| Integrated with Financial LLM |
| 1.1 | With a preloaded, built-in financial-domain large language model, finance professionals can query regulations and market knowledge in natural language in real time, automatically summarize lengthy research reports and contracts, and assist investment-research interpretation — shortening research hours, reducing manual interpretation errors, and accelerating decision output. |
| Multi-Compatible API Endpoints |
| 2.1 | By publishing all kinds of models as standardized OpenAI- and Anthropic-compatible API endpoints, development teams can reuse existing SDKs and tools to integrate internal systems and applications directly — eliminating custom-integration costs, shortening rollout time, retaining the flexibility to switch painlessly between models later, and reducing dependence on any single model vendor to avoid vendor lock-in. |
| AI Engine Platform |
| 3.1 | With a model platform supporting multiple inference engines/runtimes, on-premises deployment, and GPU resource allocation, users can flexibly deploy and schedule different model types on one platform — removing the integration burden of building heterogeneous inference environments, improving GPU efficiency, and lowering the overall operating cost of on-premises AI infrastructure. |
| 3.2 | Through a GPU-sharing mechanism that runs multiple models on a single GPU and supports deploying one model multiple times, users can fully utilize idle compute — improving overall GPU efficiency, lowering per-inference cost, and reducing hardware procurement needs. |
| 3.3 | With Model Resource Prediction that estimates each model's GPU memory usage in advance, users can understand resource requirements before deployment — ensuring stable production rollout, avoiding service disruptions from insufficient resources, and providing a basis for capacity planning. |
| 3.4 | Through centralized API-key lifecycle management, RPM (requests-per-minute) rate limiting, and a usage dashboard, administrators can issue, revoke, and set expirations for keys by team or application — preventing key abuse and runaway costs while ensuring service stability and fair resource allocation. |
| Model Permission Control |
| 4.1 | Through fine-grained model-level access control, users can separately authorize callable model-instance services by department, role, and application — enforcing least-privilege principles, meeting financial-industry internal-control and compliance requirements, and reducing the risk of model misuse and unauthorized data access. |
| Model Usage Dashboard |
| 5.1 | With a usage dashboard that tracks per-model request counts, token usage, response time, GPU utilization, GPU memory usage, and GPU memory allocation across multiple time ranges (real-time / daily / 3-day / weekly), users can clearly see each model's usage trends and performance — supporting cost attribution and capacity planning, detecting performance degradation early, and providing data for model-replacement and resource-investment decisions. |
| Project-based LLM Service Isolation |
| 6.1 | Through an isolation mechanism that launches independent model instances per department or project (supporting one-to-one or one-to-many deployment), users can provision dedicated model services and knowledge spaces for different teams — enforcing data segregation, reducing the risk of cross-department data mixing and leakage, and complying with financial-industry data-governance and customer-data-protection standards. |
| One-click Model Deployment |
| 7.1 | With one-click import of financial models, enterprise proprietary models, or approved open-source models (integrated with Hugging Face for direct download of the latest open-source models) and automatic configuration of the inference engine and GPU resources, users can bring a model online within minutes — greatly shortening rollout time, reducing reliance on specialized MLOps staff, and accelerating AI adoption in financial scenarios. |
| Model Lifecycle Management |
| 8.1 | With full-lifecycle model management covering model onboarding, version control, updates, and parallel multi-version testing, users can manage every model version in an orderly way and manually roll back to a previous stable version when needed — establishing a traceable model-governance process, reducing version-change risk, and meeting financial-regulatory requirements for model management and auditability. |
| Sensitive Data Stays On-prem |
| 9.1 | With an on-premises architecture that keeps models, documents, vector databases, logs, and financial data entirely within the intranet, a private data center, or an air-gapped environment, users can run AI services without sending sensitive data to the cloud or relying on public-cloud connectivity — meeting financial-industry data-residency and personal-data-protection regulations, reducing leakage risk, and ensuring customer-data sovereignty remains fully in the institution's own hands. |
| GUI-based Operation Console |
| 10.1 | Through a browser-accessible graphical console, users can centrally manage the status of models, API endpoints, API keys, apps, GPU resources, system resources, process monitoring, access logs, event logs, and storage-mount management — eliminating complex command-line operations, lowering the operational barrier, and letting non-technical administrators operate the platform safely within their authorized scope. |
| 10.2 | System configuration: through a centralized management console offering categorized pages for system information, general settings, users and groups, network, security, terminal, updates (supporting remote OTA updates), system reset, notification settings, and accounts, administrators can get started easily and quickly locate relevant configuration — lowering the barrier to system configuration and reducing human misconfiguration, shortening configuration and handover time, cutting multi-site operating costs, and accelerating the rollout of security patches and version updates. |
| Admin Dashboard & System Monitoring |
| 11.1 | Through an admin dashboard that monitors GPU, VRAM, GPU temperature, CPU, RAM, network, storage, disk temperature, per-process resource usage, errors, and alerts in real time, users can detect resource bottlenecks and anomalies early — scheduling resources ahead of time, reducing service-disruption risk, and keeping financial business systems highly available and stable. |
| 11.2 | A single page consolidates all system services (including name, category, status, and port) to help system administrators quickly look up application service-port information — speeding up troubleshooting and problem localization and shortening outage diagnosis time. |
| Security Control |
| 12.1 | Through allowlist/blocklist controls, automatic blocking of IP addresses attempting unauthorized or anomalous access logins, and API access management, together with secure API documentation and system logs, users can effectively block unauthorized access and fully record and trace access behavior — passing financial-industry security reviews and supply-chain risk audits smoothly and accelerating internal audit and adoption-approval processes. |
| 12.2 | Distinct user accounts can be created and assigned different roles and permissions to separate system and application access scopes, letting administrators enforce Segregation of Duties and least privilege — reducing the risk of internal privilege abuse and misoperation and meeting financial-industry internal-control and information-management compliance requirements. |
| 12.3 | System logging fully records all system changes and user operations to form a traceable audit log — supporting regulatory compliance and evidence for internal and external audits, and providing a basis for investigation when security incidents occur. |
| 12.4 | At the LLM security-gateway layer, inbound and outbound conversation traffic is identified and sensitive data masked in real time (including personally identifiable information (PII) and sensitive strings such as API keys and credentials, with post-response restoration whose mapping is stored only on-premises), so users get centralized content protection without installing endpoint-protection software on each client; sensitive data is processed only in memory, never written to disk, and released once processing completes; system logs record only masked or tokenized content, so IT administrators cannot see the original personal or sensitive data from logs; and the service is deployed in isolation via containerization (Docker / Kubernetes) — fulfilling the financial industry's control requirements for personal and sensitive data, reducing leakage risk, and delivered as a one-click-installable app module. |
| 12.5 | The vendor provides SBOM (software bill of materials) supporting documentation per system version, disclosing software composition to meet relevant information-management compliance requirements — accelerating financial institutions' supply-chain security reviews and adoption approvals and reducing security blind spots in third-party components. |
| Backup & Restore |
| 13.1 | Through a backup mechanism that covers apps, models, and vector databases and supports cross-machine (dissimilar-hardware) restore, users can rapidly rebuild services in hardware-failure or disaster scenarios — shortening recovery time (RTO), ensuring business continuity, and meeting financial-industry business-continuity and disaster-recovery (BCP / DR) requirements. |
| Agent / MCP / CLI Integration |
| 14.1 | By supporting diverse integration interfaces such as Agent, MCP, CLI, and API, users can connect the platform to existing internal systems, knowledge bases, databases, and financial workflows — enabling the institution or third-party vendors to quickly build automation applications, extend platform value, and retain flexibility for future extension and ecosystem integration. |
| 14.2 | AI Skills for specific functions or built-in applications are provided, and mainstream agentic coding tools can be integrated for developers to connect — with no extra subscription fees — lowering the barrier to development integration and tool-licensing costs, accelerating automation and AI application development, and optimizing total cost of ownership (TCO). |
| Data Integration & App Market |
| 15.1 | By mounting existing remote storage such as NAS to the platform (remote storage mount), users can turn static files into conversational knowledge assets — making existing data immediately usable for GenAI applications and eliminating repeated data migration and conversion. |
| 15.2 | Through one-click installation of generative-AI applications from the App Market, users can quickly deploy common GenAI applications — lowering the barrier to adoption and development and shortening application rollout time. |
| 15.3 | With built-in data-preprocessing tools such as RAG, OCR, and audio/video transcription, users can turn documents, images, and audio/video content into searchable, question-answerable knowledge — improving the accuracy and coverage of knowledge Q&A and accelerating the activation of unstructured data. |