[0008]
Fig. 1 shows: a magnetic detector 1 that indicates the degree of magnetization of
a coin put in through slot 2 of a programmer '3 that in turn energises a coil 4 which
opens a flap 5 to allow a coin to pass through if it possesses the degree of magnetization
required for playing, as programmed (if it does not, the flap remains closed and the
coin, passing along a channel 6, falls into a container placed to receive it but not
shown); a channel 7 to carry coins with a high degree of magnetization and cause them
to fall into a container placed to receive them; a conventional device which, stopping
a coin arriving from channel 7, frees a lever 8 to permit a player to move it and,
by means of a conventional mechanism not shown, to set three coaxial wheels 9, 10,
11, in motion each carrying on its perimeter a set of conventional symbols also partly
visible in Fig. 2; a selector disc 12, 13, 14, for each of the wheels 9, 10, 11, in
which a number of notches (means of reference) are cut, each corresponding to a conventional
symbol mounted on the corresponding wheel, and a larger notch, it too corresponding
to one of said conventional symbols, which acts as a reference for a photoelectric
cell 15; three gear wheels 16, 17, 18, for each of wheels 9, 10, 11, fixed to and
coaxial with them, not shown in the drawing, in which each space between two teeth
corresponds to the position of a conventional symbol mounted on the corresponding
wheel; a photoelectric cell 19 which is energized by the passage of lever 8 and which
then informs the programmer 3 that the game has begun and makes the programmer start
counting the movement speeds of the lever; a photoelectric cell 20 associated to lever
8 to inform the programmer 3 that said lever has reached the end of its stroke and
consequently to stop counting its movement speeds since the programmer 3, in accordance
with one of the three speeds at which the lever has been moved (slow, medium, fast)
connects the corresponding coin emitting program and causes it to function. As'a whole
the various parts operate as follows: since at this point the wheels 9, 10, 11 are
turning, each joined to the respective gear wheel 16, 17, 18 and to the respective
selector disc 12, 13, 14, when the larger notch on the selector disc has passed, each
photoelectric cell 15 associated to a selector disc, begins to count the positions
of the other notches in order to tell the programmer3 the exact position of the various
notches to each of which corresponds a conventional symbol on the corresponding wheel
9, 10, 11. Programmer 3, in accordance with the emission program operating for the
turn being played, program determined as explained above and consequently in accordance
with the count taken by photoelectric cell 15, stops wheels 9, 10, 11 one after another
in such a position that in the window of the machine may be seen the conventional
symbol or combination of conventional symbols: either respecting the combination indicated
on the machine corresponding to the number of coins to be emitted, which is the same
as the number of coins established by the coin emission program, this only happening
if more than one coin is emitted; or with the combination different from that indicated
on the machine and which operates emission of a single coin, namely the smallest unit
that the machine will pay out, in fulfilment of the program, except in the case of
emission of a larger number of coins. According to the program of coin emission determined
by the speed at which a player has lowered the lever, wheels 9, 10, 11 will stop in
a previously set sequence; for example, in the program denominated program 1, the
wheels stop in the order of 9, 10, 11; in program 2 they stop in the order of 10,
11, 9; in program 3 they stop in the order of 11, 10, 9. Wheels 9, 10, 11 are stopped
by programmer 3 which energizes the corresponding coils 21, these in turn moving the
corresponding levers 22, their fulcrum being 23, that push a lever 24 at whose upper
end there is a tooth which enters a space in the corresponding.gear wheel 16, 17,
18; at this point programmer 3 drives a motor 24 in the coin emitter comprising a
coin container, to make it issue tke number of coins relative to the turn played;
photoelectric cell 25 sends pulses to programmer 3 to count the coins issued; programmer
3 consequently sends corresponding pulses to non-zero settable counter 26, with display,
so that said counter shall count the coins. The emitter is stopped by programmer 3
following a comparison between pulses received from photoelectric cell 25 and the
number of coins to be emitted according to the program, which coins reach the outside
of the machine by means of channels 27 and 28; through programmer 3 the magnetic detector
1 also sends a pulse to a non-zero-settable counter 31 whenever it is crossed by a
valid coin; one after another zero-settable counters 32, 33, 34, with displays, count
the situations of each corresponding program. Should a power cut occur a floating
battery 35 is automatically connected; only after exhaustion of the floating battery
are counters 32, 33, 34 automatically zero-set just as happens automatically whenever
the corresponding program ends; the floating battery 35 stores the program in the
store associated to programmer 3 if the power failure lasts for a certain length of
time, for 24 hours for instance; a power supplier 36 receives current at 220 volts,
transforms it and passes it to programmer 3. When a program is completed the other
programs are obliged to terminate as well until final completion of all of them after
which use of the machine continues with the whole set of programs starting again from
the beginning.
Fig. 2 shows six combinations of conventional symbols 90 that give rise to emission
of the number of coins indicated at the right hand side of each combination; thus,
when one of these combinations appears at the window of the machine through which
the conventional symbols can be seen on the three wheels standing still after a turn
has been played, a player knows the number of coins that will then be paid out to
him. For example, if he can see three apples through the window he will receive eighteen
coins, in conformity with the emission program in progress because this program has
stopped the wheels in such a way that the three apples are visible through the window.
Fig. 3 shows a selector disc 12 associated to a wheel 9 that is not shown: disc 12
carries a number of means of reference 100 in the form of notches and a starting means
of reference in the form of a wider notch. To each of these means of reference corresponds
a conventional symbol mounted on the perimeter of wheel 9.
Fig. 4 shows: an interface 40 that receives pulses from the three photoelectric cells
15/12, 15/13, 15/14; an interface 41 that receives pulses from photoelectric cells
19 and 20 at the beginning and end of the stroke made by lever 8, the pulses sent
out from the magnetic detector 1 when each valid coin passes and the pulses from photoelectric
cell 25 whose task is to count the coins emitted; an optoinsulated circuit 42 that
amplifies the output signals for piloting various magnets, namely those identified
by references 73a to 73g in Fig. 6; a relais 43 that controls the coin emitter's motor
24; an optoinsulated circuit 44 that amplifies the output signals for piloting various
magnets namely those identified by references 73h, 73i in Fig. 6; a decoding circuit
45 for output signals from optoinsulated circuit 42; an I/O circuit 46 that receives
signals from interface 40, from interface 41, from microprocessor 47 and transmits
signals for piloting relais 43 to optoinsulated circuit 44, to decoding circuit 45,
to microprocessor 47 and contains a RAM; the microprocessor 47 that processes input
or output signals; an auxiliary service unit 48 for the microprocessor; an EPRM 49
for programmed operation of the machine; feed circuits 50 for operating the machine.
Fig. 5 shows the card of microprocessor 47 comprising parts 46, 47, 48, 49 of Fig.4.
The following are included: an I/0 integrated circuit 51 containing a type 6532 RAM; an integrated microprocessor 52
of type 6502 data processor; a type 2532 EPROM integrated circuit 53 containing the
data bank for programmed operation of the machine; an initial reset circuit 54 composed
of a type NE 555 integrated circuit and connected with discrete components such as
will cause the microprocessor to delay starting its functions; a 4 Mz oscillatory circuit 55 composed of a quartz of suitable frequency connected to five
discrete components and to two reversing gates able to generate oscillation in said
quartz; a type 7474 TTL integrated circuit 56 dividing the frequency generated by
circuit 55; a type 74L5155 TTL integrated circuit 57 decoding the input-output stage
capable of possible extensions.
Fig. 6 shows: discrete components 60 whose function is that of feeding and providing
a calibratable input of the pulses received from photoelectric cell 15/12; two reversing
gates 61 and three discrete components whose function is that of determining the type
of input pulse associated to discrete components 60; there are two or more types of
input pulses; discrete components 62 whose function is to feed and provide calibratable
input of the pulses received from photoelectric cell 15/13; two reversing gates 63
and three discrete components whose function is to determine the type of input pulse
associated to discrete compo nents 62; there are two or more types of input pulses;
discrete components 64 whose function is to feed and provide calibratable input of
pulses received from photoelectric cell 15/14; two reversing gates 65 and three discrete
components whose function is to determine the type of input pulse associated to discrete
components 64; there are two or more types of input pulses; pairs of discrete components
66, 67, 68, 69 and a reversing gate for each of said pairs for reading one of the
photoelectric cells indicated as inputs of interface 41 of Fig. 4; there are three
photoelectric cells and there is only one magnetic detector their functions being
as follows: a photoelectric cell for "start of the lever's stroke"and a photoelectric
cell for "end of the lever's stroke" transmit pulses indicating the speed at which
a player moves the lever; a "magnetic coin" detector determines the extent to which
the coin is magnetized; a "coin" photoelectric cell indicates the passage of coins
emitted; an I/O integrated circuit 70, containing the type 6532 RAM bank; a TTL 74LS155 integrated
circuit 71 that decodes the states of output, namely a decoder of three inputs in
seven possible outputs; a type TTL 74LS244 integrated circuit 72 used as an output
buffer for piloting seven optoinsulators and a static relais; optoinsulator circuits
73 (a-b-c-d-e-f-g-h-i) comprising an optoinsulator integrated circuit, four discrete.components
and two transistors; the function of these optoinsulator circuits is that of controlling
the external magnets, each one being associated to an external magnet and doing thefbllowing
work: the magnets associated to 73a, 73b, 73c stop the three wheels bearing the conventional
symbols, those associated to 73dand 73e serve for operating two counters with display
indicating the position of two coin emitter programs, the magnet associated to 73f
is used by the magnetic detector for rejecting a coin that is more or less magnetized
compared with the choice concerning validity of a coin for a playing turn, the magnet
associated to 73g serves for operating a counter with display indicating the total
number of coins emitted up to that moment, and the magnet associated to 73h serves
for operating a counter with display indicating the total number of coins emitted
up to that moment and the magnet associated to 73i is a spare magnet for possible
future services; a static relais 74 for controlling the coin emission mechanism; an
amplifier circuit 75 for piloting the states indicated by 73h and 73i, composed of
two transistors and six resistors.