Cooking apparatus
The cooking appliance addresses issues of contaminant generation and usability by incorporating a cover mechanism that prevents upward protrusion and a hood for effective air management, enhancing both functionality and aesthetics.
Patent Information
- Application Number
- PCT/KR2024/015196
- Authority / Receiving Office
- WO · WO
- Patent Type
- Applications
- Current Assignee / Owner
- Priority Date
- 2023-12-15
- Filing Date
- 2024-10-07
- Publication Date
- 2025-06-19
AI Technical Summary
Existing cooking appliances often suffer from issues such as contaminants like oil mist, non-combustion gases, and odors being generated during cooking, which can lead to damage of components and reduced usability.
A cooking appliance design featuring a cooktop with a plate that includes an intake port, a hood to guide air, a cover that can move between positions to open or close the intake port, and a driving device to manage the cover's movement, preventing it from protruding upwardly.
The design enhances ease of use and aesthetics while preventing cover damage and ensuring smooth operation by effectively managing air flow and contaminant removal.
Smart Images

Figure KR2024015196_19062025_PF_FP_ABST
Abstract
Description
cooking appliances
[0001] The present disclosure relates to a cooking appliance having an improved structure.
[0002] A cooking appliance is a device designed to heat and cook food or other food items. It can provide various cooking-related functions, such as heating, defrosting, drying, and sterilizing the food. Cooking appliances may include cooktops, which use electricity or gas to heat cooking containers containing food.
[0003] A gas cooktop is a gas range that cooks food by turning a lever to ignite gas from a small generator and then burning it.
[0004] An electric cooktop is an induction cooktop that uses electricity to generate an electromagnetic field in an internal coil, and uses the laws of electromagnetic induction to induce eddy currents in a cooking vessel, generating heat and using that heat to cook food.
[0005] Cooktops can generate contaminants such as oil mist, unburned gases, and odors during the cooking process. A hood can be installed to exhaust air containing these contaminants to the outside.
[0006] The present disclosure provides a cooking appliance with improved ease of use.
[0007] The present disclosure provides a cooking appliance with improved aesthetics.
[0008] The present disclosure provides a cooking appliance capable of preventing a cover from being damaged.
[0009] The technical problems to be achieved in this document are not limited to the technical problems mentioned above, and other technical problems not mentioned can be clearly understood by a person having ordinary skill in the technical field to which the present invention belongs from the description below.
[0010] A cooking appliance according to the invention may include a cooktop comprising a plate on which a cooking vessel is placed and an intake port formed in the plate; a hood disposed under the plate and configured to guide air introduced through the intake port; a cover movable between a first position covering the intake port and a second position opening the intake port; and a driving device for moving the cover. The driving device may be configured to guide the cover so as to prevent the cover from protruding upwards from the plate while in the second position.
[0011] A cooking appliance according to the invention may include a plate on which a cooking vessel is placed; an intake port formed in the plate; a hood configured to discharge air drawn in through the intake port, the hood including a chamber housing disposed under the plate and a fan disposed inside the chamber housing to force air to flow; a cover configured to cover or open the intake port, the cover including a first cover panel and a second cover panel; a first guide link configured to rotate the first cover panel in a first direction about a first rotation axis; and a second guide link configured to rotate the second cover panel in a second direction opposite to the first direction about a second rotation axis.
[0012] FIG. 1 is a perspective view of a cooking appliance according to one embodiment.
[0013] FIG. 2 is a bottom perspective view of a cooking appliance according to one embodiment.
[0014] FIG. 3 illustrates a state in which a plate is removed from a cooking appliance according to one embodiment.
[0015] Figure 4 is a schematic exploded view of a cooking appliance according to one embodiment.
[0016] FIG. 5 illustrates an internal portion of a cooking appliance according to one embodiment.
[0017] FIG. 6 illustrates an internal portion of a cooking appliance according to one embodiment.
[0018] Figure 7 is a schematic cross-sectional view of a cooking appliance according to one embodiment.
[0019] Figure 8 is a schematic exploded view of some components of a cooking appliance according to one embodiment.
[0020] Figure 9 shows some configurations of the cooking appliance illustrated in Figure 8 from another direction.
[0021] Figure 10 shows an example of a state in which the cover is in the first position (P1).
[0022] Figure 11 is a front view of Figure 10.
[0023] Figure 12 shows an example of a state in which the cover is in the second position (P2).
[0024] Figure 13 is a front view of Figure 12.
[0025] Figure 14 shows an example of a state where the cover is in the third position (P3).
[0026] Figure 15 is a front view of Figure 14.
[0027] Figure 16 is an enlarged view of a portion of the cover in the first position (P1).
[0028] Figure 17 is an enlarged view of a portion of the cover in the second position (P2).
[0029] Figure 18 is a drawing for explaining a relationship that prevents collision between the first cover panel and the second cover panel.
[0030] Figure 19 is a drawing for explaining a relationship that prevents the cover from protruding upward from the cooktop.
[0031] FIG. 20 is a perspective view of a part of a cooking appliance according to one embodiment.
[0032] Figure 21 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 20.
[0033] Fig. 22 is a front view of a part of the cooking appliance illustrated in Fig. 20.
[0034] FIG. 23 is a perspective view of a part of a cooking appliance according to one embodiment.
[0035] Figure 24 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 23.
[0036] Fig. 25 is a front view of a part of the cooking appliance illustrated in Fig. 23.
[0037] FIG. 26 is a perspective view of a part of a cooking appliance according to one embodiment.
[0038] Figure 27 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 26.
[0039] Fig. 28 is a front view of a part of the cooking appliance illustrated in Fig. 26.
[0040] FIG. 29 is a perspective view of a part of a cooking appliance according to one embodiment.
[0041] Figure 30 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 29.
[0042] Fig. 31 is a front view of a part of the cooking appliance illustrated in Fig. 29.
[0043] FIG. 32 is a perspective view of a portion of a cooking appliance according to one embodiment.
[0044] Figure 33 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 32.
[0045] Fig. 34 is a front view of a part of the cooking appliance illustrated in Fig. 32.
[0046] FIG. 35 is a perspective view of a part of a cooking appliance according to one embodiment.
[0047] Figure 36 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 35.
[0048] Fig. 37 is a front view of a part of the cooking appliance illustrated in Fig. 35.
[0049] FIG. 38 is a perspective view of a part of a cooking appliance according to one embodiment.
[0050] Figure 39 is a schematic exploded view of some components of the cooking appliance illustrated in Figure 38.
[0051] Fig. 40 is a front view of a part of the cooking appliance illustrated in Fig. 38.
[0052] It should be understood that the various embodiments and terms used in this document are not intended to limit the technical features described in this document to specific embodiments, but rather to include various modifications, equivalents, or substitutes of the embodiments.
[0053] In connection with the description of the drawings, similar reference numerals may be used for similar or related components.
[0054] The singular form of a noun corresponding to an item may include one or more of said items, unless the relevant context clearly indicates otherwise.
[0055] In this document, each of the phrases "A or B", "at least one of A and B", "at least one of A or B", "A, B, or C", "at least one of A, B, and C", and "at least one of A, B, or C" may include any one of the items listed together in that phrase, or all possible combinations thereof.
[0056] The term "and / or" includes any combination of a plurality of related described elements or any one of a plurality of related described elements.
[0057] The terms "part," "module," and "member" may be implemented in hardware or software. Depending on the embodiments, multiple "parts," "modules," or "members" may be implemented as a single component, or a single "part," "module," or "member" may include multiple components.
[0058] Terms such as "first," "second," or "first" or "second" may be used simply to distinguish one component from another and do not qualify the components in any other respect (e.g., importance or order).
[0059] When a component (e.g., a first component) is referred to as being "coupled" or "connected" to another component (e.g., a second component), with or without the terms "functionally" or "communicatively," it means that the component can be connected to the other component directly (e.g., wired), wirelessly, or through a third component.
[0060] The terms "include" or "have" are intended to specify the presence of a feature, number, step, operation, component, part or combination thereof described in this document, but do not preclude the presence or addition of one or more other features, numbers, steps, operations, components, parts or combinations thereof.
[0061] When a component is said to be “connected,” “coupled,” “supported,” or “in contact with” another component, this includes not only cases where the components are directly connected, coupled, supported, or in contact, but also cases where the components are indirectly connected, coupled, supported, or in contact through a third component.
[0062] When we say that a component is "on" another component, this includes not only cases where the component is in contact with the other component, but also cases where there is another component between the two components.
[0063] Meanwhile, the terms "front", "back", "left", "right", "upper", "lower", etc. used in the following description are defined based on the drawing, but the shape and position of each component are not limited by the above terms. For example, the front side may be defined as the +X side, and the rear side may be defined as the -X side. For example, based on the drawing, the right side may be defined as the +Y side, and the left side may be defined as the -Y side. For example, based on the drawing, the upper side may be defined as the +Z side, and the lower side may be defined as the -Z side.
[0064] Hereinafter, embodiments according to the present invention will be described in detail with reference to the attached drawings.
[0065] FIG. 1 is a perspective view of a cooking appliance according to one embodiment. FIG. 2 is a bottom perspective view of a cooking appliance according to one embodiment. FIG. 3 illustrates a state in which a plate has been removed from a cooking appliance according to one embodiment. FIG. 4 is a schematic exploded view of a cooking appliance according to one embodiment.
[0066] The cooking appliance (1) may include a cooktop (10). The cooktop (10) may be provided to cook food. The cooktop (10) may be provided to heat food.
[0067] The cooktop (10) may include a plate (11) on which a cooking vessel may be placed. For example, the plate (11) may have a generally flat shape. For example, the plate (11) may include tempered glass such as ceramic glass.
[0068] The cooktop (10) may include a suction port (12). The suction port (12) may be formed in the plate (11). The suction port (12) may be provided to penetrate the plate (11). For example, the suction port (12) may be formed at approximately the center of the plate (11). The suction port (12) may suck in air around the cooktop (10). The suction port (12) may suck in air containing contaminants generated during the cooking process. Here, the contaminants may include harmful gases, combustion gases, fine dust, oil mist, heat, and / or odors generated during cooking.
[0069] The cooktop (10) may include a user interface (14) provided on the plate (11). The user interface (14) may be provided to receive commands from a user. The user interface (14) may be provided to display various information of the cooking appliance (1). The user interface (14) may be provided as an area through which at least a portion of the display assembly (15) described below is transparent and displayed to the user.
[0070] The cooktop (10) may include a case (13). The case (13) may be provided below the plate (11). The case (13) may be coupled to the lower part of the plate (11).
[0071] The case (13) may include a shape with a substantially open top. For example, the case (13) may include a bottom portion (13a) and a side portion (13b) extending upward from the bottom portion (13a).
[0072] The case (13) may be provided to accommodate various components constituting the cooktop (10). The case (13) may accommodate electrical components. The case (13) may accommodate a display assembly (15) to be described later. The case (13) may accommodate a heating unit (16) to be described later. The case (13) may accommodate a printed circuit board assembly (17) to be described later. The case (13) may include a fan (18) to be described later.
[0073] The cooktop (10) may include a display assembly (15). The display assembly (15) may be configured to implement a user interface (14). The display assembly (15) may be arranged to correspond to the user interface (14). For example, the display assembly (15) may be configured as a printed board assembly (PBA) including a display panel, a switching element, an integrated circuit element, etc., and a printed circuit board (PCB) on which these are installed.
[0074] The cooktop (10) may include a heating element (16). The heating element (16) may be arranged to heat the plate (11). For example, the heating element (16) may include a coil (16a). A current whose magnitude changes over time may be applied to the coil (16a). As the current is applied to the coil (16a), a magnetic field may be formed around the coil (16a). As the current applied to the coil changes, the magnetic field formed around the coil (16a) may also change. An eddy current may flow according to the change in the magnetic field on the surface of the cooking vessel in contact with the plate (11), thereby heating the cooking vessel.
[0075] In the drawing, the cooktop (10) is depicted as an induction electric cooktop, but the present disclosure is not limited thereto. The type of cooktop (10) is not limited as long as it can heat a cooking vessel. For example, the cooktop (10) may be configured as a gas range, a highlighter, a hybrid, or an oven.
[0076] The cooktop (10) may include a printed board assembly (PBA) (17). The printed board assembly (17) may be provided to supply driving current to the heating unit (16). The printed board assembly (17) may be provided to implement a circuit for the operation of the heating unit (16). The printed board assembly (17) may include various components and / or circuits for supplying driving current to the heating unit (16).
[0077] The cooktop (10) may include a fan (18). The fan (18) may be provided for heat dissipation inside the case (10). The fan (18) may blow outside air to lower the temperature of the printed circuit board assembly (17) and / or the display assembly (15). The fan (18) may draw in outside air. The fan (18) may exhaust air flowing inside the case (13). Outside air drawn into the case (13) through the fan (18) may cool the inside of the case (13) and then be exhausted to the outside of the case (13).
[0078] For example, a suction hole (19a) and a discharge hole (19b) may be formed in the case (13). For example, the suction hole (19a) may be formed in the bottom portion (13a) of the case (13). For example, the discharge hole (19b) may be formed in the side portion (13b) of the case (13). External air may be drawn into the case (13) through the suction hole (19a) by the blowing force of the fan (18) and then discharged to the outside of the case (13) through the discharge hole (19b). In the drawing, the suction hole (19a) and the discharge hole (19b) are illustrated as being formed in multiple numbers, but the present disclosure is not limited thereto. There is no limitation on the number of each of the suction holes (19a) and the discharge holes (19b).
[0079] The cooking device (1) may include a hood (20). The hood (20) may be provided to allow air introduced through the intake port (12) to flow. The hood (20) may be provided to guide the air introduced through the intake port (12). The hood (20) may be provided to exhaust or circulate the air introduced through the intake port (12). The hood (20) may exhaust the air introduced through the intake port (12) to the outside of a space (e.g., indoors) in which the cooking device (1) is installed. The hood (20) may recirculate the air introduced through the intake port (12) back into the space (e.g., indoors) in which the cooking device (1) is installed. In summary, the hood (20) may guide the air introduced through the intake port (12) to the outside or indoors. As will be described later, at least one filter (61 and / or 71) may be provided inside the hood (20), and air flowing through the hood (20) may be filtered by passing through at least one filter (61 and / or 71). Air passing through at least one filter (61 and / or 71) may be discharged to the outdoors or introduced into the indoors by the hood (20).
[0080] The hood (20) may be placed under the plate (11). The hood (20) may be placed under at least a portion of the cooktop (10). The hood (20) may be placed under the bottom portion (13a) of the case (13). However, the present disclosure is not limited thereto, and the cooktop (10) and the hood (20) may be formed integrally.
[0081] By placing the hood (20) under the cooktop (10), the upper space where the cooking device (1) is installed can be secured. The upper portion of the cooking device (1) is provided as an empty space, so that the cooking space is secured and the cooking environment can be improved.
[0082] The hood (20) may include a chamber housing (30). The chamber housing (30) may be positioned below the plate (11). The chamber housing (30) may be detachably coupled to at least a portion of the lower portion of the cooktop (10). For example, the chamber housing (30) may be detachably coupled to the bottom portion (13a) of the case (13).
[0083] The chamber housing (30) may be provided to receive air introduced through the intake port (12). The chamber housing (30) may be provided to form a chamber (31) through which air can flow. The chamber (31) may include a passage for guiding air into a space provided inside the chamber housing (30). As will be described later, air introduced through the intake port (12) may be guided by the frame (210) and flow into the chamber housing (30).
[0084] Various components may be placed in the chamber (31). For example, at least one filter (61 and / or 71) may be placed in the chamber (31). For example, a fan device (50) to be described later may be placed in the chamber (31). For example, a tray (80) to be described later may be placed in the chamber (31).
[0085] The chamber housing (30) may be provided to connect the cooktop (10) and the duct (40). The chamber housing (30) may guide air sucked in through the intake port (12) to the duct (40). For example, the chamber housing (30) may include a chamber discharge port (35, see FIG. 4) through which air flows out from the chamber housing (30). The chamber discharge port (35) may be connected to the duct (40).
[0086] The hood (20) may include a duct (40). The duct (40) may receive air discharged from the chamber housing (30). The duct (40) may guide the air discharged from the chamber housing (30) to the outside or to a space in which the cooking device (1) is installed. For example, one end of the duct (40) may be connected to a chamber discharge port (35) of the chamber housing (30). For example, the other end of the duct (40) may be connected to the outdoors or indoors. Accordingly, the duct (40) may discharge air that is drawn in through the intake port (12) and then filtered through at least one filter (61 and / or 71) to the outdoors or recirculate it indoors.
[0087] Although the drawing depicts the chamber housing (30) and the duct (40) as separate components, the present disclosure is not limited thereto. Depending on various factors such as the type of cooktop (10) and the installation space, the chamber housing (30) and the duct (40) may be provided as an integrated component.
[0088] The cooking appliance (1) may include a fan device (50). The fan device (50) may be disposed within the hood (20). Although the drawing illustrates the fan device (50) as being housed in the chamber housing (30), the present disclosure is not limited thereto. For example, the fan device (50) may be housed in the duct (40). For example, the fan device (50) may be provided as a component of the hood (20).
[0089] The fan device (50) may include a fan (51). The fan (51) may be configured to force air flow. The fan (51) may generate suction force. Air may flow into the cooking appliance (1) through the suction port (12) by the suction force of the fan (51).
[0090] The fan device (50) may include a fan motor (53). The fan motor (53) may be arranged to drive a fan (51). The fan motor (53) may provide rotational force to the fan (51).
[0091] The fan device (50) may include a fan housing (52). The fan housing (52) may be provided to cover the fan (51) and the fan motor (53). The fan housing (52) may be provided to accommodate the fan (51) and the fan motor (53).
[0092] The cooking appliance (1) may include at least one filter (61 and / or 71).
[0093] The cooking appliance (1) may include a first filter (61). The cooking appliance (1) may include a first filter bracket (62) on which the first filter (61) is mounted. The first filter (61) may be provided to filter air sucked in through the intake port (12). The first filter (61) and the first filter bracket (62) may be disposed inside the hood (20). For example, the first filter (61) and the first filter bracket (62) may be disposed in the chamber (31). For example, the first filter bracket (62) may be detachably coupled to the frame (210).
[0094] The cooking appliance (1) may include a second filter (71). The cooking appliance (1) may include a second filter bracket (72) on which the second filter (71) is mounted. The second filter (71) may be provided to filter air passing through the first filter (61). The second filter (71) may be disposed downstream of the first filter (61) along the direction of air flow. The second filter (71) and the second filter bracket (72) may be disposed inside the hood (20). For example, the second filter (71) and the second filter bracket (72) may be disposed in the chamber (31). For example, the second filter bracket (72) may be detachably coupled to the chamber housing (30).
[0095] For example, at least one of the first filter (61) or the second filter (71) may be a grease filter for removing oil particles contained in the air. For example, at least one of the first filter (61) or the second filter (71) may be a deodorizing filter for removing odor particles contained in the air.
[0096] Meanwhile, the first filter (61) and the first filter bracket (62) may be referred to as a first filter assembly. For example, the first filter assembly may be provided as a component of the hood (20). The second filter (71) and the second filter bracket (72) may be referred to as a second filter assembly. For example, the second filter assembly may be provided as a component of the hood (20).
[0097] The cooking device (1) may include a tray (80). The tray (80) may accommodate foreign substances such as powder, crumbs, and water generated during cooking. The tray (80) may be disposed at the lower portion of the first filter assembly. The tray (80) may be disposed inside the chamber housing (30). For example, the tray (80) may be mounted on the bottom surface inside the chamber housing (30). For example, the tray (80) may be provided as a component of the hood (20).
[0098] For example, the tray (80) may include a user-gripable handle (81). For example, the user may pull the tray (80) out of the chamber housing (30) or insert the tray (80) into the chamber housing (30) while holding the handle (81). For example, the handle (81) may have a shape that protrudes toward the suction port (12).
[0099] FIG. 5 illustrates an internal portion of a cooking appliance according to one embodiment. FIG. 6 illustrates an internal portion of a cooking appliance according to one embodiment. FIG. 7 is a schematic cross-sectional view of a cooking appliance according to one embodiment.
[0100] The cooking appliance (1) may include a cover (100). The cover (100) may be configured to cover or open the suction port (12).
[0101] Referring to FIGS. 5 to 7, an example of air flow will be described. The cover (100) can open the intake port (12). Air can be introduced into the cooktop (10) through the intake port (12) opened by the cover (100). The air introduced through the intake port (12) can flow to the hood (20). The air introduced through the intake port (12) can flow to the chamber housing (30). For example, the air introduced through the intake port (12) can be guided by the frame (210) and flow to the chamber housing (30). One side of the frame (210) can be communicated with the intake port (12), and the other side of the frame (210) can be communicated with the chamber housing (30). The air introduced into the chamber housing (30) can pass through the first filter (61). Air passing through the first filter (61) can pass through the second filter (71). The air passing through the second filter (71) can flow to the suction side (50a) of the fan device (50). The air drawn into the fan device (50) can be discharged through the discharge side (50b) of the fan device (50). The discharge side (50b) of the fan device (50) can be opened toward the chamber discharge portion (35) of the chamber housing (30). The air discharged from the fan device (50) can flow out of the chamber housing (30) through the chamber discharge portion (35). The air discharged from the chamber housing (30) can flow into the duct (40, see FIGS. 1 to 3). The air drawn into the duct (40) can be discharged outdoors or circulated indoors.
[0102] Fig. 8 is a schematic exploded view of some components of a cooking appliance according to one embodiment. Fig. 9 shows some components of the cooking appliance illustrated in Fig. 8 from another direction. Fig. 10 shows an example of a state in which the cover is in a first position (P1). Fig. 11 is a front view of Fig. 10. Fig. 12 shows an example of a state in which the cover is in a second position (P2). Fig. 13 is a front view of Fig. 12. Fig. 14 shows an example of a state in which the cover is in a third position (P3). Fig. 15 is a front view of Fig. 14.
[0103] The cooking device (1) may include a cover (100). The cover (100) may be provided to be movable to cover or open the suction port (12). The cover (100) may be provided to be rotatable to cover or open the suction port (12). The cover (100) may be provided to be movable between a first position (P1, see FIGS. 10 and 11) covering the suction port (12) and a second position (P2, see FIGS. 12 and 13) opening the suction port (12).
[0104] The cover (100) may include at least one cover member (100a and / or 100b). In the drawing, the cover (100) is illustrated as including a first cover member (100a) and a second cover member (100b), but the present disclosure is not limited thereto. For example, the cover (100) may include a variety of cover members. Hereinafter, for convenience of explanation, an example in which the cover (100) includes a first cover member (100a) and a second cover member (100b) will be described.
[0105] In the drawing, reference signs for the configuration of the first cover member (100a) and / or the configuration corresponding to the first cover member (100a) may be indicated with "a". In the drawing, reference signs for the configuration of the second cover member (100b) and / or the configuration corresponding to the second cover member (100b) may be indicated with "b". For example, the first guide link (260a), the first holder (300a), the first spring (270a), the insertion hole (2161a), the insertion hole (2162a), etc. may be provided to correspond to the first cover member (100a). For example, the second guide link (260b), the second holder (300b), the second spring (270b), the insertion hole (2161b), the insertion hole (2162b), etc. may be provided to correspond to the second cover member (100b).
[0106] The first cover member (100a) and the second cover member (100b) may be provided symmetrically. The first cover member (100a) and the second cover member (100b) may be provided symmetrically with respect to the vertical center line (V) of the suction port (12). The first cover member (100a) and the second cover member (100b) may have substantially the same shape centered on the vertical center line (V) of the suction port (12).
[0107] Hereinafter, the description of either the first cover member (100a) or the second cover member (100b) may be applied to the description of the other of the first cover member (100a) or the second cover member (100b). Hereinafter, the description of the cover (100) may be applied to both the first cover member (100a) and the second cover member (100b). Hereinafter, the description of the cover (100) may be replaced with the description of each of the cover members (100a, 100b).
[0108] The cover (100) may include a cover panel (110). The cover panel (110) may be provided to correspond to the suction port (12). The cover panel (110) may have an extended shape to cover the suction port (12).
[0109] The cover (100) may include a first cover panel (110a) and a second cover panel (110b). The first cover panel (110a) and the second cover panel (110b) may be arranged in parallel. The first cover panel (110a) may be provided as a component of the first cover member (100a). The second cover panel (110b) may be provided as a component of the second cover member (100b).
[0110] The first cover panel (110a) may be provided to be rotatable about a first rotation axis (O1). The second cover panel (110b) may be provided to be rotatable about a second rotation axis (O2). The second rotation axis (O2) may be spaced apart from the first rotation axis (O1). The second rotation axis (O2) may be different from the first rotation axis (O1). As will be described later, the first holder (300a) may be provided to form the first rotation axis (O1) of the first cover panel (110a). As will be described later, the second holder (300b) may be provided to form the second rotation axis (O2) of the second cover panel (100b).
[0111] The first cover panel (110a) may have a roughly plate shape. For example, the first cover panel (110a) may include a first edge portion (111a) adjacent to a second cover panel (110b) while the cover (100) is at the first position (P1). For example, the first cover panel (110a) may include a second edge portion (112a) provided on an opposite side to the first edge portion (111a). For example, the first cover panel (110a) may include a third edge portion (113a) adjacent to the first guide link (260a). For example, the first cover panel (110a) may include a fourth edge portion (114a) provided on an opposite side to the third edge portion (113a). For example, the first edge portion (111a) and the second edge portion (112a) may be provided as long sides. For example, the third edge portion (113a) and the fourth edge portion (114a) may be provided as short sides. However, the present disclosure is not limited to the examples described above, and the first cover panel (110a) may have various shapes to correspond to the suction port (12).
[0112] The first cover panel (110a) may include a first upper portion (115a) that is exposed to the outside of the cooktop (10) through the intake port (12) while the cover (100) is in the first position (P1). For example, the first upper portion (115a) may have a flat shape.
[0113] The second cover panel (110b) may have a roughly plate shape. For example, the second cover panel (110b) may include a first edge portion (111b) adjacent to the first cover panel (110a) while the cover (100) is in the first position (P1). For example, the second cover panel (110b) may include a second edge portion (112b) provided on an opposite side to the first edge portion (111b). For example, the second cover panel (110b) may include a third edge portion (113b) adjacent to the second guide link (260b). For example, the second cover panel (110b) may include a fourth edge portion (114b) provided on an opposite side to the third edge portion (113b). For example, the first edge portion (111b) and the second edge portion (112b) may be provided as long sides. For example, the third edge portion (113b) and the fourth edge portion (114b) may be provided as short sides. However, the present disclosure is not limited to the examples described above, and the second cover panel (110b) may have various shapes to correspond to the suction port (12).
[0114] The second cover panel (110b) may include a second upper portion (115b) that is exposed to the outside of the cooktop (10) through the intake port (12) while the cover (100) is in the first position (P1). For example, the second upper portion (115b) may have a flat shape.
[0115] The cover (100) may include a cover extension (120). The cover extension (120) may extend from the cover panel (110). The cover extension (120) may extend from one side of the cover panel (110).
[0116] The cover (100) may include a cover extension (120a) extending from the third edge portion (113a) of the first cover panel (110a). The cover (100) may include a cover extension (120b) extending from the third edge portion (113b) of the second cover panel (110b). The cover extension (120a) may be provided as a component of the first cover member (100a). The cover extension (120b) may be provided as a component of the second cover member (100b).
[0117] The cover (100) may include a joining groove (140). The joining groove (140) may be formed in the cover extension (120). The joining groove (140) of the cover (100) may be detachably joined to the holder joining portion (320) of the holder (300). The joining groove (140) of the cover (100) may have a shape corresponding to the holder joining portion (320) of the holder (300).
[0118] The cover (100) may include a first coupling groove (140a) formed in the cover extension (120a). The first coupling groove (140a) may be detachably coupled to the first holder (300a). The first coupling groove (140a) may have a shape corresponding to the holder coupling portion (320) of the first holder (300a). The first coupling groove (140a) may be provided as a component of the first cover member (100a).
[0119] The cover (100) may include a second coupling groove (140b) formed in the cover extension (120b). The second coupling groove (140b) may be detachably coupled to the second holder (300b). The second coupling groove (140b) may have a shape corresponding to the holder coupling portion (320) of the second holder (300b). The second coupling groove (140b) may be provided as a component of the second cover member (100b).
[0120] The cover (100) may include a cover extension (130). The cover extension (130) may extend from the cover panel (110). The cover extension (130) may extend from the other side of the cover panel (110).
[0121] The cover (100) may include a cover extension (130a) extending from the fourth edge portion (114a) of the first cover panel (110a). The cover extension (130a) may be provided as a component of the first cover member (100a).
[0122] The cover (100) may include a cover extension (130b) extending from the fourth edge portion (114b) of the second cover panel (110b). The cover extension (130b) may be provided as a component of the second cover member (100b).
[0123] The cover (100) may include an insertion protrusion (150). The insertion protrusion (150) may be formed on the cover extension (130). The insertion protrusion (150) may protrude from the cover extension (130). The insertion protrusion (150) may be inserted into the insertion hole (2162) of the frame (210).
[0124] The cover (100) may include a first insertion protrusion (150a) formed in the cover extension (130a). The first insertion protrusion (150a) can be inserted into the insertion hole (2162a) of the frame (210). The first insertion protrusion (150a) may be provided as a component of the first cover member (100a).
[0125] The cover (100) may include a second insertion protrusion (150b) formed in the cover extension (130b). The second insertion protrusion (150b) can be inserted into the insertion hole (2162b) of the frame (210). The second insertion protrusion (150b) may be provided as a component of the second cover member (100b).
[0126] The cooking device (1) may include a driving device (200). The driving device (200) may be configured to generate a driving force. The driving force generated by the driving device (200) may be transmitted to the cover (100). The driving device (200) may be configured to move the cover (100). The driving device (200) may be configured to rotate the cover (100). As a result, the cover (100) may operate to cover the suction port (12) or open the suction port (12).
[0127] At least a portion of the driving device (200) may be disposed inside the cooktop (10), and another portion of the driving device (200) may be disposed inside the hood (20) (see FIG. 7). For example, at least a portion of the driving device (200) may be disposed inside the case (13), and another portion of the driving device (200) may be disposed inside the chamber housing (30). However, the present disclosure is not limited thereto, and the driving device (200) may be provided in various locations as long as it can drive the cover (100).
[0128] The driving device (200) may include a frame (210). The frame (210) may be provided to guide air introduced through the intake port (12) to the hood (20). The frame (210) may form a flow path (210f) for guiding air introduced through the intake port (12) to the hood (20). The flow path (210f) may be provided inside the cooktop (10) (see FIG. 7). The flow path (210f) may be provided to be partitioned from the internal space (13c) of the case (13). As a result, air flowing along the flow path (210f) may not be introduced into the internal space (13c) of the case (13). Contaminants included in the air may be prevented from penetrating into the internal space (13c) of the case (13).
[0129] The frame (210) may have a shape in which the upper and lower portions are generally open. The frame (210) may include an opening (2101) corresponding to the intake port (12). The frame (210) may include a side wall (2102) to form a flow path (210f). For example, the side wall (2102) may include a front side wall (2102a), a rear side wall (2102b), a right side wall (2102c), and a left side wall (2102d). For example, at least a portion of the side wall (2102) may partition the flow path (210f) and the internal space (13c) of the case (13).
[0130] The frame (210) can be mounted on the cooktop (10). For example, the frame (210) can be fixed to the plate (11) and / or the bottom (13a) of the case (13) (see FIG. 7).
[0131] Various components constituting the driving device (200) may be mounted on the frame (210). The frame (210) may be provided to support various components constituting the driving device (200). For example, a motor (220), a cam (230), a connecting rod (240), a moving member (250), a guide link (260), a spring (270), and / or a switch (280) may be mounted on the frame (210).
[0132] The frame (210) may include an insertion hole (2161). A holder (300) may be inserted into the insertion hole (2161). The insertion hole (2161) may be formed on one side of the frame (210). For example, the insertion hole (2161) may be formed by penetrating the front side wall (2102a) of the frame (210).
[0133] The frame (210) may include an insertion hole (2161a) into which a first holder (300a) can be inserted. The first holder (300a) may be inserted into the insertion hole (2161a) to form a first rotation axis (O1) of the first cover panel (110a). The insertion hole (2161a) may correspond to the first rotation axis (O1) of the first cover panel (110a).
[0134] The frame (210) may include an insertion hole (2161b) into which a second holder (300b) can be inserted. The second holder (300b) may be inserted into the insertion hole (2161b) to form a second rotation axis (O2) of the second cover panel (110b). The insertion hole (2161b) may correspond to the second rotation axis (O2) of the second cover panel (110b).
[0135] The frame (210) may include an insertion hole (2162). An insertion protrusion (150) of the cover (100) may be inserted into the insertion hole (2162). The insertion hole (2162) may be formed on the other side of the frame (210). For example, the insertion hole (2162) may be formed by penetrating the rear wall (2102b) of the frame (210).
[0136] The frame (210) may include an insertion hole (2162a) into which a first insertion protrusion (150a) can be inserted.
[0137] The frame (210) may include an insertion hole (2162b) into which a second insertion protrusion (150b) can be inserted.
[0138] The frame (210) may include a rail (211). A cam shaft (231) of a cam (230) to be described later may be arranged to rotate along the rail (211). The rail (211) may be formed on one side of the frame (210). For example, the rail (211) may be formed on a front side wall (2102a) of the frame (210). For example, the rail (211) may have an approximately circular shape.
[0139] The frame (210) may include a rail (212). The movable member (250) may be provided to move along the rail (212). A connecting projection (253) of the movable member (250), which will be described later, may be provided to move along the rail (212). The rail (212) may be formed on one side of the frame (210). For example, the rail (212) may be formed on a front side wall (2102a) of the frame (210). For example, the rail (212) may include a shape extending along a vertical direction (Z direction).
[0140] The frame (210) may include a rail (213). The movable member (250) may be arranged to move along the rail (213). The upper protrusion (254) and the lower protrusion (255) of the movable member (250), which will be described later, may be arranged to move along the rail (213). The rail (213) may be formed on one side of the frame (210). For example, the rail (213) may be formed on the front side wall (2102a) of the frame (210). For example, the rail (213) may include a shape extending along the vertical direction (Z direction).
[0141] In the drawing, the frame (210) is depicted as including two rails (213), but the present disclosure is not limited thereto. The number of rails (213) may be equal to the number of upper protrusions (254). The number of rails (213) may be equal to the number of lower protrusions (255).
[0142] The frame (210) may include at least one rail (214 and / or 215) on which the guide link (260) is movable. The at least one rail (214 and / or 215) may be formed on one side of the frame (210). For example, the at least one rail (214 and / or 215) may be formed on a front side wall (2102a) of the frame (210). For example, the at least one rail (214 and / or 215) may include an approximately arc shape.
[0143] The frame (210) may include a rail (214). The first guide link (260a) may be arranged to rotate along the rail (214). The frame (210) may include a rail (215). The second guide link (260b) may be arranged to rotate along the rail (215). For example, the rails (214) and the rails (215) may be arranged to be symmetrical with respect to the vertical center line (V) of the suction port (12).
[0144] The frame (210) may include a spring fixing portion (217). The spring fixing portion (217) may be provided to fix a spring (270). The spring fixing portion (217) may be formed on one side of the frame (210). For example, the spring fixing portion (217) may protrude from the front side wall (2102a) of the frame (210).
[0145] The frame (210) may include a spring fixing portion (217a) provided to fix one end of a first spring (270a) to be described later. The frame (210) may include a spring fixing portion (217b) provided to fix one end of a second spring (270b) to be described later. For example, the spring fixing portion (217a) and the spring fixing portion (217b) may be provided to be symmetrical with respect to the vertical center line (V) of the suction port (12).
[0146] The frame (210) may include a stopper (218). The stopper (218) may be provided to limit the rotation of the guide link (260). The stopper (218) may interfere with the guide link (260) to prevent the guide link (260) from rotating beyond a predetermined range. The stopper (218) may be formed on one side of the frame (210). For example, the stopper (218) may protrude from the front side wall (2102a) of the frame (210).
[0147] The frame (210) may include a stopper (218a) provided to limit the rotation of the first guide link (260a). The frame (210) may include a stopper (218b) provided to limit the rotation of the second guide link (260b). For example, the stopper (218a) and the stopper (218b) may be provided to be symmetrical with respect to the vertical center line (V) of the suction port (12).
[0148] Meanwhile, although the frame (210) has been described as a component of the driving device (200), the present disclosure is not limited thereto. The frame (210) may be provided as a separate component from the driving device (200).
[0149] The driving device (200) may include a motor (220). The motor (220) may generate rotational force. The motor (220) may provide the rotational force to a cam (230). The motor (220) may include a motor shaft (221). The motor shaft (221) may be coupled to the cam (230).
[0150] The driving device (200) may include a cam (230). The cam (230) may be connected to a motor (220). The cam (230) may receive rotational force from the motor (220). The cam (230) may rotate in conjunction with the motor (220).
[0151] The cam (230) may include a cam coupling portion (232) that is coupled with the motor shaft (221) of the motor (220). For example, the cam coupling portion (232) may be provided at the center of the cam (230).
[0152] The cam (230) may include a cam shaft (231) that is spaced apart from the cam coupling portion (232). As the cam (230) connected to the motor (220) rotates, the cam shaft (231) may rotate about the cam coupling portion (232). As the cam (230) connected to the motor (220) rotates, the cam shaft (231) may rotate about the motor shaft (221).
[0153] The cam (230) may include at least one cam protrusion (233 and / or 234). As the cam (230) rotates, the at least one cam protrusion (233 and / or 234) may be arranged to contact a switch (280) to be described later. For example, the cam (230) may include a first cam protrusion (233) and a second cam protrusion (234) having a different length than the first cam protrusion (233).
[0154] The driving device (200) may include a connecting rod (240). The connecting rod (240) may be connected to a cam (230). The connecting rod (240) may be arranged to move in conjunction with the cam (230).
[0155] The first end (241) of the connecting rod (240) may be connected to the cam shaft (231). The first end (241) of the connecting rod (240) may rotate in conjunction with the cam shaft (231). The first end (241) of the connecting rod (240) may rotate together with the cam shaft (231). Accordingly, the first end (241) of the connecting rod (240) may rotate around the motor shaft (221) of the motor (220). The first end (241) of the connecting rod (240) may be arranged to rotate around the motor shaft (221) of the motor (220). The first end (241) of the connecting rod (240) may rotate approximately in a circle.
[0156] For example, the connecting rod (240) may include a first rod hole (2411) formed in the first end (241). A camshaft (231) may be inserted into the first rod hole (2411). The camshaft (231) inserted into the first rod hole (2411) may be arranged to rotate along a rail (211) of the frame (210).
[0157] The second end (242) of the connecting rod (240) may be provided to be movable in the vertical direction (Z direction) by the rotation of the first end (241) of the connecting rod (240). The second end (242) of the connecting rod (240) may be provided to perform a linear reciprocating motion. The second end (242) of the connecting rod (240) may be connected to a movable member (250).
[0158] For example, the connecting rod (240) may include a second rod hole (2421) formed in the second end (242). The connecting protrusion (253) of the movable member (250) may be inserted into the second rod hole (2421). The connecting protrusion (253) inserted into the second rod hole (2421) may move in a vertical direction (Z direction) along the rail (212) of the frame (210). The connecting protrusion (253) inserted into the second rod hole (2421) may be arranged to perform a linear reciprocating motion along the rail (212) of the frame (210).
[0159] The driving device (200) may include a movable member (250). The movable member (250) may be connected to a connecting rod (240). The movable member (250) may be arranged to move in conjunction with the connecting rod (240). The movable member (250) may be connected to a second end (242) of the connecting rod (240). The movable member (250) may be arranged to move in a vertical direction (Z direction) in conjunction with the second end (242) of the connecting rod (240). The movable member (250) may be arranged to reciprocate linearly together with the second end (242) of the connecting rod (240).
[0160] The movable member (250) may be arranged to pressurize the guide link (260) as it moves in the vertical direction (Z direction). As the movable member (250) presses the guide link (260), the guide link (260) can rotate. The movable member (250) may pressurize the first guide link (260a) and the second guide link (260b). A detailed description thereof will be provided later.
[0161] For example, the movable member (250) may include a body portion (251) and a wing portion (252) that is provided to be rotatable with respect to the body portion (251). For example, as the movable member (250) moves in a vertical direction (Z direction), the wing portion (252) may be provided to rotate with respect to the body portion (251). For example, as the movable member (250) moves downward (-Z direction), the wing portion (252) may contact the guide link (260) while rotating with respect to the body portion (251). The movable member (250) may be provided to be larger than a predetermined size in order to pressurize the guide link (260). The movable member (250) may be provided in a more compact size by including the wing portion (252) that is rotatable with respect to the body portion (251) and can pressurize the guide link (260).
[0162] For example, the movable member (250) may include a first wing portion (252a) that can contact a first guide link (260a). For example, the movable member (250) may include a second wing portion (252b) that can contact a second guide link (260b). For example, the first wing portion (252a) and the second wing portion (252b) may be arranged symmetrically with respect to the vertical center line (V) of the suction port (12).
[0163] For example, the movable member (250) may include a connecting projection (253) that is connectable to the second end (242) of the connecting rod (240). The connecting projection (253) may be inserted into the second rod hole (2422) of the connecting rod (240). The connecting projection (253) may move along the rail (212) of the frame (210) while being inserted into the second rod hole (2422).
[0164] For example, the movable member (250) may include an upper protrusion (254) and a lower protrusion (255) spaced apart from the upper protrusion (254). The upper protrusion (254) and the lower protrusion (255) may move along the rail (213) of the frame (210). When the upper protrusion (254) is located at the upper end of the rail (213), the movable member (250) may be restricted from moving upward. When the lower protrusion (255) is located at the lower end of the rail (213), the movable member (250) may be restricted from moving downward. The range of movement of the movable member (250) along the vertical direction (Z direction) may be determined by the upper protrusion (254) and the lower protrusion (255) of the movable member (250).
[0165] The moving member (250) may be referred to as a moving panel (250) or a moving block (250).
[0166] The driving device (200) may be configured to convert rotational motion into linear reciprocating motion. For example, the motor (220), the cam (230), and the first end (241) of the connecting rod (240) may be configured to rotate. For example, the second end (242) of the connecting rod (240) and the moving member (250) may be configured to perform linear reciprocating motion.
[0167] The driving device (200) may include a guide link (260). The guide link (260) may be configured to be pressed by the moving member (250). The guide link (260) may be configured to rotate as it is pressed by the moving member (250). One end of the guide link (260) may be configured to rotate about the other end of the guide link (260).
[0168] The guide link (260) can provide rotational force to the cover (100). The guide link (260) can be arranged to rotate the cover (100). The guide link (260) can be connected to the cover (100) via a holder (300). The holder (300) connecting the guide link (260) and the cover (100) can be arranged to transmit the rotational force of the guide link (260) to the cover (100). Thus, the guide link (260), the holder (300), and the cover (100) can be arranged to rotate together. However, the present disclosure is not limited thereto, and for example, the guide link (260) can be directly connected to the cover (100) to rotate the cover (100).
[0169] For example, the guide link (260) may include a lever (261) provided to come into contact with the moving member (250). For example, the guide link (260) may include a link coupling portion (263) that is connectable to the holder (300). For example, the guide link (260) may include a guide protrusion (262) provided to move along at least one rail (214 and / or 215) formed in the frame (210). For example, the lever (261) and the guide protrusion (262) may protrude in opposite directions. As the moving member (250) moves downward (-Z direction), the lever (261) of the guide link (260) may be pressed by the moving member (250). The lever (261) of the guide link (260) may be provided to rotate about the link coupling portion (263) by the pressing force of the moving member (250). The lever (261) of the guide link (260) may be arranged to rotate in an approximately circular arc around the link coupling portion (263). Accordingly, as the guide link (260) rotates while being pressed by the moving member (250), the cover (100) can operate to open the suction port (12).
[0170] The driving device (200) may include a first guide link (260a) configured to rotate the first cover panel (110a) in a first direction (R1) about a first rotation axis (O1). As the moving member (250) moves downward (-Z direction), the first guide link (260a) may be pressed by the moving member (250) to rotate in the first direction (R1).
[0171] For example, the lever (261) of the first guide link (260a) may be arranged to rotate around the link coupling portion (263) of the first guide link (260a). The lever (261) of the first guide link (260a) may be arranged to rotate approximately in an arc around the link coupling portion (263) of the first guide link (260a). The guide protrusion (262) of the first guide link (260a) may be arranged to move along the rail (214).
[0172] The driving device (200) may include a second guide link (260b) configured to rotate the second cover panel (110b) in a second direction (R2) opposite to the first direction (R1) about the second rotation axis (O2). As the moving member (250) moves downward (-Z direction), the second guide link (260b) may be pressed by the moving member (250) to rotate in the second direction (R2).
[0173] For example, the lever (261) of the second guide link (260b) may be arranged to rotate around the link coupling portion (263) of the second guide link (260b). The lever (261) of the second guide link (260b) may be arranged to rotate approximately in an arc around the link coupling portion (263) of the second guide link (260b). The guide protrusion (262) of the second guide link (260b) may be arranged to move along the rail (215).
[0174] The driving device (200) may include a spring (270). The spring (270) may be provided to elastically bias the cover (100). The spring (270) may be provided to elastically bias the guide link (260) so that the guide link (260) rotates in a direction opposite to the direction in which the guide link (260) rotates when pressed by the movable member (250). The cover (100), which is connected to the guide link (260) via the holder (300), may also rotate in conjunction with the guide link (260). Accordingly, the cover (100) may rotate to cover the suction port (12). As the movable member (250) moves upward (in the +Z direction), the guide link (260) may not be pressed by the movable member (250). The guide link (260), which is not pressurized by the movable member (250), can rotate by the elastic restoring force of the spring (270). Accordingly, as the guide link (260) rotates while being elastically biased by the spring (270), the cover (100) can operate to cover the suction port (12).
[0175] For example, the driving device (200) may include a first spring (270a) configured to elastically bias the first guide link (260a) in the second direction (R2). One end of the first spring (270a) may be fixed to a spring fixing portion (217a) of the frame (210). The other end of the first spring (270a) may be fixed to the first guide link (260a).
[0176] For example, the driving device (200) may include a second spring (270b) configured to elastically bias the second guide link (260b) in the first direction (R1). One end of the second spring (270b) may be fixed to a spring fixing portion (217b) of the frame (210). The other end of the second spring (270b) may be fixed to the second guide link (270b).
[0177] However, the present disclosure is not limited to the above. For example, one end of the first spring (270a) may be fixed to the frame (210), and the other end of the first spring (270a) may be fixed to the first holder (300a). For example, one end of the first spring (270a) may be fixed to the frame (210), and the other end of the first spring (270a) may be fixed to the first cover panel (110a). For example, one end of the second spring (270b) may be fixed to the frame (210), and the other end of the second spring (270b) may be fixed to the second holder (300b). For example, one end of the second spring (270b) may be fixed to the frame (210), and the other end of the second spring (270b) may be fixed to the second cover panel (110b). If the cover (100) can be rotated to cover the suction port (12) by the elastic restoring force of the spring (270), the arrangement of the spring (270) is not limited.
[0178] The driving device (200) may include a switch (280). The switch (280) may be positioned adjacent to the cam (230). The switch (280) may be configured to detect a rotational position of the cam (230). The switch (280) may be configured to contact at least one cam protrusion (233 and / or 234) of the cam (230). The switch (280) may be configured to be turned on or off upon contact with at least one cam protrusion (233 and / or 234) of the cam (230). Based on whether the switch (280) is turned on or off, the position of the cover (100) can be determined. For example, it can be determined whether the cover (100) opens the intake port (12) or covers the intake port (12). Although the drawing illustrates two switches (280), the present disclosure is not limited thereto. The switch (280) may be provided as one or as three or more.
[0179] The cooking device (1) may include a holder (300). The holder (300) may be provided to connect the driving device (200) and the cover (100). The holder (300) may be provided to transmit the driving force of the driving device (200) to the cover (100). The holder (300) may be provided to rotate by the driving force generated by the driving device (200). The holder (300) may be provided to connect the guide link (260) and the cover (100). The holder (300) may be provided to rotate by the guide link (260). The cover (100) coupled to the holder (300) may be provided to rotate together with the holder (300). As a result, the cover (100) may operate to cover or open the suction port (12).
[0180] The holder (300) may include a first connecting portion (310) connected to the guide link (260) and a second connecting portion (320) connected to the cover (100). The first connecting portion (310) may be inserted into the insertion hole (216) and connected to the link coupling portion (263) of the guide link (260). The second connecting portion (320) may be provided to be rotatable around the first connecting portion (310) inserted into the insertion hole (2161). The second connecting portion (320) may rotate approximately in an arc around the first connecting portion (310) inserted into the insertion hole (2161). The cover (100) may rotate around the first connecting portion (310) together with the second connecting portion (320).
[0181] The cooking device (1) may include a first holder (300a) configured to connect a first cover panel (110a) and a first guide link (260a). The first holder (300a) may transmit the rotational force of the first guide link (260a) to the first cover panel (110a). The first holder (300a) may form a first rotational axis (O1) of the first cover panel (110a).
[0182] One end of the first holder (300a) may be connected to the first guide link (260a), and the other end of the first holder (300a) may be connected to the first cover panel (110a). For example, the first connecting portion (310) of the first holder (300a) may be inserted into the insertion hole (2161a) and coupled to the first guide link (260a). For example, the first connecting portion (310) of the first holder (300a) may form a first rotational axis (O1). For example, the second connecting portion (320) of the first holder (300a) and the first cover panel (110a) connected to the second connecting portion (320) of the first holder (300a) may rotate about the first connecting portion (310) of the first holder (300a).
[0183] The cooking device (1) may include a second holder (300b) configured to connect a second cover panel (110b) and a second guide link (260b). The second holder (300b) may transmit the rotational force of the second guide link (260b) to the second cover panel (110b). The second holder (300b) may form a second rotational axis (O2) of the second cover panel (110b).
[0184] One end of the second holder (300b) may be connected to the second guide link (260b), and the other end of the second holder (300b) may be connected to the second cover panel (110b). For example, the first connecting portion (310) of the second holder (300b) may be inserted into the insertion hole (2161b) and connected to the second guide link (260b). For example, the first connecting portion (310) of the second holder (300b) may form a second rotational axis (O2). For example, the second connecting portion (320) of the second holder (300b) and the second cover panel (110b) connected to the second connecting portion (320) of the second holder (300b) may rotate about the first connecting portion (310) of the second holder (300b).
[0185] Next, with reference to FIGS. 10 to 15, an example of the operation of the cover (100) will be described. In FIGS. 10 to 15, an example is described in which the cover (100) is sequentially arranged in a first position (P1), a second position (P2), and a third position (P3) as the motor (220) rotates counterclockwise.
[0186] When the cover (100) is in the first position (P1), the cover (100) may have the suction port (12) completely open. For example, the cover (100) completely opening the suction port (12) may mean maximizing the flow rate of air flowing in through the suction port (12).
[0187] When the cover (100) is in the second position (P2), the cover (100) may completely cover the intake port (12). For example, the cover (100) completely covering the intake port (12) may mean blocking the flow of air flowing in through the intake port (12) or minimizing the flow rate of air flowing in through the intake port (12).
[0188] When the cover (100) is in the third position (P3), the cover (100) may be in a state of covering the suction port (12). However, in the example where the motor (220) rotates clockwise, when the cover (100) is provided in the third position (P3), the cover (100) may be in a state of opening the suction port (12). In addition, the cooking appliance (1) may be provided to suck air through the suction port (12) even when the cover (100) is in the third position (P3).
[0189] An example of a cover (100) moving from a first position (P1) to a second position (P2) will be described. The motor (220) can rotate counterclockwise. The cam shaft (231) of the cam (230) can rotate counterclockwise, drawing a semicircle approximately around the motor shaft (221). The cam shaft (231) of the cam (230) can rotate approximately 180 degrees from the highest point to the lowest point of the rail (211). The first end (241) of the connecting rod (240) can rotate together with the cam shaft (231). The second end (242) of the connecting rod (240) can move downward (-Z direction). The moving member (250) can move together with the second end (242) of the connecting rod (240). The moving member (250) can move downward (-Z direction). The upper protrusion (254) of the movable member (250) can move downward from the upper end of the rail (213). The lower protrusion (255) of the movable member (250) can move to be positioned at the lower end of the rail (213). As the movable member (250) moves downward (-Z direction), it can pressurize the first guide link (260a) and the second guide link (260b). One end of the first guide link (260a) can rotate in the first direction (R1) around the other end of the first guide link (260a). The guide protrusion (262) of the first guide link (260a) can move from the upper end of the rail (214) to the lower end. The first holder (300a) can rotate in the first direction (R1) in conjunction with the first guide link (260a). The first cover panel (110a) can rotate in a first direction (R1) by being linked to the first holder (300a). The first cover panel (110a) can rotate in the first direction (R1) around the first rotation axis (O1). One end of the second guide link (260b) can rotate in a second direction (R2) around the other end of the second guide link (260b).The guide protrusion (262) of the second guide link (260b) can move from the upper end to the lower end of the rail (215). The second holder (300b) can rotate in the second direction (R2) by being linked to the second guide link (260b). The second cover panel (110b) can rotate in the second direction (R2) by being linked to the second holder (300b). The second cover panel (110b) can rotate in the second direction (R2) around the second rotation axis (O2). Through the above-described process, the cover (100) can move from the first position (P1) to the second position (P2). That is, the cover (100) can be switched from a state of covering the suction port (12) to a state of opening the suction port (12).
[0190] An example of a cover (100) moving from a second position (P2) to a third position (P3) will be described. The motor (220) can rotate counterclockwise. The cam shaft (231) of the cam (230) can rotate counterclockwise, roughly drawing an arc around the motor shaft (221). FIGS. 14 and 15 illustrate an example in which the cam shaft (231) of the cam (230) rotates approximately 90 degrees at the lowest point of the rail (211). The cam shaft (231) of the cam (230) can be positioned between the lowest point and the highest point of the rail (211). The first end (241) of the connecting rod (240) can rotate together with the cam shaft (231). The second end (242) of the connecting rod (240) can move upward (in the +Z direction). The movable member (250) can move together with the second end (242) of the connecting rod (240). The movable member (250) can move upward (in the +Z direction). The lower protrusion (255) of the movable member (250) can move upward from the lower end of the rail (213). As the movable member (250) moves upward (in the +Z direction), the first guide link (260a) and the second guide link (260b) may not be pressed. The first guide link (260a) that is not pressed by the movable member (250) can rotate in the second direction (R2) as it is elastically biased by the first spring (270a). One end of the first guide link (260a) can rotate in the second direction (R2) about the other end of the first guide link (260a). The guide projection (262) of the first guide link (260a) can move from the lower end to the upper end of the rail (214). The first holder (300a) can rotate in the second direction (R2) by being linked to the first guide link (260a). The first cover panel (110a) can rotate in the second direction (R2) by being linked to the first holder (300a).The first cover panel (110a) can rotate in the second direction (R2) about the first rotation axis (O1). One end of the second guide link (260b) can rotate in the first direction (R1) about the other end of the second guide link (260b). The guide protrusion (262) of the second guide link (260b) can move from the lower end of the rail (215) toward the upper end. The second holder (300b) can rotate in the first direction (R1) by being linked to the second guide link (260b). The second cover panel (110b) can rotate in the first direction (R1) by being linked to the second holder (300b). The second cover panel (110b) can rotate in the first direction (R1) about the second rotation axis (O2). Through the above-described process, the cover (100) can move from the second position (P2) to the third position (P3). That is, the cover (100) can be switched from a state in which the suction port (12) is open to a state in which the suction port (12) is covered.
[0191] Meanwhile, the first holder (300a) may form a first rotation axis (O1), and the first guide link (260a) and the first cover panel (110a) connected to the first holder (300a) may be arranged to share the first rotation axis (O1). The second holder (300b) may form a second rotation axis (O2), and the second guide link (260b) and the second cover panel (110b) connected to the second holder (300b) may be arranged to share the second rotation axis (O2).
[0192] Fig. 16 is an enlarged view of a portion of a state in which the cover is in the first position (P1). Fig. 17 is an enlarged view of a portion of a state in which the cover is in the second position (P2). Fig. 18 is a drawing for explaining a relationship that prevents collision between the first cover panel and the second cover panel. Fig. 19 is a drawing for explaining a relationship that prevents the cover from protruding upward from the cooktop.
[0193] Referring to FIG. 16, while the cover (100) is at the first position (P1), the first cover panel (110a) and the second cover panel (110b) may be arranged in parallel along a substantially horizontal direction (Y direction). While the cover (100) is at the first position (P1), it may be arranged so that no step occurs between the first cover panel (110a) and the plate (11) within a predetermined error range. While the cover (100) is at the first position (P1), it may be arranged so that no step occurs between the second cover panel (110b) and the plate (11) within a predetermined error range. For example, while the cover (100) is at the first position (P1), the first upper portion (115a) of the first cover panel (110a) may be provided on approximately the same plane as the upper surface (11a) of the plate (11) or may be provided to be approximately parallel to the upper surface (11a) of the plate (11). For example, while the cover (100) is at the first position (P1), the second upper portion (115b) of the second cover panel (110b) may be provided on approximately the same plane as the upper surface (11a) of the plate (11) or may be provided to be approximately parallel to the upper surface (11a) of the plate (11).
[0194] Referring to FIG. 17, while the cover (100) is in the second position (P2), at least a portion of the first cover panel (110a) and at least a portion of the second cover panel (110b) may be arranged to face each other. For example, while the cover (100) is in the second position (P2), the first upper portion (115a) of the first cover panel (110a) and the second upper portion (115b) of the second cover panel (110b) may be arranged to face each other. For example, while the cover (100) is in the second position (P2), the first upper portion (115a) of the first cover panel (110a) may be arranged to face the inside of the suction port (12). For example, while the cover (100) is in the second position (P2), the second upper portion (115b) of the second cover panel (110b) may be positioned so as to face the inside of the suction port (12). For example, while the cover (100) is in the second position (P2), the first upper portion (115a) of the first cover panel (110a) and the second upper portion (115b) of the second cover panel (110b) may be positioned with the vertical center line (V) of the suction port (12) interposed therebetween.
[0195] The cover (100) may not protrude upward from the cooktop (10) while in the second position (P2). The cover (100) may not protrude upward from the plate (11) while in the second position (P2). While the cover (100) is in the second position (P2), the first cover panel (110a) and the second cover panel (110b) may not protrude upward from the upper surface (11a) of the plate (11). However, the above-described content may mean that the cover (100) does not protrude upward from the cooktop (10) within a predetermined error range.
[0196] The driving device (200) can guide the cover (100) so that it does not protrude upwards from the plate (11) while the cover (100) is in the second position (P2). While the cover (100) moves from the first position (P1) to the second position (P2), the driving device (200) can guide a portion of the cover (100) to move downwards.
[0197] For example, the driving device (200) can guide the first edge portion (111a) of the first cover panel (110a) and the first edge portion (111b) of the second cover panel (110b) to move downward while the cover (100) moves from the first position (P1) to the second position (P2). The first cover panel (110a) can rotate in the first direction (R1) around the first rotation axis (O1) by the first guide link (260a). As a result, the first edge portion (111a) of the first cover panel (110a) can move downward. The second cover panel (110b) can rotate in the second direction (R2) around the second rotation axis (O2) by the second guide link (260b). Accordingly, the first edge portion (111b) of the second cover panel (110b) can move downward.
[0198] The first rotation axis (O1) may be located further from the second cover panel (110b) than the vertical center line (C1) of the first cover panel (110a) while the cover (100) is in the first position (P1). The first rotation axis (O1) may be located below the horizontal center line (C2) of the first cover panel (110a) while the cover (100) is in the first position. When the first cover panel (110a) is rotated about the first rotation axis (O1) described above and is in a position to open the suction port (12), the first cover panel (110a) may not protrude beyond the plate (11). The second edge portion (112a) of the first cover panel (110a) may not protrude beyond the upper surface (11a) of the plate (11) within a predetermined error range.
[0199] The second rotation axis (O2) may be located further from the first cover panel (110a) than the vertical center line of the second cover panel (110b) while the cover (100) is in the second position (P2). The second rotation axis (O2) may be located below the horizontal center line of the second cover panel (110b) while the cover (100) is in the second position. When the second cover panel (110b) is rotated about the second rotation axis (O2) described above and is in a position to open the suction port (12), the second cover panel (110b) may not protrude beyond the plate (11). The second edge portion (112b) of the second cover panel (110b) may not protrude beyond the upper surface (11a) of the plate (11) within a predetermined error range.
[0200] Typically, in related technologies, the intake port is always open, or the cover may protrude above the cooktop. For example, if the cover opens the intake port, at least one edge of the cover may protrude above the cooktop plate. In such cases, the cover may interfere with a cooking vessel placed on the plate. The cover may collide with other components, such as the cooking vessel, and be damaged. Furthermore, the user may experience inconvenience in using the cooking appliance. For example, moving the cooking vessel from the top of the cooktop may be difficult. Ultimately, the usability of the cooking appliance may be reduced.
[0201] In contrast, according to the present disclosure, the cover (100) may not protrude upwards from the cooktop (10) while the suction port (12) is opened. For example, the first cover panel (110a) may not protrude upwards from the upper surface (11a) of the plate (11). For example, the second cover panel (110b) may not protrude upwards from the upper surface (11a) of the plate (11). As a result, the cover (100) may not interfere with a cooking vessel placed on the plate (11). The risk of damage to the cover (100) may be reduced. In addition, since space above the cooktop (10) is secured, the user can easily move the cooking vessel. Consequently, the usability of the cooking appliance (1) may be improved.
[0202] Meanwhile, the first cover panel (110a) and the second cover panel (110b) may be arranged so as not to interfere with each other. The first cover panel (110a) and the second cover panel (110b) may be arranged so as not to collide with each other while each is rotating. To this end, a gap (g) may be formed between the first cover panel (110a) and the second cover panel (110b) while the cover (100) is at the first position (P1).
[0203] The gap (g) may be arranged to be determined according to the position of the first rotation axis (O1) and the position of the second rotation axis (O2). The gap (g) may vary according to the position of the first rotation axis (O1) and the position of the second rotation axis (O2).
[0204] For example, the larger the width of the suction port (12), the larger the gap (g) can be. For example, the closer the first rotation axis (O1) is to the vertical center line (V) of the suction port (12), the larger the gap (g) can be. For example, the closer the second rotation axis (O2) is to the vertical center line (V) of the suction port (12), the larger the gap (g) can be. For example, the further downward the first rotation axis (O1) is from the upper surface (11a) of the plate (11), the larger the gap (g) can be. For example, the further downward the second rotation axis (O2) is from the upper surface (11a) of the plate (11), the larger the gap (g) can be.
[0205] Referring to FIG. 18, a relationship regarding the distance (L3) of the gap (g) formed between the first cover panel (110a) and the second cover panel (110b) while the cover (100) is at the first position (P1) can be derived. The first cover panel (110a) and the second cover panel (110b) can be arranged to be symmetrical with respect to the vertical center line (V) of the suction port (12). The first cover panel (110a) and the second cover panel (110b) can have substantially the same shape. Hereinafter, a relationship regarding the distance (L3) of the gap (g) is derived based on the first cover panel (110a). However, the relationship regarding the distance (L3) of the gap (g) can be derived in the same manner based on the second cover panel (110b). Therefore, the length (distance) related to the first cover panel (110a) described below can be replaced with the length (distance) related to the second cover panel (110b).
[0206] Referring to FIG. 18, (i) the distance in the horizontal direction between the first edge portion (111a) of the first cover panel (110a) and the first rotation axis (O1) may be a value obtained by adding half (W / 2) of the width (W) of the first cover panel (110a) and the shortest distance (L1) between the vertical center line (C1) of the first cover panel (110a) and the first rotation axis (O1). (ii) the distance in the vertical direction between the upper portion (115a) of the first cover panel (110a) and the first rotation axis (O1) may be a value obtained by adding the thickness (H) of the first cover panel (110a) and the shortest distance (L2) between the first cover panel (110a) and the first rotation axis (O1). (ⅲ) The distance connecting the first edge portion (111a) of the first cover panel (110a) and the first rotation axis (O1) is, by the Pythagorean theorem, It can be. The above distance( ) is less than or equal to (L3 / 2 + W / 2 + L1), which is the sum of half (L3 / 2) of the distance (L3) of the gap (g), half (W / 2) of the width (W) of the first cover panel (110a), and the shortest distance (L1) between the vertical center line (C1) of the first cover panel (110a) and the first rotation axis (O1), the first cover panel (110a) and the second cover panel (110b) may not collide. Accordingly, the distance (L3) of the gap (g) may satisfy the following relationship.
[0207] [Relationship]
[0208] W: Width of the first cover panel
[0209] H: Thickness of the first cover panel
[0210] L1: Shortest distance between the vertical center line of the first cover panel and the first rotation axis
[0211] L2: Shortest distance between the first cover panel and the first rotation axis
[0212] L3: Distance of the gap formed between the first cover panel and the second cover panel
[0213] Referring to Fig. 19, a relationship can be derived to prevent the cover (100) from protruding upwards from the plate (11) while in the second position (P2). In Fig. 19, a state in which the first cover panel (110a) rotates approximately 90 degrees to open the suction port (12) is illustrated as an example. For example, it can be assumed that the second edge portion (112a) of the first cover panel (110a) is maximally protruded from the frame (210) while the cover (100) is in the second position (P2). The first cover panel (110a) and the second cover panel (110b) can be arranged to be symmetrical with respect to the vertical center line (V) of the suction port (12). The first cover panel (110a) and the second cover panel (110b) can have substantially the same shape. Hereinafter, a relationship regarding the shortest distance (L2) between the cover panel and the rotation axis is derived based on the first cover panel (110a). However, the relationship regarding the shortest distance (L2) between the cover panel and the rotation axis can be derived in the same manner based on the second cover panel (110b). Therefore, the length (distance) related to the first cover panel (110a) described below can be replaced with the length (distance) related to the second cover panel (110b).
[0214] While the cover (100) is at the first position (P1), the vertical distance between the upper portion (115a) of the first cover panel (110a) and the first rotation axis (O1) may be H + L2. While the cover (100) is at the second position (P2), the vertical distance between the second edge portion (112a) of the first cover panel (110a) and the first rotation axis (O1) may be W / 2 - L1. In order for the cover (100) not to protrude upward from the plate (11) while it is at the second position (P2), H + L2 ≥ W / 2 - L1 must be satisfied. Accordingly, the shortest distance (L2) between the first cover panel (110a) and the first rotation axis (O1) may satisfy the following relationship.
[0215] [Relationship] L2 ≥ W / 2 - H - L1
[0216] W: Width of the first cover panel
[0217] H: Thickness of the first cover panel
[0218] L1: Shortest distance between the vertical center line of the first cover panel and the first rotation axis
[0219] L2: Shortest distance between the first cover panel and the first rotation axis
[0220] In addition, the shortest distance between the second cover panel (110b) and the second rotation axis (O2) can also satisfy the above relationship. However, in the above relationship, the distance (length) related to the first cover panel (110a) is replaced with the distance (length) related to the second cover panel (110b), and the first rotation axis (O1) is replaced with the second rotation axis (O2).
[0221] Meanwhile, each of the relationships derived in FIGS. 18 and 19 can also be applied to other embodiments (e.g., the embodiments illustrated in FIGS. 20 to 40 described below).
[0222] Fig. 20 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 21 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 20. Fig. 22 is a front view of a portion of the cooking appliance illustrated in Fig. 20.
[0223] In describing the embodiment illustrated in FIGS. 20 to 22, any overlapping content with the description of the embodiment illustrated in FIGS. 1 to 19 may be omitted. In addition, the description of the embodiment illustrated in FIGS. 1 to 19 may be applied to the description of the embodiment illustrated in FIGS. 20 to 22. The driving device (400) may perform substantially the same function as the driving device (200). The driving device (400) may replace the driving device (200) in the cooking appliance (1).
[0224] In one embodiment, the cooking appliance (1) may include a driving device (400). The driving device (400) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or open the suction port (12). The driving device (400) may be arranged to guide the cover (100) so that the cover (100) does not protrude upward from the cooktop (10) while in a position to open the suction port (12).
[0225] The driving device (400) may include a frame (410). The frame (410) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (400) may be mounted on the frame (410).
[0226] The driving device (400) may include a motor (420). The motor (420) may generate rotational force. The motor (420) may transmit the rotational force to at least one gear, which will be described later. For example, the motor shaft (421) of the motor (420) may be coupled to a gear (431).
[0227] The drive device (400) may include at least one gear (431, 432, 433, 434, 435, 436, 437, 438, 439, 440). For example, the drive device (400) may include a first gear (431) connected to a motor (420). For example, the drive device (400) may include a second gear (432) that engages with the first gear (431). For example, the drive device (400) may include a third gear (433) that engages with the second gear (432). For example, the drive device (400) may include a fourth gear (434) that engages with the third gear (433). For example, the drive device (400) may include a fifth gear (435) that engages with the fourth gear (434). For example, the driving device (400) may include a sixth gear (436) that meshes with the third gear (433). For example, the driving device (400) may include a seventh gear (437) that is connected to the fifth gear (435). For example, the rotational axis of the fifth gear (435) and the rotational axis of the seventh gear (437) may be the same. For example, the driving device (400) may include an eighth gear (438) that is connected to the sixth gear (436). For example, the rotational axis of the sixth gear (436) and the rotational axis of the eighth gear (438) may be the same. For example, the driving device (400) may include a ninth gear (439) that meshes with the seventh gear (437) and is provided on the first cover panel (110a). For example, the driving device (400) may include a tenth gear (440) that is meshed with the eighth gear (438) and provided on the second cover panel (110b).
[0228] The cover (100) can rotate in conjunction with at least one gear (431, 432, 433, 434, 435, 436, 437, 438, 439, 440). For example, the first cover panel (110a) can rotate in conjunction with the ninth gear (439). For example, the second cover panel (110b) can rotate in conjunction with the tenth gear (440).
[0229] The driving device (400) may include at least one bracket (451 and / or 452) for fixing at least one gear (431, 432, 433, 434, 435, 436, 437, 438, 439, 440) to the frame (410). For example, the driving device (400) may include a first bracket (451) and a second bracket (452). For example, the first bracket (451) may be arranged to form a rotational axis of the second gear (432). For example, the second bracket (452) may be arranged to form a rotational axis of each of the third gear (433), the fourth gear (434), the fifth gear (435), and the sixth gear (436).
[0230] The drive device (400) may include at least one fixed shaft (461 and / or 462) for fixing at least one gear (431, 432, 433, 434, 435, 436, 437, 438, 439, 440) to the frame (410) or to at least one bracket (451 and / or 452).
[0231] For example, the driving device (400) may include a first fixed shaft (461) and a second fixed shaft (462).
[0232] For example, the first fixed shaft (461) can fix the fifth gear (435) to the frame (410) and the second bracket (452). For example, the first fixed shaft (461) can fix the seventh gear (437) to the frame (410) and the second bracket (452). For example, the first fixed shaft (461) can connect the fifth gear (435) and the seventh gear (437).
[0233] For example, the second fixed shaft (462) can fix the sixth gear (436) to the frame (410) and the second bracket (452). For example, the second fixed shaft (462) can fix the eighth gear (438) to the frame (410) and the second bracket (452). For example, the second fixed shaft (462) can connect the sixth gear (436) and the eighth gear (438).
[0234] The driving device (400) may include a fixing member (470) for fixing the cover (100) to the frame (410). For example, the driving device (400) may include a first fixing member (471) for rotatably fixing the first cover panel (110a) to the frame (410). For example, the driving device (400) may include a second fixing member (472) for rotatably fixing the second cover panel (110b) to the frame (410).
[0235] Fig. 23 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 24 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 23. Fig. 25 is a front view of a portion of the cooking appliance illustrated in Fig. 23.
[0236] In describing the embodiment illustrated in FIGS. 23 to 25, any overlapping content with the description of the embodiment illustrated in FIGS. 1 to 19 may be omitted. In addition, the description of the embodiment illustrated in FIGS. 1 to 19 may be applied to the description of the embodiment illustrated in FIGS. 23 to 25. The driving device (500) may perform substantially the same function as the driving device (200). The driving device (500) may replace the driving device (200) in the cooking appliance (1).
[0237] In one embodiment, the cooking appliance (1) may include a driving device (500). The driving device (500) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or open the suction port (12). The driving device (500) may be arranged to guide the cover (100) so that it does not protrude upward from the cooktop (10) while the cover (100) is in a position to open the suction port (12).
[0238] The driving device (500) may include a frame (510). The frame (510) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (500) may be mounted on the frame (510).
[0239] The driving device (500) may include a motor (520). The motor (520) may generate rotational force. The motor (520) may transmit the rotational force to a cam (530). For example, a motor shaft (521) of the motor (520) may be connected to the cam (530).
[0240] The driving device (500) may include a cam (530). The cam (530) may be connected to a motor (520). The cam (530) may receive rotational force from the motor (520). The cam (530) may rotate in conjunction with the motor (520).
[0241] The cam (530) may include a cam coupling portion (532) that is coupled with the motor shaft (521) of the motor (520). For example, the cam coupling portion (532) may be provided at the center of the cam (530).
[0242] The cam (530) may include a cam shaft (531) that is spaced apart from the cam coupling portion (532). As the cam (530) connected to the motor (520) rotates, the cam shaft (531) may rotate about the cam coupling portion (532). As the cam (530) connected to the motor (520) rotates, the cam shaft (531) may rotate about the motor shaft (521).
[0243] The driving device (500) may include a connecting rod (540). The connecting rod (540) may be connected to a cam (530). The connecting rod (540) may be arranged to move in conjunction with the cam (530).
[0244] A first end (541) of a connecting rod (540) may be connected to a camshaft (531). The first end (541) of the connecting rod (540) may be rotatable in conjunction with the camshaft (531). A second end (542) of the connecting rod (540) may be provided to be movable in a vertical direction (Z direction) by the rotation of the first end (541) of the connecting rod (540). The second end (542) of the connecting rod (540) may be provided to perform a linear reciprocating motion. The second end (542) of the connecting rod (540) may be connected to a movable member (550).
[0245] The driving device (500) may include a movable member (550). The movable member (550) may be connected to a connecting rod (540). The movable member (550) may be arranged to move in conjunction with the connecting rod (540). The movable member (550) may be connected to a second end (542) of the connecting rod (540). The movable member (550) may be arranged to move in a vertical direction (Z direction) in conjunction with the second end (542) of the connecting rod (540). The movable member (550) may be arranged to reciprocate linearly together with the second end (542) of the connecting rod (540).
[0246] The movable member (550) may be arranged to pressurize the guide link (560) as it moves along the vertical direction (Z direction). As the movable member (550) presses the guide link (560), the guide link (560) may rotate. For example, the movable member (550) may include a first insertion protrusion (551) that is inserted into a link hole (561a) of a first guide link (560a). For example, the first insertion protrusion (551) may pressurize the first guide link (560a). For example, the movable member (550) may include a second insertion protrusion (552) that is inserted into a link hole (561b) of a second guide link (560b). For example, the second insertion protrusion (552) may pressurize the second guide link (560b).
[0247] The driving device (500) may include a guide link (560). The guide link (560) may be configured to rotate when pressed by the moving member (550). One end of the guide link (560) may be configured to rotate about the other end of the guide link (560). Accordingly, the cover (100) connected to the guide link (560) may rotate to cover or open the suction port (12).
[0248] For example, the driving device (500) may include a first guide link (560a) connecting the moving member (550) and the first cover panel (110a). For example, the first guide link (560a) may rotate the first cover panel (110a). For example, the driving device (500) may include a second guide link (560b) connecting the moving member (550) and the second cover panel (110b). For example, the second guide link (560a) may rotate the second cover panel (110b).
[0249] Fig. 26 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 27 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 26. Fig. 28 is a front view of a portion of the cooking appliance illustrated in Fig. 26.
[0250] In describing the embodiment illustrated in FIGS. 26 to 28, any overlapping content with the description of the embodiment illustrated in FIGS. 1 to 19 may be omitted. In addition, the description of the embodiment illustrated in FIGS. 1 to 19 may be applied to the description of the embodiment illustrated in FIGS. 26 to 28. The driving device (600) may perform substantially the same function as the driving device (200). The driving device (600) may replace the driving device (200) in the cooking appliance (1).
[0251] In one embodiment, the cooking appliance (1) may include a driving device (600). The driving device (600) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or open the suction port (12). The driving device (600) may be arranged to guide the cover (100) so that it does not protrude upward from the cooktop (10) while the cover (100) is in a position to open the suction port (12).
[0252] The driving device (600) may include a frame (610). The frame (610) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (600) may be mounted on the frame (610).
[0253] The driving device (600) may include a motor (620). The motor (620) may generate rotational force. The motor (620) may transmit the rotational force to a cam (630). For example, a motor shaft (621) of the motor (620) may be connected to the cam (630).
[0254] The driving device (600) may include a cam (630). The cam (630) may be connected to a motor (620). The cam (630) may receive rotational force from the motor (620). The cam (630) may rotate in conjunction with the motor (620).
[0255] The cam (630) may include a cam coupling portion (632) that is coupled with the motor shaft (621) of the motor (620). For example, the cam coupling portion (632) may be provided at the center of the cam (630).
[0256] The cam (630) may include a cam shaft (631) that is spaced apart from the cam coupling portion (632). As the cam (630) connected to the motor (620) rotates, the cam shaft (631) may rotate about the cam coupling portion (632). As the cam (630) connected to the motor (620) rotates, the cam shaft (631) may rotate about the motor shaft (621).
[0257] The driving device (600) may include a connecting rod (640). The connecting rod (640) may be connected to a cam (630). The connecting rod (640) may be arranged to move in conjunction with the cam (630).
[0258] A first end (641) of a connecting rod (640) may be connected to a camshaft (631). The first end (641) of the connecting rod (640) may be rotatable in conjunction with the camshaft (631). A second end (642) of the connecting rod (640) may be provided to be movable in a vertical direction (Z direction) by the rotation of the first end (641) of the connecting rod (640). The second end (642) of the connecting rod (640) may be provided to perform a linear reciprocating motion. The second end (642) of the connecting rod (640) may be connected to a movable member (650).
[0259] The driving device (600) may include a movable member (650). The movable member (650) may be connected to a connecting rod (640). The movable member (650) may be arranged to move in conjunction with the connecting rod (640). The movable member (650) may be connected to a second end (642) of the connecting rod (640). The movable member (650) may be arranged to move in a vertical direction (Z direction) in conjunction with the second end (642) of the connecting rod (640). The movable member (650) may be arranged to reciprocate linearly together with the second end (642) of the connecting rod (640).
[0260] The movable member (650) may be arranged to pressurize the guide link (660) as it moves along the vertical direction (Z direction). As the movable member (650) presses the guide link (660), the guide link (660) may rotate. For example, the movable member (650) may include a link insertion portion (651) into which one end (661a) of a first guide link (660a) can be inserted. For example, the movable member (650) may include a link insertion portion (652) into which one end (661b) of a second guide link (660b) can be inserted.
[0261] The driving device (600) may include a guide link (660). The guide link (660) may be configured to rotate when pressed by the moving member (650). One end (661) of the guide link (660) may be configured to rotate about the other end (662) of the guide link (660). Accordingly, the cover (100) connected to the guide link (660) may rotate to cover or open the suction port (12).
[0262] For example, the driving device (600) may include a first guide link (660a) connecting the moving member (650) and the first cover panel (110a). For example, the first guide link (660a) may rotate the first cover panel (110a). For example, the driving device (600) may include a second guide link (660b) connecting the moving member (650) and the second cover panel (110b). For example, the second guide link (660b) may rotate the second cover panel (110b).
[0263] The cooking device may include a holder (300A) for connecting one side of the cover panel (110) and the guide link (660). The cooking device may include a holder (300B) connected to the other side of the cover panel (110). The cooking device may include a fixing member (690) provided to fix the holder (300B) to the frame (610).
[0264] Fig. 29 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 30 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 29. Fig. 31 is a front view of a portion of the cooking appliance illustrated in Fig. 29.
[0265] In describing the embodiment illustrated in FIGS. 29 to 31, any overlapping content with the description of the embodiment illustrated in FIGS. 1 to 19 may be omitted. In addition, the description of the embodiment illustrated in FIGS. 1 to 19 may be applied to the description of the embodiment illustrated in FIGS. 29 to 31. The driving device (700) may perform substantially the same function as the driving device (200). The driving device (700) may replace the driving device (200) in the cooking appliance (1).
[0266] In one embodiment, the cooking appliance (1) may include a driving device (700). The driving device (700) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or open the suction port (12). The driving device (700) may be arranged to guide the cover (100) so that it does not protrude upward from the cooktop (10) while the cover (100) is in a position to open the suction port (12).
[0267] The driving device (700) may include a frame (710). The frame (710) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (700) may be mounted on the frame (710).
[0268] The driving device (700) may include a motor (720). The motor (720) may generate rotational force. The motor (720) may be configured to transmit the rotational force to a connecting member (730) to be described later.
[0269] The driving device (700) may include a connecting member (730). The connecting member (730) may be configured to transmit the rotational force of the motor (720) to a guide member (740) to be described later. The connecting member (730) may connect the motor (720) and the guide member (740). For example, the connecting member (730) may include a first connecting arm (731), a second connecting arm (732), a third connecting arm (733), a fourth connecting arm (734), and a fifth connecting arm (735).
[0270] The driving device (700) may include a guide member (740). The guide member (740) may be connected to a connecting member (730). The guide member (740) may be arranged to move in conjunction with the connecting member (730). For example, the guide member (740) may be arranged to move approximately in a horizontal direction (Y direction). The guide member (740) may rotate a rotation member (750) to be described later. The guide member (740) may be connected to the rotation member (750). As the guide member (740) moves, the rotation member (750) connected to the guide member (740) may rotate. For example, the driving device (700) may include a first guide member (740a) that is arranged to rotate a first rotation member (750a) to be described later. For example, the driving device (700) may include a second guide member (740b) that is arranged to rotate a second rotating member (750b) to be described later.
[0271] The driving device (700) may include a rotating member (750) coupled to the cover (100) to rotate the cover (100). The rotating member (750) may connect the guide member (740) and the cover (100). The rotating member (750) may rotate in conjunction with the guide member (740). Accordingly, the cover (100) may rotate to cover the suction port (12) or open the suction port (12). For example, the rotating member (750) may be disposed at the lower portion of the cover (100). For example, the rotating member (750) may have a shape extending along the extension direction of the cover (100).
[0272] For example, the rotating member (750) may include a first coupling portion (751) that can be coupled to the cover panel (110), a second coupling portion (752) that can be coupled to the frame (710), and a third coupling portion (753) that is inserted into the frame (710) and can be coupled to the guide member (740).
[0273] For example, the driving device (700) may include a first rotation member (750a) configured to rotate the first cover panel (110a). For example, the driving device (700) may include a second rotation member (750b) configured to rotate the second cover panel (110b). Each of the first rotation member (750a) and the second rotation member (750b) may include a first coupling portion (751), a second coupling portion (752), and a third coupling portion (753). The first rotation member (750a) and the second rotation member (750b) may be configured to be symmetrical with respect to the vertical center line of the suction port (12).
[0274] Fig. 32 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 33 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 32. Fig. 34 is a front view of a portion of the cooking appliance illustrated in Fig. 32.
[0275] In describing the embodiment illustrated in FIGS. 32 to 34, any overlapping content with the description of the embodiment illustrated in FIGS. 1 to 19 may be omitted. In addition, the description of the embodiment illustrated in FIGS. 1 to 19 may be applied to the description of the embodiment illustrated in FIGS. 32 to 34. The driving device (800) may perform substantially the same function as the driving device (200). The driving device (800) may replace the driving device (200) in the cooking appliance (1).
[0276] In one embodiment, the cooking appliance (1) may include a driving device (800). The driving device (800) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or to open the cover (100). The driving device (800) may be arranged to guide the cover (100) so that it does not protrude upward from the cooktop (10) while the cover (100) is in a position to open the suction port (12).
[0277] The driving device (800) may include a frame (810). The frame (810) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (800) may be mounted on the frame (810).
[0278] The driving device (800) may include a motor (820). The motor (820) may generate rotational force. The motor (820) may transmit the rotational force to a cam (830). For example, a motor shaft (821) of the motor (820) may be connected to the cam (830).
[0279] The driving device (800) may include a cam (830). The cam (830) may be connected to a motor (820). The cam (830) may receive rotational force from the motor (820). The cam (830) may rotate in conjunction with the motor (820).
[0280] The cam (830) may include a cam coupling portion (832) that is coupled with the motor shaft (821) of the motor (820). For example, the cam coupling portion (832) may be provided at the center of the cam (830).
[0281] The cam (830) may include a cam shaft (831) that is spaced apart from the cam coupling portion (832). As the cam (830) connected to the motor (820) rotates, the cam shaft (831) may rotate about the cam coupling portion (832). As the cam (830) connected to the motor (820) rotates, the cam shaft (831) may rotate about the motor shaft (821).
[0282] The driving device (800) may include a cable (870). The cable (870) may be connected to a cam (830). The cable (870) may be linked to the cam (830). The cable (870) may connect the cam (83) and a guide link (860) to be described later.
[0283] A first end of the cable (870) may be connected to a cam shaft (831). The first end of the cable (870) may be rotatable in conjunction with the cam shaft (831). A second end of the cable (870) may be connected to a guide link (860). The second end of the cable (870) may pull the guide link (860) as the first end of the cable (870) rotates. The guide link (860) may be configured to rotate while being pulled by the cable (870).
[0284] For example, the driving device (800) may include a first cable (871) connecting a motor (830) and a first guide link (860a). A first end (8711) of the first cable (871) may be connected to a cam shaft (831), and a second end (8712) of the first cable (871) may be connected to the first guide link (860a).
[0285] For example, the driving device (800) may include a second cable (872) connecting the motor (830) and the second guide link (860b). A first end (8721) of the second cable (872) may be connected to the cam shaft (831), and a second end (8722) of the second cable (872) may be connected to the second guide link (860b).
[0286] The driving device (800) may include a roller (840) configured to guide a cable (870). For example, the driving device (800) may include a first roller (841) for guiding a first cable (871). For example, the driving device (800) may include a second roller (842) for guiding a second cable (872).
[0287] The driving device (800) may include a bracket (850) configured to guide a cable (870) guided by a roller (840). For example, the driving device (800) may include a first bracket (851) for guiding a first cable (871). For example, the driving device (800) may include a second bracket (852) for guiding a second cable (872).
[0288] The driving device (800) may include a guide link (860). The guide link (860) may be arranged to rotate by a cable (870). One end of the guide link (860) may be connected to a second end of the cable (870). The other end of the guide link (860) may be connected to the cover panel (110). For example, the other end of the guide link (860) may be connected to the cover panel (110) via a holder (300A) or may be directly connected to the cover panel (110). The one end of the guide link (860) may be arranged to rotate around the other end of the guide link (860). As a result, the cover (100) connected to the guide link (860) may rotate to cover or open the suction port (12).
[0289] For example, the driving device (800) may include a first guide link (860a) connected to a first cable (871) and configured to rotate a first cover panel (110a). For example, the driving device (800) may include a second guide link (860b) connected to a second cable (872) and configured to rotate a second cover panel (110b).
[0290] The driving device (800) may include a spring (880) configured to elastically bias the cover panel (110). For example, the driving device (800) may include a first spring (880a) configured to elastically bias the first cover panel (110a). For example, the first spring (880a) may be configured to elastically bias the first guide link (860a). The first cover panel (110a) may be rotated by the first spring (880a) to cover the suction port (12). For example, the driving device (800) may include a second spring (880b) configured to elastically bias the second cover panel (110b). For example, the second spring (880b) may be configured to elastically bias the second guide link (860b). The second cover panel (110b) can be rotated to cover the suction port (12) by the second spring (880b).
[0291] The cooking device may include a holder (300A) for connecting one side of the cover panel (110) and the guide link (860). The cooking device may include a holder (300B) connected to the other side of the cover panel (110). The cooking device may include a fixing member (890) provided to fix the holder (300B) to the frame (810).
[0292] Fig. 35 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 36 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 35. Fig. 37 is a front view of a portion of the cooking appliance illustrated in Fig. 35.
[0293] In describing the embodiment illustrated in FIGS. 34 to 37, any overlapping content with the description of the embodiment illustrated in FIGS. 1 to 19 may be omitted. In addition, the description of the embodiment illustrated in FIGS. 1 to 19 may be applied to the description of the embodiment illustrated in FIGS. 34 to 37. The driving device (900) may perform substantially the same function as the driving device (200). The driving device (900) may replace the driving device (200) in the cooking appliance (1).
[0294] In one embodiment, the cooking appliance (1) may include a driving device (900). The driving device (900) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or to open the cover (100). The driving device (900) may be arranged to guide the cover (100) so that it does not protrude upward from the cooktop (10) while the cover (100) is in a position to open the suction port (12).
[0295] The driving device (900) may include a frame (910). The frame (910) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (900) may be mounted on the frame (910).
[0296] The driving device (900) may include a motor (920). The motor (920) may generate rotational force. The motor (920) may transmit the rotational force to a cam (930). For example, a motor shaft (921) of the motor (920) may be connected to the cam (930).
[0297] The driving device (900) may include a cam (930). The cam (930) may be connected to a motor (920). The cam (930) may receive rotational force from the motor (920). The cam (930) may rotate in conjunction with the motor (920).
[0298] The cam (930) may include a cam coupling portion (932) that is coupled with the motor shaft (921) of the motor (920). For example, the cam coupling portion (932) may be provided at the center of the cam (930).
[0299] The cam (930) may include a cam shaft (931) that is spaced apart from the cam coupling portion (932). As the cam (930) connected to the motor (920) rotates, the cam shaft (931) may rotate about the cam coupling portion (932). As the cam (930) connected to the motor (920) rotates, the cam shaft (931) may rotate about the motor shaft (921).
[0300] The driving device (900) may include a cable (970). The cable (970) may be connected to a cam (930). The cable (970) may be linked to the cam (930). The cable (970) may connect the cam (930) and a guide link (960) to be described later.
[0301] A first end (971) of the cable (970) may be connected to a cam shaft (931). The first end (971) of the cable (970) may be rotatable in conjunction with the cam shaft (931). A second end (972) of the cable (970) may be provided to be movable in a vertical direction (Z direction) by the rotation of the first end (971) of the cable (970). The second end (972) of the cable (970) may be provided to perform a linear reciprocating motion. The second end (972) of the cable (970) may be connected to a moving member (950) to be described later.
[0302] The driving device (900) may include a movable member (950). The movable member (950) may be connected to a cable (970). The movable member (950) may be arranged to move in conjunction with the cable (970). The movable member (950) may be connected to a second end (972) of the cable (970). The movable member (950) may be arranged to move in a vertical direction (Z direction) in conjunction with the second end (972) of the cable (970). The movable member (950) may be arranged to reciprocate linearly together with the second end (972) of the cable (970).
[0303] The movable member (950) may be arranged to pressurize the guide link (960) as it moves along the vertical direction (Z direction). For example, one end of the guide link (960) may be inserted into the movable member (950).
[0304] For example, the moving member (950) may include a cable coupling portion (951) having a protruding shape to be connected to the second end (972) of the cable (970).
[0305] The driving device (900) may include a guide link (960). The guide link (960) may be configured to rotate when pressed by the moving member (950). One end (961) of the guide link (960) may be configured to rotate about the other end (962) of the guide link (960). Accordingly, the cover (100) connected to the guide link (960) may rotate to cover or open the suction port (12).
[0306] For example, the driving device (900) may include a first guide link (960a) connecting the moving member (950) and the first cover panel (110a). For example, the first guide link (960a) may rotate the first cover panel (110a). For example, the driving device (900) may include a second guide link (960b) connecting the moving member (950) and the second cover panel (110b). For example, the second guide link (960a) may rotate the second cover panel (110b).
[0307] The driving device (900) may include a spring (940). The spring (940) may be configured to elastically bias the moving member (950). For example, as the spring (940) elastically biases the moving member (950), the guide link (960) connected to the moving member (950) may rotate. The cover (100) connected to the guide link (960) may rotate to cover the suction port (12). For example, the spring (940) may be configured as a compression spring.
[0308] For example, the upper part (941) of the spring (940) can be fixed to a spring fixing part (952) formed on a movable member (950). For example, the lower part (942) of the spring (940) can be fixed to a spring fixing part (981) formed on a spring cover member (980) to be described later.
[0309] The driving device (900) may include a spring cover member (980). The spring cover member (980) may be provided to cover the spring (940). The spring cover member (980) may be detachably coupled to the front of the moving member (950). The spring cover member (980) and the moving member (950) may be coupled to each other to form a space for accommodating the spring (940).
[0310] The cooking device may include a holder (300A) for connecting one side of the cover panel (110) and the guide link (960). The cooking device may include a holder (300B) connected to the other side of the cover panel (110). The cooking device may include a fixing member (990) provided to fix the holder (300B) to the frame (910).
[0311] Fig. 38 is a perspective view of a portion of a cooking appliance according to one embodiment. Fig. 39 is a schematic exploded view of a portion of the cooking appliance illustrated in Fig. 38. Fig. 40 is a front view of a portion of the cooking appliance illustrated in Fig. 38.
[0312] In one embodiment, the cooking appliance (1) may include a driving device (1000). The driving device (1000) may rotate the cover (100), thereby causing the cover (100) to cover the suction port (12) or to open the cover (100). The driving device (1000) may be arranged to guide the cover (100) so that the cover (100) does not protrude upward from the cooktop (10) while in a position to open the suction port (12).
[0313] The driving device (1000) may include a frame (1010). The frame (1010) may guide air introduced through the intake port (12) to the hood (20). Various components of the driving device (1000) may be mounted on the frame (1010).
[0314] The driving device (1000) may include a motor (1020). The motor (1020) may generate rotational force. The motor (1020) may transmit the rotational force to a cam (1030). For example, a motor shaft (1021) of the motor (1020) may be connected to the cam (1030).
[0315] The driving device (1000) may include a cam (1030). The cam (1030) may be connected to a motor (1020). The cam (1030) may receive rotational force from the motor (1020). The cam (1030) may rotate in conjunction with the motor (1020).
[0316] The cam (1030) may include a cam coupling portion (1032) that is coupled with the motor shaft (1021) of the motor (1020). For example, the cam coupling portion (1032) may be provided at the center of the cam (1030).
[0317] The cam (1030) may include a cam shaft (1031) that is spaced apart from a cam coupling (1032). As the cam (1030) connected to the motor (1020) rotates, the cam shaft (1031) may rotate about the cam coupling (1032). As the cam (1030) connected to the motor (1020) rotates, the cam shaft (1031) may rotate about the motor shaft (1021).
[0318] The driving device (1000) may include a connecting rod (1040). The connecting rod (1040) may be connected to a cam (1030). The connecting rod (1040) may be arranged to move in conjunction with the cam (1030).
[0319] A first end (1041) of a connecting rod (1040) may be connected to a camshaft (1031). The first end (1041) of the connecting rod (1040) may be rotatable in conjunction with the camshaft (1031). A second end (1042) of the connecting rod (1040) may be provided to be movable in a vertical direction (Z direction) by the rotation of the first end (1041) of the connecting rod (1040). The second end (1042) of the connecting rod (1040) may be provided to perform a linear reciprocating motion. The second end (1042) of the connecting rod (1040) may be connected to a movable member (1050).
[0320] The driving device (1000) may include a movable member (1050). The movable member (1050) may be connected to a connecting rod (1040). The movable member (1050) may be arranged to move in conjunction with the connecting rod (1040). The movable member (1050) may be connected to a second end (1042) of the connecting rod (1040). The movable member (1050) may be arranged to move in a vertical direction (Z direction) in conjunction with the second end (1042) of the connecting rod (1040). The movable member (1050) may be arranged to reciprocate linearly together with the second end (1042) of the connecting rod (1040).
[0321] The movable member (1050) may be arranged to pressurize the guide link (1060) as it moves along the vertical direction (Z direction). For example, one end (1061) of the guide link (1060) may be inserted into the movable member (1050).
[0322] The driving device (1000) may include a guide link (1060). The guide link (1060) may be configured to rotate when pressed by the moving member (1050). One end (1061) of the guide link (1060) may be configured to rotate about the other end (1062) of the guide link (1060). Accordingly, the cover (100) connected to the guide link (1060) may rotate to cover or open the suction port (12).
[0323] For example, the driving device (1000) may include a first guide link (1060a) connecting the moving member (1050) and the first cover panel (110a). For example, the first guide link (1060a) may rotate the first cover panel (110a). For example, the driving device (1000) may include a second guide link (1060b) connecting the moving member (1050) and the second cover panel (110b). For example, the second guide link (1060a) may rotate the second cover panel (110b).
[0324] The driving device (1000) may include a spring (1070). The spring (1070) may be configured to elastically bias the movable member (1050). For example, as the spring (1070) elastically biases the movable member (1050), the guide link (1060) connected to the movable member (1050) may rotate. The cover (100) connected to the guide link (1060) may rotate to cover the suction port (12). For example, the spring (1070) may be configured as a tension spring.
[0325] The cooking appliance may include a holder (300A) for connecting one side of the cover panel (110) to a guide link (1060). The cooking appliance may include a holder (300B) for fixing the other side of the cover panel (110) to a frame (1010).
[0326] A cooking appliance according to one embodiment may include a cooktop (10) including a plate (11) on which a cooking vessel is placed, and an intake port (12) formed in the plate (11); a hood (20) arranged under the plate (11) to guide air introduced through the intake port (12); a cover (100) movable between a first position (P1) covering the intake port (12) and a second position (P2) opening the intake port (12); and a driving device (200, 400, 500, 600, 700, 800, 900, 1000) for moving the cover (100). The above driving device (200, 400, 500, 600, 700, 800, 900, 1000) may be provided to guide the cover (100) so as to prevent the cover (100) from protruding upwards from the plate (11) while the cover (100) is in the second position (P2).
[0327] While the cover (100) moves from the first position (P1) to the second position (P2), the driving device (200, 400, 500, 600, 700, 800, 900, 1000) can guide a part of the cover (100) to move downward.
[0328] The cover may include a first cover panel (110a) rotatable about a first rotation axis (O1). The cover may include a second cover panel (110b) rotatable about a second rotation axis (O2) spaced apart from the first rotation axis (O1).
[0329] The driving device may include a first guide link (260a, 560a, 660a, 860a, 960a, 1060a) configured to rotate the first cover panel (110a) in a first direction (R1) about the first rotation axis (O1). The driving device may include a second guide link (260b, 560b, 660b, 860b, 960b, 1060b) configured to rotate the second cover panel (110b) in a second direction (R2) opposite to the first direction about the second rotation axis (O2).
[0330] The driving device may include a first spring (270a, 880a) configured to elastically bias the first guide link in the second direction. The driving device may include a second spring (270b, 880b) configured to elastically bias the second guide link in the first direction.
[0331] The driving device may include a motor (220, 420, 520, 620, 720, 820, 920, 1020). The driving device may include a connecting rod (240, 540, 640, 1040). The connecting rod (240, 540, 640, 1040) may include a first end rotatable about a motor shaft of the motor. The connecting rod (240, 540, 640, 1040) may include a second end movable in a vertical direction by rotation of the first end. The driving device may include a moving member (250, 550, 650, 950, 1050) linked to the second end of the connecting rod and movable in a vertical direction. The above moving member (250, 550, 650, 950, 1050) may be provided to pressurize the first guide link and the second guide link.
[0332] The cooking device may include a first holder (300a) that forms the first rotation axis (O1) of the first cover panel (110a) and is provided to connect the first cover panel and the first guide link. The cooking device may include a second holder (300b) that forms the second rotation axis (O2) of the second cover panel (110b) and is provided to connect the second cover panel and the second guide link.
[0333] While the cover is in the first position (P1), a gap (g) can be formed between the first cover panel (110a) and the second cover panel (110b).
[0334] The first rotation axis (O1) may be positioned below the horizontal center line of the first cover panel (110a) and further from the second cover panel than the vertical center line of the first cover panel (110a) while the cover is in the first position.
[0335] The second rotation axis (O2) may be positioned lower than the horizontal center line of the second cover panel (110b) and further from the first cover panel than the vertical center line of the second cover panel (110b) while the cover is in the first position.
[0336] The first cover panel (110a) may include a first upper portion (115a) that is exposed to the outside of the cooktop (10) through the suction port (12) while the cover is at the first position (P1). The second cover panel (110b) may include a second upper portion (115b) that is exposed to the outside of the cooktop (10) through the suction port (12) while the cover is at the first position (P1). The first upper portion (115a) of the first cover panel and the second upper portion (115b) of the second cover panel may be arranged to face each other while the cover is at the second position (P2).
[0337] The first cover panel (110a) may include a first edge portion (111a) adjacent to the second cover panel and a second edge portion (112a) provided on an opposite side to the first edge portion (111a) while the cover is at the first position (P1). The second cover panel (110b) may include a third edge portion (111b) adjacent to the first cover panel and a fourth edge portion (112b) provided on an opposite side to the third edge portion while the cover is at the first position (P1). The above driving device (200, 400, 500, 600, 700, 800, 900, 1000) can guide the first edge portion (111a) and the third edge portion (111b) to move downward while the cover moves from the first position (P1) to the second position (P2).
[0338] The first cover panel (110a) and the second cover panel (110b) may be arranged symmetrically with respect to the vertical center line (V) of the suction port (12). The distance of the gap is expressed by the relation Here, W is the width of the first cover panel, H is the thickness of the first cover panel, L1 is the shortest distance between the vertical center line of the first cover panel and the first rotation axis, L2 is the shortest distance between the first cover panel and the first rotation axis, and L3 may be the distance of the gap formed between the first cover panel and the second cover panel.
[0339] The shortest distance between the first cover panel (110a) and the first rotation axis (O1) may satisfy the relationship L2 ≥ W / 2 - H - L1. Here, W is the width of the first cover panel, H is the thickness of the first cover panel, L1 is the shortest distance between the vertical center line of the first cover panel and the first rotation axis, and L2 may be the shortest distance between the first cover panel and the first rotation axis.
[0340] The shortest distance between the second cover panel (110b) and the second rotation axis (O2) may satisfy the relationship L2 ≥ W / 2 - H - L1. Here, W is the width of the second cover panel, H is the thickness of the second cover panel, L1 is the shortest distance between the vertical center line of the second cover panel and the second rotation axis, and L2 may be the shortest distance between the second cover panel and the second rotation axis.
[0341] A cooking appliance according to one embodiment comprises: a plate (11) provided to place a cooking vessel; an intake port (12) formed in the plate; a hood (20) provided to discharge air introduced through the intake port, the hood including a chamber housing (30) provided under the plate and a fan (51) provided inside the chamber housing to force air to flow; a cover (100) provided to cover or open the intake port, the cover including a first cover panel (110a) and a second cover panel (110b); a first guide link (260a, 560a, 660a, 860a, 960a, 1060a) provided to rotate the first cover panel (110a) in a first direction (R1) about a first rotation axis (O1); and a second guide link (260b, 560b, 660b, 860b, 960b, 1060b) configured to rotate the second cover panel (110b) in a second direction (R2) opposite to the first direction about the second rotation axis (O2).
[0342] The above cooking device may further include a frame (210) provided to guide air introduced through the suction port (12) to the hood (20). The frame (210) may include a first insertion hole (2161a) corresponding to the first rotation axis (O1) and a second insertion hole (2161b) corresponding to the second rotation axis (O2).
[0343] The cooking device may further include a first holder (300a) inserted into the first insertion hole (2161a), one end of which is connected to the first guide link and the other end of which is connected to the first cover panel (110a); and a second holder (300b) inserted into the second insertion hole (2161b), one end of which is connected to the second guide link and the other end of which is connected to the second cover panel (110b).
[0344] A gap (g) may be formed between the first cover panel (110a) and the second cover panel (110b).
[0345] The above gap (g) may be determined according to the position of the first rotation axis (O1) and the position of the second rotation axis (O2).
[0346] According to the present disclosure, the cooking environment can be improved.
[0347] According to the present disclosure, the usability of a cooking appliance can be improved.
[0348] According to the present disclosure, the risk of damage to the cooking appliance can be reduced.
[0349] According to the present disclosure, since the cover is arranged so as not to protrude upwards from the cooktop, the cover and the cooking vessel placed on the cooktop may not interfere with each other.
[0350] According to the present disclosure, as a gap is formed between the first cover panel and the second cover panel, the first cover panel and the second cover panel may not interfere with each other.
[0351] According to one aspect of the present disclosure, a cooking appliance is provided, comprising: a cooktop including a plate on which a cooking vessel is placed, and an intake port formed in the plate; a hood disposed under the plate and configured to guide air introduced through the intake port; a cover movable between a first position covering the intake port and a second position opening the intake port; and a driving device for moving the cover; wherein the driving device is configured to guide the cover so as to prevent the cover from protruding upwards from the plate while in the second position.
[0352] While the cover is in the second position, the cover can be prevented from protruding beyond the plate, thereby preventing the cover from interfering with the cooking vessel placed on the plate. This reduces the risk of damage to the cover, improves the mobility of the cooking vessel, and enhances the usability of the cooking appliance.
[0353] In the cooking appliance according to the above aspect, while the cover is moved from the first position to the second position, the driving device can guide a portion of the cover to move downward. By moving a portion of the cover downward, the risk of a portion of the cover protruding above the plate height can be further reduced.
[0354] In the cooking appliance according to the above aspect, the cover may include a first cover panel rotatable about a first rotation axis; and a second cover panel rotatable about a second rotation axis spaced apart from the first rotation axis. By providing a cover including the first cover panel and the second cover panel, the risk of a portion of the cover protruding above the plate height when the cover is in the second position can be further reduced.
[0355] In the cooking appliance according to the above aspect, a gap may be formed between the first cover panel and the second cover panel while the cover is in the first position. By providing a gap between the first cover panel and the second cover panel, the risk of interference between the first cover panel and the second cover panel during operation of the cooking appliance may be reduced.
[0356] In the cooking appliance according to the above aspect, the first rotation axis may be located below the horizontal center line of the first cover panel and further from the second cover panel than the vertical center line of the first cover panel while the cover is in the first position.
[0357] In the cooking appliance according to the above aspect, the second rotation axis may be located below the horizontal center line of the second cover panel and further from the first cover panel than the vertical center line of the second cover panel while the cover is in the first position.
[0358] By positioning the first and second rotation axes respectively below the first and second cover panels, and further away from each other and the respective vertical center lines, the upwardly rising portion of the cover can be made smaller when the cover is moved from the first position to the second position.
[0359] In the cooking appliance according to the above aspect, the first cover panel may include a first upper portion exposed to the outside of the cooktop through the suction port while the cover is in the first position, and the second cover panel may include a second upper portion exposed to the outside of the cooktop through the suction port while the cover is in the first position, and the first upper portion of the first cover panel and the second upper portion of the second cover panel are arranged to face each other while the cover is in the second position.
[0360] By arranging the upper portions of the first cover panel and the second cover panel so that they face each other at the second position, the portion of the inlet opened by the cover can be maximized.
[0361] In the cooking appliance according to the above aspect, the first cover panel may include a first edge portion adjacent to the second cover panel and a second edge portion provided on an opposite side to the first edge portion while the cover is in the first position, the second cover panel may include a third edge portion adjacent to the first cover panel and a fourth edge portion provided on an opposite side to the third edge portion while the cover is in the first position, and the driving device guides the first edge portion and the third edge portion to move downward while the cover is moved from the first position to the second position.
[0362] In the cooking appliance according to the above aspect, the first cover panel and the second cover panel may be arranged to be symmetrical with respect to the vertical center line of the suction port, and the distance of the gap may satisfy the following relationship.
[0363] [Relationship]
[0364] W: Width of the first cover panel
[0365] H: Thickness of the first cover panel
[0366] L1: Shortest distance between the vertical center line of the first cover panel and the first rotation axis
[0367] L2: Shortest distance between the first cover panel and the first rotation axis
[0368] L3: Distance of the gap formed between the first cover panel and the second cover panel
[0369] When the distance (L3) of the above gap satisfies the above relationship, the risk of collision between the first cover panel and the second cover panel can be minimized.
[0370] In the cooking appliance according to the above aspect, the shortest distance between the first cover panel and the first rotation axis can satisfy the following relationship.
[0371] [Relationship] L2 ≥ W / 2 - H - L1
[0372] W: Width of the first cover panel
[0373] H: Thickness of the first cover panel
[0374] L1: Shortest distance between the vertical center line of the first cover panel and the first rotation axis
[0375] L2: Shortest distance between the first cover panel and the first rotation axis
[0376] When the shortest distance (L2) between the first cover panel and the first rotation axis satisfies the above relationship, the risk of the first cover panel protruding above the plate while the cover is in the second position (P2) can be minimized.
[0377] In the cooking appliance according to the above aspect, the shortest distance between the second cover panel and the second rotation axis can satisfy the following relationship.
[0378] [Relationship] L2 ≥ W / 2 - H - L1
[0379] W: Width of the second cover panel
[0380] H: Thickness of the second cover panel
[0381] L1: Shortest distance between the vertical center line of the second cover panel and the second rotation axis
[0382] L2: Shortest distance between the second cover panel and the second rotation axis
[0383] When the shortest distance (L2) between the second cover panel and the second rotation axis satisfies the above relationship, the risk of the second cover panel protruding above the plate while the cover is in the second position (P2) can be minimized.
[0384] In the cooking appliance according to the above aspect, the driving device may further include a motor; and means configured to convert a rotational force of the motor into a force guiding a portion of the cover to move downward while the cover moves from the first position to the second position. For example, the means may be configured to rotate the first cover panel about the first rotational axis and rotate the second cover panel about the second rotational axis while the cover moves from the first position to the second position. Exemplary embodiments of such driving devices are presented in the embodiments disclosed in FIGS. 1 to 19, 20 to 22, 23 to 25, 26 to 28, 29 to 31, 32 to 34, 35 to 37, and 38 to 40, respectively, and in the corresponding portions of the present description.
[0385] In the cooking appliance according to the above aspect, the driving device may include a first guide link configured to rotate the first cover panel in a first direction about the first rotation axis; and a second guide link configured to rotate the second cover panel in a second direction about the second rotation axis, wherein the second direction is opposite to the first direction.
[0386] In the cooking appliance according to the above aspect, the driving device may include a first spring configured to elastically bias the first guide link in the second direction; and a second spring configured to elastically bias the second guide link in the first direction.
[0387] In the cooking appliance according to the above aspect, the driving device may include a connecting rod including a first end rotatable about a motor shaft of the motor and a second end movable in a vertical direction by rotation of the first end; and a moving member that is linked to the second end of the connecting rod and is movable in a vertical direction, and is provided to press the first guide link and the second guide link.
[0388] In the cooking appliance according to the above aspect, the cooking appliance may further include a first holder that forms the first rotation axis of the first cover panel and is provided to connect the first cover panel and the first guide link; and a second holder that forms the second rotation axis of the second cover panel and is provided to connect the second cover panel and the second guide link.
[0389] Because many features (except those of the independent claims) are merely optional, features of the preferred embodiments or aspects disclosed herein are described with the term "may." Nevertheless, it should be understood that the preferred embodiments or aspects are disclosed in specific preferred combinations, as illustrated in the drawings, and thus, while the features depicted in the drawings should be understood as actual preferred combinations for the present invention, they do not limit the scope of the present invention.
[0390] The effects that can be obtained from the present disclosure are not limited to the effects mentioned above, and other effects that are not mentioned can be clearly understood by a person having ordinary skill in the art to which the present disclosure belongs from the description below.
[0391] The above illustrates and describes specific embodiments. However, the invention is not limited to the above-described embodiments, and those skilled in the art will readily appreciate that various modifications and implementations can be made without departing from the spirit and scope of the invention as set forth in the claims below.
Claims
1. A cooktop including a plate on which a cooking container is placed and a suction port formed in the plate; A hood arranged below the plate and configured to guide air flowing in through the intake port; a cover movable between a first position covering the suction port and a second position opening the suction port; and Including a driving device for moving the above cover; A cooking appliance in which the driving device is arranged to guide the cover so as to prevent the cover from protruding upwards beyond the plate while the cover is in the second position.
2. In paragraph 1, While the above cover moves from the first position to the second position, A cooking appliance in which the above driving device guides a part of the cover to move downward.
3. In paragraph 1, The above cover, a first cover panel rotatable about a first rotation axis; and A cooking appliance comprising a second cover panel rotatable about a second rotational axis spaced from the first rotational axis.
4. In paragraph 3, A cooking appliance wherein a gap is formed between the first cover panel and the second cover panel while the cover is in the first position.
5. In any one of paragraphs 3 to 4, The above first rotation axis is, A cooking appliance wherein the cover is positioned lower than the horizontal center line of the first cover panel and further from the second cover panel than the vertical center line of the first cover panel while the cover is in the first position.
6. In any one of paragraphs 3 to 5, The above second rotation axis is, A cooking appliance wherein the cover is positioned lower than the horizontal center line of the second cover panel and further from the first cover panel than the vertical center line of the second cover panel while the cover is in the first position.
7. In any one of paragraphs 3 to 6, The first cover panel includes a first upper portion that is exposed to the outside of the cooktop through the suction port while the cover is in the first position, The second cover panel includes a second upper portion that is exposed to the outside of the cooktop through the suction port while the cover is in the first position; A cooking appliance wherein the first upper portion of the first cover panel and the second upper portion of the second cover panel are positioned to face each other while the cover is in the second position.
8. In any one of paragraphs 3 to 7, The above first cover panel, While the cover is in the first position, it includes a first edge portion adjacent to the second cover panel and a second edge portion provided on the opposite side to the first edge portion, The above second cover panel, While the cover is in the first position, it includes a third edge portion adjacent to the first cover panel and a fourth edge portion provided on the opposite side to the third edge portion, The above driving device, A cooking appliance that guides the first edge portion and the third edge portion to move downward while the cover moves from the first position to the second position.
9. In paragraph 4, The first cover panel and the second cover panel are arranged symmetrically with respect to the vertical center line of the suction port, A cooking appliance in which the distance of the above gap satisfies the following relationship. [Relationship] W: Width of the first cover panel H: Thickness of the first cover panel L1: Shortest distance between the vertical center line of the first cover panel and the first rotation axis L2: Shortest distance between the first cover panel and the first rotation axis L3: Distance of the gap formed between the first cover panel and the second cover panel 10. In any one of paragraphs 3 to 9, A cooking appliance in which the shortest distance between the first cover panel and the first rotation axis satisfies the following relationship. [Relationship] L2 ≥ W / 2 - H - L1 W: Width of the first cover panel H: Thickness of the first cover panel L1: Shortest distance between the vertical center line of the first cover panel and the first rotation axis L2: Shortest distance between the first cover panel and the first rotation axis 11. In any one of paragraphs 3 to 10, A cooking appliance in which the shortest distance between the second cover panel and the second rotation axis satisfies the following relationship. [Relationship] L2 ≥ W / 2 - H - L1 W: Width of the second cover panel H: Thickness of the second cover panel L1: Shortest distance between the vertical center line of the second cover panel and the second rotation axis L2: Shortest distance between the second cover panel and the second rotation axis 12. In any one of paragraphs 2 to 11, The above driving device, motor; and A cooking appliance comprising: a means configured to convert the rotational force of the motor into a force guiding a portion of the cover to move downward while the cover moves from the first position to the second position; 13. In paragraph 12, The above driving device, A first guide link configured to rotate the first cover panel in a first direction about the first rotation axis; and A second guide link is provided to rotate the second cover panel in a second direction about the second rotation axis; A cooking appliance wherein the second direction is opposite to the first direction.
14. In paragraph 12 or 13, The above driving device, A connecting rod including a first end rotatable about a motor shaft of the motor and a second end movable in a vertical direction by rotation of the first end; and A cooking appliance including a movable member that is connected to the second end of the connecting rod and is capable of moving in a vertical direction, and is provided to pressurize the first guide link and the second guide link.
15. In any one of paragraphs 12 to 14, A first holder that forms the first rotation axis of the first cover panel and is provided to connect the first cover panel and the first guide link; and A cooking appliance comprising a second holder forming the second rotation axis of the second cover panel and providing a connection between the second cover panel and the second guide link.
Citation Information
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