Ward air microcirculation and nursing system
By rationally arranging the supply and exhaust vents and nursing subsystems, optimizing the air circulation and nursing facilities in the wards, the problems of poor air quality and unreasonable facility layout in the wards were solved, resulting in improved air quality and enhanced nursing functions, reduced infection risk, and improved patient experience and safety.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-08
- Publication Date
- 2026-04-07
AI Technical Summary
The existing ward air circulation system suffers from disordered airflow and a high probability of infection, and the layout of nursing facilities is unreasonable, which affects patients' medical experience and rehabilitation environment.
Design a ward air microcirculation and nursing system. By rationally arranging the supply and exhaust vents and nursing subsystems, create air circulation in the area around the patient's bed. Combined with deodorization modules and temperature and humidity control, optimize airflow organization and provide a personal microenvironment and nursing support.
To improve air quality, reduce the risk of infection, enhance the patient's medical experience and rehabilitation environment, ensure the comfort and safety of patients and medical staff, and improve the overall nursing function of the ward.
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Figure CN224094585U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model belongs to air purification and sickroom nursing field, especially relate to a sickroom air microcirculation and nursing system. BACKGROUND
[0002] In most hospitals, due to more patients, limited beds, a sickroom usually will be provided with multiple sickbeds, and multiple patients are arranged, plus accompanying personnel, cause the sickroom relative larger human flow, thereby leading to the air quality in the sickroom is poor. To solve this problem, the hospital with better conditions usually will be provided with air circulation system in the sickroom, and the air in the sickroom is purified. However, the existing sickroom air circulation mostly "series" mode, there is airflow organization disorder, the problem of higher infection probability, and simultaneously, the layout of various medical equipment and nursing facilities in the sickroom is unreasonable, lacks the humanization design, influences patient medical experience and rehabilitation environment. CONTENT OF UTILITY MODEL
[0003] To solve the above problem, the primary purpose of the utility model is to provide a sickroom air microcirculation and nursing system, by the reasonable arrangement of air supply and exhaust, the air circulation in the patient bed area is created, is favorable for optimizing the airflow organization in the sickroom and patient personal microenvironment, improves air quality and provides better environmental control, reduces the risk of infection, improves patient's medical experience and rehabilitation environment.
[0004] Another purpose of the utility model is to provide a sickroom air microcirculation and nursing system, by the reasonable design of nursing system, the comfort and safety of patients and medical staff are ensured, and the overall nursing function of the sickroom can be improved.
[0005] To achieve the above purpose, the technical scheme of the utility model is as follows:
[0006] The utility model provides a sickroom air microcirculation and nursing system, comprising:
[0007] Air circulation subsystem for realizing the air microcirculation of sickbed area;
[0008] Nursing subsystem for providing nursing support to patients;
[0009] The air circulation subsystem comprises:
[0010] Fresh air module arranged on the sickbed curtain guide rail, for conveying fresh air to the sickbed area;
[0011] Exhaust module arranged around the sickbed, for cooperating with the fresh air module to realize the air circulation of the sickbed area;
[0012] Deodorization module installed on the sickroom wall;
[0013] The fresh air module and the exhaust module are arranged vertically opposite each other, and the deodorization module is connected to the exhaust module.
[0014] Furthermore, the fresh air module includes a fresh air duct and a fresh air inlet. The fresh air duct is located inside the bed curtain rail, and the fresh air inlet is located on the bed curtain rail, and the fresh air inlet is connected to the fresh air duct.
[0015] Furthermore, the bed curtain rail is installed on the wall, and a fresh air system is installed inside the wall, with the fresh air duct connected to the fresh air system.
[0016] Furthermore, the exhaust module includes an exhaust vent and an exhaust connection port. The exhaust vent is located around the perimeter of the bed and is positioned vertically opposite to the fresh air vent. The exhaust connection port is located at the head of the bed. A cavity is provided inside the bed, and the exhaust vent and the exhaust connection port are connected through the cavity. The deodorization module includes an air intake port located on the wall, and the exhaust connection port is connected to the air intake port.
[0017] Furthermore, the exhaust vents are located around the inside of the bed frame and around the head of the bed.
[0018] Furthermore, the air intake adopts a concealed design and is flush with the exhaust connection port, and the exhaust connection port is magnetically connected to the air intake.
[0019] Furthermore, the deodorization module also includes a fan and several deodorization units. The fan and deodorization units are all installed inside the wall, and the air inlet of the fan is connected to the air intake, while the air outlet is connected to the deodorization unit.
[0020] Furthermore, the deodorization unit includes an ultraviolet sterilization unit, an activated carbon filtration and adsorption unit, and a filtration unit, which are connected in sequence.
[0021] Furthermore, the nursing subsystem includes a sliding headboard, which is located on the side of the bed and slidably mounted on the wall.
[0022] Furthermore, the nursing subsystem also includes a gas terminal, a concealed foldable light strip, and an artistic sliding cover. The gas terminal and the concealed foldable light strip are both installed on the wall, and the artistic sliding cover is slidably connected to the wall, allowing the gas terminal and the concealed foldable light strip to be either concealed or revealed by sliding.
[0023] Furthermore, the nursing subsystem also includes a medical waste outlet, a swing-arm television, a patient information screen, and a concealed washbasin. The medical waste outlet, swing-arm television, and patient information screen are all installed on the wall, and the medical waste outlet is connected to the sewage pipe inside the wall.
[0024] Furthermore, the concealed washbasin adopts a flip-up design and is connected to the sewage equipment and manhole inside the wall through a pipe.
[0025] Furthermore, the system also includes an air conditioning module, which is located at the head of the hospital bed and is used to regulate the temperature and airflow in the ward.
[0026] Furthermore, the system also includes a temperature and humidity control module, which is installed at the head of the bed to monitor the temperature and humidity of the space where the patient is located.
[0027] The beneficial effects of this utility model are that, compared with the prior art, this application creates air circulation in the area around the patient's bed by rationally arranging the supply and exhaust vents, which is conducive to optimizing the airflow organization in the ward and the patient's personal microenvironment, improving air quality and providing better environmental control, reducing the risk of infection, and enhancing the patient's medical experience and rehabilitation environment; at the same time, by rationally designing the nursing system, it ensures the comfort and safety of patients and medical staff, and can improve the overall nursing function of the ward. Attached Figure Description
[0028] Figure 1 This is a schematic diagram of the air microcirculation and nursing system in the ward.
[0029] Figure 2 This is a schematic diagram of the air microcirculation and nursing system in the ward without the patient bed.
[0030] Figure 3 This is a front view of the ward's air microcirculation and nursing system.
[0031] Figure 4 This is a top view of the ward's air microcirculation and nursing system.
[0032] Figure 5 This is a schematic diagram of the bed curtain track.
[0033] Figure 6 This is a schematic diagram of the structure of a Tibetan washbasin.
[0034] In the diagram: 1. Bed curtain track; 2. Fresh air module; 21. Fresh air inlet; 22. Fresh air duct; 3. Hospital bed; 4. Exhaust module; 41. Exhaust vent; 42. Exhaust connection port; 5. Deodorization module; 51. Air intake; 6. Wall; 7. Sliding headboard; 8. Gas terminal; 9. Concealed foldable light strip; 10. Artistic sliding cover; 11. Medical waste outlet; 12. Rocker arm TV; 13. Patient information screen; 14. Concealed washbasin; 15. Air conditioning vent. Detailed Implementation
[0035] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.
[0036] To achieve the above objectives, the technical solution of this utility model is as follows:
[0037] See Figures 1-6 As shown, this embodiment provides a ward air microcirculation and nursing system, including:
[0038] An air circulation subsystem for achieving micro-circulation of air in the bedside area;
[0039] A nursing subsystem for providing care support to patients;
[0040] The air circulation subsystem includes:
[0041] The fresh air module 2, installed on the bed curtain rail 1, is used to supply fresh air to the bed area.
[0042] The exhaust module 4, located around bed 3, is used in conjunction with the fresh air module 2 to achieve air circulation in the area of bed 3.
[0043] The deodorization module 5 is installed on the wall 6 of the ward;
[0044] The fresh air module 2 and the exhaust module 4 are arranged vertically opposite each other, and the deodorization module 5 is connected to the exhaust module 4.
[0045] In the ward, the bed curtain rail 1 is used to install the bed curtain, which is mounted on the wall 6 and surrounds the bed 3 above it. In this embodiment, by setting the fresh air module 2 on the bed curtain rail 1, an integrated design is achieved, which can blow fresh air downwards from above the bed 3, covering the entire area of the bed 3. The exhaust module 4 is set around the bed 3. While fresh air is being pushed down, the exhaust module 4 can absorb polluted air from the area of the bed 3 into the bed body, and then connect to the deodorization module 5 on the wall 6 through an interface. After being purified by the deodorization module 5, the air is discharged, thereby realizing the micro-circulation of air in the area of the bed 3. This is beneficial for optimizing the airflow organization and the patient's personal microenvironment in the ward, improving air quality, providing better environmental control, reducing the risk of infection, and improving the patient's medical experience and recovery environment. At the same time, the nursing subsystem can ensure the comfort and safety of patients and medical staff through reasonable design, and can improve the overall nursing function of the ward.
[0046] Furthermore, the fresh air module 2 includes a fresh air duct 22 and a fresh air inlet 21. The fresh air duct 22 is located within the bed curtain rail 1, and the fresh air inlet 21 is located on the bed curtain rail 1 and is connected to the fresh air duct 22. The bed curtain rail 1 is installed on the wall 6, and a fresh air system is installed within the wall 6. The fresh air duct 22 is connected to the fresh air system.
[0047] In this embodiment, the fresh air duct 22 runs through the entire bed curtain track 1, and the fresh air inlets 21 are evenly distributed on the bed curtain track 1. The fresh air equipment inside the wall 6 delivers fresh air to the fresh air duct 22 on the bed curtain track 1, and then discharges it downward through the fresh air inlets 21, so that the fresh air can be evenly distributed to the area around the bed 3, so that a local air microcirculation is formed in the space around the patient's bed, which helps to create a personal microenvironment, reduce the number of harmful substances and bacteria in the air, and minimize environmental interference to other people living together.
[0048] Furthermore, the exhaust module 4 includes an exhaust vent 41 and an exhaust connection port 42. The exhaust vent 41 is located around the bed 3 and is positioned vertically opposite to the fresh air vent 21. The exhaust connection port 42 is located at the head of the bed 3. A cavity is provided inside the bed 3, and the exhaust vent 41 and the exhaust connection port 42 are connected through the cavity. The deodorization module 5 includes an air intake vent 51 installed on the wall 6, and the exhaust connection port 42 is connected to the air intake vent 51.
[0049] Furthermore, the air intake 51 adopts a concealed design and is flush with the exhaust connection 42, with the exhaust connection 42 magnetically connected to the air intake 51.
[0050] Furthermore, the deodorization module 5 also includes a fan and several deodorization units. The fan and deodorization units are installed inside the wall 6, and the air inlet of the fan is connected to the air intake 51, and the air outlet is connected to the deodorization unit.
[0051] Furthermore, the deodorization unit includes an ultraviolet sterilization unit, an activated carbon filtration and adsorption unit, and a filtration unit, which are connected in sequence.
[0052] In this embodiment, the exhaust vent 41 is located around the inside of the bed frame and around the head of the bed. It can draw the semi-polluted air around the bed into the cavity inside the bed through the fan, collect it at the exhaust connection 42 at the head of the bed, and then introduce it into the pipe in the wall 6 through the air intake vent 51. The air is then deodorized by the ultraviolet sterilization unit, activated carbon filter adsorption unit, filter unit and other deodorization units, remove harmful aerosols in the air and discharge it to the outside.
[0053] Furthermore, the nursing subsystem includes a sliding headboard 7, which is located on the side of the bed 3 and slidably mounted on the wall 6. The sliding headboard 7 provides physical privacy for the bed 3, creating a private space and reducing noise and visual interference to some extent.
[0054] Furthermore, the nursing subsystem also includes a gas terminal 8, a concealed foldable light strip 9, and an artistic sliding cover 10. The gas terminal 8 and the concealed foldable light strip 9 are both installed on the wall 6. The artistic sliding cover 10 is slidably connected to the wall 6, allowing it to either conceal or reveal the gas terminal 8 and the concealed foldable light strip 9. In this embodiment, the artistic sliding cover 10 uses decorative elements such as artwork to conceal hospital equipment pipelines, providing patients with a de-hospitalized ward environment and reducing their psychological stress. The concealed foldable light strip 9 controls the light's activation by folding, providing easy-to-use bedside ambient lighting, enhancing the warm atmosphere of the ward, helping patients relax, and promoting recovery. The gas terminal 8 integrates professional medical equipment such as oxygen and negative pressure devices, facilitating quick operation by medical staff and ensuring patients can receive necessary medical support promptly in emergencies.
[0055] Furthermore, the nursing subsystem also includes a medical waste outlet 11, a swing-arm television 12, a patient information screen 13, and a hidden washbasin 14. The medical waste outlet 11, the swing-arm television 12, and the patient information screen 13 are all installed on the wall 6, and the medical waste outlet 11 is connected to the sewage pipe inside the wall 6.
[0056] In this embodiment, the medical waste outlet 11 is embedded in the wall 6, facilitating the transport of waste through a dedicated channel, reducing cross-infection during transport within the ward, and ensuring a clean and safe ward environment. The swing-arm television 12 can be flexibly adjusted to suit the patient's needs, ensuring comfortable viewing in any lying position and improving the patient's quality of life during hospitalization. The control display panel includes a patient information interface and an air environment display interface. Based on actual needs, the above content is integrated to determine a suitable user interface, displaying patient information, nursing plans, and medical orders in real time, facilitating access for medical staff and patient understanding of their condition, and enhancing doctor-patient communication. The concealed washbasin 14 is a foldable washbasin, connected to the sewage equipment and manhole within the wall 6 via pipes. It can be folded out during use to meet the hygiene needs of nursing staff and caregivers, avoiding cross-infection. After use, it can be folded back up, integrating seamlessly with the hospital wall, offering both practicality and aesthetic appeal.
[0057] Furthermore, the system also includes an air conditioning module, which includes an air conditioning outlet 15. The air conditioning outlet 15 is located at the head of the bed 3 and includes a switch and an adjustable direction pivot for regulating the ward temperature and airflow, enabling patients to independently control the temperature, airflow direction and speed.
[0058] Furthermore, the system also includes a temperature and humidity control module, which is installed at the head of the third bed to monitor the temperature and humidity of the space where the patient is located. The module can transmit data to the display terminal to provide intuitive environmental information for medical staff, patients and caregivers, and facilitate timely physical adjustment of the space comfort.
[0059] Furthermore, this system adopts a prefabricated design, with modules prefabricated in the factory and transported to the site by truck. They are then quickly assembled by manual labor or robots, which can significantly reduce the construction period, facilitate partial product updates and iterations, and allow for the replacement of certain modules as needed without rebuilding the entire building or product. This makes it more flexible and enables faster space modifications to adapt to changing needs, such as technological advancements, market demands, and evolving patient and medical needs.
[0060] This embodiment reduces the risk of infectious disease transmission and improves overall air quality by circulating and filtering air within a small area of the ward. It also enhances the user experience for patients and caregivers through the humanized design of various nursing facilities. It is primarily used in newly built and renovated hospital wards, especially those requiring individual air quality control and environmental management. For example:
[0061] a. VIP wards provide patients with a high-quality, efficient, and humane bed circulation solution through an integrated bed circulation system;
[0062] b. Intensive care units typically require a highly clean and sterile environment to ensure patient safety and rapid recovery. This device provides efficient air filtration and circulation to reduce the spread of pathogens and provide patients with clean, fresh air.
[0063] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.
Claims
1. A ward air microcirculation and nursing system, characterized in that, include: An air circulation subsystem for achieving micro-circulation of air in the bedside area; A nursing subsystem for providing care support to patients; The air circulation subsystem includes: The fresh air module installed on the bed curtain rail is used to supply fresh air to the bed area. The exhaust module installed around the hospital bed is used in conjunction with the fresh air module to achieve air circulation in the hospital bed area; Odor-removing modules installed on the walls of the wards; The fresh air module and the exhaust module are arranged vertically opposite each other, and the deodorization module is connected to the exhaust module.
2. The ward air microcirculation and nursing system as described in claim 1, characterized in that, The fresh air module includes a fresh air duct and a fresh air inlet. The fresh air duct is located inside the bed curtain rail, and the fresh air inlet is located on the bed curtain rail, and the fresh air inlet is connected to the fresh air duct.
3. The ward air microcirculation and nursing system as described in claim 2, characterized in that, The bed curtain rail is installed on the wall, and a fresh air system is installed inside the wall. The fresh air duct is connected to the fresh air system.
4. The ward air microcirculation and nursing system as described in claim 2, characterized in that, The ventilation module includes an exhaust vent and an exhaust connection port. The exhaust vent is located around the perimeter of the bed and is positioned vertically opposite to the fresh air vent. The exhaust connection port is located at the head of the bed. A cavity is provided inside the bed, and the exhaust vent and the exhaust connection port are connected through the cavity. The deodorization module includes an air intake port installed on the wall, and the exhaust connection port is connected to the air intake port.
5. The ward air microcirculation and nursing system as described in claim 4, characterized in that, The exhaust vents are located around the inside of the bed frame and around the head of the bed.
6. The ward air microcirculation and nursing system as described in claim 4, characterized in that, The air intake is designed to be concealed and is flush with the exhaust connection. The exhaust connection is magnetically attached to the air intake.
7. The ward air microcirculation and nursing system as described in claim 4, characterized in that, The deodorization module also includes a fan and several deodorization units. The fan and deodorization units are installed in the wall, and the air inlet of the fan is connected to the air intake, and the air outlet of the fan is connected to the deodorization unit.
8. The ward air microcirculation and nursing system as described in claim 1, characterized in that, The nursing subsystem includes a sliding headboard, which is located on the side of the bed and slidably mounted on the wall. The nursing subsystem also includes a gas terminal, a concealed foldable light strip, and an artistic sliding cover. The gas terminal and the concealed foldable light strip are both installed on the wall, and the artistic sliding cover is slidably connected to the wall, which can cover or reveal the gas terminal and the concealed foldable light strip by sliding. The nursing subsystem also includes a medical waste outlet, a swing-arm television, a patient information screen, and a concealed washbasin. The medical waste outlet, swing-arm television, and patient information screen are all installed on the wall, and the medical waste outlet is connected to the sewage pipe inside the wall.
9. The ward air microcirculation and nursing system as described in claim 1, characterized in that, The system also includes an air conditioning module, which is located at the head of the bed to regulate the temperature and airflow in the ward.
10. A ward air microcirculation and nursing system as described in claim 1, characterized in that, The system also includes a temperature and humidity control module, which is installed at the head of the bed to monitor the temperature and humidity of the space where the patient is located.