freebsd-dev/usr.sbin/Makefile

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# From: @(#)Makefile 5.20 (Berkeley) 6/12/93
1999-08-28 01:35:59 +00:00
# $FreeBSD$
1994-05-26 05:23:31 +00:00
.include <src.opts.mk>
SUBDIR= adduser \
1998-08-30 20:58:16 +00:00
arp \
binmiscctl \
bsdconfig \
Add asynchronous command support to the pass(4) driver, and the new camdd(8) utility. CCBs may be queued to the driver via the new CAMIOQUEUE ioctl, and completed CCBs may be retrieved via the CAMIOGET ioctl. User processes can use poll(2) or kevent(2) to get notification when I/O has completed. While the existing CAMIOCOMMAND blocking ioctl interface only supports user virtual data pointers in a CCB (generally only one per CCB), the new CAMIOQUEUE ioctl supports user virtual and physical address pointers, as well as user virtual and physical scatter/gather lists. This allows user applications to have more flexibility in their data handling operations. Kernel memory for data transferred via the queued interface is allocated from the zone allocator in MAXPHYS sized chunks, and user data is copied in and out. This is likely faster than the vmapbuf()/vunmapbuf() method used by the CAMIOCOMMAND ioctl in configurations with many processors (there are more TLB shootdowns caused by the mapping/unmapping operation) but may not be as fast as running with unmapped I/O. The new memory handling model for user requests also allows applications to send CCBs with request sizes that are larger than MAXPHYS. The pass(4) driver now limits queued requests to the I/O size listed by the SIM driver in the maxio field in the Path Inquiry (XPT_PATH_INQ) CCB. There are some things things would be good to add: 1. Come up with a way to do unmapped I/O on multiple buffers. Currently the unmapped I/O interface operates on a struct bio, which includes only one address and length. It would be nice to be able to send an unmapped scatter/gather list down to busdma. This would allow eliminating the copy we currently do for data. 2. Add an ioctl to list currently outstanding CCBs in the various queues. 3. Add an ioctl to cancel a request, or use the XPT_ABORT CCB to do that. 4. Test physical address support. Virtual pointers and scatter gather lists have been tested, but I have not yet tested physical addresses or scatter/gather lists. 5. Investigate multiple queue support. At the moment there is one queue of commands per pass(4) device. If multiple processes open the device, they will submit I/O into the same queue and get events for the same completions. This is probably the right model for most applications, but it is something that could be changed later on. Also, add a new utility, camdd(8) that uses the asynchronous pass(4) driver interface. This utility is intended to be a basic data transfer/copy utility, a simple benchmark utility, and an example of how to use the asynchronous pass(4) interface. It can copy data to and from pass(4) devices using any target queue depth, starting offset and blocksize for the input and ouptut devices. It currently only supports SCSI devices, but could be easily extended to support ATA devices. It can also copy data to and from regular files, block devices, tape devices, pipes, stdin, and stdout. It does not support queueing multiple commands to any of those targets, since it uses the standard read(2)/write(2)/writev(2)/readv(2) system calls. The I/O is done by two threads, one for the reader and one for the writer. The reader thread sends completed read requests to the writer thread in strictly sequential order, even if they complete out of order. That could be modified later on for random I/O patterns or slightly out of order I/O. camdd(8) uses kqueue(2)/kevent(2) to get I/O completion events from the pass(4) driver and also to send request notifications internally. For pass(4) devcies, camdd(8) uses a single buffer (CAM_DATA_VADDR) per CAM CCB on the reading side, and a scatter/gather list (CAM_DATA_SG) on the writing side. In addition to testing both interfaces, this makes any potential reblocking of I/O easier. No data is copied between the reader and the writer, but rather the reader's buffers are split into multiple I/O requests or combined into a single I/O request depending on the input and output blocksize. For the file I/O path, camdd(8) also uses a single buffer (read(2), write(2), pread(2) or pwrite(2)) on reads, and a scatter/gather list (readv(2), writev(2), preadv(2), pwritev(2)) on writes. Things that would be nice to do for camdd(8) eventually: 1. Add support for I/O pattern generation. Patterns like all zeros, all ones, LBA-based patterns, random patterns, etc. Right Now you can always use /dev/zero, /dev/random, etc. 2. Add support for a "sink" mode, so we do only reads with no writes. Right now, you can use /dev/null. 3. Add support for automatic queue depth probing, so that we can figure out the right queue depth on the input and output side for maximum throughput. At the moment it defaults to 6. 4. Add support for SATA device passthrough I/O. 5. Add support for random LBAs and/or lengths on the input and output sides. 6. Track average per-I/O latency and busy time. The busy time and latency could also feed in to the automatic queue depth determination. sys/cam/scsi/scsi_pass.h: Define two new ioctls, CAMIOQUEUE and CAMIOGET, that queue and fetch asynchronous CAM CCBs respectively. Although these ioctls do not have a declared argument, they both take a union ccb pointer. If we declare a size here, the ioctl code in sys/kern/sys_generic.c will malloc and free a buffer for either the CCB or the CCB pointer (depending on how it is declared). Since we have to keep a copy of the CCB (which is fairly large) anyway, having the ioctl malloc and free a CCB for each call is wasteful. sys/cam/scsi/scsi_pass.c: Add asynchronous CCB support. Add two new ioctls, CAMIOQUEUE and CAMIOGET. CAMIOQUEUE adds a CCB to the incoming queue. The CCB is executed immediately (and moved to the active queue) if it is an immediate CCB, but otherwise it will be executed in passstart() when a CCB is available from the transport layer. When CCBs are completed (because they are immediate or passdone() if they are queued), they are put on the done queue. If we get the final close on the device before all pending I/O is complete, all active I/O is moved to the abandoned queue and we increment the peripheral reference count so that the peripheral driver instance doesn't go away before all pending I/O is done. The new passcreatezone() function is called on the first call to the CAMIOQUEUE ioctl on a given device to allocate the UMA zones for I/O requests and S/G list buffers. This may be good to move off to a taskqueue at some point. The new passmemsetup() function allocates memory and scatter/gather lists to hold the user's data, and copies in any data that needs to be written. For virtual pointers (CAM_DATA_VADDR), the kernel buffer is malloced from the new pass(4) driver malloc bucket. For virtual scatter/gather lists (CAM_DATA_SG), buffers are allocated from a new per-pass(9) UMA zone in MAXPHYS-sized chunks. Physical pointers are passed in unchanged. We have support for up to 16 scatter/gather segments (for the user and kernel S/G lists) in the default struct pass_io_req, so requests with longer S/G lists require an extra kernel malloc. The new passcopysglist() function copies a user scatter/gather list to a kernel scatter/gather list. The number of elements in each list may be different, but (obviously) the amount of data stored has to be identical. The new passmemdone() function copies data out for the CAM_DATA_VADDR and CAM_DATA_SG cases. The new passiocleanup() function restores data pointers in user CCBs and frees memory. Add new functions to support kqueue(2)/kevent(2): passreadfilt() tells kevent whether or not the done queue is empty. passkqfilter() adds a knote to our list. passreadfiltdetach() removes a knote from our list. Add a new function, passpoll(), for poll(2)/select(2) to use. Add devstat(9) support for the queued CCB path. sys/cam/ata/ata_da.c: Add support for the BIO_VLIST bio type. sys/cam/cam_ccb.h: Add a new enumeration for the xflags field in the CCB header. (This doesn't change the CCB header, just adds an enumeration to use.) sys/cam/cam_xpt.c: Add a new function, xpt_setup_ccb_flags(), that allows specifying CCB flags. sys/cam/cam_xpt.h: Add a prototype for xpt_setup_ccb_flags(). sys/cam/scsi/scsi_da.c: Add support for BIO_VLIST. sys/dev/md/md.c: Add BIO_VLIST support to md(4). sys/geom/geom_disk.c: Add BIO_VLIST support to the GEOM disk class. Re-factor the I/O size limiting code in g_disk_start() a bit. sys/kern/subr_bus_dma.c: Change _bus_dmamap_load_vlist() to take a starting offset and length. Add a new function, _bus_dmamap_load_pages(), that will load a list of physical pages starting at an offset. Update _bus_dmamap_load_bio() to allow loading BIO_VLIST bios. Allow unmapped I/O to start at an offset. sys/kern/subr_uio.c: Add two new functions, physcopyin_vlist() and physcopyout_vlist(). sys/pc98/include/bus.h: Guard kernel-only parts of the pc98 machine/bus.h header with #ifdef _KERNEL. This allows userland programs to include <machine/bus.h> to get the definition of bus_addr_t and bus_size_t. sys/sys/bio.h: Add a new bio flag, BIO_VLIST. sys/sys/uio.h: Add prototypes for physcopyin_vlist() and physcopyout_vlist(). share/man/man4/pass.4: Document the CAMIOQUEUE and CAMIOGET ioctls. usr.sbin/Makefile: Add camdd. usr.sbin/camdd/Makefile: Add a makefile for camdd(8). usr.sbin/camdd/camdd.8: Man page for camdd(8). usr.sbin/camdd/camdd.c: The new camdd(8) utility. Sponsored by: Spectra Logic MFC after: 1 week
2015-12-03 20:54:55 +00:00
camdd \
1998-08-30 20:58:16 +00:00
cdcontrol \
chkgrp \
chown \
chroot \
ckdist \
Add the new kernel-mode NFS Lock Manager. To use it instead of the user-mode lock manager, build a kernel with the NFSLOCKD option and add '-k' to 'rpc_lockd_flags' in rc.conf. Highlights include: * Thread-safe kernel RPC client - many threads can use the same RPC client handle safely with replies being de-multiplexed at the socket upcall (typically driven directly by the NIC interrupt) and handed off to whichever thread matches the reply. For UDP sockets, many RPC clients can share the same socket. This allows the use of a single privileged UDP port number to talk to an arbitrary number of remote hosts. * Single-threaded kernel RPC server. Adding support for multi-threaded server would be relatively straightforward and would follow approximately the Solaris KPI. A single thread should be sufficient for the NLM since it should rarely block in normal operation. * Kernel mode NLM server supporting cancel requests and granted callbacks. I've tested the NLM server reasonably extensively - it passes both my own tests and the NFS Connectathon locking tests running on Solaris, Mac OS X and Ubuntu Linux. * Userland NLM client supported. While the NLM server doesn't have support for the local NFS client's locking needs, it does have to field async replies and granted callbacks from remote NLMs that the local client has contacted. We relay these replies to the userland rpc.lockd over a local domain RPC socket. * Robust deadlock detection for the local lock manager. In particular it will detect deadlocks caused by a lock request that covers more than one blocking request. As required by the NLM protocol, all deadlock detection happens synchronously - a user is guaranteed that if a lock request isn't rejected immediately, the lock will eventually be granted. The old system allowed for a 'deferred deadlock' condition where a blocked lock request could wake up and find that some other deadlock-causing lock owner had beaten them to the lock. * Since both local and remote locks are managed by the same kernel locking code, local and remote processes can safely use file locks for mutual exclusion. Local processes have no fairness advantage compared to remote processes when contending to lock a region that has just been unlocked - the local lock manager enforces a strict first-come first-served model for both local and remote lockers. Sponsored by: Isilon Systems PR: 95247 107555 115524 116679 MFC after: 2 weeks
2008-03-26 15:23:12 +00:00
clear_locks \
crashinfo \
1998-08-30 20:58:16 +00:00
cron \
Add the CAM Target Layer (CTL). CTL is a disk and processor device emulation subsystem originally written for Copan Systems under Linux starting in 2003. It has been shipping in Copan (now SGI) products since 2005. It was ported to FreeBSD in 2008, and thanks to an agreement between SGI (who acquired Copan's assets in 2010) and Spectra Logic in 2010, CTL is available under a BSD-style license. The intent behind the agreement was that Spectra would work to get CTL into the FreeBSD tree. Some CTL features: - Disk and processor device emulation. - Tagged queueing - SCSI task attribute support (ordered, head of queue, simple tags) - SCSI implicit command ordering support. (e.g. if a read follows a mode select, the read will be blocked until the mode select completes.) - Full task management support (abort, LUN reset, target reset, etc.) - Support for multiple ports - Support for multiple simultaneous initiators - Support for multiple simultaneous backing stores - Persistent reservation support - Mode sense/select support - Error injection support - High Availability support (1) - All I/O handled in-kernel, no userland context switch overhead. (1) HA Support is just an API stub, and needs much more to be fully functional. ctl.c: The core of CTL. Command handlers and processing, character driver, and HA support are here. ctl.h: Basic function declarations and data structures. ctl_backend.c, ctl_backend.h: The basic CTL backend API. ctl_backend_block.c, ctl_backend_block.h: The block and file backend. This allows for using a disk or a file as the backing store for a LUN. Multiple threads are started to do I/O to the backing device, primarily because the VFS API requires that to get any concurrency. ctl_backend_ramdisk.c: A "fake" ramdisk backend. It only allocates a small amount of memory to act as a source and sink for reads and writes from an initiator. Therefore it cannot be used for any real data, but it can be used to test for throughput. It can also be used to test initiators' support for extremely large LUNs. ctl_cmd_table.c: This is a table with all 256 possible SCSI opcodes, and command handler functions defined for supported opcodes. ctl_debug.h: Debugging support. ctl_error.c, ctl_error.h: CTL-specific wrappers around the CAM sense building functions. ctl_frontend.c, ctl_frontend.h: These files define the basic CTL frontend port API. ctl_frontend_cam_sim.c: This is a CTL frontend port that is also a CAM SIM. This frontend allows for using CTL without any target-capable hardware. So any LUNs you create in CTL are visible in CAM via this port. ctl_frontend_internal.c, ctl_frontend_internal.h: This is a frontend port written for Copan to do some system-specific tasks that required sending commands into CTL from inside the kernel. This isn't entirely relevant to FreeBSD in general, but can perhaps be repurposed. ctl_ha.h: This is a stubbed-out High Availability API. Much more is needed for full HA support. See the comments in the header and the description of what is needed in the README.ctl.txt file for more details. ctl_io.h: This defines most of the core CTL I/O structures. union ctl_io is conceptually very similar to CAM's union ccb. ctl_ioctl.h: This defines all ioctls available through the CTL character device, and the data structures needed for those ioctls. ctl_mem_pool.c, ctl_mem_pool.h: Generic memory pool implementation used by the internal frontend. ctl_private.h: Private data structres (e.g. CTL softc) and function prototypes. This also includes the SCSI vendor and product names used by CTL. ctl_scsi_all.c, ctl_scsi_all.h: CTL wrappers around CAM sense printing functions. ctl_ser_table.c: Command serialization table. This defines what happens when one type of command is followed by another type of command. ctl_util.c, ctl_util.h: CTL utility functions, primarily designed to be used from userland. See ctladm for the primary consumer of these functions. These include CDB building functions. scsi_ctl.c: CAM target peripheral driver and CTL frontend port. This is the path into CTL for commands from target-capable hardware/SIMs. README.ctl.txt: CTL code features, roadmap, to-do list. usr.sbin/Makefile: Add ctladm. ctladm/Makefile, ctladm/ctladm.8, ctladm/ctladm.c, ctladm/ctladm.h, ctladm/util.c: ctladm(8) is the CTL management utility. It fills a role similar to camcontrol(8). It allow configuring LUNs, issuing commands, injecting errors and various other control functions. usr.bin/Makefile: Add ctlstat. ctlstat/Makefile ctlstat/ctlstat.8, ctlstat/ctlstat.c: ctlstat(8) fills a role similar to iostat(8). It reports I/O statistics for CTL. sys/conf/files: Add CTL files. sys/conf/NOTES: Add device ctl. sys/cam/scsi_all.h: To conform to more recent specs, the inquiry CDB length field is now 2 bytes long. Add several mode page definitions for CTL. sys/cam/scsi_all.c: Handle the new 2 byte inquiry length. sys/dev/ciss/ciss.c, sys/dev/ata/atapi-cam.c, sys/cam/scsi/scsi_targ_bh.c, scsi_target/scsi_cmds.c, mlxcontrol/interface.c: Update for 2 byte inquiry length field. scsi_da.h: Add versions of the format and rigid disk pages that are in a more reasonable format for CTL. amd64/conf/GENERIC, i386/conf/GENERIC, ia64/conf/GENERIC, sparc64/conf/GENERIC: Add device ctl. i386/conf/PAE: The CTL frontend SIM at least does not compile cleanly on PAE. Sponsored by: Copan Systems, SGI and Spectra Logic MFC after: 1 month
2012-01-12 00:34:33 +00:00
ctladm \
ctld \
daemon \
dconschat \
Add a new device control utility for new-bus devices called devctl. This allows the user to request administrative changes to individual devices such as attach or detaching drivers or disabling and re-enabling devices. - Add a new /dev/devctl2 character device which uses ioctls for device requests. The ioctls use a common 'struct devreq' which is somewhat similar to 'struct ifreq'. - The ioctls identify the device to operate on via a string. This string can either by the device's name, or it can be a bus-specific address. (For unattached devices, a bus address is the only way to locate a device.) Bus drivers register an eventhandler to claim unrecognized device names that the driver recognizes as a valid address. Two buses currently support addresses: ACPI recognizes any device in the ACPI namespace via its full path starting with "\" and the PCI bus driver recognizes an address specification of 'pci[<domain>:]<bus>:<slot>:<func>' (identical to the PCI selector strings supported by pciconf). - To make it easier to cut and paste, change the PnP location string in the PCI bus driver to output a full PCI selector string rather than 'slot=<slot> function=<func>'. - Add a devctl(3) interface in libdevctl which provides a wrapper around the ioctls and is the preferred interface for other userland code. - Add a devctl(8) program which is a simple wrapper around the requests supported by devctl(3). - Add a device_is_suspended() function to check DF_SUSPENDED. - Add a resource_unset_value() function that can be used to remove a hint from the kernel environment. This is used to clear a hint.<driver>.<unit>.disabled hint when re-enabling a boot-time disabled device. Reviewed by: imp (parts) Requested by: imp (changing PCI location string) Relnotes: yes
2015-02-06 16:09:01 +00:00
devctl \
2001-04-21 00:13:57 +00:00
devinfo \
digictl \
diskinfo \
dumpcis \
extattr \
extattrctl \
fifolog \
fstyp \
2002-12-30 10:13:16 +00:00
fwcontrol \
getfmac \
getpmac \
gstat \
i2c \
ifmcstat \
1998-11-09 23:39:02 +00:00
iostat \
iovctl \
kldxref \
mailwrapper \
makefs \
1999-04-07 04:12:02 +00:00
memcontrol \
1999-10-20 07:33:09 +00:00
mergemaster \
mfiutil \
1999-11-13 18:34:22 +00:00
mixer \
2000-04-11 03:02:37 +00:00
mlxcontrol \
mountd \
mount_smbfs \
mpsutil \
mptutil \
1998-08-30 20:58:16 +00:00
mtest \
newsyslog \
nfscbd \
nfsd \
nfsdumpstate \
nfsrevoke \
nfsuserd \
nmtree \
nologin \
1998-08-30 20:58:16 +00:00
pciconf \
periodic \
2005-02-26 21:18:20 +00:00
powerd \
1998-08-30 20:58:16 +00:00
procctl \
pstat \
pw \
pwd_mkdb \
quot \
rarpd \
rmt \
Bring in a hybrid of SunSoft's transport-independent RPC (TI-RPC) and associated changes that had to happen to make this possible as well as bugs fixed along the way. Bring in required TLI library routines to support this. Since we don't support TLI we've essentially copied what NetBSD has done, adding a thin layer to emulate direct the TLI calls into BSD socket calls. This is mostly from Sun's tirpc release that was made in 1994, however some fixes were backported from the 1999 release (supposedly only made available after this porting effort was underway). The submitter has agreed to continue on and bring us up to the 1999 release. Several key features are introduced with this update: Client calls are thread safe. (1999 code has server side thread safe) Updated, a more modern interface. Many userland updates were done to bring the code up to par with the recent RPC API. There is an update to the pthreads library, a function pthread_main_np() was added to emulate a function of Sun's threads library. While we're at it, bring in NetBSD's lockd, it's been far too long of a wait. New rpcbind(8) replaces portmap(8) (supporting communication over an authenticated Unix-domain socket, and by default only allowing set and unset requests over that channel). It's much more secure than the old portmapper. Umount(8), mountd(8), mount_nfs(8), nfsd(8) have also been upgraded to support TI-RPC and to support IPV6. Umount(8) is also fixed to unmount pathnames longer than 80 chars, which are currently truncated by the Kernel statfs structure. Submitted by: Martin Blapp <mb@imp.ch> Manpage review: ru Secure RPC implemented by: wpaul
2001-03-19 12:50:13 +00:00
rpcbind \
1998-08-30 20:58:16 +00:00
rpc.lockd \
rpc.statd \
rpc.umntall \
1998-11-09 23:39:02 +00:00
rtprio \
service \
services_mkdb \
sesutil \
2008-05-10 00:43:13 +00:00
setfib \
setfmac \
setpmac \
2004-05-17 10:57:03 +00:00
smbmsg \
2005-07-20 22:53:57 +00:00
snapinfo \
1998-08-30 20:58:16 +00:00
spray \
syslogd \
sysrc \
tcpdrop \
tcpdump \
1998-08-30 20:58:16 +00:00
traceroute \
trpt \
tzsetup \
uefisign \
ugidfw \
vigr \
1998-08-30 20:58:16 +00:00
vipw \
wake \
1998-08-30 20:58:16 +00:00
watch \
watchdogd \
zic
# NB: keep these sorted by MK_* knobs
SUBDIR.${MK_ACCT}+= accton
SUBDIR.${MK_ACCT}+= sa
SUBDIR.${MK_AMD}+= amd
SUBDIR.${MK_AUDIT}+= audit
SUBDIR.${MK_AUDIT}+= auditd
.if ${MK_OPENSSL} != "no"
SUBDIR.${MK_AUDIT}+= auditdistd
.endif
SUBDIR.${MK_AUDIT}+= auditreduce
SUBDIR.${MK_AUDIT}+= praudit
SUBDIR.${MK_AUTHPF}+= authpf
SUBDIR.${MK_AUTOFS}+= autofs
SUBDIR.${MK_BLUETOOTH}+= bluetooth
SUBDIR.${MK_BOOTPARAMD}+= bootparamd
SUBDIR.${MK_BSDINSTALL}+= bsdinstall
SUBDIR.${MK_BSNMP}+= bsnmpd
SUBDIR.${MK_CTM}+= ctm
SUBDIR.${MK_FLOPPY}+= fdcontrol
SUBDIR.${MK_FLOPPY}+= fdformat
SUBDIR.${MK_FLOPPY}+= fdread
SUBDIR.${MK_FLOPPY}+= fdwrite
SUBDIR.${MK_FMTREE}+= fmtree
SUBDIR.${MK_FREEBSD_UPDATE}+= freebsd-update
SUBDIR.${MK_GSSAPI}+= gssd
SUBDIR.${MK_GPIO}+= gpioctl
SUBDIR.${MK_INET6}+= ip6addrctl
SUBDIR.${MK_INET6}+= mld6query
SUBDIR.${MK_INET6}+= ndp
SUBDIR.${MK_INET6}+= rip6query
SUBDIR.${MK_INET6}+= route6d
SUBDIR.${MK_INET6}+= rrenumd
SUBDIR.${MK_INET6}+= rtadvctl
SUBDIR.${MK_INET6}+= rtadvd
SUBDIR.${MK_INET6}+= rtsold
SUBDIR.${MK_INET6}+= traceroute6
SUBDIR.${MK_INETD}+= inetd
SUBDIR.${MK_IPFW}+= ipfwpcap
SUBDIR.${MK_ISCSI}+= iscsid
SUBDIR.${MK_JAIL}+= jail
SUBDIR.${MK_JAIL}+= jexec
SUBDIR.${MK_JAIL}+= jls
# XXX MK_SYSCONS
SUBDIR.${MK_LEGACY_CONSOLE}+= kbdcontrol
SUBDIR.${MK_LEGACY_CONSOLE}+= kbdmap
SUBDIR.${MK_LEGACY_CONSOLE}+= moused
SUBDIR.${MK_LEGACY_CONSOLE}+= vidcontrol
.if ${MK_LIBTHR} != "no" || ${MK_LIBPTHREAD} != "no"
SUBDIR.${MK_PPP}+= pppctl
SUBDIR.${MK_NS_CACHING}+= nscd
.endif
SUBDIR.${MK_LPR}+= lpr
SUBDIR.${MK_MAN_UTILS}+= manctl
SUBDIR.${MK_NAND}+= nandsim
SUBDIR.${MK_NAND}+= nandtool
SUBDIR.${MK_NETGRAPH}+= flowctl
SUBDIR.${MK_NETGRAPH}+= lmcconfig
SUBDIR.${MK_NETGRAPH}+= ngctl
SUBDIR.${MK_NETGRAPH}+= nghook
SUBDIR.${MK_NIS}+= rpc.yppasswdd
SUBDIR.${MK_NIS}+= rpc.ypupdated
SUBDIR.${MK_NIS}+= rpc.ypxfrd
SUBDIR.${MK_NIS}+= ypbind
SUBDIR.${MK_NIS}+= ypldap
SUBDIR.${MK_NIS}+= yp_mkdb
SUBDIR.${MK_NIS}+= yppoll
SUBDIR.${MK_NIS}+= yppush
SUBDIR.${MK_NIS}+= ypserv
SUBDIR.${MK_NIS}+= ypset
SUBDIR.${MK_NTP}+= ntp
SUBDIR.${MK_OPENSSL}+= keyserv
SUBDIR.${MK_PC_SYSINSTALL}+= pc-sysinstall
SUBDIR.${MK_PF}+= ftp-proxy
SUBDIR.${MK_PKGBOOTSTRAP}+= pkg
SUBDIR.${MK_PMC}+= pmcannotate
SUBDIR.${MK_PMC}+= pmccontrol
SUBDIR.${MK_PMC}+= pmcstat
SUBDIR.${MK_PORTSNAP}+= portsnap
SUBDIR.${MK_PPP}+= ppp
SUBDIR.${MK_QUOTAS}+= edquota
SUBDIR.${MK_QUOTAS}+= quotaon
SUBDIR.${MK_QUOTAS}+= repquota
SUBDIR.${MK_RCMDS}+= rwhod
SUBDIR.${MK_RCS}+= etcupdate
SUBDIR.${MK_SENDMAIL}+= editmap
SUBDIR.${MK_SENDMAIL}+= mailstats
SUBDIR.${MK_SENDMAIL}+= makemap
SUBDIR.${MK_SENDMAIL}+= praliases
SUBDIR.${MK_SENDMAIL}+= sendmail
SUBDIR.${MK_TCP_WRAPPERS}+= tcpdchk
SUBDIR.${MK_TCP_WRAPPERS}+= tcpdmatch
SUBDIR.${MK_TIMED}+= timed
SUBDIR.${MK_TOOLCHAIN}+= config
SUBDIR.${MK_TOOLCHAIN}+= crunch
SUBDIR.${MK_UNBOUND}+= unbound
SUBDIR.${MK_USB}+= uathload
SUBDIR.${MK_USB}+= uhsoctl
SUBDIR.${MK_USB}+= usbconfig
SUBDIR.${MK_USB}+= usbdump
SUBDIR.${MK_UTMPX}+= ac
SUBDIR.${MK_UTMPX}+= lastlogin
SUBDIR.${MK_UTMPX}+= utx
SUBDIR.${MK_WIRELESS}+= ancontrol
SUBDIR.${MK_WIRELESS}+= wlandebug
SUBDIR.${MK_WIRELESS}+= wpa
SUBDIR.${MK_TESTS}+= tests
.include <bsd.arch.inc.mk>
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SUBDIR:= ${SUBDIR:O}
SUBDIR_PARALLEL=
1994-05-26 05:23:31 +00:00
.include <bsd.subdir.mk>