Microwaveable units and methods thereof

Abstract

Disclosed is microwaveable unit (100, 204, 300, 600, 702, 900, 1000) comprising: body (102, 902, 1002) having base portion (BP) (112, 202, 304, 412) having raised central part (114), first opening (116); wall portion (118, 302) extending from periphery of BP to define internal space (120); and second opening (122, 312) at upper end, rotational coupling element (104, 606, 904, 1004) having elongate portion (124, 910) with slots (128a-b), flange portion (126) at first end; adaptor element (106, 200, 408, 906, 1006) having first projecting tabs (130a-b) corresponding to slots, and second projecting tabs (132a-c, 208a-c, 210a-c) corresponding to rotational mechanism of microwave (400, 614); stirring element (108, 406, 500a-d, 602, 706, 908, 1008) comprising central portion (134, 502a-d, 704, 916) and arms (136a-b, 504a-h); and securing element (110, 410, 604, 700), wherein microwaveable unit further comprises anti-rotation base element fixed (414) on floor of cavity of microwave.

Description

[0001] MICROWAVEABLE UNITS AND METHODS THEREOF

[0002] TECHNICAL FIELD

[0003] The present disclosure relates to microwaveable units. Moreover, the present disclosure relates to methods for assembling microwaveable units.

[0004] BACKGROUND

[0005] In recent years, there have been significant advancements in the field of microwaves that are utilized for heating and / or cooking food, such that the microwaves have become a staple kitchen appliance in households worldwide. However, despite their convenience, existing microwaves have certain limitations associated therewith.

[0006] The existing microwaves use a rotating turntable mechanism, wherein the rotating turntable mechanism rotates a food container with the food inside said food container. Thus, the food remains stationary within the food container. Herein, when using the existing microwaves, there is interaction with water molecules present in the food to generate water vapour. Despite an ability of the existing microwaves to heat up the water vapour and penetrate into the food, such microwaves have a limited penetration depth of approximately 1 to 1.5 inches (i.e., 25.4 millimeters to 38.1 millimeters) into the food. At penetration depths exceeding the limited penetration depth, the food is not heated in an efficient manner, leading to formation of cold pockets. Such cold pockets can harbour bacteria, potentially leading to illness post-consumption. While flatbed microwaves have emerged as a popular alternative, they still rotate the heat source, leading to non-uniform cooking. Additionally, radio frequency (RF) ovens, while potentially competitive, are expensive and relatively untested, presenting limitations in their widespread adoption.

[0007] Therefore, in light of the foregoing discussion, there exists a need to overcome the aforementioned drawbacks.

[0008] SUMMARY

[0009] The aim of the present disclosure is to provide a microwaveable unit and a method for assembling the microwaveable unit to evenly cook and / or heat a food substance. The aim of the present disclosure is achieved by a microwaveable unit, and a method for assembling the microwaveable unit, as defined in the appended independent claims to which reference is made to. Advantageous features are set out in the appended dependent claims.

[0010] Throughout the description and claims of this specification, the words "comprise" , "include", "have", and "contain" and variations of these words, for example "comprising" and "comprises" , mean "including but not limited to", and do not exclude other components, items, integers or steps not explicitly disclosed also to be present. Moreover, the singular encompasses the plural unless the context otherwise requires. In particular, where the indefinite article is used, the specification is to be understood as contemplating plurality as well as singularity, unless the context requires otherwise.

[0011] BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 illustrates an exploded perspective view of a microwaveable unit, in accordance with an embodiment of the present disclosure;

[0012] FIGs. 2A and 2B collectively illustrate different implementations of an adaptor element, in accordance with an embodiment of the present disclosure; FIGs. 3A and 3B illustrate different shapes of a wall portion of a microwaveable unit, in accordance with an embodiment of the present disclosure;

[0013] FIG. 4 illustrates an exemplary arrangement of the microwaveable unit of FIG. 3A inside a microwave, in accordance with an embodiment of the present disclosure;

[0014] FIGs. 5A, 5B, 5C, and 5D illustrate exemplary stirring elements, in accordance with an embodiment of the present disclosure;

[0015] FIG. 6 illustrates an exemplary scenario of a microwaveable unit when in use, in accordance with an embodiment of the present disclosure; FIG. 7 illustrates an exemplary implementation of a securing element used in a microwaveable unit, in accordance with an embodiment of the present disclosure;

[0016] FIG. 8 illustrates steps of a method for assembling a microwaveable unit, in accordance with an embodiment of the present disclosure;

[0017] FIG. 9 illustrates an exploded view of an exemplary microwaveable unit, in accordance with an embodiment of the present disclosure; and FIG. 10 illustrates an exploded view of an exemplary microwaveable unit, in accordance with an embodiment of the present disclosure.

[0018] DETAILED DESCRIPTION OF EMBODIMENTS

[0019] The following detailed description illustrates embodiments of the present disclosure and ways in which they can be implemented. Although some modes of carrying out the present disclosure have been disclosed, those skilled in the art would recognize that other embodiments for carrying out or practising the present disclosure are also possible.

[0020] In a first aspect, the present disclosure provides a microwaveable unit comprising: - a body having

[0021] - a base portion having a raised central part and a first opening in a centre of the raised central part;

[0022] - a wall portion extending upwardly from a periphery of the base portion to define an internal space of the body; and

[0023] - a second opening at an upper end of the wall portion, wherein the upper end of the wall portion is opposite to the base portion; - a rotational coupling element having an elongate portion designed to pass through the first opening, and a flange portion at a first end of the elongate portion, wherein the elongate portion has a plurality of slots in proximity of a second end of the elongate portion;

[0024] - an adaptor element having

[0025] - a plurality of first projecting tabs corresponding to the plurality of slots, and

[0026] - a plurality of second projecting tabs corresponding to a rotational mechanism of a microwave, said rotational mechanism being provided on a floor of a cavity of the microwave;

[0027] - a stirring element comprising a central portion and a plurality of arms extending from the central portion; and

[0028] - a securing element designed to secure the stirring element with the rotational coupling element,

[0029] wherein the microwaveable unit further comprises an anti-rotation base element fixed on the floor of the cavity of the microwave.

[0030] The present disclosure provides the aforementioned microwaveable unit which facilitates uniform distribution of heat in a food substance when placed in a microwave. The microwaveable unit includes the base portion and wall portion which together properly defines the shape of the microwaveable unit. The shape of the wall portion determines the internal space available for the food substance. A larger internal space allows for larger quantities of food to be cooked or heated at once. The rotational coupling element is coupled with the stirring element which is used to stir the food substance in a uniform and consistent manner, thereby reducing a likelihood of cold spots. Furthermore, quality of the food substance is maintained, as there is less overcooking and therefore less mineral loss and / or vitamin loss upon cooking. The plurality of arms of the stirring element helps to stir the food substance and ensures that all parts of the food substance receive heat evenly, thus reducing a chance of undercooking and / or underheating the food substance. Furthermore, the microwaveable unit is easy to clean, wherein the securing element is removably attached with the stirring element and the rotational coupling element. This makes it convenient for users assemble and use the microwaveable unit, and can be conveniently disassembled for cleaning. Additionally, the microwaveable unit can accommodate a variety of food substances. The aforementioned microwaveable unit is simple, robust, and easy to use.

[0031] In a second aspect, the present disclosure provides a method comprising:

[0032] - assembling a microwaveable unit according to first aspect; and

[0033] - providing rotational signal to the microwaveable unit when in use, wherein at least a rotational coupling element, an adaptor element, and a stirring element of the microwaveable unit rotate, while a body of the microwaveable unit remains stationary and rests on a floor of a cavity of a microwave.

[0034] The present disclosure provides the aforementioned method for assembling the microwaveable unit. The method ensures that by rotating at least the stirring element, the rotational coupling element, and the adaptor element while keeping the body of the microwaveable unit stationary, the food substance is uniformly exposed to heat. This promotes uniform distribution of heat throughout the food substance, reducing the likelihood of cold spots and improving overall cooking and / or heating performance. Herein, the microwaveable unit is arranged on the floor of the cavity in the microwave, by removing a turntable from the rotational mechanism on which said turntable was arranged. Hence, cooking and / or heating of the food substance is simplified due to provision of rotational signal. When in use, the body of the microwaveable unit remains stationary, which reduces wear and tear and ensures longevity of said microwaveable unit. Moreover, the method helps to ensure that the food substance is cooked thoroughly, reducing the risk of foodborne illnesses associated. Furthermore, the method can be applied to a variety of food substances. The aforementioned method is simple, robust, effective and can be implemented with ease.

[0035] Throughout the present disclosure the term ''microwaveable unit'' refers to a container specifically designed for use within the microwave. The microwaveable unit facilitates cooking, heating, and / or reheating of a food substance. Moreover, the microwaveable unit is arranged on a floor inside the cavity of the microwave, wherein said microwaveable unit facilitates stirring of the food substance, when the microwave is in use. Such stirring of the food substance allows heat to be distributed uniformly throughout the food substance, thereby enabling the food substance to cook uniformly without formation of any cold pockets. Herein, the formation of cold pockets in the food substance results in bacteria which can cause foodborne illnesses after consumption. Herein, the food substance is any one of: a liquid food substance, a semi-solid food substance. A technical benefit of this configuration of the microwaveable unit is that while microwaving the food substance, said food substance is exposed to a source of heat energy within the microwave in a uniform manner, thereby killing any bacteria that could be present in the food substance. Additionally, such exposure helps to preserve nutritional value of the food substance, as nutrients are less likely to be lost while using the microwaveable unit in the microwave. It will be appreciated that the microwaveable unit could be of different sizes based on at least one of: a type of the microwave, an end consumer and requirement of the end consumer. Examples of the types of microwaves may include, but are not limited to, a countertop microwave, an over-the-range microwave, a built-in microwave, a compact microwave, a combination microwave, or a commercial microwave model. Moreover, the end consumer could be a single user (i.e., an individual) or a family (i.e., a group of people). Based on this, the consumer needs could differ, i.e., a single user could a prefer a microwaveable unit that is compact, a family could prefer a microwavable unit that is large enough for heating food t feed multiple people.

[0036] Throughout the present disclosure, the term "body" refers to an outer structure of the microwaveable unit, wherein the body defines a shape of the microwaveable unit. The body provides support and protection to other components (for example, such as, the rotational coupling element, the stirring element, the securing element, the adaptor element). Moreover, the body is designed in such a manner so as to withstand heat inside the cavity of the microwave when in use, and heat generated during the cooking of the food substance. Optionally, a material used for manufacturing the body of the microwaveable unit is any one of: a microwave-safe glass material, a microwave-safe ceramic material, a microwave-safe wooden material, a microwave-safe plastic material. Examples of the microwave-safe glass material may include, but are not limited to, borosilicate glass, tempered glass, and soda-lime glass. Examples of the microwave-safe ceramic material may include, but are not limited to, porcelain, stoneware, and earthenware. Moreover, the microwave-safe wooden material comprises a layer of food-safe coating, for example, such as a mineral oil coating, a beeswax coating, a polyurethane coating, an acrylic coating, a polyethylene coating, and similar. Examples of the microwave-safe plastic material may include, but are not limited to, polypropylene, high-density polyethylene, and polyester. Herein, manufacturing the microwaveable unit using such material enables the microwaveable unit to be used multiple times.

[0037] The body has the base portion, wherein the term "base portion" refers to that part that is in contact with the floor of the cavity of the microwave, when the microwaveable unit is placed inside said cavity. Moreover, the raised central part of the base portion is a raised platform extending upwards from the center of the base portion, wherein this raised platform is flat on the top. This raised central part of the body provides a support to the rotational coupling element, the stirring element, and the securing element. Furthermore, the first opening in the center of this raised central part serves as a passage for the rotational coupling element to pass through, when the microwaveable unit is assembled. Optionally, the first opening is circular in shape.

[0038] Optionally, a side of the base portion is towards the floor of the cavity of the microwave, which in use, said side of the base portion rests on the floor of the microwave, wherein the body further comprises an anti-slipping element on that side of the base portion. In this regard, the side of the base portion is arranged on the floor of the cavity of the microwave, such that said side of the base portion supports the microwaveable unit to stand upright in the cavity of the microwave when in use. Moreover, the side of the base portion comprises the anti-slipping element, which helps to keep the microwaveable unit stable and prevents said microwaveable unit from sliding or slipping when in use. The anti-slipping element could be made of a material having a high coefficient of friction to provide a better grip. Examples of such materials may include, but are not limited to, rubber, silicone, thermoplastic elastomer. Furthermore, the anti-slipping element creates friction between the side of the base portion of the microwaveable unit and the floor of the cavity of the microwave, preventing the microwaveable unit from moving around, when the microwaveable unit is in use. Optionally, the anti-slipping element is arranged in any one of: a ring-shaped pattern throughout the side of the base portion, a plurality of strips that are spaced apart, a concentric rings-shaped pattern throughout the side of the base portion, around a center of the side of the base portion, triangular blocks.

[0039] A technical benefit of using the anti-slipping element is that it enhances a stability and safety of the microwaveable unit during use. The anti-slipping element provides friction between the side of the base portion of the microwaveable unit and the floor of the cavity of the microwave. Such provision of friction by the anti-slipping element prevents the microwaveable unit from sliding or slipping when the microwaveable unit is subjected to any vibrations or movements, when the microwaveable unit is in use. This ensures that the microwaveable unit remains securely in place, reducing the risk of accidents such as spillage or tipping over and ensuring contents within the microwaveable unit are churned.

[0040] The microwaveable unit further comprises an anti-rotation base element that is fixed on the floor of the cavity of the microwave. In other words, the anti-rotation base element is a separate element that is fixed to the floor of the cavity of the microwave. The anti-rotation base element comprises a ring with a plurality of teeth that aligns with corresponding space in at least one of: the ring-shaped pattern throughout the side of the base portion, the plurality of strips that are spaced apart, the concentric rings-shaped pattern throughout the side of the base portion, around the center of the side of the base portion, the triangular blocks, of the anti-slipping element. Each of the plurality of teeth is shaped and dimensioned to engage with complementary recesses, grooves, or gaps formed on the underside of the base portion, thereby creating a positive mechanical interlock. The interlocking geometry prevents rotational drift of the microwaveable unit by ensuring that seat of the plurality of teeth is secured within corresponding spaces, effectively converting rotational forces generated during operation into stabilized reaction forces at the base portion.

[0041] It will be appreciated that the anti-rotation base element is a permanent fixture on the floor of the cavity of the microwave. Such permanent fixture is provided when glue and / or suction cups are applied on a base of the anti-rotation base element to adhere to the floor of the cavity. Moreover, by providing the anti-rotation base element, the microwaveable unit ensures stability during operation. This anti-rotation base element prevents the microwaveable unit from sliding or slipping when subjected to vibrations or movements during use. Advantageously, the microwaveable unit enables the body to remain stationary while allowing effective rotation of internal components. A material of manufacturing the anti-rotation base element may be, but not limited to, a plastic material, a silicone material, and similar.

[0042] Moreover, the interlocking teeth and corresponding recess pattern further ensures that torque transmitted from rotating internal components of the microwaveable unit does not propagate to the body. Herein, a mechanical engagement distributes counter-torque across multiple contact points around the ring, reducing localized stress and preventing deformation or rotational creep of the microwaveable unit under dynamic operation. This arrangement also stabilizes a center of mass of the microwaveable unit, maintaining its seating position even during high-speed stirring.

[0043] A technical effect of combining the anti-slipping element with the anti-rotation base element is that it provides dual-stage stabilization during operation of the microwaveable unit. The anti-slipping element generates a frictional restraint, while the anti-rotation base element forms a geometric interlock that resists torque-induced displacement of the stationary body as internal components rotate. This cooperative configuration isolates the body from counter-torque arising from the stirring action, thereby maintaining positional accuracy, safety, and mechanical balance throughout the operation of the microwaveable unit. The adaptor element operates synergistically with a stationary-body arrangement of the microwaveable unit. The microwaveable unit allows the body to remain stationary, anchored through the anti-rotation base element, while the stirring element alone is rotated. This architecture isolates the stirring motion from the vessel structure, significantly improving stability, vibration control, and long-term durability. Such an arrangement enables the microwaveable unit to maintain a balanced center of mass, minimizing movement or oscillation even at higher stirring speeds.

[0044] Throughout the present disclosure, the term "wall portion" refers to a vertical side of the body that extends upwardly from an outer edge of the base portion. A combination of the base portion and the wall portion encloses the internal space of the body, wherein the internal space is utilized to keep the food substance therein. In this regard, the wall portion determines an overall shape of the microwaveable unit. Therefore, the wall portion of the microwaveable unit could be designed in various shapes, for example, such as a frustum shape, a cylindrical shape, a rectangular shape, a hemispherical shape. When the wall portion is designed as the frustum shape, the wall portion tapers from the second opening towards the base portion, wherein the base portion is circular in shape. When the wall portion is designed as the cylindrical shape, the wall portion extends upwardly in a straight-manner from the periphery of the base portion, wherein the base portion is circular in shape. When the wall portion is designed as the rectangular shape, the wall portion extends upwardly in a straight-manner and are angled at right angles, corresponding to a rectangular shape of the base portion. When the wall portion is designed as the hemispherical shape, the wall portion bulges outwards while extending from the periphery of the base portion towards the second opening. A technical benefit of having various shapes for the wall portion is that it is useful for distributing heat uniformly within the food substance and offers versatility in cooking or reheating the food substance. This uniform heat distribution reduces the likelihood of cold pockets and ensures that the food substance is cooked and / or heated uniformly. Additionally, the different shapes of the microwaveable unit allow for greater flexibility in design, potentially improving the efficiency, effectiveness, and aesthetics of the cooking and / or heating process. Additionally, the wall portion provides stability and structural integrity to the microwaveable unit, ensuring that said microwaveable unit can safely and effectively perform its intended function in the microwave.

[0045] The second opening that is located opposite to the base portion provides access to the internal space of the body for placing and removing the food substances. Furthermore, the second opening allows for easy insertion and removal of at least one of: the rotational coupling element, the stirring element, and the securing element, from the microwaveable unit. Optionally, a shape of the second opening depends on the shape of a periphery of the wall portion towards the second opening.

[0046] Throughout the present disclosure the term "rotational coupling element" refers to a component that allows for rotational movement within the microwaveable unit. Typically, the function of the rotational coupling element is to transfer rotational energy from a rotational mechanism of the microwave to the stirring element, thereby enabling the stirring element to rotate. Moreover, when in use, the rotational coupling element allows the stirring element to rotate the food substance present inside the internal space, wherein such rotation enables distribution of heat throughout the food substance. In this regard, the rotational coupling element comprises the elongate portion, wherein the elongate portion is a long part of the rotational coupling element that extends from the first end to the second end that is opposite to the first end. Moreover, the elongate portion is designed to pass through the first opening of the base portion of the body. The elongate portion is any one of: a solid elongate portion, a hollow elongate portion. The elongate portion comprises the plurality of slots which typically appear as narrow, elongated openings and / or grooves along a length of the elongate portion. The plurality of slots may be spaced uniformly and oriented perpendicular to a central axis of the elongate portion. Moreover, an exact number and size of the plurality of slots could vary depending on a design of the rotational coupling element. Furthermore, the plurality of slots are intended to provide a means for attaching the adaptor element and securing the rotational coupling element to the rotational mechanism of the microwave. In other words, the plurality of slots in the elongate portion accommodates the adaptor element, which connects the rotational coupling element to the rotational mechanism of the microwave, thus facilitating the rotation of the stirring element. Moreover, the flange portion of the rotational coupling element is located at the first end of the elongate portion, wherein the first end is arranged within the internal space of the body. In this regard, the flange portion serves as a stopper to prevent the rotational coupling element from passing completely through the first opening in the base portion, thus preventing any dislodgement. Furthermore, the flange portion ensures that the rotational coupling element remains securely at the base portion of the microwaveable unit.

[0047] Throughout the present disclosure, the term "adaptor element" refers to a component that is designed to facilitate a connection between the rotational coupling element of the microwaveable unit and the rotational mechanism of the microwave. The adaptor element enables the rotation of the stirring element when the microwave is in use. Moreover, the adaptor element is a distinct component that is mechanically separable from both a drive mechanism of the microwaveable unit and the rotational coupling element. In this regard, this separation is not merely a structural variation, but a functional decoupling interface. Herein, the adaptor element translates a torque from the rotational mechanism to the rotational coupling element while allowing independent dimensional and geometrical configuration at each interface.

[0048] A technical effect of the adaptor element is that it provides cross-model compatibility and dynamic mechanical isolation within the microwaveable unit. The adaptor element functions as an interchangeable module that can be configured or replaced according to the geometry of the microwaveable unit. This ensures consistent torque transfer without requiring any modification to the body or the stirring element, thereby offering extended usability across different microwave designs. Additionally, the adaptor element reduces mechanical stress and vibration, improves heat uniformity by stabilizing the stirring action, and enhances safety by preventing vessel displacement during operation.

[0049] In this regard, the adaptor element includes the plurality of first projecting tabs and the plurality of second projecting tabs, wherein the term "projecting tabs" refers to small, protruding extensions that are designed to interact and are typically used for alignment and / or attachment purposes. The plurality of first projecting tabs are used to align and secure the adaptor element to the rotational coupling element. In this regard, the plurality of first projecting tabs are designed to fit into corresponding plurality of slots on the rotational coupling element, ensuring that the adaptor element is properly positioned and aligned. By attaching the adaptor element to the rotational coupling element via the plurality of first projecting tabs, it is ensured that the rotational mechanism of the microwave is able to rotate the stirring element within the microwaveable unit, when in use. Moreover, the plurality of second projecting tabs of the adaptor element attaches the adaptor element to the rotational mechanism of the microwave. Such attachment ensures alignment and engagement between the adaptor element and the rotational mechanism. In this regard, when the microwaveable unit is placed in the microwave, the plurality of second projecting tabs engage with the rotational mechanism which is present on the floor of the cavity of the microwave, and enables transfer of the rotational energy from the rotational mechanism to the stirring element via the adaptor element and the rotational coupling element, when in use.

[0050] The adaptor element thereby emulates a modular engagement interface, accommodating variable drive geometries while preserving consistent rotational dynamics within the microwaveable unit. This modular engagement prevents direct stress transfer between a motor of the microwave and the body of the microwaveable unit, thereby reducing wear on both components. Moreover, by enabling precise alignment between the adaptor element and the rotational coupling element, torque is transmitted uniformly, avoiding mechanical imbalance that would otherwise occur in systems having an integral coupling.

[0051] Optionally, the adaptor element is configured to fit different microwave couplers. In this regard, the adaptor element is positioned between the rotational coupling element and the rotational mechanism provided on the floor of the cavity of the microwave. Moreover, to enable compatibility with the different types of microwave couplers, the plurality of second projecting is formed with variable geometry, spacing, or flexibility so as to engage securely with the rotational mechanism of varying shapes and sizes used in different microwave models. The configuration of the adaptor element to fit the different microwave couplers enhances the versatility, reliability, and long-term usability of the microwaveable unit. A technical effect of the aforementioned feature is that it improves mechanical and operational interoperability between the microwaveable unit and the different microwave models, preventing slippage or vibration of the microwaveable unit during operation.

[0052] Optionally, the microwaveable unit comprises two adaptor elements of different sizes to fit with different microwave couplers. In this regard, each adaptor element of the two adaptor elements differs in at least one-dimensional parameter such as a diameter, a height, or spacing between the plurality of second projecting tabs. The plurality of first projecting tabs on each of the adaptor element remains complementary to the slots on the rotational coupling element so that the adaptor element can be interchangeably mounted thereto. Herein, when the microwaveable unit is to be used, the single user could select one of the two adaptor elements according to a geometry of the rotational coupling element. The adaptor element which is selected is then attached to the rotational coupling element by engaging the plurality of first projecting tabs with the corresponding slots, ensuring correct alignment and stable rotational transmission once the rotational mechanism engages with the plurality of second projecting tabs. The unselected adaptor element can be stored separately and exchanged when required for the different microwave model. The two adaptor elements of different sizes ensure that the microwaveable unit maintains compatibility with the different microwave models. A technical effect of the microwaveable unit comprising the two adaptor elements of different sizes is that it achieves reliable and centred rotational engagement across the different microwave couplers, thereby ensuring consistent torque transfer to the stirring element.

[0053] Optionally, the elongate portion is rotationally coupled with the adaptor element via a clipping mechanism. In this regard, the adaptor element comprises any one of: slots, grooves, depressions, corresponding to the plurality of slots. Such configuration of the adaptor element allows said adaptor element to accept the plurality of slots to engage with the rotational coupling element, and thus lock into place. This creates a secure connection between the adaptor element and the rotational coupling element. A technical effect of the aforementioned feature is that a strong mechanical connection is provided which can withstand various forces (for example, such as centrifugal force) without using any additional components. Optionally, the microwaveable unit further comprises a shaft element comprising another elongate portion, wherein the another elongate portion is arranged into the adaptor element.

[0054] Throughout the present disclosure, the term "stirring element" refers to a component designed to rotate which stirs the food substance present in the internal space of the body. Such stirring distributes heat uniformly within the food substance. Moreover, a shape of the central portion of the stirring element encompasses the flange portion of the rotational coupling element. In this regard, the central portion of the stirring element is hollow to allow the securing element to pass through. Optionally, the stirring element is removably attachable from within the internal space of the body. In this regard, when the microwaveable unit is assembled, the stirring element is mounted onto the rotational coupling element through the securing element, such that the stirring element is easily detached from the rotational coupling element when desired. The body has the second opening at the upper end of the wall portion, through which the stirring element is accessed and lifted out of the internal space of the body after detachment. The central portion of the stirring element rests on the raised central part of the base portion, dimensioned and aligned with the elongate portion of the rotational coupling element to permit smooth engagement and disengagement during removal, thereby avoiding damage to the rotational coupling element. Furthermore, the microwaveable unit supports different configurations of the plurality of arms. In this regard, each stirring element comprises a uniquely shaped mounting interface at its base that corresponds to a complementary receiving geometry formed on the upper end of the rotational coupling element. This one-to-one correspondence ensures that only a correctly matched stirring element can be mounted, thereby preventing misalignment, wobbling, or improper engagement during rotation. The unique interface geometry also enables the unit to recognize and accommodate different stirring patterns by providing stable, play-free coupling regardless of the blade configuration selected by the user. Examples of the uniquely shaped mounting interface may include, but are not limited to, a keyed formation, an asymmetric projection, a tapered recess, a polygonal engagement profiles.

[0055] Moreover, the stirring element which is removably attachable enables ease of cleaning and maintenance by allowing the users to wash the stirring element separately to remove any residue of the food substance. Furthermore, the removably attachable design facilitates simple replacement of the stirring element in case of wear or damage, and also allows easy assembly and inspection during manufacturing. A technical effect of the aforementioned feature is that it improves hygiene, adaptability, durability of the microwaveable unit and prevents build-up of the residue of the food substance that interfere with action of the stirring element or causes contamination, thereby ensuring consistent and efficient mixing of the food substance. A further technical effect is that the unique interface geometry between each stirring element and the rotational coupling element enables the user to select different stirring geometries optimized for different viscosities, textures, and cooking tasks, while ensuring reliable torque transfer and safe operation irrespective of which stirring element is removably installed. Optionally, an inner diameter of the central portion is: greater than a diameter of the first opening, and greater than an outer diameter of the flange portion. Moreover, the plurality of arms are arranged radially around the central portion of the stirring element, wherein such arrangement could be performed in a symmetric manner.

[0056] A technical benefit of the stirring element is that by agitating the food substance, the stirring element ensures that all parts of the food substance receive the same amount of heat, thus reducing the risk of at least one of: cold pockets, overcooking, undercooking, of the food substance. Furthermore, by continuously stirring the food substance, the stirring element helps to improve an efficiency of the cooking process.

[0057] Optionally, the stirring element is implemented as one of: the plurality of arms extending upward from the central portion, the plurality of arms extending downward from the central portion, an impeller-like arrangement with respect to the central portion. In this regard, when the stirring element is implemented as any one of: the plurality of arms extending upward from the central portion, the plurality of arms extends downward from the central portion, an agitating action is generated. Such agitating action draws in portions of the food substance from surrounding areas within the internal space, towards the central portion. Moreover, this agitating motion occurs within the body that is stationary, and an angular orientation of the plurality of arms is selected to generate both axial and radial flow components, thus promoting a three-dimensional mixing throughout the food substance.

[0058] Optionally, the stirring element is implemented as the plurality of arms extending from the central portion and tapering downwards, wherein inner edges of each of the plurality of arms are curved. Advantageously, such curved configuration allows churning of food substance. Herein, a curvature and taper of the plurality of arms are further configured to produce directed flow paths that circulate the food substance vertically as well as radially, enabling efficient redistribution of heat energy in an absence of any rotation of the body of the microwaveable unit.

[0059] When the stirring element is implemented as the impeller-like arrangement with respect to the central portion, the stirring element is arranged in a manner similar to an impeller, wherein the plurality of arms are angled in such a manner so as to create a swirling motion. Moreover, the impeller is multi-directional in nature, i.e., the impeller rotates both in clockwise direction and in anticlockwise direction, in line with a direction of a motor of the microwave. This swirling motion helps to mix the food substance thoroughly, ensuring that all portions of the food substance are uniformly heated. Such impeller-like arrangements generates stable circulation patterns that prevent localized overheating and cold spots within the food substance.

[0060] A technical benefit of using these different implementations of the stirring element is that it allows for flexibility in design, allowing the microwaveable unit to be optimized for different types of the food substances and / or cooking and heating requirements. The specific configuration of the stirring element that is chosen may depend on factors such as the viscosity of the food substance, the desired mixing pattern, and the overall design of the microwaveable unit. Another technical effect of the different implementations of the stirring element is that uniform temperature distribution is achieved, and there is material homogenization within the body of the microwaveable unit, thereby enhancing heating efficiency and cooking consistency while minimizing energy loss.

[0061] Optionally, the number of the plurality of arms of the stirring element lies in a range of 1 arm to 8 arms. In this regard, the plurality of arms may, for example, lie in a range of 1, 2, 3, 5, or 7 arms to 2, 4, 6, 7, or 8 arms. The technical benefit of having such a range is that it allows for flexibility in the design of the stirring element. Moreover, such range allows for different configurations of the stirring element that can be tailored according to particular cooking requirements and / or heating requirements. For example, the stirring element with fewer arms (for example, such as 3 arms) may be more suitable for mixing thicker food substances, while the stirring element with more arms (for example, such as 8 arms) may be better for lighter or more delicate food substances. Additionally, the range allows for the selecting the plurality of arms based on the size and shape of internal space of the body of the microwaveable unit. This could further enhance a versatility of the microwaveable unit and make it suitable for a wider range of cooking. Throughout the present disclosure the term "securing element" refers to a component that securely locks the stirring element to the rotational coupling element, thereby ensuring stability during the rotation of the stirring element. The securing element works by exerting pressure on both the stirring element and the rotational coupling element, effectively locking them together. The securing element is essential for proper functioning of the microwaveable unit, as said securing element prevents the stirring element from coming loose when using the microwaveable unit. This helps to maintain an efficiency of the microwaveable unit and ensures consistent cooking results.

[0062] In an embodiment, the stirring element and the securing element are a single unit that is removably attached with the rotational coupling element. In this regard, the elongate portion of the rotational coupling element is designed to pass through the first opening of the body. Optionally, the microwaveable unit comprises the flange portion in a middle section of the elongate portion, and further comprises a top portion. The elongate portion is rotationally coupled with the adaptor element via a clipping mechanism. The stirring element is rotationally coupled with the rotating coupling element via a clipping mechanism or a snug-fit mechanism, wherein the top portion of the rotational coupling element fits inside the central portion. In another embodiment, the stirring element and the securing element are separate units, wherein the securing element is designed to secure the stirring element with the rotational coupling element.

[0063] Optionally, when the securing element is implemented as a threaded screw, an inner surface of the elongate portion has receptacles in proximity to the first end of the elongate portion for receiving threads of the threaded screw, and the central portion of the stirring element is hollow to allow the threaded screw to pass therethrough. Herein the term "threaded screw" refers to a fastener with the threads (namely, helical ridges), that winds around a shaft of the threaded screw to provide an adjustable coupling. Moreover, the inner surface has receptacles, near the first end of the elongate portion of the rotational coupling element, wherein the receptacles are any one of: small cavities, holes, slots. Therefore, when the threaded screw is rotated into place in the receptables, the threads engage with the receptacle, thus forming a secure connection. Optionally, the threaded screw has various sizes, lengths, and / or thread patterns to suit different requirements. The use of the threaded screw allows for a strong, reliable, and adjustable connection between the rotational coupling element and the stirring element, making said threaded screw a versatile and widely used fastening solution. When assembling the microwaveable unit, the threaded screw is tightened using a tool, until the stirring element is securely attached with the rotational coupling element. Examples of the tool may include, but are not limited to, a screwdriver, a hand, and a wrench. A technical benefit of using the threaded screw as the securing element is that it enables assembly and disassembly of the stirring element with ease.

[0064] Optionally, when the securing element is implemented as a clip, the securing element comprises a plurality of protruding prongs that extends and is arranged in such a manner that when in use, the plurality of protruding prongs securely attach with the flange portion of the rotational coupling element. In this regard, the clip is designed with the plurality of protruding prongs that extend outward from a body of the securing element. The plurality of protruding prongs are spaced around throughout a periphery of the securing element. Such spacing is provided in such a way that the plurality of protruding prongs can fit around the flange portion of the rotational coupling element. Furthermore, the clip is then pressed so that the plurality of protruding prongs securely attach to the flange portion. This creates a tight and secure connection between the stirring element and the rotational coupling element. Once the clip is attached, it holds the stirring element in place, allowing it to rotate, when in use. A technical benefit of using the clip as the securing element is that it provides a quick and easy way to secure the stirring element, requiring no additional tools or complex assembly. Additionally, the clip ensures that the stirring element remains securely in place, when the microwaveable unit is in use. This ensures that the stirring element remains in the correct position and continues to rotate.

[0065] Optionally, when the securing element is implemented as a snug-fit securing element, the securing element is pushed into the elongate portion of the rotational coupling element, and the central portion of the stirring element is hollow to allow the snug-fit securing element to pass therethrough. In this regard, the snug-fit securing element is designed to fit tightly into the elongate portion of the rotational coupling element. The snug-fit securing element is elongate, wherein a width of the snug-fit securing element is such that it passes through the central portion of the stirring element and the elongate portion of the rotational coupling element. Furthermore, a material of the snug-fit securing element could be flexible, so that said snug-fit securing element can compress slightly when pushed into the elongate portion, for a secure hold. Once the snug-fit securing element is in place, it secures the stirring element to the rotational coupling element. This ensures that the stirring element remains in the correct position and rotates along with the rotational coupling element. A technical benefit of using the snug-fit securing element is that it provides a simple and an effective way to secure the stirring element, requiring minimal effort and no additional tools. Furthermore, the snug-fit securing element forms a strong and a reliable connection, ensuring that the stirring element remains securely attached when in use.

[0066] The different implementations of the securing element are configured as integral torque-transmission interfaces that operate under dynamic and thermal stresses within the cavity of the microwave. Each implementation of the secure element forms part of a continuous rotation drive path extending from the rotational coupling element to the stirring element. Moreover, the different implementations of the securing element is adapted for repetitive, detachment, hygiene, and heat-resistance performance. In particular, when the securing element is implemented as the threaded screw, there is controlled torque calibration to maintain mechanical integrity after multiple heating cycles. When the securing element is implemented as the clip, it enables tool-free assembly and disassembly without losing locking pressure despite exposure to heat and moisture. When the securing element is implemented as the snug-fit securing element, there is elastic deformation and friction retention to resist vibration-induced loosening. Hence, the aforementioned feature collectively provides a resilient, food-safe and reusable attachment that is suitable for microwave use.

[0067] Furthermore, the different implementations of the securing element operate synergistically with the adaptor element and stationary architecture of the body of the microwaveable unit. Herein, because the rotational coupling element is detachably linked through the adaptor element rather than integrally formed with the microwaveable unit, the securing element sustains consistent torque transfer independently of a support of the shaft element. This coordinated mechanical behavior achieves dynamic stability, safety, and long-term reliability, representing a functional advancement over known microwave stirring systems.

[0068] Optionally, the first opening of the base portion is at a predefined height from the raised central part of the base portion, the microwaveable unit further comprises a sealing element to provide a fluidic tight seal between the flange portion and the raised central part of the base portion, wherein the sealing element matches the predefined height of the first opening. In this regard, the predefined height of the first opening of the base portion is at most 5 millimetres. As an example, the predefined height of the first opening may be 1 millimetre. The first opening in the base portion, which allows the elongate portion of the rotational coupling element to pass through, is located at this predefined height from the raised central part of the base portion. Subsequently, the sealing element is designed to cover the gap between the flange portion and the raised central part of the base portion completely, when in use. This helps prevent any leakage when the food substance is arranged in the internal space, when the microwavable unit is in use. Moreover, the sealing element provides the fluidic tight seal which allows the rotating element to rotate without impedes rotation, but being watertight at the same time.

[0069] Optionally, the sealing element is a hollow circular ring, wherein an inner diameter of the hollow circular ring matches an outer diameter of the raised central part. In this regard, the hollow circular ring tightens around the outer diameter of the raised central part. Optionally, a height of the sealing element matches the height of the raised central part (as mentioned in detail earlier). This ensures that the sealing element sits flush with the first opening, thereby closing any gaps between the flange portion and the raised central part, when the rotational coupling element passes through the flange portion. Moreover, the sealing element can be made of various materials, for example, such as rubber, silicone, neoprene, elastomers, plastics and the like. The material of the sealing element is chosen based on at least one of: a flexibility, a durability, an ability, of the sealing element to form the fluidic tight seal. Additionally, the sealing element may be made of a material that could be heat-resistant and food-grade safe. A technical benefit of using the sealing element is to ensure that the microwaveable unit is sealed properly, thus preventing any fluid or moisture from leaking when in use. This helps to maintain a clean and safe cooking environment and ensures that the food substance is cooked and / or heated efficiently. A technical effect of positioning the first opening in combination with the sealing element is that it establishes a rotationally free yet fluid-tight interface between the raised central part of the base portion and the flange portion of the rotational coupling element. In this regard, such positioning ensures that the sealing element is compressed only to an extent sufficient to maintain leak prevention without generating frictional resistance during rotation. Such configuration enables smooth torque transfer to the stirring element while preventing fluid ingress into the coupling region. Optionally, the microwaveable unit further comprises a lid that matches a boundary of the second opening of the body, the lid having at least a hole. The lid is used to cover the food substance inside the microwaveable unit and preventing it from splattering during cooking. In this regard, the lid is shaped in such a way that it fits precisely over the second opening, covering said second opening completely. Optionally, the shape of the lid is any one of: a circular shape, a rectangular shape, an oval shape. Optionally, a material used for manufacturing the lid is any one of: the microwave-safe glass material, the microwave-safe ceramic material, the microwave-safe wooden material, the microwave-safe plastic material. Optionally, the lid has a silicon ring around it, wherein an inner dimension of the silicon ring matches an outer dimension of the lid. This silicon ring prevents the lid from slipping when the lid is placed on top of the second opening.

[0070] Moreover, the lid is dimensionally coordinated with the body of the microwaveable unit and the stirring element, such that it maintains sufficient clearance for unhindered rotation while forming a pressure-regulating enclosure over the internal space. The at least one hole is positioned and dimensioned to guide steam flow in alignment with a convective airflow generated by the stirring action, thereby enabling controlled release of vapour during operation. Furthermore, the at least one hole allows steam that is generated during cooking, heating, and / or reheating, of the food substance to escape from within the internal space of the body of the microwaveable unit. Such venting prevents uneven pressure distribution and avoids condensation droplets from falling back on the food substance, thereby maintaining uniform heat and moisture levels. This helps prevent pressure build-up inside the microwaveable unit.

[0071] Optionally, the lid also has a knob that protrudes upwards from a central area of the lid. Herein, the knob is utilized to lift up and / or lower down the lid onto the second opening. Furthermore, the knob is also made of microwave-safe material and heat resistant material such that said knob can be touched even when the lid is hot. Additionally, the knob is designed ergonomically to fit comfortably in a hand of a user, making it easy to grip and lift.

[0072] A technical benefit of having a lid is that it helps to contain splatter and / or mess inside the microwaveable unit, keeping the microwave clean during use. Additionally, the lid may help to cook or heat the food substance more efficiently by trapping heat and steam inside the microwaveable unit, thereby reducing cooking times and energy consumption. Moreover, a technical effect of the lid comprising the at least one hole is that it maintains controlled pressure equilibrium within the internal space while allowing continuous stirring motion. The regulated steam escape and moisture redistribution achieved by this configuration enhance heat uniformity, minimize splatter, and improve overall safety during microwave operation.

[0073] Optionally, the microwaveable unit further comprising at least one handle that extends from the wall portion of the body. In this regard, the at least one handle provides a comfortable grip and allows lifting of the microwaveable unit. The at least one handle is attached to the wall portion of the body in such a way that the at least one handle balances a weight of the microwaveable unit when it is being lifted. Optionally, the at least one handle is designed in any one of: a handle parallel to the wall portion with at least one connection between the handle and the wall, a handle extending outward from the wall portion parallel to the base portion, at least two handles that are opposite to each other and arranged on the periphery of the second opening. Optionally, the at least one handle comprises a strip, wherein the strip is arranged in an inner portion of the at least one handle. This strip prevents the microwaveable unit from slipping when said microwaveable unit is being held. The handle could be made of silicon material, a rubber material, a plastic material with a rubber covering. Such choice of material ensures that the microwaveable unit can be held using the handle even immediately post a heating cycle.

[0074] Moreover, the at least one handle is structurally coordinated with the body of the microwaveable unit and anti-rotation base configuration of the microwaveable unit. Herein, a geometry and attachment region of the handle are dimensioned to withstand torque differentials generated by the stirring element while maintaining stability of the body. This allows the user to grip or reposition the unit safely without disturbing the interlocked base arrangement. The positioning of the handle also ensures thermal isolation from heat conduction pathways, enabling direct handling after use.

[0075] A technical benefit of the at least one handle is that it allows for safe and easy handling of the microwaveable unit, thereby reducing the risk of burns or accidents. Furthermore, the at least one handle makes it easier to transport the microwaveable unit from one location to another, such as from the microwave to a table. Additionally, the at least one handle can also provide additional stability when moving or carrying the microwaveable unit, ensuring that it remains balanced and does not tip over. Another technical benefit of the at least one handle is that it improves operational safety and ergonomic efficiency in a stationary microwave. The at least one handle resists deformation and torque stresses caused by internal stirring, while allowing stable removal of the vessel immediately after heating.

[0076] Optionally, the microwaveable unit further comprises a spout that extends from a portion of the second opening at the upper end of the wall portion. In this regard, the spout on the microwaveable unit is a small, tapered opening that extends from the portion of the second opening at the upper end of the wall portion. The spout is designed to facilitate pouring or draining of the food substance from the internal space of the microwaveable unit. The spout allows for easy and controlled pouring of the food substance. Such pouring can be performed without removing the lid. Moreover, the spout can also be used for draining excess liquids or juices from the food substance. Herein, the spout is dimensionally coordinated with the body of the microwaveable unit and the stirring element, such that an internal contour of the spout aligns with the convective fluid flow established during stirring. This alignment enables controlled discharge of vapour or liquid without disrupting an internal pressure balance of the microwaveable unit. A placement and taper of the spout also prevents backflow when the stirring element operates at a high speed, thus ensuring smooth and safe operation.

[0077] Optionally, the spout comprises a silicon touch point, wherein the silicon touch point is arranged in an inner portion of the spout. Furthermore, the silicon touch point provides a non-slip surface, ensuring that a secure grip is maintained on the microwavable unit while pouring the food substance. A technical benefit of the placement of the spout at the upper end of the wall portion ensures that it is easily accessible and can be used effectively without a risk of splashing. A technical effect of the spout is that it contributes to maintaining fluid stability and pressure equilibrium within the microwaveable unit, enabling spill-free pouring and uniform steam management even during dynamic stirring.

[0078] The present disclosure also relates to the method as described above. Various embodiments and variants disclosed above, with respect to the aforementioned microwaveable unit, apply mutatis mutandis to the method.

[0079] The step of assembling involves removably attaching the rotational coupling element, the adaptor element, the stirring element, and the securing element, to the body of the microwaveable unit. This typically involves following a set of instructions or a design plan to ensure correct installation of the microwaveable unit.

[0080] Optionally, the step of assembling the microwaveable unit comprises: - arranging the rotational coupling element with respect to the body such that a flange portion of the rotational coupling element rests on a first side of a first opening of the body and an elongate portion of the rotational coupling element passes through the first opening of the base portion such that a second end of the elongate portion lies on a second side of the first opening, the first side lying in the internal space of the body; - securely arranging the stirring element between the flange portion and the securing element; and

[0081] - arranging the adaptor element such that a plurality of first projecting tabs of the adaptor element are coupled to a plurality of slots in proximity of the second end of the elongate portion, and rotationally coupling a plurality of second projecting tabs of the adaptor element to a rotational mechanism of the microwave.

[0082] In this regard, the body has the first opening in the base portion (as described earlier with respect to the first aspect). Furthermore, the rotational coupling element has the flange portion at the first end of the elongate portion, and the elongate portion extending from the flange portion. The rotational coupling element is positioned relative to the body in such a manner that the flange portion rests on the first side of the first opening, wherein said first side is located inside the internal space of the body. Furthermore, during the assembling process, the elongate portion passes through the first opening of the base portion such that the second end of the elongate portion lies on the second side of the first opening and this second side is located outside the internal space of the body.

[0083] Moreover, the stirring element comprises the central portion and the plurality of arms extending outwards as described earlier. In this regard, during the assembling process, the stirring element is placed securely between the flange portion of the rotational coupling element and the securing element. The securing element interacts with the central portion of the stirring element, creating a tight and reliable connection that holds the stirring element in place.

[0084] Furthermore, the adaptor element connects the microwaveable unit to the rotational mechanism of the microwave. It will be appreciated that the plurality of first projecting tabs is designed to engage with the plurality of slots of the rotational coupling element whereas the plurality of second projecting tabs is designed to engage with the rotational mechanism of the microwave.

[0085] In this regard, during the assembling process, the adaptor element is positioned such that the plurality of first projecting tabs engage with the plurality of slots located in proximity to the second end of the elongate portion of the rotational coupling element. The plurality of slots provides a secure fit for the plurality of the first projecting tabs, ensuring a stable connection. Subsequently, the plurality of second projecting tabs of the adaptor element is coupled to the rotational mechanism of the microwave. This ensures the secure fit of the adaptor element with the rotational mechanism of the microwave and creates a connection for the rotational signal to all other internal components such as, the rotational coupling element, the stirring element and the securing element.

[0086] A technical benefit of such assembling of the microwaveable unit is that it ensures that the rotational coupling element, the stirring element and the adaptor element work together efficiently. The rotational coupling element connects the stirring element and allows the stirring element to rotate freely within the internal space. The securing element keeps the stirring element firmly attached during operation. The adaptor element provides a link between the microwaveable unit and the rotational mechanism of the microwave, enabling the stirring element to rotate for uniform heat distribution.

[0087] Upon following steps of the assembling the microwaveable unit, the microwaveable unit is properly assembled and ready for use. Once assembled, the microwaveable unit is placed in the cavity of the microwave, with the body of the microwaveable unit resting on the floor of the cavity of the microwave. The microwave is turned on, and then the rotational signal is provided to the rotational mechanism of the microwave and the microwaveable unit when the microwaveable unit is in use. Herein, the term "rotational signa!" refers to an electrical signal or voltage signal that is sent to the rotational mechanism of the microwave. The rotational signal causes the rotational mechanism to rotate, which in turn rotates the adaptor element, the rotational coupling element and the stirring element inside the microwaveable unit. The rotational signal is typically generated by a control system of the microwave and is used to control a rotation speed and / or a direction of the components when the microwaveable unit is in use. When the rotational signal is received, the stirring element agitates the food substance inside the microwaveable unit, thus ensuring uniform cooking, and / or heating. The body of the microwaveable unit remains stable on the floor of the cavity of the microwave, thus preventing any spillage. A technical benefit is that such provision of the rotational signal ensures that the food substance is uniformly cooked due to rotation of the stirring element, and heated without a need for manual intervention, thus providing a convenient and effective cooking solution. DETAILED DESCRIPTION OF THE DRAWINGS

[0088] Referring to FIG. 1, there is illustrated an exploded view of a microwaveable unit 100, in accordance with an embodiment of the present disclosure. With reference to FIG. 1 the microwaveable unit 100 comprises a body 102, a rotational coupling element 104, an adaptor element 106, a stirring element 108, and a securing element 110. Herein, the body 102 has a base portion 112 having a raised central part 114 and a first opening 116 in a centre of the raised central part 114, a wall portion 118 extending upwardly from a periphery of the base portion 112 to define an internal space 120 of the body 102, and a second opening 122 at an upper end of the wall portion 110, wherein the upper end of the wall portion 118 is opposite to the base portion 112. The rotational coupling element 104 has an elongate portion 124 designed to pass through the first opening 116, and a flange portion 126 at a first end of the elongate portion 124, wherein the elongate portion 124 has a plurality of slots (depicted as slots 128a and 128b) in proximity of a second end of the elongate portion 124. The adaptor element 106 has a plurality of first projecting tabs (depicted as first projecting tabs 130a, and 130b) corresponding to the slots 128a-b, and a plurality of second projecting tabs (depicted as second projecting tabs 132a and 132b) corresponding to a rotational mechanism of a microwave, said rotational mechanism being provided on a floor of a cavity of the microwave. The stirring element 108 comprises a central portion 134 and a plurality of arms (depicted as arms 136a, and 136b) extending from the central portion 134. The securing element 110 is designed to secure the stirring element 108 with the rotational coupling element 104.

[0089] Optionally, the microwaveable unit 100 further comprises a lid 138, that matches a boundary of the second opening 122 of the body 102, the lid 138 having at least a hole 140. Optionally, the microwaveable unit 100 further comprises at least one handle (depicted as a handle 142), that extends from the wall portion 118 of the body 102. Optionally, the microwaveable unit 100 further comprises a spout 144, that extends from a portion of the second opening 122 at the upper end of the wall portion 118. Optionally, the microwaveable unit 100 further comprises a sealing element 146 to provide a fluidic tight seal between the flange portion 126 and the raised central part 114 of the base portion 112, wherein the sealing element 146 matches the predefined height of the first opening 116. Herein, the microwaveable unit 100 further comprises an anti-rotation base element (not shown) fixed on the floor of the cavity of the microwave.

[0090] FIG. 1 is merely an example, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure. Referring to FIGs. 2A and 2B collectively, there are illustrated different implementations of an adaptor element 200, in accordance with an embodiment of the present disclosure. The different implementations of the adaptor element 200 are designed based on different types of microwaves. In this regard, the adaptor element 200 is arranged on a base portion 202 of a microwaveable unit 204, wherein the adaptor element 200 is connected to a rotational mechanism of a microwave. Optionally, the base portion 202 of the microwaveable unit 204 comprises an anti-slipping element 206.

[0091] In FIG. 2A, the adaptor element 200 comprises a plurality of second projecting tabs (depicted as second projecting tabs 208a, 208b, and 208c) corresponding to the rotational mechanism of the microwave, wherein the second projecting tabs 208a-c extend outwards from a base of the adaptor element 200. Moreover, the anti-slipping element 206 has a concentric ring pattern. In FIG. 2B, the adaptor element 200 comprises a plurality of second projecting tabs (depicted as second projecting tabs 210a, 210b, and 210c), wherein the second projecting tabs 210a-c are implemented as clips. Hence, the second projecting tabs 210a-c are clipped onto the rotational mechanism of the microwave.

[0092] FIGs. 2A-B are merely examples, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

[0093] Referring to FIGs. 3A and 3B, there are illustrated different shapes of a wall portion 302 of a microwaveable unit 300, in accordance with an embodiment of the present disclosure. In FIG. 3A, the wall portion 302 is designed as a cylindrical shape, wherein the wall portion 302 extends upwardly in a straight manner from a periphery of a base portion 304 of the microwaveable unit 300. Herein, the base portion 304 is circular in shape. Optionally, the microwaveable unit 300 has a lid 306, a handle 308 and a spout 310. In FIG. 3B, the wall portion 302 is designed as a hemispherical shape, wherein the wall portion 302 bulges outwards while extending from the periphery of the base portion 304 towards a second opening 312. Optionally, the microwavable unit 300 has at least one handle (depicted as two handles 314a, and 314b). FIGs. 3A-B are merely examples, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

[0094] Referring to FIG. 4, there is illustrated an exemplary arrangement of the microwaveable unit 300 of FIG. 3A inside a microwave 400, wherein a cross-section view of the microwaveable unit 300 is shown, in accordance with an embodiment of the present disclosure. The microwaveable unit 300 is positioned on a floor 402 of a cavity 404 of the microwave 400. The microwaveable unit 300 comprises a stirring element 406, a rotational coupling element (not shown for the sake of clarity), an adaptor element 408 a securing element 410 are assembled within the microwaveable unit 300. The adaptor element 408 is removably attached to a base portion 412 of the microwavable unit 300 and to a rotational mechanism (not shown for sake of clarity) of the microwave 400, wherein the rotational mechanism of the microwave is provided on the floor 402 of the cavity 404 of the microwave 400. Optionally, the microwaveable unit 300 further comprises an anti-rotation base element 414 fixed on the floor 402 of the cavity 404 of the microwave 400.

[0095] FIG. 4 is merely an example, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure. Referring to FIGs. 5A, 5B, 5C, and 5D, illustrated are exemplary stirring elements (depicted as stirring elements 500a, 500b, 500c, and 500d, respectively), in accordance with an embodiment of the present disclosure. In FIGs. 5A-D, the stirring elements 500a-c has central portions 502a, 502b, 502c, and 502d respectively. In FIG. 5A, the stirring element 500a comprises a plurality of arms (depicted as arms 504a, 504b, and 504c) extending from the central portion 502a, wherein the arms 504a-c extend upward from the central portion 502a. In FIG. 5B, the stirring element 500b comprises a plurality of arms (depicted as arms 504d, 504e, and 504f) extending from the central portion 502b, wherein the arms 504d-f extend downward from the central portion 502b. In FIG. 5C, the stirring element 500c comprises a plurality of arms (depicted as arms 504g and 504h) extending from the central portion 502c, wherein the arms 504g-h taper downward from the central portion 502c. Herein, inner edges of the arms 504g-h are curved. In FIG. 5D, the stirring element 500d has an impeller-like arrangement with respect to the central portion 502d.

[0096] FIGs. 5A-D are merely examples, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

[0097] Referring to FIGs. 6A, 6B, and 6C collectively, illustrated is an exemplary scenario of a microwaveable unit 600 being in use, in accordance with an embodiment of the present disclosure. As shown in FIG. 6A, the microwaveable unit 600 is assembled by removably attaching a stirring element 602, using a securing element 604.

[0098] Herein, the securing element 604 is designed to secure the stirring element 602 with a rotational coupling element 606. In FIG. 6B, subsequently, the microwaveable unit 600 is filled with a food substance 608 for example, such as a soup, a batter, and the microwaveable unit 600 is to be positioned on a floor 610 of a cavity 612 of a microwave 614. In FIG. 6C, the microwaveable unit 600 is disassembled after use for cleaning, wherein the stirring element 602 and the securing element 604 are removably detached from the microwaveable unit 600 for cleaning.

[0099] FIGs. 6A-C are merely examples, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

[0100] Referring to FIG. 7, illustrated is an exemplary implementation of a securing element 700 used in a microwaveable unit 702, in accordance with an embodiment of the present disclosure. As shown in FIG. 7, the securing element 700 is implemented as a snug-fit securing element. In this regard, the securing element 700 is pushed into an elongate portion (not shown for the sake of clarity) of a rotational coupling element (not shown for the sake of clarity), and a central portion 704 of a stirring element 706 is hollow to allow the snug-fit securing element to pass therethrough.

[0101] FIG. 7 is merely an example, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

[0102] Referring to FIG. 8, illustrated are steps of a method for assembling a microwaveable unit, in accordance with an embodiment of the present disclosure. At step 802, a microwaveable unit is assembled, as described earlier with respect to the aforementioned first aspect. At step 804, rotational signal is provided to the microwaveable unit when in use, wherein at least a rotational coupling element, an adaptor element, and a stirring element of the microwaveable unit rotate, while a body of the microwaveable unit remains stationary and rests on a floor of a cavity of a microwave. The aforementioned steps are only illustrative and other alternatives can also be provided where one or more steps are added, one or more steps are removed, or one or more steps are provided in a different sequence without departing from the scope of the claims.

[0103] Referring to FIG. 9, there is illustrated an exploded view of an exemplary microwaveable unit 900, in accordance with an embodiment of the present disclosure. The microwaveable unit 900 comprises a body 902, a rotational coupling element 904, an adaptor element 906, and a stirring element 908. The rotational coupling element 904 has an elongate portion 910 designed to pass through a first opening (not shown for sake of clarity) of the body 902, a flange portion 912 in a middle section of the elongate portion 910, and a top portion 914. The elongate portion 910 is rotationally coupled with the adaptor element 906 via a clipping mechanism. The stirring element 908 comprises a central portion 916 and a plurality of arms (depicted as arms 918a and 918b) extending from the central portion 916. Herein, inner edges of the arms 918a-b are curved. The stirring element 908 is rotationally coupled with the rotating coupling element 904 via a clipping mechanism or a snug-fit mechanism, wherein the top portion 914 of the rotational coupling element 904 fits inside the central portion 916.

[0104] Optionally, the microwaveable unit 900 further comprises a lid 920, the lid 920 having at least a hole 922. Optionally, the microwaveable unit 900 further comprises at least one handle (depicted as a handle 924).

[0105] Optionally, the microwaveable unit 900 further comprises a spout 926.

[0106] Optionally, the microwaveable unit 900 further comprises a sealing element 928 to provide a fluidic tight seal between the rotational coupling element 904 and a base of the body 902.

[0107] FIG. 9 is merely an example, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

[0108] Referring to FIG. 10, there is illustrated an exploded view of an exemplary microwaveable unit 1000, in accordance with an embodiment of the present disclosure. The microwaveable unit 1000 comprises a body 1002, a rotational coupling element 1004, an adaptor element 1006, and a stirring element 1008. Optionally, the microwaveable unit 1000 further comprises an anti-slipping element 1010, a lid 1012, at least one handle (depicted as a handle 1014), a spout 1016, a shaft element 1018, and an anti-rotation base element 1020. The stirring element 1008 is implemented as a plurality of arms (depicted as arms 1022a, 1022b, 1022c, and 1022d), extending downward from a central portion 1024 of the stirring element 1008. FIG. 10 is merely an example, which should not unduly limit the scope of the claims herein. A person skilled in the art will recognize many variations, alternatives, and modifications of embodiments of the present disclosure.

Claims

CLAIMS1. A microwaveable unit (100, 204, 300, 600, 702, 900, 1000) comprising:- a body (102, 902, 1002) having- a base portion (112, 202, 304, 412) having a raised central part (114) and a first opening (116) in a centre of the raised central part;- a wall portion (118, 302) extending upwardly from a periphery of the base portion to define an internal space (120) of the body; and- a second opening (122, 312) at an upper end of the wall portion, wherein the upper end of the wall portion is opposite to the base portion;- a rotational coupling element (104, 606, 904, 1004) having an elongate portion (124, 910) designed to pass through the first opening, and a flange portion (126) at a first end of the elongate portion, wherein the elongate portion has a plurality of slots (128a-b) in proximity of a second end of the elongate portion;- an adaptor element (106, 200, 408, 906, 1006) having- a plurality of first projecting tabs (130a-b) corresponding to the plurality of slots, and- a plurality of second projecting tabs (132a-c, 208a-c, 210a-c) corresponding to a rotational mechanism of a microwave (400, 614) said rotational mechanism being provided on a floor (402, 610) of a cavity (404, 612) of the microwave;- a stirring element (108, 406, 500a-d, 602, 706, 908, 1008) comprising a central portion (134, 502a-d, 704, 916) and a plurality of arms (136a-b, 504a-h, 918a-b) extending from the central portion; and - a securing element (110, 410, 604, 700) designed to secure the stirring element with the rotational coupling element,wherein the microwaveable unit further comprises an anti-rotation base element fixed (414) on the floor of the cavity of the microwave.

2. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of claim 1, wherein when the securing element (110, 410, 604, 700) is implemented as a threaded screw, an inner surface of the elongate portion (124, 910) has receptacles in proximity to the first end of the elongate portion for receiving threads of the threaded screw, and the central portion (134, 502a-d, 704, 916) of the stirring element (108, 406, 500a-d, 602, 706, 908, 1008) is hollow to allow the threaded screw to pass therethrough.

3. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of claim 1, wherein when the securing element (110, 410, 604, 700) is implemented as a clip, the securing element comprises a plurality of protruding prongs that extends and is arranged in such a manner that when in use, the plurality of protruding prongs securely attach with the flange portion (126) of the rotational coupling element (104, 606, 904, 1004).

4. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of claim 1, wherein when the securing element (110, 410, 604, 700) is implemented as a snug-fit securing element, the securing element is pushed into the elongate portion (124, 910) of the rotational coupling element (104, 606, 904, 1004), and the central portion (134, 502a-d, 704, 916) of the stirring element (108, 406, 500a-d, 602, 706, 908, 1008) is hollow to allow the snug-fit securing element to pass therethrough.

5. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein the first opening (116) of the base portion (112, 202, 304, 412) is at a predefined height from the raised central part (114) of the base portion, the microwaveable unit further comprises a sealing element (146, 928) to provide a fluidic tight sealbetween the flange portion (126) and the raised central part of the base portion, wherein the sealing element matches the predefined height of the first opening (116).

6. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein a side of the base portion (112, 202, 304, 412) is towards the floor (402, 610) of the cavity (404,612) of the microwave (400, 614), which in use, said side of the base portion rests on the floor of the microwave, wherein the body (102, 902, 1002) further comprises an anti-slipping element (206, 1010) on that side of the base portion.

7. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, further comprising a lid (138, 306, 920, 1012) that matches a boundary of the second opening (122, 312) of the body (102, 902, 1002), the lid having at least a hole (140, 922).

8. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, further comprising at least one handle (142, 308, 314a-b, 924, 1014) that extends from the wall portion (118, 302) of the body (102, 902, 1002).

9. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, further comprising a spout (144, 310, 926, 1016) that extends from a portion of the second opening (122, 312) at the upper end of the wall portion (118, 302).

10. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein the stirring element (108, 406, 500a-d, 602, 706, 908, 1008) is implemented as one of: the plurality of arms (136a-b, 504a-c) extending upward from the central portion, the plurality of arms (136a-b, 504d-f, 1022a-d) extending downward from the central portion, an impeller-like arrangement with respect to the central portion (134, 502a-d, 704, 916).

11. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein the number of the plurality of arms (136a-b, 504a-b) of the stirring element (108, 406, 500a-d, 602, 706, 908, 1008) lies in a range of 1 arm to 8 arms.

12. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein the stirring element (108, 406, 500a-d, 602, 706, 908, 1008) is removably attachable from within the internal space (120) of the body (102, 902, 1002).

13. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein the adaptor element (106, 200, 408, 906, 1006) is configured to fit different microwave couplers.

14. The microwaveable unit (100, 204, 300, 600, 702, 900, 1000) of any of the preceding claims, wherein the microwaveable unit comprises two adaptor elements of different sizes to fit with different microwave couplers.

15. A method comprising:- assembling a microwaveable unit (100, 204, 300, 600, 702, 900, 1000) according to any of the preceding claims; and- providing rotational signal to the microwaveable unit when in use, wherein at least a rotational coupling element (104, 606, 904, 1004), an adaptor element (106, 200, 408, 906, 1006), and a stirring element (108, 406, 500a-d, 602, 706, 908, 1008) of the microwaveable unit rotate, while a body (102, 902, 1002) of the microwaveable unit remains stationary and rests on a floor (402, 610) of a cavity (404, 612) of a microwave (400, 614).

16. The method of claim 15, wherein the step of assembling the microwaveable unit (100, 204, 300, 600, 702, 900, 1000) comprises: - arranging the rotational coupling element (104, 606, 904, 1004) with respect to the body (102, 902, 1002) such that a flange portion (126)of the rotational coupling element rests on a first side of a first opening (116) of the body and an elongate portion (124, 910) of the rotational coupling element passes through the first opening of the base portion (112, 202, 304, 412) such that a second end of the elongate portion lies on a second side of the first opening, the first side lying in the internal space (120) of the body;- securely arranging the stirring element (108, 406, 500a-d, 602, 706, 908, 1008) between the flange portion and the securing element (110, 410, 604, 700); and- arranging the adaptor element (106, 200, 408, 906, 1006) such that a plurality of first projecting tabs (130a-b) of the adaptor element are coupled to a plurality of slots (128a-b) in proximity of the second end of the elongate portion, and rotationally coupling a plurality of second projecting tabs (132a-c, 208a-c, 210a-c) of the adaptor element to a rotational mechanism of the microwave (400, 614).

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