Holatron RAPID-FIRE 6 RFLS-96HSRCBL Betriebsanleitung

OPERATION & MAINTENANCE GUIDE -

RAPID-FIRE 6 pairable belt-loop receiver

HOLATRON SYSTEMS, LLC

833 ILANIWAI ST, STE. 3

HONOLULU, HI 96813

808-372-0956

www.holatron.com

Test Btn

Battery

Indicator

Output

Indicators

Digital Switch

Output

Indicators

Arm

Switch

Power

Switch

WARNING

Holatron Systems specializes in the design and manufacture of standard and custom electronic

control systems where reliability and error free data communication are critical. The receiver

described in this manual is part of a system intended to remotely actuate pyrotechnic or other

hazardous devices, and the components of this system have been carefully designed to minimize the

possibility of accidental actuation of such devices. Holatron’s design goal is to ensure that data

communication errors due to radio interference or to insufficient signal strength due to low

battery, exceeding specified range, or conductive objects in the signal path will result in failure of

intentional actuation rather than unintended actuation. Techniques used to achieve this design goal

are described in section 2.0. Though the probability of unintended actuation is extremely small, it

cannot be guaranteed to be zero. Therefore, it is important that the user not arm the receiver

until all persons who might be harmed by accidental actuation are in a safe area.

As a condition of purchase, the user must acknowledge awareness and agreement that utilization of

this product and participation in activities utilizing fireworks, rockets, and explosives is an ultra-

hazardous activity carrying implied and explicit risks of injuries and damages to the user and to

other participants. The user assumes the risk connected with the utilization of this product and all

risks of participation in the activities for which this product is sold. User acknowledges that

he/she/it has the necessary and required skill, expertise, training and licensing, as may be

applicable or necessary by custom, usage, trade or law, to engage and participate in the ultra-

hazardous activities connected with the use, purchase, transportation, or employment of the

products sold under this agreement. User acknowledges that Holatron Systems, LLC, has not and

will not conduct any investigation into the skill, expertise, training and licensing, as may be

applicable or necessary by custom, usage, trade or law, of the user or of user’s agents, employees

and assigns, to engage and participate in the ultra-hazardous activities connected with the use,

purchase, transportation, or employment of this product. User specifically agrees that Holatron

Systems, LLC, its officers, employees, and agents shall not be liable for any claim, demand, cause of

action of any kind whatsoever for, or on account of death, personal injury, property damage or loss

of any kind resulting from or related to user’s or user’s employees’, agents’ or assigns’ use of this

product, and user agrees to indemnify, defend in any action at law, and hold harmless Holatron

Systems, LLC, from same, whether brought by the user, user’s agent, or assigns, or any third party.

HOLATRON SYSTEMS, LLC

833 ILANIWAI ST, STE. 3

HONOLULU, HI 96813-5282

(808) 372-0956

www.holatron.com

This manual is divided into four sections. The first is a description of the system hardware. The

second describes radio interference suppression methods. The third lists transmitter specifications.

The fourth covers the recommended operating and maintenance procedure.

1.0 HARDWARE DESCRIPTION.

The model RFLS-96HSRCBL “RAPID-FIRE 6” user pairable six-shot multi-mode high speed

receiver is a highly sensitive narrow band (superhetrodyne) radio receiver designed to be

used for remote control applications where high reliability and low latency are critical. This

receiver can be “paired” with the desired cue range, channel #, and proprietary system code

of any Holatron transmitter on a matching frequency via a very simple operation. The

channel # (1-12) can optionally be selected via an internal digital switch, overriding the

paired channel #.

When used with the Holatron model RFLS-1XT, RFLS-6HSXT, RFLS-6HSXTX, RFLS-12XT,

RFLS-12XTX, XMTR12B, or XMTR12C remote control transmitters, a range of ½ mile (line of

sight operation) is typical, provided there are no intervening conductive objects such as

automobiles, chainlink fences, etc. Range increases as the receiver is elevated above earth or

other conductive objects (such as aluminum bleachers). Range will be even greater when

transmitting over water.

The reception carrier frequency is fixed at 418 MHz by a crystal controlled phase-locked

loop oscillator for exceptional stability. No alignment or tuning procedures are ever

required to maintain optimum performance.

The receiver’s firing signal is digitally decoded from the transmitted digital code which is

amplitude modulated on a single carrier frequency of 418 MHz. The transmitted digital

codes from the RFLS-6HSXT & RFLS-6HSXTX indicate to the receiver which of the two

transmit buttons, “A” or “B”, is being pressed. The “A” button fires the show cues

sequentially. (Each depression of the button fires the next show cue in sequence.), and “B”

button commands fire show cues in fully automatic mode as explained in the transmitter

manual.

The digital code from the model RFLS-12XT or XMTR12 series transmitter indicates to the

receiver which of its 12 random-fire buttons is being pressed and causes that cue to be fired

immediately. The “Next Fire” button transmits a digital code that causes the next cue in

sequence to be fired. After pressing the Rst button, the next depression of this button will

fire cue 1. These transmitters can fire a maximum of 12 cues per channel on 12 channels for

a total of 144 cues.

Pressing the Rst button on the model RFLS-12XTX or XMTR12 series transmitter causes the

transmitter to switch to the channel indicated by the following press of one of the numeric

keys (1 –12). This allows manual selection of the communications channel. See the

transmitter manual for a detailed description of channel selection.

There are 12 different communication channels (1-12) and two different cue ranges (1-6

and 7-12) available. The receiver will respond only to the transmitter channel it has been

paired with, and its 6 outputs will fire only the cue range (1-6 or 7-12) it has been paired

with. Receiver pairing and channel selection override can be implemented by the receiver

digital switch setting as shown in the following table.

Rcvr Digital

Switch Setting

Action

Pair with xmtd cue range (1-6 or 7-12), channel, & system code

Fire paired cue range, channel 1, and paired system code.

Fire paired cue range, channel 2, and paired system code.

Fire paired cue range, channel 3, and paired system code.

Fire paired cue range, channel 4, and paired system code.

Fire paired cue range, channel 5, and paired system code.

Fire paired cue range, channel 6, and paired system code.

Fire paired cue range, channel 7, and paired system code.

Fire paired cue range, channel 8, and paired system code.

Fire paired cue range, channel 9, and paired system code.

Fire paired cue range, channel 10, and paired system code.

Fire paired cue range, channel 11, and paired system code.

Fire paired cue range, channel 12, and paired system code.

Pair with xmtd cue range (1-6 or 7-12), channel, & system code .

Fire paired cue range, paired channel, and paired system code.

Transmitters that are set to separate channels can transmit simultaneously to separate

receivers or groups of receivers without interfering with each other, permitting up to 24

separate receivers or groups of receivers (144 cues) to be controlled by up to 12 separate

transmitters simultaneously. Transmitters set to the same channel, even though they have

different system codes, will interfere with each other and possibly result in failure-to-fire if

fired simultaneously. Transmitters with different system codes will not cross-fire, however.

Multiple receivers can be used to fire more than 6 sequential cues from a single transmitter.

For example, two receivers set to cue ranges 1-6 and 7-12, respectively, can fire 12 cues

(cues 1-6 from the first receiver, and cues 7-12 from the second receiver), and 24 receivers

can be used similarly to fire 144 cues using cue range 1-6 and 7-12 on each of 12 channels.

Multiple receivers can be configured to fire simultaneously by setting their cue ranges and

channels to the same numbers. Combinations of sequential and simultaneous receivers can

also be used.

Receiver channels are selected by pairing or by switch position. Cue range and system code

are selected only by pairing. Refer to section 4.2 for a detailed description of the pairing

procedure.

The user has access to the following components:

1.1 THE ANTENNA.

The RF signal is received optionally by a quarter-wave solid conductor bendable

antenna or by a reduced height quarter wave antenna which screws onto the top of

the receiver PC board. Antennas with red rings are used for 433 MHz, antennas with

blue rings are used for 418 MHz, and antennas with green rings are used for 315

MHz..

1.2 THE POWER & ARM SWITCHES.

These slide switches are located on the top side of the PC board. The “POWER”

switch turns on power to the receiver and resets the semi-automatic and automatic

firing modes to start at output 1. The “ARM” switch has “Safe” and “Armed”

positions. In the “Safe” position, output firing current is limited to 200 microamps so

that no outputs can be fired, although the firing position will advance each time the

transmitter button is pressed, and the firing indicators will glow faintly. It is

recommended that the receiver always be powered up in “Safe” mode if

devices are already connected to the outputs. The operator can then verify

that the green “BAT / ACTIVITY” light does not indicate that any firing signal

reception is occurring before arming the receiver.

1.3 THE TEST BUTTON.

Pressing this button, located between the two output connectors, performs a

continuity test on all six outputs simultaneously. While the button is pressed, a

maximum test current of 1 milliamp flows through each load, and red LED indicators

light next to outputs with “open” loads (resistance > 500 ohms). LEDs next to

outputs that see continuity to COM+ (< 500 ohms) will remain dark. Remember

that red LEDs during test indicate OPEN outputs, and such outputs will not fire

when actuated. These output connections should be examined and the electric

match and/or wire should be replaced if necessary. The receiver must be turned on

to perform the continuity test, but the “ARM” switch may be in either position.

Normally, the continuity test is performed before arming the receiver.

1.4 THE “ACTIVITY / BAT” INDICATOR.

While the power switch is on, this green indicator, located on the top side of the

circuit board, will flash intermittently in bursts of one, two, or three flashes at a

time if the battery has enough capacity to power the receiver. If no flashing occurs,

the battery must be replaced before the receiver can be used reliably. Three flashes

per burst indicate that the battery has full capacity, two flashes indicate that its

capacity is beginning to diminish, and one flash indicates that it is near the end of its

useful lifetime in which case it should be replaced immediately after the current use.

Adequate receiver power is available as long as the battery voltage is above

approximately 6.5 volts, but the battery voltage will drop rapidly at this point. While

this additional time should be adequate to complete the current firing sequence, it is

not absolutely predictable, and so the battery(s) should be replaced at the very next

opportunity.

This green indicator will light while a signal is being received that matches the

expected preamble and sync code of the system communication protocol, even if it is

from a transmitter set to a different digital channel or system code. This feature is

useful for warning of reception of signals before the arm switch is turned on and for

indication of activity on other digital channels.

1.5 THE OUTPUT CONNECTORS.

Electric matches are connected to a pair of miniature terminal blocks as shown in

the photo on the first page. A miniature flat bladed screw driver is required to

secure the connections. The left terminal block accepts wires for outputs 1 –3, and

the right terminal block for 4 –6. One of each pair of wires from electric matches 1 –

3 are twisted together, and the twisted triplet is inserted into the hole labeled

“COM+”. The other three wires are inserted individually into holes 1 –3,

respectively. Electric matches 4 –6 are similarly connected to the right-hand

terminal block. Wire gauges should be #22 or higher to fit into the “COM+” hole.

Solid copper wire is best. If stranded wire is used, be careful that no frayed strands

(whiskers) extend out and accidentally contact any adjacent terminals, as this

condition will not be detected during continuity check. A short to the COM+

terminal will result in a failure to fire and possible damage to the firing circuitry. A

short to an adjacent terminal will result in simultaneous firing of the outputs

shorted together.

1.6 THE BATTERY(S).

Power is optionally supplied from one or two alkaline 9 volt batteries, inserted into

snap-in cases on top of the PC board. In the one-battery configuration, receiver

power and firing power are derived from the same battery. For applications that

will fire more than two electric matches per cue, the two-battery configuration

should be used. In this configuration, receiver power and firing power are derived

from separate 9 volt batteries.

The batteries should be replaced when required by conditions described in section

1.4 above. In order to prevent the possibility of damage due to battery leakage, the

batteries should always be removed if the receiver is to be stored for a prolonged

period. Damage due to battery leakage is not covered under the warranty.

1.7 THE DIGITAL SWITCH.

A 16 position miniature rotary switch is located just above the left-hand output

terminal block on the receiver PC board. It can be set to positions 0 –9 or A –F by

rotation with a small screwdriver. This switch is used to select receiver pairing

mode or to override the paired channel selection as shown in the table in section 1.0.

Refer to section 4.2 for a detailed description of the pairing procedure performed

with this switch.

2.0 RADIO INTERFERENCE REDUCTION.

For obvious safety reasons, Holatron's design goal is to ensure that data communication

errors due to radio interference or to insufficient signal strength due to low battery,

exceeding specified range, or conductive objects in the signal path will result in failure of

intentional actuation rather than unintended actuation. This goal is achieved by

transmitting a 64 bit noise-tolerant code repeatedly while a transmitter button is

depressed. 60 of these bits must match the pattern expected by the receiver. Thus, there is

one chance in (2 to the 60th power) of an actuation occurring due to reception of a random

signal. Expressed in decimal numbers, this is (1.1529 times 10 to the 18st power, or 11529

followed by 14 zeroes). This is a probability of 8.6736 times 10 to the minus 19th power (or

a decimal point followed by 18 zeroes followed by 86736). Though this probability of

unintended actuation is extremely small, it cannot be guaranteed to be zero. Therefore, it is

important that the user not arm the receiver until all persons who might be harmed

by accidental actuation are in a safe area.

Additional protection is offered by use of 315, 418, or 433 MHz as the operating frequency.

These frequencies are sparsely used only by low power transmitters with a maximum range

of approximately 100 yards. It is not commonly used by auto security systems, garage door

openers, radio control models, cordless or cellular telephones, wireless microphones, or two

way communications equipment. Because this system operates in the UHF region,

interference from lamp dimmers, electrical discharges, and other natural sources is also

minimal.

No confirmed cases of false triggering with this communications technology have been

reported to date.

3.0 SPECIFICATIONS.

Parameter (dual on-board batteries)

Minimum

Typical

Maximum

Carrier Frequency, MHz.

417.96

418.02

418.08

Carrier Frequency, MHz. (optional)

433.86

433.92

433.98

Range

(line-of-sight with RFLS-1XT xmtr)

½ mile

Delay from start of transmission to receiver

output (fewer than 4 transmitters transmitting

simultaneously)

50 msec

75 msec

Delay from start of transmission to receiver

output (more than 3 transmitters transmitting

simultaneously)

100 msec

400 msec

Receiver battery drain, (Rcvr switch on)

Receiver battery drain, (Rcvr switch off)

Fire battery drain, (Not testing or firing)

Fire battery drain, (Test btn pressed)

Fire battery drain, (Firing)

8 mA

9 mA

0 mA

< 1 A

75 mA

1100 mA

Battery life (not firing)

40 hrs

48 hrs

Receiver Battery Voltage

6.5 V

9 V

10.0 V

Firing Battery Voltage

8 V

9 V

10.0 V

Low Battery Detect Threshold

7.0 V

Output Fire Pulse Duration (semi-auto mode)

0.56 sec

Output Fire Voltage

9 V

Output Fire Current, (Armed)

3 amp

Output Fire Current, (Safe)

200 uamp

Output Continuity Test Current

(while test button pressed, 0 while not pressed)

0.9 mA

1.1 mA

4.0 OPERATION AND MAINTENANCE.

This section describes the recommended operating procedure and maintenance for the

transmitter-receiver system.

4.1 OPERATION.

4.1.1 Before connecting electric matches, perform a range test by observing the

receiver firing lights while pressing the transmitter buttons. An assistant

may be needed for this test. Determine the limits of the range in the current

environment, and position the transmitter and receiver so that their

separation does not exceed ¾ of this maximum range. Verify that the

transmitter and receiver batteries are not depleted by observing the flashing

“ACTIVITY / BAT” lights on each (red on the transmitter, green on the

receiver). Operation of these indicators is as described in section 1.4 above.

Turn the transmitter off, and turn off the receiver.

4.1.2 Connect devices to receiver outputs. The operator should retain possession

of the transmitter or transmitter key while performing the next two tasks.

With the “ARM” switch turned off, turn on the receiver power switch. Verify

continuity through the devices by pressing the “TEST” button. All red

indicators should remain off. Check that the green indicator is only flashing

in bursts of one, two or three to indicate battery status. If this indicator

exhibits continuous or erratic behavior, there is a signal being received

which could cause firing when the “ARM” switch is turned on. Determine the

source of the interference before attempting to use the system.

4.1.3 When the area around the devices to be actuated is clear of persons who

might be injured by an accidental actuation, and with the “ARM” switch

turned off, turn on the receiver. After verifying that the receiver’s green

ACTIVITY indicator does not show reception of signals, turn on the

receiver’s ARM switch.

4.1.4 Turn the transmitter to its “ON” or “Enabled” state, arm it if necessary, and

press the appropriate button to actuate the desired receiver output. A

button must be depressed for at least 100 milliseconds to produce a receiver

output. The transmitter should be held with the antenna in a vertical

orientation, away from the body and other conductive objects to achieve

maximum range and communication reliability. Generally, the higher the

transmitter is held, the greater the range.

4.1.5 When finished, turn off the receiver POWER and ARM switches, and return

the transmitter to its “OFF” or “Safe” state to stop further drain of its

batteries. If the receiver and transmitter are to be stored for a prolonged

period, remove their batteries as described in section 1.6 above.

You may remove the transmitter antenna to make storage easier. Be careful

not to overtighten the transmitter antenna when screwing it back on, as this

could cause its mating connector to rotate and break its internal connection.

Rotation could also occur, with the same result, when subsequent removal of

an overtightened antenna is attempted. The recommended way to install the

antenna is to grasp it by its small diameter upper part and rotate gently in a

clockwise direction until increased resistance is felt. It need not be tight to

achieve a good electrical connection. When removing the antenna for

storage, observe the base of the mating connector to ensure that it is not

rotating. If the antenna is so tight that rotation is occurring, grasp the hex

base of the mating connector with long nose pliers, and then unscrew the

antenna.

4.2 PAIRING.

Three parameters determine the transmitters to which the receiver will respond:

Proprietary System Code (0-255),

Digital Channel (1-12),

Cue Range (1-6 or 7-12)

With the digital switch set to position 0 or E, a single transmission will cause the

receiver to grab all three parameters and pair itself with the transmitter that sent

them. This pairing will be saved in non-volatile memory even when the receiver

power is off. When the switch is subsequently set to position F, the receiver will

continue to respond to this saved system code, channel, and cue range. Optionally,

the channel number can be selected from the switch by setting it to positions 1-C, as

shown in the table in section 1.0. The paired system code and cue range are still

used in this case.

Paired channel number is displayed as a series of green flashes at power-on, and

paired system code is displayed as a series of green flashes for each digit during the

pairing operation. Zero digits are represented by a single long flash in this display.

Leading zeroes are not displayed.

When the receiver pairs with a transmitter, it will flash the received system code

number once and then cease flashing the battery level. Be sure to return the digital

switch to position F or to 1-C after pairing with a transmitter to prevent possible

change of the saved parameters on subsequent transmissions, and turn receiver

power off for a few seconds and then back on to restore normal operation with the

newly paired parameters.

4.3 MAINTENANCE.

Since there are no calibration or tuning adjustments in the units, the only

maintanance required is periodic replacement of the 9 volt batteries. This should be

done at least once per year, or at the next opportunity if the battery indicators fail to

flash at least twice per burst while power is switched on.

The face of the transmitter, which is completely sealed, may be safely cleaned by

wiping with a damp cloth if care is taken not to get moisture into the lock switch.

The transmitter’s battery compartment door and the junction between its front and

back panels are NOT water tight, however. The transmitter must never be immersed

in water.

If further information or service is required, contact:

Holatron Systems, LLC.

833 ILANIWAI ST, Suite 3

Honolulu, HI 96813-5282

808-372-0956

www.holatron.com

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