U.S. patent application number 14/299222 was filed with the patent office on 2014-10-30 for systems for patient support, monitoring and treatment.
The applicant listed for this patent is Hill-Rom Services, Inc.. Invention is credited to Christopher R. O'Keefe, Peter H. Soderberg, Timothy A. Stanley.
Application Number | 20140323816 14/299222 |
Document ID | / |
Family ID | 42838070 |
Filed Date | 2014-10-30 |
United States Patent
Application |
20140323816 |
Kind Code |
A1 |
Soderberg; Peter H. ; et
al. |
October 30, 2014 |
Systems for Patient Support, Monitoring and Treatment
Abstract
A patient support system, such as a bed, stretcher, wheelchair
or the like, has an electronic control system and a user interface.
The electronic control system and the user interface control bed
functions, such as articulation of the head, seat, and leg sections
of the bed deck, and control and/or monitor the operation of
medical equipment, such as heart rate monitors, blood pressure
monitors, thermometers, sequential compression therapy devices,
chest wall oscillation devices, respiratory therapy devices, blood
oxygen monitors, and the like. In some embodiments, the electronic
control system and user interface communicate with patient personal
digital devices, such as audio players, computers, and phones. The
user interface is on the headboard, footboard, and/or on a siderail
of the bed in some embodiments.
Inventors: |
Soderberg; Peter H.; (Boca
Grande, FL) ; O'Keefe; Christopher R.; (Columbus,
OH) ; Stanley; Timothy A.; (Indianapolis,
IN) |
|
Applicant: |
Name |
City |
State |
Country |
Type |
Hill-Rom Services, Inc. |
Batesville |
IN |
US |
|
|
Family ID: |
42838070 |
Appl. No.: |
14/299222 |
Filed: |
June 9, 2014 |
Related U.S. Patent Documents
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Application
Number |
Filing Date |
Patent Number |
|
|
12830497 |
Jul 6, 2010 |
8752220 |
|
|
14299222 |
|
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|
|
61224851 |
Jul 10, 2009 |
|
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61225920 |
Jul 15, 2009 |
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Current U.S.
Class: |
600/300 ;
5/600 |
Current CPC
Class: |
A61B 5/743 20130101;
A61G 7/0507 20130101; A61H 23/04 20130101; A61G 7/0524 20161101;
A61H 31/02 20130101; A61H 2230/30 20130101; A61H 2201/5041
20130101; A61H 2201/5097 20130101; A61B 5/6891 20130101; A61H
31/008 20130101; A61H 9/0078 20130101; A61B 5/7445 20130101; A61M
5/172 20130101; A61G 7/0506 20130101; A61G 7/015 20130101; A61B
5/4839 20130101; A61H 2230/50 20130101; A61H 2209/00 20130101; A61G
2203/72 20130101; A61G 7/0514 20161101; A61H 2230/04 20130101; A61H
23/00 20130101; A61B 5/00 20130101; A61G 7/0527 20161101 |
Class at
Publication: |
600/300 ;
5/600 |
International
Class: |
A61B 5/00 20060101
A61B005/00; A61M 5/172 20060101 A61M005/172; A61H 31/00 20060101
A61H031/00; A61G 7/05 20060101 A61G007/05; A61H 23/04 20060101
A61H023/04 |
Claims
1.-20. (canceled)
21. A hospital bed comprising a frame; physiological parameter
monitoring equipment carried by the frame; hospital bed electronics
carried by the frame and coupled to the physiological parameter
monitoring equipment, the hospital bed electronics monitoring
hospital bed functions; and at least one graphical display coupled
to the frame and that simultaneously displays information
pertaining to the physiological parameter monitoring equipment and
information pertaining to a status of at least one of the hospital
bed functions.
22. The hospital bed of claim 21, wherein one of the hospital bed
functions monitored by the bed electronics includes monitoring a
brake of the hospital bed.
23. The hospital bed of claim 21, wherein one of the hospital bed
functions monitored by the bed electronics includes monitoring a
position of a siderail of the hospital bed.
24. The hospital bed of claim 21, wherein the at least one
graphical display is also used to control actuators of the hospital
bed.
25. The hospital bed of claim 21, further comprising user inputs
carried by the frame and usable to command the hospital bed
electronics regarding control of the operation of the physiological
monitoring equipment and the hospital bed functions.
26. The hospital bed of claim 21, wherein the hospital bed
electronics communicates via wireless signals with at least one
computer device that is spaced from the hospital bed.
27. The hospital bed of claim 21, wherein the hospital bed
electronics includes a patient audio port to which a patient
attaches a personal audio player.
28. The hospital bed of claim 21, wherein the hospital bed
electronics is communicatively coupled via a hospital network to a
medical records system and further comprising a keyboard coupled to
the hospital bed electronics for entering patient vital signs
information into a patient medical record via the hospital bed
electronics.
29. The hospital bed of claim 21, wherein the frame includes a
siderail and the at least one graphical display comprises a first
graphical display coupled to the siderail and a second graphical
display coupled to the siderail.
30. The hospital bed of claim 29, wherein the first graphical
display displays the information pertaining to the physiological
parameter monitoring equipment and the second graphical display
displays information pertaining to the status of at least one of
the hospital bed functions.
31. The hospital bed of claim 30, wherein the second graphical
display simultaneously displays information pertaining to the
status of at least two of the hospital bed functions.
32. The hospital bed of claim 29, further comprising a patient
treatment device coupled to the hospital bed electronics and
wherein the at least one graphical display comprises a third
graphical display that displays information pertaining to the
patient treatment device.
33. The hospital bed of claim 32, wherein the patient treatment
device comprises a pump used to treat deep vein thrombosis
(DVT).
34. The hospital bed of claim 29, further comprising an endboard
coupled to the frame and wherein the at least one graphical display
comprises a third graphical display coupled to the endboard.
35. The hospital bed of claim 21, wherein the physiological
parameter monitoring equipment comprises electrodes attachable to a
patient.
36. The hospital bed of claim 21, further comprising a respiratory
therapy device coupled to the hospital bed electronics.
37. The hospital bed of claim 36, wherein the respiratory therapy
device comprises a pump and a garment worn by a patient for high
frequency chest wall oscillation therapy.
38. The hospital bed of claim 21, wherein the physiological
parameter monitoring equipment comprises a blood pressure
monitor.
39. The hospital bed of claim 21, wherein the physiological
parameter monitoring equipment comprises a heart monitor.
40. The hospital bed of claim 21, further comprising a mattress
carried by the frame and at least one of the hospital bed functions
monitored by the hospital bed electronics pertains to a mattress
function.
Description
CROSS-REFERENCE TO RELATED APPLICATIONS
[0001] This application is a continuation of U.S. application Ser.
No. 12/830,497 which was filed Jul. 6, 2010, now U.S. Pat. No.
8,752,220, which claims the benefit, under 35 U.S.C. .sctn.119(e),
of U.S. Provisional Application No. 61/224,851 which was filed Jul.
10, 2009 and U.S. Provisional Application No. 61/225,920 which was
filed Jul. 15, 2009, both of which are hereby incorporated by
reference herein.
BACKGROUND
[0002] The present disclosure relates generally to patient support
systems, such as beds, stretchers, wheelchairs and the like. More
particularly, the present disclosure relates to patient supports
having therapy delivery devices and/or physiologic monitoring
devices integrated therewith.
[0003] Patient support systems such as hospital beds conventionally
have features adapted to provide comfort to the patient, as well as
to assist the caregiver in positioning and transporting the
patient. For example, such beds can include articulating sections
to allow the patient to be placed in a variety of positions, for
comfort of the patient and to assist the caregiver in caring for
the patient. Such beds might also include electronic displays to
indicate the status of the various features of the bed, such as the
brake status, the siderail position, and the bed height.
Additionally, such beds can allow for communications with
caregivers via audio components.
[0004] While such patient support systems can be very useful in
assisting caregivers and providing improved safety and comfort to
patients, additional medical device and therapy capabilities are
oftentimes not included in the conventional patient support
systems. Some prior art patient support systems do have therapy and
physiologic monitoring devices integrated therein, however. See,
for example, U.S. Pat. Nos. 5,664,270; 5,715,548; 6,493,568;
6,899,103; 7,038,588; 7,154,397; 7,343,916; 7,515,059; 7,641,623
and U.S. Patent Application Publication Nos. 20080126132;
20080005838; and 20050190068. However, a need persists for further
contributions in this area of technology.
SUMMARY
[0005] The present invention comprises one or more of the features
recited in the appended claims and/or the following features which,
alone or in any combination, may comprise patentable subject
matter:
[0006] According to this disclosure, a hospital bed may comprise a
frame, a plurality of siderails coupled to the frame, a headboard
coupled to the frame, and a footboard coupled to the frame. The
hospital bed may further comprise a physiologic monitor sensing at
least one physiologic parameter of a patient supported by the
frame, and a plurality of graphical displays. A first graphical
display of the plurality of graphical displays may be included as
part of a first siderail of the plurality of siderails and a second
graphical display of the plurality of graphical displays may be
included as part of one of the headboard and the footboard. Each of
the first and second graphical displays may be operable to display
the physiologic parameter sensed by the physiologic monitor.
[0007] The second graphical display may be included as part of the
headboard and may face away from the frame. A third graphical
display may be included as part of the headboard. The second
graphical display may display data relating to a first physiologic
parameter of the patient and the third graphical display may
display data relating to a second physiologic parameter of the
patient. The second and third graphical displays may be located in
spaced-apart, side-by-side relation on the headboard.
[0008] In some embodiments, the second graphical display may be
included as part of the footboard and may face toward the frame. A
third graphical display may be included as part of the footboard as
well. The second graphical display may display data relating to a
first physiologic parameter of the patient and the third graphical
display may display data relating to a second physiologic parameter
of the patient. The second and third graphical displays may be
located in spaced-apart, side-by-side relation on the
footboard.
[0009] According to an aspect of the present disclosure, a hospital
bed may comprise a physiologic monitor sensing at least one
physiologic parameter of a patient supported by the frame and a
pneumatic therapy device operable to delivery therapy to the
patient. The hospital bed may further comprise a plurality of
graphical displays. A first graphical display of the plurality of
graphical displays may be included as part of a headboard and a
second graphical display of the plurality of graphical displays may
be included as part of the footboard. One of first and second
graphical displays may show information pertaining to one of the
physiologic monitor and the pneumatic therapy device. The other of
the first and second graphical displays may show information
pertaining to the other of the physiologic monitor and the
pneumatic therapy device.
[0010] In some embodiments, the first graphical display shows data
pertaining to the physiologic monitor and the second graphical
display shows information pertaining to the pneumatic therapy
device. The pneumatic therapy device may comprise a respiratory
therapy garment worn by a patient for high frequency chest wall
oscillation therapy. Alternatively or additionally, the pneumatic
therapy device may comprise a sequential compression therapy sleeve
worn by a patient for prevention of deep vein thrombosis. The
hospital bed may have a third graphical display included as part of
a first siderail of the plurality of siderails. The third graphical
display may show information pertaining to at least one of the
physiologic monitor and the pneumatic therapy device.
[0011] According to another aspect of the present disclosure, a
hospital bed may comprise a frame and hospital bed electronics
carried by the frame. The hospital bed electronics may control each
of the following: movement of portions of the frame to reposition a
patient, operation of an IV pump, operation of a vital signs
monitor, and operation of a therapy device.
[0012] The hospital bed may have at least one barrier coupled to
the frame as well as having at least one graphical display that is
included as part of the barrier. The at least one graphical display
may display information pertaining to operation of the IV pump,
information pertaining to operation of the vital signs monitor, and
information pertaining to operation of the therapy device.
[0013] The hospital bed may have user inputs that are carried by
the barrier and that are usable to command the hospital bed
electronics regarding control of the operation of the IV pump, the
vital signs monitor, and the therapy device. The therapy device may
comprise a respiratory therapy garment worn by a patient for high
frequency chest wall oscillation therapy or a sequential
compression therapy sleeve worn by a patient for prevention of deep
vein thrombosis.
[0014] The hospital bed electronics may communicate via wireless
signals with at least one computer device that is spaced from the
hospital bed. In some embodiments, the hospital bed electronics may
include a patient audio port to which a patient may attach a
personal audio player. In some instances, the hospital bed
electronics may be communicatively coupled via a hospital network
to a medical records system and further comprising a keyboard
coupled to the hospital bed electronics for entering patient vital
signs information into a patient medical record via the hospital
bed electronics.
[0015] According to one illustrative embodiment, a patient support
system is provided comprising a deck, a base, a patient sensor, and
an edge board along the deck. The deck is configured to support a
patient, and the base supports the deck. The patient sensor is
configured to monitor a vital sign of the patient. The edge board
is positioned along an edge of the deck and supported by the base.
The board includes a user interface configured to provide an
indication of the status of the vital sign. The board may comprise
an endboard or a siderail, for example, and may include other user
functions for control of the deck.
[0016] According to another embodiment, a patient support system,
comprising a deck configured to support a patient, a base
supporting the deck, and a patient sensor configured to monitor a
vital sign of the patient. The system further includes a component
sensor configured to monitor the status of a component on the
patient support, such as an actuator for example. An electronic
circuit provided on the patient support system is configured to
receive signals from the patient sensor and the component sensor.
The system further includes a siderail board which is positioned
adjacent a side edge of the deck, and an endboard which is
positioned adjacent an end edge of the deck. In addition, the
system includes a user interface system which is supported by the
endboard and/or siderail. The user interface system is configured
to receive signals from the electronic circuit to indicate the
status of the patient vital sign and the component sensor.
[0017] In accordance with another embodiment, a patient support
system is provided, which comprises a deck configured to support a
patient, a base supporting the deck, a power cord configured to
provide electrical power to the patient support system, and a
patient monitor supported by the base and configured to monitor a
vital sign of the patient. The system also includes a component
sensor supported by the base and configured to monitor the status
of a component on the patient support, and a pump supported by the
base and configured to deliver therapy and/or medication to the
patient. An actuator is supported by the base and configured to
move at least a portion of the deck relative to the base. The
system further includes a user interface system supported by the
base. The user interface system is configured to receive signals
from the component sensor and the patient monitor and to allow
control of the actuator and the pump. In addition, the patient
support system includes a power circuit configured to receive the
electrical power from the cord and provide power to the actuator,
the pump, the patient monitor, and the user interface system.
[0018] In another embodiment, a patient support system is provided
which comprises a deck configured to support a patient, a base
supporting the deck, a power cord configured to provide electrical
power to the patient support system, and a patient monitor circuit
supported by the base and configured to monitor a vital sign of the
patient. The patient support system further includes a component
sensor supported by the base and configured to monitor the status
of a component of the patient support system, and a pump supported
by the base and configured to deliver therapy and/or medication to
the patient. In addition, the system includes an actuator supported
by the base and configured to move at least a portion of the deck
relative to the base, and a user interface system supported by the
base. The user interface system is configured to receive signals
from the component sensor and the patient monitor and to allow
control of the actuator and the pump. The patient support system
further includes a microprocessor board supported by the base and
configured to control operation of the pump and the actuator and to
receive signals from the component sensor and the patient monitor
circuit. Additionally, the patient support system of this
embodiment includes a communication circuit supported by the base
and connected with the microprocessor board. The communication
board is configured to communicate signals indicating the status of
the component sensor and at least one of the pump and patient
monitor circuit to a remote location, such as to nurses station
down the hall from the hospital room within which the patient
support system is located. The patient support system further
includes a power circuit configured to receive the electrical power
from the cord and provide power to the actuator, the pump, the
patient monitor, the microprocessor board, the communication
circuit, and the user interface system.
[0019] According to another embodiment, a patient support system is
provided comprising a deck configured to support a patient, a base
supporting the deck, an actuator configured to move the deck
relative to the base, and a pump supported by the base. In
addition, the system includes a connector supported by the base and
configured to place the pump into fluid communication with an air
mattress, and a connector supported by the base and configured to
place the pump into fluid communication with at least one of a
sequential compression therapy device, a chest wall oscillation
device, and a medication pumping device. Furthermore, the system
includes a control system supported by the base and configured to
control the actuator and the pump. Additionally, the patient
support system includes a user interface system supported by the
base and configured to modify the control of the control system to
control the actuator and the pump, to thereby allow user control of
the actuator, the mattress, and at least one of the sequential
compression therapy device, the chest wall oscillation device, and
the medication pumping device. Accordingly, the user can control
the patient support (e.g., bed) functions, the air mattress, and
medical equipment through the bed.
[0020] In another embodiment, a patient support system is provided
comprising a deck configured to support a patient, a base
supporting the deck, an actuator configured to move the deck
relative to the base, a board such as an endboard configured to
locate an edge of the deck, and an audio connector provided on the
board and configured to receive a plug from an audio device. In
addition, the patient support system includes a speaker supported
by the base, and an electronics system supported by the base and
configured to control the actuator and to drive the speaker
according to the signal from an audio device. Accordingly, audio
from devices such as MP3 players, laptops, cell phones, and the
like can be played directly through the bed systems. In some
embodiments, instead of or in addition to the audio connector, the
endboard can include a data connector to connect the patient
support system to a health information system or an electronic
medical records system.
[0021] In yet another embodiment, a patient support system is
provided comprising a deck configured to support a patient, a base
supporting the deck, an actuator configured to move the deck
relative to the base, a board configured to locate an edge of the
deck, and a telephone storage recess provided on the board and
configured to receive a telephone. In addition, the patient support
system includes an electronics system supported by the base and
configured to control the actuator and to control the communication
of signals to and from a telephone. The electronics may connect
wired or wireless to the phone and to a PBX or cellular system to
allow the patient to place calls directly from the bed and via the
bed system.
[0022] According to one embodiment, a patient support system is
provided, comprising a deck configured to support a patient, a base
supporting the deck, and an actuator configured to move the deck
relative to the base. The system further comprises at least one
board such as an endboard or footboard or siderail configured along
at least one edge of the deck and supported by the base. The board
includes at least one user interface configured to control the
actuator. The user interface is further configured to control or
monitor medical equipment, such as SCT equipment, hear rate
monitors, blood pressure monitors, respiratory therapy equipment
and the like. The patient support system comprises one or more of
an obstacle detection system, a bed exit alarm system, a head of
bed angle alarm system, a safety indicator indicating the bed is in
a safe condition, a scale system, a powered transport system, and a
patient turn assist system.
[0023] According to another embodiment, a patient support system is
provided comprising a deck configured to support a patient, a base
supporting the deck, an actuator configured to move the deck
relative to the base. The patient support system further comprises
an electronic control system supported by the base and provided at
one location along the patient support system, such as at the base,
under the deck, in an endboard or the like. The electronic control
system is configured to control the actuator and to receive signals
from and/or provide signals to at least one of a consumer
electronics device, a patient monitoring device connected to the
patient, and a patient therapy device attached to the patient.
Other electronics can also be provided throughout the patient
support system. The patient support system further comprises one or
more of an obstacle detection system, a bed exit alarm system, a
head of bed angle alarm system, a safety indicator indicating the
bed is in a safe condition, a scale system, a powered transport
system, and a patient turn assist system.
[0024] These and other features, alone or in combination with any
other feature(s) (such as those described herein and/or those
listed in the claims) may comprise patentable subject matter. Such
features and principles of the disclosure will become apparent to
those skilled in the art upon consideration of the following
detailed description of various examples and embodiments
illustrating the best mode of carrying out the features and
principles as presently perceived.
BRIEF DESCRIPTION OF THE DRAWINGS
[0025] Referring now to the illustrative examples in the drawings,
wherein like numerals represent the same or similar elements
throughout:
[0026] FIG. 1 is a perspective view of a patient support showing a
patient support according to one embodiment including one or more
principles of the present disclosure;
[0027] FIG. 2 is a side elevation view of the patient support of
FIG. 1, showing the deck support in an upper position and the deck
sections in a linear relationship or bed configuration;
[0028] FIG. 3 is a side elevation view of the patient support of
FIG. 1, showing the deck support in the upper position of FIG. 2
and a head section of the deck elevated by a head section actuator
and a seat section of the deck elevated by a seat section
actuator;
[0029] FIG. 4 is a block diagram illustrating communication between
the control system and various components of the patient support
according to one or more principles of the present disclosure;
[0030] FIG. 5 is a side view of a patient support system according
to another embodiment, in accordance with one or more principles of
the present disclosure;
[0031] FIG. 6 is a perspective view of a footboard for a patient
support, according to another embodiment of the present
disclosure;
[0032] FIG. 7 is a perspective view of another embodiment of a
patient support system and surrounding hospital infrastructure, in
accordance with one or more principles of the present
disclosure;
[0033] FIG. 8 is a block diagram of yet another embodiment of a
patient support system, in accordance with one or more principles
of the present disclosure;
[0034] FIG. 9 is a perspective view of another embodiment of a
patient support system in the form of a hospital bed, according to
one or more principles of the present disclosure;
[0035] FIG. 10 is a side perspective view of a sideboard or
siderail and associated user interface, according to one or more
principles of the present disclosure;
[0036] FIG. 11 is a schematic view of a patient support system
according to another embodiment having one or more principles of
the present disclosure;
[0037] FIG. 12 is a schematic view of another embodiment of a
patient support system having one or more principles of the present
disclosure;
[0038] FIG. 13 is a perspective view of a patient support system
and of the siderail thereof, according to another embodiment having
one or more principles of the present disclosure;
[0039] FIG. 14 is a side view of a patient support system and a
perspective view of the endboard of a patient support system,
according to another embodiment having one or more principles of
the present disclosure;
[0040] FIG. 15 is a cross-section view of an illustrative
embodiment of a siderail 20', such as that of FIG. 5, having an
incorporated display 529 for a patient monitor or other medical
equipment, according to principles of the present disclosure;
and
[0041] FIG. 16 is a block diagram of an illustrative embodiment of
a bed control system having a medical equipment interface,
according to principles of the present disclosure.
DETAILED DESCRIPTION
[0042] In general, a patient support system is provided having an
electronic control system and user interface. In one embodiment,
the electronic control system and user interface are provided on a
hospital bed and can control bed functions, such as articulation of
the head, seat, and leg sections of the bed deck. The electronic
control system and user interface of the bed are also configured to
control and/or monitor the operation of medical equipment, such as
heart rate monitors, blood pressure monitors, thermometers,
sequential compression therapy devices, blood warmers, IV pumps,
chest wall oscillation devices, respiratory therapy devices, blood
oxygen monitors, and the like. In addition, in some embodiments,
the electronic control system and user interface of the bed are
also configured to communicate with patient personal digital
devices, such as audio players, computers, and phones. Furthermore,
the electronic control system and user interface of the bed in some
embodiments are configured for audio and data communication, wired
or wirelessly, with remote hospital computers and communication
devices. In one embodiment, a pump system is resident on the bed
and is controlled by the electronic control system and user
interface, for control of a powered air mattress on the bed deck,
and for control of one or more pieces of medical equipment that
utilize an air pump. The user interface may be provided in one or
more of the endboards of the bed (such as the headboard or
footboard) and/or on a siderail board of the bed.
[0043] A patient support 10 according to an illustrative embodiment
of the present disclosure is shown in FIGS. 1-3. Patient support 10
includes a frame 12, a mattress 14 supported by frame 12, a
headboard 16, a footboard 18, a pair of head end siderails 20, and
a pair of foot end siderails 22. Frame 12 includes a deck support
24 and a deck 26 supporting mattress 14. Deck support 24 includes a
base frame 28 supported on the floor 29 by a plurality of caster
wheels 30, an intermediate frame 32, first and second pairs of lift
arms 34 configured to raise and lower intermediate frame 32
relative to base frame 28, and a weigh frame 36 supported by
intermediate frame 32, so as to allow the patient support 10 to be
raised and lowered to any position between a high and a low
position.
[0044] Deck 26 is supported by weigh frame 36 and is configured to
articulate between a plurality of positions. More particularly,
deck 26 illustratively includes a head section 38 pivotably coupled
to weigh frame 32, a seat section 40 pivotably coupled to weigh
frame 32, and an adjustable length leg section 42 pivotably coupled
to seat section 40. The deck 26 is illustrated in a first
configuration in FIGS. 1 and 2, while the deck 26 is illustrated in
a second configuration in FIG. 3. In the first configuration of
FIGS. 1 and 2, head section 38, seat section 40, and leg section 42
are in a substantially linear or planar relationship. In the second
configuration of FIG. 3, head section 38 of deck 26 is elevated by
a head section actuator 43a and seat section 40 of deck 26 is
elevated by a seat section actuator 43b. A leg section actuator 43c
is likewise configured to move leg section 42 relative to seat
section 40. An extension actuator 44 is configured to extend and
retract the adjustable length leg section 42.
[0045] Additional details of illustrative deck support 24 and deck
26 may be found in U.S. Pat. No. 6,658,680, issued Dec. 9, 2003 and
U.S. Pat. No. 6,611,979, issued Sep. 2, 2003, both of which are
assigned to the assignee of the present application and the
disclosures of which are expressly incorporated herein by
reference.
[0046] Head end siderails 20 are coupled to head section 38 of deck
26 and may be moved relative to mattress 14 between raised and
lowered positions. Foot end siderails 22 are coupled to weigh frame
32 and may also be moved relative to mattress 14 between raised and
lowered positions.
[0047] Referring now to FIG. 4, a control system 45 provides
control of various functions of patient support 10. Control system
45 operates and monitors linear actuator 44 to extend and retract
adjustable length leg section 42, and linear actuators 48 to move
intermediate frame 32 relative to base frame 28. Control system 45
further operates and monitors linear actuators 43a, 43b and 43c to
move head section 38 relative to weigh frame 36, seat section 40
relative to weigh frame 36, and leg section 42 relative to seat
section 40, respectively.
[0048] Control system 45 includes a plurality of input devices
including a detachable siderail controller 50 configured to
removably couple to any of head and foot end siderails 20, 22, a
first pair of permanent siderail controllers 52 coupled to head end
siderails 20, a second pair of permanent siderail controllers 54
pivotably coupled to head end siderails 20, and a pair of foot
pedal controls 56 coupled to base frame 28.
[0049] Control system 45 also illustratively includes an
interference detection device 55 coupled to base frame 28 to detect
possible clearance issues between intermediate frame 32 and base
frame 28. Control system 45 further illustratively includes a
plurality of actuator position detectors or motor sensors (not
shown) provided with each of the plurality of actuators 43a, 43b,
43c, 44, 48. A plurality of load cells 59 are provided between
weigh frame 36 and intermediate frame 32 to provide signals that
indicate the weight supported by intermediate frame 32. Control
system 45 uses these signals to determine the weight of a patient
positioned on mattress 14. Additionally, control system 45
illustratively includes a plurality of siderail position detectors
or sensor 57 configured to provide signals indicative of the
vertical position of siderails 20, 22.
[0050] As previously described and as shown in FIG. 1, deck support
24 includes a base frame 28 supported on the floor 29 by a
plurality of caster wheels or caster devices 30, an intermediate
frame 32, first and second pairs of lift arms 34 configured to
raise and lower intermediate frame 32 relative to base frame 28,
and a weigh frame 36 supported by intermediate frame 32. Linear
actuators 48a and 48b, shown in FIG. 3, provide power to actuate
lift arms 34 and in turn to raise and lower intermediate frame 32
relative to base frame 28.
[0051] Control panel 698 includes a series of buttons 710 for
controlling the various functions of hospital bed 10. Deck 26
includes head, seat, thigh and foot portions or sections that can
be tilted relative to intermediate frame 52 and several mechanisms
configured to adjust the angular position of these deck sections.
As will be described in greater detail below, foot section of deck
26 is extendable, seat section of deck 26 can be tilted relative to
intermediate frame 52, head section of deck 26 can be tilted
relative to intermediate frame 52.
[0052] As shown best in FIGS. 1 and 4, the bed 10 is configured to
connect with, control, and monitor a wide variety of devices and
equipment. In this example, the endboard 16 is fitted with a pair
of displays 91 and 92 for controlling and/or monitoring the
operation of a blood pressure sensor and a heart rate sensor, which
may be connected to the patient. In this example, the electrical
and/or air lines 94' for the blood pressure monitor 94 are managed
by attachments (clips, conduits, notches and the like) on the bed
frame 36 and/or 55 and connect to an electronic control system
(e.g., FIG. 4) resident on the bed (e.g., supported by the base
frame 28 by housing the system in or on the frame 32, the endboard
18 and/or the endboard 16). The same is true for the heart rate
monitor and its associated lines 95 which connect the
sensors/electrodes 96 back to the heart rate monitoring electronics
which are resident in the bed's electronic system that are
supported by the base frame 28. (Supported as used herein is not
limiting and encompasses both indirect and direct support.)
Accordingly, the electronics which control the heart rate and blood
pressure monitoring are resident on the bed and part of the bed's
overall electronic control system. These monitoring tasks and/or
the control tasks of the bed can be accomplished using one or more
microprocessors resident in the bed's electronic system.
[0053] As also shown in FIG. 1, provided in the footboard 18 are
GUI's 97 and 98 which can allow for control and/or monitoring of
additional devices via the bed's resident electronic system. Here,
GUI 98 controls and monitors a sequential compression therapy (SCT)
electronics (e.g., processor, circuit or software) that provides
SCT therapy to a sleeve 199, to treat deep vein thrombosis (DVT).
Additionally, GUI 97 provides control and/or monitoring of a
portion of the electronics in the bed that controls
respiratory/chest therapy, such as via a respiratory therapy
garment 99. Such therapy can comprise high frequency chest wall
oscillation for example. Again, the software and/or hardware that
control the respiratory therapy and the SCT therapy are part of the
bed's electronic control system and can also control other bed
functions.
[0054] As shown in the block diagram of FIG. 4, the system includes
a user interface system 80 resident on the bed and supported by the
base frame which controls not only the bed functions, but also the
monitoring and therapy equipment functions via a main electronic
control system 81. Control system 81 may include digital signal
processing functions, input/output control functions, closed loop
control functions, and other logic to control these various
features of the bed. One or more microprocessors 82 can execute
software and/or firmware to provide such control. In this example,
in addition to the various bed functions controlled by the bed,
control system 81 also controls air mattress control electronics 83
(hardware and/or software) for control of a pump 86 to control
bladders in an air mattress 87. Additionally, control system 81
controls chest wall oscillation electronics 84 that control pump 86
to control the respiratory therapy garment 99, such as one worn on
the upper body. Moreover, control system 81 controls SCT
electronics 85 for control of an SCT garment 199, such as one worn
on the foot or leg. In addition, control system 81 also monitors
blood pressure electronics 77 that receive signals from and/or
provides control of a blood pressure cuff 94 via lines 94'.
Additionally, heart rate monitor electronics 79 are resident in the
bed's electronic system and controlled by the control system 81 to
monitor the patient's heart rate as monitored by electrodes 96 via
lines 95.
[0055] As shown in FIG. 6, as another alternative, a footboard can
be fitted with patient and/or vital signs monitor device controls
and/or readouts and used with a bed, such as the bed of FIG. 1.
This embodiment includes a modular control unit 692 for controlling
the automated features of hospital bed 10. Footboard 18 further
includes a base 694 and modular control unit 692 includes a support
panel 696 slidably coupled to base 694 and a control panel 698
pivotably coupled to support panel 696. Control panel 698 is
rotatable between a use position, as shown in FIG. 6, and a storage
position in a recess 699 formed in support panel 696. Support panel
696 is also formed to include a notch 697 in which a caregiver can
grab a distal end of control panel 698 to rotate it back to the use
position. Series of buttons 710 also includes a third pair of
buttons 714 for raising and lowering back section relative to
intermediate frame and a fourth pair of buttons 716 for
simultaneously raising and lowering seat and back sections. Another
set of buttons 718 is provided for controlling the various
functions of a mattress on the bed. Series of buttons 710 includes
a first pair of buttons 711 for raising and lowering intermediate
frame (e.g., 32 of the embodiment of FIG. 1) and a second pair of
buttons 712 for raising and lowering seat section (e.g., 40 of the
bed of FIG. 1).
[0056] Control panel 698 further includes a display 719 for
monitoring the status of the various functions of hospital bed.
According to an alternative embodiment, the series of buttons also
includes a pair of buttons for moving the intermediate frame
between the Trendelenburg and reverse Trendelenburg positions,
extending and retracting the foot section of the deck, and any
other function of the bed. Control panel 698 can also include
buttons and a display associated with a bed exit and weighing
system of bed. Here, patient vital signs and/or other monitoring
information about the patient are displayed on interface 696. This
interface 696 may be a display, such as an LCD and/or light
indicators, or other device for displaying information to the
user.
[0057] As shown in FIG. 6, control unit 692 is removable from base
694 to permit replacement of control unit 692 for repairs or
upgrading. Multiple configurations of modular control units can be
provided at the manufacturing facility. Depending on the specific
configuration of the hospital bed, a different control unit can be
provided with the respective hospital bed by sliding the respective
control unit into standard base 694.
[0058] As further shown in FIG. 6, the endboard 18 can include a
screen or other display 696 which indicates the status of one or
more patient monitors. The monitors may be integrated with the bed,
as described in further detail above, or may be plugged into data
ports on the bed. The patient monitors may monitor vital signs such
as heart rate, respiration rate, temperature, blood pressure, blood
oxygen saturation, and other signs regarding the patient.
Accordingly, in this embodiment, a single user interface, and
circuitry associated therewith, can be utilized for control of the
patient support system and for monitoring the patient.
[0059] As shown in FIG. 9, in another embodiment a hospital bed 100
is provided including a base frame 120 positioned on the floor, a
deck 140 coupled to frame 120, a mattress 130 positioned on deck
140, a headboard 160 coupled to frame 120, a footboard 180 coupled
to deck 140, and a pair of split siderails 200, 210 coupled to
frame 120. Frame 120 is configured to raise and lower deck 140
relative to the floor and to move deck 140 to the Trendelenburg
position and the reverse Trendelenburg position.
[0060] As shown in FIG. 9, headboard or first board 160 includes a
curved base 300 coupled to frame 120 and a center panel 340
removably coupled to base 300. Base 300 includes a pair of handles
480 to facilitate pushing hospital bed 100 about a care facility.
In this embodiment, center panel 340 can be removed from base 300
to allow for retrofitting of new user interface headboards based on
the desired capabilities of the bed. The removability of center
panel 340 can also permit access to the patient during such a
procedure from a head end of hospital bed 100.
[0061] Base 300 may be formed to include a pair of grooves
configured to receive tongues 440 of center panel 340 so that
center panel 340 is slidably coupled to base 300. As shown in FIG.
9 frame 120 can include a rectangular lower frame member or base
frame 320, a plurality of casters 500 coupled to base frame 320 to
permit hospital bed 100 to be rolled about a care facility, a
rectangular upper frame member or intermediate frame 520, a linkage
system 540 coupled to intermediate and base frames 520, 320 to
permit relative motion therebetween, and an actuator system 560
providing power to actuate linkage system 540 and move upper member
520 relative to base frame 320. Linkage system 54 includes a pair
of head links 580 pivotably coupled to a head end 530 of
intermediate frame 520 and slidably coupled to base frame 320, a
pair of foot links 600 pivotably coupled to a foot end 550 of
intermediate frame 52 and slidably coupled to base frame 320, and a
pair of guide links 620 pivotably coupled to respective foot links
600 and pivotably coupled to base frame 320 at a fixed pivot
point.
[0062] In this embodiment, the module 692 which is movable into and
out of engagement with the footboard 694 comprises a display, such
as a graphical user interface LCD or the like, which monitors the
operation of and/or allows control of a pump. The pump may be an IV
pump, an air pump for the mattress 260, an air pump for a
sequential compression therapy device (for DVT), an air pump for a
respiratory therapy (such as high frequency chest wall oscillation
therapy), or other medical pump. In addition, in this embodiment,
the headboard panel 340 includes a display 360 (e.g., lights,
screen, and/or GUI) for controlling the operation of and/or
monitoring a patient vital signs monitor. In addition, the board
340 includes a display 441 for monitoring and/or controlling the
bed functions, such as the hi-lo function, the articulation
functions, and the Trendelenburg functions.
[0063] Another embodiment of a patient support apparatus having a
multifunctional unified control and user interface system is shown
in FIG. 5. Here the base frame 28' support an intermediate frame
32' and a deck 15' upon which rests a mattress 14'. Actuators 31'
move links 34' to permit movement of the frame 32' relative the
base 28'. Casters 30' allow for movement of the bed. Various boards
are provided along edges of the bed to locate the edges of the bed
and assist the patient and caregiver. In particular, endboards in
the form of headboard 16' and footboard 18' are provided at the
short sides of the bed and various side boards, also known as
siderails 20' and 22' are provided at the long sides of the bed.
Each of these boards in this example provides controls or user
interface capabilities for hospital equipment and/or patient
devices. For example, siderail 22' includes a GUI 521 for
controlling and/or monitoring the status of a pump for use in
treating DVT, a GUI 523 for use in controlling and/or monitoring
the actuators on the bed, and a GUI 525 for controlling and/or
monitoring the status of an intravenous (IV) pump. The IV pump can
be located on the bed and supported by the base 28' and used to
deliver fluid from IV bag 543, which is retained on IV pole 541,
through line 545, through the pump and ultimately through line 547
to the patient vein. The lines 545 and 547 can be retained to the
deck 15, the frame 32', and/or the base 28', via suitable
connectors, conduits, clips, and/or retainers. Like the IV pump and
its associated electronics, the DVT pump and its associated
electronics can likewise be provided on and built into the bed
infrastructure. The DVT pump can thus provide SCT therapy through
line 557 to DVT sleeve 559 on the patient's lower extremity.
Additionally, siderail 20' includes a GUI 526 for controlling the
bed actuators, and a monitor GUI 529 for controlling and/or
monitoring the status of patient vital sign monitors. The monitor
GUI 529 receives its signal from sensors 561 and 563 that connect
to the patient and which contain cords or lines that can be run
along or contained within the frame 32', deck 15' and/or base 28'.
The electronics that run the various pumps and monitors can be
built into the bed electronics system and unified or integrated
therewith.
[0064] The headboard 16' of the bed of FIG. 5 includes an AC power
outlet 571 for providing AC electrical power to external devices
through the bed's infrastructure, as well as an audiovisual
connector 573 for allowing an AV component to be hooked to the bed
and communicate through the bed's electronic system. For example,
an MP3 player or laptop could be hooked up to connector 573 and can
play music through the bed's speakers (not shown). In this example,
headboard 16' also includes a connector 581 to provide air to the
air mattress 14' via air line 582 which connects to an air port 583
on the mattress. The pump that provides the air can be the same
pump as the pump that provides the SCT therapy to the sleeve 559,
or can be a separate pump, both of which are mounted to the base
28', frame 32', endboards 16'/18', and/or deck 15'. Footboard 18'
likewise includes ports for hooking to external devices. In this
example, a USB (universal serial bus) port 575 is provided on
footboard 18' to allow devices to be powered from and/or
communicate with the bed electronics system, and a LAN (local area
network) port 577 is provided to allow devices to access a network
and/or the Internet from the bed electronics.
[0065] A wireless phone 593 is mounted to the siderail 22', such as
via a mounting port or station or via a connector or other
attachment. The wireless phone 593 can wirelessly communicate with
electronics in the bed to allow the phone to be used for calls
within the hospital or external calls to the public.
[0066] Another embodiment is shown in FIG. 7. This embodiment
includes a bed status system 11, which is integrated with a
patient/nurse call system 10' in accordance with a contemplated
embodiment of the present disclosure. While bed status system 11
provides bed status information, the patient/nurse communication
system 10' organizes, stores, maintains and facilitates retrieval
of bed status information, along with the various non-bed calls
placed in a hospital wing or ward, thereby optimizing communication
capabilities among nurses and patients 12. More specifically, FIG.
7 shows a patient room 14' accessible from a hall 15'' of the
hospital wing, and a patient bed 16 located in the room 14'.
Patient bed 16 is equipped with a variety of mechanical and
electrical systems to assist hospital personnel in patient care.
The state or condition of each of these systems is detected by
circuitry included on bed 16. For example, patient bed 16 includes
headrails 17a, 17b and footrails 19a,19b for assisting a patient
within the bed. The rails have an up or latched position, as
indicated, by headrail 17b, and a down or unlatched position as
indicated by headrail 17a. Each headrail 17a, 17b or footrail 19a,
19b of patient bed 16 is equipped with a latch sensor, such as
headrail latch sensor 25 and footrail latch sensor 27 to detect
whether the respective rails are in the latched or unlatched
position. Furthermore, bed 16 is equipped with a patient exit
detection system which includes pressure sensitive sensor strips 29
to detect whether the patient 12 has exited the bed or is still in
the bed. The patient exit detection system may be armed or disarmed
and a sensor (not shown in FIG. 1) indicates whether the system is
armed. Other bed system conditions are also detected on bed 16 by
various sensor systems. For example, in one embodiment contemplated
by this disclosure, bed 16 is equipped with a sensor to indicate
whether the bed break is set, a sensor to indicate whether the bed
is at its lowest position, and a sensor to indicate whether the
mattress 31 is in a particular firmness mode to enhance the comfort
of the patient. Furthermore, other various features and functions
of the bed might be monitored in accordance with the principles of
the present disclosure. The various sensed bed conditions are
associated with sensor signals, and the signals are presented via
hard wire connections 33 to a bed electronics and interface board
35. Interface board 35 is connected through a junction box 37 to a
serial cable 39 and plug 39p which, in turn, connects to a wall
interface unit 40, which couples the bed status information to a
patient/nurse communication system 10'. As part of the
patient/nurse communication system 10' utilized with this
embodiment, a patient station 41 is mounted to a head wall of the
patient room 14' as shown in FIG. 7. The patient station 41 is
connected by a hardwire connector 43 to wall interface unit 40,
with connector 43 located behind the headwall of the room 14'. A
pillow unit 44, on bed 16, connects via cable 45 to a bed outlet or
plug 45p of the wall interface unit 40. Additionally, cable 39
plugs into a bed outlet or plug 39p of the interface unit 40, while
a second end of the cable 39 is electrically coupled to bed
interface board 35 through junction box 37.
[0067] Like the embodiments described above, the bed of FIG. 7 can
include one or more side or end boards which display or control
other medical devices. Here, a user interface 719 is mounted in the
headboard 100' to allow for vital signs of the patient to be
displayed. Such vital signs can come from wireless electrodes 721
placed on the patient. A communication board 723 in the bed
electronics receives signals from the electrodes 721 as well as
from other devices. For example, the communication board 723 can
wirelessly communicate bed and/or patient data to a remote computer
725 and/or a nurse call station 727 which are external to the
hospital room 14'. The electronics board 35 can include one or more
microprocessors that controls and/or communicates with the bed
components, the bed sensors (such as 25/27), the monitor/sensors
721, the communication board 723 and the headboard GUI 719.
[0068] Another embodiment of a electronic control system for a
patient support having adjustable mechanical components, patient
therapy, and patient monitoring system is shown in FIG. 8. In this
example, the control system 801 is confined within a patient
support (e.g., a bed, stretcher, or wheelchair). The system 801
includes patient sensors 802 that provide patient monitoring
signals to a lead/electrode control circuit 805 (which controls the
signals provided to and from the electrodes). The output of the
control circuit 805 is provided to an analog to digital converter
807 which provides signals representing the vital signs to a main
control logic board 206 for the patient support 102. This board 206
may include one or more microprocessors 217 which executes
algorithms in the form of software or firmware stored in memory
218. Additionally, the system 801 controls various components of
the patient support via at least one motor 821. Control signals to
control the motor provided from the control board 206, and
monitoring signals regarding the status of the motor (or the
mechanical parts it controls) are fed back to the control board
206. Additionally, a pump 831 is provided as part of the patient
support system 102. The pump 831 provides air to a mattress 833 and
to a respiratory therapy garment 835. The pump is controlled and
monitored by the control board 206. The user operates the pump 831
and motors 821, and views the status (and/or history) of these
components (as well as the patient vital signs from the sensors
803) via a user interface 208. The user interface 208 can include
operator input devices 220 and one or more displays 108 and is in
communication with the control board 208 to communicate control
signals and display signals therebetween. Additionally, the patient
support system 102 includes an AV input 853 to provide audio and/or
video signals from an external consumer electronics device, such as
an MP3 player 855. Moreover, the patient support system 102
includes an AV output to drive a speaker or headphone system 859.
The user interface can be used to control these connections and
these devices 859/855. The user interface may also allow for
connection to the Internet or to a list of entertainment choices
(television shows, songs, etc.), and the entertainment can be
delivered via the port 857 to the output device 859. The patient
support 102 may include any one or more of the features described
above with respect to the other embodiments.
[0069] FIG. 10 illustrates the shape of a removable GUI device that
could be placed within an opening in the board of the patient
support system to allow the user to control features of the patient
support, as well as to monitor the patient. Here, the user
interface device includes a housing 1001 that includes a display
1003 for monitoring patient vital signs, as well as user interface
buttons 1005 for controlling movements of the patient support
(e.g., the leg, seat and head sections of the deck). The housing
1001 can have a portion that fits into opening 1007 in the
sideboard/siderail 1009, such as via interference/snap fit or via
attachments. The patient support and siderail 1009 can operate and
include components such as those described above.
[0070] FIG. 11 is an embodiment of a patient support system 1100
that is adapted to receive data/vital signs/patient status
wirelessly from a variety of medical monitoring devices 1101 via a
communication device 1103. A communication device 1109 on the
patient support system 1100 receives and aggregates and processes
the signals from the devices 1101. A user interface 1105 on the
headboard 1104 then displays signals from the monitoring devices
1101. Such data can then be passed along wired or wirelessly to an
electronic medical records system (EMR) 1107. The patient support
system 1100 can include one or more of the features and components
described above with respect to other embodiments.
[0071] FIG. 12 illustrates another embodiment. Here, a
communication device 1203 on each of the medical devices 1201
communicates wirelessly with a communication device 1209 on the
patient support 1200 via IEEE802.15.4 protocol. The location of the
patient support 1200 is determined from ultrasonic and RF beacons
1210, such as via location technology. The medical device data is
then transmitted to a display 1205, an EMR 1207, and other
computers 1211 via wireless IEEE802.11 protocol. The device 1209
can be located on the patient support 1200, as can the display
1205. A display on the headboard or siderail of the support 1200
can display the data from the devices 1201. The patient support
system 1200 can include one or more of the features and components
described above with respect to other embodiments.
[0072] FIG. 13 illustrates another example where the patient
support system 1300 (in this example the siderail 1301) includes
one or more device ports to plug in headphones or an MP3 or digital
audio music player 1305, such as described above. The patient
support system 1300 can include one or more of the features and
components described above with respect to other embodiments.
[0073] FIG. 14 is another embodiment, similar to that of FIGS. 11
and 12. However, in this example, a data connector or docking port
1420 extends from a hospital room headwall or other wall within the
hospital room. This port 1420 then interfaces with the patient
support 1400 via a corresponding data receptacle 1421 on the
endboard of the bed, allowing for data transfer whenever the bed is
hooked to the port 1420 on the wall. Accordingly, the endboard of
the patient support system transfers data regarding the bed or
equipment and devices controlled by or monitored by the bed, wired
or wirelessly. Such data can then be transmitted to remote
locations, such as computers or nurses stations, having health
information systems and/or Electronic Medical Records, for
collection, storage, billing, reporting, and/or analysis. The
patient support system 1400 can include one or more of the features
and components described above with respect to other
embodiments.
[0074] FIG. 15 is a partial cross-section view of an illustrative
embodiment of a siderail 20', such as that of FIG. 5, having an
incorporated display 529 for a patient monitor or other medical
equipment, according to principles of the present disclosure. This
Figure illustrates the routing of conductors 160 for equipment
display 529. Conductors 160 extend through central opening 162 in
siderail 20', and through an opening 168 in display 529 and in the
siderail 20'. Conductors 160 may provide power and other signals to
pendant display 529 from display 529 may provide signals through
conductors 160 to the main bed control system. Connectors, such as
screws or bolts or snap fittings 531 can be used to hold the
display 529 to the siderail 20'. In some alternatives, the siderail
20' is an endboard or other board or component of the bed. Also, in
some embodiments, the display 529 is mounted flush with the
sideboard 20' or otherwise integrated therein. Additionally, the
wires 160 may connect to the display via an electrical connector
between display 529 and sideboard 20', such that an opening 168 in
siderail 20' and display 529 is not needed. Wires may comprise
individual wires or bundled wires such as on a ribbon connector.
Siderail 20' (and the other siderails described herein) can locate
the edge of the bed, can assist the patient and caregiver while the
patient is in the bed, can impede the patient from moving off the
bed, and can be moved up and down (deployed and stowed) as needed
during use.
[0075] FIG. 16 illustrates a control system for a patient support
system. The system 1330 includes a controller 1332 which can be a
networking microprocessor. Controller 1332 accesses memory 1334 and
can comprise one or more microprocessors, controllers, or control
boards. Memory 1334 can include an EEPROM, and EPROM, and a static
RAM. Controller 1332 is coupled to a RS-485 transceiver 1336.
Transceiver 1336 is coupled to first and second network connectors
1338 and 1340. System 1330 includes an internal power supply 1342
coupled to a power input. Illustratively, power supply 1342
supplies a +5V supply voltage to controller 1332 on line 1344.
Power supply 1342 also supplies power to a medical equipment
interface 1346, a display interface 1348, and a keyboard interface
1350. Medical equipment interface 1346 receives an input from
medical equipment, such as the patient vital monitors, patient
therapy devices, or patient treatment devices discussed herein. An
output of interface 1346 is coupled to controller 1332 on line
1354. Controller supplies information to display interface 1348 on
line 1356. An output from display interface 1348 is coupled to a
suitable display 1358. Keyboard interface 1350 receives an input
from a keyboard 1360. An output of keyboard interface 1350 is
coupled to controller 1332 by line 1362.
[0076] System 1330 provides a unified apparatus for controlling and
monitoring bed functions as well as for controlling and/or
monitoring functions of the medical equipment. Medical equipment
1352 and keyboard 1360 provide input devices for inputting
information into system 1330. It is understood that any type of
input device can be used. Information from system 1330 can be sent
to the hospital network through transceiver 1336 and communication
module 1020 or to another remote location via accessory module
1016. An output device such as display 1358 is provided to display
information to the user. The display 1359 can be a series of LEDS
or a display panel, such as a LCD display. Memory 1334 contains
code that translates raw medical equipment information and keyboard
input information from keyboard 1360 into specific data or
commands, either for local on-bed use or for hospital network
off-bed use. For instance, the nurse can take patient vitals using
the medical equipment or input various information into keyboard
1360 related to the patient. This input can be used to generate an
internal chart of the medical history of the patient for use on the
hospital bed. This chart data can be displayed on display 1358. In
addition, this chart can be transmitted over the hospital network
or transmitted to a remote location using a data link coupled to
accessory port 1016.
[0077] Another use of system 1330 is for inputting a control
sequence used to control a bed control module to perform a
dedicated function on the bed. For instance, a caregiver can
prescribe a certain surface therapy for pulmonary or other type of
treatment of the patient on the bed. This treatment prescription
can specify a period of time for percussion and vibration therapy
or for rotational therapy of the patient on the bed. The
prescription can include a specific period of time for the therapy
with varying rates of rotation or a varying frequency of percussion
and vibration. This specific control sequence is input into system
1330. System 1330 then automatically executes the prescribed
control sequence by transmitting appropriate commands at
appropriate times through transceiver 1336 to the network and to
the selected bed control modules to control the selected modules in
the prescribed control sequence.
[0078] The patient support systems described herein can include any
one or more of the features or systems described in Appendix A of
U.S. Provisional Application Nos. 61/224,851 and 61/225,920 to
which the present application claims benefit and/or in U.S.
Provisional Patent Applications Nos. 61/106,830 filed Oct. 20,
2008, 61/000,489 filed Oct. 26, 2007, and U.S. patent application
Ser. No. 12/256,637 filed Oct. 23, 2008, the entire disclosures of
which are hereby incorporated herein by reference.
[0079] The foregoing description of various embodiments and
principles of the disclosure have been presented for the purposes
of illustration and description. It is not intended to be
exhaustive or to limit the disclosure to the precise forms
disclosed. Many alternatives, modifications and variations will be
apparent to those skilled in the art. Moreover, although multiple
inventive aspects and principles have been presented, these need
not be utilized in combination, and various combinations of
inventive aspects and principles are possible in light of the
various embodiments provided above. Accordingly, the above
description is intended to embrace all possible alternatives,
modifications, aspects, combinations, principles, and variations
that have been discussed or suggested herein, as well as all others
that fall within the principles, spirit and broad scope of the
various possible inventions disclosed herein and defined by the
claims.
* * * * *