Operation method of food processor

Abstract

The invention provides an operation method of a food processor, the food processor applying the operation method comprises a control module, a Bluetooth module and a plurality of process modules, a plurality of standard menu processes are stored in the control module, and each standard menu process comprises a plurality of adjustable parameters. The operation method specifically comprises the following steps: a user side performs information interaction with the control module through the Bluetooth module so as to issue a standard menu process serial number and specific adjustable parameters to the control module; and the control module calls the corresponding standard menu process according to the serial number of the issued standard menu process, and controls the corresponding process module to make food materials according to the issued specific adjustable parameters. After the standard menu process serial number and the specific adjustable parameters are issued through the Bluetooth module, the food processor can be controlled to make food materials according to the corresponding recipes, the communication code quantity is reduced while the recipes are expanded and controlled, and the problem of operation delay of the food processor is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of small household appliances, in particular to an operating method of a food processor. Background Art

[0002] As living standards improve, users have higher and higher requirements for food processing, and food processors, as one of the important equipment for food processing, are expected to have multiple recipe functions. However, the control interface size of most food processors is limited, and the number of selectable functions in the interface is limited, which makes it difficult to meet users' needs for multiple recipe functions of food processors.

[0003] In order to solve the limitation of the food processor control interface on the expansion of recipe functions, the prior art often uses a WIFI module to realize remote control of the food processor. Users can control the food processor through an APP and realize the expansion of the recipe function of the food processor, thereby meeting the user's demand for multiple recipe functions of the food processor. However, the cost of the WIFI module is relatively high, which will increase the cost of the food processor. Therefore, in order to save costs, some existing food processors choose to use a Bluetooth module with a lower cost to realize remote control, but when remote control is realized through a Bluetooth module, it is difficult to realize the expansion of the food processor recipe. Even if it can be realized, the user needs to operate the corresponding recipe and send all the process flows of the recipe to the food processor, and the food processor then realizes the preparation of ingredients according to the recipe process flow. Because the communication rate of the Bluetooth module is slow and the communication code volume of the recipe process flow is large, when the recipe expansion control of the food processor is performed through the Bluetooth module, the problem of food processor operation delay will occur. And before operating the recipe, the user often needs to download the recipe process flow first, and the user experience is poor. Summary of the invention

[0004] In view of the problems of food processor operation delay and poor user experience when the existing food processor implements recipe expansion through a WIFI module, the purpose of the present invention is to provide an operation method of a food processor, which can encapsulate the standard recipe process of the food processor and store it in a control module. After the user sends the standard recipe process serial number and specific adjustable parameters through the Bluetooth module, the food processor can be controlled through the control module to prepare ingredients according to the corresponding recipe. While realizing recipe expansion control, the amount of communication code can be reduced to avoid the problem of food processor operation delay. When the user operates the food processor, there is no need to download the complete recipe process flow. The standard recipe process serial number and the determination of adjustable parameters can be automatically generated by the relevant program on the user side, which will not affect the user experience.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] A method for operating a food processor, the food processor comprising a control module, a Bluetooth module and a plurality of process modules, the control module storing a plurality of standard recipe processes, each of which comprises a plurality of adjustable parameters, comprising the following steps:

[0007] The user side exchanges information with the control module through the Bluetooth module to send the standard recipe process number and specific adjustable parameters to the control module;

[0008] The control module calls the corresponding standard recipe process according to the serial number of the issued standard recipe process, and controls the corresponding process module to prepare the ingredients according to the specific adjustable parameters issued.

[0009] In this technical solution, the standard recipe process is encapsulated and stored in the control module. The user can control the food processor by selecting the standard recipe process number and the specific adjustable parameters therein. The standard recipe process is refined and summarized based on the process of recipe production that can be realized by the existing food processor. The parameter settings of each process step in the standard recipe process have been adjusted to the optimal according to the conclusion of the refinement and summary. Therefore, after selecting the standard recipe process number, the control module can determine the specific standard recipe process, so as to realize the recipe production according to the corresponding refined and summarized process steps and the preset parameters in each process step. The preset parameters in the standard recipe process also include adjustable parameters, which can be set according to specific needs to realize the recipe expansion of the food processor and meet the user's recipe production needs. The transmission content of the Bluetooth module only includes the standard recipe process number and adjustable parameters, and the amount of communication code is greatly reduced, which can effectively avoid the problem of delayed operation of the food processor. And because the standard recipe process already includes refined recipe process steps, users do not need to download the complete recipe process flow to enable the food processor to prepare ingredients according to the recipe process flow of their choice, thereby optimizing the user experience.

[0010] The present invention is further configured such that: the user side interacts with the control module through the Bluetooth module to send the standard recipe process serial number and specific adjustable parameters to the control module, including: the user side selects and downloads the recipe type, and determines the serial number and specific adjustable parameters of the standard recipe process based on the downloaded recipe type, and the Bluetooth module determines the byte data corresponding to the serial number and specific adjustable parameters of the standard recipe process, and sends the corresponding byte data to the control module.

[0011] Through this setting, the Bluetooth module can determine the byte data to be sent according to the determined standard recipe process serial number and specific adjustable parameters, that is, the communication between the Bluetooth module and the control module is in bytes, and information interaction with the food processor is achieved through the transmission of byte data. The standard recipe process serial number and adjustable parameters can be adjusted by changing the bytes, thereby realizing the control of the food processor through the Bluetooth module with a small amount of communication code, thereby reducing the cost of the food processor.

[0012] The present invention is further configured as follows: the user side selects and downloads the recipe type, including the user side selecting a preset menu process or an extended menu process, and determining the downloaded recipe type according to the preset menu process or the extended menu process.

[0013] Through this setting, the preset menu process is obtained after summarizing and refining the production process of the recipes that can be realized by the food processor. After summarizing and refining, the optimal parameters in each production process of the recipes that can be realized by the existing food processor can be obtained and stored together in the control module as preset parameters. However, in order to ensure the user experience, the preset parameters are set as adjustable parameters. After the user selects the preset menu process, the corresponding standard recipe process number can be directly called to make the ingredients according to the preset parameters or the adjustable parameters determined by the user. In order to meet the user's recipe expansion needs, an extended recipe process is added, which can provide the function option of expanding the recipe on the basis of the standard recipe process.

[0014] The present invention is further configured as follows: the user side selects a preset menu process, and the user side selects and downloads a recipe type from the preset recipe types; or, the user side selects an extended menu process, and the user side selects and downloads an extended recipe, and adds extended recipe content according to usage requirements, and then adjusts the corresponding byte data through the extended recipe content.

[0015] Through this setting, the user side can directly select the preset recipe type. After selecting the preset recipe type, the food processor can make it according to the corresponding standard recipe process through communication between the Bluetooth module and the control module. The user side can also choose to expand the recipe, and then improve the expanded recipe by adding recipe expansion content. The method of adding recipe expansion content is to adjust the byte data, keep the information exchange at a low communication code amount, and avoid operation delays. In addition, the download of the above-mentioned recipe types and expanded recipes, the downloaded content are all corresponding serial numbers, and the recipe types and expanded recipes are stored in the control module with specific standard recipe processes, so the user does not need to download the complete recipe production steps, which optimizes the user experience.

[0016] The present invention is further configured as follows: the user side selects and downloads an extended recipe, and adds extended recipe content according to usage requirements, including selecting a process module according to usage requirements and determining a calling order of the process modules, and selecting the parameter type corresponding to each process module in turn according to usage requirements.

[0017] Through this setting, when the user needs to expand the recipe, he can select the process module to be operated and the specific calling order according to the needs, and then determine the specific parameter types, so as to determine the complete expanded recipe. The food processor can prepare ingredients according to user needs to meet the user's recipe expansion needs.

[0018] The present invention is further configured as follows: the adjusting the corresponding byte data through the recipe expansion content includes, starting from the second byte in the byte data, making a one-to-one correspondence between the selected process modules and the bytes in the byte data according to the calling order of the process modules, and setting the upper four bits of each byte according to the corresponding process module, and setting the lower four bits of each byte according to the parameter type corresponding to the selected process module.

[0019] Through this setting, the recipe expansion content can be transmitted to the control module by adjusting the byte data content, thereby realizing the calling and control of the process module. The transmission of information is realized through byte data, which can avoid the increase of communication code amount and delayed operation of the food processor.

[0020] The present invention is further configured as follows: the parameter types include heating temperature, heating power, heating time, maintaining temperature, state duration, number of operating cycles of the food processor motor and the speed of the food processor motor, and one or more combinations of the parameter types are selected as the parameter types corresponding to each process module.

[0021] Through this setting, the various operating parameters of the food processor during the production process can be adjusted to meet the user's needs for food preparation and realize the user's recipe expansion needs.

[0022] The present invention is further configured as follows: the process module includes a heating module and a stirring module, and each heating module or stirring module can automatically adjust parameters according to the parameter types in the byte data.

[0023] Through this setting, the food processor mainly includes two functions: heating and stirring. Therefore, the process module can be divided into a heating module and a stirring module according to the function. In order to ensure the user's recipe expansion needs, the parameters in the heating module and the stirring module are set as adjustable parameters. After the user selects the parameter type, the calling control of the heating module and the stirring module can be realized, thereby simplifying the operation of recipe expansion of the food processor.

[0024] The present invention is further configured as follows: the heating module includes a high-temperature heating module, a heating boiling module, a low-power boiling module and a heat preservation module; the stirring module includes a stirring module, a coarse crushing module, a fine crushing module and a wall-breaking crushing module.

[0025] Through this setting, the heating module and the stirring module are further refined. When expanding the recipe, more production options can be provided to the user through the combination of each module, thereby optimizing the food production effect that can be achieved by the food processor.

[0026] The present invention is further configured such that the length of the byte data sent by the Bluetooth module ranges from 1 to 16 bytes.

[0027] Through this setting, the byte data is limited to 16 bytes, which can not only realize the information interaction, but also ensure that the amount of communication code is not too much, thereby achieving the problem of delayed operation of the food processor while satisfying the control of the food processor.

[0028] The beneficial effects of the present invention are:

[0029] 1. The standard recipe process extracted and summarized from the recipe production process that can be realized by the existing food processor is packaged and stored in the control module. After the user sends the standard recipe process number and specific adjustable parameters through the Bluetooth module, the control module can control the food processor to make ingredients according to the corresponding recipe. While realizing recipe expansion control, it can reduce the amount of communication code and avoid the problem of operational delay of the food processor. When the user operates the food processor, there is no need to download the complete recipe process flow. The standard recipe process number and adjustable parameters can be automatically generated by the relevant program on the user side, which will not affect the user experience.

[0030] 2. The Bluetooth module exchanges information with the control module in bytes. After the user determines the specific information of the recipe, the user can transfer the information by adjusting the byte data content, which simplifies the control method of the food processor. The calling sequence and specific parameters of the process module are set as adjustable types. The user can adjust the calling sequence and parameters of the process module according to the needs, so as to meet the food processor control needs when expanding the recipe.

[0031] 3. Refine the process modules of the food processor and ensure that the parameters of each process module can be adjusted. During the recipe expansion process, more food processor control options can be provided to meet the user's recipe expansion needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 It is a schematic diagram of a process of the present invention. DETAILED DESCRIPTION

[0033] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0034] Example:

[0035] A method for operating a food processor, the food processor comprising a control module, a Bluetooth module and several process modules, the control module storing several standard recipe processes, each of which comprises several adjustable parameters, the standard recipe process being determined by statistically summarizing the process flow of recipes that can be made by existing food processors, the specific parameters in each process flow step in the standard recipe process being the best parameters obtained by statistical summary, and in order to meet the user's recipe expansion needs, the parameters in the standard recipe process are set as adjustable parameters, the user can directly call the preset best parameter value, or set the specific parameter value according to the needs.

[0036] like Figure 1 As shown, the operation method of the food processing machine specifically includes the following steps:

[0037] The user side exchanges information with the control module through the Bluetooth module to send the standard recipe process number and specific adjustable parameters to the control module;

[0038] The control module calls the corresponding standard recipe process according to the serial number of the issued standard recipe process, and controls the corresponding process module to prepare the ingredients according to the specific adjustable parameters issued.

[0039] The user side can input the specific control content of the food processor through information interaction platforms such as APP and WeChat, and further interact with the control module of the food processor through the Bluetooth module to realize the control of the food processor. When determining the specific control content of the food processor, the user side does not need to download the complete recipe production process. The user can directly select the standard recipe process number to control the food processor to run according to the selected recipe. If the recipe needs to be expanded, the specific adjustable parameters can be sent to the control module while sending the standard recipe process number. The control module can directly call the standard recipe process according to the standard recipe process number, and control the corresponding process module to work according to its preset process production process. And if the specific adjustable parameters are received at the same time, the process module is adjusted according to the received adjustable parameters to realize the recipe expansion.

[0040] The user side interacts with the control module through the Bluetooth module to send the standard recipe process serial number and specific adjustable parameters to the control module, including: the user side selects and downloads the recipe type, and determines the serial number and specific adjustable parameters of the standard recipe process based on the downloaded recipe type, and the Bluetooth module determines the byte data corresponding to the serial number and specific adjustable parameters of the standard recipe process, and sends the corresponding byte data to the control module.

[0041] Each recipe type corresponds to a standard recipe process. When determining the standard recipe process corresponding to each recipe type, the data of the existing food processors in the process of making ingredients according to the recipe type and the results of the ingredient production are statistically summarized, so as to determine the optimal process production steps for each recipe type in the production process and the optimal parameters of each process module in each process production step, and then set the standard recipe process according to the optimal process production steps and the optimal parameters of each process module in each process production step.

[0042] The user side selects and downloads the recipe type, including: the user side selects a preset menu process or an extended menu process, and determines the downloaded recipe type according to the preset menu process or the extended menu process.

[0043] In the byte data sent by the Bluetooth module, the upper four bits of the first byte indicate the cup type, which is compatible with up to 15 cup types, i.e. 0x1*-0Xf*, where 1-f indicates the cup type code and * indicates the recipe type. Each recipe type uses a different cup. Therefore, after determining the recipe type, the upper four bits of the first byte are adjusted according to the cup type. After receiving the byte data, the subsequent control module first determines the cup type based on the first byte, and then determines whether the applicable cup of the currently selected recipe type matches the cup placed in the current food processor based on the determined cup type, to avoid errors in the operation of the food processor.

[0044] In this embodiment, five types of cup bodies are provided, namely, a hot cup, a cold cup, a dry grinding cup, a heated dry grinding cup and a multifunctional cup.

[0045] In the byte data sent by the Bluetooth module, the fourth bit of the second byte indicates the recipe type, indicating that each cup body is compatible with 15 recipe types, that is, 0x1*-0Xf*, 1-f indicates the cup body recipe type code, * indicates the cup body type, and when the recipe type code is 0, it indicates that the recipe type is an extended recipe. The parameter design of each process module has been adjusted to the optimal value according to the different recipe types. The Bluetooth module only needs to send the corresponding recipe type of the corresponding cup body to call the process production.

[0046] In this embodiment, 14 kinds of recipes are provided, specifically soybean milk, grains, rice paste, rice porridge, complementary food, thick soup, stew, juice milkshake, milk tea, powder, hot powder, shredded and sliced, jam and smoothie.

[0047] The user side selects a preset menu process, and the user side selects and downloads a recipe type from the preset recipe types; or, the user side selects an extended menu process, and the user side selects and downloads an extended recipe, and adds extended recipe content according to usage requirements, and then adjusts the corresponding byte data through the extended recipe content.

[0048] The length of the byte data sent by the Bluetooth module ranges from 1 to 16 bytes.

[0049] If the user selects a preset menu process, the Bluetooth module only needs to transmit 1 byte of data to call the corresponding standard menu process. For example, if a hot cup is used to make a five-grain recipe, the upper four bits of the byte data corresponding to the hot cup are 0x1*, and when the recipe type is a five-grain recipe, the sequence number of the standard recipe process corresponding to the five-grain recipe is 2, so the lower four bits of the byte data corresponding to the five-grain recipe are 0x*2. Therefore, as long as the Bluetooth module sends 0x12, the food processor will automatically operate according to the preset five-grain recipe.

[0050] The user side selects and downloads the extended recipe, and adds the extended content of the recipe according to the usage requirements, including selecting the process modules according to the usage requirements and determining the calling order of the process modules, and selecting the parameter type corresponding to each process module in turn according to the usage requirements.

[0051] The adjusting the corresponding byte data through the recipe expansion content includes, starting from the second byte in the byte data, making a one-to-one correspondence between the selected process modules and the bytes in the byte data according to the calling order of the process modules, and setting the upper four bits of each byte according to the corresponding process module, and setting the lower four bits of each byte according to the parameter type corresponding to the selected process module.

[0052] This solution reserves 15 bytes for recipe expansion. Among the reserved bytes, the upper four bits of each byte correspond to the process module of the expanded recipe. The process module can be called by adjusting the upper four bits of each byte. The upper four bits of each byte specifically reserve 15 process modules.

[0053] If the user chooses to expand the menu process, the control module can control the corresponding process module to prepare the ingredients by adjusting the upper four bits of each byte in the byte data, and then determine the type of parameter that needs to be adjusted by adjusting the lower four bits of each byte, thereby realizing the parameter adjustment of the process module. The parameter types described here have the same meaning as the above-mentioned adjustable parameters, and are all parameter contents that can be adjusted by the user.

[0054] The parameter types include heating temperature, heating power, heating time, maintaining temperature, state duration, number of operating cycles of the food processor motor and the speed of the food processor motor, and one or more combinations of the parameter types are selected as the parameter types corresponding to each process module.

[0055] The process module includes a heating module and a stirring module, and each heating module or stirring module can automatically adjust parameters according to the parameter types in the byte data.

[0056] The heating module comprises a high-temperature heating module, a heating boiling module, a low-power boiling module and a heat preservation module, and the stirring module comprises a stirring module, a coarse crushing module, a fine crushing module and a wall-breaking crushing module.

[0057] Each process module can adjust parameters according to the type of recipe selected by the user.

[0058] For the high temperature heating module (the corresponding byte data is 0x1*, 1 represents the process module number of the high temperature heating module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the heating tube to the rated power P 额 Heat to temperature T. When the cup body is a hot cup, the temperature T can be adjusted in the range of 80℃-95℃ according to the parameter type. For example, when the byte data is 0x10, the control module controls the heating tube to heat at rated power P 额 When the temperature is heated to 80℃ and the byte data is 0x1f, the control module controls the heating tube to heat at rated power P 额 Heat to a temperature of 90°C. When the cup body is a heated dry grinding cup, the temperature T can be adjusted in the range of 140°C-155°C according to the parameter type.

[0059] For the heating and boiling module (the corresponding byte data is 0x2*, 2 represents the process module number of the heating and boiling module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the heating tube to heat the slurry with power P until the slurry boils, wherein the power P can be set according to the parameter type. To P 额 For example, when the byte data is 0x20, after receiving the corresponding byte data, the control module controls the heating tube to power Heat until the slurry boils. When the byte data is 0x2f, the control module controls the heating tube to heat at power P after receiving the corresponding byte data. 额 Heat until slurry boils.

[0060] For the low-power boiling module (the corresponding byte data is 0x3*, 3 represents the process module number of the low-power boiling module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the heating tube to maintain the slurry boiling within the duration t. The duration t can be adjusted within the range of 1-16 minutes according to the parameter type. For example, when the byte data is 0x30, after receiving the corresponding byte data, the control module controls the heating tube to maintain the slurry boiling for 1 minute. When the byte data is 0x35, after receiving the corresponding byte data, the control module controls the heating tube to maintain the slurry boiling for 6 minutes. When the byte data is 0x35, after receiving the corresponding byte data, the control module controls the heating tube to maintain the slurry boiling for 16 minutes.

[0061] For the insulation module (the corresponding byte data is 0x4*, 4 represents the process module number of the insulation module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the heating pipe to maintain the slurry temperature at temperature T, and the duration of temperature maintenance adopts a fixed design, preferably set to 4 hours. Among them, temperature T can be adjusted in the range of 60°C-75°C according to the parameter type. For example, when the byte data is 0x40, after receiving the corresponding byte data, the control module controls the heating pipe to maintain the slurry temperature at 60°C, and the insulation time lasts for 4 hours. When the byte data is 0x4A, after receiving the corresponding byte data, the control module controls the heating pipe to maintain the slurry temperature at 70°C, and the insulation time lasts for 4 hours.

[0062] For the stirring module (the corresponding byte data is 0x5*, 5 represents the process module number of the stirring module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the motor to run at 1000RPM for 5 seconds, stop for 5 seconds, and repeat n times. The number of cycles n can be adjusted in the range of 1-16 times according to the parameter type. For example, when the byte data is 0x50, after receiving the corresponding byte data, the control module controls the motor to run at 1000RPM for 5 seconds and stop for 5 seconds; when the byte data is 0x51, after receiving the corresponding byte data, the control module controls the motor to run at 1000RPM for 5 seconds, stop for 5 seconds, and then controls the motor to run at 1000RPM for 5 seconds and stop for 5 seconds again.

[0063] For the coarse crushing module (the corresponding byte data is 0x6*, 6 represents the process module number of the coarse crushing module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the motor to run at a speed of N for 30 seconds, stop for 15 seconds, and cycle 5 times. The speed N can be adjusted in the range of 1000RPM-16000RPM according to the parameter type. For example, when the byte data is 0x60, after receiving the corresponding byte data, the control module controls the motor to run at 1000RPM for 30 seconds and stop for 15 seconds. When the byte data is 0x61, after receiving the corresponding byte data, the control module controls the motor to run at 2000RPM for 30 seconds, stop for 15 seconds, and cycle 5 times.

[0064] For the fine crushing module (the corresponding byte data is 0x7*, 7 represents the process module number of the fine crushing module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the motor to run at 10000RPM for 30 seconds, stop for 15 seconds, and cycle n times. The number of cycles n can be adjusted in the range of 1-16 times according to the parameter type, and the byte data setting is the same as that of the coarse crushing module.

[0065] For the wall breaking and crushing module (the corresponding byte data is 0x8*, 8 represents the process module number of the wall breaking and crushing module, and * represents the parameter type), after receiving the corresponding byte data, the control module can control the control motor to run at a speed N for 1 minute. The speed N can be adjusted in the range of 10000RPM-26000RPM according to the parameter type.

[0066] Through the parameter adjustment principles of the above-mentioned different process modules, by utilizing the combination of 8 process modules and corresponding parameter types, various expansions of the standard recipe process can be realized to meet the production requirements of various processes. Menu expansion beyond the standard menu process can be achieved through data communication within 15 bytes only.

[0067] For example, when a food processor is needed to make eight-treasure porridge, the food processing effect achieved by cooking the eight-treasure porridge ingredients through the standard rice porridge making process cannot meet user needs. Therefore, the Bluetooth module can send parameters "0x15, 0x50, 0x23, 0x50, 0x3F, 0x50, 0x3F, 0x50, 0x3F, 0x50, 0x3F", which can control the food processor to prepare the ingredients according to the set extended recipe process, thereby realizing the eight-treasure porridge function.

[0068] The process production steps corresponding to the byte data issued for the production of the eight-treasure porridge function are specifically as follows:

[0069] Step 1 (0x15): Control the heating tube to the rated power P 额 Heat to a temperature of 85°C;

[0070] Step 2 (0x50): Control the motor to run at 1000RPM for 5 seconds and stop for 5 seconds;

[0071] Step 3 (0x23): Control the heating tube to heat with power until the slurry boils;

[0072] Step 4 (0x50): Control the motor to run at 1000RPM for 5 seconds and stop for 5 seconds;

[0073] Step 5 (0x3f): Control the heating tube to keep the slurry boiling for 16 minutes;

[0074] Step 6 (0x50): Control the motor to run at 1000RPM for 5 seconds and stop for 5 seconds;

[0075] Step 7 (0x3f): Control the heating tube to keep the slurry boiling for 16 minutes;

[0076] Step 8 (0x50): Control the motor to run at 1000RPM for 5 seconds and stop for 5 seconds;

[0077] Step 9 (0x3f): Control the heating tube to keep the slurry boiling for 16 minutes;

[0078] Step 10 (0x50): Control the motor to run at 1000RPM for 5 seconds and stop for 5 seconds;

[0079] Step 11 (0x3f): Control the heating tube to maintain the slurry boiling for 16 minutes.

[0080] For another example, when a food processor only needs to be crushed, the user can send the parameters "0x85, 0x85, 0x85" through the Bluetooth module to control the motor to run at a speed of 15,000 for 3 minutes to realize the crushing function of the food processor. If other speeds and times are required, they can also be freely adjusted by sending byte data through the Bluetooth module.

[0081] The above-described embodiment is only a preferred solution of the present invention and does not limit the present invention in any form. There are other variations and modifications without exceeding the technical solution described in the claims.

Claims

1. A method for operating a food processing machine, the food processing machine comprising a control module, a Bluetooth module and a plurality of process modules, characterized in that: The control module stores a number of standard recipes and processes, and each standard recipe process includes a number of adjustable parameters, including the following steps: The user side exchanges information with the control module through the Bluetooth module to send the standard recipe process number and specific adjustable parameters to the control module; The control module calls the corresponding standard recipe process according to the serial number of the issued standard recipe process, and controls the corresponding process module to prepare the ingredients according to the specific adjustable parameters issued.

2. The method for operating a food processing machine according to claim 1, characterized in that: The user side interacts with the control module through the Bluetooth module to send the standard recipe process serial number and specific adjustable parameters to the control module, including: the user side selects and downloads the recipe type, and determines the serial number and specific adjustable parameters of the standard recipe process based on the downloaded recipe type, and the Bluetooth module determines the byte data corresponding to the serial number and specific adjustable parameters of the standard recipe process, and sends the corresponding byte data to the control module.

3. The method for operating a food processing machine according to claim 2, characterized in that: The user side selects and downloads the recipe type, This includes: the user side selects a preset menu process or an extended menu process, and determines the type of recipe to be downloaded according to the preset menu process or the extended menu process.

4. The method for operating a food processing machine according to claim 3, characterized in that: The user side selects a preset menu process, and the user side selects and downloads a recipe type from the preset recipe types; or, the user side selects an extended menu process, and the user side selects and downloads an extended recipe, and adds extended recipe content according to usage requirements, and then adjusts the corresponding byte data through the extended recipe content.

5. The method for operating a food processing machine according to claim 3, characterized in that: The user side selects and downloads the extended recipe, and adds the extended content of the recipe according to the usage requirements, including selecting the process modules according to the usage requirements and determining the calling order of the process modules, and selecting the parameter type corresponding to each process module in turn according to the usage requirements.

6. The method for operating a food processing machine according to claim 5, characterized in that: The adjusting the corresponding byte data through the recipe expansion content includes, starting from the second byte in the byte data, making a one-to-one correspondence between the selected process modules and the bytes in the byte data according to the calling order of the process modules, and setting the upper four bits of each byte according to the corresponding process module, and setting the lower four bits of each byte according to the parameter type corresponding to the selected process module.

7. The method for operating a food processing machine according to claim 6, characterized in that: The parameter types include heating temperature, heating power, heating time, maintaining temperature, state duration, number of operating cycles of the food processor motor and the speed of the food processor motor, and one or more combinations of the parameter types are selected as the parameter types corresponding to each process module.

8. The method for operating a food processing machine according to claim 1, characterized in that: The process module includes a heating module and a stirring module, and each heating module or stirring module can automatically adjust parameters according to the parameter types in the byte data.

9. The method for operating a food processing machine according to claim 8, characterized in that: The heating module comprises a high-temperature heating module, a heating boiling module, a low-power boiling module and a heat preservation module, and the stirring module comprises a stirring module, a coarse crushing module, a fine crushing module and a wall-breaking crushing module.

10. The method for operating a food processing machine according to claim 2, characterized in that: The length of the byte data sent by the Bluetooth module ranges from 1 to 16 bytes.

Images