Scania Lietuva A.I CyberSecurity Scoring
01/04/2026
Access Monitoring Plan
Access Monitoring Plan
No incidents recorded for Scania Lietuva in 2026.
No incidents recorded for Scania Lietuva in 2026.
No incidents recorded for Scania Lietuva in 2026.
Automotive
Changan Automobile is among Top 4 Chinese automobile groups , with a history of 157 years, Changan Automobile has 35 years’ experience in auto-making. Changan has 16 production bases and 35 vehicle and engine plants globally. In 2014, total production and sales of Changan-branded vehicles exceeded 10 million. Changan’s production and sales volume in 2016 hit 3,000,000 units. By July of 2018, Changan-branded vehicle users have exceeded 17 million. Changan Automobile is committed to building world-class R&D capability. For 5 sessions in the past 10 years, Changan has been NO.1 in R&D capability in China’s automotive industry. Changan has over 12,000 R&D personnel from 18 countries, nearly 600 are senior experts, sitting at the forefront of China’s auto industry. We have built a globally collaborative R&D network with various priorities, connecting the R&D centers in Chongqing, Shanghai and Beijing of China, Turin of Italy, Yokohama of Japan, Nottingham of UK ,Detroit of USA and Munich of Germany. To ensure all products meet customers’ demand of driving for 10 years and 260,000 kilometers, Changan has established product development system and test validation system. In April 2018, Changan unveiled The Third Breakthrough-Innovation and Business Venture Program, with an aim to build a global leading automobile company. With this blueprint, Changan is committed to transforming itself into a leading technology company offering smart mobility solutions and services. The program expects to drive growth by innovation, enhance efficiency as the core competitiveness in organization, transform the company in four key areas and boost innovation in three fields. Changan Automobile has launched a series of classic products including CS series, EADO series, RAETON series and ect. With “hi-tech and trendy, efficient and clean, safe and smart” guiding product design, Changan has been vigorously developing new energy vehicles and intelligent vehicles.
Latest updates, reports, and threat intel affecting the global network.
Klever-Go is the Go implementation of the Klever blockchain protocol. Versions from 1.7.14 through 1.7.17 are vulnerable to a remotely triggerable denial of service. Both REST APIs are started with the Gin Engine.Run convenience method, which serves requests through Go's default HTTP server with no ReadHeaderTimeout, ReadTimeout, or MaxHeaderBytes configured. As a result, incoming connections that never complete their request headers are held open indefinitely. When a REST listener is reachable beyond localhost through the documented all-interface bind or a Docker port-publish deployment, a single unauthenticated client can open many slow-header connections and hold them open until server file descriptors are exhausted, preventing the API from accepting new connections. This renders the REST API unavailable to legitimate clients. This issue is fixed in version 1.7.18.
Klever-Go is the Go implementation of the Klever blockchain protocol. In versions 1.7.14 through 1.7.17, the direct-message ingress handler spawns a new goroutine for every incoming direct message before the processor-level antiflood layer makes any admission decision, with no semaphore, throttler, or bound on the number of concurrent in-flight spawns. Because the antiflood check runs inside the spawned goroutine rather than before it, a single connected peer can open a direct-send stream and send a stream of well-formed messages to force unbounded goroutine creation, where each goroutine allocates its own stack and holds a message reference until processing completes, adding scheduler and garbage-collection pressure faster than the runtime can drain it. This lets one peer degrade the node's availability and its ability to process legitimate traffic, resulting in a remotely triggerable denial of service. The issue is fixed in 1.7.18.
Klever-Go is the Go implementation of the Klever blockchain protocol. Versions 1.7.14 through 1.7.17 are vulnerable to a nil-pointer panic triggered by a protobuf Transaction whose embedded RawData sub-message is omitted. This omission causes RawData to decode to nil. Every transaction gossiped on the Klever-Go P2P network is decoded and validated synchronously inside the libp2p pubsub topic-validator callback, where txVersionChecker.CheckTxVersion dereferences tx.RawData.Version with no nil check. Because the libp2p pubsub callback, the underlying go-libp2p-pubsub validation worker, and Klever's own network/p2p layer install no recover(), the panic propagates and crashes the entire node process. The attacker payload is a 3-byte protobuf message; no validator key, stake, funds, or on-chain account is required, and delivery aimed at enough of the BLS validator set can halt block production, resulting in a chain halt. This issue has been fixed in version 1.7.18.
Klever-Go is the Go implementation of the Klever blockchain protocol. In versions prior to 1.7.18, the account-data trie syncers are vulnerable to a resource-exhaustion flaw that leaks bounded throttler slots on error paths. In syncDataTrie() (in both userAccountsSyncer.go and kappAccountsSyncer.go), StartProcessing() reserves a slot from the NumGoRoutinesThrottler, but the corresponding EndProcessing() is only called on the success path and on the duplicate-root early return. As a result, any error from trie.NewTrie(), trie.NewTrieSyncer(), or trieSyncer.StartSyncing() (including the network-dependent timeout path) permanently consumes one slot for the lifetime of the throttler. An attacker who can repeatedly cause trie-node sync failures or timeouts during bootstrap can exhaust the bounded throttler, after which further account-data trie syncs stop making progress and SyncAccounts() returns a timeout. Because epoch bootstrap in syncUserAccountsState() and syncKappAccountsState() aborts on any such error, this causes bootstrap to fail, a core availability issue affecting fresh, restarting, or resyncing nodes and validators. This issue is fixed in version 1.7.18.
Ruby LSP is an implementation of the language server protocol for Ruby. Several workspace-level settings in the Ruby LSP VS Code extension prior to version 0.10.4 could override the path to the Ruby executable, the version manager executables, or the Bundler `Gemfile` used at startup. A malicious repository containing a `.vscode/settings.json` could set these values to attacker-controlled targets. Opening and trusting the repository would then execute code with the privileges of the developer. The Ruby LSP gem and clients of the language server in other editors are not affected. Version 0.10.4 of the Ruby LSP VS Code extension fixes the issue.
curl -i -X GET 'https://api.rankiteo.com/underwriter-getcompany-history?
linkedin_id=axa' -H 'apikey: YOUR_API_KEY_HERE'
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