Use Automatic Client-Side Field Level Encryption with KMIP
On this page
- Overview
- Before You Get Started
- Set Up the KMS
- Configure your KMIP-compliant key provider
- Specify your Certificates
- Create the Application
- Create a Unique Index on Your Key Vault Collection
- Create a Data Encryption Key
- Configure the MongoClient
- Insert a Document with Encrypted Fields
- Retrieve Your Document with Encrypted Fields
- Learn More
Overview
This guide shows you how to build a Client-Side Field Level Encryption (CSFLE)-enabled application using a Key Management Interoperability Protocol (KMIP)-compliant key provider.
After you complete the steps in this guide, you should have:
A Customer Master Key hosted on a KMIP-compliant key provider.
A working client application that inserts documents with encrypted fields using your Customer Master Key.
Before You Get Started
To complete and run the code in this guide, you need to set up your development environment as shown in the Installation Requirements page.
Throughout this guide, code examples use placeholder text. Before you run the examples, substitute your own values for these placeholders.
For example:
dek_id := "<Your Base64 DEK ID>"
You would replace everything between quotes with your DEK ID.
dek_id := "abc123"
Select the programming language for which you want to see code examples for from the Select your language dropdown menu on the right side of the page.
Tip
See: Full Application
To view the complete runnable application code for this tutorial, go to the following link:
Set Up the KMS
Note
mongod
reads the KMIP configuration at startup. By default, the
server uses KMIP protocol version 1.2.
To connect to a version 1.0 or 1.1 KMIP server, use the
useLegacyProtocol
setting.
// You are viewing the C# driver code examples. // Use the dropdown menu to select a different driver.
// You are viewing the Golang driver code examples. // Use the dropdown menu to select a different driver.
Important
When building or running the Golang code in this guide using
go build
or go run
, always include the cse
build
constraint to enable CSFLE. See the following shell
command for an example of including the build constraint:
go run -tags cse insert-encrypted-document.go
// You are viewing the Java synchronous driver code examples. // Use the dropdown menu to select a different driver.
// You are viewing the Node.js driver code examples. // Use the dropdown menu to select a different driver.
# You are viewing the Python driver code examples. # Use the dropdown menu to select a different driver.
Configure your KMIP-compliant key provider
To connect a MongoDB driver client to your KMIP-compliant key provider, you must configure your KMIP-compliant key provider such that it accepts your client's TLS certificate.
Consult the documentation for your KMIP-compliant key provider for information on how to accept your client certificate.
Specify your Certificates
Your client must connect to your KMIP-compliant key provider through TLS and present a client certificate that your KMIP-compliant key provider accepts:
var tlsOptions = new Dictionary<string, SslSettings>(); var sslSettings = new SslSettings(); var clientCertificate = new X509Certificate2("<path to your pkcs12 client certificate file>"); sslSettings.ClientCertificates = new List<X509Certificate>() { clientCertificate, }; tlsOptions.Add(provider, sslSettings);
Important
Your client certificate must be in pkcs12 format. You can convert your certificate using your certificate using OpenSSL with the following command:
openssl pkcs12 -export -out "<new pkcs12 certificate>" -in "<certificate to convert>" \ -name "<new certificate name>" -password "<new certificate password>"
tlsConfig := make(map[string]*tls.Config) tlsOpts := map[string]interface{}{ "tlsCertificateKeyFile": "<path to your client certificate file>", "tlsCAFile": "<path to file containing your Certificate Authority certificate>", } kmipConfig, err := options.BuildTLSConfig(tlsOpts) tlsConfig["kmip"] = kmipConfig
Important
You must use certificates with ECDSA keys when using the Go driver.
Specify the following Java system properties to configure your client's TLS connection:
-Djavax.net.ssl.keyStoreType=pkcs12 -Djavax.net.ssl.keyStore=<path to pkcs12 KeyStore containing your client certificate> -Djavax.net.ssl.keyStorePassword=<KeyStore password>
Note
Configure Client With SSLContext
If you would rather configure your client application using an SSL context, use the kmsProviderSslContextMap method.
const tlsOptions = { kmip: { tlsCAFile: "<path to file containing your Certificate Authority certificate>", tlsCertificateKeyFile: "<path to your client certificate file>", }, };
tls_options = { "kmip": { "tlsCAFile": "<path to file containing your Certificate Authority certificate>", "tlsCertificateKeyFile": "<path to your client certificate file>", } }
Create the Application
Select the tab that corresponds to the MongoDB driver you are using in your application to see relevant code samples.
Create a Unique Index on Your Key Vault Collection
Create a unique index on the keyAltNames
field in your
encryption.__keyVault
namespace.
Select the tab corresponding to your preferred MongoDB driver:
var connectionString = "<Your MongoDB URI>"; var keyVaultNamespace = CollectionNamespace.FromFullName("encryption.__keyVault"); var keyVaultClient = new MongoClient(connectionString); var indexOptions = new CreateIndexOptions<BsonDocument>(); indexOptions.Unique = true; indexOptions.PartialFilterExpression = new BsonDocument { { "keyAltNames", new BsonDocument { { "$exists", new BsonBoolean(true) } } } }; var builder = Builders<BsonDocument>.IndexKeys; var indexKeysDocument = builder.Ascending("keyAltNames"); var indexModel = new CreateIndexModel<BsonDocument>(indexKeysDocument, indexOptions); var keyVaultDatabase = keyVaultClient.GetDatabase(keyVaultNamespace.DatabaseNamespace.ToString()); // Drop the Key Vault Collection in case you created this collection // in a previous run of this application. keyVaultDatabase.DropCollection(keyVaultNamespace.CollectionName); // Drop the database storing your encrypted fields as all // the DEKs encrypting those fields were deleted in the preceding line. keyVaultClient.GetDatabase("medicalRecords").DropCollection("patients"); var keyVaultCollection = keyVaultDatabase.GetCollection<BsonDocument>(keyVaultNamespace.CollectionName.ToString()); keyVaultCollection.Indexes.CreateOne(indexModel);
uri := "<Your MongoDB URI>" keyVaultClient, err := mongo.Connect(context.TODO(), options.Client().ApplyURI(uri)) if err != nil { return fmt.Errorf("Connect error for regular client: %v", err) } defer func() { _ = keyVaultClient.Disconnect(context.TODO()) }() keyVaultColl := "__keyVault" keyVaultDb := "encryption" keyVaultNamespace := keyVaultDb + "." + keyVaultColl keyVaultIndex := mongo.IndexModel{ Keys: bson.D{{"keyAltNames", 1}}, Options: options.Index(). SetUnique(true). SetPartialFilterExpression(bson.D{ {"keyAltNames", bson.D{ {"$exists", true}, }}, }), } // Drop the Key Vault Collection in case you created this collection // in a previous run of this application. if err = keyVaultClient.Database(keyVaultDb).Collection(keyVaultColl).Drop(context.TODO()); err != nil { log.Fatalf("Collection.Drop error: %v", err) } // Drop the database storing your encrypted fields as all // the DEKs encrypting those fields were deleted in the preceding line. if err = keyVaultClient.Database("medicalRecords").Collection("patients").Drop(context.TODO()); err != nil { log.Fatalf("Collection.Drop error: %v", err) } _, err = keyVaultClient.Database(keyVaultDb).Collection(keyVaultColl).Indexes().CreateOne(context.TODO(), keyVaultIndex) if err != nil { panic(err) }
String connectionString = "<Your MongoDB URI>"; String keyVaultDb = "encryption"; String keyVaultColl = "__keyVault"; String keyVaultNamespace = keyVaultDb + "." + keyVaultColl; MongoClient keyVaultClient = MongoClients.create(connectionString); // Drop the Key Vault Collection in case you created this collection // in a previous run of this application. keyVaultClient.getDatabase(keyVaultDb).getCollection(keyVaultColl).drop(); // Drop the database storing your encrypted fields as all // the DEKs encrypting those fields were deleted in the preceding line. keyVaultClient.getDatabase("medicalRecords").getCollection("patients").drop(); MongoCollection keyVaultCollection = keyVaultClient.getDatabase(keyVaultDb).getCollection(keyVaultColl); IndexOptions indexOpts = new IndexOptions().partialFilterExpression(new BsonDocument("keyAltNames", new BsonDocument("$exists", new BsonBoolean(true) ))).unique(true); keyVaultCollection.createIndex(new BsonDocument("keyAltNames", new BsonInt32(1)), indexOpts); keyVaultClient.close();
const uri = "<Your Connection String>"; const keyVaultDatabase = "encryption"; const keyVaultCollection = "__keyVault"; const keyVaultNamespace = `${keyVaultDatabase}.${keyVaultCollection}`; const keyVaultClient = new MongoClient(uri); await keyVaultClient.connect(); const keyVaultDB = keyVaultClient.db(keyVaultDatabase); // Drop the Key Vault Collection in case you created this collection // in a previous run of this application. await keyVaultDB.dropDatabase(); // Drop the database storing your encrypted fields as all // the DEKs encrypting those fields were deleted in the preceding line. await keyVaultClient.db("medicalRecords").dropDatabase(); const keyVaultColl = keyVaultDB.collection(keyVaultCollection); await keyVaultColl.createIndex( { keyAltNames: 1 }, { unique: true, partialFilterExpression: { keyAltNames: { $exists: true } }, } );
connection_string = "<your connection string here>" key_vault_coll = "__keyVault" key_vault_db = "encryption" key_vault_namespace = f"{key_vault_db}.{key_vault_coll}" key_vault_client = MongoClient(connection_string) # Drop the Key Vault Collection in case you created this collection # in a previous run of this application. key_vault_client.drop_database(key_vault_db) # Drop the database storing your encrypted fields as all # the DEKs encrypting those fields were deleted in the preceding line. key_vault_client["medicalRecords"].drop_collection("patients") key_vault_client[key_vault_db][key_vault_coll].create_index( [("keyAltNames", ASCENDING)], unique=True, partialFilterExpression={"keyAltNames": {"$exists": True}}, )
Create a Data Encryption Key
Add your Endpoint
Specify the URI endpoint of your KMIP-compliant key provider:
var kmsProviders = new Dictionary<string, IReadOnlyDictionary<string, object>>(); var provider = "kmip"; var kmipKmsOptions = new Dictionary<string, object> { { "endpoint", "<endpoint for your KMIP-compliant key provider>" }, }; kmsProviders.Add(provider, kmipKmsOptions);
provider := "kmip" kmsProviders := map[string]map[string]interface{}{ provider: { "endpoint": "<endpoint for your KMIP-compliant key provider>", }, }
String kmsProvider = "kmip"; Map<String, Map<String, Object>> kmsProviders = new HashMap<String, Map<String, Object>>(); Map<String, Object> providerDetails = new HashMap<>(); providerDetails.put("endpoint", "<endpoint for your KMIP-compliant key provider>"); kmsProviders.put(kmsProvider, providerDetails);
const provider = "kmip"; const kmsProviders = { kmip: { endpoint: "<endpoint for your KMIP-compliant key provider>", }, };
provider = "kmip" kms_providers = { provider: {"endpoint": "<endpoint for your KMIP-compliant key provider>"} }
Add Your Key Information
The following code prompts your KMIP-compliant key provider to automatically generate a Customer Master Key:
var dataKeyOptions = new DataKeyOptions( masterKey: new BsonDocument { } // an empty key object prompts your KMIP-compliant key provider to generate a new Customer Master Key );
masterKey := map[string]interface{}{} // an empty key object prompts your KMIP-compliant key provider to generate a new Customer Master Key
BsonDocument masterKeyProperties = new BsonDocument(); // an empty key object prompts your KMIP-compliant key provider to generate a new Customer Master Key
const masterKey = {}; // an empty key object prompts your KMIP-compliant key provider to generate a new Customer Master Key
master_key = ( {} ) # an empty key object prompts your KMIP-compliant key provider to generate a new Customer Master Key
Generate your Data Encryption Key
Generate your Data Encryption Key using the variables declared in step one of this tutorial.
var clientEncryptionOptions = new ClientEncryptionOptions( keyVaultClient: keyVaultClient, keyVaultNamespace: keyVaultNamespace, kmsProviders: kmsProviders, tlsOptions: tlsOptions ); var clientEncryption = new ClientEncryption(clientEncryptionOptions); var dataKeyId = clientEncryption.CreateDataKey(provider, dataKeyOptions, CancellationToken.None); var dataKeyIdBase64 = Convert.ToBase64String(GuidConverter.ToBytes(dataKeyId, GuidRepresentation.Standard)); Console.WriteLine($"DataKeyId [base64]: {dataKeyIdBase64}");
clientEncryptionOpts := options.ClientEncryption().SetKeyVaultNamespace(keyVaultNamespace). SetKmsProviders(kmsProviders).SetTLSConfig(tlsConfig) clientEnc, err := mongo.NewClientEncryption(keyVaultClient, clientEncryptionOpts) if err != nil { return fmt.Errorf("NewClientEncryption error %v", err) } defer func() { _ = clientEnc.Close(context.TODO()) }() dataKeyOpts := options.DataKey(). SetMasterKey(masterKey) dataKeyID, err := clientEnc.CreateDataKey(context.TODO(), provider, dataKeyOpts) if err != nil { return fmt.Errorf("create data key error %v", err) } fmt.Printf("DataKeyId [base64]: %s\n", base64.StdEncoding.EncodeToString(dataKeyID.Data))
ClientEncryptionSettings clientEncryptionSettings = ClientEncryptionSettings.builder() .keyVaultMongoClientSettings(MongoClientSettings.builder() .applyConnectionString(new ConnectionString(connectionString)) .build()) .keyVaultNamespace(keyVaultNamespace) .kmsProviders(kmsProviders) .build(); MongoClient regularClient = MongoClients.create(connectionString); ClientEncryption clientEncryption = ClientEncryptions.create(clientEncryptionSettings); BsonBinary dataKeyId = clientEncryption.createDataKey(kmsProvider, new DataKeyOptions().masterKey(masterKeyProperties)); String base64DataKeyId = Base64.getEncoder().encodeToString(dataKeyId.getData()); System.out.println("DataKeyId [base64]: " + base64DataKeyId); clientEncryption.close();
const client = new MongoClient(uri, { useNewUrlParser: true, useUnifiedTopology: true, }); await client.connect(); const encryption = new ClientEncryption(client, { keyVaultNamespace, kmsProviders, tlsOptions, }); const key = await encryption.createDataKey(provider, { masterKey: masterKey, }); console.log("DataKeyId [base64]: ", key.toString("base64")); await keyVaultClient.close(); await client.close();
Note
Import ClientEncryption
When using the Node.js driver v6.0 and later, you must import
ClientEncryption
from mongodb
.
For earlier driver versions, import ClientEncryption
from
mongodb-client-encryption
.
key_vault_database = "encryption" key_vault_collection = "__keyVault" key_vault_namespace = f"{key_vault_database}.{key_vault_collection}" client = MongoClient(connection_string) client_encryption = ClientEncryption( kms_providers, # pass in the kms_providers variable from the previous step key_vault_namespace, client, CodecOptions(uuid_representation=STANDARD), kms_tls_options=tls_options, ) data_key_id = client_encryption.create_data_key(provider, master_key) base_64_data_key_id = base64.b64encode(data_key_id) print("DataKeyId [base64]: ", base_64_data_key_id)
Tip
See: Complete Code
To view the complete code for making a Data Encryption Key, see our Github repository.
To view the complete code for making a Data Encryption Key, see our Github repository.
To view the complete code for making a Data Encryption Key, see our Github repository.
To view the complete code for making a Data Encryption Key, see our Github repository.
To view the complete code for making a Data Encryption Key, see our Github repository.
Configure the MongoClient
Tip
Follow the remaining steps in this tutorial in a separate file from the one created in the previous steps.
To view the complete code for this file, see our Github repository
To view the complete code for this file, see our Github repository.
To view the complete code for this file, see our Github repository.
To view the complete code for this file, see our Github repository.
To view the complete code for this file, see our Github repository.
Specify the Key Vault Collection Namespace
Specify encryption.__keyVault
as the Key Vault collection
namespace.
var keyVaultNamespace = CollectionNamespace.FromFullName("encryption.__keyVault");
keyVaultNamespace := "encryption.__keyVault"
String keyVaultNamespace = "encryption.__keyVault";
const keyVaultNamespace = "encryption.__keyVault";
key_vault_namespace = "encryption.__keyVault"
Specify your KMIP Endpoint
Specify kmip
in your kmsProviders
object and enter
the URI endpoint of your KMIP-compliant key provider:
var kmsProviders = new Dictionary<string, IReadOnlyDictionary<string, object>>(); var provider = "kmip"; var kmipKmsOptions = new Dictionary<string, object> { { "endpoint", "<endpoint for your KMIP-compliant key provider>" }, }; kmsProviders.Add(provider, kmipKmsOptions);
provider := "kmip" kmsProviders := map[string]map[string]interface{}{ provider: { "endpoint": "<endpoint for your KMIP-compliant key provider>", }, }
String kmsProvider = "kmip"; Map<String, Map<String, Object>> kmsProviders = new HashMap<String, Map<String, Object>>(); Map<String, Object> providerDetails = new HashMap<>(); providerDetails.put("endpoint", "<endpoint for your KMIP-compliant key provider>"); kmsProviders.put(kmsProvider, providerDetails);
const provider = "kmip"; const kmsProviders = { kmip: { endpoint: "<endpoint for your KMIP-compliant key provider>", }, };
provider = "kmip" kms_providers = { provider: {"endpoint": "<endpoint for your KMIP-compliant key provider>"} }
Create an Encryption Schema For Your Collection
Create an encryption schema that specifies how your client application encrypts your documents' fields:
Tip
Add Your Data Encryption Key Base64 ID
Make sure to update the following code to include your Base64 DEK ID. You received this value in the Generate your Data Encryption Key step of this guide.
var keyId = "<Your base64 DEK ID here>"; var schema = new BsonDocument { { "bsonType", "object" }, { "encryptMetadata", new BsonDocument("keyId", new BsonArray(new[] { new BsonBinaryData(Convert.FromBase64String(keyId), BsonBinarySubType.UuidStandard) })) }, { "properties", new BsonDocument { { "ssn", new BsonDocument { { "encrypt", new BsonDocument { { "bsonType", "int" }, { "algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic" } } } } }, { "bloodType", new BsonDocument { { "encrypt", new BsonDocument { { "bsonType", "string" }, { "algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Random" } } } } }, { "medicalRecords", new BsonDocument { { "encrypt", new BsonDocument { { "bsonType", "array" }, { "algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Random" } } } } }, { "insurance", new BsonDocument { { "bsonType", "object" }, { "properties", new BsonDocument { { "policyNumber", new BsonDocument { { "encrypt", new BsonDocument { { "bsonType", "int" }, { "algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic" } } } } } } } } } } } }; var schemaMap = new Dictionary<string, BsonDocument>(); schemaMap.Add(dbNamespace, schema);
dek_id := "<Your Base64 DEK ID>" schema_template := `{ "bsonType": "object", "encryptMetadata": { "keyId": [ { "$binary": { "base64": "%s", "subType": "04" } } ] }, "properties": { "insurance": { "bsonType": "object", "properties": { "policyNumber": { "encrypt": { "bsonType": "int", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic" } } } }, "medicalRecords": { "encrypt": { "bsonType": "array", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Random" } }, "bloodType": { "encrypt": { "bsonType": "string", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Random" } }, "ssn": { "encrypt": { "bsonType": "int", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic" } } } }` schema := fmt.Sprintf(schema_template, dek_id) var schemaDoc bson.Raw if err := bson.UnmarshalExtJSON([]byte(schema), true, &schemaDoc); err != nil { return fmt.Errorf("UnmarshalExtJSON error: %v", err) } schemaMap := map[string]interface{}{ dbName + "." + collName: schemaDoc, }
String dekId = "<paste-base-64-encoded-data-encryption-key-id>>"; Document jsonSchema = new Document().append("bsonType", "object").append("encryptMetadata", new Document().append("keyId", new ArrayList<>((Arrays.asList(new Document().append("$binary", new Document() .append("base64", dekId) .append("subType", "04"))))))) .append("properties", new Document() .append("ssn", new Document().append("encrypt", new Document() .append("bsonType", "int") .append("algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic"))) .append("bloodType", new Document().append("encrypt", new Document() .append("bsonType", "string") .append("algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Random"))) .append("medicalRecords", new Document().append("encrypt", new Document() .append("bsonType", "array") .append("algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Random"))) .append("insurance", new Document() .append("bsonType", "object") .append("properties", new Document().append("policyNumber", new Document().append("encrypt", new Document() .append("bsonType", "int") .append("algorithm", "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic")))))); HashMap<String, BsonDocument> schemaMap = new HashMap<String, BsonDocument>(); schemaMap.put("medicalRecords.patients", BsonDocument.parse(jsonSchema.toJson()));
dataKey = "<Your base64 DEK ID>"; const schema = { bsonType: "object", encryptMetadata: { keyId: [new Binary(Buffer.from(dataKey, "base64"), 4)], }, properties: { insurance: { bsonType: "object", properties: { policyNumber: { encrypt: { bsonType: "int", algorithm: "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic", }, }, }, }, medicalRecords: { encrypt: { bsonType: "array", algorithm: "AEAD_AES_256_CBC_HMAC_SHA_512-Random", }, }, bloodType: { encrypt: { bsonType: "string", algorithm: "AEAD_AES_256_CBC_HMAC_SHA_512-Random", }, }, ssn: { encrypt: { bsonType: "int", algorithm: "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic", }, }, }, }; var patientSchema = {}; patientSchema[namespace] = schema;
dek_id = b"<paste-base-64-encoded-data-encryption-key-id>" json_schema = { "bsonType": "object", "encryptMetadata": {"keyId": [Binary(base64.b64decode(dek_id), UUID_SUBTYPE)]}, "properties": { "insurance": { "bsonType": "object", "properties": { "policyNumber": { "encrypt": { "bsonType": "int", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic", } } }, }, "medicalRecords": { "encrypt": { "bsonType": "array", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Random", } }, "bloodType": { "encrypt": { "bsonType": "string", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Random", } }, "ssn": { "encrypt": { "bsonType": "int", "algorithm": "AEAD_AES_256_CBC_HMAC_SHA_512-Deterministic", } }, }, } patient_schema = {"medicalRecords.patients": json_schema}
Tip
Further Reading on Schemas
To view an in-depth description of how to construct the schema you use in this step, see the Encryption Schemas guide.
To view a list of all supported encryption rules for your encryption schemas, see the CSFLE Encryption Schemas guide.
Specify the Location of the Automatic Encryption Shared Library
var mongoBinariesPath = "<Full path to your Automatic Encryption Shared Library>"; var extraOptions = new Dictionary<string, object>() { { "cryptSharedLibPath", mongoBinariesPath }, };
extraOptions := map[string]interface{}{ "cryptSharedLibPath": "<Full path to your Automatic Encryption Shared Library>", }
Map<String, Object> extraOptions = new HashMap<String, Object>(); extraOptions.put("cryptSharedLibPath", "<Full path to your Automatic Encryption Shared Library>"));
const extraOptions = { cryptSharedLibPath: "<Full path to your Automatic Encryption Shared Library>", };
extra_options = { "cryptSharedLibPath": "<Full path to your Automatic Encryption Shared Library>" }
Note
Automatic Encryption Options
The automatic encryption options provide configuration information to the Automatic Encryption Shared Library, which modifies the application's behavior when accessing encrypted fields.
To learn more about the Automatic Encryption Shared Library, see the Automatic Encryption Shared Library for CSFLE page.
Create the MongoClient
Instantiate a MongoDB client object with the following automatic encryption settings that use the variables declared in the previous steps:
var clientSettings = MongoClientSettings.FromConnectionString(connectionString); var autoEncryptionOptions = new AutoEncryptionOptions( keyVaultNamespace: keyVaultNamespace, kmsProviders: kmsProviders, schemaMap: schemaMap, extraOptions: extraOptions, tlsOptions: tlsOptions ); clientSettings.AutoEncryptionOptions = autoEncryptionOptions; var secureClient = new MongoClient(clientSettings);
autoEncryptionOpts := options.AutoEncryption(). SetKmsProviders(kmsProviders). SetKeyVaultNamespace(keyVaultNamespace). SetSchemaMap(schemaMap). SetExtraOptions(extraOptions).SetTLSConfig(tlsConfig) secureClient, err := mongo.Connect(context.TODO(), options.Client().ApplyURI(uri).SetAutoEncryptionOptions(autoEncryptionOpts)) if err != nil { return fmt.Errorf("Connect error for encrypted client: %v", err) } defer func() { _ = secureClient.Disconnect(context.TODO()) }()
MongoClientSettings clientSettings = MongoClientSettings.builder() .applyConnectionString(new ConnectionString(connectionString)) .autoEncryptionSettings(AutoEncryptionSettings.builder() .keyVaultNamespace(keyVaultNamespace) .kmsProviders(kmsProviders) .schemaMap(schemaMap) .extraOptions(extraOptions) .build()) .build(); MongoClient mongoClientSecure = MongoClients.create(clientSettings);
const secureClient = new MongoClient(connectionString, { useNewUrlParser: true, useUnifiedTopology: true, autoEncryption: { keyVaultNamespace, kmsProviders, schemaMap: patientSchema, extraOptions: extraOptions, tlsOptions, }, });
fle_opts = AutoEncryptionOpts( kms_providers, key_vault_namespace, schema_map=patient_schema, kms_tls_options=tls_options, **extra_options ) secureClient = MongoClient(connection_string, auto_encryption_opts=fle_opts)
Insert a Document with Encrypted Fields
Use your CSFLE-enabled
MongoClient
instance to insert a document with encrypted fields into the
medicalRecords.patients
namespace using the following code
snippet:
var sampleDocFields = new BsonDocument { { "name", "Jon Doe" }, { "ssn", 145014000 }, { "bloodType", "AB-" }, { "medicalRecords", new BsonArray { new BsonDocument("weight", 180), new BsonDocument("bloodPressure", "120/80") } }, { "insurance", new BsonDocument { { "policyNumber", 123142 }, { "provider", "MaestCare" } } } }; // Construct an auto-encrypting client var secureCollection = secureClient.GetDatabase(db).GetCollection<BsonDocument>(coll); // Insert a document into the collection secureCollection.InsertOne(sampleDocFields);
test_patient := map[string]interface{}{ "name": "Jon Doe", "ssn": 241014209, "bloodType": "AB+", "medicalRecords": []map[string]interface{}{{ "weight": 180, "bloodPressure": "120/80", }}, "insurance": map[string]interface{}{ "provider": "MaestCare", "policyNumber": 123142, }, } if _, err := secureClient.Database(dbName).Collection(collName).InsertOne(context.TODO(), test_patient); err != nil { return fmt.Errorf("InsertOne error: %v", err) }
Note
Rather than creating a raw BSON document, you can pass a struct with bson
tags directly
to the driver for encoding.
ArrayList<Document> medicalRecords = new ArrayList<>(); medicalRecords.add(new Document().append("weight", "180")); medicalRecords.add(new Document().append("bloodPressure", "120/80")); Document insurance = new Document() .append("policyNumber", 123142) .append("provider", "MaestCare"); Document patient = new Document() .append("name", "Jon Doe") .append("ssn", 241014209) .append("bloodType", "AB+") .append("medicalRecords", medicalRecords) .append("insurance", insurance); mongoClientSecure.getDatabase(recordsDb).getCollection(recordsColl).insertOne(patient);
try { const writeResult = await secureClient .db(db) .collection(coll) .insertOne({ name: "Jon Doe", ssn: 241014209, bloodType: "AB+", medicalRecords: [{ weight: 180, bloodPressure: "120/80" }], insurance: { policyNumber: 123142, provider: "MaestCare", }, }); } catch (writeError) { console.error("writeError occurred:", writeError); }
def insert_patient( collection, name, ssn, blood_type, medical_records, policy_number, provider ): insurance = {"policyNumber": policy_number, "provider": provider} doc = { "name": name, "ssn": ssn, "bloodType": blood_type, "medicalRecords": medical_records, "insurance": insurance, } collection.insert_one(doc) medical_record = [{"weight": 180, "bloodPressure": "120/80"}] insert_patient( secureClient.medicalRecords.patients, "Jon Doe", 241014209, "AB+", medical_record, 123142, "MaestCare", )
When you insert a document, your CSFLE-enabled client encrypts the fields of your document such that it resembles the following:
{ "_id": { "$oid": "<_id of your document>" }, "name": "Jon Doe", "ssn": { "$binary": "<cipher-text>", "$type": "6" }, "bloodType": { "$binary": "<cipher-text>", "$type": "6" }, "medicalRecords": { "$binary": "<cipher-text>", "$type": "6" }, "insurance": { "provider": "MaestCare", "policyNumber": { "$binary": "<cipher-text>", "$type": "6" } } }
Tip
See: Complete Code
To view the complete code for inserting a document with encrypted fields, see our Github repository
To view the complete code for inserting a document with encrypted fields, see our Github repository.
To view the complete code for inserting a document with encrypted fields, see our Github repository.
To view the complete code for inserting a document with encrypted fields, see our Github repository.
To view the complete code for inserting a document with encrypted fields, see our Github repository.
Retrieve Your Document with Encrypted Fields
Retrieve the document with encrypted fields you inserted in the Insert a Document with Encrypted Fields step of this guide.
To show the functionality of CSFLE, the following code snippet queries for your document with a client configured for automatic CSFLE as well as a client that is not configured for automatic CSFLE.
Console.WriteLine("Finding a document with regular (non-encrypted) client."); var filter = Builders<BsonDocument>.Filter.Eq("name", "Jon Doe"); var regularResult = regularCollection.Find(filter).Limit(1).ToList()[0]; Console.WriteLine($"\n{regularResult}\n"); Console.WriteLine("Finding a document with encrypted client, searching on an encrypted field"); var ssnFilter = Builders<BsonDocument>.Filter.Eq("ssn", 145014000); var secureResult = secureCollection.Find(ssnFilter).Limit(1).First(); Console.WriteLine($"\n{secureResult}\n");
fmt.Println("Finding a document with regular (non-encrypted) client.") var resultRegular bson.M err = regularClient.Database(dbName).Collection(collName).FindOne(context.TODO(), bson.D{{"name", "Jon Doe"}}).Decode(&resultRegular) if err != nil { panic(err) } outputRegular, err := json.MarshalIndent(resultRegular, "", " ") if err != nil { panic(err) } fmt.Printf("%s\n", outputRegular) fmt.Println("Finding a document with encrypted client, searching on an encrypted field") var resultSecure bson.M err = secureClient.Database(dbName).Collection(collName).FindOne(context.TODO(), bson.D{{"ssn", "241014209"}}).Decode(&resultSecure) if err != nil { panic(err) } outputSecure, err := json.MarshalIndent(resultSecure, "", " ") if err != nil { panic(err) } fmt.Printf("%s\n", outputSecure)
System.out.println("Finding a document with regular (non-encrypted) client."); Document docRegular = mongoClientRegular.getDatabase(recordsDb).getCollection(recordsColl).find(eq("name", "Jon Doe")).first(); System.out.println(docRegular.toJson()); System.out.println("Finding a document with encrypted client, searching on an encrypted field"); Document docSecure = mongoClientSecure.getDatabase(recordsDb).getCollection(recordsColl).find(eq("ssn", 241014209)).first(); System.out.println(docSecure.toJson());
console.log("Finding a document with regular (non-encrypted) client."); console.log( await regularClient.db(db).collection(coll).findOne({ name: /Jon/ }) ); console.log( "Finding a document with encrypted client, searching on an encrypted field" ); console.log( await secureClient.db(db).collection(coll).findOne({ ssn: "241014209" }) );
print("Finding a document with regular (non-encrypted) client.") result = regularClient.medicalRecords.patients.find_one({"name": "Jon Doe"}) pprint.pprint(result) print("Finding a document with encrypted client, searching on an encrypted field") pprint.pprint(secureClient.medicalRecords.patients.find_one({"ssn": 241014209}))
The output of the preceding code snippet should look like this:
Finding a document with regular (non-encrypted) client. { _id: new ObjectId("629a452e0861b3130887103a"), name: 'Jon Doe', ssn: new Binary(Buffer.from("0217482732d8014cdd9ffdd6e2966e5e7910c20697e5f4fa95710aafc9153f0a3dc769c8a132a604b468732ff1f4d8349ded3244b59cbfb41444a210f28b21ea1b6c737508d9d30e8baa30c1d8070c4d5e26", "hex"), 6), bloodType: new Binary(Buffer.from("0217482732d8014cdd9ffdd6e2966e5e79022e238536dfd8caadb4d7751ac940e0f195addd7e5c67b61022d02faa90283ab69e02303c7e4001d1996128428bf037dea8bbf59fbb20c583cbcff2bf3e2519b4", "hex"), 6), 'key-id': 'demo-data-key', medicalRecords: new Binary(Buffer.from("0217482732d8014cdd9ffdd6e2966e5e790405163a3207cff175455106f57eef14e5610c49a99bcbd14a7db9c5284e45e3ee30c149354015f941440bf54725d6492fb3b8704bc7c411cff6c868e4e13c58233c3d5ed9593eca4e4d027d76d3705b6d1f3b3c9e2ceee195fd944b553eb27eee69e5e67c338f146f8445995664980bf0", "hex"), 6), insurance: { policyNumber: new Binary(Buffer.from("0217482732d8014cdd9ffdd6e2966e5e79108decd85c05be3fec099e015f9d26d9234605dc959cc1a19b63072f7ffda99db38c7b487de0572a03b2139ac3ee163bcc40c8508f366ce92a5dd36e38b3c742f7", "hex"), 6), provider: 'MaestCare' } } Finding a document with encrypted client, searching on an encrypted field { _id: new ObjectId("629a452e0861b3130887103a"), name: 'Jon Doe', ssn: 241014209, bloodType: 'AB+', 'key-id': 'demo-data-key', medicalRecords: [ { weight: 180, bloodPressure: '120/80' } ], insurance: { policyNumber: 123142, provider: 'MaestCare' } }
Tip
See: Complete Code
To view the complete code for inserting a document with encrypted fields, see our Github repository
To view the complete code for inserting a document with encrypted fields, see our Github repository.
To view the complete code for inserting a document with encrypted fields, see our Github repository.
To view the complete code for inserting a document with encrypted fields, see our Github repository.
To view the complete code for inserting a document with encrypted fields, see our Github repository.
Learn More
To learn how CSFLE works, see Fundamentals.
To learn more about the topics mentioned in this guide, see the following links:
Learn more about CSFLE components on the Reference page.
Learn how Customer Master Keys and Data Encryption Keys work on the Encryption Keys and Key Vaults page.
See how KMS Providers manage your CSFLE keys on the KMS Providers page.