giveme-cloud GIVEME CLOUD SP Z O O sells hosted capacity that still depends on racks, transit and repair windows

Summary

• GIVEME CLOUD SP Z O O has a verifiable Polish company identity. The official KRS API identifies KRS 0000543543, REGON 36077116400000, NIP 6482773317 and a Warsaw registered address at Cybernetyki 9; RIPE records the same organisation as ORG-RSZO27-RIPE, an LIR in Poland.
• The network is visibly routed. RIPE reports AS6681, named giveme-cloud, with 9 IPv4 prefixes, 2,304 IPv4 addresses, 326 of 326 IPv4 RIS full-table peers seeing it and 42 observed neighbours at the 15 July 2026 observation point. RIPE reports AS208566, named giveme-waw, with 2 IPv4 prefixes, 512 IPv4 addresses, one IPv6 /29 counted as 524,288 /48s, full IPv4 and IPv6 RIS visibility and 12 observed neighbours.
• PeeringDB self-reports AS208566 in Warsaw at LIM Warsaw, Equinix WA1 and ATMAN Warsaw-2, plus a 10 Gbps Equinix Warsaw exchange connection. It self-reports AS6681 at Equinix AM1/AM2 Amsterdam and a 10 Gbps NL-ix connection. Those entries are useful location and interconnection signals, not proof that Giveme Cloud owns those facilities or that every customer workload can fail over between them.
• The company website offers cloud plans from EUR 12, advertises vCPU, RAM and vSSD bundles, states custom pricing for vCPU, RAM, storage and 10 Mbit increments, and claims enterprise SSD, HA storage, a 20 Gb/s connection for all servers, Windows licences, mail servers, internal networks and responsive support. The same terms say users are responsible for backups, availability is not guaranteed uninterrupted and services can be suspended if payment or account issues occur.
• The operating question is therefore specific. Giveme Cloud appears to run or control a public routing edge, and it markets real hosting services, but public evidence does not settle installed server count, usable spare capacity, storage replication design, rack power, remote-hands rights, hardware stock, support staffing, contractual upstream diversity, recovery tests or customer data portability.
• The evidence grade is Medium. The network exists and has meaningful visibility; the cloud resilience claim remains conditional until the company or customers can show dated facility, power, storage, support and restore evidence.

A visible edge, not a complete cloud answer

The first mistake would be to dismiss GIVEME CLOUD SP Z O O as a thin footprint simply because it is a small hosting provider. The second mistake would be to let a visible route table stand in for proof of a recoverable cloud service. The public record supports a middle position: a real Polish company has two routed ASNs and a self-described cloud offer, but the evidence stops short of the operational depth a customer needs before placing fragile workloads there.

The identity layer is unusually easy to tie together. The official KRS current extract API for KRS 0000543543 identifies GIVEME CLOUD as a Polish limited liability company, with REGON 36077116400000, NIP 6482773317 and a Warsaw address at Cybernetyki 9. RIPE's RDAP entity record for ORG-RSZO27-RIPE names GIVEME CLOUD SP Z O O, gives Poland as the organisation context, records the same Cybernetyki 9 address and lists the organisation type in the underlying RIPE entity as LIR. The public BTW directory page is therefore pointing at a company that has external administrative records, not merely at a marketing phrase.

The network layer is also live. RIPE's AS overview for AS6681 names giveme-cloud GIVEME CLOUD SP Z O O and marks the ASN announced. RIPE's AS overview for AS208566 names giveme-waw GIVEME CLOUD SP Z O O and also marks it announced. The company's own site at giveme.cloud resolves to 193.200.65.34, and RIPE's DNS chain result shows that forward resolution while reverse DNS points into a Giveme network naming pattern. This is a stronger footprint than a dormant company with no visible endpoint.

Yet a customer does not buy an ASN. A customer buys compute that boots, storage that keeps state, a route that stays accepted by the rest of the internet, a support path that answers during an incident, and a way to leave if the service no longer fits. Those things may exist, but they are not fully visible in public records. This profile is therefore a test of translation: what can be converted from registration and routing evidence into operational confidence, and what remains a question for procurement, contract review and live service testing?

The corporate record is real, but the address boundary is worth checking

The legal identity is stronger than many small infrastructure profiles. The KRS extract reports the company as a limited liability company, registered in KRS on 12 February 2015, with the current extract reflecting state as of 7 April 2026 and the latest entry also dated 7 April 2026. Its identifiers are visible: REGON 36077116400000 and NIP 6482773317. Its registered seat and address are Warsaw, Cybernetyki 9, 02-677.

RIPE's organisation entity points in the same direction. The REST entity for ORG-RSZO27-RIPE names GIVEME CLOUD SP Z O O, gives country PL, records reg-nr 360771164, marks the organisation type as LIR, lists Cybernetyki 9, 02-677 Warsaw, and shows a creation date of 11 July 2019 with a last modification on 13 May 2026. The RDAP organisation record exposes the same organisation identity, an abuse role and technical contact handles. That combination matters because it connects the corporate entity to the internet-number registry context behind the two ASNs.

There is, however, an address detail that a customer should reconcile. The Giveme Cloud privacy policy and terms of service identify Giveme Cloud Sp. z o.o. at Postepu 17a, 02-676 Warsaw. The KRS and RIPE records reviewed here show Cybernetyki 9, 02-677 Warsaw. Both streets are in Warsaw's Mokotow business district, and a changed office address is not unusual. Still, contracts, invoices, data-processing terms and abuse notices should agree on the controlling legal entity and service address. A mismatch in web copy and registry records is not proof of an operational defect. It is a reason not to infer infrastructure location from either address.

That distinction is important. A company address can be a registered office, correspondence address or sales office. It is not automatically a data hall. Neither KRS nor RIPE states that Cybernetyki 9 houses customer servers, storage nodes, power rooms, fibre meet-me rooms or support staff. The legal identity is therefore established, while the physical service footprint must be read from different evidence.

Two ASNs give the company a measurable public surface

AS6681 and AS208566 are the clearest operational assets. RIPE's routing status for AS6681 reports query time 2026-07-15T00:00:00, first seen in 2010 with prefix 195.191.234.0/23, last seen on 15 July 2026 with 89.150.33.0/24, 9 IPv4 prefixes, 2,304 IPv4 addresses and no IPv6 prefixes. Its IPv4 visibility is full across the RIS set in that result: 326 of 326 IPv4 full-table peers see the resource. Its observed neighbours count is 42.

AS208566 supplies the other half of the surface. RIPE's routing status for AS208566 reports first seen on 2 August 2019 with 45.128.216.0/24, last seen on 15 July 2026 with the same prefix, 2 IPv4 prefixes, 512 IPv4 addresses and one IPv6 prefix. That IPv6 entry, 2a0e:41c0::/29, is counted by RIPE as 524,288 /48s. The resource is visible to 326 of 326 IPv4 peers and 322 of 322 IPv6 peers in the routing-status result, with 12 observed neighbours.

Those numbers are not decorative. A hosting company with no current public edge cannot demonstrate the basic internet reachability needed for customer services under its own route policy. Giveme Cloud can demonstrate a public edge. RIPE's announced-prefixes result for AS6681 lists nine current IPv4 /24s, including 193.200.64.0/24, 193.200.65.0/24, 195.191.234.0/24, 195.191.235.0/24, 45.128.218.0/24, 45.128.219.0/24, 45.13.27.0/24, 89.150.33.0/24 and 2.152.66.0/24. RIPE's announced-prefixes result for AS208566 lists 45.128.216.0/24, 45.128.217.0/24 and 2a0e:41c0::/29.

The correct conclusion is that the network is alive, not that the cloud is automatically resilient. BGP reachability proves that prefixes are announced and seen by collectors. It does not prove the number of servers behind those routes, the health of the storage layer, the amount of spare rack power, the capacity of the hypervisor cluster, the quality of backups or the speed of customer recovery. It gives the buyer a place to begin testing.

Address space supports control, not capacity

The RIPE address records show that Giveme Cloud controls or is associated with multiple address blocks. The WHOIS view for 45.128.216.0/22 names PL-GIVEME-CLOUD-20190712, country PL, organisation ORG-RSZO27-RIPE and the Giveme maintainer. The WHOIS view for 193.200.64.0/23 and the WHOIS view for 195.191.234.0/23 both use the giveme-cloud netname and point to the same organisation. The newer WHOIS view for 2.152.66.0/24 sits in an inetnum recorded as 2.152.66.0/23 and was created on 22 June 2026.

The route-security layer also looks intentional. RIPE's RPKI validation for 193.200.65.0/24 with AS6681 returns valid. The validation for 45.128.216.0/24 with AS208566 returns valid, as does the validation for 2a0e:41c0::/29 with AS208566. Valid route-origin authorisation is not uptime, but it reduces one class of routing ambiguity by showing that the observed origin is authorised for the prefix.

The company's website adds a useful reality check. A DNS lookup and RIPE's DNS chain response place giveme.cloud at 193.200.65.34, inside a block that RIPE records under Giveme Cloud and that AS6681 currently announces as 193.200.65.0/24. That is stronger than a site hosted on an unrelated commodity platform, because the public website itself sits on the company's routed space.

But address space is not compute capacity. A /24 can front many servers, a few virtual machines or only a website and management services. IPv6 space can be large on paper and lightly used in practice. Address inventory also says little about disk replication, memory pressure, spare hosts, power headroom, hypervisor licensing, orchestration health or backup restorability. Giveme Cloud's address space supports control of a network surface. It does not quantify usable cloud supply.

The facility map clusters around Warsaw and Amsterdam

The physical evidence is strongest at the level of self-reported interconnection and facility presence. The PeeringDB network entity for AS208566 lists the network as Rozetka, with website https://giveme.cloud, content type, 5-10 Gbps traffic and a selective peering policy. Its PeeringDB facility records place the network at three Warsaw sites: LIM Warsaw, Equinix WA1 - Warsaw, Centrum LIM, and ATMAN Data Center Warsaw-2 at Konstruktorska 5. Its PeeringDB exchange record shows an operational 10 Gbps connection at Equinix Warsaw.

AS6681 gives a different geography. The PeeringDB network entity for AS6681 names Giveme Cloud AS6681, points to the same website, reports content type, 20-50 Gbps traffic and an open peering policy. Its facility record places it at Equinix AM1/AM2 - Amsterdam, Luttenbergweg. Its exchange record lists an operational 10 Gbps connection at NL-ix Main.

PeeringDB is not a lease, a power bill or a data-centre audit. It is a voluntary interconnection directory. Its entries are meaningful because operators use it to describe where networks interconnect and how they prefer to peer. They are not conclusive proof that Giveme Cloud owns a cage, owns the servers, has customer workloads in every named facility, or can move a customer from Warsaw to Amsterdam during an incident.

Still, these facility entries change the profile. A customer should not think only about a Warsaw office address. The likely operational map is a Warsaw edge for AS208566, a separate Amsterdam presence for AS6681, and an interconnection model that uses both transit providers and internet exchanges. That is a plausible infrastructure footprint for a small European hosting provider. The resilience question is whether these points are independent enough, and provisioned enough, to survive a facility, upstream, power or contract failure.

Upstream diversity exists, but common failure points remain possible

RIPE's neighbour data shows a real path environment. The ASN-neighbours result for AS6681 reports 42 unique observed neighbours. Among the higher-power left-side neighbours visible in the result are AS1299, identified by RIPE as Twelve99 Arelion Sweden AB; AS35320, Eurotranstelecom; AS9002, RETN Limited; and AS6939, Hurricane Electric. The ASN-neighbours result for AS208566 reports 12 unique observed neighbours and includes the same Arelion, Eurotranstelecom, Hurricane and RETN pattern, plus M247 and Equinix-related exchange context.

That is more than one upstream. It suggests that the company is not dependent on a single public transit path at the BGP level. CAIDA's AS Rank result for AS6681 marks the ASN seen, gives it rank 10256, a cone of 2 ASNs, 12 prefixes and 3,072 addresses, and reports 5 providers, 43 peers and 1 customer. CAIDA's AS Rank result for AS208566 marks that ASN seen too, gives rank 6051, a cone of 3 ASNs, 131 prefixes and 43,008 addresses, and reports 3 providers, 3 peers and 1 customer.

However, BGP diversity and physical diversity are different. Two transit sessions can enter the same data hall through the same meet-me room. Two carriers can share ducts, risers, power distribution, a wholesale port, or the same contractual reseller. An internet-exchange port can improve local reachability but still fail with the building, the exchange fabric, the cross-connect, the router or the customer's port. Even separate Warsaw and Amsterdam entries do not prove that customer images, backups and control systems are replicated across both cities.

This is where the hosting buyer's test changes from "does the network route?" to "what breaks together?" A good answer would map every public path to a router, port, cross-connect, facility, carrier contract and maintenance window. It would show which workloads use AS6681, which use AS208566, whether there is automated traffic shift, how DNS is managed, and whether the storage layer follows the routing layer. The public BGP record proves reachability. It does not yet prove failure isolation.

The cloud offer is public, but its claims need operational context

Giveme Cloud's website is not vague about selling hosted capacity. The homepage advertises a "real cloud" offer, with a standard plan from EUR 12, 1 vCPU, 1 GB RAM and 10 GB vSSD; a business plan at EUR 66, 4 vCPU, 16 GB RAM and 100 GB vSSD; and a custom enterprise plan priced by vCPU, RAM, storage and 10 Mbit increments. The about page says the company is based in Poland, describes public, private and hybrid cloud, and states that its main clients are heavily loaded ad networks. It also repeats claims of enterprise SSD, HA storage, a 20 Gb/s connection for all servers, Windows licences, mail servers, internal networks and responsive support.

Those pages are commercially important because they move the company from "network operator" into "cloud-service seller." They also create the exact due-diligence targets. What platform creates a fully operational server in minutes? What hypervisor, control panel and storage design back vSSD? What does "HA storage" mean: mirrored disks inside one host, replicated block storage inside one room, synchronous storage between rooms, or an offsite backup tier? Is the 20 Gb/s connection a per-server physical port, a cluster uplink, a shared fabric claim or a marketing ceiling?

What is the real bottleneck after oversubscription?

The legal pages narrow the promise. The terms of service state that availability can be interrupted by maintenance, failures or circumstances outside the company's control and that uninterrupted or error-free availability is not guaranteed. They state that users are responsible for creating and maintaining backups of their content and that Giveme Cloud does not warrant that content will be backed up. They also describe support offerings, including objectives for higher support tiers and hardware monitoring and replacement in data centres, while making clear that a signed service-level agreement can supersede generic terms.

That combination is normal in hosting, but it matters. The marketing page speaks in cloud language; the terms allocate risk. A customer should read both. If a workload cannot tolerate data loss, the buyer should not rely on a homepage phrase. It should require the executed contract, backup schedule, restore evidence, retention period, storage design, support tier and data-export procedure.

Installed capacity is not the same as usable capacity

The public route table can make a small provider look larger than its usable cloud reserve. RIPE counts addresses and prefixes, not healthy hosts. PeeringDB counts facilities and exchange ports, not spare CPU. A website price table counts salable units, not the inventory behind them. This is why installed versus usable capacity is the center of the profile.

Installed capacity begins with assets that physically exist: servers, drives, switches, routers, optics, power feeds, rack space and software licences. Commissioned capacity is the portion that has been configured, tested and placed into service. Available capacity is what remains after existing customers, maintenance reserves, failed disks, standby resources and oversubscription policy are deducted. Usable capacity is what a new or existing customer can provision without undermining existing commitments. Recoverable capacity is what remains after a facility, storage, upstream or account failure.

Giveme Cloud's public evidence proves address and route capacity more clearly than compute capacity. RIPE shows 2,304 IPv4 addresses under AS6681 and 512 under AS208566 at the observation point, plus the IPv6 /29 under AS208566. The website sells vCPU, RAM and vSSD. PeeringDB shows possible rack and exchange locations. None of that reveals the number of installed hosts, the number of failed hosts, the amount of free RAM, the SSD endurance budget, the share of storage reserved for snapshots, the maximum customer density per node or the real replacement time for a failed power supply.

The economic risk is straightforward. A small cloud can be profitable while running close to capacity, but close utilisation reduces failure room. It can also advertise flexible custom capacity while relying on a wholesale provider, but then customer recovery depends on the wholesaler's inventory and contract terms. It can maintain spare hardware, but public records rarely reveal that.

Buyers should therefore ask for capacity in dated operational units, not in adjectives: current hosts, available cores, available RAM, usable storage after replication, committed transit, peak traffic, spare power, spare optics, replacement disks and the tested maximum time to recover a failed node.

Power and facility dependence is not optional

Every virtual server ends in a rack. The facility question is therefore not cosmetic. AS208566's PeeringDB presence at LIM Warsaw, Equinix WA1 and ATMAN Warsaw-2 suggests a Warsaw operating surface. AS6681's presence at Equinix AM1/AM2 Amsterdam suggests a second city or at least a second interconnection point. But the nature of those points is not visible. A network can list a facility because it has a router, a cabinet, a cross-connect, a remote port or a carrier arrangement. That does not say how many customer servers sit there.

Power dependency begins at the server power supply and runs backwards through rack PDUs, UPS systems, generators, utility feeds, transfer gear and fuel or service arrangements. A hosting provider may own none of that infrastructure while still being responsible to customers when it fails. If the company colocates in a third-party site, it depends on the site operator for power, cooling, security, fire systems and physical access. If it uses a wholesale platform, it may not even be able to send staff into the room. If it owns only routers in a facility and hosts compute elsewhere, the interconnection map will not reveal the compute location.

The public evidence does not identify a Giveme Cloud-owned data centre, private cage, rack count, power allocation or cooling design. That is not unusual for a small provider. It means facility risk should be written into the buyer's due diligence. The customer should know which facility hosts the primary copy of the workload, which facility holds backups, whether the two share a metro building dependency, whether Amsterdam is a recovery site or only a peering site, and who has physical access when hardware fails.

Power matters to network claims too. Multiple BGP neighbours do not help if both routers sit behind the same rack PDU. A route-origin authorisation does not help if the top-of-rack switch is dark. An exchange connection does not help if the storage cluster has lost both controllers. The routing evidence proves the edge is reachable now; the facility evidence does not yet prove how it survives a site-level event.

Support is part of the infrastructure

Small-cloud reliability often fails first in human response, not in BGP. An upstream flap, a disk alarm, a failed backup job, a payment hold, a DDoS filter, an abusive customer, a broken customer image and a bad route announcement all require a person or an automated control path that was designed by a person. The public Giveme Cloud material makes support part of the product, but it does not fully specify the support system.

The website advertises responsive technical support. The help page presents a contact form. The terms describe account responsibilities, suspension rights, refund rules and support tiers. The privacy policy says the company may collect support-request information and may use service providers such as payment processors, data-centre providers and analytics services. These are normal service-provider patterns. They also point to dependencies outside the router.

The support questions are practical. Is support staffed around the clock for all plans or only for business and enterprise tiers? Are hardware replacement objectives binding or only targets? Does the customer have a single contact for facility, network, storage and billing incidents? What happens when a billing dispute coincides with an outage? Can Giveme Cloud restore a snapshot without customer intervention? Can it provide a copy of customer data if the control panel is down? Does abuse handling have authority to suspend a customer prefix, and how is a false positive reversed?

The terms make one customer risk especially clear: users remain responsible for backups unless a separate arrangement says otherwise. That is not an accusation; it is a contractual boundary. It means a buyer should not treat "HA storage" as a substitute for its own backup, restore and export strategy. Infrastructure is made of machines, routes and people. Public BGP proves the route layer. Support evidence must come from contracts, ticket records, response metrics and tested recoveries.

Data locality is European by identity, but workload location still needs proof

The company identity is Polish and the operating evidence clusters in Poland and the Netherlands. That matters for data-sovereignty analysis, especially because Giveme Cloud markets hosting and related services to customers. The privacy policy says the company is the data controller for the site, refers to GDPR and Polish law, describes account, billing and support data, and says personal data will primarily be processed within the European Economic Area while some providers may be outside the EEA. The EU GDPR text supplies the legal context for processing, processor relationships, security and international transfers.

That does not prove where every customer workload runs. A Warsaw exchange port is not a storage location. An Amsterdam facility record is not a backup policy. A website hosted on 193.200.65.34 is not a statement that customer virtual machines run in the same block. If the company uses third-party data-centre providers, the privacy policy's reference to service providers becomes operationally relevant: customers need to know who those providers are, where data is stored, where backups reside, who can access support consoles and what safeguards apply if any data leaves the EEA.

The public evidence supports the controlled topic of data sovereignty because location and processor boundaries are part of the service risk. It does not support a conclusion that Giveme Cloud violates or satisfies a specific customer's data-residency requirement. That depends on the customer's contract, the selected plan, the actual facility, the backup region, the support access model and the identity of subprocessors.

A buyer with locality obligations should turn "Polish company, Warsaw and Amsterdam network signals" into specific clauses. The contract should name the legal entity, service location, backup location, support access geography, data-return process, deletion schedule and subprocessor list. It should also clarify whether customer data can be transferred outside the EEA through payment, support, monitoring or analytics providers. The public record gives enough reason to ask; it does not answer for every workload.

The failure path starts with the rack, but it does not end there

The assignment's main failure path - rack, upstream, hardware stock, support, billing, migration or provider-contract failure - is exactly the right way to read this company. Giveme Cloud's evidence is broad enough that several of those failures are plausible and specific.

A rack failure could hit compute, storage, routing or all three, depending on where the customer's workload actually lives. If the primary servers sit in one Warsaw site and the Amsterdam entry is only a peering or transit point, Amsterdam will not automatically restore the customer. If the primary and backup copies sit behind the same storage control system, a second route will not save corrupted data. If the company uses remote hands, replacement timing depends on the facility operator's process, the customer's support tier and spare-parts availability.

An upstream failure is easier to imagine from the route graph. AS6681 and AS208566 have multiple observed neighbours, including major transit names, and both have internet-exchange context. That is a positive sign. But the real test is whether customer prefixes remain reachable when Arelion, RETN, Hurricane, a local exchange port, a cross-connect or a router fails. RIPE's routing consistency for AS6681 shows the announced /24s matching RIPE route information, and the routing consistency for AS208566 does the same for the active /24s and IPv6 /29. That is route hygiene evidence, not failover evidence.

Billing and provider-contract failures are often more damaging than customers expect. The terms say services can be suspended or cancelled in several circumstances, including payment problems and policy violations. If Giveme Cloud's own upstream, facility or wholesale contract were disputed, public customers might experience a network outage as a commercial dependency failure. The customer will not see that from BGP until routes disappear, are filtered or degrade. Contract continuity is therefore an infrastructure dependency.

Migration is the final failure path. If a customer needs to leave, can it export disks, snapshots, logs, DNS, IP assignments, reverse DNS, mail queues and internal-network definitions quickly? The website advertises internal networks and mail servers, which means customer state may exist beyond a single VM disk. The public records do not show a portability tool or a tested exit process. For any workload with real continuity needs, the migration plan should be tested before the first incident.

Who would be affected if it fails?

The public customer population is not known. Giveme Cloud's about page says its main clients are heavily loaded ad networks and claims those clients deliver very large volumes of ads. That is a company statement, not an independently verified customer list. It still helps identify the kind of harm a failure could cause if the statement describes current customers: latency-sensitive ad delivery, tracking endpoints, campaign systems, mail services, web hosting, private networks and custom virtual-machine environments.

Ad-network workloads are a useful stress case because they convert milliseconds and packet loss into revenue loss. A small routing problem can reduce bid responses, tracking accuracy, campaign delivery or fraud-control telemetry. A storage problem can damage logs, billing proof or campaign state. A support delay can leave a customer unable to distinguish between its own application failure and the provider's infrastructure failure. If Giveme Cloud hosts such workloads, the affected customers are not just end users opening a website; they are businesses whose revenue path depends on fast repeated transactions.

There are also indirect users. The privacy policy describes account creation, purchase, support and payment data. Mail servers are advertised. Internal networks are advertised. Windows licences are advertised. These are signs that customers may run business applications, messaging, management systems and private interconnects. If a rack or provider contract fails, those customers may lose not only public reachability but also administrative access, licensing continuity, mail queues, backups and data-return options.

The important constraint is that none of this establishes a count. Public records do not show how many customers use the service, which customers are active, what traffic belongs to them, how many VMs run, what share of address space is in use or whether the largest workloads are in Warsaw, Amsterdam or somewhere else. The article can identify affected categories, not affected companies. A serious buyer should ask for references, anonymised reliability metrics, status history and a current customer-impact model.

Redundancy proof would need more than visible neighbours

Giveme Cloud already has some signals a buyer wants to see: two ASNs, full RIS visibility for the active routes, valid RPKI for tested prefixes, multiple observed neighbours, internet-exchange presence, and PeeringDB facility entries in more than one city. That combination is better than a single-site hosting page with no network evidence. The remaining question is whether the system has redundancy at the service layer, not just at the address layer.

A strong redundancy case would include a dated network diagram showing AS6681 and AS208566 roles, upstreams, exchange ports, routers, facilities and physical cross-connects. It would identify which customer services use each ASN. It would show whether Warsaw and Amsterdam are active-active, active-standby, route-only, backup-only or unrelated footprints. It would provide results from a carrier-failure test, a router-failure test, a storage-controller failure, a host evacuation, a backup restore and a customer-data export. It would distinguish automatic failover from manual recovery.

Power evidence would need the same precision. A facility name is not enough. The buyer should know rack power, dual feeds, UPS and generator coverage, maintenance-window notice, remote-hands access, spare optics, spare disks, replacement SLAs and who pays for emergency work. Hardware evidence should separate installed equipment from healthy available equipment. Storage evidence should state replication factor, failure domain, snapshot retention, backup isolation and restore time. Support evidence should provide escalation paths, hours, response objectives and consequences if objectives are missed.

The absence of those public details does not mean the company lacks them. Many hosting providers keep such information private for security and commercial reasons. It means the public grade cannot rise above medium. The network is real. The cloud resilience layer is not publicly audited here. For a low-risk site, that may be acceptable. For payment, healthcare, regulated personal data, ad-delivery revenue, critical mail or core business applications, the missing proof should be settled before migration.

The verdict: a real small network with unanswered cloud-risk questions

GIVEME CLOUD SP Z O O should be treated as an operating infrastructure company, not as a purely nominal directory entry. The KRS record, RIPE organisation entity, two ASNs, announced prefixes, RPKI-valid tested routes, DNS on its own address space and PeeringDB entries together make that clear. A customer can see a network edge and a commercial hosting offer.

The limiting factor is not identity; it is assurance. The website's cloud plans and the route table show what the company sells and how parts of the network appear from the internet. They do not show installed servers, actual free capacity, rack layout, facility contracts, power paths, support staffing, spare hardware, backup success, restore timing, customer exit tooling or the contract terms that would determine what happens in a bad week.

The terms of service make some of those risks explicit by putting backup responsibility on customers unless a separate arrangement changes the boundary and by avoiding a general promise of uninterrupted availability.

For a customer, the right posture is conditional trust. The company has enough public infrastructure evidence to justify a trial, a technical questionnaire and a live failover test. It does not have enough public evidence to justify assuming multi-site resilience, automatic recovery, unlimited headroom or guaranteed data portability.

The buyer should verify which ASN and facility its workload uses, whether Giveme Cloud or a provider controls the rack, how many independent upstreams serve the service, what happens if one provider fails, what backup and restore evidence exists, how billing suspension is handled, and how quickly data can be exported.

The network evidence grade is Medium because the edge is real and visible, while the customer-service resilience proof remains incomplete. Giveme Cloud sells hosted capacity. The public record shows that capacity still rests on ordinary infrastructure facts: racks, routes, power, upstream contracts, support labour and the customer's ability to move before a local incident becomes a business outage.