Check Point 41000 · 61000 Chassis Maintenance
side by side.

41000 chassis · 8-slot carrier class

41000 8-slot chassis · 1-8 SGM modules · 100-800 Gbps NGFW throughput

61000 chassis · 12-slot hyperscale carrier

61000 12-slot chassis · 1-12 SGM modules · 200-1,200 Gbps NGFW throughput

SGM modules · security gateway modules

SGM modules with dedicated compute · hot-swap capable · one module per chassis slot

Power supply modules · 3+1 or 4+1 hot-swap

Redundant PSU modules with hot-swap during operation · power distribution backplane

Fan modules and fabric modules

Multi-slot fan modules · fabric modules for SGM-to-SGM backplane connectivity

Multi-chassis HA and carrier cluster

Active/standby chassis pair · active/active multi-chassis · 2N carrier cluster · 99.999% availability

Lifecycle status of 41000 and 61000 chassis

41000 and 61000 chassis have <strong>highest absolute TPM lever</strong> in entire Check Point ecosystem — and one of highest in NGFW market overall. Check Point Premium Support for the hardware layer of a 41000 (premium without threat prevention bundle) is already a major cost item with 4 SGM modules and rises further when fully populated with 8 SGMs. For 61000 another league — from 6 SGMs up to full population with 12 SGMs, depending on configuration and service tier. TPM reduces this 30-60 percent below. For a typical <strong>service provider fleet with 4 41000 plus 2 61000</strong> (typical for DACH tier-1 mobile backhaul with 4G/5G IPSec aggregation) annual maintenance savings correspondingly high — TPM migration pays back within 4-6 weeks. <strong>Banking backbone use case:</strong> DACH large banks with 41000/61000 in PCI-DSS CDE and SWIFT network edge typically have 2-4 chassis per datacenter with 99.999% availability requirement. Per datacenter the 30-60 percent TPM lever applies to every chassis, plus avoidance of high hardware refresh CapEx over 3-5 years. <strong>Hyperscale datacenter use case:</strong> for service provider NGFW-as-a-service configurations with 61000 chassis pools (typically 4-8 chassis per service provider region) the annual TPM lever is substantial — with comparatively standardized service configuration multi-vendor engineering pool efficiently scalable.

We service Check Point 41000 and 61000 chassis hardware with <strong>OEM original parts</strong> and deep refurbishing pools for all chassis components. <strong>SGM module hot-swap coverage:</strong> Security Gateway Modules are hot-swap capable compute modules of 41000/61000 chassis. With multi-SGM configuration (typically 4-12 SGMs per chassis) remaining SGMs take over traffic during module swap, defect SGM removable and replaceable during operation. Pre-conditions: sufficient redundancy in SGM population, ClusterXL configuration considers SGM removal as planned maintenance event, Smart-1 push of SGM configuration for replacement SGM after hardware swap. <strong>Power supply hot-swap:</strong> 3+1 or 4+1 hot-swap configuration per chassis (41000 typically has 4 PSU slots, 61000 6 PSU slots) — individual module replacement during operation without service impact. PSU modules most common failure component in multi-year chassis deployments. <strong>Fan module hot-swap:</strong> multiple hot-swap slots in chassis, individually replaceable with brief cooling window. For 24/7 high-load carrier configurations fan cartridges typically exhausted after 4-5 years (instead of 5-7 year standard lifetime). <strong>Fabric module service:</strong> backplane connectivity between SGM slots — on defect SGM-to-SGM communication impaired, replacement requires chassis maintenance window because fabric modules not hot-swap capable in classical sense (brief performance impact window during swap). <strong>Engineering coordination:</strong> our onsite engineer checks current redundancy configuration before each swap, coordinates with your Smart-1 admin and performs module replacement according to documented hot-swap procedure. Slot management and configuration migration via Smart-1 push on SGM replacement are core competencies — same service depth as Check Point premium onsite service.

The full OEM-vs-TPM matrix (spare parts, SLA tiers, language, sub-outsourcing, compliance docs, reporting) is the same for every Check Point line — see the Check Point battle card.

BAIT/MaRisk documentation package, DORA Art. 28 contract template, ISO 27001 and GDPR-compliant media handling apply identically to every Check Point line — details on the Check Point battle card.

Same four steps for every Check Point line: inventory → fixed-price quote in 48 h → contract (BAIT/MaRisk/DORA hooks) → hand-over with spare-parts provisioning. Details on the Check Point battle card.

Which 41000 and 61000 chassis configurations do you service?

Complete carrier-class chassis family across two platform classes: <strong>41000 chassis</strong> (8-slot chassis with compact form factor — typically deployed in service provider configurations with 100-800 Gbps NGFW throughput depending on SGM population) and <strong>61000 chassis</strong> (12-slot hyperscale chassis — typically in tier-1 carrier and hyperscale datacenter configurations with 200-1,200 Gbps NGFW throughput fully populated). Including all chassis components: <strong>SGM modules</strong> (Security Gateway Modules — one module per slot with dedicated compute, hot-swap capable — we service all current SGM generations plus older generations from 2013-2017 in refurbishing pool), <strong>power supply modules</strong> (3+1 redundant on 41000, 4+1 on 61000 — all hot-swap capable), <strong>fan modules</strong> (multi-slot configuration in chassis, individually hot-swap capable), <strong>fabric modules</strong> (for SGM-to-SGM backplane connectivity — replacement requires chassis maintenance window), <strong>backplane</strong> and multi-chassis HA sync cabling. For very old configurations (41000 chassis from 2013-2014) we check coverage individually because some components run in particularly strict refurbishing pool logic.

What does TPM cost for 41000 and 61000 chassis vs Check Point Premium Support?

30 to 60 percent savings on hardware maintenance component — in the chassis segment a substantial absolute lever. Pricing scales with SGM population. <strong>41000 chassis pricing:</strong> at 24×7×4, TechCare is roughly 55% below Check Point Premium for the hardware layer with 2, 4 or 6 SGM modules as well as fully populated with 8 SGMs. <strong>61000 chassis pricing:</strong> with 4, 6 or 8 SGMs as well as fully populated with 12 SGMs, also roughly 55% below Check Point Premium each. <strong>Service provider fleet with 4 41000 (6 SGMs each) plus 2 61000 (8 SGMs each), banking backbone fleet per datacenter with 2 41000 plus 2 61000 (all fully populated) and hyperscale service provider pool with 6 61000 fully populated:</strong> the roughly 55% savings apply to every chassis — annual maintenance savings scale accordingly with the fleet. Threat prevention subscriptions stay independent at Check Point.

How does SGM hot-swap service work?

<strong>SGM hot-swap service is explicitly our strength</strong> and core differentiator in carrier-class NGFW TPM. Security Gateway Modules are compute modules of 41000/61000 chassis architecture — one SGM per slot with dedicated compute (CPU, memory, local storage for module state). With multi-SGM configuration chassis distributes traffic across all active SGMs via internal fabric — SGM failure reduces throughput proportional to number of failed modules, but service function preserved. <strong>Hot-swap procedure:</strong> (1) pre-check of current cluster status via Smart-1 (which SGMs active, how much traffic headroom on remaining SGMs), (2) mark defect SGM as 'removed' in ClusterXL configuration status via Smart-1, (3) traffic migration to remaining SGMs (automatically in background via internal fabric), (4) physical removal of defect SGM from slot, (5) insertion of replacement SGM, (6) automatic discovery by chassis management module, (7) SIC trust establishment with Smart-1 for new hardware serial, (8) configuration push from Smart-1 to new SGM, (9) marking as 'active' in ClusterXL — traffic distributed across all SGMs again. <strong>Pre-conditions for hot-swap:</strong> sufficient redundancy in SGM population (typically 1+1 or N+1 redundancy), Smart-1 configuration considers SGM removal as planned maintenance event, license re-activation with Check Point for new SGM hardware serial (usually coordinated in advance to avoid delays). <strong>Engineering coordination:</strong> our onsite engineer has dedicated 41000/61000 chassis training with service experience in carrier configurations — same service depth as Check Point premium onsite engineers.

Which carrier-class availability guarantees can you deliver?

<strong>Carrier-class SLA with documented availability guarantees</strong> explicitly available for 41000/61000 chassis configurations. Standard SLA: <strong>24×7×4 with 99.99% availability target</strong> (max. 52 minutes downtime per year for hardware maintenance component). Premium carrier SLA: <strong>24×7×2 with 99.999% availability target</strong> (max. 5 minutes downtime per year) — available for DACH main regions with onsite engineer availability under 2 hours plus proactive spare component reservation on-site (typically 1 spare SGM per 4-6 productive SGMs, 1+1 spare PSU reservation per chassis, 1 spare fabric module per chassis site). <strong>SLA reporting:</strong> we deliver monthly SLA reports with documented response times, replacement times, component availability metrics and mean-time-to-replace statistics — explicitly suitable for service provider end customer SLA documentation and regulatory audit trails (banking IT requirements for banks, critical infrastructure regulation for carriers with critical infrastructure status, NIS2 compliance for relevant service providers). <strong>Spare component reservation terms:</strong> for carrier configurations with 99.999% requirement we explicitly recommend spare reservation on-site — on component failure replacement faster than any SLA response time because no lead time. We deliver spare components from our pool at reduced reservation pricing terms. <strong>Multi-chassis HA configurations:</strong> with 2N carrier cluster (two fully redundant chassis as active/standby or active/active) second path operationally counts as immediate backup availability — TPM differentiation possible (24×7×4 for active chassis, 5×9 NBD for standby chassis), individual risk assessment advisable.

Do Threat Prevention, R81/R82 and Smart-1 integration remain unchanged for chassis?

Yes, fully and unchanged — same hardware vs software separation as Quantum branch/mid-market and enterprise. We service exclusively <strong>hardware layer</strong> — all threat prevention subscriptions (IPS, Anti-Bot, Anti-Virus, URL Filtering, Application Control, Threat Emulation/SandBlast, Threat Extraction) and R81/R82 software updates continue unchanged via Check Point. <strong>Specific for chassis configurations:</strong> per SGM runs own R81/R82 instance — software updates centrally coordinated via Smart-1 pushed to all SGMs (typically in maintenance windows with rolling update logic, one SGM after another). <strong>Smart-1 integration for multi-SGM configurations:</strong> Smart-1 sees chassis as logical cluster unit with all SGMs as cluster members, but hardware replacement affects individual SGMs — we coordinate with your Smart-1 admin: SGM replacement leads to temporary cluster member count reduction, new SGM pushed back as cluster member via Smart-1 after hardware swap. <strong>SecureXL/CoreXL per SGM:</strong> each SGM has own SecureXL connection acceleration and CoreXL multi-core distribution — on SGM replacement hardware acceleration configuration migrates with Smart-1 push configuration. <strong>Multi-domain Smart-1:</strong> for larger chassis configurations (typical in service provider with multi-tenant configuration) multi-domain Smart-1 (5050/5150) runs — different tenants have separate Smart-1 domains, each with own R81/R82 subscription and own threat prevention terms. Hardware replacement affects physical SGM, all domain configurations migrated simultaneously via Smart-1 push. <strong>SWIFT network edge at banks:</strong> 41000/61000 in SWIFT network edge configurations have particularly strict software update policy (typically only quarterly update windows with documented pre-production testing) — we coordinate hardware replacement so software update cycles not disturbed.

Which SLA levels do you recommend for service provider, banks and hyperscale?

<strong>Service provider configurations:</strong> 24×7×4 mandatory for all active chassis, often with premium carrier SLA (24×7×2 with 99.999% availability target) for tier-1 mobile backhaul, 4G/5G edge and carrier ethernet aggregation. Service providers typically have own SLA contracts with end customers with documented availability guarantees (typically 99.99% to 99.999%) — our hardware maintenance SLA must support these requirements with documented SLA reporting for end-customer SLA compliance. Plus proactive spare component reservation on-site: 1 spare SGM per 4-6 productive SGMs, 1+1 spare PSU per chassis, 1 spare fabric module per chassis site. <strong>Banking backbone configurations:</strong> 24×7×4 mandatory due to banking IT requirements plus documented SLA reporting for regulatory audit documentation. For DACH large banks with SWIFT network edge often premium carrier SLA (24×7×2 with 99.999%) for SWIFT-relevant chassis. PCI-DSS CDE configurations need separate audit documentation per chassis. <strong>Hyperscale datacenter configurations:</strong> 24×7×4 standard, but with 2N or N+1 redundant chassis architecture standby chassis can have 5×9 NBD — active chassis services traffic during standby hardware swap. <strong>Multi-chassis cluster differentiation:</strong> with 2N active/standby chassis pair: active chassis 24×7×4 or 24×7×2, standby 5×9 NBD. With active/active multi-chassis: all chassis 24×7×4. <strong>Power quality reports and quarterly audits</strong> additional to hardware SLA recommended for regulatory documentation (NIS2 for service providers, banking IT requirements for banks, critical infrastructure regulation for relevant carrier sites).