Cyber Asset Attack Surface Management with Cisco Secure Cloud Insights: Beyond CSPM

In today’s digital-first world having enterprise grade information, services, and workloads in the cloud is becoming increasingly important for success. Nonetheless the lack of asset visibility that haunted private networks has not disappeared in the cloud era; it has been transferred, or some may say even aggravated.

In its Hype Cycle for Security Operations, Gartner has defined Cyber Assets Attack Surface Management (CAASM) as “an emerging technology focused on enabling security teams to solve persistent asset visibility and vulnerability challenges”. This tackles our lack of visibility concerns. However, it extended CAASM’s definition to include “enables organizations to see all assets (both internal and external) through API integrations with existing tools, query against the consolidated data, identify the scope of vulnerabilities and gaps in security controls, and remediate issues.”  This highlights the fact that while there is no lack of data, processing and assessing remains challenging due to silos. This is where Secure Cloud Insights (SCI) steps in.

Secure Cloud Insights (SCI) is a technology that delivers multiple CAASM’s benefits:

◉ Ease of provisioning: Native API integrations make provisioning and deploying SCI a simple task. A wide range of integration types are supported such as cloud providers, vulnerability assessment tools, code repositories, identity sources, endpoint solutions, workflow

◉ Cyber asset visibility and classifications: Numerous pre-defined integrations feeds SCI with diverse assets and asset types and their associated “state” or “configuration” that defer from one integration to the other. The graph database and the classification engine play a big role in grouping assets by their class and type. For example a data store class contains asset types such as an S3 bucket, EFS, google storage bucket, etc.

Mapping asset relationships: SCI maps asset based on their relationships as shown below: A security group ‘Allows’ access to the internet and ‘Protects’ an EC2 instance (Figure 1).

Figure 1

This Instance ‘Uses’ a specific role (Figure 2)

Figure 2

This role is ‘Assigned’ a policy that ‘Allows’ full control to an S3 bucket(Figure 3)

Figure 3

This graph not only reveals the connected asset types with various relationships but also expands to disclosing the risk of having the publicly accessible instance compromised, which leads to the exposure of data in the private S3 bucket to leakage or destruction.

◉ Flexible asset querying: SCI’s simple query language and relationship graph database structure make it easy to query the data to answer questions that are the bread-and-butter of security teams, such as:

    ◉ Which hosts are vulnerable in my environment?

    ◉ Who has not completed the required security training?

    ◉ Are my data stores encrypted at rest?

    ◉ …

◉ Expansive Question Library: The querying language is expanded in SCI with a built-in library of more than 650 security questions that makes it easier to answer challenging enquiries with simple spoken language without having to learn the technicalities of the underlining querying language.

◉ Compliance reporting and configuration drifts detections: SCI supports pre-built security compliance frameworks including SOC2, HIPAA, FedRAMP, CIS benchmarks etc. SCI simplifies configuration drift detection with always-on compliance and gap analysis that does not wait for auditors to knock asking for reports. Moreover, SCI eliminates another layer of time-consuming processes by removing the need to contact system owners for evidence collection by automating it where applicable.

Secure Cloud Insights ticks all the boxes for a CAASM solution and goes beyond by offering simplicity and flexibility in operation with built-in customizable question library and reporting features that focus on security gaps and compliance drifts.

In fact, every feature is built on top of graph relationship database and the simple querying language that makes any piece of data accessible and visible with a simple modification of the query as per the user needs. SCI emerges from the realm of CAASM and CSPM by turning into a framework that answers security team challenges around visibility, compliance, threat risk, incident impact investigation, threat blast-radius and many others with simple few clicks.

Source: cisco.com

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Cisco MDS 64G SAN Analytics: Architecture evolution

Cisco recently announced software availability of NX-OS 9.2(2) with support for SAN Analytics on the Cisco MDS 9700 Series switches with 64G Modules. This software release begins the next phase in the architecture evolution of SAN Analytics.

In this blog we will do a high-level comparison of SAN Analytics Architecture between the Cisco MDS 32G and 64G platforms and look at some of the new innovations of Cisco MDS 64G SAN Analytics.

But first, let’s cover methodologies used for performance monitoring. Utilization, Saturation and Errors (USE) is a generic methodology for effective performance monitoring of any system. The USE metrics identify performance bottlenecks of a system. In the context of a storage system, we can add Latency as an additional element into the USE methodology to create LUSE. A full visibility into LUSE metrics of a storage infrastructure is critical for performance monitoring and troubleshooting.

SAN Analytics and SAN Insights are advance features of the Cisco MDS 32G switches since NX-OS 8.3(2):

◉ SAN Analytics is an advance feature of Cisco MDS switches that collects storage I/O metrics from switches independent of host and storage systems. Over 70 metrics are collected per-port, per-flow (ITL/ITN) and streamed out. These metrics can be classified into one of the ‘LUSE’ categories.

◉ SAN Insights is a capability of Cisco Nexus Dashboard Fabric Controller (Formerly DCNM) SAN that receives the metrics stream from SAN Analytics. It provides the visualization and analysis of fabric wide I/O metrics using the ‘LUSE’ framework.

Cisco MDS 32G SAN Analytics

Access Control Lists (ACL) enforce access control on every frame switched by the ASIC. The ACLs are matched extracting certain fields from the frame header and on a match the action corresponding to the entry is taken. On an F-port, FC Hard Zoning entries are programmed as ACLs in the ingress direction based on Zoning configuration to match on the frame SID and DID with an action to “forward” the frame to the destination.

On Cisco MDS 32G switches, the I/O metrics are computed by capturing FC frame headers in the data path using an ACL based ‘Tap’ programmed in the ASIC on ingress and egress direction of the analytics enabled ports. These Tap ACLs match on frames of interest for Analytics viz. CMD_IU, 1st DATA_IU, XRDY_IU, RSP_IU and ABTS. A copy of the frame matching the Tap ACL is forwarded to an on-board NPU connected to the 32G ASIC.

When SAN analytics is enabled on a port, the ACLs are programmed depending on the port type and direction as shown in Figure 1 below:

◉ F_Port Ingress: Analytics Tap ACLs + Zoning ACLs

◉ F_Port Egress, E_Port Ingress, E_Port Egress: Analytics Tap ACLs only

Figure 1: Port Analytics Tap and Zoning

 

The Cisco MDS 32G NPU software Analytics Engine can be modified to accommodate custom metrics (Eg: NVMe Flush command metrics) or futuristic storage command sets (Eg: NVMe-KV) with the required ACL Taps in place.

Cisco MDS 64G SAN Analytics

The Analytics Engine moves into the ASIC on Cisco MDS 64G switches, giving it a hardware acceleration. The Cisco MDS 64G Module has two 64G ASICs and each ASIC has six hardware Analytics Engines (one for every four ports). These Analytic Engines can compute I/O metrics at line rate on all ports simultaneously with capacity to analyze upwards of 1 billion IOPS per Module. The hardware Analytics Engines have built-in Taps and do not need the ACL based Taps to be programmed.

The metrics computed by hardware Analytics Engines are stored in a database inside the ASIC and periodically flushed to the NPU. The NPU runs a lightweight software process on top of DPDK (an open source highly efficient and fast packet processing framework) that collects and accumulates the metrics pushed periodically from the hardware Analytics Engine. Even though the NPU does not run an Analytics Engine, it maintains the persistent metrics database per-flow and remains the critical element of the solution. The shipping of metrics from the NPU database to the Supervisor is identical to the Cisco MDS 32G Architecture. The Cisco MDS 64G hardware Analytics Engine does not preclude a NPU software Analytics Engine to be enabled in a future software release for flexibility and programmability benefits.

A comparison of the Cisco MDS 32G and MDS 64G architectures are shown in Figure 2 below:

Figure 2: Cisco MDS 32G and MDS 64G SAN Architectures

The Cisco MDS 64G hardware Analytics Engine computes some additional metrics for deeper I/O visibility:

◉ Multi-sequence write I/Os are large writes involving multiple XRDY sequences. The write exchange completion time for these writes include delays introduced by the Host (Rx XRDYn to Tx first DATAn+1) and the Storage (Rx Last DATAn-1 to Tx XRDYn). These metrics provide better analysis and accurate pinpointing of large write performance issues. The Analytics Engine separately tracks:

    ◉ Avg/Min/Max host write delay

    ◉ Avg/Min/Max storage write delay

◉ The total busy time metric tracks the total time there was at least one outstanding I/O per-flow. This metric helps to characterize the ‘busyness’ of a flow relative to other flows.

The hardware Analytics Engine by default tracks SCSI and NVMe I/O metrics at ITL/ITN granularity. However, it can also be programmed to track metrics for various flow granularity of IT, ITL-VMID, ITN-NVMeConnectionID or ITN-NVMeConnectionID-VMID. This gives flexibility in choosing the granularity of metrics and I/O visibility.

The 1GbE analytics port on the Cisco MDS 64G Module can stream the per-flow metrics directly (without involvement of Supervisor) in an ASIC native or standard gPB/gRPC format. This can serve future use-cases that require visibility into micro telemetry events, which would require high frequency telemetry streaming.

Source: cisco.com

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The SASE story: How SASE came to be, and why it has quickly become the default architecture

Secure Access Service Edge (SASE) has quickly become one of the hottest topics related to cloud, networking, and security architectures. As Cisco engineers, we have seen hesitation and confusion among some customers on what SASE really means. We hope to answer most of those questions here.

What is SASE, and how is it related to the Cloud Edge, Zero Trust, and SD-WAN? SASE has positively impacted how we run our IT organization, and how we envision Enterprise IT customers will run theirs. To accurately explain what SASE is, and why SASE came to be, we must look at the evolution of how data is stored and transported within an enterprise.

Our journey started inside the data center

A decade ago, many of us lived in a data Center-centric world, and security was simpler to implement.  Here at Cisco, we were moving data inside the four walls of our data centers, and  we assumed complete trust. The corporate office, the MPLS circuits between sites, and the Cisco data centers were all within a trusted environment, which enabled us to meet our security and compliance requirements.

Move to hybrid cloud and hybrid work

However, while many enterprises still focus on data center-centric applications for their core business needs, the world is shifting towards cloud-based application development. This enables faster and more efficient deployment of software and services to meet ever-changing business needs.

IT organizations have also shifted from a model of only managed devices (PC or laptop) for use within the trusted corporate network to allowing users to work on multiple devices from just about anywhere. The emergence of BYOD (Bring Your Own Device) as well as remote work had already been gaining traction in the industry over the past few years, and this trend significantly accelerated with the onset of the COVID-19 pandemic. Now, employees are expected to be able to work from anywhere, and any device. Combined with the distribution of resources across on-prem networks and the cloud, Hybrid Work presents a significant security problem as business users and application providers are no longer fully controlled by the IT organization.

To address security concerns in the interim, network architects designed a model where all user/cloud interactions were routed back, or backhauled, through a data center — i.e. the trusted entity — prior to being redirected to the cloud application. While meeting the security needs, this model has performance and cost challenges.

Arriving at SASE

To improve security and efficiency, a SASE-like architecture was developed internally by Cisco IT. The model we used for the architecture provides every user with a security profile tailored to their access privileges and uses a Zero-Trust approach to identify and authenticate users and devices before allowing a direct connection between the cloud and the access edge.

Ultimately, SASE is the convergence of networking and security functions in the cloud to deliver reliable, secure access to applications, anywhere users work. The Cisco SASE model works by combining SD-WAN for network, with cloud-based security capabilities such as Secure Web Gateway, Firewall as a Service, Cloud Access Security Broker, and Zero Trust Network Access into one, single, integrated cloud service.

CloudPort and the evolution of SASE at Cisco

Cisco’s SASE journey started with CloudPort, which was a hardware-based, on-prem, self-managed Cloud Edge platform, delivered at Colocation data centers around the world. While CloudPort provided a single platform that delivered network and security, it also brought cost challenges, used a traditional perimeter security, and required both agility to scale up/down as well as specialized skillsets.

To address these challenges, we first modernized the on-prem CloudPort solution, and put in motion a plan to move from on-prem to as a service or hosted SASE capabilities. The Customer Zero team, which deploys emerging technology in real life environments to provide critical feedback to the BU early in the product lifecycle, created a strategy to move to SASE, testing do-it-yourself and as-a-service models. The findings from the Customer Zero internal testing have guided our external offering strategy.

During this testing period, Cisco IT has moved from a ‘do-it-yourself’ model to a Cisco hosted/managed solution.

Source: cisco.com

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Moving Towards a Culture of Systemic Software Quality at Cisco

When software development involves many developers and components, the tools and techniques that are used to maintain software quality need to evolve beyond simply code and test. With bugs still making it into releases, we clearly do not have a foolproof process. So, what will it take to enhance software quality from development to release?

Here are key considerations that go into maintaining software quality.

Beyond Unit Testing

Bugs, or  software defects, are regular part of  software engineering. For smaller projects, it is enough to write the code, put it through some tests, fix any bugs resulting from the tests, and then declare it done. If you are a fan of Test-Driven Development, (TDD) you can do the reverse, where you write the tests first and then write the code to pass the tests.

Both approaches are unit test approaches and can be used to validate that the unit under test performs the function that it was designed to do. Furthermore, if you archive the tests, you have the beginning of a set of regression tests that will allow the developer to validate that any changes made to the unit still allow the unit to function as originally designed.

The development of a strong unit-testing framework is one of the foundations of software quality but this, alone, is not enough to ensure software quality. This type of testing assumes that if the units are working fine, then the sum of the units is working fine. The other issue is that as the number of software units grows, maintaining and running the increased number of tests—that can grow to thousands—becomes an onerous chore.

Tests of Tests

Taking testing to the next level, unit tests move into feature and solution tests. These tests start with a functioning system and then exercise the interfaces from the perspective of an end operator. Configuration changes, different packets, different connecting systems, topologies, and other elements are tested using automated tests that try to ensure that the software works as intended. These tests do a good job of ensuring that what has been tested works, but the runtime and the resources involved can be staggering. It is not uncommon to have to book test runs six months in advance and a run can take a week or two to complete.

Code Analysis

Another aspect of software quality is the software itself. From the bottom up, the code needs to be well written to reduce software defects. Beginning with the assumption that the developer knows what they are doing, the code is inspected by both other developers in code reviews and by automated tools via static analysis. Both are important, but they often suffer from a lack of context. The static analysis tools can only identify  an objective problem with the code. It raises the bar to eliminate language and coding errors, but semantic and contextual details are required to ensure quality.

Code reviews by other developers are invaluable and catch lots of issues. But of all the quality review techniques that are used, they vary the most in efficiency.  A good reviewer can dig through issues, interactions, and problems that automated tools and testing don’t find. But a reviewer who is unfamiliar with the code can do little more than check the style guidelines

Designing for Quality Software

Creating quality code is sometimes not just about translating functional ideas into code. Some quality defects, though avoidable in perfectly written code, are common enough to be a recognized fact in certain environments. For example, when writing in C, there is no memory management, so memory leaks are prevalent in the code. Other programming languages have automatic garbage collection where leaks that show up as memory exhaustion are not an issue.

There are two general approaches to designing quality into software.

The first approach is the more traditional route where explicit software constructs are introduced, and the software is migrated to use them. Introducing standard libraries for common functionality is an obvious approach, but this can be very extensive with entire frameworks being developed to corral the application code to only focus on what is core to its functionality. Another twist on this is using code rewrite tools that will migrate existing applications to new infrastructure.

The second approach is something that the Cisco IOS XE development team has been experimenting with for the past five years and that is to insert structural changes underneath the application code without any changes to the code. This means instrumenting the common point that the code needs to use the compiler, to add the infrastructure changes across the entire code base. The benefit here is that a large amount of code can be changed to a different runtime. The downside is that often the application code has no awareness of a runtime underneath it, which can lead to some surprising behaviors. Since these are compiler instrumented changes, the surprises generally involve the Assembler code not matching the C code.

Quality Framework

All these different quality measures amount to a process that is somewhat like the Swiss cheese model of quality (Figure 1). Only when all layers have failed does an issue get through to the field.

Figure 1. The Swiss Cheese Model of Software Problem Visibility

The process has accidently evolved into this and there are continual improvements to be made to the system. Additional layers need to be added that ensure quality from different perspectives. Efficiency between the test layers also needs to be improved so that the same tests are not being run in multiple layers. Finally, engineers need to be aware of the interplay between the layers so that they can accurately diagnose and fix issues.

The process by which quality software is delivered to the market continues to evolve. By structuring the process to cover a diverse range of activities—from unit, feature, and solution testing to code reviews by humans, static analysis tools, and quality design frameworks —Cisco IOS XE developers can deliver software that can reliably run enterprise networks around the world.

Source: cisco.com

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300-810 CLICA: Pass Cisco CCNP Collaboration Exam in First Attempt

 

Cisco CLICA Exam Description:

The Implementing Cisco Collaboration Applications v1.0 (CLICA 300-810) exam is a 90-minute exam associated with the CCNP Collaboration and Cisco Certified Specialist - Collaboration Applications Implementation certifications. This exam tests a candidate's knowledge of collaboration applications, including single sign-on, Cisco Unified IM and Presence, Cisco Unity Connection, Cisco Unity Express, and application clients. The course, Implementing Cisco Collaboration Applications, helps candidates to prepare for this exam.

Cisco 300-810 Exam Overview:

• Exam Name- Implementing Cisco Collaboration Applications
• Exam Number- 300-810 CLICA
• Exam Price- $300 USD
• Duration- 90 minutes
• Number of Questions- 55-65
• Passing Score- Variable (750-850 / 1000 Approx.)
• Recommended Training- Implementing Cisco Collaboration Applications (CLICA)
• Exam Registration- PEARSON VUE
• Sample Questions- Cisco 300-810 Sample Questions
• Practice Exam- Cisco Certified Specialist Collaboration Applications Implementation Practice Test

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1. Cisco 300-810 CLICA Practice Tests- A Smart Way of Preparation
2. Grab Chance to Boost Your Career with Cisco 300-810 CLICA Exam with Practice Test

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“Powering Hybrid Work” in Financial Services

The question that I get asked most often by financial services CXO’s is “how do we move beyond just ‘supporting’ Hybrid Work to ‘powering’ Hybrid Work with the right technology stack so that we can address the challenges of attracting and engaging an evolving workforce and keep the organization moving forward in an agile and sustainable way.”

Throughout the pandemic, financial services firms have been prioritizing health and safety of their employees by implementing hybrid work whilst abiding by guidelines and regulations. However, not everyone has had success with their “hybrid work” deployments. Those that have got it right to some extent are realizing the benefits

A large number of financial services firms have struggled to implement “an optimum workable hybrid work model”. The challenge is they have tried to retrofit “remote work implementations” with technology upgrades and add-on’s as guided by their many different technology partners.

Hybrid Work in the context of financial services can be defined as an employee centric, business transformative approach that designs the work experience around and for the employee, wherever they are. It empowers employees to work onsite, offsite, and move between locations with uniform access to all the business tools and resources in a highly secure, compliant and efficient manner thus promoting inclusiveness, engagement, and well-being for all employees while driving employee performance, business productivity and talent retention.

While a future-proofed technology stack is a critical pillar of the hybrid work model, getting Hybrid Work to work also requires reimagining current and emerging operating models and optimizing them such that employee engagement, experience and well-being is enhanced while financial services delivery just keeps getting better with more delighted customers.

Financial services firms that have their operating models reimagined/transformed to support the hybrid work model have the first mover advantage of becoming fully resilient businesses, ready to weather any storm.

A “Hybrid Work Powered” operating model for financial services firms should at the least have the  following 5 characteristics :

1. INCLUSIVE – offering equal experiences for everyone. Enables firms to provide a work environment where every employee can participate fully and be seen and heard equally.

2. FLEXIBLE – adapting to any work style, role, and environment. Enables employees spread across different office locations, types (home etc.), time zones and even countries, working at different hours have access to flexible tools that can address their different needs while adapting to their work styles, roles, and devices.

3. SUPPORTIVE – focusing on safety, empathy, and well-being.  Enables firms to promote a supportive mindset throughout every level of the organization thus ensuring that employees are comfortable with ways of working and feel safe, secure, supported, included, and cared.

4. SECURE – being secure by design, private by default.  Enables employees to have worry-free access to reliable and secure connectivity and secure app experiences thus ensuring all team members can work and collaborate with confidence anywhere they choose to work and have consistent, uninterrupted access to the required applications.

5. MANAGED – delivering modern infrastructure, frictionless administration. Enables IT teams to operate and manage the complex and dynamic hybrid work environment, using an approach known as full-stack observability which delivers optimized user experiences and enhanced enterprise technology management.

To get “hybrid work to work”, financial services firms need to reimagine/transform their operating models to deliver the key characteristics mentioned earlier and not just depend on “retrofitting” their existing IT stacks with hybrid work enabled “siloed” products.

Investing in a “future-proofed hybrid work technology stack” such as Cisco’s “secure-by-design*” Hybrid Work Solution Technology Stack enables financial services firms to reimagine/transform their operating model thus moving past “supporting” to “powering” Hybrid Work in a highly secure and compliant manner by empowering workers to work from anywhere, at home or in the office while also providing a positive outcome for every business sponsor and stakeholder (HR, Facilities, IT etc.) who are involved in defining and implementing the financial services firms hybrid work strategy.

Source: cisco.com

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Continuous value delivered with new Cisco SD-WAN innovations

IT teams need agile delivery to keep pace with business demands. Today, enterprises are in the process of transitioning to a hybrid workforce, another rapid pivot that requires agile delivery. It’s essential to adapt to the new paradigm and in doing so, seek to minimize costs while still improving productivity, security, and the user experience. Cisco software platforms, like Cisco SD-WAN provide continuous value with new capabilities enabled in software.

Our latest Enterprise Networking release helps with this transition to hybrid work and provides value with innovations that provide greater integration that can reduce OpEx and CapEx spending and simplify operations. See the details below on new features in this release to help your IT team increase business agility and deliver more value for your organization.

First Cloud OnRamp for SaaS to optimize Webex experience

To improve and enhance the user experience for organizations, in our latest release (17.7) we are announcing Cisco SD-WAN Cloud OnRamp for SaaS integration with Webex. Cisco SD-WAN is the first solution to provide this level of integration and automation.

Cisco enables users to optimize Webex connectivity and performance when using Cisco SD-WAN. It does this by continuously monitoring all possible paths to Webex, and intelligently routing cloud application traffic to the best performing path, providing a fast, secure, and reliable end-user experience – and without human intervention.

The ultimate value for the users is that Cloud OnRamp for SaaS delivers path optimization and policy automation for Webex, so enterprises will be able to deliver a better application experience for their customers and employees.

Simplify CUBE functionality embedded in routers with Cisco SD-WAN

The new release enables native Cisco Unified Border Element (CUBE) support on Cisco enterprise routing platforms. CUBE is an enterprise-class Session Border Controller (SBC) performing critical voice routing, security, interworking and session management functions. Supported platforms include: ISR 4000, ISR 1100, and Catalyst 8200 as well as other ASR models.

The integration of this functionality into Cisco SD-WAN empowers customers to leverage the edge platforms to route collaboration application traffic between SD-WAN enabled nodes either within an enterprise (for on-prem deployments) or private / public cloud-based solutions. Customers can enable SBC functionality on their existing SD-WAN platforms allowing them to consolidate capabilities into a single platform, eliminating the need for an additional appliance. This integration reduces the number of platforms to purchase, license, power and manage; simplifies network architecture; and lowers costs and complexity.

Ease operations with vManage Enhanced UX for Network Monitoring

Cisco is introducing enhanced vManage UX capabilities that enables IT managers and network operators to centrally automate the entire SD-WAN fabric, all in a highly visualized and intuitive user experience.

vManage is the single centralized dashboard for Cisco SD-WAN, addressing traditional challenges associated with device configuration, network management, and network monitoring with automation. It offers a highly visualized and intuitive user interface that simplifies and expedites network management and monitoring of SaaS, IaaS, and security for network operators.

vManage offers the following advantages:

◉ Intuitive user interface for easy consumption.

◉ Highly visualized network monitoring.

◉ Pre-configured templates automate and expedite the deployment of most common use cases.

◉ Guided step-by-step configuration designed to intelligently expedite onboarding of new devices.

◉ Expedite the Cisco ThousandEyes agent deployment for enhanced visibilities into internet, cloud, and SaaS

◉ Migrate to a SASE architecture with Cisco Umbrella

Greater reliability and resiliency with Cisco Integrated Services Router 1131 

Cisco Integrated Services Router 1131 with WiFi-6 and 5G pluggable interface module

Cisco is introducing the next iteration of Cisco Integrated Service Router (ISR) optimized for cloud connectivity with built-in Wi-Fi 6 and pluggable 5G support for enhanced connectivity.

Built-in Wi-Fi 6 adds additional flexibility and scalability to existing networks, and pluggable 5G technology can provide greater reliability and resiliency. There is also support for full-stack security, including application aware firewall, IPS, URL-filtering, AMP, and Thread Grid.​

SD-WAN has evolved beyond simply connecting users at the campus to applications in the datacenter. The value of network connectivity is the lifeblood of any enterprise today. The ability to connect users reliably and securely across multicloud, branch, datacenters, and hybrid workforce becomes a critical success factor to any organization.

Source: cisco.com

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