get tissue by Uberon id:

from chembl_webresource_client.new_client import new_client
tissue = new_client.tissue
res = tissue.filter(uberon_id="UBERON:0000173")

Get tissue by name:

from chembl_webresource_client.new_client import new_client
tissue = new_client.tissue
res = tissue.filter(pref_name__istartswith='blood')

Search documents for cytokine:

from chembl_webresource_client.new_client import new_client
document = new_client.document
res = document.search('cytokine')

Search for compound in Unichem:

from chembl_webresource_client.unichem import unichem_client as unichem
ret = unichem.get('AIN')

Resolve InChi Key to Inchi using Unichem:

from chembl_webresource_client.unichem import unichem_client as unichem
ret = unichem.inchiFromKey('AAOVKJBEBIDNHE-UHFFFAOYSA-N')

Convert SMILES to CTAB:

from chembl_webresource_client.utils import utils
aspirin = utils.smiles2ctab('O=C(Oc1ccccc1C(=O)O)C')

Convert SMILES to image and image back to SMILES:

from chembl_webresource_client.utils import utils
aspirin = 'CC(=O)Oc1ccccc1C(=O)O'
im = utils.smiles2image(aspirin)
mol = utils.image2ctab(im)
smiles = utils.ctab2smiles(mol).split()[2]
self.assertEqual(smiles, aspirin)

Compute fingerprints:

from chembl_webresource_client.utils import utils
aspirin = utils.smiles2ctab('O=C(Oc1ccccc1C(=O)O)C')
fingerprints = utils.sdf2fps(aspirin)

Compute Maximal Common Substructure:

from chembl_webresource_client.utils import utils
smiles = ["O=C(NCc1cc(OC)c(O)cc1)CCCC/C=C/C(C)C",
          "CC(C)CCCCCC(=O)NCC1=CC(=C(C=C1)O)OC", "c1(C=O)cc(OC)c(O)cc1"]
mols = [utils.smiles2ctab(smile) for smile in smiles]
sdf = ''.join(mols)
result = utils.mcs(sdf)

Compute various molecular descriptors:

from chembl_webresource_client.utils import utils
aspirin = utils.smiles2ctab('O=C(Oc1ccccc1C(=O)O)C')
num_atoms = json.loads(utils.getNumAtoms(aspirin))[0]
mol_wt = json.loads(utils.molWt(aspirin))[0]
log_p = json.loads(utils.logP(aspirin))[0]
tpsa = json.loads(utils.tpsa(aspirin))[0]
descriptors = json.loads(utils.descriptors(aspirin))[0]

Standardize molecule:

from chembl_webresource_client.utils import utils
mol = utils.smiles2ctab("[Na]OC(=O)Cc1ccc(C[NH3+])cc1.c1nnn[n-]1.O")
st = utils.standardise(mol)

Supported formats

The following formats are supported:

JSON (default format):

from chembl_webresource_client.new_client import new_client
activity = new_client.activity
activity.set_format('json')
activity.all().order_by('assay_type')[0]['activity_id']

XML (you need to parse XML yourself):

from chembl_webresource_client.new_client import new_client
activity = new_client.activity
activity.set_format('xml')
activity.all().order_by('assay_type')

SDF (only for compounds): For example you can use the client to save sdf file of a set of compounds and compute 3D coordinates:

from chembl_webresource_client.new_client import new_client
molecule = new_client.molecule
molecule.set_format('sdf')

mols = molecule.filter(molecule_properties__acd_logp__gte=self.logP) \
                 .filter(molecule_properties__aromatic_rings__lte=self.rings_number) \
                 .filter(chirality=self.chirality) \
                 .filter(molecule_properties__full_mwt__lte=self.mwt)

with open('mols_2D.sdf', 'w') as output:
      for mol in mols:
          output.write(mol)
          output.write('$$$$\n')

with open('mols_3D.sdf', 'w') as output:
      with open('mols_2D.sdf', 'r') as input:
          mols = input.open('r').read().split('$$$$\n')
          for mol in mols:
              mol_3D = utils.ctab23D(mol)
              output.write(mol_3D)
              output.write('$$$$\n')

FPS (as a result of sdf2fps method)

PNG, SVG for image rendering

from chembl_webresource_client.new_client import new_client
image = new_client.image
image.get('CHEMBL1')

Available data entities

You can list available data entities using the following code:

from chembl_webresource_client.new_client import new_client
available_resources = [resource for resource in dir(new_client) if not resource.startswith('_')]
print available_resources

At the time of writing this documentation there are 30 entities:

activity
assay
atc_class
binding_site
biotherapeutic
cell_line
chembl_id_lookup
compound_record
compound_structural_alert
document
document_similarity
drug
drug_indication
go_slim
image
mechanism
metabolism
molecule
molecule_form
organism
protein_class
similarity
source
substructure
target
target_component
target_prediction
target_relation
tissue
xref_source

Available filters

As was mentioned above the design of the client is based on Django QuerySet (https://docs.djangoproject.com/en/1.11/ref/models/querysets) and most important lookup types are supported. These are:

exact
iexact
contains
icontains
in
gt
gte
lt
lte
startswith
istartswith
endswith
iendswith
range
isnull
regex
iregex
search (implemented as a method of several selected endpoints instead of a lookup)

`Only` operator

only is a special method allowing to limit the results to a selected set of fields. only should take a single argument: a list of fields that should be included in result. Specified fields have to exists in the endpoint against which only is executed. Using only will usually make an API call faster because less information returned will save bandwidth. The API logic will also check if any SQL joins are necessary to return the specified field and exclude unnecessary joins with critically improves performance.

Please note that only has one limitation: a list of fields will ignore nested fields i.e. calling only(['molecule_properties__alogp']) is equivalent to only(['molecule_properties']).

For many 2 many relationships only will not make any SQL join optimisation.

Settings

In order to use settings you need to import them before using the client:

from chembl_webresource_client.settings import Settings

Settings object is a singleton that exposes Instance method, for example:

Settings.Instance().TIMEOUT = 10

Most important options:

CACHING: should results be cached locally (default is True)
CACHE_EXPIRE: cache expiry time in seconds (default 24 hours)
CACHE_NAME: name of the .sqlite file with cache
TOTAL_RETRIES: number of total retires per HTTP request (default is 3)
CONCURRENT_SIZE: total number of concurrent requests (default is 50)
FAST_SAVE: Speedup cache saving up to 50 times but with possibility of data loss (default is True)

Is that a full functionality?

No. For more examples, please see the Binder notebook link on top of this file.

Citing / Other resources

There are two papers describing some implementation details of the client library:

There are also two related blog posts:

ozgurozkan123 / chembl_webresource_client Goto Github PK

chembl_webresource_client's Introduction

ChEMBL webresource client

Installation

Quick start

Supported formats

Available data entities

Available filters

`Only` operator

Settings

Is that a full functionality?

Citing / Other resources

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ozgurozkan123 / chembl_webresource_client Goto Github PK

chembl_webresource_client's Introduction

ChEMBL webresource client

Installation

Quick start

Supported formats

Available data entities

Available filters

Only operator

Settings

Is that a full functionality?

Citing / Other resources

chembl_webresource_client's People

Contributors

Watchers

Recommend Projects

Recommend Topics

Recommend Org

Jobs

`Only` operator