Manitowoc J450 Manual de usuario Pagina 19

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US
2014/0097759
A1
and/
or
control
circuit
304
causes
wireless
transceiver
306
to
transmit
an
indication
that
motion
was
detected
by
the
sensor.
Accordingly,
control
circuits
of
the
controllers
receiving
the
indication
can
decide
whether
or
not
to
act
upon
the
indication
of
motion.
The
RF
signals
including
an
indication
of
motion
may
also
include
a
zone
identi?er
that
receiving
controllers
can
use
to
determine
if
the
signal
originated
from
their
zone
or
another
zone.
In
other
exemplary
embodiments,
controller
204
may
address
messages
to
particular
controllers
(e.g.,
the
addresses
of
neighbors
or
the
addresses
of
other
controllers
in
the zone).
Logic
module
314
may
further
be
con?gured
to
cause
the radio
frequency
transceiver
to
transmit
commands
to
other
radio
frequency
transceivers
coupled
to
other
?uo
rescent
lighting
?xtures.
For
example,
logic
module
314
and/
or
control
circuit
304
may
be
con?gured
to
interpret
a
signal
received
at
the radio
frequency
transceiver
as
indicating
that
motion
was
detected
by
another
device
in
the
zone.
In
an
exemplary
embodiment
of
the
lighting
?xture
controller,
some
will
be
con?gurable
as
relay
devices
and
when
so
con
?gured,
will
relay
any
commands
or
information
the
control
ler
receives
from
other
zone
controllers.
Controller
504
is
illustrated
to
be
con?gured
as
such
a
relay
device.
When
controller
504
receives
broadcast
500
indicating
motion
from
controller
261,
controller
504
relays
broadcast
500
via
trans
mission
502
to
other
zone
devices
(e.g.,
controller
506).
This
way,
an
event
such
as
motion
can be
propagated
to
each
of
the
lighting
?xtures
in
a
zone
without
network
traf?c
to
controller
261
and/or
without
necessitating
direct
control
of
the
lighting
?xtures
by
controller
261.
This
activity
may
be
con?gurable
(e.g.,
via a
GUI
provided
by
control
computer
252)
so
that
only
some
controllers
are
relays,
all
controllers
are
relays,
or
so
that
no
controllers
are
relays
and
only
devices
within
range
of
the
detecting
controller
act
on
its
broadcasts.
Further,
the
relay
or
rebroadcast
can be
address-based
or
more
similar
to
a
true
broadcast.
For
example,
in
an
address-based
relay,
the
controller
serving
as
a
relay
may
know
the
addresses
of
cer
tain
network
controllers
to
which
to
transmit
the
relayed
information.
In
another
example,
the
broadcast
may
be
gen
eral
and
not
addressed
to
any
particular
controller,
control
lers,
or
zone.
[0054]
To
implement
zone
control
activities,
each
control
ler
may
be
con?gured
to
store
a
lighting
zone
value
in
memory
(e.g.,
memory
316).
This value
may
be
used,
for
example,
to
determine
whether
another
device
sending
a
command
is
associated
with
the
lighting
zone
value
stored
in
memory.
For
example,
controller
271
may
include
a
lighting
zone
value
of
“II”
in
memory
and
controller
261
may
include
data
representative
of
controller
261’s
lighting
zone
value
(e.g.,
“I”)
with
its
transmission
indicating
that
motion
was
detected.
When
controller
271
receives
the
lighting
zone
value, controller
271
(e.g.,
a
control
circuit
or
logic
circuit
thereof)
may
compare
“I”
and
“II”
and
make
a
determination
that
controller
271
will
not
act
on
the
received
indication
of
motion
(i.e.,
controller
271
leaves
its
relays
off
while
all
of
the
controllers
in
zone
I
switch
their
relays
on).
[0055]
Referring
now
to
FIG.
6,
a
?ow
chart
ofa
process
600
for
controlling
multiple
lighting
?xtures
in
a
zone
based
on
sensor
input
is
shown,
according
to
an
exemplary
embodi
ment.
Process
600
is
shown
to
include
receiving
signals
from
a
sensor
(e.g.,
sensor
210)
coupled
to
a
?rst
controller
for
a
?rst
zone
(step
602).
Once
received,
circuitry
of
the
?rst
controller
can
determine
whether
the
received
signals
repre
sent
an
event
that
should
be
acted
upon
(e.g.,
by
changing
lighting
states,
etc.)
in
the
?rst
zone
(step
604).
Process
600
is
Apr.
10,
2014
further
shown
to
include
using
circuitry
of
the
?rst
controller
to
transmit
a
command
and/
or
an
indication
of
the
event
with
a
?rst
zone
identi?er
(step
606).
The
transmission
is
received
by
a
controller
in
a
second
zone.
Circuitry
of
the
controller
in
the
second
zone
determines
that
the
transmission
is
for
another
zone
and
does
not
act
on
the
received transmission
(step
608).
The
transmission
may
also
be
received
by
a
second
controller
for
the
?rst
zone
(step
610).
Circuitry
of
the
second
controller
for
the
?rst
zone
inspects
the
received transmission
and
acts
on
the
information
of
the
transmission
when
the
controller
discovers
that
its
stored
zone
identi?er
matches
the
received
zone
identi?er
(step
612).
The
second
controller
for
the
?rst
zone
may
also
be
con?gured
as
a
relay
node
and
to
retransmit
the
received
command
or
indication
to
other
?rst
zone
controllers
(e.g.,
controller
506).
[0056]
FIG.
7
illustrates
how
different
lighting
zones
may
be
organized
within
a
building
having
aisles.
In the
example
of
FIG.
7,
building
entrance
704
is
shown
to
include
two
lighting
?xtures
(labeled
with
Az7
in
the
illustration)
assigned
to
a
‘general’
mode
of
operation
and
zone
7
of
the
building.
Production
area
706
of
the
building
is
shown
to
include
?ve
lighting
?xtures
(labeled
with
Tz8
in
the
illustra
tion)
assigned
to
a
‘task’
mode
of
operation
and
zone
8
of
the
building.
High
tra?ic
work
area
740
of
the
building
includes
some
lighting
?xtures
set
in
a
general
mode
of
operation
and
others
set
in
a task
mode
of
operation
(the
lighting
?xtures
in
a
task
mode
of
operation
and
associated
zone
9
are
labeled
Tz9
in
the
illustration
of
FIG.
7
and
the
lighting
?xtures
in
the
general
mode
of
operation
and
associated
with
zone
9 are
labeled
Az9).
[0057]
The
illustration
of FIG.
7
further
illustrates
three
aisles.
Each
aisle
is
shown
as
divided
into
two
zones,
a
small
forward
zone
near
the
front
of
the
aisle
(i.e.,
near
the
high
traf?c
work
area
of
the building)
and
a
larger
zone
behind
the
small
forward
zone.
Items
that
need
to
be
frequently
accessed
may
be
placed
in
the
small
forward
zone
near
the
front
of
the
aisle,
while
items
that
are
less
frequently
accessed
may
be
placed
in
the
larger
zone.
Referring
to
aisle
portion
710,
two
lighting
?xtures
are
shown
as installed
within
the
aisle
portion
(labeled
withAzl
in
the
illustration)
and
assigned
to
an
‘aisle’
mode
of
operation
and
zone
1
of
the
building.
Referring
to
aisle
portion
701,
six
lighting
?xtures
are
shown
as
installed
within
the
aisle
portion
(labeled
with
Az2
in
the
illustration)
and
assigned
to
an
‘aisle’
mode
of
operation
and
zone
2
of
the
building.
Referring
to
aisle
portion
720,
two
lighting
?xtures
are
shown
as
installed
within
the
aisle
portion
(labeled
with
Az3
in
the
illustration)
and
assigned
to
an
‘aisle’
mode
of
operation
and
zone
3
of
the
building.
Referring
further
to
aisle
portion
702,
six
lighting
?xtures
are
shown
as
installed
within
the
aisle
portion
(labeled
with
Az4
in
the
illustration)
and
assigned
to
an
‘aisle’
mode
of
operation
and
zone
4
of
the
building.
Referring
to
aisle
portion
730,
two
lighting
?xtures
are
shown
as
installed
within
the
aisle
portion
(labeled
with
Az5
in
the
illustration)
and
assigned
to
an
‘aisle’
mode
of
operation
and
zone
5
of
the
building.
Referring
to
aisle
por
tion
703,
six
lighting
?xtures
are
shown
as installed
within
the
aisle
portion
(labeled
with
Az6
in
the
illustration)
and
assigned
to
an
‘aisle’
mode
of
operation
and
zone
6
of
the
building.
The
general,
task,
and
aisle
modes
of
operation
for
a
lighting
?xture
are
described
with
reference
to
subsequent
Figures.
[0058]
Referring
now
to
FIG.
8,
a
?ow
chart
of
a
process
800
for
providing
an
aisle
mode
of
operation
is
shown.
While
a
process
800
is
illustrated
and
described
with
particularity,
it
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