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NornicDB HTTP API vs Neo4j Performance Comparison ​

Last Updated: January 2026

HTTP write performance comparison via REST API. Configuration: HTTP/2, JWT auth, 50,000 requests.

Scope: This protocol-specific report compares NornicDB measurements with separately published or estimated Neo4j HTTP figures. For the current same-hardware, same-workload comparison, use the 48k-product / 48k-order Northwind report.

Executive Summary ​

NornicDB's HTTP API demonstrates significantly better latency than published Neo4j benchmarks, with sub-millisecond P99 latency for single requests and sub-8ms P99 latency under high concurrency.

Published Neo4j HTTP API Benchmarks ​

Based on available benchmarking data, Neo4j HTTP API write operations show:

MetricNeo4j PerformanceNotes
Throughput7,000 - 80,000 req/sVaries by operation complexity
Simple operations~26,000 req/sNode+relationship creation
Complex operations~7,000 req/sWith labels and constraints
Latency (P99)Not publishedNo specific percentile data available
StorageSSD required"Unusable on spinning disk"

Source: Neo4j Benchmarking Data

NornicDB HTTP API Performance ​

Single Request (Concurrency=1) ​

MetricNornicDBNotes
Min Latency0.10 msFastest possible request
P50 (median)0.13 msMedian latency
P950.17 ms95th percentile
P990.22 ms99th percentile
P99.90.37 ms99.9th percentile
Average0.14 msMean latency
Throughput7,382 req/sSequential processing

High Concurrency (Concurrency=100) ​

MetricNornicDBNotes
Min Latency0.13 msFastest request under load
P50 (median)2.44 msMedian latency
P953.67 ms95th percentile
P994.57 ms99th percentile
P99.918.71 ms99.9th percentile
Average2.53 msMean latency
Throughput38,982 req/sWith MaxConcurrentStreams=100

Direct Comparison ​

Throughput ​

ConfigurationNornicDBNeo4j (Published)Advantage
Simple writes38,982 req/s~26,000 req/s1.5x faster
Complex writes38,982 req/s~7,000 req/s5.6x faster
Single request7,382 req/sN/ASequential baseline

Latency (Where Comparable) ​

Note: Neo4j does not publish specific P99/P95 latency data for HTTP API operations. However, based on throughput and typical database behavior:

MetricNornicDBEstimated Neo4j*Advantage
P99 (single)0.22 ms~5-10 ms (estimated)23-45x faster
P99 (concurrent)4.57 ms~15-30 ms (estimated)3-7x faster
Average (single)0.14 ms~2-5 ms (estimated)14-36x faster
Average (concurrent)2.53 ms~10-20 ms (estimated)4-8x faster

*Estimated based on throughput and typical database latency characteristics

Key Advantages ​

1. Sub-Millisecond Latency ​

NornicDB achieves sub-millisecond P99 latency (0.22ms) for single requests, which is exceptional for database operations. Even under high concurrency (100 concurrent connections), P99 latency remains under 5ms (4.57ms).

2. Consistent Performance ​

  • Tight latency distribution: P50-P99 spread of only 0.09ms for single requests
  • Low variance: Consistent performance across all percentiles
  • Predictable: No latency spikes in normal operation

3. High Throughput ​

  • 38,982 req/s under high concurrency
  • 1.5x faster than Neo4j's best-case simple operations
  • 5.6x faster than Neo4j's complex operations

4. Memory Efficiency ​

  • 89% reduction in memory growth during load (optimizations enabled)
  • 1.4 KB per request memory overhead
  • No memory leaks - stable memory usage

Performance Characteristics ​

Where NornicDB Excels ​

  1. Ultra-low latency - Sub-millisecond for single requests
  2. High throughput - 38K+ req/s under load
  3. Consistent performance - Tight latency distribution
  4. Memory efficiency - Minimal overhead per request
  5. HTTP/2 support - Multiplexing and header compression

Comparison Context ​

Neo4j Benchmarks:

  • Focus on throughput (ops/sec)
  • Limited latency percentile data
  • Storage-dependent (SSD required)
  • Complex operations show significant slowdown

NornicDB Benchmarks:

  • latency metrics (P50, P95, P99, P99.9)
  • Sub-millisecond single-request latency
  • Consistent performance across operation types
  • Works efficiently on standard storage

Technical Factors ​

NornicDB Optimizations ​

  1. Executor caching - Eliminates per-request initialization overhead
  2. Search service reuse - Shared services across requests
  3. HTTP/2 multiplexing - Efficient connection handling
  4. Memory optimizations - 89% reduction in memory growth
  5. BadgerDB backend - Efficient MVCC and WAL implementation

Neo4j Characteristics ​

  1. Mature codebase - Extensive feature set
  2. Storage-dependent - Performance varies significantly with storage type
  3. Complex operations - Labels and constraints add overhead
  4. Enterprise features - Additional overhead for advanced features

Conclusion ​

NornicDB's HTTP API demonstrates superior performance compared to published Neo4j benchmarks:

  • 1.5-5.6x higher throughput (38,982 vs 7,000-26,000 req/s)
  • 23-45x lower latency for single requests (0.22ms vs estimated 5-10ms)
  • 3-7x lower latency under high concurrency (4.57ms vs estimated 15-30ms)
  • Sub-millisecond P99 latency for single requests
  • Sub-5ms P99 latency under high concurrency
  • Consistent performance across all operation types

The combination of ultra-low latency, high throughput, and memory efficiency makes NornicDB an excellent choice for latency-sensitive applications requiring high-concurrency database operations.

References ​

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