Mp1 Type 1 Manual 3v4r4e

[email protected]

. Carriage return is denoted by CR. Recognised requests are: V

Requests kV voltage display. Response is ?Vnnn

I

Requests current mA display. Response is ?Innn The decimal point is omitted.

T

Requests elapsed time. Response is ?Tnnn . The decimal point is omitted.

P

Requests programme display. Response is ?Pnnn

M

Requests current mode. Response is ?Mnnn Valid modes are

000 001 002 003 004

Key in position 2 Key in 3 but no X-Ray On Prewarning X-Rays switching on or off X-Ray On andExposure being logged

E

Requests currently displayed errors. Response is Ennn,nnn, nnn,nnn . There may be no errors.

F

Requests selected focus. Response is F (fine) or B (Broad)

R

Requests programme revision. Response is Rnnn

U

Requests warm up power setting. Response is Unnn

Copyright Gulmay Ltd June 2003 File: MP1MANF.DOC

Page 36

MP1 TECHNICAL MANUAL

RS232 COMMAND SUMMARY : COMMANDS Commands are of the form: ! or ! <3 digit number> . The MP1 must be in programme 800 and the Key on position 3. (Also the number must be 3 digits ie. 50=050) V

!Vnnn . Set kV request.

I

!Innn . Set mA request.

T

!T . Reset timer.

X

!X . Initiate X-Ray.

O

!O . Terminate X-Ray.

F

!F . Set Fine focus.

B

!B . Set Broad focus.


Page 37


INTERCONNECTION DIAGRAM

DWG No. MP2-003

This drawing details the connections in the MP1. At the top can be seen the three interface connections. The left hand connector, the RS232, is not required for normal operation. The Generator I/O Connector has to be connected via an external cable to the generator. The Lab I/O Box Connector has to be connected via an external cable to the Lab I/O Box. There are four principal circuit boards. I/O PCB

This contains all protection and 24V interface circuitry for the LAB I/O, Generator and RS232 link. All signals are then processed on the U PCB with the exception of the power and front switch connections.

U PCB

This PCB processes all signals from the above mentioned PCB and also interfaces to the DISPLAY PCB.

DISPLAY PCB

This PCB mounts on the inside of the MP1 front and includes the LED displays and the keyboard.

PSU PCB

This PCB rectifies, smoothes and regulates the +24V DC, +5V DC and +12V DC supplies.

The AC supply enters via PL2-B and PL2-C. This supply is fed from a or in the Lab I/O Box which is energised via the key switch SW3A. This of the key switch is closed when the key is in position 2 and 3. SW3B is made when the key switch is in position 3 and it is used to energise the HT or in the Lab I/O Box in conjunction with interlock circuitry on the I/O PCB. SK3 on the I/O PCB is the interface to 220V rated relay s used for switching externally supplied warning lamps. PL2 on the I/O PCB interfaces the 24V signals to the LAB I/O BOX. The RS232 and Generator connectors are mounted directly on the I/O PCB and protrude through the rear of the MP1 enclosure. RV1, 2 and 3 are the manual controls on the front . X-RAY ON and OFF switching is made with either SW1 and 2 on the front or using the remote switches in the LAB I/O BOX (or RS232). LP1 to 4 are the front warning lamps.


Page 38


SUGGESTED MP1 INTERFACE CIRCUIT DIAGRAM DWG No.MP3-042 (LAB I/O BOX) The circuit shown here utilises fully the interface options of the MP1 controller. THE CIRCUIT DOES NOT DEFINE A MEANS OF SATISFYING PREVAILING SAFETY REGULATIONS AS THIS IS THE RESPONSIBILITY OF THE INSTALLER OR SYSTEMS INTEGRATOR. The power rating of the AC supply depends on the type of Generator being controlled. That shown implies a 3kW system with allowances for additional power to a cooler, the controller and warning lamps. or K1 is energised when the KEYSWITCH on the is in position 2 and 3. The connection is made via pins D and E. When energised power is switched to the via B and C and also to the cooler and as auxiliary power to the Generator (220V AUX). or K2 is energised via a relay and key switch in the and this is the 220V MAIN supply to the Generator. K2 is energised via pin F and a sense signal is returned as +24V DC via pin H. THIS SUPPLY FEEDS THE EHT PRODUCING PART OF THE GENERATOR. THIS SUPPLY CAN BE ADDITIONALLY INTERLOCKED BY FEEDING TO THE GENERATOR VIA A DOOR SWITCH. A +24V DC feed from the is input at pin G. This can then be returned by safety and cooler interlocks via pins M,N,J and K. These connections must be made to enable the . An external lamp supply is shown as L2 and N2. Separate s are provided by the interface to switch 220V lamps. The PRE WARN s are pins S and T. The HT ON (X-RAY ON) s are pins P and R. There is provision for a bulb fail circuit to interface to the on pins U and V. A link is fitted to the as standard but an option exists to remove this link and open circuit these pins with a relay in the event of bulb failure. The connections for remote X-RAY ON/OFF switching are shown on pins W and X. THE CANNOT BE SWITCHED TO X-RAY ON IF THE REMOTE X-RAY OFF IS OPEN CIRCUIT.

N.B. THE USE OF THIS INTERFACE UNIT DOES NOT GUARANTEE ADHERENCE TO ANY PREVAILING REGULATIONS. OBSERVANCE OF SUCH REGULATIONS IS THE RESPONSIBILITY OF THE INSTALLER.


Page 39


I/O PCB CIRCUIT DIAGRAM

DWG No.MP2-020

This drawing is divided into three sheets. SHEET 1 PL2 interfaces to the LAB I/O BOX. SK2 interfaces to the Generator. SK1 interfaces to the U PCB. Safety 1 and 2 are both returned as +24V DC by the safety circuits in the installation via the LAB I/O BOX. Cooler 'TEMP' and 'FLOW' are both returned as +24V DC by the sense circuits in the cooler via the LAB I/O BOX. HT or sense is returned as +24V DC when the HT or is energised in the LAB I/O BOX. All the above signals are clamped by 12V zeners and then they source current into the optodiodes of isolators. The isolator outputs source current from the +5V DC logic supply and are then diode clamped and filtered before being buffered by schmitt inverters which interface the signals directly to the U PCB. The Generator signals in SK2 are all open collector (normally on) signals which pull current from the 'OPTO +12V' supply through the optodiodes of isolators. The isolator outputs are processed in the same way as the interface to the LAB I/O BOX.

SHEET 2 The HT OFF (X-RAY OFF) signal at PL4-15 is normally +24V DC. If either HT OFF switch (front or remote) is depressed this signal will become open circuit and no current will flow into IC8:D-8. In this event a +5V signal will be sent to the U PCB at SK1-27. The AUDIBLE WARNING signal from the U at SK1-20 energises the buzzer BZ1 via IC1:A and IC4:A. The BLINK signal at SK1-15 energises the relay RL1 via IC1:B and IC4:B to switch an external supply to an X-RAY ON warning lamp. This signal is normally switching on and off at 1Hz but may be continuous if the is so set. (See engineering codes) NEW On Issue 3 PCBs the relay RL1 has been replaced by a solid state relay SSR1 and the front HT ON indicator is driven by TR2.


Page 40


The PRE WARN signal at SK1-16 energises the relay RL2 via IC1:C and IC4:C to switch an external supply to a PRE WARN lamp. The signal is present prior to the X-RAY ON period. This signal is normally switching on and off at 1Hz but may be continuous. The duration of PRE WARN depends on settings and whether SAFETY-2 has been interrupted. (See engineering modes) On Issue 3 PCBs the relay RL2 has been replaced by solid state relay SSR2 and the front PRE WARN indicator is driven by TR3. The X-RAY ON (CONTROL) signal at SK1-21 does two things. It sends a 12V DC signal to the Generator at SK2-2, this signal is normally routed via LK1 but there is a provision for a remote bulb fail circuit in the LAB I/O Box to switch this line via PL2-7 and 8. The signal also energises the bulb in the X-RAY ON switch on the via IC13:A and TR1 and PL4-2. The INTERLOCK signal does three things. It energises the lamp in the SAFETY indicator via IC1:E, IC4:E and PL4-5. From the same node it also energises RL3 only if the SAFETY-1 line is returned as +24V DC. When RL3 is energised a +12V DC INTERLOCK signal is sent to the Generator via SK2- 8. The KEYSWITCH is connected between PL4-1 and 12. This is the made when the KEYSWITCH is in position 3. Turning the KEY to this position will energise RL4 only if the SAFETY-2 line is returned as +24V DC and the interlock relay RL3 is energised. Energising RL4 will switch on the external HT ON relay in the LAB I/O Box. This will connect the MAIN power to the Generator without which EHT cannot be produced. When RL4 is energised the XRAY OFF switch on the is illuminated via PL4-13 and 14. The X-RAY ON signal is initiated by switching PL2-10 or PL4-3 to +24V DC. The former is remote and the latter is on the . The signal is momentary and its interface circuit is shown on sheet 1 of the drawing. The link between the remote and mounted, normally closed, X-RAY OFF switches is from PL2-9 to PL4-10. When a focus selection is permitted by the X-RAY tube selection and conditions, the signal is input at SK1-17. A low signal to select the FINE focus is buffered by IC13:B, IC4:F and isolated and inverted by IC5:B. A +12V DC signal is sent to the Generator via SK2-11.


Page 41


SHEET 3 The RS232 interface connector PL1 is protected by series zeners and is sourced from the U PCB. The three analogue outputs from the are kV-DEMAND, mA-DEMAND and FIL-LIMIT. The first two are sourced from the U PCB and connected to the Generator via SK2-22 and SK2-10. The latter is set by RV1 (MAX=+12V DC) and connected to the Generator via SK2-9. The three analogue inputs from the Generator are mA-MONITOR, kV- MONITOR and the 12V REFERENCE. These are connected to the U PCB. The power from the PSU PCB is input in PL3. The test points, protection zeners and decoupling capacitors are shown. All power for the U PCB is routed from the PSU PCB via the I/O PCB. The outputs to the U PCB are shown in SK1.


Page 42


U PCB CIRCUIT DIAGRAM

DWG No.MP2-008

SHEET 1 The U PCB has two main connectors, PL4 connects to the DISPLAY PCB and PL1 which connects to the I/O PCB. There are two connectors for future expansion, PL2 and PL3. At the top of Sheet 1 part of PL4 is shown with the power supply from the U PCB to the DISPLAY PCB and the interface to the keyboard. The keys are normally open circuit and their outputs are pulled up by resistor arrays RU1 and RU2. The keys are read by the Parallel Input/Output (PIO) IC, IC12. PL2 is an unused 8 bit port which is for future expansion. Port B of the PIO, IC13, is used for 4 I/O PCB signals:X RAY ON SWITCH AUDIBLE WARNING X RAY ON STATUS X RAY OFF SWITCH

INPUT OUTPUT INPUT INPUT

Port B bit 4 is used to enable the 8 input analogue multiplexer, IC23 on sheet 2 and bits 5,6 and 7 are used to select channels on the same IC. Port A of the PIO, IC14 is used to interface to the I/O PCB with the following signals:COOLER TEMP SAFETY 1 SAFETY 2 X RAY ON (CONTROL) INTERLOCK BROAD/FINE SELECT PRE WARN BLINK

INPUT INPUT INPUT OUTPUT OUTPUT OUTPUT OUTPUT OUTPUT

Port B of the PIO, IC14 is used to interface to the I/O PCB with the following signals:OVER kV INPUT OVER mA INPUT CONVERTER O/CURRENT INPUT CONVERTER O/VOLTAGE INPUT 320/160 STATUS INPUT FINE/BROAD STATUS INPUT HT ON SENSE INPUT COOLER FLOW INPUT


Page 43


The power on reset circuit for the processor, IC3, comprises R5, D3 and C2. On power up this holds the reset pin IC3-6 low allowing all associated devices to power up before the processor initialises. A 1MHz signal is output at IC3-40 and is labelled E. This is input to IC4 which is a counter configured to divide by 13. This counter output at IC4-11 is the clock for the RS232 and is input to the processor at IC3-10. The processor outputs to the RS232 at IC3-11 and inputs at IC3-12. These are 5V signals which are converted to +/- 12V by the RS232 interface device IC5. The output of IC5 is connected to PL1 on the I/O PCB via PL1 on the U PCB and SK1 on the I/O PCB. IC1:B is a resettable mono stable which if not reset by the processor at IC3-8 will generate a non maskable interrupt at IC3-4 and will reset all the PIO devices at their reset pin (34). This circuit protects the system from problems that may arise through noise or incorrect operation. The programme is designed to continually retrigger IC1. Should this fail for any reason the system will be reset as described in under 20 milliseconds. Port 3 of the processor is the 8 bit data bus multiplexed with the low order address bits. The address bits are decoded by the octal latch IC7 which is controlled by the address strobe signal AS originating from IC3-39. The high order address bits originate from IC3 port 4. The memory devices on the bus are:IC11 PROGRAMME EPROM IC15 TABLE EPROM IC16 RAM IC17 EEPROM (SEE SHEET 2) The READ, WRITE and R/W signals are decoded by IC6. SW1 is the table select switch array, settings are given in the switch position table. SHEET 2 PL3 is uncommitted. It contains power, all the bus signals and two unused chip select signals CS4 and CS5. PL3 allows for additional circuitry to be added in future. IC8 and IC9 are decoder circuits which produce all the various chip select signals. IC18 is a 12 bit A/D converter. The input for IC18 can be one of the 8 inputs to the analogue multiplexer IC23. The output of IC23 is buffered by IC22:D.


Page 44


IC19 is a dual 12 bit D/A converter. The 2 outputs are buffered by IC20:B and IC20:A. The 2 analogue outputs are kV DEMAND and mA DEMAND. These are output to the I/O PCB at PL1-45 and PL1-44 and also to the multiplexer at IC23-11 and IC23-10. This allows the processor to calibrate the D/A converters. D4 is a reference diode.The reference is buffered (-5V) and fed to IC18-2. The link option is provided as some pin compatible A/D converters contain their own reference circuits. In this case D4 would be omitted and the link changed over. A -10V reference is generated at IC20:D for the D/A converter. A +10V reference is generated at IC20:C for the potentiometers on the DISPLAY PCB. The outputs of the potentiometers are input at PL4 pins 1,2 and 3. They are buffered by IC22:A,B and C and input to the multiplexer IC23. The output of the multiplexer is buffered by IC22:D. Analogue signals from the generator mA , kV and +12V INPUT are connected at PL1 pins 48, 47 and 46. These are buffered and then input to the multiplexer. IC24 is a DC to DC converter which produces a -15V DC power supply for the analogue ICs. IC25 is a REAL TIME CLOCK (RTC) IC. When the main +5V DC supply is powered down this IC is fed from the battery B1. This is charged via R23 when the +5V DC is powered up. TR2 buffers the clock chip select and TR1 is turned off as the +5V DC decays. The RTC contains 64 bytes of battery backed RAM which retains the time of last use and the programme number being used.


Page 45


DISPLAY PCB CIRCUIT DIAGRAM

DWG No MP3-014

The DISPLAY PCB includes 15 normally open switches that consist of 12 for the numeric keypad and 3 function keys. Connections for the three potentiometers are routed through the main connector SK1. Data from the U PCB is input serially at SK1-35. The 3 digit displays include driver circuitry which also drive the status LEDs LED1 to LED6. The various displays are addressed by the 4 data enable signals.

DISPLAY PCB (2) CIRCUIT DIAGRAM

DWG No MP2-054

On recent units the Display PCB has been changed and divided into a Display PCB and a Keyboard PCB. The Display PCB has the same circuit as previously but now has discrete instead of integrated decoder driver ICs.

KEY BOARD PCB CIRCUIT DIAGRAM

DWG No MP3-048

On recent units the Display PCB has been divided into this PCB and a separate Display PCB. The circuit function is as before.

P.S.U. PCB CIRCUIT DIAGRAM

DWG No MP3-026

The P.S.U. PCB includes 3 regulator ICs which control the +5V DC, +12V DC and +24V DC. This PCB contains the fusing, rectification and smoothing for each supply. An optional power output connector is fitted providing +5V and +24V.


Page 46


RECOMMENDED SPARE PARTS

DESCRIPTION

PART_No.

FUSE

F002 (20mm 1A A/S)

BULB

H174

P.S.U. PCB

MP2-024

I/O PCB

MP1-018

U PCB

MP1-006

DISPLAY PCB

MP1-012

DISPLAY PCB (2)

MP1-052

KEY BOARD PCB

MP2-046


Page 47


APPENDIX A:

FAULT DIAGNOSIS

MP1 DIAGNOSTICS BY ERROR CODES E1

This means you have pressed the ENTER button after selecting an illegal programme eg. 801.

E2

A processor divide by zero has occurred. The MP1 will need to be powered off and on to reset.

E3

A processor divide overflow has occurred. The MP1 will need to be powered off and on to reset.

E4

The kV has exceeded demand by 3% or 3 steps. This can be caused by a change in the power supply (220V) if sufficiently large. This may be caused by too fast a rate of change of demand or a fault in the MP1.

E5

The mA has exceeded demand by 3% or 3 steps. This may be caused by too high a filament standby setting.

E6

Not Used.

E7

Not Used.

E8

This error is shown if the key is turned to position 3 with non operational programme selected such as 906.

E9

This error occurs if the Filament status from the Generator does not match your selection.

E10

This error occurs if the bipolar status changes after power up.

E11

This is fed from the generator and means that the kV sense has exceeded the maximum allowable. In Bipolar mode this can show a kV imbalance which may be permanent or indicate a tube arc.

E12

This is fed from the generator and means that the mA sense has exceeded the maximum allowable. THIS IS QUITE COMMON IN THE EVENT OF A TUBE DISCHARGE. In Bipolar mode this can show a mA imbalance

E13

This is fed from the generator and means the current to the high frequency inverter has exceeded the maximum allowable. THIS IS QUITE COMMON IN THE EVENT OF A TUBE DISCHARGE.

E14

This is fed from the generator and means that the voltage to the high frequency inverter has exceeded a maximum level. This can occur if the high voltage multiplier has a damaged diode, consult the repair guide.


Page 48


E15

The flow switch in the cooler has opened, this will cause the SAFETY to extinguish.

E16

The temperature switch in the cooler has opened, this will cause the SAFETY to extinguish.

E17

The or sense signal is not present whilst an X- Ray On Command is detected. This may be because the key is in the wrong position.

E18

The kV is still less than the demand by 3% or 3 counts after 10 seconds. This may be due to a missing MAIN supply (see error 54) or a converter problem.

E19

The mA is still less than the demand by 3% or 3 counts after 10 seconds. This is most likely caused by too low a limit setting on the filament PCB in the generator.

E20

This is caused by the MP1 not measuring the 12V Reference in the generator. The generator may be completely un-powered or the 25 way interconnect cable may not be connected.

E21

This means that on receipt of an X-Ray ON (Control) signal the generator does not respond with an X-Ray On Status signal becoming true.

E22

This means that the kV took longer than 5 seconds to reduce to 5kV. This normally only occurs when running with a very low filament limit or when using a blanking plug (ie. running the generator open circuit). On bipolar units this threshold has been increased to 10kV (ver. 4.8)

E23

This occurs if the HT or drops out in the X Ray On state. This can also be caused by the operator terminating X Rays by turning the key.

E24

At power up this occurs if a kV Monitor signal is detected that is greater than 5kV. Safety is inhibited.

E25

At power up this occurs if a mA Monitor signal is detected that is greater than 0.5mA. Safety is inhibited.

E26

At power up this occurs if an X-Ray On Status signal is returned from the generator. Safety is inhibited.

E27

Reserved for a special additional module.

E28

Ditto.

E38

This error means that the unit calibration voltage is outside a defined tolerance band. The unit should be recalibrated in accordance with the initialisation procedures in this manual.


Page 49


The following errors need software programme revision 4.8 or later. E54

This indicates that the kV output did not exceed 5kV and implies a missing MAIN supply (220V) or converter problem.

E55

At power up the X Ray off signal chain is open circuit. This can be caused by the remote X Ray Off signal being open circuit in the LAB I/O interface.

E56

X Rays were terminated by the Safety 1 input being interrupted.

E57

X Rays were terminated by the Safety 2 input being interrupted.

E58

X Rays were terminated by the Cooler Flow (Error 15) input being interrupted.

E59

X Rays were terminated by the Cooler Temperature (Error 16) input being interrupted.

E60

At power up the safety or in the Lab I/O Box was detected as activated.

E61

X Rays were terminated by the Focus status changing (Error 9).

E62

X Rays were terminated by the Bipolar status changing (Error 10).


Page 50


FATAL ERRORS F1

A check sum error is detected in the programme eprom at power up. This must be a defective EPROM.

F2

The RAM is tested at power up and must be defective.

F3

A check sum error is detected in the tube table EPROM at power up. This is most likely to be due to an incorrect switch setting on the U PCB.

F4

A programme corruption has caused the watchdog timer to trigger. The only option is to turn off power to the MP1 wait 10 seconds and switch back on.

F5

A programme corruption has caused a process to time out, reset as for F4. SAFETY LINES These status signals will probably be caused by the breaking of an external interlock as part of the normal operation of the safety system. The GREEN safety lamp on the front should extinguish.

S1

S1 indicates the lack of a +24V SAFETY 1 signal on the I/O PCB at PL2/1 or a component fault.

S2

S2 indicates the lack of a +24V SAFETY 2 signal on the I/O PCB at PL2/2 or a component fault.


Page 51


INTERFACE FAULTS

NO PREWARN

When the KEY is in position 3 the X-RAY OFF switch should be illuminated RED. This will be the case only if the SAFETY lamp is illuminated GREEN. If pressing the X-RAY ON switch does not cause the PREWARN lamp to illuminate BLUE (and optionally blink) then one of two interface faults may be to blame. First make sure that the Keyboard buzzer is enabled by selecting programme 903. If the display reads OFF then press CLEAR,1 and ENTER: a: If you press the SET key and a buzz is heard then you know you are in the X-RAY ON enable mode because the processor is detecting a +24V return from the HT or in the LAB I/O connector pin H and so you should suspect the remote X-RAY OFF wire in the LAB I/O connector pin W not being returned as +24V. b: If a buzz is not heard then the processor thinks it is still in programme mode probably because the HT or sense wire is not returning +24V in the LAB I/O connector pin H.


Page 52


APPENDIX B : REVISION HISTORY OF PROGRAMME EPROM MP1-P

REVISION 2.4 Early production release. Do Not Use ! Problems with LED display dissipation. REVISION 2.9 Replaced 2.4. Fixed problem of LED display reliability and added Enginnering code 918 to set the Warm Up power limit. Fast clock (1 second timer ) added as an option. See Appendix C. REVISION 3.0 Errors corrected in the way the Errors E4,E5,E18 and E19 are calculated. Changes were made to the RS232 routines to prevent the main programme latching up due to excessive serial line traffic. The displays used to blink "88F" at switch on, this was corrected. A/D converter routines changed to prevent mains supply frequency synchronisation. REVISIONS 3.1 AND 3.2 Not released for production. REVISION 3.3 Display stability improved. Advisory code with Engineering switch 920 added. REVISION 3.4 An error in the real time display timer caused a display of "---" after 99.9 minutes. The display now wraps around to zero. An error in the storage routine for elapsed X ray hours (engineering code 913) caused a maximum time of 999.9 hours before resetting to zero. This was fixed to allow a new limit of 65535.9 hours. REVISION 3.5 Not generally released. Customer specific.


Page 53


REVISION 3.6 The calibration routine was changed so that the internal Engineers switch had to be selected to allow this procedure. (SW8 of SW1 on the U PCB). An Engineering routine 940 was added to correct for small monitor line offsets. See initialisation in this manual. A special programme option was enabled to switch between two unipolar tubes. See appendix C. REVISION 3.7 An error was found in the advisory code calender routines. This caused the advisory code to be erroneously triggered in the month of December. This was fixed. Due to the danger of incorrect operating parameters caused by erroneous calibration a new error was added, E38. If the calibration voltage is outside of a narrow band then this error will prevent operation. REVISION 3.8 A small start up bug was corrected which only had an affect with the table switch suffix versions. REVISION 3.9-4.0 Not released. REVISION 4.1 Changes were made to the programme resolution to allow special Tables to have 2 decimal places on mA and 1 decimal place on kV. this can only be the case for kV maximum under 100 and mA maximum under 10 due to the 3 digit limit. Numbers on the RS232 interface have the same decimal point position as the displays. Warmup ramp times can now exceed 100 minutes. The allowed rundown time for a tube can be changed from 5 seconds by setting a new rundown time in seconds in the tube table. REVISION 4.2 Bug Fix Exponential ramps of longer than 53 minutes. kV dipped back at regular intervals.


Page 54


REVISION 4.3 Initialisation of LED display blocks moved to avoid display errors on initialisation. Exponential warmup current changed to rise over 10 seconds at start of hold time. REVISION 4.4 Date display in UK,US or ISO formats. Uses engineering code 941 to select.:0 1 2

STD ISO USA

MM/DD/YY YY/MM/DD MM/DD/YY

Date format flashes against digits in date set modes. 3 second buzzer at end of radiographic exposure can be enabled using engineering code 942. Intermittent (3 pulses) buzzer indicates interruption of any X Ray process. SIO interrupt enabled during timer interrupt processing to improve RS232 response and reliability. Input and ouput buffers are 64 characters (no change).

REVISION 4.5 New engineer program 947 enabled and disabled option port bit 7 reflecting exposure status. Fluoroscopy = high, Radiography = low. This Bit is on U PCB PL2-3. From this version some space is used in the battery backed real time clock space to which spot the system was running on. On a system which allows warm up on either spot and the large spot is burnt out then the system would have kept reverting to the large on power up for a warm up. Most of the other modifications in this release were aimed at the case of a tube capable of warming up on either spot. New engineer program 948 allowed spot enable for tubes with warmup on both spots. The purpose of this was to limit the Filament selection on X Ray tubes with the ability to warm up on either focal spot.(Usually identical filaments). Options are :Function Both Allowed Large Only Small Only

Select 0 1 2

Indication 2 L F


Page 55


A bug causing a flicker in the time display (Engineering code 908) fixed together with a bug in the Advisory display introduced in 4.4 REVISION 4.6 Bug fix for autobrightness believed introduced in 4.1. Bug fix for tube parameter calculation that was introduced in 4.1. This affects voltages over 320kV at Impedances of 1Meg or less. Namely Tables 33B and 34B. Warning was issued not to use Programme revisions between 4.1 and 4.5 with tables 33B and 34B (Bipolar). REVISION 4.7 Comet, the X-Ray tube manufacturers have suggested that it will enhance tube life if the systems are only warmed up to the voltage required rather than the maximum allowed. To this end we have added Engineering Code 949. Using this code the operator can set a new voltage limit for the system. The default value will be 0 which means that the EPROM Table value will not be over ridden. Entering a new value will modify the limit for the system including the warm ups and full scale of the potentiometers and all demanded voltage values. There is a separate store for the Bipolar kV limit. If the limit is increased the unit will “beep” and automatically select the longest warm up available. If the limit is set to the same as the normal warm up start point then the warm up will become unselectable. The warm up times will be modified by the new limit as the ramp rates are maintained. The start points and mA settings for the exponential warm ups are not changed. REVISION 4.8 To prevent E22 errors on 450 units with long interface cables, the threshold for discharge is increased from 5 to 10kV in Bipolar mode. Several new errors (54-62) were added to improve diagnostics.


Page 56


APPENDIX C : PROGRAMME EPROM OPTIONS We can assemble certain options into the main programme EPROM MP1-P. These are identified by a suffix letter. Engineering code 910 reports on revision status including any suffix. SELECTABLE CLOCK VERSION TYPE 'U' (eg 3.7U) The timer can be switched from 0.1 minute to 1 second resolution. The new maximum time would be 9 Min. 59 Secs. Engineering code 919 is associated and special instructions are available. FAST CLOCK VERSION TYPE 'F' (eg 3.7F) The 1 second timer only is enabled.

TABLE SWITCH VERSION TYPE 'S' (eg 3.7S) This is the programme version that works with a special add in PCB to enable switching between two unipolar tubes. Special instructions are available.


Page 57

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