Comparison Overview
IFC Manufacturing

IFC Manufacturing
2121 Pennsylvania Ave NW Washington,, Washington DC, 20433, US
Last Update: 11/01/2026
IFC’s investments in the manufacturing sector boost jobs and promote growth in emerging markets. We work to harness new technologies for development, expand value chains, and support circular economy principles in manufacturing. We focus on developing countries and frag...

Banco Davivienda
Avenida Calle 26 68C-61, Bogota, 110931, CO
Last Update: 16/09/2026
En Davivienda creemos en un mundo financiero sin barreras que facilite la vida a las personas, las empresas, las ciudades y municipios. Por esta razón hoy somos más de 19.000 personas innovando y creando cada día soluciones y ofertas exclusivas para 10 millones de clien...
Compliance Ranges Comparison

IFC Manufacturing







Banco Davivienda






Benchmark & Cyber Underwriting Signals
Incidents vs Financial Services Industry Avg (This Year)
No incidents recorded for IFC Manufacturing in 2026.
Incidents vs Financial Services Industry Avg (This Year)
No incidents recorded for Banco Davivienda in 2026.
Incident History - IFC Manufacturing (X = Date, Y = Severity)
IFC Manufacturing cyber incidents detection timeline including parent company and subsidiaries.
Incident History - Banco Davivienda (X = Date, Y = Severity)
Banco Davivienda cyber incidents detection timeline including parent company and subsidiaries.
Notable Incidents

IFC Manufacturing

Banco Davivienda
FAQ
Latest Global CVEs
Dify is an open-source LLM app development platform. Prior to 1.16.0, the PUT /console/api/apps/<app_id>/server endpoint in api/controllers/console/app/mcp_server.py used AppMCPServerController.put() to retrieve an AppMCPServer by the client-supplied server ID without verifying that the server belonged to the requested application and tenant. An authenticated workspace member could therefore change another application's MCP server status and parameters, potentially redirecting data or disabling the service. This issue is fixed in version 1.16.0.
vLLM is an inference and serving engine for large language models. Prior to 0.30.0, a caller can use the request-level media_io_kwargs field to select the GLMGA video backend and supply large values for the fps and max_frames options without a strict work ceiling. GLMGA constructs and deduplicates an attacker-sized pre-decode frame-index list, allowing a compact request and tiny valid video to consume disproportionate CPU time and memory in the shared media-loading executor. This issue is fixed in version 0.30.0.
vLLM is an inference and serving engine for large language models. Prior to 0.30.0, the Rust frontend's track_http_metrics middleware records the raw HTTP method token as a Prometheus label for requests reaching registered routes. An unauthenticated attacker can send unique arbitrary method tokens to unguarded routes such as /tokenize, causing Prometheus's Family::get_or_create function to permanently create counter and histogram label sets. Those label sets increase process memory usage and enlarge the /metrics response until the service or monitoring path is exhausted. This issue is fixed in version 0.30.0.
vLLM is an inference and serving engine for large language models. From 0.24.0 until 0.30.0, the Qwen2VLVideoBackend and Qwen3VLVideoBackend classes accept request-level values for the media_io_kwargs.video.max_frames and media_io_kwargs.video.fps fields without enforcing server-side ceilings. An unauthenticated caller can submit these values to the /tokenize endpoint, causing the sampler to decode every frame selected from attacker-controlled video input, consume disproportionate frontend memory, and potentially terminate the API process before scheduling or admission control. The Rust frontend is not affected because it rejects the media_io_kwargs field. This issue is fixed in version 0.30.0.
vLLM is an inference and serving engine for large language models. Prior to 0.30.0, structured-output request failures can escape request-scoped validation and reach the EngineCore fatal-error path. A per-request backend mismatch can re-raise a grammar compilation exception, padding produced by the ngram_gpu speculative-decoding mode can pass a negative token to guidance validation, and the Rust frontend can admit empty structured-output values that the Python frontend rejects, allowing ordinary constrained-generation requests to terminate the shared engine. This issue is fixed in version 0.30.0.