unbound.conf

# /etc/unbound.conf
# last revised 2022-01-12

# Use this anywhere in the file to include other text into this file.
#include: "otherfile.conf"

# Use this anywhere in the file to include other text, that explicitly starts a
# clause, into this file. Text after this directive needs to start a clause.
#include-toplevel: "otherfile.conf"

# The server clause sets the main parameters.
server:

	# verbosity number, 0 is least verbose. 1 is default.
	verbosity: 1

	# print statistics to the log (for every thread) every N seconds.
	# Set to "" or 0 to disable. Default is disabled.
	# statistics-interval: 0

	# enable shm for stats, default no.  if you enable also enable
	# statistics-interval, every time it also writes stats to the
	# shared memory segment keyed with shm-key.
	# shm-enable: no

	# shm for stats uses this key, and key+1 for the shared mem segment.
	# shm-key: 11777

	# enable cumulative statistics, without clearing them after printing.
	# statistics-cumulative: no

	# enable extended statistics (query types, answer codes, status)
	# printed from unbound-control. default off, because of speed.
	# extended-statistics: no

	# number of threads to create. 1 disables threading.
	num-threads: 4

	# specify the interfaces to answer queries from by ip-address.
	# The default is to listen to localhost (127.0.0.1 and ::1).
	# specify 0.0.0.0 and ::0 to bind to all available interfaces.
	# specify every interface[@port] on a new 'interface:' labelled line.
	# The listen interfaces are not changed on reload, only on restart.
	# interface: 192.0.2.153
	# interface: 192.0.2.154
	# interface: 192.0.2.154@5003
	# interface: 2001:DB8::5

        # interface: 0.0.0.0@53
        # interface: ::0@53
        # interface: ::0@853
        # interface: 0.0.0.0@853

	# enable this feature to copy the source address of queries to reply.
	# Socket options are not supported on all platforms. experimental.
	# interface-automatic: no

	# port to answer queries from
	port: 53

	# specify the interfaces to send outgoing queries to authoritative
	# server from by ip-address. If none, the default (all) interface
	# is used. Specify every interface on a 'outgoing-interface:' line.
	# outgoing-interface: 192.0.2.153
	# outgoing-interface: 2001:DB8::5
	# outgoing-interface: 2001:DB8::6

	# Specify a netblock to use remainder 64 bits as random bits for
	# upstream queries.  Uses freebind option (Linux).
	# outgoing-interface: 2001:DB8::/64
	# Also (Linux:) ip -6 addr add 2001:db8::/64 dev lo
	# And: ip -6 route add local 2001:db8::/64 dev lo
	# And set prefer-ip6: yes to use the ip6 randomness from a netblock.
	# Set this to yes to prefer ipv6 upstream servers over ipv4.
	# prefer-ip6: no

	# Prefer ipv4 upstream servers, even if ipv6 is available.
	prefer-ip4: yes

	# number of ports to allocate per thread, determines the size of the
	# port range that can be open simultaneously.  About double the
	# num-queries-per-thread, or, use as many as the OS will allow you.
	outgoing-range: 4096

	# permit unbound to use this port number or port range for
	# making outgoing queries, using an outgoing interface.
	outgoing-port-permit: 32768

	# deny unbound the use this of port number or port range for
	# making outgoing queries, using an outgoing interface.
	# Use this to make sure unbound does not grab a UDP port that some
	# other server on this computer needs. The default is to avoid
	# IANA-assigned port numbers.
	# If multiple outgoing-port-permit and outgoing-port-avoid options
	# are present, they are processed in order.
	# outgoing-port-avoid: "3200-3208"

	# number of outgoing simultaneous tcp buffers to hold per thread.
	outgoing-num-tcp: 1000

	# number of incoming simultaneous tcp buffers to hold per thread.
	# incoming-num-tcp: 1000

	# buffer size for UDP port 53 incoming (SO_RCVBUF socket option).
	# 0 is system default.  Use 4m to catch query spikes for busy servers.
	so-rcvbuf: 4m

	# buffer size for UDP port 53 outgoing (SO_SNDBUF socket option).
	# 0 is system default.  Use 4m to handle spikes on very busy servers.
	so-sndbuf: 4m

	# use SO_REUSEPORT to distribute queries over threads.
	# at extreme load it could be better to turn it off to distribute even.
	so-reuseport: yes

	# use IP_TRANSPARENT so the interface: addresses can be non-local
	# and you can config non-existing IPs that are going to work later on
	# (uses IP_BINDANY on FreeBSD).
	ip-transparent: yes

	# use IP_FREEBIND so the interface: addresses can be non-local
	# and you can bind to nonexisting IPs and interfaces that are down.
	# Linux only.  On Linux you also have ip-transparent that is similar.
	# ip-freebind: no

	# the value of the Differentiated Services Codepoint (DSCP)
	# in the differentiated services field (DS) of the outgoing
	# IP packets
	# ip-dscp: 0

	# EDNS reassembly buffer to advertise to UDP peers (the actual buffer
	# is set with msg-buffer-size). 1472 can solve fragmentation (timeouts)
	edns-buffer-size: 1232

	# Maximum UDP response size (not applied to TCP response).
	# Suggested values are 512 to 4096. Default is 4096. 65536 disables it.
	max-udp-size: 4096

	# max memory to use for stream(tcp and tls) waiting result buffers.
	stream-wait-size: 4m

	# buffer size for handling DNS data. No messages larger than this
	# size can be sent or received, by UDP or TCP. In bytes.
	# msg-buffer-size: 65552

	# the amount of memory to use for the message cache.
	# plain value in bytes or you can append k, m or G. default is "4Mb".
	msg-cache-size: 4m

	# the number of slabs to use for the message cache.
	# the number of slabs must be a power of 2.
	# more slabs reduce lock contention, but fragment memory usage.
	msg-cache-slabs: 4

	# the number of queries that a thread gets to service.
	num-queries-per-thread: 1024

	# if very busy, 50% queries run to completion, 50% get timeout in msec
	# jostle-timeout: 200

	# msec to wait before close of port on timeout UDP. 0 disables.
	# delay-close: 0

	# msec for waiting for an unknown server to reply.  Increase if you
	# are behind a slow satellite link, to eg. 1128.
	# unknown-server-time-limit: 376

	# the amount of memory to use for the RRset cache.
	# plain value in bytes or you can append k, m or G. default is "4Mb".
	# rrset-cache-size: 4m

	# the number of slabs to use for the RRset cache.
	# the number of slabs must be a power of 2.
	# more slabs reduce lock contention, but fragment memory usage.
	rrset-cache-slabs: 4

	# the time to live (TTL) value lower bound, in seconds. Default 0.
	# If more than an hour could easily give trouble due to stale data.
	cache-min-ttl: 60

	# the time to live (TTL) value cap for RRsets and messages in the
	# cache. Items are not cached for longer. In seconds.
	cache-max-ttl: 900

	# the time to live (TTL) value cap for negative responses in the cache
	cache-max-negative-ttl: 60

	# the time to live (TTL) value for cached roundtrip times, lameness and
	# EDNS version information for hosts. In seconds.
	# infra-host-ttl: 900

	# minimum wait time for responses, increase if uplink is long. In msec.
	# infra-cache-min-rtt: 50

	# the number of slabs to use for the Infrastructure cache.
	# the number of slabs must be a power of 2.
	# more slabs reduce lock contention, but fragment memory usage.
	# infra-cache-slabs: 4

	# the maximum number of hosts that are cached (roundtrip, EDNS, lame).
	# infra-cache-numhosts: 10000

	# define a number of tags here, use with local-zone, access-control.
	# repeat the define-tag statement to add additional tags.
	# define-tag: "tag1 tag2 tag3"

	# Enable IPv4, "yes" or "no".
	do-ip4: yes

	# Enable IPv6, "yes" or "no".
	do-ip6: no

	# Enable UDP, "yes" or "no".
	do-udp: yes

	# Enable TCP, "yes" or "no".
	do-tcp: yes

	# upstream connections use TCP only (and no UDP), "yes" or "no"
	# useful for tunneling scenarios, default no.
	# tcp-upstream: no

	# upstream connections also use UDP (even if do-udp is no).
	# useful if if you want UDP upstream, but don't provide UDP downstream.
	# udp-upstream-without-downstream: no

	# Maximum segment size (MSS) of TCP socket on which the server
	# responds to queries. Default is 0, system default MSS.
	# tcp-mss: 0

	# Maximum segment size (MSS) of TCP socket for outgoing queries.
	# Default is 0, system default MSS.
	# outgoing-tcp-mss: 0

	# Idle TCP timeout, connection closed in milliseconds
	tcp-idle-timeout: 30000

	# Enable EDNS TCP keepalive option.
	# edns-tcp-keepalive: no

	# Timeout for EDNS TCP keepalive, in msec.
	# edns-tcp-keepalive-timeout: 120000

	# Use systemd socket activation for UDP, TCP, and control sockets.
	# use-systemd: no

	# Detach from the terminal, run in background, "yes" or "no".
	# Set the value to "no" when unbound runs as systemd service.
	do-daemonize: no

	# control which clients are allowed to make (recursive) queries
	# to this server. Specify classless netblocks with /size and action.
	# By default everything is refused, except for localhost.
	# Choose deny (drop message), refuse (polite error reply),
	# allow (recursive ok), allow_setrd (recursive ok, rd bit is forced on),
	# allow_snoop (recursive and nonrecursive ok)
	# deny_non_local (drop queries unless can be answered from local-data)
	# refuse_non_local (like deny_non_local but polite error reply).
	# access-control: 0.0.0.0/0 refuse
	# access-control: 127.0.0.0/8 allow
	# access-control: ::0/0 refuse
	# access-control: ::1 allow
	# access-control: ::ffff:127.0.0.1 allow

        access-control: ::1 allow_snoop
        access-control: 0.0.0.0/0 refuse
        access-control: 127.0.0.0/8 allow_snoop
        access-control: 10.0.0.0/8 allow_snoop
        access-control: 172.16.0.0/12 allow_snoop
        access-control: 192.168.0.0/16 allow_snoop

	# tag access-control with list of tags (in "" with spaces between)
	# Clients using this access control element use localzones that
	# are tagged with one of these tags.
	# access-control-tag: 192.0.2.0/24 "tag2 tag3"

	# set action for particular tag for given access control element
	# if you have multiple tag values, the tag used to lookup the action
	# is the first tag match between access-control-tag and local-zone-tag
	# where "first" comes from the order of the define-tag values.
	# access-control-tag-action: 192.0.2.0/24 tag3 refuse

	# set redirect data for particular tag for access control element
	# access-control-tag-data: 192.0.2.0/24 tag2 "A 127.0.0.1"

	# Set view for access control element
	# access-control-view: 192.0.2.0/24 viewname

	# if given, a chroot(2) is done to the given directory.
	# i.e. you can chroot to the working directory, for example,
	# for extra security, but make sure all files are in that directory.
	#
	# If chroot is enabled, you should pass the configfile (from the
	# commandline) as a full path from the original root. After the
	# chroot has been performed the now defunct portion of the config
	# file path is removed to be able to reread the config after a reload.
	#
	# All other file paths (working dir, logfile, roothints, and
	# key files) can be specified in several ways:
	# 	o as an absolute path relative to the new root.
	# 	o as a relative path to the working directory.
	# 	o as an absolute path relative to the original root.
	# In the last case the path is adjusted to remove the unused portion.
	#
	# The pid file can be absolute and outside of the chroot, it is
	# written just prior to performing the chroot and dropping permissions.
	#
	# Additionally, unbound may need to access /dev/urandom (for entropy).
	# How to do this is specific to your OS.
	#
	# If you give "" no chroot is performed. The path must not end in a /.
	# chroot: "/etc/unbound"

	# if given, user privileges are dropped (after binding port),
	# and the given username is assumed. Default is user "unbound".
	# If you give "" no privileges are dropped.
	username: ""

	# the working directory. The relative files in this config are
	# relative to this directory. If you give "" the working directory
	# is not changed.
	# If you give a server: directory: dir before include: file statements
	# then those includes can be relative to the working directory.
	directory: "/etc/unbound"

	# the log file, "" means log to stderr.
	# Use of this option sets use-syslog to "no".
	logfile: "/etc/unbound/log"

	# Log to syslog(3) if yes. The log facility LOG_DAEMON is used to
	# log to. If yes, it overrides the logfile.
	use-syslog: no

	# Log identity to report. if empty, defaults to the name of argv[0]
	# (usually "unbound").
	log-identity: "unbound"

	# print UTC timestamp in ascii to logfile, default is epoch in seconds.
	log-time-ascii: yes

	# print one line with time, IP, name, type, class for every query.
	log-queries: no

	# print one line per reply, with time, IP, name, type, class, rcode,
	# timetoresolve, fromcache and responsesize.
	log-replies: no

	# log with tag 'query' and 'reply' instead of 'info' for
	# filtering log-queries and log-replies from the log.
	# log-tag-queryreply: no

	# log the local-zone actions, like local-zone type inform is enabled
	# also for the other local zone types.
	# log-local-actions: no

	# print log lines that say why queries return SERVFAIL to clients.
	log-servfail: no

	# the pid file. Can be an absolute path outside of chroot/work dir.
	pidfile: "/etc/unbound/unbound.pid"

	# file to read root hints from.
	# get one from https://www.internic.net/domain/named.cache
	root-hints: "/etc/unbound/root.cache"

	# enable to not answer id.server and hostname.bind queries.
	# hide-identity: no

	# enable to not answer version.server and version.bind queries.
	hide-version: yes

	# enable to not answer trustanchor.unbound queries.
	hide-trustanchor: yes

	# the identity to report. Leave "" or default to return hostname.
	# identity: ""

	# the version to report. Leave "" or default to return package version.
	# version: ""

	# the target fetch policy.
	# series of integers describing the policy per dependency depth.
	# The number of values in the list determines the maximum dependency
	# depth the recursor will pursue before giving up. Each integer means:
	# 	-1 : fetch all targets opportunistically,
	# 	0: fetch on demand,
	#	positive value: fetch that many targets opportunistically.
	# Enclose the list of numbers between quotes ("").
	# target-fetch-policy: "3 2 1 0 0"

	# Harden against very small EDNS buffer sizes.
	harden-short-bufsize: yes

	# Harden against unseemly large queries.
	harden-large-queries: yes

	# Harden against out of zone rrsets, to avoid spoofing attempts.
	harden-glue: yes

	# Harden against receiving dnssec-stripped data. If you turn it
	# off, failing to validate dnskey data for a trustanchor will
	# trigger insecure mode for that zone (like without a trustanchor).
	# Default on, which insists on dnssec data for trust-anchored zones.
	# harden-dnssec-stripped: yes

	# Harden against queries that fall under dnssec-signed nxdomain names.
	# harden-below-nxdomain: yes

	# Harden the referral path by performing additional queries for
	# infrastructure data.  Validates the replies (if possible).
	# Default off, because the lookups burden the server.  Experimental
	# implementation of draft-wijngaards-dnsext-resolver-side-mitigation.
	# harden-referral-path: no

	# Harden against algorithm downgrade when multiple algorithms are
	# advertised in the DS record.  If no, allows the weakest algorithm
	# to validate the zone.
	# harden-algo-downgrade: no

	# Sent minimum amount of information to upstream servers to enhance
	# privacy. Only sent minimum required labels of the QNAME and set QTYPE
	# to A when possible.
	qname-minimisation: yes

	# QNAME minimisation in strict mode. Do not fall-back to sending full
	# QNAME to potentially broken nameservers. A lot of domains will not be
	# resolvable when this option in enabled.
	# This option only has effect when qname-minimisation is enabled.
	qname-minimisation-strict: no

	# Aggressive NSEC uses the DNSSEC NSEC chain to synthesize NXDOMAIN
	# and other denials, using information from previous NXDOMAINs answers.
	# aggressive-nsec: no

	# Use 0x20-encoded random bits in the query to foil spoof attempts.
	# This feature is an experimental implementation of draft dns-0x20.
	use-caps-for-id: no

	# Domains (and domains in them) without support for dns-0x20 and
	# the fallback fails because they keep sending different answers.
	# caps-whitelist: "licdn.com"
	# caps-whitelist: "senderbase.org"

	# Enforce privacy of these addresses. Strips them away from answers.
	# It may cause DNSSEC validation to additionally mark it as bogus.
	# Protects against 'DNS Rebinding' (uses browser as network proxy).
	# Only 'private-domain' and 'local-data' names are allowed to have
	# these private addresses. No default.
	# private-address: 10.0.0.0/8
	# private-address: 172.16.0.0/12
	# private-address: 192.168.0.0/16
	# private-address: 169.254.0.0/16
	# private-address: fd00::/8
	# private-address: fe80::/10
	# private-address: ::ffff:0:0/96

	# Allow the domain (and its subdomains) to contain private addresses.
	# local-data statements are allowed to contain private addresses too.
	# private-domain: "example.com"

	# If nonzero, unwanted replies are not only reported in statistics,
	# but also a running total is kept per thread. If it reaches the
	# threshold, a warning is printed and a defensive action is taken,
	# the cache is cleared to flush potential poison out of it.
	# A suggested value is 10000000, the default is 0 (turned off).
	# unwanted-reply-threshold: 0

	# Do not query the following addresses. No DNS queries are sent there.
	# List one address per entry. List classless netblocks with /size,
	do-not-query-address: 127.0.0.1/8
	do-not-query-address: ::1

	# if yes, the above default do-not-query-address entries are present.
	# if no, localhost can be queried (for testing and debugging).
	do-not-query-localhost: yes

	# if yes, perform prefetching of almost expired message cache entries.
	prefetch: no

	# if yes, perform key lookups adjacent to normal lookups.
	prefetch-key: no

	# deny queries of type ANY with an empty response.
	deny-any: yes

	# if yes, Unbound rotates RRSet order in response.
	# rrset-roundrobin: yes

	# if yes, Unbound doesn't insert authority/additional sections
	# into response messages when those sections are not required.
	minimal-responses: no

	# true to disable DNSSEC lameness check in iterator.
	# disable-dnssec-lame-check: no

	# module configuration of the server. A string with identifiers
	# separated by spaces. Syntax: "[dns64] [validator] iterator"
	# most modules have to be listed at the beginning of the line,
	# except cachedb(just before iterator), and python (at the beginning,
	# or, just before the iterator).

        # required modules for RPZ
	module-config: "respip validator iterator"

	# File with trusted keys, kept uptodate using RFC5011 probes,
	# initial file like trust-anchor-file, then it stores metadata.
	# Use several entries, one per domain name, to track multiple zones.
	#
	# If you want to perform DNSSEC validation, run unbound-anchor before
	# you start unbound (i.e. in the system boot scripts).  And enable:
	# Please note usage of unbound-anchor root anchor is at your own risk
	# and under the terms of our LICENSE (see that file in the source).
	auto-trust-anchor-file: "/etc/unbound/root.key"

	# trust anchor signaling sends a RFC8145 key tag query after priming.
	# trust-anchor-signaling: yes

	# Root key trust anchor sentinel (draft-ietf-dnsop-kskroll-sentinel)
	# root-key-sentinel: yes

	# File with DLV trusted keys. Same format as trust-anchor-file.
	# There can be only one DLV configured, it is trusted from root down.
	# DLV is going to be decommissioned.  Please do not use it any more.
	# dlv-anchor-file: "dlv.isc.org.key"

	# File with trusted keys for validation. Specify more than one file
	# with several entries, one file per entry.
	# Zone file format, with DS and DNSKEY entries.
	# Note this gets out of date, use auto-trust-anchor-file please.
	# trust-anchor-file: ""

	# Trusted key for validation. DS or DNSKEY. specify the RR on a
	# single line, surrounded by "". TTL is ignored. class is IN default.
	# Note this gets out of date, use auto-trust-anchor-file please.
	# (These examples are from August 2007 and may not be valid anymore).
	# trust-anchor: "nlnetlabs.nl. DNSKEY 257 3 5 AQPzzTWMz8qSWIQlfRnPckx2BiVmkVN6LPupO3mbz7FhLSnm26n6iG9N Lby97Ji453aWZY3M5/xJBSOS2vWtco2t8C0+xeO1bc/d6ZTy32DHchpW 6rDH1vp86Ll+ha0tmwyy9QP7y2bVw5zSbFCrefk8qCUBgfHm9bHzMG1U BYtEIQ=="
	# trust-anchor: "jelte.nlnetlabs.nl. DS 42860 5 1 14D739EB566D2B1A5E216A0BA4D17FA9B038BE4A"

	# File with trusted keys for validation. Specify more than one file
	# with several entries, one file per entry. Like trust-anchor-file
	# but has a different file format. Format is BIND-9 style format,
	# the trusted-keys { name flag proto algo "key"; }; clauses are read.
	# you need external update procedures to track changes in keys.
	# trusted-keys-file: ""

	# Ignore chain of trust. Domain is treated as insecure.
	# domain-insecure: "example.com"

	# Override the date for validation with a specific fixed date.
	# Do not set this unless you are debugging signature inception
	# and expiration. "" or "0" turns the feature off. -1 ignores date.
	# val-override-date: ""

	# The time to live for bogus data, rrsets and messages. This avoids
	# some of the revalidation, until the time interval expires. in secs.
	# val-bogus-ttl: 60

	# The signature inception and expiration dates are allowed to be off
	# by 10% of the signature lifetime (expir-incep) from our local clock.
	# This leeway is capped with a minimum and a maximum.  In seconds.
	# val-sig-skew-min: 3600
	# val-sig-skew-max: 86400

	# Should additional section of secure message also be kept clean of
	# unsecure data. Useful to shield the users of this validator from
	# potential bogus data in the additional section. All unsigned data
	# in the additional section is removed from secure messages.
	# val-clean-additional: yes

	# Turn permissive mode on to permit bogus messages. Thus, messages
	# for which security checks failed will be returned to clients,
	# instead of SERVFAIL. It still performs the security checks, which
	# result in interesting log files and possibly the AD bit in
	# replies if the message is found secure. The default is off.
	# val-permissive-mode: no

	# Ignore the CD flag in incoming queries and refuse them bogus data.
	# Enable it if the only clients of unbound are legacy servers (w2008)
	# that set CD but cannot validate themselves.
	# ignore-cd-flag: no

	# Serve expired responses from cache, with serve-expired-reply-ttl in
	# the response, and then attempt to fetch the data afresh.
	serve-expired: no
	#
	# Limit serving of expired responses to configured seconds after
	# expiration. 0 disables the limit.
	# serve-expired-ttl: 0
	#
	# Set the TTL of expired records to the serve-expired-ttl value after a
	# failed attempt to retrieve the record from upstream. This makes sure
	# that the expired records will be served as long as there are queries
	# for it.
	# serve-expired-ttl-reset: no
	#
	# TTL value to use when replying with expired data.
	# serve-expired-reply-ttl: 30
	#
	# Time in milliseconds before replying to the client with expired data.
	# This essentially enables the serve-stale behavior as specified in
	# draft-ietf-dnsop-serve-stale-10 that first tries to resolve before
	# immediately responding with expired data.  0 disables this behavior.
	# A recommended value is 1800.
	# serve-expired-client-timeout: 0

	# Have the validator log failed validations for your diagnosis.
	# 0: off. 1: A line per failed user query. 2: With reason and bad IP.
	# val-log-level: 0

	# It is possible to configure NSEC3 maximum iteration counts per
	# keysize. Keep this table very short, as linear search is done.
	# A message with an NSEC3 with larger count is marked insecure.
	# List in ascending order the keysize and count values.
	# val-nsec3-keysize-iterations: "1024 150 2048 500 4096 2500"

	# instruct the auto-trust-anchor-file probing to add anchors after ttl.
	# add-holddown: 2592000 # 30 days

	# instruct the auto-trust-anchor-file probing to del anchors after ttl.
	# del-holddown: 2592000 # 30 days

	# auto-trust-anchor-file probing removes missing anchors after ttl.
	# If the value 0 is given, missing anchors are not removed.
	# keep-missing: 31622400 # 366 days

	# debug option that allows very small holddown times for key rollover,
	# otherwise the RFC mandates probe intervals must be at least 1 hour.
	# permit-small-holddown: no

	# the amount of memory to use for the key cache.
	# plain value in bytes or you can append k, m or G. default is "4Mb".
	# key-cache-size: 4m

	# the number of slabs to use for the key cache.
	# the number of slabs must be a power of 2.
	# more slabs reduce lock contention, but fragment memory usage.
	# key-cache-slabs: 4

	# the amount of memory to use for the negative cache (used for DLV).
	# plain value in bytes or you can append k, m or G. default is "1Mb".
	# neg-cache-size: 1m

	# By default, for a number of zones a small default 'nothing here'
	# reply is built-in.  Query traffic is thus blocked.  If you
	# wish to serve such zone you can unblock them by uncommenting one
	# of the nodefault statements below.
	# You may also have to use domain-insecure: zone to make DNSSEC work,
	# unless you have your own trust anchors for this zone.
	# local-zone: "localhost." nodefault
	# local-zone: "127.in-addr.arpa." nodefault
	# local-zone: "1.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.ip6.arpa." nodefault
	# local-zone: "onion." nodefault
	# local-zone: "test." nodefault
	# local-zone: "invalid." nodefault
	# local-zone: "10.in-addr.arpa." nodefault
	# local-zone: "16.172.in-addr.arpa." nodefault
	# local-zone: "17.172.in-addr.arpa." nodefault
	# local-zone: "18.172.in-addr.arpa." nodefault
	# local-zone: "19.172.in-addr.arpa." nodefault
	# local-zone: "20.172.in-addr.arpa." nodefault
	# local-zone: "21.172.in-addr.arpa." nodefault
	# local-zone: "22.172.in-addr.arpa." nodefault
	# local-zone: "23.172.in-addr.arpa." nodefault
	# local-zone: "24.172.in-addr.arpa." nodefault
	# local-zone: "25.172.in-addr.arpa." nodefault
	# local-zone: "26.172.in-addr.arpa." nodefault
	# local-zone: "27.172.in-addr.arpa." nodefault
	# local-zone: "28.172.in-addr.arpa." nodefault
	# local-zone: "29.172.in-addr.arpa." nodefault
	# local-zone: "30.172.in-addr.arpa." nodefault
	# local-zone: "31.172.in-addr.arpa." nodefault
	# local-zone: "168.192.in-addr.arpa." nodefault
	# local-zone: "0.in-addr.arpa." nodefault
	# local-zone: "254.169.in-addr.arpa." nodefault
	# local-zone: "2.0.192.in-addr.arpa." nodefault
	# local-zone: "100.51.198.in-addr.arpa." nodefault
	# local-zone: "113.0.203.in-addr.arpa." nodefault
	# local-zone: "255.255.255.255.in-addr.arpa." nodefault
	# local-zone: "0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.ip6.arpa." nodefault
	# local-zone: "d.f.ip6.arpa." nodefault
	# local-zone: "8.e.f.ip6.arpa." nodefault
	# local-zone: "9.e.f.ip6.arpa." nodefault
	# local-zone: "a.e.f.ip6.arpa." nodefault
	# local-zone: "b.e.f.ip6.arpa." nodefault
	# local-zone: "8.b.d.0.1.0.0.2.ip6.arpa." nodefault
	# And for 64.100.in-addr.arpa. to 127.100.in-addr.arpa.

	# Add example.com into ipset
	# local-zone: "example.com" ipset

	# If unbound is running service for the local host then it is useful
	# to perform lan-wide lookups to the upstream, and unblock the
	# long list of local-zones above.  If this unbound is a dns server
	# for a network of computers, disabled is better and stops information
	# leakage of local lan information.
	# unblock-lan-zones: no

	# The insecure-lan-zones option disables validation for
	# these zones, as if they were all listed as domain-insecure.
	# insecure-lan-zones: no

	# a number of locally served zones can be configured.
	# 	local-zone: <zone> <type>
	# 	local-data: "<resource record string>"
	# o deny serves local data (if any), else, drops queries.
	# o refuse serves local data (if any), else, replies with error.
	# o static serves local data, else, nxdomain or nodata answer.
	# o transparent gives local data, but resolves normally for other names
	# o redirect serves the zone data for any subdomain in the zone.
	# o nodefault can be used to normally resolve AS112 zones.
	# o typetransparent resolves normally for other types and other names
	# o inform acts like transparent, but logs client IP address
	# o inform_deny drops queries and logs client IP address
	# o inform_redirect redirects queries and logs client IP address
	# o always_transparent, always_refuse, always_nxdomain, resolve in
	#   that way but ignore local data for that name
	# o noview breaks out of that view towards global local-zones.
	#
	# defaults are localhost address, reverse for 127.0.0.1 and ::1
	# and nxdomain for AS112 zones. If you configure one of these zones
	# the default content is omitted, or you can omit it with 'nodefault'.
	#
	# If you configure local-data without specifying local-zone, by
	# default a transparent local-zone is created for the data.
	#
	# You can add locally served data with
	# local-zone: "local." static
	# local-data: "mycomputer.local. IN A 192.0.2.51"
	# local-data: 'mytext.local TXT "content of text record"'
	#
	# You can override certain queries with
	# local-data: "adserver.example.com A 127.0.0.1"
	#
	# You can redirect a domain to a fixed address with
	# (this makes example.com, www.example.com, etc, all go to 192.0.2.3)
	# local-zone: "example.com" redirect
	# local-data: "example.com A 192.0.2.3"
	#
	# Shorthand to make PTR records, "IPv4 name" or "IPv6 name".
	# You can also add PTR records using local-data directly, but then
	# you need to do the reverse notation yourself.
	# local-data-ptr: "192.0.2.3 www.example.com"

	# tag a localzone with a list of tag names (in "" with spaces between)
	# local-zone-tag: "example.com" "tag2 tag3"

	# add a netblock specific override to a localzone, with zone type
	# local-zone-override: "example.com" 192.0.2.0/24 refuse

	# service clients over TLS (on the TCP sockets), with plain DNS inside
	# the TLS stream.  Give the certificate to use and private key.
	# default is "" (disabled).  requires restart to take effect.
	# tls-service-key: "path/to/privatekeyfile.key"
	# tls-service-pem: "path/to/publiccertfile.pem"
	# tls-port: 853

	# cipher setting for TLSv1.2
	# tls-ciphers: "DHE-RSA-AES256-GCM-SHA384:DHE-RSA-AES128-GCM-SHA256:ECDHE-RSA-AES256-GCM-SHA384:ECDHE-RSA-AES128-GCM-SHA256:DHE-RSA-AES256-SHA256:DHE-RSA-AES128-SHA256:ECDHE-RSA-AES256-SHA384:ECDHE-RSA-AES128-SHA256"
	# cipher setting for TLSv1.3
	# tls-ciphersuites: "TLS_AES_128_GCM_SHA256:TLS_AES_128_CCM_8_SHA256:TLS_AES_128_CCM_SHA256:TLS_AES_256_GCM_SHA384:TLS_CHACHA20_POLY1305_SHA256"

	# Use the SNI extension for TLS connections.  Default is yes.
	# Changing the value requires a reload.
	# tls-use-sni: yes

	# Add the secret file for TLS Session Ticket.
	# Secret file must be 80 bytes of random data.
	# First key use to encrypt and decrypt TLS session tickets.
	# Other keys use to decrypt only.
	# requires restart to take effect.
	# tls-session-ticket-keys: "path/to/secret_file1"
	# tls-session-ticket-keys: "path/to/secret_file2"

	# request upstream over TLS (with plain DNS inside the TLS stream).
	# Default is no.  Can be turned on and off with unbound-control.
	# tls-upstream: no

	# Certificates used to authenticate connections made upstream.
	# tls-cert-bundle: ""

	# Add system certs to the cert bundle, from the Windows Cert Store
	# tls-win-cert: no

	# Also serve tls on these port numbers (eg. 443, ...), by listing
	# tls-additional-port: portno for each of the port numbers.

	# DNS64 prefix. Must be specified when DNS64 is use.
	# Enable dns64 in module-config.  Used to synthesize IPv6 from IPv4.
	# dns64-prefix: 64:ff9b::0/96

	# DNS64 ignore AAAA records for these domains and use A instead.
	# dns64-ignore-aaaa: "example.com"

	# ratelimit for uncached, new queries, this limits recursion effort.
	# ratelimiting is experimental, and may help against randomqueryflood.
	# if 0(default) it is disabled, otherwise state qps allowed per zone.
	ratelimit: 0

	# ratelimits are tracked in a cache, size in bytes of cache (or k,m).
	# ratelimit-size: 4m
	# ratelimit cache slabs, reduces lock contention if equal to cpucount.
	# ratelimit-slabs: 4

	# 0 blocks when ratelimited, otherwise let 1/xth traffic through
	# ratelimit-factor: 10

	# override the ratelimit for a specific domain name.
	# give this setting multiple times to have multiple overrides.
	# ratelimit-for-domain: example.com 1000
	# override the ratelimits for all domains below a domain name
	# can give this multiple times, the name closest to the zone is used.
	# ratelimit-below-domain: com 1000

	# global query ratelimit for all ip addresses.
	# feature is experimental.
	# if 0(default) it is disabled, otherwise states qps allowed per ip address
	# ip-ratelimit: 0

	# ip ratelimits are tracked in a cache, size in bytes of cache (or k,m).
	# ip-ratelimit-size: 4m
	# ip ratelimit cache slabs, reduces lock contention if equal to cpucount.
	# ip-ratelimit-slabs: 4

	# 0 blocks when ip is ratelimited, otherwise let 1/xth traffic through
	# ip-ratelimit-factor: 10

	# Limit the number of connections simultaneous from a netblock
	# tcp-connection-limit: 192.0.2.0/24 12

	# select from the fastest servers this many times out of 1000. 0 means
	# the fast server select is disabled. prefetches are not sped up.
	# fast-server-permil: 0
	# the number of servers that will be used in the fast server selection.
	# fast-server-num: 3

	# Specific options for ipsecmod. unbound needs to be configured with
	# --enable-ipsecmod for these to take effect.
	#
	# Enable or disable ipsecmod (it still needs to be defined in
	# module-config above). Can be used when ipsecmod needs to be
	# enabled/disabled via remote-control(below).
	# ipsecmod-enabled: yes
	#
	# Path to executable external hook. It must be defined when ipsecmod is
	# listed in module-config (above).
	# ipsecmod-hook: "./my_executable"
	#
	# When enabled unbound will reply with SERVFAIL if the return value of
	# the ipsecmod-hook is not 0.
	# ipsecmod-strict: no
	#
	# Maximum time to live (TTL) for cached A/AAAA records with IPSECKEY.
	# ipsecmod-max-ttl: 3600
	#
	# Reply with A/AAAA even if the relevant IPSECKEY is bogus. Mainly used for
	# testing.
	# ipsecmod-ignore-bogus: no
	#
	# Domains for which ipsecmod will be triggered. If not defined (default)
	# all domains are treated as being whitelisted.
	# ipsecmod-whitelist: "example.com"
	# ipsecmod-whitelist: "nlnetlabs.nl"


# Python config section. To enable:
# o use --with-pythonmodule to configure before compiling.
# o list python in the module-config string (above) to enable.
#   It can be at the start, it gets validated results, or just before
#   the iterator and process before DNSSEC validation.
# o and give a python-script to run.
python:
	# Script file to load
	# python-script: "/etc/unbound/ubmodule-tst.py"

# Dynamic library config section. To enable:
# o use --with-dynlibmodule to configure before compiling.
# o list dynlib in the module-config string (above) to enable.
#   It can be placed anywhere, the dynlib module is only a very thin wrapper
#   to load modules dynamically.
# o and give a dynlib-file to run. If more than one dynlib entry is listed in
#   the module-config then you need one dynlib-file per instance.
dynlib:
	# Script file to load
	# dynlib-file: "/etc/unbound/dynlib.so"

# Remote control config section.
remote-control:
	# Enable remote control with unbound-control(8) here.
	# set up the keys and certificates with unbound-control-setup.
	control-enable: no

	# what interfaces are listened to for remote control.
	# give 0.0.0.0 and ::0 to listen to all interfaces.
	# set to an absolute path to use a unix local name pipe, certificates
	# are not used for that, so key and cert files need not be present.
	control-interface: 127.0.0.1
	# control-interface: ::1

	# port number for remote control operations.
	control-port: 8953

	# for localhost, you can disable use of TLS by setting this to "no"
	# For local sockets this option is ignored, and TLS is not used.
	# control-use-cert: "yes"

	# unbound server key file.
	server-key-file: "/etc/unbound/unbound_server.key"

	# unbound server certificate file.
	server-cert-file: "/etc/unbound/unbound_server.pem"

	# unbound-control key file.
	control-key-file: "/etc/unbound/unbound_control.key"

	# unbound-control certificate file.
	control-cert-file: "/etc/unbound/unbound_control.pem"

# Stub zones.
# Create entries like below, to make all queries for 'example.com' and
# 'example.org' go to the given list of nameservers. list zero or more
# nameservers by hostname or by ipaddress. If you set stub-prime to yes,
# the list is treated as priming hints (default is no).
# With stub-first yes, it attempts without the stub if it fails.
# Consider adding domain-insecure: name and local-zone: name nodefault
# to the server: section if the stub is a locally served zone.
# stub-zone:
#	name: "example.com"
#	stub-addr: 192.0.2.68
#	stub-prime: no
#	stub-first: no
#	stub-tls-upstream: no
#	stub-no-cache: no
# stub-zone:
#	name: "example.org"
#	stub-host: ns.example.com.

# Forward zones
# Create entries like below, to make all queries for 'example.com' and
# 'example.org' go to the given list of servers. These servers have to handle
# recursion to other nameservers. List zero or more nameservers by hostname
# or by ipaddress. Use an entry with name "." to forward all queries.
# If you enable forward-first, it attempts without the forward if it fails.
# forward-zone:
# 	name: "example.com"
# 	forward-addr: 192.0.2.68
# 	forward-addr: 192.0.2.73@5355  # forward to port 5355.
# 	forward-first: no
# 	forward-tls-upstream: no
#	forward-no-cache: no
# forward-zone:
# 	name: "example.org"
# 	forward-host: fwd.example.com

# Authority zones
# The data for these zones is kept locally, from a file or downloaded.
# The data can be served to downstream clients, or used instead of the
# upstream (which saves a lookup to the upstream).  The first example
# has a copy of the root for local usage.  The second serves example.org
# authoritatively.  zonefile: reads from file (and writes to it if you also
# download it), master: fetches with AXFR and IXFR, or url to zonefile.
# With allow-notify: you can give additional (apart from masters) sources of
# notifies.
# auth-zone:
#	name: "."
#	master: 199.9.14.201         # b.root-servers.net
#	master: 192.33.4.12          # c.root-servers.net
#	master: 199.7.91.13          # d.root-servers.net
#	master: 192.5.5.241          # f.root-servers.net
#	master: 192.112.36.4         # g.root-servers.net
#	master: 193.0.14.129         # k.root-servers.net
#	master: 192.0.47.132         # xfr.cjr.dns.icann.org
#	master: 192.0.32.132         # xfr.lax.dns.icann.org
#	master: 2001:500:200::b      # b.root-servers.net
#	master: 2001:500:2::c        # c.root-servers.net
#	master: 2001:500:2d::d       # d.root-servers.net
#	master: 2001:500:2f::f       # f.root-servers.net
#	master: 2001:500:12::d0d     # g.root-servers.net
#	master: 2001:7fd::1          # k.root-servers.net
#	master: 2620:0:2830:202::132 # xfr.cjr.dns.icann.org
#	master: 2620:0:2d0:202::132  # xfr.lax.dns.icann.org
#	fallback-enabled: yes
#	for-downstream: no
#	for-upstream: yes
# auth-zone:
#	name: "example.org"
#	for-downstream: yes
#	for-upstream: yes
#	zonefile: "example.org.zone"

# Views
# Create named views. Name must be unique. Map views to requests using
# the access-control-view option. Views can contain zero or more local-zone
# and local-data options. Options from matching views will override global
# options. Global options will be used if no matching view is found.
# With view-first yes, it will try to answer using the global local-zone and
# local-data elements if there is no view specific match.
# view:
#	name: "viewname"
#	local-zone: "example.com" redirect
#	local-data: "example.com A 192.0.2.3"
#	local-data-ptr: "192.0.2.3 www.example.com"
#	view-first: no
# view:
#	name: "anotherview"
#	local-zone: "example.com" refuse

# DNSCrypt
# Caveats:
# 1. the keys/certs cannot be produced by unbound. You can use dnscrypt-wrapper
#   for this: https://github.com/cofyc/dnscrypt-wrapper/blob/master/README.md#usage
# 2. dnscrypt channel attaches to an interface. you MUST set interfaces to
#   listen on `dnscrypt-port` with the follo0wing snippet:
# server:
#     interface: 0.0.0.0@443
#     interface: ::0@443
#
# Finally, `dnscrypt` config has its own section.
# dnscrypt:
#     dnscrypt-enable: yes
#     dnscrypt-port: 443
#     dnscrypt-provider: 2.dnscrypt-cert.example.com.
#     dnscrypt-secret-key: /path/unbound-conf/keys1/1.key
#     dnscrypt-secret-key: /path/unbound-conf/keys2/1.key
#     dnscrypt-provider-cert: /path/unbound-conf/keys1/1.cert
#     dnscrypt-provider-cert: /path/unbound-conf/keys2/1.cert

# CacheDB
# Enable external backend DB as auxiliary cache.  Specify the backend name
# (default is "testframe", which has no use other than for debugging and
# testing) and backend-specific options.  The 'cachedb' module must be
# included in module-config, just before the iterator module.
# cachedb:
#     backend: "testframe"
#     # secret seed string to calculate hashed keys
#     secret-seed: "default"
#
#     # For "redis" backend:
#     # redis server's IP address or host name
#     redis-server-host: 127.0.0.1
#     # redis server's TCP port
#     redis-server-port: 6379
#     # timeout (in ms) for communication with the redis server
#     redis-timeout: 100
#     # set timeout on redis records based on DNS response TTL
#     redis-expire-records: no

# IPSet
# Add specify domain into set via ipset.
# Note: To enable ipset unbound needs to run as root user.
# ipset:
#     # set name for ip v4 addresses
#     name-v4: "list-v4"
#     # set name for ip v6 addresses
#     name-v6: "list-v6"
#

# Dnstap logging support, if compiled in.  To enable, set the dnstap-enable
# to yes and also some of dnstap-log-..-messages to yes.  And select an
# upstream log destination, by socket path, TCP or TLS destination.
# dnstap:
# 	dnstap-enable: no
# 	# if set to yes frame streams will be used in bidirectional mode
# 	dnstap-bidirectional: yes
# 	dnstap-socket-path: ""
# 	# if "" use the unix socket in dnstap-socket-path, otherwise,
# 	# set it to "IPaddress[@port]" of the destination.
# 	dnstap-ip: ""
# 	# if set to yes if you want to use TLS to dnstap-ip, no for TCP.
# 	dnstap-tls: yes
# 	# name for authenticating the upstream server. or "" disabled.
# 	dnstap-tls-server-name: ""
# 	# if "", it uses the cert bundle from the main unbound config.
# 	dnstap-tls-cert-bundle: ""
# 	# key file for client authentication, or "" disabled.
# 	dnstap-tls-client-key-file: ""
# 	# cert file for client authentication, or "" disabled.
# 	dnstap-tls-client-cert-file: ""
# 	dnstap-send-identity: no
# 	dnstap-send-version: no
# 	# if "" it uses the hostname.
# 	dnstap-identity: ""
# 	# if "" it uses the package version.
# 	dnstap-version: ""
# 	dnstap-log-resolver-query-messages: no
# 	dnstap-log-resolver-response-messages: no
# 	dnstap-log-client-query-messages: no
# 	dnstap-log-client-response-messages: no
# 	dnstap-log-forwarder-query-messages: no
# 	dnstap-log-forwarder-response-messages: no

# Response Policy Zones
# RPZ policies. Applied in order of configuration. QNAME and Response IP
# Address trigger are the only supported triggers. Supported actions are:
# NXDOMAIN, NODATA, PASSTHRU, DROP and Local Data. Policies can be loaded from
# file, using zone transfer, or using HTTP. The respip module needs to be added
# to the module-config, e.g.: module-config: "respip validator iterator".
# rpz:
#     name: "rpz.example.com"
#     zonefile: "rpz.example.com"
#     master: 192.0.2.0
#     allow-notify: 192.0.2.0/32
#     url: http://www.example.com/rpz.example.org.zone
#     rpz-action-override: cname
#     rpz-cname-override: www.example.org
#     rpz-log: yes
#     rpz-log-name: "example policy"
#     tags: "example"

#------------------------------------------------------------------------------
# Deteque/Spamhaus "Don't Route or Peer" (DROP) RPZ zone
#	This rpz zone contains listings of ip addresses and networks that are
#	contained in the DROP zone.  The entries in this list represent hosts
# 	and networks whose address space is hijacked or leased by professional
#	spam or cyber-crime operations and used for dissemination of malware,
#	trojan downloaders and botnet controllers.  Those who control the
#	address space fail to respond to abuse requests and are often referred
#	to as "bulletproof hosting" companies.
#
#	Anyone deploying an RPZ enabled recursive should include this RPZ zone
#	as the first zone in their response policy.  This is a relatively small
#	rpz zone.
#
#	We make this zone freely available to anyone.  As such, the configuration
# 	example below includes all the information and access needed to pull the
#	zone via IXFR.
#------------------------------------------------------------------------------

rpz:
	name: drop.ip.dtq
	zonefile: zonefiles/drop.ip.dtq
	master: US.spamhaus.zone
	master: EU.spamhaus.zone
	rpz-log: yes
	rpz-log-name: drop.ip.dtq

#------------------------------------------------------------------------------
# Deteque Third Party RPZ Zones
#	The below listed RPZ zones are created using third party data and 
# 	therefore may contain listings that produce false positives.  While
#	we do make these available free of charge we do not guarantee the
#	quality of the content.
#
#	The coinblocker zone contains listings of sites known to download
#	programs that mine for bitcoins, etc.  The porn zone contains sites
#	known to distribute adult/pornographici material.  The torblock zone
#	contains ip addresses of known Tor exit nodes.
#       - coinblocker.srv
#       - porn.host.srv
#       - torblock.srv
#
# 	These RPZ zones are freely published and the master settings for
#	these zones are actually live.  You can use them initially for
#	testing, then decide if you want to continue using them in your
#	response policy security profile.
#------------------------------------------------------------------------------

rpz:
	name: coinblocker.srv
	zonefile: zonefiles/coinblocker.srv
	master: US.spamhaus.zone
	master: EU.spamhaus.zone
	rpz-log: yes
	rpz-log-name: coinblocker.srv

rpz:
	name: porn.host.srv
	zonefile: zonefiles/porn.host.srv
	master: US.spamhaus.zone
	master: EU.spamhaus.zone
	rpz-log: yes
	rpz-log-name: port.host.srv

rpz:
	name: torblock.srv
	zonefile: zonefiles/torblock.srv
	master: US.spamhaus.zone
	master: EU.spamhaus.zone
	rpz-log: yes
	rpz-log-name: torblock.srv

#------------------------------------------------------------------------------
# Deteque Abused Legit RPZ Zones
#	Abused legit RPZ zonefiles contain listings of otherwise legitimate
#	sites that appear to be compromised and being used to send spam,
#	act as a botnet command and control server or serving malware.  
#	While it is totally legitimate to block these sites, please be
#	advised that these listing may result in user complaints, most
#	often resembling "why can't I access a site I've been using for
#	years?".  We do agressively purge listings in this zone once we
#	confirm that the site has been cleaned up.
#
#	- badrep.hacked.host.dtq
#       - botnetcc.hacked.host.dtq
#       - botnetcc.hacked.ip.dtq
#       - malware.hacked.host.dtq
#	- phish.hacked.host.dtq
#------------------------------------------------------------------------------

#rpz:
# 	name: badrep.hacked.host.dtq
# 	zonefile: zonefiles/badrep.hacked.host.dtq
# 	master: <distribution-masters>
# 	rpz-log: yes
# 	rpz-log-name: badrep.hacked.host.dtq

#rpz:
# 	name: botnetcc.hacked.host.dtq
# 	zonefile: zonefiles/botnetcc.haacked.host.dtq
# 	master: <distribution-masters>
# 	rpz-log: yes
# 	rpz-log-name: botnetcc.hacked.host.dtq

#rpz:
# 	name: botnetcc.hacked.ip.dtq
# 	zonefile: zonefiles/botnetcc.hacked.ip.dtq
# 	master: <distribution-masters>
# 	rpz-log: yes
# 	rpz-log-name: botnetcc.hacked.ip.dtq

#rpz:
# 	name: malware.hacked.host.dtq
# 	zonefile: zonefiles/malware.hacked.host.dtq
# 	master: <distribution-masters>
# 	rpz-log: yes
# 	rpz-log-name: malware.hacked.host.dtq

#rpz:
#	name: phish.hacked.host.dtq
#	zonefile: zonefiles/phish.hacked.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: phish.hacked.host.dtq

#------------------------------------------------------------------------------
# Deteque Botnet RPZ Zones
#	These RPZ zones are designed to block outbound connections to sites
#	known to be botnet command and control servers.  Zones with "edit"
#	in the name represent a subnet of data that contains sites with a 
#	poorer reputation score.
#
#	The dga.host.dtq zone contains domains that are automatically 
#	generated (domain generated domains) for use with botnets.  We do take
#	steps to sanitize this data to prevent inadvertant collisions with 
#	legitmate domains.  This is one of the largest rpz zones we produce.
#	If your server has limited ram it would probably not be a good idea
#	to implement this zone without testing beforehand.
#
#       - botnetcc.edit.host.dtq
#       - botnetcc.hacked.host.dtq (appears above in abused-legit)
#       - botnetcc.hacked.ip.dtq (appears above in abused-legit)
#       - botnetcc.host.dtq
#       - botnetcc.ip.dtq
#       - dga.host.dtq
#------------------------------------------------------------------------------

#rpz:
#	name: botnetcc.edit.host.dtq
#	zonefile: zonefiles/botnetcc.edit.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: botnetcc.edit.host.dtq

#rpz:
#	name: botnetcc.host.dtq
#	zonefile: zonefiles/botnetcc.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: botnetcc.host.dtq

#rpz:
#	name: botnetcc.ip.dtq
#	zonefile: zonefiles/botnetcc.ip.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: botnetcc.ip.dtq

#rpz:
#	name: dga.host.dtq
#	zonefile: zonefiles/dga.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: dga.host.dtq

#------------------------------------------------------------------------------
# Deteque Malware RPZ Zones
#       - malware.domains.dtq
#       - malware.edit.host.dtq
#       - malware.hacked.host.dtq (appears above in abused-legit)
#       - malware.host.dtq
#------------------------------------------------------------------------------

#rpz:
#	name: malware.domains.dtq
#	zonefile: zonefiles/malware.domains.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: malware.domains.dtq

#rpz:
#	name: malware.edit.host.dtq
#	zonefile: zonefiles/malware.edit.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: malware.edit.host.dtq

#rpz:
#	name: malware.host.dtq
#	zonefile: zonefiles/malware.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: malware.host.dtq

#------------------------------------------------------------------------------
# Deteque Bad Reputation RPZ Zones
#       - adware.edit.host.dtq
#       - adware.host.dtq
#       - badrep.edit.host.dtq
#       - badrep.hacked.host.dtq   (appears above in abused-legit)
#       - badrep.host.dtq
#       - bogons.ip.dtq
#------------------------------------------------------------------------------

#rpz:
#	name: adware.edit.host.dtq
#	zonefile: zonefiles/adware.edit.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: adware.edit.host.dtq

#rpz:
#	name: adware.host.dtq
#	zonefile: zonefiles/adware.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: adware.host.dtq

#rpz:
#	name: badrep.edit.host.dtq
#	zonefile: zonefiles/badrep.edit.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: badrep.edit.host.dtq

#rpz:
#	name: badrep.host.dtq
#	zonefile: zonefiles/badrep.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: badrep.host.dtq

#rpz:
#	name: bogons.ip.dtq
#	zonefile: zonefiles/bogons.ip.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: bogons.ip.dtq

#------------------------------------------------------------------------------
# Deteque Phishing RPZ Zones
#	These zones are designed to block access to phishing related sites.
#	The "edit" version of the zone is a subset of the phish.host.dtq 
#	domain whose reputation score is poorer.
#
#       - phish.edit.host.dtq
#       - phish.hacked.host.dtq (appears above in abused-legit)
#       - phish.host.dtq
#------------------------------------------------------------------------------

#rpz:
#	name: phish.edit.host.dtq
#	zonefile: zonefiles/phish.edit.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: phish.edit.host.dtq

#rpz:
#	name: phish.host.dtq
#	zonefile: zonefiles/phish.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: phish.host.dtq

#------------------------------------------------------------------------------
# Deteque Bad Nameserver Zones
#	Beginning with Unbound 1.40.0 bad nameserver triggers are supported.
#	These zones are designed to block access recursive nameservers by name,
#	address or subnet.  These triggers get invoked throughout the recursive
#	lookup process.
#
#       - bad-nameservers.ip.dtq
#       - bad-nameservers.host.dtq
#------------------------------------------------------------------------------

#rpz:
#	name: bad-nameservers.ip.dtq
#	zonefile: zonefiles/bad-nameservers.ip.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: bad-nameservers.ip.dtq

#rpz:
#	name: bad-nameservers.host.dtq
#	zonefile: zonefiles/bad-nameservers.host.dtq
#	master: <distribution-masters>
#	rpz-log: yes
#	rpz-log-name: bad-nameservers.host.dtq