64 results about "Baby bottle" patented technology

1. Name of the product in this design: Cleaning Machine. 2. Purpose of this design: This design is used for cleaning baby bottles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

1. Name of the product in this design: Portable Sterilizer (X57). 2. Purpose of this design: For sterilizing, drying, and storing items such as baby bottles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

This medication dispensing nipple device integrates a medication dispensing function, eliminating the need for a separate medication dispenser. It is easy to operate, adapts to the sucking habits of infants, and reduces the difficulty of administering medication. [Solution] The sucking end of the nipple part 2 penetrates the baby bottle connecting lid 1 and extends to the top of the baby bottle connecting lid. A connecting tube 5 is provided on the outside of the nipple part. One end of the connecting tube that approaches the nipple part communicates with the dispensing tube 4, and the other end of the dispensing tube that moves away from the connecting tube penetrates the side wall of the nipple part and communicates with the nipple part. A cleaning structure is further provided on the connecting tube, and a partition plate is fixedly connected to the inner wall of the nipple part. It is possible to connect a syringe through the combination of the baby bottle connecting lid and nipple part and the dispensing tube and connecting tube. A partition plate is provided inside the nipple part to form a mixing cavity, so that the drug can be mixed through the dispensing tube and placed in the cavity and pre-mixed and diluted with the water and milk inside the nipple part, preventing high concentrations of the drug from directly irritating the mouth of an infant.

This utility model discloses a current-voltage measuring vacuum device and a baby bottle, including a shell, a vacuum assembly, a current detection module, and a control module. The shell is provided with a connection structure for connecting to the bottle body, and the shell is provided with an extraction port. The vacuum assembly is disposed inside the shell, and the input end of the vacuum assembly is connected to the extraction port. The current detection module is connected to the vacuum assembly to detect the working current of the vacuum assembly. The control module is disposed inside the shell and is connected to the current detection module and the vacuum assembly to control the start and stop of the vacuum assembly according to the magnitude of the working current. This design reduces production costs, shrinks size, and is easy to carry.

This invention proposes a baby bottle in which a screen is installed inside the dispensing chamber. When milk flows from the receiving chamber into the dispensing chamber, it passes through the screen, which separates air bubbles from the milk, allowing the milk to flow directly into the dispensing chamber. This prevents air bubbles from entering the dispensing chamber, ensuring that the milk entering the dispensing chamber is bubble-free and thus preventing infants from drinking milk containing air bubbles, avoiding bloating, hiccups, and other issues. A waterproof component covers the pre-reserved groove, preventing external liquids from entering the mounting groove and protecting the internal electronic components. A sealing component further abuts against the waterproof component, further improving waterproof performance. Ultrasonic treatment of the fixing component creates a sealed connection between the bottom shell and the bottle body, further improving sealing. The ultrasonic treatment also ensures that the bottom shell and bottle body are bonded and fixed together as a single unit, enhancing waterproof performance.

This invention provides a shelf for a baby bottle washing machine, aiming to solve the problem in existing baby bottle washing machines where components such as nipples and gravity balls cannot be stably placed on the shelf, resulting in incomplete cleaning. A shelf for a baby bottle washing machine includes: a shelf body with a central pipe; and a plurality of spray nozzles disposed on the shelf body, each spray nozzle having a connecting pipe to the central pipe; each spray nozzle has a positioning component on its outer side, the positioning component including at least a first positioning part surrounding the spray nozzle and a second positioning part surrounding the spray nozzle, wherein the diameter of the second positioning part is smaller than that of the first positioning part. This invention can prevent the water sprayed from the spray nozzles from blowing over or tilting the nipples, gravity balls, bottle caps, etc., thereby facilitating the spray nozzles to clean the nipples, tubes, gravity balls, and other components smoothly.

An electrical arrangement structure of a feeding bottle cleaning machine, comprising a washing device, an electric control box and a fan arranged in an electrical cavity, the electric control box is electrically connected with the washing device and the fan respectively, the washing device comprises a water collecting cup, the water collecting cup comprises a first cup body and a second cup body arranged at an angle with each other, the electric control box is located on one side of the first cup body, the second cup body is located on the other side of the first cup body to avoid the electric control box, and the electric control box and the fan are staggered with each other so that the electric control box does not cover the air inlet of the fan. The electrical arrangement structure of the utility model is arranged at an angle with each other by the first cup body and the second cup body, compared with the structure that the first cup body and the second cup body are arranged in a straight line, space is left on one side of the first cup body to place the electric control box, the second cup body is located on the other side of the first cup body and does not affect the placement of the electric control box, the electric control box and the fan can be staggered, the electric control box does not need to be arranged below the fan, so that the electric control box does not block the air inlet of the fan, and the arrangement mode can reduce the occupied space.

This utility model relates to the technical field of baby bottle shakers, and proposes a quick-release mechanism for a baby bottle shaker, including a bottle holder and a connecting arm that cooperates with the shaking mechanism. The connecting arm is movably mounted on the bottle holder; the bottle holder is drivenly connected to one end of the shaking mechanism, and the connecting arm is fastened to one end of the shaking mechanism; the bottle holder is detached from the shaking mechanism, and the connecting arm disengages from one end of the shaking mechanism through its own movement. By movably mounting the connecting arm on the bottle holder, the connection between the bottle holder and the shaking mechanism becomes separable. When cleaning is required, the bottle holder can be easily removed from the shaking mechanism. This design completely solves the problem of difficult cleaning caused by the inability to remove the cradle in existing technologies. Users can move the bottle holder to a suitable location, such as the sink, for a thorough cleaning, no longer limited by the small internal space of the baby bottle shaker.

1. Name of the product in this design: Baby bottle cap. 2. Purpose of this design: for use as a cap for baby bottles. 3. The key design features of this product are the combination of shape and pattern. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other situations requiring explanation: Other explanation: Areas A and B are made of transparent material.

This utility model discloses an integrated device for adding water, shaking, and warming baby bottles, relating to the field of maternal and infant feeding technology. It includes a base and a water supply assembly. The base has an installation space. A shaking device is installed inside the base, comprising a motor and a shaking drum installed within the base. The motor drives the shaking drum to rotate. The shaking drum has an opening and a supporting base. A window corresponding to the opening is opened on the top side of the base. A warming device is installed inside the base, supplying hot air to the shaking drum. A connecting frame is connected to the base, and a support frame located above the window is connected to the upper end of the connecting frame. A water outlet is provided on the support frame, with a water outlet located above the shaking drum. The water supply assembly supplies water from a storage container to the water outlet. After placing the baby bottle on the shaking drum, water can be added, the bottle shaken, and the bottle heated without moving the bottle, resulting in improved functionality.

A monitoring device may include a housing with: a first connector that mechanically couples to a baby bottle; and a second connector that mechanically couples to a nipple; a tube having a first opening defined by a first edge proximate to the first connector and a having second opening defined by a second edge proximate to the second connector. Moreover, the housing may include a set of sensors that perform measurements associated with feeding. During operation, the monitoring device may perform the measurements while a baby is performing the feeding, where the measurements are associated with sucking, swallowing and breathing by the baby. Then, the monitoring device may dynamically provide feedback based at least in part on the measurements. For example, the feedback may include: change to the feeding (such as when to dynamically pause the feeding), a change to a size of the nipple or the baby bottle, etc.

The present disclosure relates to a baby bottle assembly including a bottle having an open end, a closed end opposite the open end, and an interior volume extending between the open and closed ends. A collar is configured to couple to the open end of the bottle. A cap includes a closed end and an open end, the open end being configured to couple to the collar and configured to couple to the closed end of the bottle. An arc-shaped gap is defined between the cap and the collar when the open end of the cap is coupled to the collar.

1. Name of the product in this design: Baby Bottle (Carrier Type). 2. Purpose of this design: For preparing and keeping warm beverages for infants and young children. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1. 5. Other situations requiring explanation: Part A in the figure is made of transparent material.

The breast pump comprises a main machine and a breast suction cover, the main machine is provided with a breast collection bin, the breast collection bin is connected with a miniature exhaust hole, the miniature exhaust hole is arranged away from the breast suction cover, and when the breast pump works in a standing mode, the miniature exhaust hole is located at the high position of the breast collection bin; the milk collecting bin is connected with a milk outlet, and a sealing plug is arranged corresponding to the milk outlet; according to the breast pump, air exhausting and milk pouring are separated, air exhausting can be achieved when the breast pump is used, and milk overflowing can be prevented when the breast pump is taken down. After the milk bottle is used up, the user can pour milk by opening the sealing plug of the milk outlet; meanwhile, the breast pump can be temporarily used as a feeding bottle, milk cannot overflow, the breast pump can be placed in a refrigerator, can be horizontally placed and can be vertically placed on a table top, convenience is further brought to users, and user experience is improved; the overall structural design of the product is more compact, and the product size is reduced by more than 20% compared with similar products.

A quick-opening and closing baby bottle is disclosed, involving a snap-lock structure for opening and closing. This addresses the shortcomings of current baby bottle opening and closing techniques, which result in inconvenient operation and poor user experience. The snap-lock structure securely connects a bottle body assembly and a nipple assembly. The nipple assembly includes a nipple portion and a first connecting portion, with an elastic sealing skirt at the bottom of the nipple portion. The bottle body assembly includes a bottle body and a second connecting portion. The snap-lock structure includes a first snap and a second snap respectively located on the inner wall of the first connecting portion and the outer wall of the second connecting portion. The first and second snaps are respectively provided with axially engaging positioning protrusions and positioning grooves. During the snap-locking and positioning process, the second connecting portion rotates relative to the elastic sealing skirt while axially compressing it. The elastic sealing skirt then abuts against the positioning groove due to its rebound force. The relative movement of the bottle body assembly and the nipple assembly in the axial direction eliminates radial deformation found in existing solutions, thereby reducing wear and making opening and closing easy and smooth.

This invention relates to the field of infant feeding equipment technology, specifically disclosing a baby bottle with a pulse displacement pump to assist sucking. The bottom of the bottle body is a pump membrane, and the base contains a pulse displacement pump. When the bottle body is placed on the base, the pulse displacement pump and the pump membrane are in contact. The vibration frequency, amplitude, and vibration curve of the pump membrane at the bottom of the bottle body can be controlled by adjusting the pulse displacement pump, thereby controlling the milk output, sucking rhythm, and sucking curvature of the bottle body. This baby bottle, through the built-in pulse displacement pump and central control chip, combined with negative feedback servo control and AI algorithms, achieves precise simulation of milk output, sucking rhythm, and sucking curvature. It can automatically match the user's sucking mode and provide a reverse sucking training function to enhance the user's independent sucking ability. It also has data storage and export functions, which facilitates scientific feeding management, effectively improves feeding safety and comfort, and can train sucking ability.

1. Name of the product in this design: Baby Bottle Cleaning Machine (KS-QS9). 2. Purpose of this design: for cleaning and sterilizing baby bottles. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

A baby bottle cleaning machine, comprising a cylindrical housing (100), a rotary driving mechanism (200), a storage basket (300), a water pumping device (400), and a rotary water spraying mechanism (500). A cleaning cavity (101) is formed in the cylindrical housing (100), a bottom plate (110) is arranged at the bottom of the cleaning cavity (101), and the bottom plate (110) and the bottom of the cylindrical housing (100) form a mounting cavity (102); the rotary driving mechanism (200) is arranged in the mounting cavity (102), the rotating end of the rotary driving mechanism (200) is provided with a rotating shaft (210), and the upper end of the rotating shaft (210) extends through the bottom plate (110) into the cleaning cavity (101); the storage basket (300) is supported on the upper end of the rotating shaft (210), and a plurality of support portions (301) are arranged in the storage basket (300); the rotary water spraying mechanism (500) comprises an annular ring (510), the annular ring (510) is arranged at the bottom of the storage basket (300), a water flow channel (511) is formed in the annular ring (510), a plurality of water spraying columns (520) are arranged on the annular ring (510), and the water spraying columns (520) extend into the storage basket (300) and rotate along with the storage basket (300); and the water pumping device (400) is communicated with the water flow channel (511). The water pumping device (400) pumps cleaning water into the water flow channel (511) of the annular ring (510), the water in the water flow channel (511) is conveyed into the water spraying columns (520) and then sprayed through the water spraying columns (520) onto an object to be cleaned, thereby achieving fixed-point cleaning of said object, avoiding dead spots, and thus ensuring more thorough cleaning.

1. Name of the product in this design: Baby Bottle Cleaning Machine. 2. Purpose of this design: For cleaning items, such as baby bottles. 3. The key design feature of this product is its shape. 4. The picture or photo that best illustrates the key design points: Design 1 3D diagram 1. 5. Design 1 is designated as the basic design.

This application relates to the field of injection molding of baby bottles, and discloses an injection molding process and product for high-temperature resistant baby bottles. The injection molding process includes the following steps: drying and melting PPSU injection molding granules, followed by a temperature gradient increase, with a maximum melting temperature of 350-360℃; injection, controlling the injection rate and injection pressure in three stages to exhibit a high-low-high trend, with a maximum injection rate of 40-50 mm / s and a maximum injection pressure of 100-120 MPa; holding pressure and cooling; the PPSU injection molding granules consist of 100-120 parts PPSU resin, 5-9 parts composite plasticizer, 4-6 parts flow modifier, 1-2 parts lubricant, and 0.1-0.3 parts antioxidant. The injection molding process of this application optimizes injection parameters and synergizes with the formulation performance of PPSU injection molding granules, resulting in baby bottles that are less prone to warping and deformation during subsequent high-temperature sterilization and exhibit good high-temperature resistance.

A multi-functional shelf and baby bottle washing machine are disclosed. The multi-functional shelf includes a frame and a support portion mounted on the frame. The frame has supporting edges and several supporting ribs, which are vertically distributed. The supporting edges and ribs are switchably supported on a support, allowing the multi-functional shelf to be placed in either direction, thus enabling the upper and lower sides of the support portion to hold different items. Several recessed portions are provided on the supporting edges, which are then supported on the support. This invention, by providing supporting edges and several supporting ribs on the frame, and allowing the supporting edges and ribs to be switchably supported on a support, enables the multi-functional shelf to be placed in either direction on top of the inner container. When the multi-functional shelf is placed in reverse on top of the inner container, the entire shelf is located inside the inner container, thus reducing space occupation and facilitating the storage of the baby bottle washing machine. Furthermore, the reversible placement of the multi-functional shelf allows for adjustment of the upper and lower storage spaces, thereby meeting different user needs.

1. Name of the product in this design: Baby Bottle Brush Component. 2. Purpose of this design: This design is a tool for storing and cleaning baby bottles and for placing baby bottles. 3. The key design feature of this product is its shape. 4. Images or photos that best illustrate the design key points: usage status reference diagrams.

1. The name of the design product: ultraviolet portable disinfection box (XD020). 2. The use of the design product: for disinfecting baby bottles, pacifiers, toothbrushes and other baby products. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view 1.

A heated baby bottle assembly includes a baby bottle for containing a fluid baby food. An insulating layer is wrapped around the baby bottle and the insulating layer is comprised of a thermally insulating material thereby inhibiting thermal communication between the baby bottle and ambient air. A pair of nipples is provided and a respective one of the nipples is removably attachable to the baby bottle thereby facilitating the fluid baby food to be consumed through the respective nipple. A heating element is integrated into the baby bottle to heat the baby bottle when the heating element is turned on thereby heating the fluid baby food in the baby bottle. A control unit is integrated into the baby bottle and the control unit actuates the heating element to a selectable temperature thereby facilitating the fluid baby food to be retained at the selected temperature.

This invention relates to the field of motion recognition and timing control technology, and discloses a method, apparatus, and auxiliary equipment for recording the usage interval of an item. The method includes: acquiring a motion state signal or state detection signal output by a motion detection unit disposed on the item body, auxiliary equipment, or a base device for supporting the item, and extracting features from the motion state signal or state detection signal; analyzing the features based on preset judgment rules to identify whether the item has undergone a continuous motion process from a stable state to a motion state and back to a stable state, or a continuous state change process from an in-place state to an out-of-place state and back to an in-place state; when the continuous motion process or continuous state change process meets preset usage action judgment conditions, it is identified as a valid usage action, and in response to the end of the current usage interval timing for the valid usage action, the current usage interval is stored as a historical usage interval record, and a new usage interval timing is started; for motion state signals or state detection signals that do not meet the usage action judgment conditions, they are determined as invalid disturbance signals and the usage interval record is not updated; and at least one of the following information is output: the current usage interval, the most recent usage interval, and the historical usage interval record. This invention is applicable to items such as medicine bottles, water cups, thermos cups, baby bottles, and personal care tools that require usage interval recording.

1. Name of the product in this design: Packaging Bottle (Golden Crown Precious Care Premium Water Baby Bottle). 2. Purpose of this design: For packaging products. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the key design points: Design 1 3D view. 5. Design 1 is designated as the basic design.

A sealing structure for an inner liner and a top cover, and a baby bottle washing machine, are disclosed. The sealing structure includes an inner liner and a top cover that fits over the top of the inner liner. A sealing strip is provided at the bottom of the top cover, and a support portion for supporting the top cover is provided at the top of the inner liner. The sealing strip rests downward or laterally against the support portion. A water-blocking rib extending downward is provided at the bottom of the top cover, extending into the interior of the inner liner. A support rib extending downward is also provided at the bottom of the top cover, with its bottom supported on the support portion. This sealing structure, by providing a sealing strip at the bottom of the top cover and a support portion at the top of the inner liner, seals the gap between the inner liner and the top cover. This prevents water from splashing onto the top cover during bottle washing and instead allows it to flow back into the inner liner, thus improving the user experience.