A flip food processor

Abstract

This utility model discloses a flip-type food processor, relating to the field of food processing equipment, aiming to solve the problems of cumbersome cup assembly and disassembly and significant safety hazards in existing equipment. It includes a base, a cup holder, a cup body, a main body, a sealing module, a constraint module, a cutter shaft, and a cutter head. The base is fixed to the cup holder, and the cup body is detachably mounted on the cup holder. The main body rotates relative to the base, switching between open and closed positions. In the open position, a disassembly space is formed between the main body and the cup body, facilitating the removal and placement of the cup. In the closed position, the sealing module adheres to the upper surface of the cup body to achieve a seal, and the constraint module fixes the main body to ensure stability. The cutter shaft rotates relative to the main body, and the cutter head is connected to the end of the cutter shaft near the cup body for processing food ingredients. This equipment simplifies cup assembly and disassembly by flipping the main body, eliminating the need for alignment and improving efficiency; the sealing and constraint structure ensures safe use, making it suitable for food crushing, mixing, and other processing needs in home and small catering settings.

Description

Technical Field

[0001] This utility model relates to the field of food processor technology, and in particular to a flip-type food processor. Background Technology

[0002] In modern homes and small restaurants, food processors (such as micro purees, blenders, and juicers) have become common devices for improving efficiency in daily life and work due to their ability to quickly crush, blend, and grind ingredients. The core structure of these devices typically includes a container for holding the food, and a main body housing the drive motor, control module, and other core components. The detachable connection between the container and the main body directly affects the ease of use, assembly efficiency, and operational safety of the device, making it a key design focus within the industry.

[0003] To meet users' core need for "quick assembly and disassembly" of the cup and the machine body, existing technologies generally adopt a screw-on or threaded connection design to achieve stable assembly and separation. For example, the "micro fruit puree maker" disclosed in Chinese invention patent document (publication number: CN119817979B) uses a typical screw-on design for connecting the cup and the machine body. In this solution, the cup body needs to be placed under the machine body first. The user manually moves the cup body upward so that the connecting end of the cup body enters the preset installation area of ​​the machine body. Then, by rotating the cup body around its central axis, the protruding structure on the cup body and the slot structure in the installation area of ​​the machine body are engaged with each other, thus completing the connection and fixation of the cup body and the machine body.

[0004] However, the above-mentioned connection methods based on turns or threads have obvious technical defects in practical applications, specifically in the following two aspects:

[0005] On the one hand, the connection efficiency is low. Because screw-on or threaded connections require high precision in assembly alignment, the connecting structures on the cup body (such as protrusions or external threads) must be precisely aligned with the mating structures on the machine body (such as slots or internal threads) before assembly can be completed by rotation. However, in actual operation, the installation areas of the cup body and the machine body are usually located at the bottom of the equipment. Users need to bend over to observe or repeatedly adjust the position of the cup body to confirm whether the connecting structures are aligned. The entire assembly process requires multiple pauses for calibration, making a quick "one-step" connection impossible. This significantly reduces ease of operation, especially for elderly users or those with low operational proficiency.

[0006] On the other hand, there are serious safety hazards. Due to the reliance on visual alignment, if the user does not fully confirm the precise alignment of the connection structure during assembly, or if operational negligence results in the cup only being partially screwed on (not reaching the preset locking position), the device may trigger a power signal, but the connection between the cup and the machine body will be unstable. When the device is started, the vibration or torque generated by the high-speed operation of the drive motor can easily cause the cup and the machine body to loosen or even separate. This could not only cause food spillage and equipment damage, but also lead to collisions, scratches, and other safety accidents due to the cup detaching, posing a threat to the user's personal safety. Utility Model Content

[0007] The present invention aims to solve at least one of the technical problems existing in the prior art. To this end, the present invention proposes a flip-type food processor.

[0008] A flip-type food processor designed for this purpose includes a base, a cup holder, a cup body, a main body, a sealing module, a constraint module, a cutter shaft, and a cutter head;

[0009] The base is fixedly connected to the cup holder; the cup body is detachably mounted on the cup holder.

[0010] The body is rotatably configured relative to the base and can move between an open position and a closed position;

[0011] When the body is in the open position, there is a disassembly space between the body and the cup body, which allows the cup body to be detached from the cup holder.

[0012] When the body is in the closed position, the sealing module is in contact with the upper surface of the cup body;

[0013] The constraint module is used to constrain the body to remain in a closed position;

[0014] The cutter shaft is rotatably mounted relative to the machine body; the cutter head is connected to the end of the cutter shaft near the cup body.

[0015] Preferably, the constraint module includes a constraint element, a locking member disposed on the constraint element, and an actuating element, and the body is provided with a locking groove;

[0016] The constraint element is rotatably or movable relative to the base and can switch between an unlocked position and a locked position; the actuating element is used to drive the constraint element to move toward the locked position.

[0017] When the constraint element is in the locked position, the locking member is inserted into the locking groove;

[0018] When the constraint element is in the unlocked position, the locking element separates from the locking groove.

[0019] Preferably, the body is connected to the base with an elastic element, which applies a force to the body to move it from a closed position to an open position.

[0020] Preferably, the base is provided with a first limiting part and a second limiting part; the body flips between the first limiting part and the second limiting part; when the body is in the closed position, the body abuts against the first limiting part; when the body is in the open position, the body abuts against the second limiting part.

[0021] Preferably, the constraint module includes a drive motor fixedly mounted on the base, a drive gear mounted on the motor shaft of the drive motor, and a driven gear fixedly mounted on the body.

[0022] The driven gear's axis is coaxial with the rotation axis of the machine body, and the driven gear meshes with the driving gear.

[0023] Preferably, the sealing module includes at least a cup lid that can be covered by the cup body, the cup lid having a through hole extending vertically, and the cutter shaft passing through the through hole.

[0024] Preferably, the cup lid is fitted with a sealing ring that fits against the upper surface of the cup body.

[0025] Preferably, the cup lid is provided with a receiving space, and the blade can be at least partially received within the receiving space.

[0026] Preferably, the cutter shaft is configured to rotate relative to the machine body and move along the axial direction of the cutter shaft.

[0027] Preferably, the machine body is equipped with a lead screw and a motor; the lead screw is rotatably configured relative to the machine body.

[0028] The lead screw is hollow inside and has a threaded structure on its inner wall; the cutter shaft extends at least partially into the lead screw and is connected to a nut that is threadedly connected to the threaded structure.

[0029] The motor shaft of the motor is connected to a main gear; the cutter shaft is connected to a first transmission gear, and the lead screw is connected to a second transmission gear.

[0030] The first transmission gear and the second transmission gear mesh with the main gear for transmission.

[0031] Compared with the prior art, the specific beneficial effects of this utility model are as follows:

[0032] The main body of this invention can rotate relative to the base and switch between open and closed positions. When the main body is in the open position, the disassembly and assembly space between the main body and the cup is completely unobstructed. Users do not need to adjust the alignment or rotate the cup; they can simply install the cup onto or remove it from the cup holder to complete the disassembly and assembly. The entire process does not require bending over to observe or repeated calibration, achieving "one-step" disassembly and assembly, shortening operation time, and reducing the operational difficulty for elderly and novice users, significantly improving ease of use.

[0033] When the machine body rotates to the closed position, the sealing module automatically fits into the upper surface of the cup, eliminating the need for manual adjustment of the sealing structure by the user. This "close and seal" design avoids misalignment and omissions that may occur when manually assembling the sealing components, ensuring the precision of the fit between the sealing module and the upper surface of the cup, and effectively preventing leakage of food juices from the top of the cup. Furthermore, the automatic fitting of the sealing module isolates external dust and impurities from entering the cup, ensuring the cleanliness of the food processing process. This is particularly suitable for scenarios with high hygiene requirements, such as producing fruit and vegetable purees and baby food.

[0034] This invention utilizes the coordination between the constraint module and the rotating structure of the machine body. When the machine body moves to the closed position, the constraint module can actively fix the machine body in that position, preventing the machine body from rotating due to vibration or accidental contact during equipment operation. At the same time, after the machine body is closed, it forms a stable integral structure with the cup body and cup seat. The torque generated by the rotation of the cutter shaft can be transmitted through the rigid connection between the machine body and the base, rather than relying on the partial fastening between the cup body and the machine body, thus structurally eliminating the possibility of the cup body loosening or separating. Attached Figure Description

[0035] Figure 1 This is a cross-sectional structural diagram of the present invention;

[0036] Figure 2 This is a schematic diagram of the planar structure of the present invention;

[0037] Figure 3 This is one of the three-dimensional structural schematic diagrams of this utility model;

[0038] Figure 4 This is a schematic diagram of the structure of the organism in a closed position;

[0039] Figure 5 This is a schematic diagram of the structure with the machine body in the open position;

[0040] Figure 6 This is the second three-dimensional structural schematic diagram of the present invention. Detailed Implementation

[0041] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0042] See Figures 1-6 A flip-type food processor includes a base 10, a cup holder 20, a cup body 30, a body 40, a sealing module 50, a constraint module 60, a blade shaft 70, and a blade head 710. The base 10 is fixedly connected to the cup holder 20. The cup body 30 is detachably mounted on the cup holder 20. The body 40 is rotatably disposed relative to the base 10 and can move between an open position and a closed position. When the body 40 is in the open position, there is a disassembly space between the body 40 and the cup body 30, which allows the cup body 30 to detach from the cup holder 20. When the body 40 is in the closed position, the sealing module 50 is in contact with the upper surface of the cup body 30. The constraint module 60 is used to constrain the body 40 to remain in the closed position. The blade shaft 70 is rotatably disposed relative to the body 40. The blade head 710 is connected to the end of the blade shaft 70 near the cup body 30.

[0043] The operation of this flip-type food processor revolves around the "rotation of the machine to switch states," with each component working together to process food. The specific principle is as follows:

[0044] First, prepare for opening the machine body and assembling the cup body: drive the machine body 40 to rotate relative to the base 10 to the open position. At this time, an unobstructed disassembly and assembly space is formed between the preset installation area of ​​the machine body 40 and the cup body 30, providing sufficient operating space for the installation of the cup body 30; then install the cup body 30 with food on the base 10 through the existing detachable connection structure.

[0045] Next, the machine body is closed and sealed: the machine body 40 in the open position is driven to rotate relative to the base 10 to the closed position; during this process, the sealing module 50, which moves with the machine body 40, will simultaneously and precisely fit with the upper surface of the cup body 30 to achieve a seal on the top of the cup body 30, preventing leakage of juice or impurities during food processing; then, the constraint module 60 will form a fixed constraint on the machine body 40 in the closed position to prevent the machine body 40 from deviating from the closed position due to vibration or accidental contact during operation, thus ensuring the overall structural stability.

[0046] Then, start the equipment to process the ingredients: After the equipment is powered on, the blade shaft 70, which is set to rotate relative to the machine body 40, starts to operate. The blade shaft 70 drives the blade head 710 to rotate at high speed to crush, stir and process the ingredients in the cup body 30.

[0047] Finally, remove the ingredients and disassemble the cup: After the ingredients are processed, turn off the equipment to stop the blade shaft 70 and the blade head 710 from running, and drive the machine body 40 to rotate back to the open position relative to the base 10. At this time, the disassembly and assembly space is re-established between the machine body 40 and the cup body 30; then remove the cup body 30 from the cup base 20 to complete the single use process.

[0048] See Figures 3 to 5 In a first embodiment of the constraint module 60, the constraint module 60 includes a constraint element 610, a locking member 620 disposed on the constraint element 610, and an actuating element 630. The body 40 is provided with a locking groove 411. The constraint element 610 is rotatably or movable relative to the base 10 and can switch between an unlocked position and a locked position. The actuating element 630 is used to drive the constraint element 610 to move to the locked position. When the constraint element 610 is in the locked position, the locking member 620 is inserted into the locking groove 411. When the constraint element 610 is in the unlocked position, the locking member 620 is separated from the locking groove 411.

[0049] In the first embodiment of the constraint module 60, the constraint element 610 can rotate or move relative to the base 10 and can flexibly switch between the unlocked position and the locked position; the actuating element 630 is preferably a tension spring, one end of which can be fixedly connected to the base 10 and the other end is connected to the constraint element 610. It provides a continuous driving force to the constraint element 610 through its own elastic tension, so that the constraint element 610 always has a tendency to move towards the locked position.

[0050] When the body 40 rotates to the closed position, the structure of the body 40 will not hinder the movement of the constraint element 610. At this time, the elastic tension of the tension spring (acting element 630) will drive the constraint element 610 to move to the locked position, causing the locking piece 620 on the constraint element 610 to be precisely inserted into the preset locking groove 411 of the body 40. The body 40 is stably fixed in the closed position through the mechanical plug-in structure, so as to prevent the body 40 from shifting due to vibration or accidental contact during the operation of the equipment.

[0051] When it is necessary to unlock the body 40, the user applies external force to the constraint element 610 (such as pressing or flicking the operating end of the constraint element 610). The external force overcomes the elastic tension of the tension spring (acting element 630) and drives the constraint element 610 to move from the locked position to the unlocked position. At this time, the locking element 620 moves synchronously with the constraint element 610 and completely separates from the locking groove 411. The fixed constraint of the body 40 is released, and it can be freely rotated back to the open position.

[0052] Furthermore, the actuating element 630 can also be an existing electric linear element such as an electric actuator. Its function is to electrically control the position movement of the constraint element 610.

[0053] In the first embodiment based on the constraint module 60, an elastic element is connected to the base 10. This elastic element applies a force to the body 40, causing it to move from a closed position to an open position. In this embodiment, the core function of the elastic element is to provide a reset driving force for the body 40: when the constraint module 60 is unlocked (the locking element 620 separates from the locking groove 411), the elastic element automatically pushes the body 40 from the closed position to the open position through the force generated by its own elastic deformation, eliminating the need for manual force to flip the body. This simplifies the unlocking process and avoids difficulties in opening due to the body's own weight or jamming, improving the ease of use of the equipment. The elastic element is a torsion spring, which is sleeved on the rotating shaft of the body 40, with one end abutting against the body 40 and the other end abutting against the base 10.

[0054] In the first embodiment based on the constraint module 60, the base 10 is provided with a first limiting part 110 and a second limiting part 120; the body 40 flips between the first limiting part 110 and the second limiting part 120; the core function of this structure is to limit the flipping range of the body 40: the body 40 can only flip between the two; when the body 40 rotates to the closed position, it will abut against the first limiting part 110 to avoid excessive flipping of the body, which may cause damage to the sealing module 50 or structural misalignment; when the body 40 rotates to the open position, it will abut against the second limiting part 120 to prevent the body from flipping too much and causing a collision or affecting the disassembly and assembly of the cup, while providing a stable docking reference for the body to reset, ensuring the safety of equipment operation and structure.

[0055] In the first embodiment based on the constraint module 60, the body 40 is provided with a connecting arm 410 on the side near the base 10, and the connecting arm 410 is rotatably connected to the base 10; the locking groove 411 is provided on the connecting arm 410.

[0056] In the first embodiment based on the constraint module 60, the machine body 40 is connected to an operating handle 400. The core function of this structure is to provide a convenient force application point for the user to operate the machine body rotation: the user can easily push the machine body 40 between the first limiting part 110 and the second limiting part 120 to switch to the open or closed position by holding the operating handle 400, without having to directly contact the core structure of the machine body 40. This not only improves the effort-saving and accuracy of the machine body rotation operation, but also avoids accidental contact with the sealing module or the cutter shaft related area by hand, further ensuring operational safety.

[0057] See Figure 6The second embodiment of the constraint module 60 includes a drive motor 640 fixedly mounted on the base 10, a drive gear 650 mounted on the motor shaft of the drive motor 640, and a driven gear 660 fixedly mounted on the body 40; the axis of the driven gear 660 is coaxial with the rotation axis of the body 40, and the driven gear 660 meshes with the drive gear 650. The constraint module 60 in this embodiment has the core function of achieving automatic positioning and stable constraint of the machine body 40 through gear transmission: the drive motor 640 fixed on the base 10 can drive the drive gear 650 on the motor shaft to rotate; since the driven gear 660 is coaxial with the machine body 40 and meshes with the drive gear 650, the drive gear 650 can drive the driven gear 660 and the machine body 40 to rotate synchronously, accurately controlling the machine body 40 to switch to the open or closed position; at the same time, the drive motor 640 can keep the drive gear 650 in a fixed position through its self-locking characteristic, and then lock the driven gear 660 through gear meshing, so that the machine body 40 is stably kept in the target position and prevents it from moving on its own.

[0058] See Figure 1 The sealing module 50 includes at least a lid 510 that can be fitted onto the cup body 30. The lid 510 has a through hole 511 extending vertically, and the blade shaft 70 passes through the through hole 511. The lid 510 achieves a dual function: firstly, by fitting onto the cup body 30, it seals the internal space of the cup body 30, preventing leakage of juices or the entry of external impurities during food processing; secondly, the through hole 511 of the lid 510 provides a passage for the blade shaft 70 to extend into the cup body 30 and drive the blade head 710, and the cooperation between the through hole and the blade shaft reduces food leakage from gaps, ensuring a clean and orderly processing process. A sealing ring can be provided between the through hole and the blade shaft according to sealing requirements.

[0059] In this utility model, the cup lid 510 is preferably connected to the body 40 in a detachable manner. The detachable connection means that the cup lid 510 can be disassembled for maintenance during later use.

[0060] See Figure 1 A sealing ring 520 is installed on the wall surface of the cup lid 510 facing the cup body 30, which fits against the upper surface of the cup body 30. The sealing ring 520 moves with the cup lid 510 and can fit tightly against the upper surface of the cup body 30, enhancing the sealing effect of the internal space of the cup body 30. Specifically, an annular groove can be provided on the lower surface of the cup lid 510, and the sealing ring 520 can be embedded in this annular groove.

[0061] See Figure 1 and Figure 4The cup lid 510 is provided with a receiving space 500, and the blade 710 can be at least partially accommodated within the receiving space 500. When the machine body 40 is in the open position, the receiving space 500 can enclose and store the blade 710, greatly reducing the exposed area of ​​the blade 710, preventing users from accidentally touching the sharp blade when picking up or putting down the cup or cleaning the device, and effectively reducing safety hazards when the machine body is open.

[0062] In this invention, the cutter shaft 70 rotates relative to the machine body 40 and moves along its axial direction. The machine body 40 is equipped with a lead screw 80 and a motor 90. The lead screw 80 rotates relative to the machine body 40. The lead screw 80 is hollow inside and has a threaded structure on its inner wall. The cutter shaft 70 extends at least partially into the lead screw 80 and is connected to a nut 800 threadedly connected to the threaded structure. The motor shaft of the motor 90 is connected to a main gear 910. The cutter shaft 70 is driven by a first transmission gear 920, and the lead screw 80 is driven by a second transmission gear 930. The first transmission gear 920 and the second transmission gear 930 mesh with the main gear 910. After the motor 90 starts, its motor shaft drives the main gear 910 to rotate. The main gear 910 simultaneously meshes with the first transmission gear 920 (driven by the cutter shaft 70) and the second transmission gear 930 (driven by the lead screw 80), thereby synchronously driving the cutter shaft 70 and the lead screw 80 to rotate. By designing different gear ratios for the first transmission gear 920 and the second transmission gear 930, the main gear 910 can transmit different speeds to the cutter shaft 70 and the lead screw 80, thus creating a speed difference between the lead screw 80 and the cutter shaft 70. Since the threaded structure on the inner wall of the lead screw 80 is threadedly connected to the nut 800 on the cutter shaft 70, when there is a speed difference between the lead screw 80 and the cutter shaft 70, the threaded engagement generates a driving force along the axial direction, causing the nut 800 to move along the axial direction of the lead screw 80. Since the nut 800 is fixedly connected to the cutter shaft 70, the cutter shaft 70 ultimately moves along its own axial direction while rotating relative to the machine body 40, meeting the position adjustment requirements of the blade 710 during food processing (such as penetrating deeper into the cup to process deeper ingredients, or lifting to accommodate ingredients of different capacities).

[0063] In the description of this utility model, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or component referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model. The terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated.

[0064] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claims. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A flip-type food processor, characterized in that: It includes a base (10), a cup holder (20), a cup body (30), a body (40), a sealing module (50), a constraint module (60), a cutter shaft (70), and a cutter head (710); The base (10) is fixedly connected to the cup holder (20); the cup body (30) is detachably mounted on the cup holder (20); The body (40) is rotatably disposed relative to the base (10) and can move between an open position and a closed position; When the body (40) is in the open position, there is a disassembly space between the body (40) and the cup body (30), which allows the cup body (30) to be detached from the cup holder (20); When the body (40) is in the closed position, the sealing module (50) is in contact with the upper surface of the cup body (30); The constraint module (60) is used to constrain the body (40) to remain in a closed position; The cutter shaft (70) is rotatably disposed relative to the machine body (40); the cutter head (710) is connected to one end of the cutter shaft (70) near the cup body (30).

2. The flip-type food processor according to claim 1, characterized in that: The constraint module (60) includes a constraint element (610), a locking member (620) disposed on the constraint element (610), and an actuating element (630), and the body (40) is provided with a locking groove (411); The constraint element (610) is rotatably or movable relative to the base (10) and can switch between an unlocked position and a locked position; the actuating element (630) is used to drive the constraint element (610) to move toward the locked position; When the constraint element (610) is in the locked position, the locking member (620) is inserted into the locking groove (411); When the constraint element (610) is in the unlocked position, the locking element (620) separates from the locking groove (411).

3. A flip-type food processor according to claim 2, characterized in that: The body (40) is connected to the base (10) by an elastic element, which is used to apply a force to the body (40) so that the body (40) moves from the closed position to the open position.

4. A flip-type food processor according to claim 2 or 3, characterized in that: The base (10) is provided with a first limiting part (110) and a second limiting part (120); the body (40) flips between the first limiting part (110) and the second limiting part (120); when the body (40) is in the closed position, the body (40) abuts against the first limiting part (110); when the body (40) is in the open position, the body (40) abuts against the second limiting part (120).

5. A flip-type food processor according to claim 1, characterized in that: The constraint module (60) includes a drive motor (640) fixedly mounted on the base (10), a drive gear (650) mounted on the motor shaft of the drive motor (640), and a driven gear (660) fixedly mounted on the body (40). The driven gear (660) is coaxial with the rotation axis of the machine body (40), and the driven gear (660) meshes with the drive gear (650).

6. A flip-type food processor according to claim 1, characterized in that: The sealing module (50) includes at least a cup lid (510) that can be covered on the cup body (30), the cup lid (510) is provided with a through hole (511) that runs vertically through the cup, and the cutter shaft (70) passes through the through hole (511).

7. A flip-type food processor according to claim 6, characterized in that: The cup lid (510) is fitted with a sealing ring (520) that fits against the upper surface of the cup body (30) on the wall surface facing the cup body (30).

8. A flip-type food processor according to claim 6 or 7, characterized in that: The cup lid (510) is provided with a receiving space (500), and the blade (710) can be at least partially received within the receiving space (500).

9. A flip-type food processor according to claim 1, characterized in that: The cutter shaft (70) rotates relative to the machine body (40) and is moved along the axial direction of the cutter shaft (70).

10. A flip-type food processor according to claim 9, characterized in that: The machine body (40) is provided with a lead screw (80) and a motor (90); the lead screw (80) is rotatably disposed relative to the machine body (40); The lead screw (80) is hollow inside and has a threaded structure on its inner wall; the cutter shaft (70) extends at least partially into the inside of the lead screw (80) and is connected to a nut (800) that is threadedly connected to the threaded structure; The motor shaft of the motor (90) is connected to a main gear (910); the cutter shaft (70) is connected to a first transmission gear (920), and the lead screw (80) is connected to a second transmission gear (930). The first transmission gear (920) and the second transmission gear (930) mesh with the main gear (910) for transmission.

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