Flatten the dist and various 4.n.n trees in preparation of future ntp imports.

1 files changed, 0 insertions, 421 deletions

diff --git a/contrib/ntp/ntpd/refclock_heath.c b/contrib/ntp/ntpd/refclock_heath.c
deleted file mode 100644
index c16cef3..0000000
--- a/contrib/ntp/ntpd/refclock_heath.c
+++ /dev/null
@@ -1,421 +0,0 @@
-/*
- * refclock_heath - clock driver for Heath GC-1000 and and GC-1000 II
- */
-#ifdef HAVE_CONFIG_H
-#include <config.h>
-#endif
-
-#if defined(REFCLOCK) && defined(CLOCK_HEATH)
-
-#include "ntpd.h"
-#include "ntp_io.h"
-#include "ntp_refclock.h"
-#include "ntp_stdlib.h"
-
-#include <stdio.h>
-#include <ctype.h>
-
-#ifdef HAVE_SYS_IOCTL_H
-# include <sys/ioctl.h>
-#endif /* not HAVE_SYS_IOCTL_H */
-
-/*
- * This driver supports the Heath GC-1000 Most Accurate Clock, with
- * RS232C Output Accessory. This is a WWV/WWVH receiver somewhat less
- * robust than other supported receivers. Its claimed accuracy is 100 ms
- * when actually synchronized to the broadcast signal, but this doesn't
- * happen even most of the time, due to propagation conditions, ambient
- * noise sources, etc. When not synchronized, the accuracy is at the
- * whim of the internal clock oscillator, which can wander into the
- * sunset without warning. Since the indicated precision is 100 ms,
- * expect a host synchronized only to this thing to wander to and fro,
- * occasionally being rudely stepped when the offset exceeds the default
- * clock_max of 128 ms. 
- *
- * There are two GC-1000 versions supported by this driver. The original
- * GC-1000 with RS-232 output first appeared in 1983, but dissapeared
- * from the market a few years later. The GC-1000 II with RS-232 output
- * first appeared circa 1990, but apparently is no longer manufactured.
- * The two models differ considerably, both in interface and commands.
- * The GC-1000 has a pseudo-bipolar timecode output triggered by a RTS
- * transition. The timecode includes both the day of year and time of
- * day. The GC-1000 II has a true bipolar output and a complement of
- * single character commands. The timecode includes only the time of
- * day.
- *
- * GC-1000
- *
- * The internal DIPswitches should be set to operate in MANUAL mode. The
- * external DIPswitches should be set to GMT and 24-hour format.
- *
- * In MANUAL mode the clock responds to a rising edge of the request to
- * send (RTS) modem control line by sending the timecode. Therefore, it
- * is necessary that the operating system implement the TIOCMBIC and
- * TIOCMBIS ioctl system calls and TIOCM_RTS control bit. Present
- * restrictions require the use of a POSIX-compatible programming
- * interface, although other interfaces may work as well.
- *
- * A simple hardware modification to the clock can be made which
- * prevents the clock hearing the request to send (RTS) if the HI SPEC
- * lamp is out. Route the HISPEC signal to the tone decoder board pin
- * 19, from the display, pin 19. Isolate pin 19 of the decoder board
- * first, but maintain connection with pin 10. Also isolate pin 38 of
- * the CPU on the tone board, and use half an added 7400 to gate the
- * original signal to pin 38 with that from pin 19.
- *
- * The clock message consists of 23 ASCII printing characters in the
- * following format:
- *
- * hh:mm:ss.f AM  dd/mm/yr<cr>
- *
- *	hh:mm:ss.f = hours, minutes, seconds
- *	f = deciseconds ('?' when out of spec)
- *	AM/PM/bb = blank in 24-hour mode
- *	dd/mm/yr = day, month, year
- *
- * The alarm condition is indicated by '?', rather than a digit, at f.
- * Note that 0?:??:??.? is displayed before synchronization is first
- * established and hh:mm:ss.? once synchronization is established and
- * then lost again for about a day.
- *
- * GC-1000 II
- *
- * Commands consist of a single letter and are case sensitive. When
- * enterred in lower case, a description of the action performed is
- * displayed. When enterred in upper case the action is performed.
- * Following is a summary of descriptions as displayed by the clock:
- *
- * The clock responds with a command The 'A' command returns an ASCII
- * local time string:  HH:MM:SS.T xx<CR>, where
- *
- *	HH = hours
- *	MM = minutes
- *	SS = seconds
- *	T = tenths-of-seconds
- *	xx = 'AM', 'PM', or '  '
- *	<CR> = carriage return
- *
- * The 'D' command returns 24 pairs of bytes containing the variable
- * divisor value at the end of each of the previous 24 hours. This
- * allows the timebase trimming process to be observed.  UTC hour 00 is
- * always returned first. The first byte of each pair is the high byte
- * of (variable divisor * 16); the second byte is the low byte of
- * (variable divisor * 16). For example, the byte pair 3C 10 would be
- * returned for a divisor of 03C1 hex (961 decimal).
- *
- * The 'I' command returns:  | TH | TL | ER | DH | DL | U1 | I1 | I2 | ,
- * where
- *
- *	TH = minutes since timebase last trimmed (high byte)
- *	TL = minutes since timebase last trimmed (low byte)
- *	ER = last accumulated error in 1.25 ms increments
- *	DH = high byte of (current variable divisor * 16)
- *	DL = low byte of (current variable divisor * 16)
- *	U1 = UT1 offset (/.1 s):  | + | 4 | 2 | 1 | 0 | 0 | 0 | 0 |
- *	I1 = information byte 1:  | W | C | D | I | U | T | Z | 1 | ,
- *	     where
- *
- *		W = set by WWV(H)
- *		C = CAPTURE LED on
- *		D = TRIM DN LED on
- *		I = HI SPEC LED on
- *		U = TRIM UP LED on
- *		T = DST switch on
- *		Z = UTC switch on
- *		1 = UT1 switch on
- *
- *	I2 = information byte 2:  | 8 | 8 | 4 | 2 | 1 | D | d | S | ,
- *	     where
- *
- *		8, 8, 4, 2, 1 = TIME ZONE switch settings
- *		D = DST bit (#55) in last-received frame
- *		d = DST bit (#2) in last-received frame
- *		S = clock is in simulation mode
- *
- * The 'P' command returns 24 bytes containing the number of frames
- * received without error during UTC hours 00 through 23, providing an
- * indication of hourly propagation.  These bytes are updated each hour
- * to reflect the previous 24 hour period.  UTC hour 00 is always
- * returned first.
- *
- * The 'T' command returns the UTC time:  | HH | MM | SS | T0 | , where
- *	HH = tens-of-hours and hours (packed BCD)
- *	MM = tens-of-minutes and minutes (packed BCD)
- *	SS = tens-of-seconds and seconds (packed BCD)
- *	T = tenths-of-seconds (BCD)
- *
- * Fudge Factors
- *
- * A fudge time1 value of .04 s appears to center the clock offset
- * residuals. The fudge time2 parameter is the local time offset east of
- * Greenwich, which depends on DST. Sorry about that, but the clock
- * gives no hint on what the DIPswitches say.
- */
-
-/*
- * Interface definitions
- */
-#define	DEVICE		"/dev/heath%d" /* device name and unit */
-#define	PRECISION	(-4)	/* precision assumed (about 100 ms) */
-#define	REFID		"WWV\0"	/* reference ID */
-#define	DESCRIPTION	"Heath GC-1000 Most Accurate Clock" /* WRU */
-
-#define LENHEATH1	23	/* min timecode length */
-#define LENHEATH2	13	/* min timecode length */
-
-/*
- * Tables to compute the ddd of year form icky dd/mm timecode. Viva la
- * leap.
- */
-static int day1tab[] = {31, 28, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31};
-static int day2tab[] = {31, 29, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31};
-
-/*
- * Baud rate table. The GC-1000 supports 1200, 2400 and 4800; the
- * GC-1000 II supports only 9600.
- */
-static int speed[] = {B1200, B2400, B4800, B9600};
-
-/*
- * Function prototypes
- */
-static	int	heath_start	P((int, struct peer *));
-static	void	heath_shutdown	P((int, struct peer *));
-static	void	heath_receive	P((struct recvbuf *));
-static	void	heath_poll	P((int, struct peer *));
-
-/*
- * Transfer vector
- */
-struct	refclock refclock_heath = {
-	heath_start,		/* start up driver */
-	heath_shutdown,		/* shut down driver */
-	heath_poll,		/* transmit poll message */
-	noentry,		/* not used (old heath_control) */
-	noentry,		/* initialize driver */
-	noentry,		/* not used (old heath_buginfo) */
-	NOFLAGS			/* not used */
-};
-
-
-/*
- * heath_start - open the devices and initialize data for processing
- */
-static int
-heath_start(
-	int unit,
-	struct peer *peer
-	)
-{
-	struct refclockproc *pp;
-	int fd;
-	char device[20];
-
-	/*
-	 * Open serial port
-	 */
-	(void)sprintf(device, DEVICE, unit);
-	if (!(fd = refclock_open(device, speed[peer->ttl & 0x3], 0)))
-	    return (0);
-	pp = peer->procptr;
-	pp->io.clock_recv = heath_receive;
-	pp->io.srcclock = (caddr_t)peer;
-	pp->io.datalen = 0;
-	pp->io.fd = fd;
-	if (!io_addclock(&pp->io)) {
-		(void) close(fd);
-		return (0);
-	}
-
-	/*
-	 * Initialize miscellaneous variables
-	 */
-	peer->precision = PRECISION;
-	peer->burst = NSTAGE;
-	pp->clockdesc = DESCRIPTION;
-	memcpy((char *)&pp->refid, REFID, 4);
-	return (1);
-}
-
-
-/*
- * heath_shutdown - shut down the clock
- */
-static void
-heath_shutdown(
-	int unit,
-	struct peer *peer
-	)
-{
-	struct refclockproc *pp;
-
-	pp = peer->procptr;
-	io_closeclock(&pp->io);
-}
-
-
-/*
- * heath_receive - receive data from the serial interface
- */
-static void
-heath_receive(
-	struct recvbuf *rbufp
-	)
-{
-	struct refclockproc *pp;
-	struct peer *peer;
-	l_fp trtmp;
-	int month, day;
-	int i;
-	char dsec, a[5];
-
-	/*
-	 * Initialize pointers and read the timecode and timestamp
-	 */
-	peer = (struct peer *)rbufp->recv_srcclock;
-	pp = peer->procptr;
-	pp->lencode = refclock_gtlin(rbufp, pp->a_lastcode, BMAX,
-	    &trtmp);
-
-	/*
-	 * We get down to business, check the timecode format and decode
-	 * its contents. If the timecode has invalid length or is not in
-	 * proper format, we declare bad format and exit.
-	 */
-	switch (pp->lencode) {
-
-	/*
-	 * GC-1000 timecode format: "hh:mm:ss.f AM  mm/dd/yy"
-	 * GC-1000 II timecode format: "hh:mm:ss.f   "
-	 */
-	case LENHEATH1:
-		if (sscanf(pp->a_lastcode,
-		    "%2d:%2d:%2d.%c%5c%2d/%2d/%2d", &pp->hour,
-		    &pp->minute, &pp->second, &dsec, a, &month, &day,
-		    &pp->year) != 8) {
-			refclock_report(peer, CEVNT_BADREPLY);
-			return;
-		}
-		break;
-
-	/*
-	 * GC-1000 II timecode format: "hh:mm:ss.f   "
-	 */
-	case LENHEATH2:
-		if (sscanf(pp->a_lastcode, "%2d:%2d:%2d.%c", &pp->hour,
-		    &pp->minute, &pp->second, &dsec) != 4) {
-			refclock_report(peer, CEVNT_BADREPLY);
-			return;
-		}
-		break;
-
-	default:
-		refclock_report(peer, CEVNT_BADREPLY);
-		return;
-	}
-
-	/*
-	 * We determine the day of the year from the DIPswitches. This
-	 * should be fixed, since somebody might forget to set them.
-	 * Someday this hazard will be fixed by a fiendish scheme that
-	 * looks at the timecode and year the radio shows, then computes
-	 * the residue of the seconds mod the seconds in a leap cycle.
-	 * If in the third year of that cycle and the third and later
-	 * months of that year, add one to the day. Then, correct the
-	 * timecode accordingly. Icky pooh. This bit of nonsense could
-	 * be avoided if the engineers had been required to write a
-	 * device driver before finalizing the timecode format.
-	 */
-	if (month < 1 || month > 12 || day < 1) {
-		refclock_report(peer, CEVNT_BADTIME);
-		return;
-	}
-	if (pp->year % 4) {
-		if (day > day1tab[month - 1]) {
-			refclock_report(peer, CEVNT_BADTIME);
-			return;
-		}
-		for (i = 0; i < month - 1; i++)
-		    day += day1tab[i];
-	} else {
-		if (day > day2tab[month - 1]) {
-			refclock_report(peer, CEVNT_BADTIME);
-			return;
-		}
-		for (i = 0; i < month - 1; i++)
-		    day += day2tab[i];
-	}
-	pp->day = day;
-
-	/*
-	 * Determine synchronization and last update
-	 */
-	if (!isdigit((int)dsec))
-		pp->leap = LEAP_NOTINSYNC;
-	else {
-		pp->nsec = (dsec - '0') * 100000000;
-		pp->leap = LEAP_NOWARNING;
-	}
-	if (!refclock_process(pp))
-		refclock_report(peer, CEVNT_BADTIME);
-}
-
-
-/*
- * heath_poll - called by the transmit procedure
- */
-static void
-heath_poll(
-	int unit,
-	struct peer *peer
-	)
-{
-	struct refclockproc *pp;
-	int bits = TIOCM_RTS;
-
-	/*
-	 * At each poll we check for timeout and toggle the RTS modem
-	 * control line, then take a timestamp. Presumably, this is the
-	 * event the radio captures to generate the timecode.
-	 * Apparently, the radio takes about a second to make up its
-	 * mind to send a timecode, so the receive timestamp is
-	 * worthless.
-	 */
-	pp = peer->procptr;
-
-	/*
-	 * We toggle the RTS modem control lead (GC-1000) and sent a T
-	 * (GC-1000 II) to kick a timecode loose from the radio. This
-	 * code works only for POSIX and SYSV interfaces. With bsd you
-	 * are on your own. We take a timestamp between the up and down
-	 * edges to lengthen the pulse, which should be about 50 usec on
-	 * a Sun IPC. With hotshot CPUs, the pulse might get too short.
-	 * Later.
-	 */
-	if (ioctl(pp->io.fd, TIOCMBIC, (char *)&bits) < 0)
-		refclock_report(peer, CEVNT_FAULT);
-	get_systime(&pp->lastrec);
-	if (write(pp->io.fd, "T", 1) != 1)
-		refclock_report(peer, CEVNT_FAULT);
-	ioctl(pp->io.fd, TIOCMBIS, (char *)&bits);
-	if (peer->burst > 0)
-		return;
-	if (pp->coderecv == pp->codeproc) {
-		refclock_report(peer, CEVNT_TIMEOUT);
-		return;
-	}
-	pp->lastref = pp->lastrec;
-	refclock_receive(peer);
-	record_clock_stats(&peer->srcadr, pp->a_lastcode);
-#ifdef DEBUG
-	if (debug)
-	    printf("heath: timecode %d %s\n", pp->lencode,
-		   pp->a_lastcode);
-#endif
-	peer->burst = MAXSTAGE;
-	pp->polls++;
-}
-
-#else
-int refclock_heath_bs;
-#endif /* REFCLOCK */