Obstetric emergency operation mother and baby synchronous warming composite nursing support device

Abstract

The application discloses a kind of obstetric emergency operation mother-infant synchronous warm-keeping composite nursing support device, belong to medical support technical field, including two symmetrical settings subassembly, each component includes support table, support leg and baffle, support leg is fixedly connected to the lower side of support table, is set with containing groove on support table, baffle is fixedly connected to containing groove edge;Heat preservation bearing layer component is arranged between two groups of baffle;Arc spring is fixedly connected between two groups of support leg;Online and offline combination intelligent diagnosis and treatment ecological system includes a plurality of temperature detection pieces.The application has the advantages of symmetrical split support, arc spring elastic self-adaption, multi-point temperature measurement, online and offline intelligent diagnosis and treatment ecological system, solves the problem of no independent temperature control logic, no elastic self-adaptive accommodation structure and no systematic data diagnosis and treatment link in the prior art, which cannot meet the three major needs of surgical position adaptation, mother-infant synchronous warm-keeping and load buffering protection.

Description

Technical Field

[0001] This invention belongs to the field of medical stent technology, and in particular relates to a composite nursing stent device for simultaneous warming of mother and baby during obstetric emergency surgery. Background Technology

[0002] In obstetric emergency cesarean section and emergency delivery scenarios, the surgical wound area is large and the mother's body surface dissipates heat quickly; the newborn's thermoregulation function is not yet fully developed, and hypothermia can easily occur rapidly, inducing complications such as intraoperative shivering, coagulation disorders, postoperative incision infection, neonatal sclerema, and respiratory distress in the mother. These are key issues that need to be addressed in obstetric emergency nursing.

[0003] Current routine clinical nursing care relies on simple covering with blankets using ordinary support frames for warmth, which has the following drawbacks: First, the conventional support frame is a fixed, one-piece structure, making it impossible to flexibly adjust the spacing between the two support bodies. This makes it difficult to adapt to the placement needs of mothers of different body types. If placed too narrowly, it can easily compress the mother's body and surgical wound; if placed too wide, the warm coverage area is dispersed, leading to rapid heat loss. Second, there is a lack of a layered support structure for mother and newborn. When the mother and newborn are placed one above the other, it is impossible to achieve synchronized warming in different areas. Stacking a single blanket results in uneven heat distribution and poor insulation. Third, there is a lack of a dedicated temperature monitoring and integrated intelligent control system. Medical staff rely entirely on manual touch to judge body temperature and adjust blankets based on experience. This method is highly subjective, has delayed feedback, and is prone to insufficient warmth or localized overheating. Fourth, there is a lack of an elastic cushioning support structure. The load generated after the newborn is placed directly and rigidly acts on the mother's body surface, easily compressing the wound and resulting in poor comfort and surgical safety.

[0004] There is a lack of obstetric nursing stents on the market that feature symmetrical split support, elastic adaptive curved springs, multi-point temperature measurement, and an integrated online and offline intelligent diagnosis and treatment ecosystem. Conventional stents lack independent temperature control logic, elastic adaptive clearance structures, and systematic data diagnosis and treatment links, and cannot simultaneously meet the three major requirements of surgical positioning adaptation, simultaneous mother-infant temperature maintenance, and load buffering protection. Summary of the Invention

[0005] To address the problems of existing technologies, this invention provides a composite nursing support device for simultaneous warming of mother and baby during obstetric emergency surgery. It has the advantages of symmetrical split support, elastic adaptive arc-shaped spring sheet, multi-point temperature measurement, and integration with an online and offline intelligent diagnosis and treatment ecosystem. It solves the problems of existing technologies that lack autonomous temperature control logic, elastic adaptive yielding structure, and systematic data diagnosis and treatment link, and cannot meet the three major requirements of surgical position adaptation, simultaneous warming of mother and baby, and load buffer protection.

[0006] This invention is implemented as follows: a maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery, comprising: two symmetrically arranged sub-components, each component including a support platform, legs, and baffles, wherein the legs are fixedly connected to the lower side of the support platform, the support platform has a receiving groove, and the baffles are fixedly connected to the edge of the receiving groove; a heat-insulating load-bearing layer component is disposed between the two sets of baffles; an arc-shaped spring sheet is fixedly connected between the two sets of legs; and an intelligent diagnosis and treatment ecosystem combining online and offline methods, including several temperature detection devices, wherein the temperature detection devices are respectively disposed on the lower surface of the support platform and the inner surface of the legs, and the temperature detection devices are signal-connected to the heat-insulating detection devices.

[0007] Preferably, the baffle has a strip-shaped hole, and the thermal insulation load-bearing layer assembly is connected to the strip-shaped hole. A through-hole is formed in the baffle body, and the thermal insulation load-bearing layer assembly passes through the strip-shaped hole to complete a suspended assembly.

[0008] In a preferred embodiment of the present invention, the thermal insulation bearing layer assembly includes a heater, a thermal insulation layer, a fixing pipe, and a take-up roller; the thermal insulation layer is disposed in the strip-shaped hole, located above the receiving groove, and has a cavity; the fixing pipe is fixedly connected to one side of the thermal insulation layer and communicates with the cavity; the heater is connected to the fixing pipe and its signal is connected to an online and offline integrated intelligent diagnosis and treatment ecosystem; the take-up roller is wound up on the other side of the thermal insulation layer, and the take-up roller is connected to the support platform by screws.

[0009] In a preferred embodiment of the present invention, the side of the support platform is provided with a screw hole, a screw rod is threaded into the screw hole, the upper end of the screw rod is provided with a slot, and the bottom end of the screw rod is pressed against the arc-shaped spring piece; a motor is fixedly connected to the support platform, the motor signal is connected to the online and offline integrated intelligent diagnosis and treatment ecosystem, and a plug is fixedly connected to the output end of the motor, the plug being slidably inserted into the slot.

[0010] As a preferred embodiment of the present invention, it further includes a base plate, wherein the base plate is provided with a sliding groove, and the support leg is slidably connected to the sliding groove.

[0011] As a preferred embodiment of the present invention, the support leg is fixedly connected to a support rod, and the ends of both baffles are provided with a protective layer.

[0012] As a preferred embodiment of the present invention, the intelligent diagnosis and treatment ecosystem combining online and offline methods is equipped with a hierarchical temperature control scheduling sub-module. The hierarchical temperature control scheduling sub-module is configured with independent temperature control logic for maternal temperature measurement and newborn temperature measurement and control logic. Based on the temperature data of different points transmitted back by the temperature detection device, temperature adjustment commands are issued independently to realize differentiated temperature control for mothers and infants in different zones.

[0013] As a preferred embodiment of the present invention, the intelligent diagnosis and treatment ecosystem combining online and offline services is provided with a spacing linkage temperature control algorithm submodule, which binds the motor operating parameters and the heater temperature control parameters; when the algorithm determines the spacing of the motor adjustment components, it synchronously adjusts the output temperature of the heater, and if the spacing is reduced, the heat preservation temperature is increased, and if the spacing is increased, the heat preservation temperature is decreased.

[0014] As a preferred embodiment of the present invention, the intelligent diagnosis and treatment ecosystem combining online and offline methods is provided with a cloud-based historical data fitting submodule. The cloud-based historical data fitting submodule retrieves the temperature-spacing adaptation dataset of previous similar obstetric emergency surgeries, and uses the dataset to pre-correct real-time control parameters to optimize the response lead of motors and heaters.

[0015] As a preferred embodiment of the present invention, the intelligent diagnosis and treatment ecosystem combining online and offline methods is equipped with an offline emergency operation submodule. When the online cloud link is disconnected, the offline emergency operation submodule retrieves the locally stored body temperature threshold database and independently completes the fully automatic control of temperature acquisition, motor and heater, ensuring that the device can carry out heating operations normally in the event of a network outage.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0017] 1. This invention employs a basic structure consisting of two sets of symmetrical sub-components and arc-shaped spring plates. After the newborn is placed, passive elastic support is achieved through load. Combined with an intelligent diagnostic and treatment ecosystem, a drive motor can actively adjust the spacing of the support to accommodate mothers of different body types. No manual disassembly or repositioning by medical personnel is required; the response is rapid, perfectly suited to the time-sensitive and high-risk scenarios of obstetric emergency surgeries, reducing mechanical interference with surgical procedures.

[0018] 2. Based on pure software sub-modules, differentiated and coordinated control of mother and baby is achieved, improving temperature control accuracy and reducing the risk of hypothermia complications in mother and baby. The original temperature detection device, heater, and motor hardware are reused. Through graded temperature control, spacing-temperature control linkage, and historical data fitting algorithms, differentiated temperature control for mothers and newborns is achieved. The heating output is adjusted synchronously when the spacing of the support changes. The traditional manual experience adjustment is transformed into automatic prediction and control by the system, reducing temperature lag deviation, stabilizing the appropriate body temperature of mother and baby during the operation, and reducing the probability of complications such as chills, coagulation abnormalities in mothers and hypothermia in newborns.

[0019] 3. Dual online and offline operation modes enhance the equipment's fault tolerance and clinical applicability. The intelligent diagnosis and treatment ecosystem combines cloud data archiving, remote viewing, and offline emergency operation capabilities. When the network is normal, nursing data can be stored for clinical review. When the operating room network is abnormally disconnected, it can switch to local offline mode to continue performing all functions such as temperature measurement, temperature adjustment, and distance adjustment, without causing equipment failure due to cloud link failure. The entire improvement only adds a software algorithm module without adding any physical hardware. Equipment disinfection and maintenance follow the original procedures, making it easy to promote and use in operating rooms. Attached Figure Description

[0020] Figure 1 This is a first-view structural schematic diagram of the maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery provided in an embodiment of the present invention;

[0021] Figure 2 This is provided by the embodiments of the present invention. Figure 1 A magnified structural diagram of part A in the middle;

[0022] Figure 3 This is provided by the embodiments of the present invention. Figure 1 A magnified structural diagram of part B in the middle section;

[0023] Figure 4 This is a second-view structural schematic diagram of the maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery provided in an embodiment of the present invention;

[0024] Figure 5 This is a control block diagram of an intelligent diagnosis and treatment ecosystem that combines online and offline services, provided in an embodiment of the present invention.

[0025] Figure 6 This is a third-view structural schematic diagram of the maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery provided in an embodiment of the present invention;

[0026] Figure 7 This is provided by the embodiments of the present invention. Figure 6 A magnified structural diagram of section C;

[0027] Figure 8 This is a block diagram of an intelligent diagnosis and treatment ecosystem that combines online and offline services, provided in an embodiment of the present invention.

[0028] In the diagram: 1. Support platform; 2. Support leg; 3. Baffle; 4. Receiving groove; 5. Arc-shaped spring; 6. Temperature detection component; 7. Strip hole; 8. Heater; 9. Insulation layer; 10. Fixing pipe; 11. Winding roller; 12. Screw hole; 13. Screw; 14. Slot; 15. Motor; 16. Insert rod; 17. Base plate; 18. Slide groove; 19. Support rod; 20. Protective layer; 21. Graded temperature control scheduling submodule; 22. Spacing linkage temperature control algorithm submodule; 23. Cloud historical data fitting submodule; 24. Offline emergency operation submodule. Detailed Implementation

[0029] To further understand the invention's content, features, and effects, the following embodiments are provided, and detailed descriptions are given in conjunction with the accompanying drawings.

[0030] The structure of the present invention will now be described in detail with reference to the accompanying drawings.

[0031] like Figures 1 to 8 As shown in the embodiment of the present invention, a maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery includes two symmetrically arranged sub-components. Each component includes a support platform 1, a support leg 2, and a baffle 3. The support leg 2 is fixedly connected to the lower side of the support platform 1. The support platform 1 has a receiving groove 4, and the baffle 3 is fixedly connected to the edge of the receiving groove 4. A heat-insulating load-bearing layer component is disposed between the two sets of baffles 3. An arc-shaped spring piece 5 is fixedly connected between the two sets of support legs 2. An intelligent diagnosis and treatment ecosystem combining online and offline methods includes several temperature detection elements 6. The temperature detection elements 6 are respectively disposed on the lower surface of the support platform 1 and the inner surface of the support leg 2. The temperature detection elements 6 are signal-connected to the heat-insulating detection elements.

[0032] The main body consists of two sets of independent, symmetrically arranged sub-components. Each sub-component includes a support platform 1, vertical legs 2, and baffles 3. The legs 2 are fixed to the bottom surface of the support platform 1, and the support platform 1 has a receiving groove 4. The baffles 3 are located at the edge of the receiving groove 4 to form a enclosure and limiting structure. An arc-shaped spring sheet 5 is installed between the legs 2 of the two sub-components, which enables the two sub-components to move closer together and separate elastically. An insulation and bearing layer component is installed between the two baffles 3 as a common support and insulation substrate for mother and baby. Temperature detection components 6 are installed at two points: the lower surface of the support platform 1 and the inner surface of the legs 2. All temperature detection components 6 are connected to the insulation detection components, and finally connected to an intelligent diagnosis and treatment ecosystem that combines online and offline methods, forming the basic overall architecture of mechanical support, elastic self-adaptation, multi-point temperature measurement, and intelligent control.

[0033] The working principle is as follows: First, the support platform 1 and the legs 2 form a ground-supporting frame. The receiving groove 4 is used to place the thermal insulation support layer components, and the baffle 3 prevents the thermal insulation support layer from slipping laterally, ensuring the stability of the support position and protecting the newborn. Second, the arc-shaped spring piece 5 serves as an elastic connector between the two components. When subjected to inward compressive force, it bends and deforms, and the distance between the two sets of supports spontaneously decreases. When the external force is removed, it returns to its original position by its own elasticity, and the distance increases. When the newborn is placed on the thermal insulation support layer, a downward load is generated, which is transferred to the supports on both sides. The distance is automatically fine-tuned by the deformation of the arc-shaped spring piece 5, achieving the effect of elastic support. Third, temperature detection elements 6 continuously collect ambient temperature data and transmit it to the back-end intelligent diagnosis and treatment ecosystem, serving as the original judgment basis for temperature adjustment and distance adjustment of the entire device. The independent split elastic support structure of this invention is different from the traditional integrated rigid support. It pre-deploys temperature measurement points throughout the entire area and reserves hardware signal interfaces for the intelligent diagnosis and treatment ecosystem, providing a basic carrier for subsequent layered insulation and automated control, solving the fundamental problems of traditional supports lacking elastic clearance and systematic temperature measurement layout.

[0034] Specifically, the baffle 3 has a strip-shaped hole 7, and the thermal insulation load-bearing layer assembly is connected to the strip-shaped hole 7. A through strip-shaped hole 7 is formed in the baffle 3, and the thermal insulation load-bearing layer assembly passes through the strip-shaped hole 7 to complete the suspended assembly.

[0035] The thermal insulation bearing layer assembly includes a heater 8, a thermal insulation layer 9, a fixing pipe 10, and a take-up roller 11. The thermal insulation layer 9 is disposed in the strip hole 7 and located on the upper side of the receiving groove 4. The thermal insulation layer 9 has a cavity. The fixing pipe 10 is fixedly connected to one side of the thermal insulation layer 9 and communicates with the cavity. The heater 8 is connected to the fixing pipe 10 and its signal is connected to the online and offline intelligent diagnosis and treatment ecosystem. The take-up roller 11 is wound up on the other side of the thermal insulation layer 9 and is connected to the support platform 1 by screws.

[0036] This setup defines the specific components of the thermal insulation layer assembly: a heater 8, a hollow cavity insulation layer 9, a fixing pipe 10, and a winding roller 11. The insulation layer 9 is mounted above the receiving groove 4, with a hollow interior forming a hot air circulation cavity. The fixing pipe 10 connects the cavity to the heater 8 to introduce hot air. The winding roller 11 is installed on the support platform 1 for storing and unfolding the insulation layer 9. The intelligent diagnostic ecosystem uses temperature detection data 6 to start and stop the heater 8. Hot air is injected into the cavity of the insulation layer 9 through the fixing pipe 10, resulting in uniform overall heating. The winding roller 11 allows manual unfolding or retraction of the insulation layer 9 to adjust the thermal coverage area for the mother and newborn on the upper and lower sides. The hollow hot air interlayer achieves simultaneous thermal insulation for both the newborn on the upper layer and the mother on the lower layer, allowing one thermal insulation carrier to meet the thermal needs of two people.

[0037] Furthermore, the side of the support platform 1 is provided with a screw hole 12, and a screw rod 13 is threadedly connected to the screw hole 12. The upper end of the screw rod 13 is provided with a slot 14, and the bottom end of the screw rod 13 is pressed and fitted against the arc-shaped spring piece 5. A motor 15 is fixedly connected to the support platform 1. The motor 15 is signal-connected to the intelligent diagnosis and treatment ecosystem that combines online and offline services. The output end of the motor 15 is fixedly connected to a plug rod 16, and the plug rod 16 is slidably inserted into the slot 14.

[0038] The system issues commands to control motor 15 to rotate forward, and screw 13 to feed downwards, compressing the arc-shaped spring 5, forcing it to contract and bend, pulling the two side sub-components closer together, actively reducing the overall spacing. Motor 15 then rotates in reverse, screw 13 rises, the arc-shaped spring 5 releases its elasticity, and the two sets of components automatically separate, increasing the spacing. Based on the passive deformation of the arc-shaped spring 5, an active electronic adjustment capability is added, allowing it to actively change the warming area based on body temperature data, rather than relying solely on passive load adjustment. This provides stronger proactive control and better meets the rapid adjustment needs of emergency situations.

[0039] Furthermore, it also includes a base plate 17, on which a sliding groove 18 is provided, and the support leg 2 is slidably connected in the sliding groove 18. When the two components move closer or further apart, the support leg 2 slides linearly along the sliding groove 18, constraining the movement trajectory and preventing the stent from tilting or misaligning to the left or right. It provides a directional sliding path for spacing adjustment, improves the structural stability of the entire stent adjustment process, avoids support displacement and tipping, and improves the safety of surgical use.

[0040] Furthermore, the support leg 2 is fixedly connected to a support rod 19, and the ends of both baffles 3 are provided with protective layers 20. The support rod 19, extending outwards, is fixed to the outer wall of the support leg 2. The support rod 19 serves as a carrier, specifically for laying out the thermal blanket. The thermal blanket is laid on the support rod 19, with its inner side conforming to the mother's skin for auxiliary heat retention; simultaneously, the blanket isolates the heat emitted by the thermal insulation layer 9, preventing direct contact of high temperatures with the skin, thus providing a heat insulation buffer and avoiding localized burns caused by direct warm air. This design constructs a dual-layer thermal insulation system combining active hot air insulation and passive bedding insulation, while also adding a physical insulation layer to compensate for the safety drawback of overheating associated with warm air insulation.

[0041] Specifically, the aforementioned online-offline integrated intelligent medical ecosystem includes a tiered temperature control scheduling submodule 21. This submodule 21 is configured with independent temperature control logic for maternal and neonatal temperature measurement. Based on temperature data from different locations transmitted by temperature sensors 6, it independently issues temperature adjustment commands to achieve differentiated temperature control for mothers and infants in different zones. This software submodule is added within the existing intelligent medical ecosystem without altering any external mechanical structure or temperature measurement hardware. All existing temperature sensors 6 are reused, and separate temperature measurement channels are established for mothers and newborns, with the two sets of temperature control logic operating independently. The submodule differentiates data from the two temperature sources. When the temperature in the mother's area is too low, the corresponding area's heating temperature is increased; when the temperature in the newborn's area is abnormal, a fine-tuning is applied, preventing a single temperature parameter from affecting both areas and causing one area to be too cold or too hot. This breaks away from the traditional uniform temperature control model, relying on software-based zoned logic to achieve differentiated temperature control for mothers and infants, adapting to the significantly different temperature tolerance thresholds of mothers and newborns, improving temperature control accuracy, and representing an improvement solution at the intelligent management level. In this solution, two insulation layers 9 can be set up to keep the mother and baby warm.

[0042] Furthermore, the aforementioned online-offline integrated intelligent medical ecosystem includes a spacing-linked temperature control algorithm submodule 22. This submodule 22 is linked to the operating parameters of motor 15 and the temperature control parameters of heater 8. When the algorithm determines that motor 15 needs to adjust the spacing of the components, it simultaneously adjusts the output temperature of heater 8. A smaller spacing increases the insulation temperature, while a larger spacing decreases it. When the system determines that motor 15 needs to press down screw 13 to reduce the spacing of the supports, the algorithm automatically increases the output temperature of heater 8. Reducing the area results in more concentrated heat, matching the insulation needs of confined spaces. Conversely, increasing the spacing of the supports increases the heat dissipation space, simultaneously decreasing the heater temperature to avoid heat redundancy caused by large-scale high temperatures. This achieves autonomous linkage between structural adjustment and temperature adjustment, eliminating the need for medical staff to operate motor 15 and heater 8 separately, improving automation and adapting to the fast-paced work rhythm of emergency departments. It should be noted that the positions of the two sub-components can be manually adjusted to achieve localized insulation.

[0043] Specifically, the intelligent diagnosis and treatment ecosystem combining online and offline methods includes a cloud-based historical data fitting submodule 23. This submodule retrieves temperature-interval adaptation datasets from previous similar obstetric emergency surgeries and uses these datasets to pre-correct real-time control parameters, optimizing the response lead of motor 15 and heater 8. The cloud-based dataset fitting submodule relies on online cloud storage of historical nursing data, with data flow connecting to the local control unit, requiring no physical hardware installation. It retrieves a database of interval and suitable temperature samples from numerous past emergency surgeries, collects current temperature and interval data in real time, and uses historical samples to predict temperature change trends in advance, fine-tuning the parameters of heater 8 and motor 15 to eliminate temperature control delays caused by simple delayed temperature measurement. This upgrades from reactive, post-event temperature measurement and control to predictive, pre-emptive control, shortening the reaction time to temperature fluctuations and improving temperature stability.

[0044] Furthermore, the aforementioned online-offline integrated intelligent medical ecosystem includes an offline emergency operation submodule 24. When the online cloud link is lost, the offline emergency operation submodule 24 retrieves a locally stored pre-stored body temperature threshold database and independently completes temperature acquisition, fully automatic control of motor 15 and heater 8, ensuring the device can continue its heating operations even in network outage scenarios. A local offline database is built as an independent operating program after online cloud failure, with the hardware completely reusing the original equipment. When the operating room experiences network outages or the cloud server goes offline, it automatically switches to the offline emergency submodule, reads the locally stored safe body temperature thresholds, and independently completes temperature acquisition, motor 15 spacing adjustment, and heater 8 temperature control, preventing the device from shutting down or failing due to a disconnection of the online ecosystem. This improves the fault tolerance capability of the online-offline medical ecosystem, addresses the risk of equipment paralysis caused by network instability in medical scenarios, and enhances the reliability of the device in clinical use.

[0045] Working principle of the invention:

[0046] 1. Preoperative setup: Place the entire device in the corresponding position on the operating table, adjust the initial spacing of the support legs 2 along the sliding groove 18 of the base plate 17, and lay the thermal blanket on the support rod 19 to complete the hardware setup;

[0047] 2. Temperature measurement start-up: All temperature detection devices 6 begin collecting temperature data, which is then integrated into the online and offline intelligent diagnosis and treatment ecosystem;

[0048] 3. Layered insulation operation: When the heater 8 is turned on, hot air is introduced into the hollow cavity of the insulation layer 9. The upper and lower sides of the insulation layer 9 support the mother's body and place the newborn, respectively, to achieve simultaneous insulation. The insulation quilt on the support rod 19 assists in insulation and heat insulation to prevent scalding.

[0049] 4. Passive adaptive adjustment: When the newborn is placed on the heat preservation layer 9, vertical pressure is generated, and the load is transferred to the two side supports. The arc-shaped spring sheet 5 bends inward under the force, and the two components spontaneously move closer together slightly to elastically buffer the load.

[0050] 5. Intelligent System Fully Automatic Control: First, the graded temperature control submodule monitors the temperature of the mother and baby separately and adjusts the temperature of the warm air independently; Second, the spacing linkage algorithm, combined with body temperature data, sends commands to drive motor 15 to rotate, and screw 13 to compress the arc-shaped spring 5 to actively adjust the spacing, while simultaneously changing the power of the warm air blower 8; Third, the cloud fitting submodule uses historical data to predict temperature trends and optimize control parameters in advance; Fourth, when the network is normal, nursing data is stored in the cloud and can be viewed remotely by medical staff; when the network is disconnected, the offline emergency submodule is automatically switched to ensure uninterrupted control.

[0051] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0052] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A composite nursing support device for simultaneous warming of mother and baby during obstetric emergency surgery, characterized in that, include: Two symmetrically arranged sub-components, each component including a support platform (1), a support leg (2) and a baffle (3), the support leg (2) is fixedly connected to the lower side of the support platform (1), the support platform (1) is provided with a receiving groove (4), and the baffle (3) is fixedly connected to the edge of the receiving groove (4); The thermal insulation load-bearing layer assembly is disposed between the two sets of baffles (3); An arc-shaped spring clip (5) is fixedly connected between two sets of support legs (2); The intelligent diagnosis and treatment ecosystem that combines online and offline methods includes several temperature detection devices (6), which are respectively set on the lower surface of the support platform (1) and the inner surface of the support leg (2), and the temperature detection devices (6) are connected to the heat preservation detection device.

2. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery as described in claim 1, characterized in that: The baffle (3) has a strip-shaped hole (7); The thermal insulation load-bearing layer assembly is connected to the strip hole (7). A through-hole (7) is made in the solid of the baffle (3), and the thermal insulation load-bearing layer component is installed inside the through-hole (7) to complete the suspended assembly.

3. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery as described in claim 2, characterized in that: The thermal insulation load-bearing layer assembly includes a heater (8), a thermal insulation layer (9), a fixing pipe (10), and a take-up roller (11). The insulation layer (9) is disposed in the strip hole (7) and located on the upper side of the receiving groove (4), and the insulation layer (9) has a cavity; The fixed tube (10) is fixedly connected to one side of the insulation layer (9) and communicates with the cavity; The heater (8) is connected to the fixed pipe (10), and the signal is connected to the intelligent diagnosis and treatment ecosystem that combines online and offline services; The take-up roller (11) is wound up on the other side of the insulation layer (9), and the take-up roller (11) is connected to the support platform (1) by screws.

4. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery as described in claim 3, characterized in that: The support platform (1) has a screw hole (12) on its side, and a screw rod (13) is threaded into the screw hole (12). The upper end of the screw rod (13) has a slot (14), and the bottom end of the screw rod (13) is pressed against the arc-shaped spring piece (5). A motor (15) is fixedly connected to the support platform (1). The motor (15) is connected to the intelligent diagnosis and treatment ecosystem that combines online and offline services. A plug rod (16) is fixedly connected to the output end of the motor (15). The plug rod (16) is slidably inserted into the slot (14).

5. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery as described in claim 1, characterized in that: It also includes a base plate (17), on which a groove (18) is provided, and the support leg (2) is slidably connected in the groove (18).

6. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery as described in claim 1, characterized in that: The support leg (2) is fixedly connected to a support rod (19), and the ends of the two baffles (3) are provided with protective layers (20).

7. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery according to claim 4, characterized in that: The intelligent diagnosis and treatment ecosystem that combines online and offline services is equipped with a hierarchical temperature control scheduling sub-module (21). The hierarchical temperature control scheduling sub-module (21) is configured with independent temperature control logic for maternal temperature measurement and newborn temperature measurement. Based on the temperature data of different points transmitted by the temperature detection device (6), temperature adjustment instructions are issued independently to realize differentiated temperature control for mother and baby zones.

8. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery according to claim 7, characterized in that: The intelligent diagnosis and treatment ecosystem that combines online and offline services is equipped with a spacing linkage temperature control algorithm sub-module (22), which binds the operating parameters of the motor (15) and the temperature control parameters of the heater (8); When the algorithm determines that the spacing of the motor (15) adjustment components is adjusted, the output temperature of the heater (8) is adjusted synchronously. If the spacing is reduced, the insulation temperature is increased; if the spacing is increased, the insulation temperature is decreased.

9. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery according to claim 8, characterized in that: The intelligent diagnosis and treatment ecosystem that combines online and offline services is equipped with a cloud-based historical data fitting sub-module (23). The cloud-based historical data fitting sub-module (23) retrieves the temperature-spacing adaptation dataset of previous similar obstetric emergency surgeries, uses the dataset to pre-correct the real-time control parameters, and optimizes the response advance of the motor (15) and the heater (8).

10. The maternal and infant synchronous warming composite nursing support device for obstetric emergency surgery according to claim 9, characterized in that: The intelligent diagnosis and treatment ecosystem that combines online and offline services is equipped with an offline emergency operation submodule (24). When the online cloud link is disconnected, the offline emergency operation submodule (24) retrieves the local pre-stored body temperature threshold library and independently completes the temperature acquisition, motor (15) and heater (8) fully automatic control to ensure that the device can carry out heating operations normally in the event of network outage.

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