The present invention is related to a care method and a care-robot used therein. More specifically, the invention is related to the care method and the care-robot used therein to reduce the burden on health care workers such as care helpers (hereinafter, referred to as caregivers) and old people and physically handicapped people (hereinafter, referred to as care receivers).
Often, caregivers support care receivers' lives. While attending to the needs of the care receivers, the caregivers have to move the care receivers from beds to wheelchairs and vice versa, for example for the care receivers to go to a restroom or to take a bath.
Usually, one caregiver has to move a care receiver alone. This is hard work for the caregiver. Therefore, most caregivers suffer from lower back pain. Such lower back pain has been one of the occupational disorders for the caregivers.
In order to solve this problem, people in the field of providing care to others desire a care method and a care-robot used therein to reduce the burden on the caregivers. Especially, a care method and a care-robot used therein to reduce the burden on the caregivers to move the care receivers from beds to wheelchairs and vice versa.
JP 2002-136549 discloses a carrier for nursing care. However, the carrier has a complex construction, and thus the carrier cannot be handled easily.
Considering the problem of the prior art, the present invention provides a care method and a care-robot used therein to reduce the burden on caregivers, especially, to reduce the burden when moving the care receivers.
The care method of the present invention includes: a step of spreading out a sheet on top of a bed, in which the sheet has holding parts for arms of a robot at both sides of the sheet; a step of laying a care receiver on the sheet; a step of positioning a robot and arms thereof relative to the care receiver; a step of moving the robot towards the bed and holding the holding parts of the sheet by the arms; a step of moving the arms upward by a predetermined distance; and a step of moving the robot away from the bed after the step of moving the arms upward.
The care method of the present invention preferably includes a step of positioning the head level of the care receiver higher than the foot level thereof.
In a first embodiment, the care-robot of the present invention includes a movable base, a first rising and falling shaft and a second rising and falling shaft arranged on the base, and a U-formed element. The first rising and falling shaft has a rotative element being able to rotatively and unslidably hold the bottom section of the U-formed element, and the second rising and falling shaft has a rotative element being able to rotatively and slidably hold the bottom section of the U-formed element. One part of the bottom section of the U-formed element is rotatively and unslidably held by the first rising and falling shaft, and another part of the bottom section of the U-formed element is rotatively and slidably held by the second rising and falling shaft.
In this embodiment of the care-robot of the present invention, it is preferable that a first power source for the first rising and falling shaft is arranged on the base, and a second power source for the second rising and falling shaft is arranged on the base.
Also, in the first embodiment of the care-robot of the present invention, it is preferable that the base contains a control panel controlling the first rising and falling shaft and the second rising and falling shaft. In this case, it is more preferable that the control panel is arranged between and rearward of the first rising and falling shaft and the second rising and falling shaft.
In a second embodiment, the care-robot of the present invention includes a movable base, a rising and falling shaft arranged on the base, a rotative shaft attached to the rising and falling shaft, a first expanding and contracting shaft and a second expanding and contracting shaft arranged symmetrically with respect to the rotative shaft, a first arm arranged to the first expanding and contracting shaft and a second arm arranged to the second expanding and contracting shaft.
In the second embodiment of the care-robot of the present invention, it is preferable that the care robot has a control panel with a manual operating means and a control device. The control device includes a position-force control changing means changing between position control and force control, a rising and falling shaft drive controlling means controlling drive of the rising and falling shaft, a rotative shaft drive controlling means controlling drive of the rotative shaft, a first expanding and contracting shaft drive controlling means controlling drive of the first expanding and contracting shaft, and a second expanding and contracting shaft drive controlling means controlling drive of the second expanding and contracting shaft. In this case, it is more preferable that the control panel additionally has a robot start-stop button, and the control device additionally has a supervisor means supervising the position-force control changing means changing between position control and force control, wherein the rising and falling shaft drive controlling means controls the drive of the rising and falling shaft, the rotative shaft drive controls the means controlling drive of the rotative shaft, the first expanding and contracting shaft drive controls the means controlling drive of the first expanding and contracting shaft, and the second expanding and contracting shaft drive controlling means controlling drive of the second expanding and contracting. The supervisor means supervises the position-force control changing means in response to signals from the robot start-stop button. Also, it is more preferable that the control panel additionally has a head side indicating means indicating whether the head of the care receiver is on the right-side of the care robot or the left-side thereof. The rotative shaft drive controlling means additionally has a rotative angle limiting means which limits the rotative angle so that the head of the care receiver is not positioned below the level surface in response to a signal from the head side indication means. Also, it is more preferable that the control panel additionally has a manual-automatic operation changing means and an action pattern selecting means, and that the control device has a memory for storing action patterns.
In the second embodiment of the care-robot of the present invention, it is also preferable that the first arm and the second arm have the shape of a stick.
In the second embodiment of the care-robot of the present invention, it is also preferable that the care-robot has a power source for driving.
In the second embodiment of the care-robot of the present invention, it is also preferable that the care-robot is covered with a decorative cover.
In the second embodiment of the care-robot of the present invention, it is also preferable that the base has a moving device; wherein the moving device has a front wheel holding block having a front level part and an upslope rear part.
Embodiments of the present invention are constructed as mentioned above, so that it is not necessary for a caregiver to lift up a care receiver from a bed when moving a care receiver from a bed to a wheelchair and the like. As a result, the burden on caregivers is reduced.
a) is a schematic drawing of a holding part for a U-formed element showing a fixed part.
b) is a schematic drawing of a holding part for a U-formed element showing a sliding part.
a) is plan view of a custom care sheet.
b) is a sectional view of a custom care sheet.
Hereinafter, by referring to the attached drawings, embodiments of the present invention are described. However, the present is not intended to be limited to the embodiments shown and described.
The care method of the present invention is to assist in moving care receivers from beds to wheelchairs by care-robots in accordance with the following procedures. Namely, the care method of the present invention is to assist care receivers by transfer assist robots (care-robots) when the care receivers are moved to wheelchairs and the like. The following steps are carried out by caregivers.
Accordingly, by the above mentioned procedures, the burden on caregivers is reduced when moving the care receivers from a bed to a wheelchair and vice versa.
Hereinafter, referring to the drawings, the mechanism of the robot is described.
As shown in
As shown in
Moreover, the wheels 22 may be rotatably attached to the pipe 21. Accordingly, the robot R is able to move right-wards and left-wards as well as forward and backward.
The first rising and falling shaft 1 and the second rising and falling shaft 2 are, for example, made of electric cylinders.
The U-formed element 5 includes bottom section 5a and arm sections 5b which project from the bottom section 5a. The bottom section 5a is held by the main rotative block 3 and the subordinate rotative block 4 as described above. The distance between the arm sections 5b is the same distance as the distance between holding parts 31 of custom care sheet 30 (Refer to
The driving power source 6 is, for example, a battery, and therefore the robot R can be made cordless. Also, the driving power source 6 includes a first driving power source 6A for driving the first rising and falling shaft 1 and a second driving power source 6B for driving the second rising and falling shaft 2, in which the first rising and falling shaft 1 and the first driving power source 6A are electrically connected, and the second rising and falling shaft 2 and the second driving power source 6B are electrically connected.
As shown in
As shown in
Each holding part 31 includes a base layer 32, a cushion layer 33 arranged outside the base layer 32, and a surface layer 34 made of synthetic resins sheet.
Next, transferring the care receiver by the robot R is described.
As is mentioned above, according to the robot R of the embodiment, it is not necessary for the caregiver to lift up the care receiver from the bed, so that the burden on the caregiver is reduced. For example, the back-ache, which is considered an occupational disorder of the caregiver, can be prevented.
A robot R of the embodiment 2 of the present invention is shown in FIG. 9 to
As shown in
The base 100 includes a loading section 110 arranged at the center of the base 100, and moving sections 160 arranged at both ends of the loading section 110. More specifically, the loading section 110 includes a loading part 120 arranged at the center of the base 100, and horizontal support members 130 which are elongated rightward and leftward. The moving section 160 includes a front moving section 170 and a rear moving section 180. The front moving section 170 includes a front wheel 171 and a front wheel support block 172 supporting the front wheel 171. The rear moving section 180 includes a rear wheel 181 and a rear wheel support block 182 supporting the rear wheel 181. The front wheel support block 172 and the rear wheel support block 182 are connected to the horizontal support members 130 by suitable means. Here, the diameter of the front wheel 171 is smaller than that of the rear wheel 181.
The loading section 110 or more specifically the loading part 120, is equipped with the rising and falling shaft 51, the driving power source 57 and the control panel 70.
The front wheel support block 172 includes the front level part 173 and the upslope rear part 174. The front wheel 171 is attached to the end of the front level part 173. Since the diameter of the front wheel 171 is smaller than that of the rear wheel 181 and the front wheel support block 172 has such configuration, the front moving section 170 can be entered under the bed. The other parts of the front wheel support block 172 and the parts of the rear wheel support block 182 can be those well-known for a wheel support.
The rising and falling shaft 51 includes, for example, an electric cylinder.
The rotative shaft 52 includes, for example, an electric servomotor.
The first expanding and contracting shaft 53 and the second expanding and contracting shaft 54 include, for example, electric cylinders.
The driving power source 57 is, for example, a battery.
As shown in
The robot operating buttons 71 are located at the end of the manual operating lever 74 arranged on the right-side cover CR covering the first expanding and contracting shaft 53 and at the end of the manual operating lever 74 arranged on the left-side cover CL covering the second expanding and contracting shaft 54, respectively. The robot R can be operated while both of the both operating buttons 71 are pushed as a fail-safe.
As shown in
The control device 80 has the position-force control changing means 81 changing position-force control, a rising and falling shaft drive control means 82 controlling drive of the rising and falling shaft 51, a rotative shaft drive control means 83 controlling drive of the rotative shaft 52, a first expanding and contracting shaft drive control means 84 controlling a drive of the first expanding and contracting shaft 53, a second expanding and contracting shaft drive control means 85 controlling a drive of the second and contracting shaft 54, a supervisor means 86 supervising all the above means. The supervisor means 86 supervises the means so that, for example, the rotative shaft 52 can rotate, the expanding and contracting shafts 53 and 54 can be extended or shortened, and the rising and falling shaft 51 can be extended upward or shortened downward in response to the signals from the robot operating buttons 71 when they are pushed.
The rotative shaft drive control means 83 has a rotative angle limit means 83a limiting a rotative angle of the rotative shaft 52 in response to signals from the head-side indicating lever 72. Here, the rotative angle limit means 83a controls the rotative angle so that the head of the care receiver is not positioned below the feet of the care receiver.
The control device 80 as described above can be made by installing programs carrying out said functions to a computer.
Hereinafter, moving a care receiver by the robot R having the above configuration is described.
After the posture of the care receiver is positioned as described above, a caregiver moves the care receiver to a wheelchair.
As is mentioned above, according to the robot R of the embodiment, it is not necessary for the caregiver to raise the care receiver from the bed. Accordingly, the burden on the caregiver is reduced. For example, the back-ache, which is considered an occupational disorder of the caregiver, is alleviated.
A control panel of the embodiment 3 of the robot of the present invention is shown in
Namely, as shown in
Hereinafter, the automatic operation is described.
The manual-automatic switching lever 75 is operated to choose the automatic operation, and one of the automatic action pattern selecting buttons 76 is pushed in order to select one automatic action pattern. Then the selected pattern stored in the operating patterns storing memory 88 is called, so that the robot R acts in accordance with the pattern. For example, while the rotative shaft 52 is rotated, the first expanding and contracting shaft 53 is properly extended and then shortened by driving the first expanding and contracting shaft 53, and the second expanding and contracting shaft 54 is properly extended and then shortened by driving the second expanding and contracting shaft 54.
Since the robot R is operated as described above, it appears that the robot R is dancing so that a healing effect is given to the care receiver. In order to enhance the healing effect, it is preferable that the robot R is covered with a decorative cover.
As a result, the care receiver has an impression that the robots R are dancing, so that the healing effect for the care receiver is increased.
As described above, according to this embodiment, the robot R is automatically operated in accordance with the pre-setting pattern, so that the care receiver has an impression that the robots R are dancing. As a result, the healing effect for the care receiver is increased.
The present invention is described referring to specific embodiments. However, the scope of the invention is not intended limited to the specific embodiments, and numerous variants are possible.
For example, as shown in
Also, in the above embodiment, electric power is supplied from the battery equipped on the robot R. However, electric power may be supplied from a commercial power source.
The present invention is applicable for use in the robot industry and the care business.
Number | Date | Country | Kind |
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2012-206385 | Sep 2012 | JP | national |
2012-206401 | Sep 2012 | JP | national |
This application is a Continuation of PCT International Patent Application No. PCT/JP2013/075960 filed on Sep. 17, 2013, which claims the benefit of Japanese Patent Application Nos. 2012-206385 filed Sep. 19, 2012 and 2012-206401 filed Sep. 19, 2012, the entire disclosure of each of which is incorporated herein by reference in its entirety.
Number | Date | Country | |
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Parent | PCT/JP2013/075960 | Sep 2013 | US |
Child | 14642136 | US |