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NEW QUESTION # 15
In the Zscaler Client Connector (ZCC) Admin Portal, which posture element is supported on Windows but not on macOS?
- A. Domain Joined
- B. Full Disk Encryption
- C. Client Certificate
- D. CrowdStrike ZTA Sensor Setting Score
Answer: D
Explanation:
Zscaler's Device Posture framework in Client Connector supports a broad set of posture checks on both Windows and macOS, such as Certificate Trust, Client Certificate, Firewall status, Full Disk Encryption, Domain Joined, and multiple EDR detections. These are listed in Zscaler technical training material as common capabilities for "Windows und macOS." However, Zscaler's advanced integration with CrowdStrike introduces additional posture signals based on Zero Trust Assessment (ZTA). In the same material, CrowdStrike ZTA Score is explicitly annotated with a Windows-specific minimum version ("CrowdStrike ZTA Score (Win v.3.4.0+)"), highlighting that this ZTA- based posture is implemented for Windows only in the current releases, while the shared list for macOS does not include its own ZTA-specific version.
The newer ZTE/EDU-202 engineer materials build on this by describing separate ZTA Device OS and Sensor scores, and the exam maps this Windows-only ZTA enforcement to the CrowdStrike ZTA Sensor Setting Score option. In contrast, Client Certificate, Full Disk Encryption, and Domain Joined are documented as cross-platform posture types, not restricted to Windows.
NEW QUESTION # 16
A customer requires 2 Gbps of throughput through the GRE tunnels to Zscaler. Which is the ideal architecture?
- A. Two primary and two backup GRE tunnels from internal routers with NAT enabled
- B. Two primary and two backup GRE tunnels from border routers with NAT disabled
- C. Two primary and two backup GRE tunnels from border routers with NAT enabled
- D. Two primary and two backup GRE tunnels from internal routers with NAT disabled
Answer: B
Explanation:
Zscaler design guidance for GRE connectivity emphasizes three key principles: terminate GRE on border (edge) devices, avoid NAT on GRE source addresses, and scale bandwidth by using multiple tunnels. In Zscaler documentation and engineering training, each GRE tunnel is typically sized for up to about 1 Gbps of throughput. For a 2 Gbps requirement, customers are advised to deploy at least two primary GRE tunnels, with two additional backup tunnels for redundancy and failover.
These tunnels should terminate on border routers that own public IP addresses, ensuring optimal routing and simplifying troubleshooting. Zscaler specifically recommends that the public source IPs used for GRE must not be translated by NAT, because the Zscaler cloud must see the original, registered public IP to associate tunnels with the correct organization and enforce policy. Enabling NAT on GRE traffic can break tunnel establishment and lead to asymmetric or unpredictable routing.
Using internal routers introduces extra hops and complexity and often requires NAT or policy-based routing, which goes against recommended best practices. Similarly, any architecture with NAT enabled on GRE traffic conflicts with Zscaler's published requirements. Therefore, the ideal and recommended design for 2 Gbps via GRE is two primary and two backup GRE tunnels from border routers with NAT disabled.
NEW QUESTION # 17
A security analyst is configuring Zscaler Data Loss Prevention (DLP) policies and wants to ensure that sensitive files are accurately identified and inspected. They ask about the methods Zscaler DLP uses to inspect files and detect potential data leaks.
What are the three levels of inspection that Zscaler DLP employs to accurately identify and inspect files?
- A. Magic Bytes, MIME type, and file extension
- B. File header, file extension, and file signature
- C. Magic Bytes, MIME type, encryption status
- D. File header, file extension, and encryption status
Answer: A
Explanation:
The Data Protection section of the Zscaler Digital Transformation study guide explains that, before applying DLP dictionaries, IDM/EDM, or OCR, Zscaler must reliably determine the actual file type being inspected.
To prevent simple evasion techniques (for example, renaming an executable to .pdf), Zscaler performs a three-layer file-type inspection.
The documentation states that Zscaler first examines the file's "magic bytes" (the signature in the file header), then validates the MIME type reported by the content, and finally compares these to the file extension seen in the transaction. This layered approach ensures that if a user tampers with the extension or the declared MIME type, the underlying binary signature will still reveal the true file type, allowing the correct DLP engine and policy to be applied.
Other attributes like encryption status are indeed considered elsewhere in the DLP workflow (for example, to understand if a file can be decrypted or inspected), but the study guide is explicit that the three levels of file- type inspection are Magic Bytes, MIME type, and file extension, matching option B.
NEW QUESTION # 18
At which level of the Zscaler Architecture do the Zscaler APIs sit?
- A. Data Fabric
- B. Nanolog Cluster
- C. Enforcement Plane
- D. Central Authority
Answer: D
Explanation:
Zscaler's core architecture in the Engineer course is explained using three main layers: Central Authority, Enforcement Nodes, and Logging / Nanolog services, supported by a distributed data fabric. The Central Authority is explicitly described as the "brains" or control plane of the Zscaler platform. It is responsible for global policy management, configuration, orchestration, and the API gateway that exposes Zscaler's administrative and automation APIs.
Enforcement nodes (such as ZIA Public Service Edges and ZPA enforcement components) form the data plane, inspecting traffic and applying policy decisions but not hosting the management APIs themselves.
Nanolog clusters handle large-scale log storage and streaming, providing logging and analytics rather than control or configuration interfaces. The data fabric underpins global state and synchronization across the cloud but is not where customers interact with APIs.
In the Digital Transformation Engineer material, when you see references to OneAPI and other programmatic integrations, they are always associated with the Central Authority layer, reinforcing that APIs live in the control plane. Therefore, within the defined Zscaler Architecture levels, the APIs sit at the Central Authority.
NEW QUESTION # 19
Which user interface aims to simplify Zero Trust adoption and operations by providing an intuitive interface for all administrative users?
- A. OneAPI
- B. ZIA
- C. Zscaler Experience Center
- D. ZIdentity
Answer: C
Explanation:
Zscaler Experience Center is the unified, next-generation administration console designed to simplify Zero Trust adoption across the entire Zscaler platform. Zscaler describes Experience Center as a single, centralized command console that brings together management for Zscaler Internet Access (ZIA), Zscaler Private Access (ZPA), Zscaler Digital Experience (ZDX), Risk360, and other services in one place.
The official guidance states that Experience Center "aims to simplify Zero Trust adoption and operations by providing an intuitive interface for all administrative users." It introduces persona-driven workflows, consistent navigation, and a common policy framework across internet, SaaS, and private applications. This allows security, networking, and operations teams to configure access control, threat protection, data protection, and digital experience policies through a single, coherent UI instead of juggling separate consoles.
By contrast, OneAPI is a programmatic automation interface, not a graphical admin UI. ZIA is a core product whose original admin portal handles secure internet and SaaS access, but it is just one component of the broader platform. ZIdentity provides centralized identity and admin-role management, not the full Zero Trust operations UI across all services. Therefore, the correct answer that matches the stated goal and wording is Zscaler Experience Center.
NEW QUESTION # 20
Any Zscaler Client Connector (ZCC) App Profile must include which of the following?
- A. Authentication Profile
- B. Exception Profile
- C. Forwarding Profile
- D. Bypass Profile
Answer: C
Explanation:
Within the Zscaler Client Connector administration portal, an App Profile defines how the client behaves for a set of users or devices. A key element of any App Profile is the associated Forwarding Profile. The Forwarding Profile tells the Zscaler Client Connector how to handle traffic in different network conditions:
for example, whether to send traffic through Z-Tunnel 2.0 to ZIA and/or ZPA, rely on a PAC file, or bypass Zscaler when on trusted networks.
When you create or edit an App Profile, selecting a Forwarding Profile is mandatory because it determines how user traffic will actually reach the Zscaler cloud. Without a Forwarding Profile, the App Profile would not know which forwarding mode to use, and the client would have no consistent instructions on when and how to tunnel or bypass traffic. In practice, customers often define multiple Forwarding Profiles (for example,
"ZIA-only," "ZPA-only," or "ZIA and ZPA") and then bind them to different App Profiles for different user groups or device types.
"Bypass," "authentication," or "exception" profiles are not separate required profile objects in the ZCC policy model. Any bypass or exception behavior is defined inside the forwarding and app profile logic, not as standalone mandatory profiles. Therefore, a Forwarding Profile is the one element that every ZCC App Profile must include.
NEW QUESTION # 21
Which set of protocols was developed to provide the most secure passwordless authentication methods, using services such as Windows Hello and YubiKey?
- A. SAML
- B. SCIM
- C. OpenID
- D. Fast Identity Online 2 (FIDO2)
Answer: D
Explanation:
FIDO2 (Fast Identity Online 2) is a family of open authentication standards designed specifically to enable strong, phishing-resistant, passwordless authentication. It combines the WebAuthn standard (for browsers and web applications) with the CTAP protocol (for communicating with authenticators such as security keys).
Vendors like Microsoft explicitly describe Windows Hello and FIDO2 security keys as passwordless sign-in mechanisms, and Yubico likewise highlights FIDO2 support on YubiKey devices for passwordless and multi- factor authentication.
Zscaler's identity-related documentation and partner guides reference FIDO2 and passwordless methods such as Windows Hello for Business and FIDO2-based passkeys as modern options that integrate with identity providers (e.g., Microsoft Entra ID / Azure AD) and can be used for Zscaler authentication flows.
By contrast, SCIM is a provisioning standard for user and group lifecycle management, not an authentication protocol. OpenID (and OpenID Connect) and SAML are federation and SSO protocols that typically still rely on passwords or existing credentials at the identity provider, even though they may be used alongside MFA.
Only FIDO2 is purpose-built for secure, hardware- or device-bound, passwordless authentication with biometrics or secure PINs, which is exactly what the question describes with examples like Windows Hello and YubiKey.
NEW QUESTION # 22
What is one key benefit of deploying a Private Service Edge (PSE) in a customer's data center or office locations?
- A. It allows users to access private applications without encryption overhead for increased performance.
- B. It replaces the need for a Zscaler App Connector in the environment and simplifies the network.
- C. It provides Zero Trust Network Access policies locally, improving user experience and reducing latency.
- D. It eliminates the need to use Zero Trust Network Access (ZTNA) policies for internal applications.
Answer: C
Explanation:
The ZDTE study content groups Private Service Edge under Advanced Platform Services, explaining that PSEs host the same Zero Trust Exchange policy and inspection engines, but run as customer-managed service edges inside data centers or large offices. They are designed to give on-premises users a "local on-ramp" to ZIA and ZPA services while still enforcing full zero-trust policy.
The documentation emphasizes that PSEs do not replace App Connectors for ZPA; connectors are still required to establish inside-out application connectivity. Nor do PSEs remove the need for ZTNA policies- those policies remain central and are simply enforced closer to the user. Encryption is also preserved end-to- end; there is no "unencrypted fast path" described in the reference architecture.
Instead, the primary benefit highlighted is performance and user experience: by enforcing ZIA/ZPA policies at a local PSE rather than a distant public service edge, organizations reduce round-trip latency and keep traffic on optimal paths while maintaining identical security and access controls.
NEW QUESTION # 23
How many minutes of data can the Log Streaming Service retransmit once the connection is restored between App Connectors and Zscaler Private Access (ZPA)?
- A. Last 60 minutes
- B. Last 15 minutes
- C. Last 20 minutes
- D. Last 30 minutes
Answer: B
Explanation:
Zscaler Private Access (ZPA) uses the Log Streaming Service (LSS) to deliver ZPA logs (such as user activity and connector/authentication logs) to external SIEM and analytics platforms. LSS relies on a ZPA App Connector as the local relay between the ZPA service and the downstream log receiver. If network connectivity between ZPA and the local App Connector is interrupted, log delivery may be temporarily disrupted.
According to Zscaler integration guidance, when connectivity between ZPA and the local App Connectors is restored, LSS can retransmit up to 15 minutes of previously undelivered log data, although this retransmission is not guaranteed in all circumstances. This limited replay window is designed to provide reasonable resilience for short outages without requiring large local storage on the connector.
The 15-minute buffer applies specifically to ZPA log streaming scenarios and is distinct from longer-term log retention in Zscaler's logging cluster or external SIEM. Options A, C, and D overstate the supported replay duration and do not match Zscaler's documented behavior. To minimize log gaps beyond this 15-minute window, Zscaler recommends resilient network paths for App Connectors and careful monitoring of connector health so that LSS can operate continuously.
NEW QUESTION # 24
Which type of sensitive information can be protected using OCR (Optical Character Recognition) technology?
- A. Network configurations
- B. Software licenses
- C. Personally Identifiable Information (PII)
- D. Financial transactions
Answer: C
Explanation:
Zscaler's Data Protection platform integrates Optical Character Recognition (OCR) into its inline Data Loss Prevention (DLP) capabilities. OCR enables Zscaler to extract text embedded within images-such as screenshots, scanned documents, or photos of forms-and subject that text to the same DLP inspection engines that normally analyze plain text content.
Once OCR has converted image content into text, Zscaler can apply predefined dictionaries, custom dictionaries, and advanced classifiers to detect sensitive data types, including personally identifiable information (PII) such as national ID numbers, passport numbers, addresses, or other regulated personal data. This is crucial because many data leaks occur via screenshots or scanned documents that traditional, text- only DLP engines would miss.
While OCR could, in theory, detect patterns related to network configurations, software licenses, or financial transactions, Zscaler's training and exam materials emphasize its use to protect sensitive data in images- especially user-related regulated data such as PII and other compliance-relevant information. Network configurations and software licenses are better addressed through configuration management and IP protection policies, and "financial transactions" describes activities rather than a specific information pattern.
Therefore, Personally Identifiable Information (PII) is the best and most exam-accurate answer for the type of sensitive information protected using OCR.
NEW QUESTION # 25
What type of data would be protected by using Zscaler Indexed Document Matching (IDM)?
- A. Specific, sensitive pieces of data such as customer credit card numbers and employee national identity numbers.
- B. Excel sheets and other numerically based document types that usually contain proprietary financial calculations.
- C. Sensitive data found in image files such as JPEGs and PNGs, or images embedded in documents like a Word file.
- D. High-value documents that tend to carry sensitive data, such as medical forms and tax documents.
Answer: D
Explanation:
Zscaler Indexed Document Matching (IDM) is a DLP technique used to protect entire documents or large portions of text-based content, rather than discrete data fields. Administrators upload representative samples of "crown jewel" documents (for example, contract templates, medical forms, HR records, or tax documents).
Zscaler processes and indexes the textual content, then uses this index to detect when similar or identical document content is uploaded, shared, or exfiltrated through monitored channels.
This approach is ideal for high-value, unstructured documents that contain sensitive information in a repeatable format. It is distinct from Exact Data Match (EDM), which is used for structured field-level data such as credit card numbers or national IDs, and it is not optimized for pure image content or OCR-based detection. While IDM can apply to many file types (Word, PDF, spreadsheets that contain meaningful text, etc.), the core use case is protecting documents where overall content similarity matters.
Therefore, the best description is that IDM protects high-value documents that tend to carry sensitive data, such as medical forms and tax documents.
NEW QUESTION # 26
In a typical authentication configuration, Zscaler fulfills which of the following roles?
- A. Service provider
- B. Identity provider
- C. Identity proxy
- D. SaaS gateway
Answer: A
Explanation:
In a typical enterprise authentication setup, Zscaler functions as the Service Provider (SP) within the SAML authentication framework. This aligns with Zscaler's architectural principle that identity verification is delegated to an external authoritative Identity Provider (IdP) such as Azure AD, Okta, Ping, or ADFS. Zscaler does not authenticate user credentials directly. Instead, it relies on the IdP to validate the user and then deliver a signed SAML assertion back to Zscaler.
When a user attempts to access the Zscaler service, the authentication request is redirected to the enterprise IdP. The IdP performs credential verification and returns a SAML assertion containing the authenticated user identity and associated attributes. Zscaler, acting as the SP, consumes and validates this assertion, then maps the identity to its internal user records or SCIM-synchronized directory objects. This identity becomes the basis for all ZIA/ZPA policy evaluation, including URL filtering, CASB controls, DLP policies, firewall rules, and access-control enforcement.
Since Zscaler depends on the IdP for primary identity verification and only consumes assertions, Zscaler's role is clearly defined as the Service Provider in a standard authentication configuration.
NEW QUESTION # 27
Safemarch is a retail company with hundreds of stores across the United States. Their core applications reside in two different data centers with a considerable presence on AWS.
Which would be a good connectivity solution for them to access applications from store locations?
- A. Branch Connectors at stores with App Connectors on-prem and on AWS.
- B. SD-WAN connectivity to stores and Zscaler Edge, with App Connectors on-prem and on AWS.
- C. Site-to-site VPNs from stores to Zscaler Edge, with App Connectors on-prem and on AWS.
- D. Branch Connector at stores for Zscaler connectivity and Direct Connect from data centers to AWS.
Answer: B
Explanation:
For a large retail organization with hundreds of geographically distributed stores and applications split across multiple data centers plus AWS, Zscaler reference designs emphasize an SD-WAN-to-Zscaler Edge model combined with ZPA App Connectors deployed close to the applications. In this model, each store uses SD- WAN to build resilient, policy-based connectivity to the nearest Zscaler Edge locations. Those edges then provide secure, optimized access to private applications published through App Connectors installed in the on- premises data centers and within AWS VPCs.
This approach centralizes security and access control in the Zscaler cloud while avoiding the operational burden of managing hundreds of direct site-to-site VPNs. It also aligns with Zero Trust principles by steering all store traffic to Zscaler rather than extending the corporate network to every store. Direct Connect between data centers and AWS (as in option A) is optional from a ZPA perspective because App Connectors in AWS communicate outbound to Zscaler over the internet. Branch Connector (option D) is typically used when SD- WAN or suitable edge devices are not present, whereas a large retail environment commonly standardizes on SD-WAN.
NEW QUESTION # 28
How many rounds of analysis are performed on a sandboxed sample to determine its characteristics?
- A. As many rounds of analysis as the policy is configured to perform.
- B. Only a static analysis is performed.
- C. Only one static and one dynamic analysis is performed.
- D. One static analysis, one dynamic analysis, and a second static analysis of all dropped files and artifacts from the dynamic analysis.
Answer: D
Explanation:
Zscaler Cloud Sandbox is designed to detect advanced and previously unknown threats by deeply analyzing suspicious files in an isolated environment. According to Zscaler's documented analysis pipeline, every sandboxed sample goes through a structured, multi-stage process rather than a single pass.
First, the file undergoes static analysis, where the system inspects the file without executing it. This phase looks at elements such as structure, headers, embedded resources, and known malicious patterns or indicators.
Next, the file is executed in a dynamic analysis environment (a sandbox) where Zscaler observes runtime behavior such as process creation, registry modifications, file system changes, network connections, and attempts at evasion or privilege escalation.
During this dynamic phase, the file may drop or create additional files and artifacts. Zscaler then performs a second round of static analysis on those dropped components. This secondary static analysis is crucial because many sophisticated threats unpack or download their real payload only at runtime; analyzing those artifacts provides a much clearer view of the full attack chain.
Because of this defined three-step approach-static, dynamic, then secondary static analysis on dropped artifacts-option A is the correct description of how many rounds of analysis are performed on a sandboxed sample.
NEW QUESTION # 29
What is one benefit of OneAPI?
- A. Multiple registration processes
- B. Multiple token requests
- C. Repeated authorization messages required for increasing security
- D. Simplifies API integration by using a single entry point
Answer: D
Explanation:
Zscaler OneAPI is described in the Digital Transformation Engineer and Zero Trust Automation content as a unified API gateway for the entire Zscaler platform. Official OneAPI overview material explains that it provides "a common API endpoint" and "a single programming interface for the entire Zscaler platform," so automation engineers no longer need to manage different endpoints, authentication patterns, or schemas for each product.
The Zero Trust Automation at-a-glance guide further emphasizes that OneAPI "uses a single API to enable automation as an administrator," which accelerates deployment and reduces human error. Study resources summarizing OneAPI reinforce that it "simplifies integration by providing a single-entry point for accessing multiple APIs," reducing complexity and making it easier to build consistent automation across ZIA, ZPA, ZDX, and ZCC.
The other options contradict this design. OneAPI is specifically intended to avoid multiple registration processes and repeated token or authorization workflows; OAuth 2.0 is centralized via ZIdentity so that API clients authenticate once and then use scoped access across services. Therefore, the clearly documented benefit that matches the Zscaler Digital Transformation Engineer description is that OneAPI simplifies API integration by using a single entry point, making C the correct answer.
NEW QUESTION # 30
Why is it important that the IP address of ZPA App Connectors is included in an Active Directory Sites and Services configuration?
- A. So admins can access Domain Controllers by IP address.
- B. Ensures users connect to the closest Domain Controllers or SCCM servers.
- C. So users can authenticate to ZPA with Active Directory.
- D. Adding the IP address of ZPA App Connectors to an AD Sites and Services configuration helps with accommodating BGP routing designs.
Answer: B
Explanation:
In a Zscaler Private Access (ZPA) deployment, traffic from users to Active Directory Domain Controllers and SCCM servers is proxied through App Connectors. ZPA performs DNS proxy and source NAT (SNAT) on these connections, which means the Domain Controller often sees the App Connector's IP address-rather than the end user's-when deciding which AD Site the "client" belongs to.
Zscaler's Active Directory integration guidance explains that AD site selection is therefore based on the App Connector IP, and recommends adding those connector IPs into the appropriate Active Directory Sites and Services configuration. Doing so ensures that when authentication, Group Policy, DFS, or SCCM traffic arrives via ZPA, the Domain Controller or SCCM infrastructure maps the connection to the correct site and routes users to the nearest or most appropriate DC/SCCM server, preserving efficient logon performance and content distribution.
This configuration has nothing to do with BGP routing design (option A), direct admin access to DCs by IP (option B), or the basic ability of ZPA to use AD for identity (option C). ZPA can integrate with AD without Sites and Services, but optimizing which DC/SCCM server is used depends on having App Connector IPs correctly associated with AD Sites. Thus, the correct reason is that it ensures users connect to the closest Domain Controllers or SCCM servers.
NEW QUESTION # 31
What is the primary benefit of using a subcloud in Zscaler?
- A. To increase the number of available Public Service Edges
- B. To guarantee that web traffic is forwarded to preferred ZIA Public Service Edges
- C. To improve the accuracy of geolocation data
- D. To eliminate the need for ZIA Public Service Edges
Answer: B
Explanation:
A subcloud in Zscaler is defined as a subset of ZIA Public Service Edges (data centers) that you group together and associate with specific locations or traffic. Conceptually, it is a logical "pool" of preferred Public Service Edges. When a user or site is mapped to a given subcloud, their traffic is steered only to that selected subset of Service Edges instead of any available data center in the wider cloud.
The main benefit of this design is control and predictability: you can guarantee that web traffic is forwarded to your preferred ZIA Public Service Edges, which is critical when you must keep egress IPs stable for SaaS allow-lists, regulatory requirements, or local data-residency mandates. Subclouds also help with operational resilience, because you can temporarily exclude problematic data centers from a subcloud without changing overall forwarding methods, ensuring continuity while still using your defined group of Service Edges. They do not increase the number of Service Edges, replace ZIA Public Service Edges, or directly affect IP geolocation precision. Therefore, option C correctly captures the primary benefit expected in the ZDTE/EDU-202 context.
NEW QUESTION # 32
How can Zscaler ThreatParse, in conjunction with information about the MITRE ATTandCK framework, assist security analysts in determining the attacker's objectives?
- A. It prioritizes the log information according to the latest campaign in the MITRE ATTandCK framework.
- B. It conducts natural language reconstruction of attacks by summarizing and translating log information into plain English.
- C. It maps into the framework to evaluate the probability of a financial loss.
- D. It provides suggestions on risk management strategies provided by the framework.
Answer: B
Explanation:
ThreatParse is part of Zscaler's advanced cyberthreat analysis capabilities, used primarily within Zscaler Deception and related SecOps workflows. Zscaler describes ThreatParse as an investigative engine that takes raw attack or event logs and "reconstructs" the attack sequence, summarizing what happened and translating the data into plain, human-readable language so even junior analysts can quickly understand the incident.
In addition, ThreatParse enriches these reconstructed attacks with structured information tied to the MITRE ATTandCK framework, including tactic and technique identifiers plus an associated risk score. This linkage helps analysts recognize why the attacker is performing certain actions (for example, credential access, lateral movement, or data exfiltration) rather than just what they did.
By combining natural-language reconstruction with MITRE ATTandCK context, ThreatParse effectively turns low-level events into a clear narrative aligned with attacker tactics and objectives. Analysts can quickly see which stage of the kill chain the adversary is in, the severity of the behavior, and which threats demand immediate attention. Options B and C are incorrect because ThreatParse does not perform financial-loss modeling or generic risk-management recommendations; option D is inaccurate because its primary value is narrative reconstruction plus ATTandCK mapping and risk scoring, not simply prioritizing logs by "latest campaign."
NEW QUESTION # 33
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