![]() Cooking appliance device (Machine-translation by Google Translate, not legally binding)
专利摘要:
In order to provide a generic cooking appliance device with improved properties in terms of high efficiency, a cooking appliance device (10a-c) with a main power supply module (18a-c) is proposed, which is provided for supplying at least one heating current, with at least one secondary power supply module (20a-c), which is provided to supply at least one other heating current, and with at least one rectifying unit (14a- c), which is intended to supply at least one dc voltage for the main power supply module (18a-c). (Machine-translation by Google Translate, not legally binding) 公开号:ES2633492A1 申请号:ES201630331 申请日:2016-03-21 公开日:2017-09-21 发明作者:José Miguel Burdio Pinilla;Tomas Cabeza Gozalo;Sergio Llorente Gil;Oscar Lucia Gil;Ignacio Millan Serrano;Diego Puyal Puente;Hector Sarnago Andia 申请人:BSH Hausgeraete GmbH;BSH Electrodomesticos Espana SA; IPC主号:
专利说明:
image 1 image2 image3 image4 image5 less partially by the main power supply module. The secondary current supply module is operable at least in the heating operating state by the main current supply module, as a consequence of the voltage at least partially influenced by the main current supply module and applied to the supply module secondary current, dependently on and exclusively together with the main current supply module. The term "rectifier unit" includes the concept of a unit that is intended to rectify an applied alternating voltage, in particular, each half-wave of an applied alternating voltage, and to supply the rectified alternating voltage as a direct voltage for the main supply module of stream. An alternating voltage is applied to the rectifier unit which is configured as a mains voltage and, advantageously, is supplied by a voltage source of the cooking appliance device. The continuous voltage rectified by the rectifier unit has a frequency that has a value that is twice the alternating voltage applied to the rectifier unit. A ripple of the rectified continuous voltage by the rectifier unit has twice the frequency of the alternating voltage applied to the rectifier unit. The rectifier unit is independent of the power supply modules, in particular, the main power supply module and the secondary power supply module, and is made separately from the power supply modules. The rectifier unit could be made as a complete bridge rectifier and / or as a three-phase rectifier and / or as a rectifier and / or as a bridge rectifier and / or as a half-wave rectifier. The rectifier unit is made differently with respect to a single phase rectifier, and differs from a single phase rectifier. The rectifier unit has four rectifier diodes, namely, a first, a second, a third, and a fourth rectifier diode. The rectifier diodes are provided to jointly rectify the alternating voltage. The first and second rectifier diodes are arranged in a serial connection. The third and fourth rectifier diodes are arranged in a serial connection. The serial connection of the first and second rectifier diodes and the serial connection of the third and fourth rectifier diodes are arranged in a complete bridge connection and connected to each other through a bridge branch, in which a source is arranged voltage of the cooking appliance device. The cooking device has at least one voltage source that is configured as an alternating voltage source. The voltage source could be connected to an electrical network of a cooking appliance and / or be formed by an electrical network of a cooking appliance. The term “planned” includes the concept of programmed, image6 connecting element and / or as a resistive electrical component. However, the voltage transformer element is preferably made as an inductor. In particular, the voltage transformer element is made as an inductor made differently with respect to a heating inductor, in particular a heating element. By way of example, the voltage transformer element could be any serial connection and / or any parallel connection of inductors. The voltage transforming element is an inductor. In this way, the voltage supplied by the grinding unit in at least one heating operating state can be optimally adapted and / or modified. In addition, it is proposed that the cooking appliance device has a lifting drive stage, which has the voltage transformer element and at least a part of the main current supply module. The voltage transformer element is particularly advantageously realized as an enhancer inductor. The lifting drive stage is intended to transform an input voltage into an output voltage that is higher than the input voltage. The term "lifting drive stage" includes the concept of a voltage driving stage that is intended to transform a first voltage, namely, the input voltage, into a second voltage, specifically, the output voltage. The lifting actuator stage presents the voltage transformer element realized as an inductor, in particular as an enhancer inductor, a diode connected in series with the voltage transformer element, a connection element, and a capacity, in particular, a capacity of filtering, which is arranged at one end, opposite the voltage transformer element, of the series connection of the voltage transformer element and the diode. The control unit is intended to apply the input voltage to the voltage transformer element by modifying the connection position of the connection element of the lifting actuator stage, and to connect the voltage transformer element and capacity in parallel to each other. The voltage transformer element is intended to increase the energy stored in the voltage transformer element in the event that a connecting element of the lifting drive stage is closed, in particular, with an input voltage being applied. Likewise, in the event that a connection element of the lifting drive stage is open, in particular, without an input voltage being applied, the voltage transformer element is provided to maintain without modifying the current flow that flows to image7 image8 main current in at least the mounted state. Thus, high efficiency can be achieved. Particularly high efficiency can be achieved through a cooking appliance, in particular, through a cooking field and, advantageously, through an induction cooking field, with at least one cooking device device according to the invention, in particular with at least one cooking field device according to the invention and, advantageously, with at least one induction cooking field device according to the invention. It is possible to increase the efficiency to a greater extent by means of a method for putting into operation a cooking appliance device according to the invention, in particular, a cooking field device according to the invention and, advantageously, a cooking device Induction cooking field according to the invention, with a main current supply module, which is intended to supply at least one heating current, and with at least one secondary current supply module, which is intended to supply at least one other heating current, where at least one continuous voltage is supplied to the main current supply module. The cooking appliance device described is not limited to the application or to the embodiment described above, in particular it may have a number of particular elements, components, and units that differ from the amount mentioned herein. , as long as the purpose of fulfilling the functionality described here is pursued. Other advantages are taken from the following description of the drawing. Examples of embodiment of the invention are shown in the drawing. The drawing, description and claims contain numerous features in combination. The person skilled in the art will consider the characteristics advantageously also separately, and will gather them in other reasonable combinations. They show: Fig. 1 a cooking appliance with a cooking appliance device, in view schematic superior, Fig 2 the cooking appliance device in a general state, in schematic representation, Fig. 3 a simplified example of a cooking appliance device alternative in the general state, in schematic representation, Fig. 4 the cooking appliance device in a first statefrom heating operation, in schematic representation, Fig. 5 the cooking appliance device in a second state heating operation, in schematic representation, Fig. 6 hedevicefromapparatusfromcooking in athird statefrom heating operation, in schematic representation, Fig. 7 the device of cooking appliance in a fourth statefrom heating operation, schematically, and Fig. 8 an alternative cooking appliance device in a general state, in schematic representation. Figure 1 shows a cooking appliance 32a with a cooking appliance device 10a. The cooking apparatus could be made, for example, as a cooking oven, in particular, as an induction cooking oven, and / or as a kitchen, in particular, as an induction cooker. In the present embodiment, the cooking apparatus 32a is made as a cooking field, in particular, as an induction cooking field. The cooking device 10a is made in the present embodiment as a cooking field device, in particular, as an induction cooking device. The cooking apparatus 32a has an appliance plate 34a. In the assembled state, the appliance plate 34a forms a part of an outer housing of the cooking appliance. In the installation position, the device plate 34a forms a part of the outer casing of the apparatus directed towards the user. The appliance plate could be made, for example, as a faceplate and / or cover plate of the outer casing of the appliance, in particular, of a cooking appliance made as a cooking oven and / or as a cooker. In the present embodiment, the appliance plate 34a is made as a cooking field plate. In the assembled state, the appliance plate 34a is provided to support at least one cooking battery. The cooking apparatus 32a has a user interface 36a for the introduction and / or selection of operating parameters (see Figure 1), for example, the heating power and / or the density of the heating power and / or the heating zone Also, the user interface 36a is intended to give the user the value of an operating parameter. As an example, the user interface could emit the value of the operating parameter optically and / or acoustically to the user. image9 activates the connection element 44a, 48a via the control contact. By activating the connection element 44a, 48a, the control unit 16a modifies the connection position of the connection element 44a, 48a in the heating operating state. Diode 46a, 50a has a first contact and a second contact. The first contact of the connecting element 44a, 48a and the first contact of the diode 46a, 50a are electrically conductively connected to each other. The second contact of the connecting element 44a, 48a and the second contact of the diode 46a, 50a are electrically conductively connected to each other. The connection unit 40a, 42a has a first contact and a second contact. The first contact of the connection unit 40a, 42a is electrically conductively connected with the first contact of the connection element 44a, 48a and with the first contact of the diode 46a, 50a. The second contact of the connection unit 40a, 42a is electrically conductively connected with the second contact of the connection element 44a, 48a and with the second contact of the diode 46a, 50a. The driving direction of the connecting element 44a, 48a and the driving direction of the diode 46a, 50a are antiparallel to each other. The cooking apparatus device 10a has a first main line 52a and a second main line 54a. The term "main line" includes the concept of an electrically conductive connection between objects, in particular, between units and / or elements. The first connection unit 40a and the second connection unit 42a are connected in series. The second contact of the first connection unit 40a and the first contact of the second connection unit 42a are electrically conductively connected to each other. The first contact of the first connection unit 40a and the first main line 52a are electrically conductively connected to each other. The second contact of the second connection unit 42a and the second main line 54a are electrically conductively connected to each other. The cooking device 10a has several heating elements 56aa, ..., 56an (see Figure 2), in particular, an amount of n heating elements 56aa, ..., 56an. The quantity n is a whole natural number and adopts a value of at least 2. The quantity of heating elements 56aa, ..., 56an and the quantity of power supply modules 12aa, ..., 12an is identical. Every heating element 56a is associated with a current supply module 12a. The heating elements 56aa, ..., 56an are made essentially identically, whereby only one heating element 56a of the heating elements 56aa, ..., 56an is described below. The heating element 56a is provided to heat the cooking battery resting on the appliance plate 34a above the heating element 56a. The heating element 56a is made as an induction heating element. In a heating operating state, the control unit 16a regulates the power supply to the heating element 56a, activates the current supply modules 12a to generate a high frequency heating current, and excites the connection elements 44a, 48a of the first and second connection unit 40a, 42a to generate a high frequency heating current for the heating element 56a. In Figure 2, the heating element 56a is shown as a coil and resistor. The heating element 56a has a first contact and a second contact. The first contact of the heating element 56a and the second contact of the first connection unit 40a are electrically conductively connected to each other. The first contact of the heating element 56a and the first contact of the second connection unit 40a are electrically conductively connected to each other. The cooking appliance 10a has at least a resonant capacity 58aa, ..., 58an (see Figure 2). In the present embodiment, the cooking device device 10a has several resonant capacities 58aa, ..., 58an, in particular, a number of n resonant capacities 58aa, ..., 58an. The quantity n is a whole natural number and adopts a value of at least 2. The amount of resonant capacities 58aa, ..., 58an and the number of power supply modules 12aa, ..., 12an is identical. Each resonant capacity 58aa, ..., 58an is associated with a power supply module 12a. The resonant capacities 58aa, ..., 58an are performed in essentially identical manner, whereby only a resonant capacity 58a of the resonant capacities 58aa, ..., 58an is described below. The resonant capacity 58a has a first contact and a second contact. The second contact of the heating element 56a and the first contact of the resonant capacity 58a are electrically conductively connected to each other. The resonant capacity 58a and the heating element 56a are arranged in a series connection. The second contact of the resonant capacity 58a and the second main line 54a are electrically conductively connected to each other. The cooking appliance device 10a has a storage capacity 60a. In the present embodiment, the storage capacity 60a is formed by a capacitor. The storage capacity 60a has a first contact and a second contact. The second storage capacity contact 60a and the second main line 54a are electrically conductively connected to each other. The first contact of the storage capacity 60a and the first output of a rectifier unit 14a are electrically conductively connected to each other. The cooking device 10a also has the grinding unit 14a. The rectifier unit 14a has a first rectifier diode 28a, a second rectifier diode 30a, a third rectifier diode 68a, and a fourth rectifier diode 70a. The rectifier unit 14a is made as a complete bridge rectifier. The rectifier unit 14a has a first output, a second output, a third output, and a fourth output. The second output of the grinding unit 14a and the fourth output of the grinding unit 14a are electrically conductively connected to each other. The connection between the second output of the grinding unit 14a and the fourth output of the grinding unit 14a is formed by the second main line 54a. The first rectifier diode 28a has a first contact and a second contact. The second rectifier diode 30a has a first contact and a second contact. The first rectifier diode 28a and the second rectifier diode 30a are connected in series. The second contact of the first rectifier diode 28a and the first contact of the second rectifier diode 30a are electrically conductively connected to each other. The first contact of the first rectifier diode 28a and the first output of the rectifier unit 14a are electrically conductively connected to each other. The first contact of the first rectifier diode 28a and the third outlet of the rectifier unit 14a are electrically conductively connected to each other. The second contact of the second rectifier diode 30a and the second output of the unit grinding machine 14a are electrically conductively connected to each other. The second contact of the second rectifier diode 30a and the fourth output of the rectifier unit 14a are electrically conductively connected to each other. The third rectifier diode 68a has a first contact and a second contact. The fourth rectifier diode 70a has a first contact and a second contact. The third rectifier diode 68a and the fourth rectifier diode 70a are connected in series. The second contact of the third rectifier diode 68a and the first contact of the fourth rectifier diode 70a are electrically conductively connected to each other. The first contact of the third rectifier diode 68a and the first output of the rectifier unit 14a are electrically conductively connected to each other. The first contact of the third rectifier diode 68a and the third output of the rectifier unit 14a are electrically conductively connected to each other. The second contact of the fourth rectifier diode 70a and the second output of the rectifier unit 14a are electrically conductively connected to each other. The second contact of the fourth rectifier diode 70a and the fourth outlet of the rectifier unit 14a are electrically conductively connected to each other. The second contact of the first rectifier diode 28a and the first contact of the voltage source 38a are electrically conductively connected to each other. The first contact of the second rectifier diode 30a and the first contact of the voltage source 38a are electrically conductively connected to each other. The second contact of the third rectifier diode 68a and the second contact of the voltage source 38a are electrically conductively connected to each other. The first contact of the fourth rectifier diode 70a and the second contact of the voltage source 38a are electrically conductively connected to each other. In a procedure for putting the cooking apparatus device 10a into operation, a continuous voltage is supplied for a main current supply module 18a. In the heating operating state, the rectifier unit 14a rectifies the alternating voltage supplied by the voltage source 38a. The rectifier unit 14a supplies a continuous voltage for the main current supply module 18a. The cooking apparatus device 10a has the main current supply module 18a and a number of (n-1) secondary current supply modules 20a. The main power supply module 18a is formed by a single 12a power supply module. The remaining power supply modules 12a comprise in each case one of the secondary power supply modules 20a. Next, only one of the secondary current supply modules 20a is described. The main current supply module 18a is intended to supply a heating current. In the heating operating state, the main current supply module 18a supplies a heating current for a heating element 56a. The secondary current supply module 20a is intended to supply another heating current. In the heating operating state, the secondary current supply module 20a supplies another heating current for another heating element 56a. The cooking device 10a has a voltage transformer element 24a. The voltage transformer element 24a is made as an inductor. In the present embodiment, the voltage transformer element 24a is formed by an inductor. In the assembled state, the voltage transformer element 24a is connected to an output of the rectifier unit 14a. In the present exemplary embodiment, the voltage transformer element 24a is connected in the state mounted to the third output of the rectifier unit 14a. The voltage transformer element 24a has a first contact and a second contact. The third output of the rectifier unit 14a and the first contact of the voltage transformer element 24a are electrically conductively connected to each other. The second contact of the voltage transformer element 24a and an input of a main connection element 62a are electrically conductively connected to each other. The cooking device 10a has the main connecting element 62a. The main connection element 62a is intended to deactivate the current supply modules 12a, in particular, the main current supply module 18a and the secondary current supply module 20a. The first output of the main connection element 62a and the main power supply module 18a are electrically conductively connected to each other. The first output of the main connection element 62a and the second Contact of the first connection unit 40a of the main power supply module 18a are electrically conductively connected to each other. The first output of the main connection element 62a and the first contact of the second connection unit 42a of the main power supply module 18a are electrically conductively connected to each other. In the heating operating state, the main current supply module 18a is electrically conductively connected to the voltage transformer element 24a through the main connection element 62a. The second output of the main connection element 62a is disconnected and, advantageously, provided for deactivation. The cooking device 10a has a lifting stage 26a. The voltage transformer element 24a is part of the lifting drive stage 26a. A part of the main power supply module 18a is part of the lifting drive stage 26a. The lifting drive stage 26a presents the voltage transformer element 24a and the part of the main current supply module 18a. The voltage transformer element 24a is realized as an enhancer inductor. The cooking device 10a also has a filtering capacity 72a. In the present embodiment, the filtering capacity 72a is formed by a condenser. The filtering capacity 72a is part of the lifting drive stage 26a. The lifting drive stage 26a has the filtering capacity 72a. In the assembled state, the filtering capacity 72a is connected to an output of the rectifier unit 14a. In the present embodiment, the filtering capacity 72a is connected in the state mounted to the third output of the rectifier unit 14a. The filtering capacity 72a has a first contact and a second contact. The first contact of the filtering capacity 72a and the first main line 52a are electrically conductively connected to each other. The second contact of the filtering capacity 72a and the third output of the rectifier unit 14a are electrically conductively connected to each other. The second contact of the filtering capacity 72a and the first contact of the voltage transformer element 24a are connected to each other in a conductive manner image10 image11 of secondary power supply 20b with the heating element 56b associated with the main current supply module 18b. In a heating operating state shown in FIG. 6, the connection element of the configuration 64b connects the main current supply module 18b with the heating element 56b associated with the main current supply module 18b. In the heating operating state, the other connection element of the configuration 66b connects the secondary current supply module 20b with the heating element 56b associated with the main current supply module 18b. In a heating operating state shown in Figure 7, the connection element of the configuration 64b connects the main current supply module 18b with the other heating element 56b associated with the secondary current supply module 20b. In the heating operating state, the other connection element of the configuration 66b connects the secondary current supply module 20b with the other heating element 56b associated with the secondary current supply module 20b. When a heating element is fed by at least two current supply modules, in particular, by the main current supply module and by at least one of the secondary current supply modules, the heating element can be supplied with a large amount of power with a low electrical current flowing through the activated power supply modules, in particular, through the connection units of the activated power supply modules. Thus, it is possible to achieve that the losses are small and, in addition to this, a slight heating and / or load of the power supply modules, in particular, of the connection units of the activated power supply modules. Figure 8 shows an alternative cooking appliance device 10c. The cooking device 10c shown in Figure 8 differs from the cooking device 10b shown in Figure 3 in the arrangement of the filtering capacity 72c. The cooking device 10c shown in Figure 8 has a filtering capacity 72c. In the assembled state, the filtering capacity 72c is connected in parallel to a main power supply module 18c of the cooking device 10c. The filtering capacity 72c has a first contact and a second contact. The first contact of the filtering capacity 72c and the first main line 52c are electrically conductively connected to each other. The second contact of the filtering capacity 72c and the second main line 54c are connected to each other in 5 electrically conductive way. Alternatively to the arrangement of the filtering capacity in the cooking device device shown in Figures 3 to 7, the arrangement of the filtering capacity in the cooking device device shown in Figures 3 to 7 could be analogous at the disposal of the filtering capacity of the device device 10 cooking shown in figure 8. Reference symbols Cooking appliance 12 Power supply module 14 Grinding unit 16 Control unit 18 Main power supply module Secondary power supply module 24 Voltage transformer element 26 Lifting Drive Stage 28 First rectifier diode Second rectifier diode 32 Cooking appliance 3. 4 Appliance plate 36 User interface 38 Voltage source First connection unit 42 Second connection unit 44 First connection element 46 First diode 48 Second connection element Second diode 52 First main line 54 Second main line 56 Heating element 58 Resonant capacity Storage capacity 62 Main Connection Element 64 Configuration Connection Element 66 Other configuration connection element 68 Third rectifier diode 4th rectifier diode 72 Filtering capacity
权利要求:
Claims (1) [1] image 1 image2
类似技术:
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同族专利:
公开号 | 公开日 ES2633492B1|2018-07-04| DE102017203067A1|2017-09-21|
引用文献:
公开号 | 申请日 | 公开日 | 申请人 | 专利标题 EP0498735A1|1991-02-08|1992-08-12|Bonnet S.A.|Inductor assembly for the induction heating of cooking vessels, and its control| EP0724379A1|1995-01-25|1996-07-31|MENEGHETTI Ampelio, STRAGLIOTTO Maria, MENEGHETTI Cesira, MENEGHETTI Tiziano dba MENEGHETTI AMPELIO & C. S.n.c.|Control device particularly for induction cooking ranges with multiple heating elements| ES2338863T3|2000-09-29|2010-05-13|Bsh Bosch Und Siemens Hausgerate Gmbh|CONVERTER CIRCUIT AND ITS OPERATING PROCEDURE.| US20100008117A1|2008-07-11|2010-01-14|Em Microelectronic-Marin S.A.|Power supply unit having a voltage converter|
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申请号 | 申请日 | 专利标题 ES201630331A|ES2633492B1|2016-03-21|2016-03-21|Cooking appliance|ES201630331A| ES2633492B1|2016-03-21|2016-03-21|Cooking appliance| DE102017203067.4A| DE102017203067A1|2016-03-21|2017-02-24|Gargerätevorrichtung| 相关专利
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