One Identity Safeguard for Privileged Sessions 6.0 LTS

Error: The browser reports errors when SPS redirects to SPP's login page, for example, This site can’t be reached. The exact error message depends on the browser.
Resolution: Click the Back button of the browser and enter the correct address into the Pv4 address or hostname of SPP to join field.

Typo in SPP's address, the address is alive, but not an SPP

Error: After clicking the Join button, a web site other than SPP's Login interface is displayed.
Resolution: Click the Back button of the browser and enter the correct address into the Pv4 address or hostname of SPP to join field.

SPP's HTTPS certificate does not match its IP address or hostnam

Error message: Error joining to SPP: SPS has failed to join to SPP. For more information, see the error details. (JoinFailed)

Raw error:

{
  "response": "Error sending request: SSLError: HTTPSConnectionPool(host='examplespp.company', port=443): Max retries exceeded with url: /service/core/v3/Cluster/SessionModules (Caused by SSLError(CertificateError(\"hostname 'examplespp.company' doesn't match '192.0.2.123'\",),))",
  "status": null,
  "url": "https://examplespp.company/service/core/v3/Cluster/SessionModules"
}

Resolution:
- If SPP's certificate contains SPP's IPv4 address in the Common Name or subjectAltName field, then enter that IP address when joining SPS to SPP.
- If SPP's certificate contains only its DNS name in the Common Name or subjectAltName field, then use that hostname when joining SPS to SPP.
- Otherwise, set up an SSL server certificate for SPP which matches its IP address in the certificate's Common Name or subjectAltNamefields (see SSL Certificates in the Safeguard Administration Guide) and retry joining. Wait about five minutes to let the timeout of the failed join request expire before starting a new join request after a failed incomplete one. (Alternatively, see Reversing the SPP to SPS join in the Safeguard Administration Guide.)

Typo in SPP credentials

Error: Login to the SPP web interface fails.

Raw error:

{
        "error": "invalid_request",
        "error_description": "Access denied.",
        "success": false
    }

Resolution: Make sure that the correct username and password are entered in the SPP username: and SPP password: prompts.

SPP user has insufficient permission

Error message: Error joining to SPP: SPS has failed to join to SPP. For more information, see the error details. (JoinFailed)

 Authorization is required for this request.

       Code: 60108
       URL: https://192.0.2.123/service/core/v3/Cluster/SessionModules
       Status: 403

Resolution: When SPS redirects to SPP's Login interface, then login as an SPP user has "Appliance" and "Operations" permissions.

SPS is already joined to SPP

Error message: Error joining to SPP: SPS has failed to join to SPP. For more information, see the error details. (JoinFailed)

The session connection has a missing, invalid, or non-unique
value [ NodeId ].

       Code: 60657
       URL: https://192.0.2.123/service/core/v3/Cluster/SessionModules
       Status: 400

Resolution: See Reversing the SPP to SPS join in the Safeguard Administration Guide.

Joining takes too long (more than five minutes)

ERROR: Request to https://192.0.2.123/service/a2a/v2/PsmValidation failed, response (HTTP 403):

    {
        "Code": 60108,
        "Message": "Authorization is required for this request.",
        "InnerError": null
    }

Resolution: Make sure that SPS is not overloaded and try joining again.

SPP to One Identity Safeguard for Privileged Sessions (SPS) join issues

Configuring external devices > Join One Identity Safeguard for Privileged Sessions (SPS) to Safeguard for Privileged Passwords SPP > SPP to One Identity Safeguard for Privileged Sessions (SPS) join issues

In addition to the monitoring tools in SPP, you can use the SPP to One Identity Safeguard for Privileged Sessions (SPS) join issues during the join process. Several SPS tools are described below.

Join process fails and real-time monitoring

If the join process fails for any reason, consult the system logs.

To view the Safeguard for Privileged Sessions logs, navigate to Basic Settings | Troubleshooting | View log files.

To show only the logs for the join process:

Select a Logtype of syslog.
Select the Day; today is the default.
In the Show only messages containing text box, enter SPP-join.

Use the buttons at the bottom of the dialog to perform the following tasks:

To download the log file, click Download.
To follow the current log messages real-time, click Tail. The latest logs will update in a browser window while you interact with the join process.
To display the log messages, click View.

To increase the level of detail in the log, enable debug level logging at Basic Settings | Management | Debug logging | Enable debug logs.

Join successful but connections do not work

When SPP and SPS report a successful join, but the connections don't work, view the SPS connection logs.

In Safeguard for Privileged Sessions, navigate to Basic Settings | Troubleshooting | View log files.

To show only the logs for the join process:

Select a Logtype of ssh or rdp.
Select the Day (today is the default).
In the Show only messages containing text box, enter SPP-join.

To change the verbosity level of SPS, complete the following steps in Safeguard for Privileged Sessions:

Navigate to the Global Options page of the traffic for which you want to change the log level. For example, go to SSH Control | Global Options to change the log level of SSH traffic, RDP Control | Global Options for remote desktop traffic, and so on.
Select the desired log level from the Verbosity level field. The verbosity level ranges from 1 (no logging) to 10 (extremely detailed), with level 4 being the default normal level.

CAUTION: High verbosity levels generate a very large amount of log messages and might result in a very high load on the machine. Log levels set around 9 to 10, may result in logs with highly sensitive data, for example, passwords in plain text format.

Testing network issues

You can use the Diagnostics tools of SPP and SPS to test network issues. The following commands are available:

ping: Sends a simple message to the specified host to test network connectivity.
traceroute: Sends a simple message from SPS to the specified host and displays all hosts on the path of the message. It is used to trace the path the message travels between the hosts.
connect: Attempts to connect the specified host using the specified port. It is used to test the availability or status of an application on the target host.

To execute one of the above commands on SPS, see Network troubleshooting.

To execute one of the above commands on SPP, see Diagnostics tools of SPP.

Creating an SPS Support Bundle

If you have an issue which needs Support assistance, you may be asked to provide an SPS Support Bundle. To collect system-state information (also known as a debug bundle) in One Identity Safeguard for Privileged Sessions, see Collecting logs and system information for error reporting.

Configuring advanced routing on Linux

Configuring external devices > Configuring advanced routing on Linux

The following describes how to configure a Linux-based router to redirect selected traffic to One Identity Safeguard for Privileged Sessions (SPS) instead of its original destination. This procedure should work on most modern Linux-based routers, including Check Point firewalls.

Prerequisites

The router must have the iptables and ip tools installed.

To configure a Linux-based router to redirect selected traffic to SPS instead of its original destination

Create the packet filter rules that will mark the connections to be sent to SPS using the CONNMARK feature of iptables. Mark only those connections that must be redirected to SPS.
```
# iptables -t mangle -I PREROUTING -i <interface-facing-the-clients> -p tcp -d <network-of-the-servers> --dport <port-to-access> -j CONNMARK --set-mark 1
```
Example: Setting up a connection mark for Linux policy routing

For example, if the network interface of the router that faces the clients is called eth0, the servers are located in the 10.0.0.0/24 subnet, and the clients access the servers using port 3389 (the default port of the RDP protocol), then this command looks like:
```
# iptables -t mangle -I PREROUTING -i eth0 -p tcp -d 10.0.0.0/24 --dport 3389 -j CONNMARK --set-mark 1
```
Create a rule that redirects the answers of the servers to SPS. That way both the client-to-server and the server-to-client traffic is routed to SPS.

NOTE:
This step is only required if you want to use Source NAT (IP Spoofing) instead of SPS’s address towards the monitored servers.

Figure 303: Control > Connections — Using SNAT
```
# iptables -t mangle -I PREROUTING -i <interface-facing-the-servers> -p tcp -s <network-of-the-servers> --sport <port-to-access> -j CONNMARK --set-mark 1
```

Convert the CONNMARK marks to MARK:

# iptables -t mangle -A PREROUTING ! -i <interface-facing-the-scb> -m connmark --mark 1 -j MARK --set-mark 1

Caution:

This rule must be placed after the CONNMARK rules.

Add the table name to the /etc/iproute2/rt_tables of the router. Use the following format (for details on routing tables, see for example the Guide to IP Layer Network Administration with Linux):
```
103 scb
```
Create a routing table that has a single entry with a default route to SPS:
```
# /sbin/ip route add default via <ip-address-of-SPS> table scb
```
Create a routing rule that selects the routing table called scb, if the connection is marked.
```
# /sbin/ip rule add from all fwmark 1 table scb
```
If SPS is configured to spoof the IP address of the clients on the server side (that is, the SNAT > Use original IP address of the client option of the connection policies is selected), enable spoofing on the router for the interface connected to SPS.
```
# echo 0 > /proc/sys/net/ipv4/conf/<interface-facing-SPS>/rp_filter
# echo 0 > /proc/sys/net/ipv4/conf/all/rp_filter
```
Expected result:

The traffic from the clients targeting the specified port of the servers is redirected to SPS. Therefore, SPS can be configured to control and audit this traffic.

Configuring advanced routing on Cisco routers

Configuring external devices > Configuring advanced routing on Cisco routers

The following describes how to configure a Cisco router to redirect selected traffic to One Identity Safeguard for Privileged Sessions (SPS) instead of its original destination. This procedure should work on most modern Cisco IOS releases but was specifically tested on IOS version 12.3.

To configure a Cisco router to redirect selected traffic to SPS instead of its original destination

Create an ACL (Access Control List) entry that matches the client and server subnets and the to-be-audited port. Keep in mind that whatever is permitted by this ACL is what will be matched, so make sure that the scope of the ACL entry is narrowed down as much as possible.
```
#(config) ip access-list extended ssh-inbound
#(config-ext-nacl) permit tcp <src net> <src mask> <dst net> <dst mask> eq <dst port>
```
Example: Configuring an ACL entry for Cisco policy routing

For example, if the clients are in the 192.168.0.0/24 subnet, the servers are located in the 10.0.0.0/24 subnet, and the clients access the servers using port 22 (the default port of the SSH protocol), then the permit clause should be:
```
#(config-ext-nacl) permit tcp 192.168.0.0 0.0.0.255 10.0.0.0 0.0.0.255 eq 22
```
TIP:
Cisco ACLs use inverse netmasks for defining network addresses. To calculate an inverse mask given a subnet mask, simply subtract each octet value from 255.
Create an ACL entry that matches the reply packets coming from the server zone and targeted at the client zone to make sure that replies are reaching the SPS.
```
#(config) ip access-list extended ssh-outbound
#(config-ext-nacl) permit tcp <dst net> <dst mask> eq <dst port> <src net> <src mask>
```
NOTE:
This step is only required if you want to use Source NAT (IP Spoofing) instead of SPS’s address towards the monitored servers.

Figure 304: Control > Connections — Using SNAT
Example: Configuring an ACL entry for reply packets with Cisco policy routing

In case of the example in step 1, the permit clause should be:
```
#(config-ext-nacl) permit tcp 10.0.0.0 0.0.0.255 eq 22 192.168.0.0 0.0.0.255
```
Create a route-map entry. It controls which packets are affected by policy routing and where they should be forwarded to. The match commands specify the conditions under which policy routing occurs. The set commands specify the routing actions to perform if the criteria enforced by the match commands are met. A new route-map can be defined as follows:
```
#(config) route-map scb-inbound
```
1. Set your route-map to match the traffic in ACL ssh-inbound:
```
#(config-route-map) match ip address ssh-inbound
```
2. Set an action on the matching traffic. Define a next-hop entry to redirect the traffic to the SPS.
```
#(config-route-map) set ip next-hop <SPS IP address>
```
Create another route-map that controls the reply packet flow.
```
#(config) route-map scb-outbound
#(config-route-map) match ip address ssh-outbound
#(config-route-map) set ip next-hop <SPS IP address>
```
NOTE:
This step is only required if you want to use Source NAT (IP Spoofing) instead of SPS’s address towards the monitored servers.

Figure 305: Control > Connections — Using SNAT

Apply the route-map to the appropriate interfaces.

First, add the ssh-inbound route-map entry to the interface facing the clients:

#(config) interface <interface-facing-the-clients>
#(config-if) ip policy route-map scb-inbound

Then add the ssh-outbound route-map entry to the interface facing the servers:

#(config) interface <interface-facing-the-servers>
#(config-if) ip policy route-map scb-outbound

Expected result:

The traffic from the clients targeting the specified port of the servers is redirected to SPS. Therefore, SPS can be configured to control and audit this traffic.

The full configuration for the above topology:

! interface facing the clients
interface FastEthernet0/0
 ip address 192.168.0.254 255.255.255.0
 ip policy route-map scb-inbound
 duplex full
 speed auto
 no mop enabled

! interface facing the SCB
interface FastEthernet0/1
 ip address 172.16.0.254 255.255.255.0
 duplex full
 speed auto
 no mop enabled

! interface facing the servers
interface FastEthernet1/0
 ip address 10.0.0.254 255.255.255.0
 ip policy route-map scb-outbound
 duplex full
 speed auto
 no mop enabled

! access lists matching the server and client subnets and the SSH port - incoming packets
ip access-list extended ssh-inbound
 permit tcp 192.168.0.0 0.0.0.255 10.0.0.0 0.0.0.255 eq 22
! access lists matching the server and client subnets and the SSH port - reply packets
ip access-list extended ssh-outbound
 permit tcp 10.0.0.0 0.0.0.255 eq 22 192.168.0.0 0.0.0.255

! policy routing entry matching on the incoming SSH connections and
! redirecting them to the SCB external interface
route-map scb-inbound permit 10
 match ip address ssh-inbound
 set ip next-hop 172.16.0.1

! the following part is only required for SNAT-based SCB configuration
! policy routing entry matching on the SSH reply packets and
! redirecting them to the SCB external interface
route-map scb-outbound permit 10
 match ip address ssh-outbound
 set ip next-hop 172.16.0.1

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One Identity Safeguard for Privileged Sessions 6.0 LTS - Administration Guide

Safeguard for Privileged Passwords (SPP) to One Identity Safeguard for Privileged Sessions (SPS) join error resolution

Typo in SPP's address, the address is not reachable

Typo in SPP's address, the address is alive, but not an SPP

SPP's HTTPS certificate does not match its IP address or hostnam

Typo in SPP credentials

SPP user has insufficient permission

SPS is already joined to SPP

Joining takes too long (more than five minutes)

SPP to One Identity Safeguard for Privileged Sessions (SPS) join issues

Join process fails and real-time monitoring

Join successful but connections do not work

Testing network issues

Creating an SPS Support Bundle

Configuring advanced routing on Linux

Prerequisites

Example: Setting up a connection mark for Linux policy routing

Expected result:

Configuring advanced routing on Cisco routers

Example: Configuring an ACL entry for Cisco policy routing

Example: Configuring an ACL entry for reply packets with Cisco policy routing

Expected result: