SIEM Qradar | Features of IBM SIEM Qradar


A brief introduction to IBM SIEM Qradar:

SIEM Qradar is a powerful security intelligence tool and offers cross-environment support. SIEM Qradar is a child product of the company “IBM”. The main aim to develop this tool is to provide accurate detection and prioritize the threats across multiple enterprises. This SIEM Qradar also offers data intelligent insight that helps the team to notify and respond quickly to any threat incident that happens. IBM SIEM Qradar can also be implanted in a cloud environment and on premise infrastructure to protect the data and devices. The core functionalities of IBM SIEM Qradar included are data collection and flow collections. Flow data consists of information about network activity information and hosts information between any two networking servers.

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Overview of IBM SIEM Qradar:

As we discussed above, IBM SIEM Qradar is a security and data protection platform, mainly developed to secure the business data, reduces risk, and protect the device from any kind of threats. There are various IBM SIEM Qradar console components are available such as Qradar product interface, flow views, administrative functions, asset information, reports, real time events, and offenses. Sometimes this Qradar acts as a host between any two networking sessions to protect the business data. One more important function of SIEM Qradar is to collect the IDS AND IPS cisco events with the help of SDEE protocol or commonly known as “Security device event exchange”.

The architecture of Qradar:

The Qradar architecture defines the core functionality and work nature of the system. In this section, we are going to determine the overall functionality of Qradar:

The following diagram explains the Qradar Architecture:

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The core functionalities of IBM SIEM Qradar included are data collection, process, integrate, aggregate, and store them in an appropriate data base management system. Qradar platform makes use of these data to manage network security by offering real-time information, monitoring, and responds to various network threats. IBM SIEM Qradar architecture is based on a modular architecture that supports real-time data visibility of any information technology information, and also helps for threat detections. There are various Qradar modules included are Qradar platform, Qradar vulnerability, Qradar data manager, Qradar risk manager, and Qradar incident forensics. The Qradar security intelligence platform composed of three layers they are data collection, data searches, and data processing.

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Qradar core components:

The following are the IBM SIEM Qradar core components, they are;

1. Qradar Console:

a. Qradar console offers the user interface, real time data events, administrative functions, offenses, and asset information.

b. In the distributed Qradar data deployment, we make use of the Qradar console to manage the networking hosts and components functionalities.

2. Qradar event collector:

a. The Qradar event collector helps to collect the events from remote and local log sources and then normalizes the raw data log source events.

b. Usually these event collectors are types of bundles and coalesces identical events to transfer the data to the data processor.

c. The event collector does not store the events locally and parse the events for storage.

d. This event collector will be assigned to an EPS license that matches the Qradar event processor.

3. Qradar Event processor:

a. This Qradar event processor helps to process the events that are collected from one or more event collectors.

b. The event processor processes the Qradar events with the help of the Customs Rules engine (CRE). These events are predefined and execute the action that is specified for the rules.

c. Each event processor consists of local storage and the data will be stored on the Qradar processor.

d. You can also add an event processor component to an all-in-one appliance and each event processing function will be moved from the all-in-one appliance to the Qradar event processor.

4. Qradar Qflow collector:

a. The Qradar flow collector helps to collect the data flows by connecting them to the SPAN port or any networking TAP portal.

b. These types of Qradar Qflow collectors are not designed for full packet capture systems. To get the full packet capture you need to review the incident forensic options.

c. User can also install a Qradar Qflow collector on their own hardware system and also enables you to make use of Qflow collector appliances.

5. Qradar flow processor:

a. The Qradar flow processor helps to flow data from one or more Qflow collector appliances. The flow processor appliance can also be used to collect the external networking data flows they are Net Flow, S flow, and J flow.

b. User can also use the Qradar flow processor appliance to scale the Qradar deployment to maintain the higher data flow per minute.

c. This type of flow processor consists of on board data flow processor and internal storage.

6. Qradar data nodes:

a. This Qradar data node supports new and existing Qradar deployment to ass appropriate storage and processes them as per your requirement.

b. Qradar data node also helps to increase the data search speed and offers more hardware resources to run your device.

7. Qradar App host:

a. This Qradar App host is used to manage the network host to run your applications. App host offers extra data storage, CPU resources, and Memory for your application without affecting the processing capacity of the Qradar console.

b. The applications such as User behavior analytics and machine learning analytics need more resources on the Qradar console.

Qradar appliances:

The following are the various Qradar appliances:

1. Qradar security intelligence platform appliances:

IBM Qradar security intelligence platform is very comprehensive, offers next-generation security solutions and risk management appliances. This appliance offers services like integrated log management, event management, and security services.

2. Qradar security management appliances:

This is a Qradar network security management appliance and related software application. This offers enterprise-level integration with an integrated framework that helps to combine disparate networks.

3. Qradar QFLOW collector appliances for security intelligence:

This IBM Qradar Qflow collector mainly used for security intelligence management appliances and this offers advanced network data analytic solutions.

Features of IBM SIEM Qradar:

Below are the advanced features of IBM SIEM Qradar:

1. Task scanner – the task scanner component scans the specified properties, on a scheduled time intervals. This scanning mechanism executes the tasks when the property value matches a specified value.

2. Script Engine – this scripting engine is a pluggable component module that provides the triggering and plugin points for the Identity management system. It can be performed using JavaScript and Groovy programming language.

3. Policy Service – This component used to apply the validation procedures to objects or properties, when they are updated or created.

4. Audit Logging – Audit logging performs the logging activities of all the relevant system users and also configures the log stores. This uses the reconciliation data as a base for reporting and activity logs to capture the internal and external object’s operations.

5. Repository – This component abstracts the pluggable persistence layer. IDM framework modular provides Reconciliation of data and synchronization with several external data stores like relational databases (RDBMS), LDAP data servers, CSV, and XML files.

The Repository API component uses the JSON-based object model with RESTful automation tool principles. The main purpose of using this component is for testing and embedded instances for Qradar services.

Benefits of IBM SIEM Qradar:

Below are the key benefits of IBM SIEM Qradar:

1. Easy to deploy, scalable model using stackable distributed appliances.

2. Qradar doesn’t require any storage database management system.

3. Offers automatic failover and disaster recovery.

4. Cloud environment, on premise, and hybrid deployment.

5. Software, hardware, and virtual resource deployments.

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Conclusion:

In this IBM SIEM Qradar blog, we have tried to cover basic to core concepts of Qradar and to write them in an understanding purpose we have taken expert guidance. SIEM Qradar is an IBM product and mainly used to protect the business data, devices, and software components from any malware attacks and threats. One more important point to be considered here, this Qradar tool can also be deployed on cloud and on premise environment. If you are working as a security architect, then this blog will be more beneficial.



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What is Big Data Modeling?

Data modeling is the method of constructing a specification for the storage of data in a database. It is a theoretical representation of data objects and relationships between them. The process of formulating data in a structured format in an information system is known as data modeling. It facilitates data analysis, which will aid in meeting business requirements.

Data modeling necessitates data modelers who will work closely with stakeholders and potential users of an information system. The data modeling method ends in developing a data model that supports the business information system’s infrastructure. This method also entails comprehending an organization’s structure and suggesting a solution that allows the organization to achieve its goals. It connects the technological and functional aspects of a project.

Why is Data Modeling necessary?

To ensure that we can easily access all books in a library, we must classify them and place them on racks. Likewise, if we have a lot of info, we’ll need a system or a process to keep it all organized. “Data modeling” refers to the method of sorting and storing data.”

A data model is a system for organizing and storing data. A data model helps us organise data according to service, access, and usage, just like the Dewey Decimal System helps us organise books in a library. Big data can benefit from appropriate models and storage environments in the following ways:

Performance: Good data models will help us quickly query the data we need and lower I/O throughput.

Cost: Good data models can help big data systems save money by reducing unnecessary data redundancy, reusing computing results, and lowering storage and computing costs.

Efficiency: Good data models can significantly enhance user experience and data utilization performance.

Quality: Good data models ensure that data statistics are accurate and that computing errors are minimized.

As a result, a big data system unquestionably necessitates high-quality data modeling methods for organizing and storing data, enabling us to achieve the best possible balance of performance, cost, reliability, and quality.

Why use a Data Model?

Data Model

  • Data interpretation can be improved by using a visual representation of the data. It gives developers a complete image of the data, which they can use to build a physical database.
  • The model correctly depicts all of an organization’s essential data. Data omission is less likely thanks to the data model. Data omission can result in inaccurate results and reports.
  • The data model depicts a clearer picture of market requirements.
  • It aids in developing a tangible interface that unifies an organization’s data on a single platform. It also aids in the detection of redundant, duplicate, and incomplete data.
  • A competent data model aids in ensuring continuity across all of an organization’s projects.
    It enhances the data’s quality.
  • It aids Project Managers in achieving greater reach and quality control. It also boosts overall performance.
  • Relational tables, stored procedures, and primary and foreign keys are all described in it.

Data Model Perspectives

Conceptual, logical, and physical data models are the three types of data models. Data models are used to describe data, how it is organized in a database, and how data components are related to one another.

Data Model Perspective

Conceptual Model

This stage specifies what must be included in the model’s configuration to describe and coordinate market principles. It focuses primarily on business-related entries, characteristics, and relationships. Data Architects and Business Stakeholders are mainly responsible for its development.

The Conceptual Data Model is used to specify the scope of the method. It’s a tool for organizing, scoping, and visualizing company ideas. The aim of developing a computational data model is to develop new entities, relationships, and attributes. Data architects and stakeholders typically create a computational data model.

The Conceptual Data Model is held by three key holders.

  • Entity: A real-life thing
  • Attribute: Properties of an entity
  • Relationship: Association between two entities

Let’s take a look at an illustration of this data model.

Consider the following two entities: product and customer. The Product entity’s attributes are the name and price of the product, while the Customer entity’s attributes are the name and number of customers. Sales is the connection between these two entities.

  • The Conceptual Data Model was created with a corporate audience in mind.
  • It offers an overview of corporate principles for the whole organization.
  • It is created separately, with hardware requirements such as location and data storage space and software requirements such as technology and DBMS vendor.

Conceptual Models

Logical Model

The conceptual model lays out how the model can be put into use. It encompasses all types of data that must be captured, such as tables, columns, and so on. Business Analysts and Data Architects are the most prominent designers of this model.

The Logical Data Model is used to describe the arrangement of data structures as well as their relationships. It lays the groundwork for constructing a physical model. This model aids in the inclusion of extra data to the conceptual data model components. There is no primary or secondary key specified in this model. This model helps users to update and check the connector information for relationships that have been set previously.

The logical data model describes the data requirements for a single project, but it may be combined with other logical data models depending on the project’s scope. Data attributes come with a variety of data types, many of which have exact lengths and precisions.

  • The logical data model is created and configured separately from the database management system.
  • Data Types with accurate dimensions and precisions exist for data attributes.
  • It specifies the data needed for a project but, depending on the project’s complexity, interacts with other logical data models.

Logical Model

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Physical Model

The physical model explains how to use a database management system to execute a data model. It lays out the process in terms of tables, CRUD operations, indexes, partitioning, etc. Database Administrators and Developers build it. 

The Physical Data Model specifies how a data model is implemented in a database. It attracts databases and aids in developing schemas by duplicating database constraints, triggers, column keys, other RDBMS functions, and indexes. This data model aids in visualizing the database layout. Views, access

profiles, authorizations, primary and foreign keys, and so on are all specified in this model.

The majority and minority relationships are defined in the Data Model by the relationship between tables. It is created for a specific version of a database management system, data storage, and project site.

  • The Physical Data Model was created for a database management system (DBMS), data storage, and a project site.
  • It contains table relationships that address the nullability and cardinality of the relationships.
  • Views, access profiles, authorizations, primary and foreign keys, and so on are all specified here.

Physical Model

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Types of Data Models

While there are several different data modeling approaches, the basic principle remains the same with all models. Let’s take a look at some of the most commonly used data models:

Hierarchical Model

This is a database modeling technique that uses a tree-like structure to organise data. Each record in this table has a single root or parent. When it comes to sibling documents, they’re organized in a specific way. This is the physical order in which the information is stored. This method of modeling can be applied to a wide range of real-world model relationships. This database model was popular in the 1960s and 1970s. However, owing to inefficiencies, they are still used infrequently.

The hierarchical model is used to assemble data into a tree-like structure with a single root that connects all of the data. A single root like this evolves like a branch, connecting nodes to the parent nodes, with each child node having just one parent node. The data is structured in a relational system with a one-to-many relationship between two different data types in this model. For example, in a college, a department consists of a set of courses, professors, and students.

Hierarchical Models

Relational Model

In 1970, an IBM researcher suggested this as a possible solution to the hierarchical paradigm. The data path does not need to be defined by developers. Tables are used to merge data segments in this case directly. The program’s complexity has been minimized due to this model. It necessitates a thorough understanding of the organization’s physical data management strategy. This model was quickly merged with Structured Query Language after its introduction (SQL).

A typical field maintains the Relational Model aids in the organization of two-dimensional tables and the interaction. Tables are the data structure of a relational data model. The table’s rows contain all of the information for a given category. In the Relational Model, these tables are referred to as relations.

Relational Models

Network Model

The Network Model is an enhancement of the Hierarchical Model, allowing for various relationships with related records, implying multiple parent records. It will enable users to build models using sets of similar documents following mathematical set theory. A parent record and the number of child records are included in this set. Each record is a member of several sets, allowing the model to define complex relationships. The model can express complex relationships since each record can belong to several sets.

Network Models

Object-oriented Database Model

A set of objects are aligned with methods and functions in the Object-oriented Database. There are characteristics and methods associated with these objects. Multimedia databases, hypertext databases, and other types of object-oriented databases are available. Even if it incorporates tables, this type of database model is known as a post-relational database model since it is not limited to tables. These database models are referred to as hybrid models.

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Entity–Relationship Model

The Entity-Relationship Model (ERM) is a diagram that depicts entities and their relationships. The E-R model generates an entity set, attributes, relationship set, and constraints when constructing a real-world scenario database model. The E-R diagram is a graphical representation of this kind.

An entity may be an object, a concept, or a piece of data stored in relation to the data. It has properties called attributes, and a set of values called domain defines each attribute. A relationship is a logical connection between two or more entities. These connections are mapped to entities in several ways.

Consider a College Database, where a Student is an entity, and the Attributes are Student details such as Name, ID, Age, Address, and so on. As a result, there will be a relation between them.

Entity–Relationship Model

Object-relational Model

The object-relational model can be thought of as a relational model with enhanced object-oriented database model features. This kind of database model enables programmers to integrate functions into a familiar table structure.

An Object-relational Data Model combines the advantages of both an Object-oriented and a Relational database model. It supports classes, objects, inheritance, and other features similar to the Object-oriented paradigm and data types, tabular structures, and other features similar to the Relational database model. Designers may use this model to integrate functions into table structures.

Facts and Dimensions

To understand data modelling, one must first grasp its facts and dimensions.

Fact Table: It’s a table that lists all of the measurements and their granularity. Sales, for example, maybe additive or semi-additive.

Dimension Table: It’s a table containing fields with definitions of market elements and is referenced by several fact tables.

Dimensional Modeling: Dimensional modeling is a data warehouse design methodology. It makes use of validated measurements and facts and aids in navigation. The use of dimensional modeling in performance queries speeds up the process. Star schemas are a colloquial term for dimensional models.

Dimensional Modeling-Related Keys

While learning data modeling, it’s critical to understand the keys. There are five different types of dimensional modelling keys.

  • Business or Natural Keys: It is a field that uniquely defines an individual. Customer ID, employee number, and so on.
  • Primary and Alternate Keys: A primary key is an area that contains a single unique record. The consumer must choose one of the available primary keys, with the others being alternative keys.
  • Composite or Compound Keys: A composite key is one in which more than one field is used to represent a key.
  • Surrogate Keys: It is usually an auto-generated field with no business meaning.
  • Foreign Keys: It is a key that refers to another key in some other table.

The process of data modeling entails the development and design of various data models. A data definition language is then used to convert these data models. A database is created using a data definition language. This database will be referred to as a wholly attributed data model at that stage.

Benefits and Drawbacks of Data Models

Benefits:

  • With data modeling, the functional team’s data objects are appropriately presented.
  • Data modeling enables you to query data from a database and generate various reports from it. With the aid of reports, it indirectly contributes to data analysis. These reports can be used to improve the project’s quality and efficiency.
  • Businesses have a large amount of data in various formats. For such unstructured data, data modeling offers a structured framework.
  • Data modeling enhances business intelligence by requiring data modelers to work closely with the project’s realities, such as data collection from various unstructured sources, reporting specifications, spending patterns, and so on.
  • It improves coordination within the business.
  • The documentation of data mapping is aided during the ETL method.

Drawbacks:

  • The development of a data model is a time-consuming process. Should understand the physical characteristics of data storage.
  • This method necessitates complex application creation as well as biographical truth information.
  • The model isn’t particularly user-friendly. Small improvements in the method require a significant rewrite of the entire application.

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Conclusion

Data models are created to store data in a database. The primary goal of these data models is to ensure that the data objects generated by the functional team are correctly denoted. As previously stated, even the little improvement in the system necessitates improvements to the entire model. Despite the problems, the data modelling concept is the first and most important step of database design since it describes data entities, relationships between data objects, and so on. A data model discusses the data’s market rules, government regulations, and regulatory enforcement in a holistic manner.

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