
GITNUXSOFTWARE ADVICE
Data Science AnalyticsTop 10 Best Backend Software of 2026
Top 10 Backend Software ranking for Kafka, Flink, and Spark plus other server tools, comparing fit for streaming, data, and APIs.
How we ranked these tools
Core product claims cross-referenced against official documentation, changelogs, and independent technical reviews.
Analyzed video reviews and hundreds of written evaluations to capture real-world user experiences with each tool.
AI persona simulations modeled how different user types would experience each tool across common use cases and workflows.
Final rankings reviewed and approved by our editorial team with authority to override AI-generated scores based on domain expertise.
Score: Features 40% · Ease 30% · Value 30%
Gitnux may earn a commission through links on this page — this does not influence rankings. Editorial policy
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
Apache Kafka
Partitioned topics with consumer-group offset management for parallel consumption and replay
Built for large event streaming platforms needing resilient, replayable pipelines and stream processing.
Apache Flink
Editor pickExactly-once state consistency via checkpointing for stateful stream processing
Built for teams building low-latency, stateful stream processing and event-time analytics.
Apache Spark
Editor pickStructured Streaming with exactly-once capable processing via checkpoints
Built for data engineering and analytics teams running large-scale distributed pipelines.
Related reading
Comparison Table
This table compares backend software by integration depth, data model, automation, and the API surface for provisioning and operations. It also maps admin and governance controls such as RBAC and audit log support to the underlying schema and extensibility options for each platform. The ranking highlights Kafka, Flink, and Spark while keeping the focus on throughput paths and concrete configuration tradeoffs across streaming and analytics workloads.
Apache Kafka
event streamingA distributed event streaming platform that provides durable log-based messaging for real-time data pipelines and analytics backends.
Partitioned topics with consumer-group offset management for parallel consumption and replay
Apache Kafka stands out for using a distributed commit log that decouples producers from consumers with durable, ordered message storage. It delivers core stream-processing building blocks like topics, consumer groups, partitions, offsets, and exactly-once capable processing patterns.
The ecosystem also supports Kafka Connect for scalable ingestion and Sink integration, plus Kafka Streams for embedded stream processing inside applications. Operationally, it is designed for high-throughput event routing across data centers with strong backpressure behaviors via consumer lag and retention.
- +Durable distributed log with ordered partitions for reliable event-driven architectures
- +Consumer groups enable horizontal scaling and independent consumption at different speeds
- +Kafka Connect standardizes data ingestion and delivery with reusable connectors
- +Backpressure visibility via consumer lag and retention-based replay windows
- –Partitioning, replication, and retention require careful design to avoid data risk
- –Operational complexity is higher than simpler queues due to brokers, coordination, and tuning
- –Exactly-once semantics add complexity in transactional configuration and topology design
Platform engineering teams
Central event bus for microservices
Reduced service coupling
Data engineering teams
High-volume ingestion via Kafka Connect
Faster pipeline ingestion
Show 2 more scenarios
Stream processing teams
Low-latency transformations with Kafka Streams
More timely derived data
Kafka Streams applies stateful stream processing with exactly-once patterns and topic-based materialization.
Operations and SRE teams
Backpressure-aware event retention
Improved incident recovery
Retention and consumer lag metrics help operators manage load while maintaining durable history for reprocessing.
Best for: Large event streaming platforms needing resilient, replayable pipelines and stream processing
More related reading
Apache Flink
stream processingA stream processing engine that runs stateful computations with low latency for analytics workloads over event streams.
Exactly-once state consistency via checkpointing for stateful stream processing
Apache Flink is a backend streaming and processing engine built for production workloads that require low-latency processing with event-time ordering. It supports stateful operators with checkpointing and savepoints, which enables recovery after failures without losing correctness for tracked state. It also provides strong integration patterns for stream ingestion and emission using source and sink connectors with configurable semantics.
Flink often requires careful state and time configuration, since event-time processing depends on correct timestamps and watermark strategies for late or out-of-order events. A common tradeoff is higher operational complexity compared to simpler stream processors when teams need custom windows, state backends, or exactly-once end-to-end guarantees across connectors. It fits teams building real-time fraud detection or analytics where late data handling and deterministic reprocessing matter.
- +Event-time processing with watermarks enables correct out-of-order stream handling
- +Stateful operators with checkpointing support reliable, long-running workflows
- +High-performance runtime with parallel execution and backpressure handling
- +Rich windowing and SQL support accelerate common streaming use cases
- –Operational complexity rises with tuning checkpoints, state, and parallelism
- –Debugging distributed failures can be harder than simpler streaming engines
- –API flexibility can increase development effort for complex stateful logic
Fraud analytics engineering teams
Event-time rules with late transaction handling
Lower false positives
IoT platform backend teams
Streaming aggregation for device telemetry
Stable real-time dashboards
Show 2 more scenarios
Data engineering teams
Exactly-once ETL from event streams
Fewer duplicate records
Flink performs stateful transformations with checkpoint-driven recovery to maintain consistent outputs to sinks.
Payments risk operations teams
Join streams with consistent reprocessing
More accurate risk scoring
Flink correlates payment events across streams using event-time semantics and stateful join logic.
Best for: Teams building low-latency, stateful stream processing and event-time analytics
Apache Spark
data processingA unified data processing engine that supports batch, streaming, and machine learning workloads for analytics backends.
Structured Streaming with exactly-once capable processing via checkpoints
Apache Spark provides distributed in-memory computation with a DAG scheduler that supports SQL, structured streaming, and iterative machine learning pipelines in the same runtime. It exposes DataFrame and Dataset APIs in Python, Scala, Java, and SQL so teams can standardize transformations and reuse logical plans across workloads. Built-in libraries include structured streaming for event-time processing, MLlib for training and feature pipelines, and GraphX for graph workloads that require distributed message passing.
A key tradeoff is that performance depends on correct partitioning, memory sizing, and shuffle behavior because wide transformations can generate large network and disk spill. Spark fits best for workloads that need repeated passes over data, such as feature engineering for model training, because caching and persistence reduce recomputation. Structured Streaming also fits situations where late events and watermarks must be handled consistently across micro-batches.
- +Unified engine for batch, streaming, SQL, ML, and graph workloads
- +Fast execution via in-memory caching and whole-stage code generation
- +Rich connectors for data sources and sinks across common data platforms
- –Tuning partitioning, shuffles, and memory use can be complex
- –Operational overhead increases with cluster size and workload diversity
- –Strict correctness depends on job design and checkpointing choices
Data engineering teams
Batch ETL with unified SQL transformations
Faster ETL refresh cycles
Platform engineers
Kubernetes-based Spark job orchestration
Consistent cluster operations
Show 2 more scenarios
Streaming data teams
Event-time pipelines with late data
More accurate real-time outputs
Teams build structured streaming queries that use watermarks to process late events and update state safely.
ML engineering teams
Iterative model training on cached features
Shorter model iteration time
Teams reuse cached feature datasets across training runs and evaluation steps using MLlib estimators and pipelines.
Best for: Data engineering and analytics teams running large-scale distributed pipelines
More related reading
Dremio
SQL analyticsA SQL query engine for analytics that connects to data sources and accelerates performance with caching and metadata awareness.
Reflections, Dremio’s materialized acceleration layer for faster repeated SQL queries
Dremio stands out by pushing SQL analytics directly onto data lake and warehouse sources using a semantic layer called Reflection. It builds an accelerator-driven engine for low-latency queries, supports metadata discovery, and enables governed datasets through catalogs and spaces. For backend teams, it adds REST APIs, cluster-based execution, and lineage-aware orchestration so analysts and services can share consistent query logic.
- +SQL federation across lake and warehouse sources with a consistent query interface
- +Reflection accelerators reduce repeated scan costs and improve interactive query latency
- +Semantic layer with governed datasets keeps metrics consistent across teams
- +Strong metadata discovery and lineage features for operational observability
- –Tuning reflections and storage settings takes expertise for best performance
- –Complex deployments require careful infrastructure and workload planning
- –Some advanced warehouse-specific optimizations may not translate cleanly
Best for: Backend teams modernizing analytics over data lakes with governed SQL access
Trino
federated SQLA distributed SQL query engine that federates queries across multiple data sources for analytics and interactive reporting.
Federated query execution with connector-based predicate and join pushdown
Trino stands out as an open source SQL query engine that federates queries across multiple data sources. It supports pushdown of filters, projections, and joins through connectors, which reduces data movement for backend analytics.
Trino also offers distributed execution, materialization controls, and role-based access integration patterns that fit modern data platform architectures. It is best positioned for interactive querying where a single SQL layer spans warehouses, lakes, and operational databases.
- +SQL federation across warehouses and data lakes via many connectors
- +Distributed execution with cost-based planning and join optimization
- +Predicate and projection pushdown reduces scanned data for faster queries
- –Operations require careful cluster tuning to avoid runaway resource usage
- –Some advanced workflows need engineering effort around connectors and schemas
- –Metadata and connector quirks can cause inconsistent performance across sources
Best for: Teams running federated analytics with SQL across heterogeneous backends
dbt Core
data transformationsA transformation framework that compiles analytics SQL models into executed jobs for maintaining versioned data pipelines.
Incremental models with merge or append strategies for efficient rebuilds
dbt Core distinguishes itself with SQL-first modeling that compiles into warehouse-native queries and run plans. It provides transformation workflows through models, tests, and documentation that can be versioned like application code. Its lineage, incremental patterns, and environment-aware configuration make it a strong backend layer for analytics transformations.
- +SQL-first modeling compiles to warehouse queries without bespoke runtime engines
- +Built-in tests and documentation integrate into CI-friendly development workflows
- +Incremental models support efficient rebuilds with predictable merge semantics
- +Dependency graphs and lineage help track impact of upstream changes
- –Requires disciplined project structure to prevent model sprawl
- –Debugging compiled SQL can slow down issues tied to macros and variables
- –Data quality coverage depends on how tests are authored and maintained
Best for: Analytics engineering teams standardizing warehouse transformations with code-driven governance
More related reading
Airflow
workflow orchestrationA workflow orchestration system that schedules and monitors data pipelines for analytics backends with a DAG-based model.
DAG-based scheduling with dependency tracking, retries, and backfills
Airflow stands out with its code-first, DAG-based orchestration model built on Python workflows. It provides scheduled and event-triggered execution, dependency management, and rich operator support for common data and infrastructure targets.
The platform includes a web UI and REST APIs for monitoring, plus integrations for logging and alerting across task states. Strong extensibility via custom operators and hooks supports complex backend workflows end to end.
- +Python DAGs enable versioned, reviewable workflow logic
- +Extensive operator and provider ecosystem for data and infrastructure
- +Robust scheduling with dependency checks and retry controls
- +Web UI provides actionable visibility into runs, tasks, and logs
- –Operational tuning is required for workers, scheduler performance, and queues
- –Large DAG collections can stress the scheduler and parsing workflows
- –State management and backfills add complexity for frequent pipeline changes
- –Debugging distributed execution issues often requires deeper platform knowledge
Best for: Data engineering teams needing scheduled DAG orchestration with strong extensibility
Prefect
workflow orchestrationA Python-first orchestration platform that schedules and executes data workflows with retries, caching, and observability.
Prefect’s stateful orchestration with retries and rich run-state tracking per task
Prefect stands out with an orchestration model built around Python-first workflows and a task-centric execution graph. It supports durable task runs, retries, schedules, and state management using an orchestration engine plus optional server. Observability is built in through run history, logs, and a UI that tracks workflow state changes across deployments.
- +Python-native workflows with explicit task graph orchestration
- +Rich scheduling, retries, and state transitions for reliable executions
- +First-class observability with run history, logs, and UI tracking
- –Production setup and operational model add complexity for small teams
- –Advanced concurrency and scaling require careful configuration
- –Some DAG restructuring is needed when migrating from simpler schedulers
Best for: Teams needing Python workflow orchestration with strong retries and visibility
More related reading
OpenSearch
search analyticsA search and analytics engine that supports indexed aggregations and query workloads over operational and analytics data.
Distributed aggregations over indexed documents using the query DSL
OpenSearch stands out as a search and analytics engine built from the Elasticsearch ecosystem, with distributed indexing and query execution at its core. It provides robust capabilities for full-text search, aggregation-based analytics, and near real-time ingestion through its document-oriented data model.
It also supports security features like role-based access control, audit logging, and encrypted transport for running clustered workloads. As a backend system, it fits applications that need scalable search, log analytics, and telemetry-style query patterns.
- +Distributed indexing and querying scale horizontally with shard-based distribution
- +Rich aggregation framework enables analytics beyond search ranking
- +Document model supports flexible schemas for logs and event data
- –Cluster tuning for shards, refresh, and memory needs ongoing operational care
- –Complex queries and mappings can become hard to maintain at scale
- –Downtime prevention and migration planning add backend implementation overhead
Best for: Teams building search and log analytics backends on distributed clusters
ClickHouse
columnar OLAPA columnar OLAP database optimized for high-throughput analytics queries and fast aggregations over large datasets.
Materialized Views for automatic incremental aggregation during data ingestion.
ClickHouse distinguishes itself with a columnar OLAP engine designed for extremely fast analytical queries on large datasets. It supports SQL over replicated storage, real-time ingestion, and high-concurrency workloads using features like materialized views and join optimizations.
Strong performance depends on schema choices such as partitioning and data skipping indexes. Operational complexity rises when scaling clusters, managing distributed consistency, and tuning memory and merge behavior.
- +Columnar storage and vectorized execution deliver fast OLAP analytics at scale.
- +Materialized views enable near real-time rollups without external ETL complexity.
- +Replication and sharding support resilient distributed deployments.
- +Compression and data skipping indexes reduce IO for selective queries.
- –Schema and partition design strongly influence performance outcomes.
- –Distributed query tuning can be complex for multi-node environments.
- –Resource sizing for memory, merges, and background tasks needs active management.
Best for: Analytics backends for large datasets with real-time ingestion and heavy aggregation.
Conclusion
After evaluating 10 data science analytics, Apache Kafka stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
How to Choose the Right Backend Software
This buyer's guide covers Apache Kafka, Apache Flink, Apache Spark, Dremio, Trino, dbt Core, Airflow, Prefect, OpenSearch, and ClickHouse. Each tool is mapped to integration depth, data model fit, automation and API surface, and admin governance controls.
The selection also includes comparative picks for Kafka, Flink, and Spark so teams can move from event streaming to stateful processing to general distributed computation. The guide focuses on concrete mechanisms like topics and offsets, checkpointing and savepoints, connector semantics, reflections, incremental models, and RBAC with audit logging.
Backend software for integrating, processing, and governing data at execution time
Backend software provides runtime components that ingest, transform, query, and serve data with a defined data model and execution semantics. It also exposes integration points like APIs, connectors, and automation hooks so pipelines can provision work, enforce control, and recover deterministically after failures.
Apache Kafka targets durable log-based messaging with partitioned topics and consumer-group offset management. dbt Core targets SQL transformation provisioning by compiling models, tests, and lineage into executed jobs inside analytics workflows.
Evaluation criteria for integration depth, data model control, and automation surfaces
Integration depth is the ability to connect to real systems through connectors, SQL federation layers, ingestion pipelines, and programmatic interfaces. Apache Kafka pairs Kafka Connect with reusable ingestion and delivery connectors to standardize integration paths.
Automation and API surface determine how pipelines are provisioned and operated through code and control planes. Airflow provides REST APIs and a web UI for task logs and run visibility, while Prefect tracks workflow state changes per task with run history and logs.
Event log ordering and consumer offset governance
Apache Kafka uses partitioned topics with consumer groups and offset management so parallel consumers can replay from defined positions. This mechanism directly supports resilient pipelines where ingestion and downstream consumption evolve independently.
State consistency with checkpointing and savepoints
Apache Flink provides stateful operators with checkpointing and savepoints so recovery preserves correctness for tracked state. This controls execution outcomes for low-latency event-time analytics with exactly-once state consistency.
Exactly-once capable streaming through micro-batch checkpoints
Apache Spark Structured Streaming supports exactly-once capable processing via checkpoints so streaming jobs can recover without violating correctness constraints. This matters when streaming transformations must stay consistent across micro-batches.
Data model-level acceleration and governed semantics
Dremio implements a semantic layer with catalogs and spaces and accelerates repeated SQL patterns through Reflections. This supports consistent metrics across teams while also exposing REST APIs and lineage-aware orchestration for service-driven analytics.
Federated query execution with pushdown planning
Trino federates queries across warehouses and lakes and uses connector-based predicate and join pushdown to reduce scanned data. This fits interactive analytics where a single SQL layer must span heterogeneous backends.
Provisioned transformation workflows with lineage and incremental rebuild rules
dbt Core compiles SQL-first models into warehouse-native queries and run plans while tracking dependency graphs and lineage. Incremental models with merge or append strategies support efficient rebuilds with predictable semantics.
Admin governance features like RBAC and audit logging for operational search
OpenSearch includes security features like role-based access control and audit logging with encrypted transport for clustered workloads. This matters when backend search and telemetry analytics must enforce access boundaries and produce traceable change events.
Decision framework for selecting the right execution backend and control plane
Start with the execution contract that the system must guarantee, because Kafka, Flink, and Spark differ in how they represent time, state, and recovery. Apache Kafka optimizes for durable ordered messaging with consumer-group offset governance, Apache Flink optimizes for stateful event-time processing with checkpointed correctness, and Apache Spark optimizes for batch and streaming with Structured Streaming checkpoints.
Then validate integration and governance mechanics by mapping connectors, APIs, and admin controls to the way pipelines must be provisioned and monitored. Airflow and Prefect both provide orchestration and visibility, while Dremio, Trino, and dbt Core focus on query and transformation surfaces that must stay consistent across teams.
Match the runtime contract: log replay, stateful event-time, or unified batch-plus-stream
Choose Apache Kafka when durable log replay and consumer-group offset management are core requirements for decoupled producers and consumers. Choose Apache Flink when low-latency stateful processing needs event-time ordering with checkpointed exactly-once state consistency.
Verify checkpoint semantics against recovery needs
Require Apache Flink when recovery correctness must be maintained for stateful operators using checkpointing and savepoints. Use Apache Spark Structured Streaming when exactly-once capable processing is needed through checkpoints across micro-batches.
Confirm integration depth through connectors or federation layers
Use Apache Kafka plus Kafka Connect when ingestion and delivery must reuse connector implementations across many sources and sinks. Use Trino for federated SQL across warehouses and lakes when predicate and join pushdown must reduce data movement.
Assess data model control for query consistency and acceleration
Use Dremio when governed datasets require a semantic layer with catalogs and spaces and repeated query acceleration through Reflections. Use dbt Core when transformation logic needs code-driven governance with lineage and incremental rebuild rules via merge or append strategies.
Select the automation surface that fits the operations model
Choose Airflow when teams need DAG-based scheduling with dependency tracking, retries, and backfills and want REST APIs plus a web UI for run and task visibility. Choose Prefect when workflow observability needs state transitions with run history and task-level logs.
Gate production use with admin and governance controls
Select OpenSearch when role-based access control and audit logging are required for distributed search and analytics workloads. Validate that cluster tuning responsibilities align with internal operations capacity for OpenSearch and ClickHouse, because both require ongoing shard and schema or partition tuning.
Backend software fits different execution and governance needs across pipeline lifecycles
Backend software tools cluster into distinct roles like event streaming, stateful stream processing, unified data processing, governed query serving, federated analytics, SQL transformation provisioning, and workflow orchestration. The best match depends on the control plane and runtime semantics that the team must guarantee.
Kafka, Flink, and Spark should be evaluated as execution choices rather than interchangeable compute engines, because their state, time, and recovery mechanisms differ. Governance and observability requirements then narrow the selection among Dremio, Trino, dbt Core, Airflow, Prefect, OpenSearch, and ClickHouse.
Event streaming and replayable ingestion backbones
Apache Kafka is the fit for teams building resilient event-driven platforms that need partitioned topics and consumer-group offset management for parallel consumption and replay. Kafka Connect supports scalable ingestion so integration breadth stays consistent as sources and sinks expand.
Low-latency, stateful, event-time analytics with correctness recovery
Apache Flink fits teams building low-latency fraud detection or event-time analytics where watermarks handle out-of-order events. Checkpointing and savepoints support exactly-once state consistency so recovery preserves correctness for tracked state.
Unified pipelines that run batch, SQL transforms, and streaming micro-batches
Apache Spark fits analytics and data engineering teams running distributed pipelines that need a single engine for SQL, structured streaming, and ML workloads. Structured Streaming relies on exactly-once capable processing via checkpoints to keep streaming transformations consistent across micro-batches.
Governed SQL access and consistent metrics over lakes and warehouses
Dremio fits backend teams modernizing analytics over data lakes when a semantic layer with catalogs and spaces must keep metric definitions consistent. Reflections accelerate repeated SQL queries and REST APIs support service-driven analytics integration.
Search and telemetry backends with access control and auditability
OpenSearch fits application backends that need scalable search plus aggregation-based analytics over operational and analytics data. Role-based access control and audit logging with encrypted transport support governance for clustered workloads.
Pitfalls that break integration depth, data model control, and operational governance
Backend failures usually trace back to mismatched execution semantics, under-specified data models, or governance features that were not validated early. These mistakes show up across Kafka, Flink, Spark, Dremio, Trino, dbt Core, Airflow, Prefect, OpenSearch, and ClickHouse.
Several issues are predictable because each tool shifts operational responsibility to specific configuration areas like partitioning, checkpoint tuning, reflection storage, connector behavior, shard strategies, and schema partitioning.
Designing Kafka topics without a partition, replication, and retention plan
Skip topic partitioning and replication design and Kafka operational risk increases because ordered replay depends on the durability boundaries defined by retention and replication. Kafka also requires tuning to avoid data risk and broker complexity, so plan these parameters before production traffic.
Ignoring Flink event-time and watermark configuration
Misconfigured timestamps and watermark strategies cause incorrect event-time behavior in Apache Flink because late and out-of-order events are handled by event-time logic. Checkpointing and savepoints then preserve correctness only when time semantics are configured to match the data stream.
Overextending Spark without managing shuffle and memory behavior
Assume default partitioning and memory sizing will handle wide transformations in Apache Spark and performance tuning becomes complex because wide transformations increase network and disk spill. Structured Streaming correctness also depends on job design and checkpointing choices, so validate checkpoint strategy with the intended micro-batch pattern.
Treating federated SQL like a single warehouse without connector pushdown validation
Use Trino across heterogeneous sources and skip connector-based predicate, projection, and join pushdown testing, and scanned data can balloon. Trino connector and schema quirks can also produce inconsistent performance, so validate pushdown behavior for each connector pair.
Skipping governance and audit checks for search and telemetry clusters
Run OpenSearch without enforcing role-based access control and audit logging and access changes become hard to trace across the cluster. Complex query mappings and ongoing cluster tuning also increase maintenance overhead, so governance should be validated alongside shard and refresh behavior.
How We Selected and Ranked These Tools
We evaluated Apache Kafka, Apache Flink, Apache Spark, Dremio, Trino, dbt Core, Airflow, Prefect, OpenSearch, and ClickHouse using the provided feature coverage, ease-of-use scores, and value scores. We then produced the overall ranking as a weighted average in which features carries the most weight at forty percent, while ease of use and value each contribute thirty percent. This criteria-based scoring prioritizes integration breadth and control depth, and it stays inside the mechanisms described for connectors, APIs, state recovery, and governance controls.
Apache Kafka separated from lower-ranked tools mainly because its durable distributed commit log plus partitioned topics with consumer-group offset management directly increases replayability and independent consumption, which lifted the features factor the most. That same capability also improves operational control around backpressure via consumer lag and retention-based replay windows, which aligns with the features-heavy weighting.
Frequently Asked Questions About Backend Software
How do Kafka, Flink, and Spark differ for event-time and exactly-once behavior?
Which tool is better for replayable event routing across systems: Kafka or OpenSearch?
What integration patterns exist for backend SQL access across multiple sources in Trino and Dremio?
How do Airflow and Prefect handle orchestration, retries, and execution state?
How do dbt Core and Dremio coordinate when the same team needs governed metrics and repeatable transformations?
What admin controls and audit visibility are available in OpenSearch compared with Kafka or Flink?
When should a backend team choose ClickHouse over Spark for analytics workloads?
How do schema and data model choices impact throughput in Kafka versus ClickHouse versus OpenSearch?
What is a common extensibility path for ingestion and orchestration across tools like Kafka Connect and Airflow?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
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