You signed in with another tab or window. Reload to refresh your session.You signed out in another tab or window. Reload to refresh your session.You switched accounts on another tab or window. Reload to refresh your session.Dismiss alert
Copy file name to clipboardExpand all lines: draft-agntcy-ads.md
+87-1Lines changed: 87 additions & 1 deletion
Display the source diff
Display the rich diff
Original file line number
Diff line number
Diff line change
@@ -287,10 +287,93 @@ Multi-Agent System components through a distributed hash table {{DHT}}
287
287
architecture. This approach separates capability-based discovery from content
288
288
location, providing both scalability and flexibility in agent retrieval.
289
289
290
+
## Skill Taxonomy
291
+
292
+
Effective agent discovery in multi-agent systems requires sophisticated
293
+
organization of capabilities and skills. ADS employs a hierarchical skill
294
+
taxonomy that serves as the foundation for efficient search and discovery
295
+
operations across the distributed network.
296
+
297
+
### The Challenge of Capability Search
298
+
299
+
Traditional keyword-based search approaches face significant limitations when applied to agent discovery:
300
+
301
+
**Vocabulary Fragmentation**: Different publishers may describe similar capabilities using varying terminology. For example, "sentiment analysis," "opinion mining," and "emotional classification" may all refer to similar agent capabilities, leading to search results that miss relevant agents due to terminology mismatches.
302
+
303
+
**Scale Complexity**: As the number of agents in the ecosystem grows, exhaustive
304
+
search across all records becomes computationally prohibitive. Without
305
+
structured organization, every query potentially requires examining every agent
306
+
record, leading to poor performance characteristics.
307
+
308
+
**Semantic Relationships**: Many agent capabilities have natural hierarchical
309
+
relationships that flat keyword systems cannot capture. An agent capable of
310
+
"named entity recognition"is inherently relevant to searches for broader "text
311
+
analysis" capabilities, but keyword matching alone cannot establish these
312
+
connections.
313
+
314
+
### Taxonomy-Driven Search Optimization
315
+
316
+
ADS addresses these challenges through a structured hierarchical taxonomy that provides several critical optimization benefits:
317
+
318
+
**Search Space Partitioning**: The taxonomy enables efficient partitioning of
319
+
the search space. When processing a query for "computer vision" capabilities,
320
+
the system can immediately focus on the relevant taxonomy branch, eliminating
321
+
the need to examine agents in unrelated categories like natural language
322
+
processing or mathematical reasoning.
323
+
324
+
**Index Structure Optimization**: The hierarchical organization allows the
325
+
distributed hash table to create specialized indices for different taxonomy
326
+
branches. Rather than maintaining a single massive index, the DHT can
327
+
distribute indexing responsibility across nodes, with each node specializing in
328
+
specific capability domains.
329
+
330
+
**Query Semantic Expansion**: The taxonomy enables intelligent query expansion
331
+
where searches automatically include semantically related subcategories. A
332
+
search for "text analysis" can transparently include results from "sentiment
333
+
analysis," "entity extraction," and "text classification" without requiring
334
+
users to explicitly enumerate all relevant subcategories.
335
+
336
+
**Standardized Vocabulary**: By providing a canonical taxonomy, ADS reduces
337
+
terminology fragmentation. Publishers are encouraged to tag their agents using
338
+
standardized skill categories, improving search precision and recall across the
339
+
ecosystem.
340
+
290
341
## Two-Level Mapping Architecture
291
342
292
343
The discovery system operates through two distinct mapping layers:
293
344
345
+
## Skill Taxonomy for Search Optimization
346
+
347
+
ADS employs a hierarchical skill taxonomy to optimize search performance and enable efficient capability-based discovery. Taxonomies provide several critical advantages for agent discovery systems:
348
+
349
+
**Search Space Reduction**: Rather than performing exhaustive searches across all agent records, taxonomies allow the system to quickly narrow the search space to relevant categories. When a user queries for "natural language processing" capabilities, the system can immediately identify the subset of agents tagged with NLP skills without examining agents focused on computer vision or mathematical reasoning.
350
+
351
+
**Hierarchical Organization**: Skills are organized in a tree-like structure that reflects natural relationships between capabilities. For example:
352
+
353
+
~~~
354
+
Natural Language Processing
355
+
├── Text Analysis
356
+
│ ├── Sentiment Analysis
357
+
│ ├── Named Entity Recognition
358
+
│ └── Text Classification
359
+
├── Language Generation
360
+
│ ├── Text Summarization
361
+
│ ├── Content Creation
362
+
│ └── Translation
363
+
└── Conversational AI
364
+
├── Dialogue Management
365
+
├── Intent Recognition
366
+
└── Response Generation
367
+
~~~
368
+
369
+
This hierarchy enables both specific queries ("sentiment analysis agents") and broader capability searches ("all natural language processing agents") while maintaining efficient indexing structures.
370
+
371
+
**Query Expansion and Refinement**: Taxonomies support automatic query expansion where searches for parent categories can include relevant child categories. A query for "text analysis" can automatically include agents tagged with "sentiment analysis," "named entity recognition," and "text classification" without requiring users to know all specific subcategories.
372
+
373
+
**Semantic Consistency**: Standardized taxonomies reduce ambiguity and improve search precision by providing consistent terminology across the ecosystem. This prevents fragmentation where similar capabilities are described using different terms by different publishers.
374
+
375
+
**Scalable Indexing**: The hierarchical structure enables efficient distributed indexing where different DHT nodes can specialize in specific taxonomy branches, distributing both storage load and query processing across the network.
376
+
294
377
### Skills-to-CID Mapping
295
378
296
379
The first level maps agent capabilities and skills to their corresponding
@@ -368,9 +451,12 @@ When agents are published to the network:
368
451
369
452
1. **Capability Extraction**: The system parses OASF records to extract skills,
370
453
domains, and capabilities
454
+
371
455
2. **DHT Updates**: Skills-to-CID mappings are distributed across DHT nodes
372
456
using consistent hashing
373
-
3. **Location Registration**: Peer nodes register themselves as providers for specific CIDs
457
+
458
+
3. **Location Registration**: Peer nodes register themselves as providers for
0 commit comments