diff --git a/capabilities/ai-red-teaming/agents/ai-red-teaming-agent.md b/capabilities/ai-red-teaming/agents/ai-red-teaming-agent.md
index 167dd0e..eb1ea37 100644
--- a/capabilities/ai-red-teaming/agents/ai-red-teaming-agent.md
+++ b/capabilities/ai-red-teaming/agents/ai-red-teaming-agent.md
@@ -157,7 +157,7 @@ The AI Red Teaming capability provides these tools:
 - **generate_attack** — Generate + auto-execute an attack workflow (single, campaign, or transform study)
 - **generate_category_attack** — Generate + auto-execute a category-based assessment from bundled goals
 - **generate_agentic_attack** — Generate + auto-execute a single attack against an HTTP agent API
-- **generate_multistep_tool_attack** — Generate + auto-execute an algorithmic multi-step tool-attack search against an HTTP agent: finds replay-stable read-then-exfiltrate causal paths (agent reads an untrusted source, then a privileged outbound action carries its contents). Adapts the Kaggle AI Agent Security - Multi-Step Tool Attacks techniques (replay-stable candidates, shared-prefix branching, two-probe recovery, split/multi-post exfil). Pass `agent_url` (+ optional `secret_source` / `sink_url` / `sink_email` / `time_budget_s`)
+- **generate_multistep_tool_attack** — Generate + auto-execute an algorithmic multi-step tool-attack search against an HTTP agent: finds replay-stable read-then-exfiltrate causal paths (agent reads an untrusted source, then a privileged outbound action carries its contents). Black-box techniques: replay-stable candidates, shared-prefix branching, calibrated two-probe recovery, split/multi-post exfil. Pass `agent_url` (+ optional `secret_source` / `sink_url` / `sink_email` / `time_budget_s`)
 - **generate_agentic_suite_attack** — Generate + auto-execute the FULL agentic suite against an HTTP agent API: every OWASP-ASI category, auto-selecting the mapped attacks + family transforms (MCP, multi-agent, reasoning, exfiltration, …) + detection scorers. The "run all possible attacks on my agent" path — no need to name individual attacks; omit `categories` for everything.
 - **generate_agentvigil_attack** — Generate + auto-execute an AgentVigil MCTS indirect-injection search against an HTTP agent: plants injection payloads in the agent's input across a set of benign tasks and searches (UCB1 selection, reward = ASR + coverage, five LLM mutation operators) for a payload that reliably fires the `instructed_tool`. Evidence-gated on the tool actually firing. Our implementation of arXiv:2505.05849. Pass `agent_url` + `instructed_tool` (+ optional `tasks`/`seed_payload`/`n_iterations`).
 - **generate_eva_attack** — Generate + auto-execute an EVA evolving environmental-injection search against a GUI/computer-use agent: seeds a pop-up/overlay and evolves it (Trust/Urgency, k_max iters) with a two-stage action-region + LLM intent evaluator. Our implementation of arXiv:2505.14289. Pass `agent_url` + `instructed_tool`.
diff --git a/capabilities/ai-red-teaming/capability.yaml b/capabilities/ai-red-teaming/capability.yaml
index 14404c5..7417833 100644
--- a/capabilities/ai-red-teaming/capability.yaml
+++ b/capabilities/ai-red-teaming/capability.yaml
@@ -1,6 +1,6 @@
 schema: 1
 name: ai-red-teaming
-version: "1.17.5"
+version: "1.17.6"
 description: >
   Probe the security and safety of AI applications, agents, and foundation models.
   Orchestrates adversarial attack workflows to discover vulnerabilities in LLMs,
diff --git a/capabilities/ai-red-teaming/scripts/attack_runner.py b/capabilities/ai-red-teaming/scripts/attack_runner.py
index 5b51028..56fb76a 100644
--- a/capabilities/ai-red-teaming/scripts/attack_runner.py
+++ b/capabilities/ai-red-teaming/scripts/attack_runner.py
@@ -5072,17 +5072,14 @@ def _generate_atlas_single(config: dict, agent_config: dict) -> str:
 def generate_multistep_tool_attack(params: dict) -> dict:
     """Generate a multi-step tool-attack search against an HTTP agent.
 
-    Our own implementation of the algorithmic multi-step tool-attack techniques
-    surfaced by the Kaggle 'AI Agent Security - Multi-Step Tool Attacks'
-    competition (Kaggle x OpenAI x Google x IEEE, 2026), generalized to any
-    HTTP agent. We reimplement the algorithms (not the competition code) so we
-    control the trace format and success predicate:
-      - Replay-stable candidates (Pilkwang Kim, 'Replay-Dense Exfiltration')
-      - Shared-prefix / snapshot branching (competition starter; Trajectory Search)
-      - Budget-aware N_eff sizing (Pilkwang Kim, replay-budget model)
-      - Two-probe recovery (tetsu2131)
-      - Split / multi-post exfiltration (Nguyen Cong Tuan, 'JED multipost')
-    https://www.kaggle.com/competitions/ai-agent-security-multi-step-tool-attacks
+    A black-box multi-step tool-attack search, generalized to any HTTP agent. We
+    own the trace format and success predicate:
+      - Replay-stable candidates
+      - Shared-prefix / snapshot branching (trajectory search)
+      - Budget-aware N_eff sizing (replay-budget model)
+      - Calibrated two-probe recovery
+      - Split / multi-post exfiltration
+    For a white-box target you own, swap in a gradient-guided proposer (GCG / HotFlip).
 
     Requires: agent_url. Optional: secret_source, sink_url, sink_email,
     time_budget_s, attacker_model, assessment_name.
@@ -5140,10 +5137,8 @@ def generate_multistep_tool_attack(params: dict) -> dict:
 class MultiStepToolAttack:
     """Budgeted search for a replay-stable read-then-exfiltrate causal path.
 
-    Attribution (our own implementation): Kaggle AI Agent Security - Multi-Step
-    Tool Attacks (Kaggle x OpenAI x Google x IEEE, 2026). Replay-stable
-    candidates + trajectory/shared-prefix search (Pilkwang Kim); two-probe
-    recovery (tetsu2131); split/multi-post exfiltration (JED / Nguyen Cong Tuan).
+    Black-box: replay-stable candidates + trajectory / shared-prefix search, a
+    calibrated two-probe recovery step, and split / multi-post exfiltration.
     """
 
     def __init__(self, target, secret_source, sink_url, sink_email, time_budget_s=120.0):
diff --git a/capabilities/ai-red-teaming/tools/attacks.py b/capabilities/ai-red-teaming/tools/attacks.py
index 5bd2ab0..b1a670b 100644
--- a/capabilities/ai-red-teaming/tools/attacks.py
+++ b/capabilities/ai-red-teaming/tools/attacks.py
@@ -21,6 +21,7 @@
 # loaded as flat modules (no parent package), so relative imports do not work.
 import importlib.util as _ilu
 from pathlib import Path as _Path
+
 _errors_path = _Path(__file__).resolve().parent / "_errors.py"
 _spec = _ilu.spec_from_file_location("airt_tools_errors", _errors_path)
 _errors_mod = _ilu.module_from_spec(_spec)
@@ -316,12 +317,10 @@ def generate_multistep_tool_attack(
     path (the agent reads an untrusted source, then performs a privileged
     outbound action carrying its contents), verified by a trace predicate.
 
-    Our own implementation of the algorithmic techniques from the Kaggle
-    'AI Agent Security - Multi-Step Tool Attacks' competition (Kaggle x OpenAI x
-    Google x IEEE, 2026): replay-stable candidates + trajectory/shared-prefix
-    search (Pilkwang Kim), two-probe recovery (tetsu2131), and split/multi-post
-    exfiltration (JED / Nguyen Cong Tuan). Generalized to any agent/tools.
-    https://www.kaggle.com/competitions/ai-agent-security-multi-step-tool-attacks
+    Algorithmic techniques: replay-stable candidates, trajectory / shared-prefix
+    search, a calibrated two-probe recovery step, and split / multi-post
+    exfiltration. Black-box and generalized to any agent/tools; for a white-box
+    target, swap in a gradient-guided proposer (GCG / HotFlip).
     """
     params: dict[str, t.Any] = {
         "agent_url": agent_url,
@@ -341,9 +340,7 @@ def generate_multistep_tool_attack(
 def generate_agentvigil_attack(
     agent_url: t.Annotated[str, "HTTP endpoint of the tool-using agent to red-team"],
     instructed_tool: t.Annotated[str, "Tool whose firing counts as injection success"] = "send_email",
-    tasks: t.Annotated[
-        list[str] | None, "Benign tasks to compute ASR over; payload is planted in each"
-    ] = None,
+    tasks: t.Annotated[list[str] | None, "Benign tasks to compute ASR over; payload is planted in each"] = None,
     seed_payload: t.Annotated[str, "Initial injection payload (MCTS root)"] = "",
     attacker_model: t.Annotated[str, "LLM that mutates payloads (five operators)"] = "dn/claude-opus-4-8",
     n_iterations: t.Annotated[int, "MCTS rollouts"] = 30,
@@ -621,15 +618,9 @@ def generate_extraction_attack(
     ] = "knockoff",
     api_url: t.Annotated[str, "Target classifier predict endpoint (POST)."] = "",
     api_key: t.Annotated[str, "API key for the x-api-key header (optional)."] = "",
-    pool_url: t.Annotated[
-        str, "GET endpoint returning {inputs: [...]} — the unlabeled query pool."
-    ] = "",
-    query_pool: t.Annotated[
-        list | None, "Inline query pool (used if pool_url is not given)."
-    ] = None,
-    request_template: t.Annotated[
-        str, "Request body with a single {input} placeholder."
-    ] = '{"features": {input}}',
+    pool_url: t.Annotated[str, "GET endpoint returning {inputs: [...]} — the unlabeled query pool."] = "",
+    query_pool: t.Annotated[list | None, "Inline query pool (used if pool_url is not given)."] = None,
+    request_template: t.Annotated[str, "Request body with a single {input} placeholder."] = '{"features": {input}}',
     probabilities_path: t.Annotated[str, "JSONPath to the probability vector."] = "$.probabilities",
     input_format: t.Annotated[str, "json_array | image_b64 | text."] = "json_array",
     num_classes: t.Annotated[int, "Number of classes."] = 2,
@@ -682,15 +673,11 @@ def generate_membership_attack(
     ] = "threshold",
     api_url: t.Annotated[str, "Target classifier predict endpoint (POST)."] = "",
     api_key: t.Annotated[str, "API key for the x-api-key header (optional)."] = "",
-    members_url: t.Annotated[
-        str, "GET endpoint returning {records: [...], labels: [...]} for training members."
-    ] = "",
+    members_url: t.Annotated[str, "GET endpoint returning {records: [...], labels: [...]} for training members."] = "",
     nonmembers_url: t.Annotated[str, "GET endpoint for held-out non-members."] = "",
     members: t.Annotated[list | None, "Inline member records (if no members_url)."] = None,
     nonmembers: t.Annotated[list | None, "Inline non-member records (if no nonmembers_url)."] = None,
-    request_template: t.Annotated[
-        str, "Request body with a single {input} placeholder."
-    ] = '{"features": {input}}',
+    request_template: t.Annotated[str, "Request body with a single {input} placeholder."] = '{"features": {input}}',
     probabilities_path: t.Annotated[str, "JSONPath to the probability vector."] = "$.probabilities",
     input_format: t.Annotated[str, "json_array | image_b64 | text."] = "json_array",
     num_classes: t.Annotated[int, "Number of classes."] = 2,
@@ -731,25 +718,17 @@ def generate_membership_attack(
 
 @safe_tool
 def generate_inversion_attack(
-    attack_type: t.Annotated[
-        str, "Model-inversion attack: confidence (MI-Face hill-climb) or nes."
-    ] = "confidence",
+    attack_type: t.Annotated[str, "Model-inversion attack: confidence (MI-Face hill-climb) or nes."] = "confidence",
     api_url: t.Annotated[str, "Target classifier predict endpoint (POST)."] = "",
     api_key: t.Annotated[str, "API key for the x-api-key header (optional)."] = "",
     num_classes: t.Annotated[int, "Number of classes."] = 2,
-    input_dim: t.Annotated[
-        int, "Feature-vector length (tabular). Inferred from the target's /pool if omitted."
-    ] = 0,
+    input_dim: t.Annotated[int, "Feature-vector length (tabular). Inferred from the target's /pool if omitted."] = 0,
     input_shape: t.Annotated[
         str, "Image shape as 'H,W' (e.g. '8,8'). Inferred from /pool when square, if omitted."
     ] = "",
-    target_classes: t.Annotated[
-        list | None, "Classes to reconstruct (default: all classes)."
-    ] = None,
+    target_classes: t.Annotated[list | None, "Classes to reconstruct (default: all classes)."] = None,
     max_queries: t.Annotated[int, "Max target queries."] = 1500,
-    request_template: t.Annotated[
-        str, "Request body with a single {input} placeholder."
-    ] = '{"features": {input}}',
+    request_template: t.Annotated[str, "Request body with a single {input} placeholder."] = '{"features": {input}}',
     probabilities_path: t.Annotated[str, "JSONPath to the probability vector."] = "$.probabilities",
     input_format: t.Annotated[str, "json_array | image_b64 | text."] = "json_array",
     modality: t.Annotated[str, "tabular | image | text."] = "tabular",
@@ -794,15 +773,9 @@ def generate_evasion_attack(
     ] = "boundary",
     api_url: t.Annotated[str, "Target classifier predict endpoint (POST)."] = "",
     api_key: t.Annotated[str, "API key for the x-api-key header (optional)."] = "",
-    sample_url: t.Annotated[
-        str, "GET endpoint returning {inputs: [...]} - the first input is perturbed."
-    ] = "",
-    original: t.Annotated[
-        object, "Inline original input to perturb (if no sample_url)."
-    ] = None,
-    request_template: t.Annotated[
-        str, "Request body with a single {input} placeholder."
-    ] = '{"features": {input}}',
+    sample_url: t.Annotated[str, "GET endpoint returning {inputs: [...]} - the first input is perturbed."] = "",
+    original: t.Annotated[object, "Inline original input to perturb (if no sample_url)."] = None,
+    request_template: t.Annotated[str, "Request body with a single {input} placeholder."] = '{"features": {input}}',
     probabilities_path: t.Annotated[str, "JSONPath to the probability vector."] = "$.probabilities",
     input_format: t.Annotated[str, "json_array | image_b64 | text."] = "json_array",
     num_classes: t.Annotated[int, "Number of classes."] = 2,
@@ -933,9 +906,7 @@ def generate_multimodal_attack(
     custom_region: t.Annotated[
         str, "AWS region for a streaming (Nova Sonic) or aws_sigv4 target (default us-east-1)."
     ] = "",
-    custom_service: t.Annotated[
-        str, "AWS service for an aws_sigv4 HTTP target (default 'sagemaker')."
-    ] = "",
+    custom_service: t.Annotated[str, "AWS service for an aws_sigv4 HTTP target (default 'sagemaker')."] = "",
     custom_request_format: t.Annotated[
         str,
         "Request body encoding for custom_url: 'json' (default, renders the request "
@@ -947,9 +918,7 @@ def generate_multimodal_attack(
     ] = "",
     custom_voice: t.Annotated[str, "Voice id for a Nova Sonic streaming target (default matthew)."] = "",
     custom_system_prompt: t.Annotated[str, "System prompt for a streaming S2S target."] = "",
-    custom_model_id: t.Annotated[
-        str, "Model id for a streaming target (default amazon.nova-sonic-v1:0)."
-    ] = "",
+    custom_model_id: t.Annotated[str, "Model id for a streaming target (default amazon.nova-sonic-v1:0)."] = "",
     score_media_output: t.Annotated[
         bool,
         "Score the target's GENERATED media (image-out / speech-to-speech), not just its "
@@ -1139,8 +1108,7 @@ def generate_multimodal_category_attack(
 def build_media_manifest(
     directory: t.Annotated[
         str,
-        "Directory of media files to inventory (recursively). Use this for "
-        '"the images in ./imgs" style requests.',
+        "Directory of media files to inventory (recursively). Use this for " '"the images in ./imgs" style requests.',
     ] = "",
     paths: t.Annotated[
         list[str] | None,
@@ -1196,12 +1164,8 @@ def generate_injection_images(
         "Path to a CSV whose first column is the attack text (one image per row). "
         "Use when the user hands you a CSV of prompts to render as images.",
     ] = "",
-    output_dir: t.Annotated[
-        str, "Directory to write the images into (default ./injection_images)."
-    ] = "",
-    base_image: t.Annotated[
-        str, "Optional base image path to overlay the text onto (else a plain canvas)."
-    ] = "",
+    output_dir: t.Annotated[str, "Directory to write the images into (default ./injection_images)."] = "",
+    base_image: t.Annotated[str, "Optional base image path to overlay the text onto (else a plain canvas)."] = "",
     font_size: t.Annotated[int, "Font size for the rendered text (default 40)."] = 40,
 ) -> str:
     """Render attack text into typographic/visual prompt-injection IMAGES.