CN215078408U - Sleep monitoring therapeutic instrument with lifting mechanism - Google Patents

Abstract

The utility model provides a sleep monitor therapeutic instrument with elevating system, includes AGV mechanism, multistage actuating mechanism, treatment head subassembly assembly, its technical essential is: the AGV mechanism comprises a framework structure and a rolling support structure; the multistage driving mechanism comprises sliding body assemblies which are sleeved from outside to inside in sequence and can slide linearly relatively, and each sliding body assembly comprises a hollow sliding body, a linear driving mechanism limited in the sliding body, a pair of sliding rails extending in the same direction as the sliding body and a plurality of sliding blocks matched with the sliding rails; the treatment head assembly comprises a framework structure and an extension component which moves linearly along the plane where the framework structure is located, wherein the extension component comprises a slide rail, a linear driving mechanism matched with the slide rail, a telescopic rod limited on the slide rail in a sliding mode, and a radiation component limited at the tail end of the telescopic rod. Fundamentally solves current sleep detection therapeutic instrument and uses inconvenient problem, and it has simple structure compactness, convenient to use is swift, advantages such as degree of automation height.

Description

Sleep monitoring therapeutic instrument with lifting mechanism

Technical Field

The utility model relates to an intelligent equipment, a sleep monitor therapeutic instrument with elevating system specifically says so, its adjunctie therapy who is mainly applicable to noninductive sleep monitor and insomnia.

Background

The existing sleep-aiding and nerve-soothing equipment mainly comprises two types, wherein one type is a fixed physiotherapy bed or physiotherapy chair, and the other type is a portable eye patch or helmet. For the fixed sleep-aiding device, there is an auxiliary treatment device for psychology department which treats insomnia by means of psychological intervention, such as the one disclosed in the grant publication No. CN 209827908U; there are also a "smart sleep-assisting robot" disclosed in the patent application publication No. CN111991672A, a "medical multifunctional massage bed" disclosed in the patent application publication No. CN108670678A, and a "sleep disorder treatment device" disclosed in the utility model patent publication No. CN209437855U, which enable the mind and body of a patient to be in a relaxed state to improve the sleep quality by means of physicochemical modes, such as low-frequency vibration, physical massage, administration of a drug for soothing nerves and assisting sleep, administration of electromagnetic stimulation to the head of the patient, oxygen administration, or music playing.

Among the above-mentioned prior art scheme, often only improve to the small part of mechanical structure or treatment methods, can not realize the intelligent control of equipment, still need with the help of a large amount of manual intervention in the use, and because the defect on the structural design, lead to its controllable dimension less, can't realize full automated control, exist and use inconvenient, treatment effect is not directly perceived, user experience is poor shortcoming.

SUMMERY OF THE UTILITY MODEL

The utility model aims at providing a sleep monitor therapeutic instrument with elevating system, fundamentally has solved above-mentioned problem, and it has advantages such as simple structure is compact, convenient to use is swift, degree of automation height.

In order to achieve the above purpose, the utility model provides a following technical scheme: this sleep monitor therapeutic instrument with elevating system includes AGV mechanism, multistage actuating mechanism, treatment head subassembly assembly, and its technical essential is:

the AGV mechanism comprises a framework structure and a rolling support structure, wherein the framework structure is a plane support piece provided with a lower embedded part, the rolling support structure comprises a plurality of independently controlled driving wheel assemblies, and the driving wheel assemblies are respectively arranged at two ends of the lower embedded part; the driving wheel assembly comprises a hub motor with a driving wheel, a hub connecting plate and a hub supporting plate which are used for limiting the hub motor and matched with each other, a guide piece limited on the hub supporting plate, a guide post guided by the guide piece, a hub connecting plate limited in the suspension supporting plate, a spring limited between the hub connecting plate and the hub supporting plate, and a shock pad limited between the hub connecting plate and the guide piece;

the multistage driving mechanism comprises sliding body assemblies which are sleeved from outside to inside in sequence and can slide linearly relatively, and each sliding body assembly comprises a hollow sliding body, a linear driving mechanism limited in the sliding body, a pair of sliding rails extending in the same direction as the sliding body and a plurality of sliding blocks matched with the sliding rails; the adjacent inner sliding body and the outer sliding body are limited by the relative sliding of the sliding block and the sliding rail;

the treatment head assembly comprises a framework structure and an extension component which linearly moves along the plane where the framework structure is located, wherein the extension component comprises a slide rail, a linear driving mechanism matched with the slide rail, a telescopic rod limited on the slide rail in a sliding manner, and a radiation component limited at the tail end of the telescopic rod; the radiation assembly comprises a disc fastener fixed on a corresponding supporting plate, a bowl-shaped fastener rotationally buckled with the disc fastener, a radiation cover containing sleep-aiding medicinal materials and limited in the bowl-shaped fastener, a reflecting cover limited by a support, a support mounting plate used for limiting the support, a rubber head limited at the front end of the bowl-shaped fastener, and an infrared photoelectric sensor limited in the rubber head.

The utility model has the advantages that: on the whole structure, the AGV mechanism with the active evacuation obstacle avoidance function is used as a driving base to drive the whole XY plane of the device to rotate in a translation mode at will. After the AGV moves to the position of a user, the vertical distance of the treatment head assembly on the Z axis is adjusted through the two-stage lifting driving mechanism. Meanwhile, the lifting driving mechanism is also provided with a therapeutic head angle adjusting component, and the rotating angle of the therapeutic head can be adjusted around the Z axis under the driving of the stepping motor, so that the aim of completely adapting to various therapeutic modes is fulfilled.

To accommodate the device with multiple treatment modes, the AGV mechanism should be able to travel to the seat and bed bottom. This places demands on the structure of the AGV. Structurally, the AGV mechanism adopts a suspension driving system, a concave structure is arranged in the middle of a chassis of the vehicle, the trolley adopts a metal plate embedded suspension structure, the uniform height of universal wheels and driving wheels is realized by using a simple structure under the condition of reducing the overall height as much as possible, and the simplified structure enables the frame and the shock absorption suspension to be integrated. The driving wheel assembly with the spring structure is hung on the chassis through the hanging support plate, so that the stability of the AGV mechanism in the operation process is improved, and the AGV mechanism has the characteristics of simple structure, reduced equipment height, high standardization degree, low manufacturing cost and the like. Meanwhile, the overall height is effectively reduced, and the obstacle crossing capability is improved. The AGV mechanism adopts two sets of independent suspension type driving wheel assemblies, and realizes steering, moving and the like in an XY plane under the coordination of universal auxiliary wheels of a chassis. For making equipment move to below the table chair under the seat treatment mode, the AGV dolly adopts the embedded suspended structure of panel beating, uses succinct structure to realize the height of unified supplementary (universal) wheel with the drive wheel under the condition that reduces overall height as far as possible, under the prerequisite of guaranteeing compression height, integrates spring mechanism in the drive wheel structure, makes the structure after simplifying make frame and shock attenuation hang and combine into an organic whole. Furthermore, the obstacle avoidance module on the front shell is matched, and autonomous movement is effectively achieved in a specific site environment. The AGV mechanism is provided with a rechargeable power supply, so that the AGV mechanism can be used in a wireless state. The automatic return charging is realized by adding the automatic path searching function. To sum up, AGV mechanism has simple structure, reduces equipment height, standardization level height, low in manufacturing cost's characteristics such as.

Multistage lift actuating mechanism adopts two-stage lift actuating mechanism, regards the vehicle bottom dish of AGV mechanism as the base, sets up a pair of side column as foundation structure perpendicularly on the base, realizes multistage lift through the mode of "interior drive", reduces area as far as possible when equipment standby state, saves space. The electric push rod as a linear driving mechanism has smaller size, can realize multi-stage large-stroke transmission, can realize high-precision stepless extension under a coating shell and the like, and can realize simultaneous extension of multiple sections or extension in relay.

In particular structure, the utility model discloses can realize multistage push rod and stretch out and draw back wantonly, make little stroke electric putter mechanism realize multistage big stroke transmission, can realize that the high accuracy under cladding shell etc. is flexible, can realize that the multisection is flexible simultaneously or the relay is flexible. The structure has the characteristics of no interference of a plurality of sections of cladding independent shells, saving of the occupied area after retraction, high transmission precision, high transmission efficiency, low noise and the like. A first-stage sliding body driven by a first-stage electric push rod to lift is arranged in the side column, a second-stage electric push rod and a second-stage sliding body similar to an L shape are continuously arranged in the first-stage sliding body, and finally, the multi-stage push rod can stretch out and draw back freely. The lower half section (vertical section) of the L-like secondary sliding body is used as a lifting part, and an adjusting mechanism which can be used for driving the treatment head assembly to integrally translate along the +/-X direction and rotate around the Z axis is further arranged in the upper half section (horizontal section), so that the multi-dimensional adjustment of the position of the treatment head assembly is realized.

The treatment head assembly is provided with a middle treatment head and a plurality of lateral treatment heads, wherein the middle treatment head can linearly move along the +/-X direction under the driving of the three-stage assembly, and each lateral treatment head assembly can also linearly move through a slide rail, an electric push rod, a telescopic rod and a slide block, wherein the slide rail is positioned in the top shell and the bottom shell of the central part, the slide rail is positioned in the output end of the electric push rod, and the slide block is positioned at the bottom of the telescopic rod and is matched with the slide rail. For example, when the treatment head assembly is in the position shown in fig. 1, the lateral treatment heads can be moved linearly in the + -X-direction and the + -Y-direction to adjust the position of the lateral treatment heads relative to the central treatment head. When the treatment head angle adjusting component shown in figure 9 is matched, the treatment head component assembly can freely rotate around the Z axis. Radiation component adopts the rotatory lock structure on bowl form fastener and chassis, makes things convenient for even change of medicinal material, convenient to use safety.

The whole machine completes function setting and parameter setting by a 7-inch touch screen and a human-computer interaction interface, and completes automatic operation. The full-logic electric control is realized through various sensors and electric mechanisms, and various modes of actions are guided and completed. Furthermore, the whole device can be integrated with a millimeter wave radar system at multiple positions, so that the heartbeat, the respiration and the micro-motion of the human body can be monitored in real time, and the sleep condition can be evaluated after treatment. Through real-time monitoring patient information of falling asleep, the sleep monitoring therapeutic apparatus can realize the functions of automatically stopping sleep-assisting music, adjusting awakening time, intelligently converting a therapy mode, actively withdrawing after completing therapy and the like.

To sum up, the utility model discloses can realize the free multidimension degree control such as going up and down and rotation of treatment head, realize the holistic autonomy of device and seek way and playback function, cooperate corresponding control software to realize helping the full automation of dormancy function.

Drawings

Fig. 1 is the isometric side view structure schematic diagram of the sleep monitoring therapeutic apparatus with the lifting mechanism of the utility model.

Fig. 2 is the isometric side view structure schematic diagram of the AGV mechanism of the present invention.

Fig. 3 is a schematic diagram of the exploded structure of fig. 2.

Fig. 4 is an exploded view of the drive wheel assembly of fig. 3.

Fig. 5 is an isometric side view schematic structural view of the lift driving mechanism of the present invention.

Fig. 6 is an explosion structure schematic diagram I of the lifting driving mechanism of the present invention.

Fig. 7 is an explosion structure diagram II of the lifting driving mechanism of the present invention.

Fig. 8 is an explosion structure diagram III of the lifting driving mechanism of the present invention.

Fig. 9 is a partially enlarged structural view of a portion a in fig. 8.

Fig. 10 is a schematic isometric view of the treatment head assembly of the present invention.

Fig. 11 is an exploded view of the treatment head assembly of the present invention.

Fig. 12 is a partially enlarged structural view of a portion B in fig. 11.

Fig. 13 is an exploded schematic view I of the radiation module of the present invention.

Fig. 14 is an exploded schematic view II of the radiation module of the present invention.

Fig. 15 is a reference diagram of the use state of the sleep monitoring therapeutic apparatus of the present invention in a sitting position.

Fig. 16 is a reference diagram of the use state of the sleep monitoring therapeutic apparatus in the horizontal position.

Description of reference numerals: 1, an AGV mechanism, an 11-vehicle chassis, a 12-bracket assembly, 121 support legs, 122 heat dissipation holes, 123 support leg reinforcing ribs, 124 suspension support plates, 13 driving wheel assemblies, 131 hub motors, 132 hub connecting plates, 133 hub support plates, 134 hub pressing plates, 135 springs, 136 guide posts, 137 guide pieces, 138 shock pads, 14 auxiliary wheel assemblies, 15 drivers and 16 power supplies; 2 treatment head assembly, 21 central treatment head, 211 central top shell, 212 central bottom shell, 213 central support plate, 214 central engaging shell, 215 central radiation component, 22 lateral treatment head, 221 lateral electric push rod, 222 lateral slide rail, 223 lateral slide block, 224 lateral telescopic rod, 225 lateral outer cover, 226 lateral inner cover, 227 lateral radiation component, 23 radiation component, 231 rubber head, 232 infrared photoelectric sensor, 233 bowl-shaped fastener, 234 disk fastener, 235 radiation cover, 236 bracket, 237 reflector, 238 bracket mounting disk; 3, a controller component, a 31 touch display, 32 control buttons (a power button, a reset button and an emergency stop button), 33 an electrical appliance component and 34 an obstacle avoidance component; 4 lifting driving mechanism, 41 primary component, 411 primary lifting front shell, 412 primary lifting rear shell, 413 primary sliding rail, 414 primary sliding block, 415 primary sliding body, 416 primary electric push rod, 417 side column, 4171 side column foot, 418 stud, 42 secondary component, 421 secondary lifting front shell, 422 secondary lifting rear shell, 423 secondary sliding rail, 424 secondary sliding block, 425 secondary sliding body lower half section, 426 secondary electric push rod, 43 tertiary component, 431 tertiary upper shell, 432 tertiary lower shell, 433 tertiary sliding rail, 434 tertiary sliding block, 435 secondary sliding body upper half section, 436 tertiary electric push rod, 437 loudspeaker, 438 therapeutic head angle adjusting component, 4381 stepping motor, 4382 driving bevel gear, 4383 driven bevel gear, 4384 transmission shaft, 4385 transmission bearing component, 4386 plectrum, 4387 microswitch, 4388 notch photoelectric switch, 439 therapeutic head assembly support plate, 4391 step motor support part and 44 positioning plate.

Detailed Description

The present invention will be described in detail below with reference to the accompanying drawings by way of specific embodiments. As shown in fig. 1, the sleep monitor therapeutic apparatus includes an AGV mechanism 1, a therapeutic head assembly 2, a controller assembly 3, and a lifting driving mechanism 4.

Example 1 AGV mechanism

The following description is directed to the detailed structure of an AGV mechanism by way of example with a pair of drive wheel assemblies. As shown in fig. 2 to 3, the AGV mechanism 1 includes a chassis 11, a driving wheel assembly 13, a plurality of auxiliary wheel assemblies 14, a driver 15 for controlling the driving wheel assembly 13, and a power supply 16 retained on the chassis 11 by a battery stopper (not shown), and the driver 15 is attached to the side of the power supply 16 for making the structure more compact. The support assembly 12 is fixed on the chassis 11 through the support leg 121, and the support leg 121 is provided with a support leg reinforcing rib 123. The middle part of the chassis 11 is of a lower embedding part structure and is mainly matched with a limit driving wheel assembly 13 to realize a hanging function. Specifically, as shown in fig. 4, the driving wheel assembly 13 includes an in-wheel motor 131 with a driving wheel (not numbered), a hub connection plate 132 and a hub support plate 133 for limiting the in-wheel motor 131, which are engaged with each other, a guide member 137 limited on the hub support plate 133, a guide post 136 guided by the guide member 137, the hub connection plate 132 limited in the suspension support plate 124, a spring 135 limited between the hub connection plate 132 and the hub support plate 133, and a cushion 138 limited between the hub connection plate 132 and the guide member 137. The two sides of the lower embedded part are inwards sunken to reserve an installation space for the driving wheel assembly, a suspension support plate 124 is correspondingly arranged on each outer side of the lower embedded part, and the driving wheel assembly 13 is suspended on the suspension support plate 124 through a hub connecting plate 132. When a pair of driving wheel assemblies 13 is arranged, the driving wheel assemblies are usually arranged in a 'middle driving' mode of a vehicle chassis to output forward or backward power, and the sideslip phenomenon caused by forward driving or backward driving is avoided.

In order to be used as a movable base of the multi-stage driving mechanism, the center of the multi-stage driving mechanism is positioned at one side of the chassis 11, and the overturning is avoided in the running process of the AGV mechanism, therefore, a pair of bottom feet (not marked by figures) are respectively arranged at the front side and the rear side of the chassis, and a pair of universal auxiliary wheel assemblies 14 are further respectively arranged at the front side and the rear side of the chassis for improving the running smoothness. The lower support surface of footing is a little higher than the driving surface of auxiliary wheel subassembly 14, and drive wheel subassembly 13 has adopted suspension type structure, and cooperation footing and auxiliary wheel subassembly 14 can effectively cross pothole road surface. When the lower support surface of the footing is used as the driving wheel to elastically contract, the lowest line of the chassis can be lowered, and the applicable road surface depression degree can be artificially limited in the production process. The footing is fixed in the bottom of the chassis through the bolt assembly and can be freely replaced according to the spring damping amplitude of the driving wheel assembly, so that the optimal damping effect is achieved. When the driving wheel assembly on one side sinks into the deep-pit pavement, the auxiliary wheel assembly 14 serves as a rolling support to reduce the running resistance, the footing support is placed on the horizontal plane to further sink, and the driving wheel assembly 13 can easily drive away under the drive of the driving machine, so that overturning is avoided.

Of course, under the design concept of the present invention, a person skilled in the art can also increase the number of the driving wheel assemblies 13 appropriately, and change the positions of the bottom feet and the auxiliary wheel assemblies 14 adaptively, for example, two pairs of driving wheel assemblies are provided, the bottom feet are reduced to one pair and are provided between the two pairs of driving wheel assemblies, and the auxiliary wheel assemblies are still provided outside the two pairs of driving wheel assemblies respectively, which is not shown.

EXAMPLE 2 Multi-stage drive mechanism

Due to the structural limitation of the electric push rod, the load and the stroke distance need to be matched (generally, when the load is larger, the stroke distance is shorter). When the stroke distance exceeds the maximum stroke of a commercially available electric push rod, the electric push rod lifting mechanism needs to be designed into an internal driving type multi-stage lifting mechanism with multi-electric push rod linkage, and if the lifting stage number is N, the hollow shells of the first lifting assembly to the Nth lifting assembly are sequentially arranged from bottom to top and from outside to inside. Although the inside-out arrangement can achieve a similar purpose, in general, a multistage mechanism arranged from the outside to the inside is adopted to ensure the stability of the structure. A driving device (such as an electric push rod) is respectively arranged in the hollow shell of each level of lifting assembly, and the electric push rods of the adjacent lifting assemblies are arranged in a staggered mode so as to maintain the overall balance of the device. In the step-by-step nesting process, a sliding rail and sliding block matching mode is adopted, for example, a sliding rail is arranged in the adjacent lower hollow shell, a sliding block matched with the sliding rail is arranged outside the adjacent upper hollow shell, and the lifting height is set in a mode of matching the length of the sliding rail with the stroke of the push rod. The multi-stage driving mechanism is mainly limited by the arrangement position of the electric push rod by the hollow shell of the minimum one-stage lifting assembly.

As shown in fig. 15 to 16, the multi-stage driving mechanism can realize the stop of the treatment head assembly at any position between the two extreme positions, thereby effectively improving the application range. When the device is not used, the whole mechanism is adjusted to the lowest contraction position, so that the occupied space can be saved.

EXAMPLE 3 Lift drive mechanism

This embodiment is the multistage actuating mechanism of embodiment 2 in the technical scheme of the utility model, take two-stage drive structure (one-level, second grade subassembly and one-level drive structure (tertiary subassembly) in the X direction) in the Y direction as an example to explain, as shown in fig. 5~9, lift actuating mechanism 4 includes one-level subassembly 41, second grade subassembly 42 and tertiary subassembly 43 that set gradually, wherein, one-level lift front shell 411 and one-level lift back shell 412 cooperate and assemble on one-level slider 415, the stiff end of one-level electric putter 416 hinges the limit on vehicle chassis 11, the free end is spacing at the inside top of one-level slider 415, be equipped with double-screw bolt 418 between the inside of top of one-level slider 415 and the middle part, side column 417 sets up on vehicle chassis 11 through its side column 417 stabilizer 121, the inside of side column 417 is equipped with a pair of one-level slide rail 413, the outside of one-level slider 415 is equipped with a plurality of one-level slide rail 413 linear sliding fit's one-level slider 414, between the side column 417 Set up a plurality of locating plates 44 along direction of height interval, prevent because the structure skew that leads to when slide rail or side post longitudinal dimension are great, and influence the smooth nature of slider in the slide rail in-process, and then guarantee the holistic stability of lift actuating mechanism 4.

The casing 421 and the second grade lift back shell 422 cooperation assembly are on second grade sliding body lower half section 425 before the second grade goes up and down, and the stiff end of second grade electric putter 426 articulates the bottom of spacing in the inboard of one-level sliding body 415, and the active end is spacing at the inboard top of second grade sliding body lower half section 425, and one-level sliding body 415 inboard is equipped with second grade slide rail 423, and the second grade sliding body lower half section 425 outside is equipped with a plurality of and the linear sliding fit's of second grade slide rail 423 second grade slider 424. The whole second-stage welding part is of an L-shaped structure with a chamfer, and the lower half section 425 of the second-stage welding part is limited in the first-stage welding part 415 in a sliding manner through a second-stage sliding rail 423 and a second-stage sliding block 424.

The three-level assembly 43 is fixed in an upper half 435 of a second-level sliding body through a three-level upper shell 431 and a three-level lower shell 432 which are matched with each other, a pair of three-level sliding rails 433 is fixed in the upper half 435 of the second-level sliding body, a three-level electric push rod 436 is limited in the upper shell 431 or the lower shell 432, the fixed end of the three-level electric push rod 436 is hinged in the upper shell 431 or the lower shell 432, the movable end of the three-level electric push rod 436 is hinged on a treatment head assembly supporting plate 439 (in fig. 9, the fixed end is shielded by a stepping motor 4381, and the movable end is still visible), a plurality of three-level sliding blocks 434 matched with the three-level sliding rails 433 are arranged at the bottom of the treatment head assembly supporting plate 439, and a treatment head angle adjusting assembly 438 is arranged on the treatment head assembly supporting plate 439. In order to match the movement of the treatment head assembly 2 along the direction of +/-X, a strip-shaped movable groove (not shown in the figure) is arranged on the third-stage lower shell 432 and the second-stage sliding body upper half section 435, and a loudspeaker 437 is further arranged in the second-stage sliding body upper half section 435 for facilitating real-time feedback of a control result.

The therapeutic head angle adjustment assembly 438 comprises a stepping motor 4381 limited by a stepping motor support 4391, a driving bevel gear 4382 arranged at the output end of the stepping motor 4381, a transmission bearing assembly 4385 arranged on the therapeutic head assembly support plate 439, a transmission shaft 4384 limited in the transmission bearing assembly 4385 (for example, mainly comprising a bearing seat with a T-shaped section and a transmission bearing limited in the bearing seat), a driven bevel gear 4383 arranged on the transmission shaft 4384 and engaged with the driving bevel gear 4382, a shifting sheet 4386 arranged on the transmission shaft 4384, a plurality of micro switches 4387 and a notch photoelectric switch 4388 arranged on the therapeutic head assembly support plate 435 and matched with the shifting sheet 4386. Therefore, when the stepping motor 4381 acts, the on-off of a corresponding control mechanism switch is generated by matching with the shifting sheet 4386, and the intelligent control with different functions is realized.

The number and arrangement positions of the notch photoelectric switches 4388 and the micro switches 4387 in the above example are only examples, and when multi-dimensional control is required, more control switches can be arranged along the transmission shaft 4384 to realize corresponding functions.

EXAMPLE 3 treatment head Assembly

As shown in FIGS. 10-12, the treatment head assembly 2 includes a central treatment head 21 and a plurality of lateral treatment heads 22, and the embodiment is described by taking three lateral treatment heads 22 as an example.

The central treatment head 21 comprises a central top shell 211 and a central bottom shell 212 which are matched with each other, a central supporting plate 213 is fixed in the central top shell 211, the central treatment head 21 is fixed with a transmission shaft 4384 by arranging the central supporting plate 213, a central connecting shell 214 is arranged at the bottom of the central bottom shell 212, and a central radiation component 215 is arranged on the central connecting shell 214.

The lateral therapeutic head 22 comprises a lateral outer cover 225 and a lateral inner cover 226 which are matched with each other, a lateral telescopic rod 224 fixed on the lateral outer cover 225 and the lateral inner cover 226, a plurality of lateral sliding blocks 223 fixed at the bottom of the lateral telescopic rod 224, a lateral sliding rail 222 fixed in the central bottom shell 212 and matched with the lateral sliding blocks 223, a lateral electric push rod 221 fixed in the lateral electric push rod 221 and used for driving the lateral telescopic rod 224, and a lateral radiation assembly 227 arranged at the inner side of the lateral inner cover 226.

As shown in fig. 13 to 14, the central radiation element 215 and the side radiation elements 228 may have the same structure, for example, the radiation element 23 may include a disk fastener 234 fixed on the corresponding support plate, a bowl-shaped fastener 233 rotatably fastened with the disk fastener 234, a radiation cover 235 limited in the bowl-shaped fastener 233 and containing sleep-aiding herbs, a reflection cover 237 limited by a bracket 236, a bracket mounting plate 238 for limiting the bracket 236, a rubber head 231 limited at the front end of the bowl-shaped fastener 233, and an infrared photoelectric sensor 232 limited in the rubber head 231. Through setting bowl form fastener 233 and disc fastener 234 to "spinner" structure, make things convenient for the medicinal material in the quick replacement radiation shield 235. Meanwhile, a keel structure is arranged in the bowl-shaped fastener 233, so that structural rigidity is effectively improved.

Example 4 operating principle

Taking four therapeutic heads as an example for illustration, the sleep monitor therapeutic apparatus is used with a bed frame, and the height of the therapeutic head assembly 2 is adjusted by the lifting driving mechanism 4, so that the face of the user just faces the central therapeutic head 21 and keeps a certain distance when the user lies on the bed frame. The drug composition is slowly dispersed around the user's head by radiation assembly 215 within the treatment head. When the user sleeps, the head may deviate slightly, and the distance between each therapy head and the head of the user is monitored in real time by matching with the infrared photoelectric sensor 232 in each therapy head, and the relative distance between the therapy head and the head of the user is adjusted in real time by matching with the corresponding side electric push rod 221, the side slide rail 222, the side slide block 223 and the side telescopic rod 224. Human body data are identified through the sleep monitoring system, and if a user falls asleep, the AGV mechanism 1 drives the sleep monitoring therapeutic apparatus to automatically drive away integrally. Meanwhile, in order to avoid touching people or other objects in the driving-away process, the back of the vehicle is also provided with an obstacle avoidance assembly 34, such as a sonar obstacle avoidance sensor.

Example 5

As shown in fig. 15 to 16, the whole device can be used in cooperation with a bed or a seat, a human body position signal is acquired in real time through the infrared photoelectric sensor 232, the therapeutic head assembly 4 is driven by the lifting driving device 4 to realize rhythmic fluctuation along with the vibration bed, and the device is matched with sleep-assisting music to simulate soft 'sea waves' and other white noises from nature to achieve the purpose of relaxing people.

For convenience of explanation, the virtual XYZ coordinate system is established in the drawings, and each coordinate axis is only used to indicate a relative position of the corresponding component when the component moves, and is not limited.

The fixed end of the linear drive mechanism or the electric push rod mentioned herein is not meant to be completely fixed, and the fixed end is generally assembled in a manner of being hinged with the corresponding component, and a small range of swing is possible under the action of fit error between the components, and the fixation is named only relative to the large-amplitude movement of the movable end.

The term "the stepping motor drives the other support plate to rotate through the direction changing component engaged with the output end of the stepping motor" mainly refers to the "direction changing" in which the driving bevel gear 4382 provided at the output end of the stepping motor 4381 drives the driven bevel gear 4383 engaged with the stepping motor 4381 to convert the horizontal axis torque into the vertical axis torque.

For the whole machine shell with a decorative function, the adaptability adjustment is required according to the actual production, the fractal mode is not unique, and the purposes of protecting the internal structure and facilitating the assembly can be achieved. The arrangement mode of the device has little influence on the actual internal structure of the whole machine, so the description is not carried out.

For convenience of description, the connecting or supporting structures such as bolts, nuts, angle irons, etc. in the drawings are omitted, and those skilled in the art should know that the above-mentioned components are necessarily used in actual production to realize the connection and fixation of the components. The connection mode of the bolt and the nut is only one of the conventional technical means for matching parts in the field.

Claims (1)

1. The utility model provides a sleep monitor therapeutic instrument with elevating system, includes AGV mechanism, multistage actuating mechanism, treatment head subassembly assembly, its characterized in that:

the AGV mechanism comprises a framework structure and a rolling support structure, wherein the framework structure is a plane support piece provided with a lower embedded part, the rolling support structure comprises a plurality of independently controlled driving wheel assemblies, and the driving wheel assemblies are respectively arranged at two ends of the lower embedded part; the driving wheel assembly comprises a hub motor with a driving wheel, a hub connecting plate and a hub supporting plate which are used for limiting the hub motor and matched with each other, a guide piece limited on the hub supporting plate, a guide post guided by the guide piece, a hub connecting plate limited in the suspension supporting plate, a spring limited between the hub connecting plate and the hub supporting plate, and a shock pad limited between the hub connecting plate and the guide piece;

the multistage driving mechanism comprises sliding body assemblies which are sleeved from outside to inside in sequence and can slide linearly relatively, and each sliding body assembly comprises a hollow sliding body, a linear driving mechanism limited in the sliding body, a pair of sliding rails extending in the same direction as the sliding body and a plurality of sliding blocks matched with the sliding rails; the adjacent inner sliding body and the outer sliding body are limited by the relative sliding of the sliding block and the sliding rail;

the treatment head assembly comprises a framework structure and an extension component which linearly moves along the plane where the framework structure is located, wherein the extension component comprises a slide rail, a linear driving mechanism matched with the slide rail, a telescopic rod limited on the slide rail in a sliding manner, and a radiation component limited at the tail end of the telescopic rod; the radiation assembly comprises a disc fastener fixed on a corresponding supporting plate, a bowl-shaped fastener rotationally buckled with the disc fastener, a radiation cover containing sleep-aiding medicinal materials and limited in the bowl-shaped fastener, a reflecting cover limited by a support, a support mounting plate used for limiting the support, a rubber head limited at the front end of the bowl-shaped fastener, and an infrared photoelectric sensor limited in the rubber head.

Images