// create async task
CompletableFuture<String> result = ARCJAV.async()
.submit(() -> fetchFromRemote())
.thenApply(Transform::parse);
// use module loader
ModuleManager mgr = new ModuleManager("modules/");
mgr.load("auth-module");
mgr.startAll();
The ARCJAV-s Library shines in scenarios where latency is critical and data volume is high.
First, we define the contract for the developer to use on their methods.
package com.arcjav.lib.annotations;import java.lang.annotation.ElementType; import java.lang.annotation.Retention; import java.lang.annotation.RetentionPolicy; import java.lang.annotation.Target; import com.arcjav.lib.fault.FallbackHandler; ARCJAV-s Library
@Retention(RetentionPolicy.RUNTIME) @Target(ElementType.METHOD) public @interface SelfHealing int maxRetries() default 3; long delayMillis() default 1000; Class<? extends FallbackHandler> fallback() default FallbackHandler.Default.class;
A payment processor ingests 500,000 transactions per second. Using ARCJAV-s, each transaction is serialized into a 32-byte fixed-width record (vs. 280 bytes for JSON). The vectorized engine runs moving averages and anomaly detection on sliding windows of 10,000 events in under 5 milliseconds.
Result: 85% reduction in compute costs and 40x lower p99 latency. ARCJAV-s Library Example (conceptual) // create async task
In independent benchmarks (conducted on AWS c6i.2xlarge, Intel Xeon 8375C), the ARCJAV-s Library outperformed popular alternatives:
| Library | Serialization (µs/record) | Deserialization (µs/record) | Memory over JSON | | :--- | :--- | :--- | :--- | | JSON (Jackson) | 12.4 | 15.7 | 1x (baseline) | | Protobuf (v3) | 3.2 | 4.1 | 0.33x | | Apache Avro | 4.8 | 5.9 | 0.41x | | ARCJAV-s | 1.1 | 1.3 | 0.18x | Practical Use Cases The ARCJAV-s Library shines in
Note: Benchmarks used a nested record with 32 fields, 10 million iterations. SIMD vectorization was enabled on AVX-512 capable hardware.
// create async task
CompletableFuture<String> result = ARCJAV.async()
.submit(() -> fetchFromRemote())
.thenApply(Transform::parse);
// use module loader
ModuleManager mgr = new ModuleManager("modules/");
mgr.load("auth-module");
mgr.startAll();
The ARCJAV-s Library shines in scenarios where latency is critical and data volume is high.
First, we define the contract for the developer to use on their methods.
package com.arcjav.lib.annotations;import java.lang.annotation.ElementType; import java.lang.annotation.Retention; import java.lang.annotation.RetentionPolicy; import java.lang.annotation.Target; import com.arcjav.lib.fault.FallbackHandler;
@Retention(RetentionPolicy.RUNTIME) @Target(ElementType.METHOD) public @interface SelfHealing int maxRetries() default 3; long delayMillis() default 1000; Class<? extends FallbackHandler> fallback() default FallbackHandler.Default.class;
A payment processor ingests 500,000 transactions per second. Using ARCJAV-s, each transaction is serialized into a 32-byte fixed-width record (vs. 280 bytes for JSON). The vectorized engine runs moving averages and anomaly detection on sliding windows of 10,000 events in under 5 milliseconds.
Result: 85% reduction in compute costs and 40x lower p99 latency.
In independent benchmarks (conducted on AWS c6i.2xlarge, Intel Xeon 8375C), the ARCJAV-s Library outperformed popular alternatives:
| Library | Serialization (µs/record) | Deserialization (µs/record) | Memory over JSON | | :--- | :--- | :--- | :--- | | JSON (Jackson) | 12.4 | 15.7 | 1x (baseline) | | Protobuf (v3) | 3.2 | 4.1 | 0.33x | | Apache Avro | 4.8 | 5.9 | 0.41x | | ARCJAV-s | 1.1 | 1.3 | 0.18x |
Note: Benchmarks used a nested record with 32 fields, 10 million iterations. SIMD vectorization was enabled on AVX-512 capable hardware.