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New GenAI & AI agent development

Cybersecurity & Risk Management

Data Security & Encryption Services

We classify sensitive data, then apply encryption at rest and in transit, key management, tokenisation and masking, so a stolen disk or intercepted connection exposes nothing readable.

  • Data classification
  • Encryption at rest
  • Key management
  • Masking & tokenising
Years of delivery
8+
Years of delivery
Projects shipped
350+
Projects shipped
Clients across US, UK, AU & SG
200+
Clients across US, UK, AU & SG

What’s included

Everything You Need to Protect Sensitive Data Wherever It Lives

Data discovery, classification, encryption, key management and loss prevention for databases, cloud and endpoints.

  • Sensitive Data Discovery & Classification

    We locate personal, financial and health data across databases, file shares and SaaS, then label it by sensitivity.

    • Data inventory
    • Classification scheme
  • Data Flow Mapping & Protection Strategy

    We trace how data moves between systems and vendors, then define where encryption and controls are needed.

    • Data flow diagrams
    • Protection strategy
  • Encryption at Rest & in Transit Implementation

    We enable AES-256 database and storage encryption and TLS across services, protecting data if systems are breached.

    • Encryption rollout
    • TLS configuration
  • Key Management, KMS & HSM Setup

    We set up AWS KMS, Azure Key Vault or HSMs with rotation and access rules so keys stay secure.

    • KMS configuration
    • Key rotation policy
  • Tokenisation, Masking & Anonymisation

    We hide or replace sensitive fields in test and analytics environments, so developers never touch real customer data.

    • Masking rules
    • Tokenisation setup
  • Data Loss Prevention (DLP) Rollout

    We configure DLP for email, endpoints and cloud apps, blocking accidental or malicious leaks of confidential files.

    • DLP policies
    • Incident workflow
  • Secure Backup & Data Retention Controls

    We protect backups with encryption, immutability and retention rules that support recovery and privacy obligations.

    • Backup security plan
    • Retention schedule
  • Data Access Monitoring & Privacy Compliance Support

    We monitor who touches sensitive data and help you prepare evidence for GDPR, HIPAA and PCI DSS reviews.

    • Access audit logs
    • Compliance evidence

Need something specific?

Why Kramate

Why Business Owners Choose Kramate for Protecting Data

We help you protect customer information, so a leak does not cost you their trust.

  • We Find Data You Forgot You Had

    Instead of

    customer details hiding in old files and emails

    With Kramate

    We look through your systems for private details, so you know exactly what you must protect.

  • Stolen Data Is Useless to Thieves

    Instead of: a lost laptop turning into a news story

    With Kramate: We scramble sensitive data, so anyone who steals it only sees nonsense.

  • Ready for Questions About Privacy Laws

    Instead of: panic when a customer asks how you protect data

    With Kramate: We write down how you protect data in plain words you can hand to customers.

  • Your Team Sees Only What It Needs

    Instead of: staff seeing private details they never use

    With Kramate: We hide sensitive details from people and test systems that do not need them.

  • Backups That Cannot Be Held Hostage

    Instead of: backups that crooks delete or lock too

    With Kramate: We keep your backups apart and locked, so you can get your data back after an attack.

Our approach

How We Set Up Data Security and Encryption, Step by Step

We find your sensitive data, lock it down and control who can read it.

6 clear steps 6 deliverables you keep

  1. Find Your Data

    We find where customer records, payment details and staff files live across your systems and devices.

    You receive: Data inventory

    You confirm what counts as sensitive

  2. Label by Sensitivity

    We label data by how sensitive it is, so the strongest protection goes where it counts.

    You receive: Data labels

    You agree the labels

  3. Encryption Design

    We choose how data is scrambled when stored and when sent, and how the keys are kept safe.

    You receive: Encryption plan

    You approve the approach

  4. Encryption Setup

    We switch on encryption for databases, backups, laptops and file sharing, one system at a time.

    You receive: Protected systems

    You schedule change windows

  5. Access Rules

    We limit who can see each type of data and record every time it is opened.

    You receive: Access rules

    You decide who needs access

  6. Recovery Check

    We confirm protected data can still be opened by the right people and restored from backup.

    You receive: Test report

    You sign off the results

Tools & technologies

Technologies We Use for Data Security & Encryption

We use proven encryption and key tools, applied to the data stores you actually run.

  • OpenSSL: Creates and checks the certificates and keys behind encryption.
  • GnuPG: Encrypts and signs files and email with open standards.
  • HashiCorp Vault: Stores passwords, keys and tokens securely for apps and teams.
  • AWS Key Management Service: Manages encryption keys for data stored in AWS.
  • Let's Encrypt: Free automated TLS certificates for secure web traffic.
  • Cloudflare: Speeds up and protects sites with a global network and DNS.
  • OpenVPN: Widely used VPN for encrypted remote access.
  • Bitwarden: Team password manager with shared, access-controlled vaults.
  • 1Password: Password and secrets manager for teams.
  • Vaultwarden: Self-hosted password vault compatible with Bitwarden clients.
  • PostgreSQL: Dependable database for complex business data.
  • MySQL: Widely used database for web applications.
  • MongoDB: Flexible document database for fast-changing data.
  • AWS: Amazon cloud hosting and services.
  • Azure: Microsoft cloud hosting and services.
  • Google Cloud: Google infrastructure for data, AI and applications.

Data encryption services help an organization decide which information needs protection, apply the right cryptographic controls to it, and manage the keys that make those controls trustworthy. Good data encryption services also cover data stored in databases and files, data moving between systems, and the keys, access rules and logs around both.

Encryption is easy to switch on and hard to run well. The difficult parts are knowing where sensitive data lives, choosing who may hold the keys, and proving the controls still work a year later.

This guide explains the data life cycle, the main encryption layers, key management, what to expect in the USA, UK, Australia and Singapore, what drives cost, and how to choose a partner.

What data encryption services cover

Data security is the wider discipline of keeping information confidential, accurate and available. Encryption is one control inside it: it scrambles data so that only holders of the right key can read it. A good engagement therefore starts with the data, not with the algorithm.

Typical scope includes:

  • Discovery and classification of personal, financial, health and commercial data across databases, file shares, SaaS tools and cloud storage.
  • Encryption design for stored data, data in transit and, where justified, data in use.
  • Key management: generation, storage, rotation, access and retirement of keys.
  • Supporting controls: access rules, logging, backups, data retention and secure deletion.

Organizations usually ask for this after a customer security questionnaire, before moving data to the cloud, when preparing for a privacy or payment-card review, or when a laptop, backup or storage bucket raises the question of what exactly was on it.

Step one: find and classify your data

You cannot protect data you cannot locate. Copies accumulate in exports, test databases, chat attachments and forgotten buckets, so the first deliverable is a data inventory: what each data set is, where it lives, who can reach it and why it exists.

A simple classification scheme works better than a clever one. Three or four levels, such as public, internal, confidential and restricted, are enough when each level maps to a clear handling rule. The rule says, for example, that restricted data must be encrypted with customer-managed keys and may not leave a named region.

Classification also drives retention. Data you no longer need is the cheapest data to protect, because deleting it removes the risk entirely.

Encryption layers and when each applies

Different layers protect against different problems. Disk encryption helps if a device is lost; it does little if an attacker holds a valid application login. That is why mature designs combine layers.

Common encryption and data-protection layers
LayerWhat it protects againstTypical use
Full-disk and storage encryption Lost or stolen devices, discarded drives, exposed snapshots Laptops, servers, cloud volumes, backups
Database and file-level encryption Direct access to storage files, some insider risks Production databases, document stores
Transport encryption (TLS) Interception or tampering between systems Websites, APIs, internal service traffic, email transport
Field-level or application-level encryption Over-broad access, including by administrators National identifiers, payment details, health fields
Tokenization Exposure of the real value in downstream systems Card numbers, account numbers used in reports and support tools

The OWASP Cheat Sheet Series (opens in a new tab) includes practical guidance on cryptographic storage and transport security that developers can apply directly, and the NIST SP 800-53 control catalog (opens in a new tab) lists the matching system and communications protection controls.

Key management: where encryption succeeds or fails

Strong encryption protects nothing if the key sits next to the data it locks. Key management decides who can create, use, rotate and destroy keys, and it is where most real-world weaknesses appear.

  • Separate keys from data. Keep keys in a managed key service or hardware security module, not in code, configuration files or the same database.
  • Choose the ownership model. Provider-managed keys are simplest; customer-managed keys give more control and an audit trail; keys held outside the cloud suit the strictest requirements.
  • Limit and log use. Few people and services should be able to use a key, and every use should be recorded.
  • Plan rotation and recovery. Test that you can rotate a key and restore data from backup, because a lost key means lost data.
  • Define retirement. Destroying a key can be the way to retire data that cannot be deleted record by record.

Where AI and newer techniques fit

Automated discovery tools now use pattern matching and machine learning to flag likely personal or financial data in large stores, which speeds up the inventory step. Results still need human review, because false positives and misses are both common.

AI projects add a data question of their own: which records may be sent to a model, a vendor or a training set. Classification rules and tokenization let teams use real structure without exposing real identifiers. Confidential computing, which protects data while it is being processed inside specialized hardware, is a genuine option for sensitive workloads, though it adds design effort and is not needed everywhere.

Standards, frameworks and what encryption does not prove

For data encryption services, the standards matter because encryption appears in many frameworks, but none treats it as sufficient alone. The NIST Cybersecurity Framework (opens in a new tab) groups data protection within a wider risk program. The PCI Security Standards Council library (opens in a new tab) sets expectations for protecting stored account data and transmitting it over open networks.

Privacy regulators also expect appropriate security without prescribing one technology; for example the ICO security guidance (opens in a new tab) frames encryption as one measure to choose according to risk. Standards are frameworks you work toward. Using encryption can support your case, but it does not by itself make an organization compliant.

Regional considerations: USA, UK, Australia and Singapore

Where data may be stored, and who may hold the keys, can matter as much as the cipher. Confirm cross-border and sector requirements with legal counsel.

Illustrative use cases by industry

These are examples of the pattern, not Kramate results.

  • Healthcare software: a clinic platform encrypts patient notes at the field level so that support engineers can see appointments but not clinical text.
  • Online retail: a merchant replaces stored card numbers with tokens from its payment provider, shrinking the number of systems that handle card data.
  • Financial services: an advisory firm moves to customer-managed keys so it can show clients who accessed their records and revoke access to a departing vendor.
  • Legal and professional services: a firm encrypts laptops and removable media and defines which matter files may sync to cloud storage.

Cost factors and how to plan a budget

The effort behind data encryption services depends mostly on how many systems hold sensitive data, how well the data is already documented, and how much application change is needed. Field-level encryption touches code; disk and transport encryption usually does not. Key services and monitoring add recurring platform charges.

A phased plan keeps spend predictable: inventory first, then the highest-risk data sets, then the long tail. Budget for training, key-recovery testing and yearly review, not only the initial build.

How to choose a partner for data encryption services

  • Do they begin with data discovery and classification, or jump straight to products?
  • Can they explain key ownership, rotation and recovery in plain language?
  • Will they work with your cloud and database platforms, not push a single vendor?
  • Do they document decisions so your team can run the controls afterward?
  • Will they sign an NDA early and handle your data with least-privilege access?
  • Do they connect this work to wider efforts such as cloud security and identity and access management?

How Kramate delivers data encryption services

Work starts with a free consultation and an NDA before detailed discussions, followed by a detailed estimate within 24 hours. A dedicated project manager coordinates the work, you receive daily updates on Slack or Teams, and each two-week round ends with a progress review. All intellectual property, including scripts and documentation, transfers to you. The full process is in our delivery approach.

Engagements can be fixed-price, dedicated-team or hourly. Teams overlap four to six hours with US Eastern time and a full working day with the UK, Australia and Singapore. For compliance-driven needs, see compliance consulting.

Frequently asked questions

What is the difference between encryption at rest and in transit?

At rest covers stored data such as databases, disks and backups. In transit covers data moving across a network, typically protected with TLS. A sound design uses both, because each addresses a different way data can be exposed.

Does encryption make my business compliant?

No. Regulations and standards ask for appropriate safeguards based on risk, and encryption is one of several. Governance, access control, retention, vendor management and incident handling matter as well. Legal counsel can confirm what applies to you.

What is tokenization and how does it differ from encryption?

Encryption transforms data using a key and can be reversed with that key. Tokenization swaps a value for a random stand-in, with the real value held in a separate vault. It is often used for card numbers so that most systems never see the original.

How do I find sensitive data in cloud storage?

Use discovery tools that scan buckets, databases and file shares for patterns such as identifiers, then review results manually and record owners. Pair this with access reviews, since exposure often comes from permissions rather than missing encryption.

Who should hold the encryption keys?

It depends on risk and capability. Provider-managed keys are simplest. Customer-managed keys add control and auditability. Highly regulated workloads sometimes keep keys outside the cloud provider entirely. Each step adds operational responsibility you must be ready to run.

How long does an encryption project take?

It varies with the number of systems and whether application changes are needed. A discovery phase gives a credible plan, and highest-risk data sets are usually tackled first so protection improves early.

Sources and further reading

FAQ

Frequently asked questions

Price depends on the volume and types of sensitive data, number of databases, applications and storage locations, and the controls needed such as encryption, key management and masking. Legacy systems and compliance needs add effort. Send us your data protection scope and a no-obligation estimate follows within 24 hours.

We find and classify sensitive data, design controls, implement encryption and key management, test with applications and document the setup. Duration depends on the number of data stores, legacy constraints and application testing. Retrofitting old systems usually takes longer than new builds.

You own the designs, key policies and documentation. Before detailed data protection talks, Kramate signs an NDA and transfers IP and deliverables to you. We avoid taking copies of live sensitive data, and keys stay in your control.

We use native database and cloud encryption where possible, so application changes stay small. We test performance and integration in a non-production copy first. Key management links to your cloud or hardware tools, and runbooks cover rotation and recovery.

At rest protects stored data on disks, databases and backups. In transit protects data moving across networks, using protocols such as TLS. You usually need both. Neither alone protects data from someone with valid access, so access controls matter as well.

Encryption is only as strong as the protection of its keys. Poorly stored or never-rotated keys defeat the purpose. Good practice uses a managed key service or hardware module, separates duties, logs access and tests recovery. Lost keys can mean lost data.

Know where sensitive data lives, which laws apply and how applications use it. Plan key backup and recovery before you encrypt. Test performance in advance. Encryption reduces exposure, but it does not replace access control and monitoring.

Taking new projects

Let’s talk about your Data Security & Encryption Services needs

Tell us about your project and get a free consultation and estimate within 24 hours.

  1. We reply within 4 business hours A real consultant reads your brief — no bot, no queue.
  2. 30-minute discovery call We dig into goals, constraints and budget. NDA signed on request.
  3. Proposal in 24 hours Scope, timeline, team and price — clear enough to decide on.

NDA on request You own the IP No obligation Free estimate

Your information is confidential. We’re happy to sign an NDA.

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