Intelligence-Led Cyber Risk Capabilities | Detection, Response, and Resilience

Contact Arete 911

EXPLORE

Contact Arete 911

EXPLORE

The Arete Intelligence Risk solutions portfolio helps organizations stay ahead of cyber threats with standardized, intelligence-led detection, response, resolution, and resilience capabilities.

Incident Response

Compliance & Sanctions Analysis

Data Breach Response

Managed Security Services

The Arete Intelligence Risk solutions portfolio helps organizations stay ahead of cyber threats with standardized, intelligence-led detection, response, resolution, and resilience capabilities.

Incident Response

Compliance & Sanctions Analysis

Data Breach Response

Managed Security Services

The Arete Intelligence Risk solutions portfolio helps organizations stay ahead of cyber threats with standardized, intelligence-led detection, response, resolution, and resilience capabilities.

Incident Response

Compliance & Sanctions Analysis

Data Breach Response

Managed Security Services

No Ransom Paid

70%

NO RANSOM PAID 70%

30%

RANSOM PAID 30%

Ransom Paid

In nearly 70% of extortion engagements, Arete remediates and restores systems without the need for a ransom payment.

When a ransom is paid, Arete’s expert Threat Actor Negotiations team reduces the amount by up to 82%.

For example, in engagements with a threat actor demanding an average of $775K, Arete reduced the average payment to $115k.

Average ransom demand per event

774,900

Up to 82% reduction with Arete

115,300

Arete restores business operations up to 4x faster, reducing the cost of business interruption.

Applied at a global scale, this could mean reducing business interruption costs from $1 trillion to $250 billion annually.

Annual business interruption cost

1,000,000,000,000

Up to 75% reduction with Arete

250,000,000,000

Results may vary

Without Arete

stakeholder collaboration can be challenging

With Arete

stakeholders align, driving faster, compliant, and defensible outcomes

Cyber Law

Financial Institutions

IR / MSSP

Government Agencies

Cloud Infrastructure

Cyber Insurance

Cyber Law

Financial Institutions

IR / MSSP

Government Agencies

Cloud Infrastructure

Cyber Insurance

Cyber Law

Financial Institutions

IR / MSSP

Government Agencies

Cloud Infrastructure

Cyber Insurance

Learn more about how Arete benefits these stakeholders.

Cyber Insurance

Cyber Law

Financial Institutions

IR Firms & MSSP

Government Agencies

Cloud Infrastructure

Cyber Insurance

Cyber Law

Financial Institutions

IR Firms & MSSP

Government Agencies

Cloud Infrastructure

DATA

/ PROCESS

DATA / PROCESS

Operationalizing cyber intelligence to drive defensible decisions across response, remediation, recovery, and payment.

Millions

of threats

Thousands

of incident responses

Thousands

of threat actor attribution data points

Thousands

of reverse engineered malware executables

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

// compiled preview • scanner demo /* generated for visual effect – not e
xecuted */ const SCAN_WIDTH = 8; const FADE_ZONE = 35; const MAX_PARTICLE
S = 2500; const TRANSITION = 0.05; function clamp(n, a, b) { return Math.
max(a, Math.min(b, n)); } function lerp(a, b, t) { return a + (b - a) * t
; } const now = () => performance.now(); function rng(min, max) { return 
Math.random() * (max - min) + min; } class Particle { constructor(x, y, v
x, vy, r, a) { this.x = x; this.y = y; this.vx = vx; this.vy = vy; this.r
 = r; this.a = a; } step(dt) { this.x += this.vx * dt; this.y += this.vy 
* dt; } } const scanner = { x: Math.floor(window.innerWidth / 2), width: 
SCAN_WIDTH, glow: 3.5, }; function drawParticle(ctx, p) { ctx.globalAlpha
 = clamp(p.a, 0, 1); ctx.drawImage(gradient, p.x - p.r, p.y - p.r, p.r * 

Hundreds

of external data sources