Abstract: The present invention relates to an induction cooking hob (10) including at least one cooking area (12), wherein the cooking area (12) comprises at least three induction coils (14). The induction coils (14) of at least one cooking area (12) are arranged side-by-side and in series. Each induction coil (14) of at least one cooking area (12) has an elongated shape. The longitudinal axes of the induction coils (14) within one cooking area (12) are arranged in parallel. Each induction coil (14) of the cooking area (12) is associated with a dedicated induction generator (16). The induction generators (16) are connected or connectable to at least one current line (18). The induction generators (16) are connected to and controlled or controllable by at least one control unit (20). Requested powers (rP) for each used induction generator (16) are adjusted or adjustable independent from each other by a user interface (22). Instant powers (iP) of the induction generators (16) within a cycle pattern (T1, T2, . . .

Abstract: Method to control a quasi-resonant inverter (13) in an induction cooking appliance (1) provided with induction heating coil (4). The quasi-resonant inverter (13) comprises a switching device (21) electrically connected to the induction heating coil (4) by a node (20) having a first voltage (VC(t)) which is indicative of the voltage across the power switching device (21). The method comprising the steps of: providing to the switching device (21) an enabling signal (K1) comprising a plurality of pulses, in order to switch-on and switch-off said switching device (21) for a switch-on period (tON) and a switch-off period (tOFF), determining a second voltage (VCmin) indicative of the minimum value of the first voltage (VC(t)) during the switch- off period (tOFF), regulating the switch-off period (tOFF) based on the second voltage (VCmin), and regulating the enabling signal (K1) based on the regulated switch-off period (tOFF).

Abstract: The invention relates to a method for controlling a cooking appliance (1) with a temperature sensor (5), the cooking appliance (1) comprising at least one heating power transferring element (2) for heating a cookware item (3) placed on a cooking support (4), the method comprising the steps of: —Gathering temperature information related to the cookware item (3) or its content with the temperature sensor (5) at or in the cookware item (3), —after a heat-up process, gathering information regarding a power reduction action initiated by a user input; —evaluating temperature information provided by the temperature sensor (5), said temperature information being correlated with the temperature of the cookware item (3) or the cookware content; —providing temperature lock information to the user if the variation of the temperature of the cookware item (3) or the cookware content is within a certain temperature variation range; —after providing temperature lock information, receiving temperature lock confirmation from t

Abstract: Systems and methods are provided for an induction cooking hob. The induction cooking hob includes at least three induction coils each comprising a first shape. The induction cooking hob includes a fourth induction coil arranged lateral to the three induction coils. The fourth induction coil includes a second shape. The induction cooking hob includes one or more generators. The induction cooking hob includes a control unit that is configured to control the one or more generators to supply power to the at least three induction coils and the fourth induction coil.

Abstract: A cooking hob includes at least one heating power transferring element with multiple concentrically arranged windings, one or more heating power energy units for powering the windings, a control unit that controls the heating power energy units, and detection means that determines the coverage of the windings by a cookware item. The control unit balances the heat provided to the cookware item by determining a rescaled electric power for the windings based on power requests and information regarding the coverage of the windings and establishes an operating cycle by determining a duty cycle for one or more windings. The duty cycle defines the activation time of the respective winding and is chosen such that the mean electric power provided to the respective winding within the operating cycle is equal or essentially equal to the rescaled electric power associated with the winding.

Abstract: The present invention relates to an induction cooking hob (10) including at least one cooking area (12), wherein the cooking area (12) comprises at least three induction coils (14). The induction coils (14) of at least one cooking area (12) are arranged side-by-side and in series. Each induction coil (14) of at least one cooking area (12) has an elongated shape. The longitudinal axes of the induction coils (14) within one cooking area (12) are arranged in parallel. Each induction coil (14) of the cooking area (12) is associated with a dedicated induction generator (16). The induction generators (16) are connected or connectable to at least one current line (18). The induction generators (16) are connected to and controlled or controllable by at least one control unit (20). Requested powers (rP) for each used induction generator (16) are adjusted or adjustable independent from each other by a user interface (22). Instant powers (iP) of the induction generators (16) within a cycle pattern (T1, T2, . . .

Abstract: The invention relates to a cooking hob comprising at least one heating power transferring element (2) including multiple concentrically arranged windings (2.1-2.n), one or more heating power energy units (3.1-3.n) for powering said windings (2.1-2.n) of the heating power transferring element (2) and a control unit (4) configured to control said one or more heating power energy units (3.1-3.n), wherein the cooking hob (1) comprises detection means configured to determine the coverage of the windings (2.1-2.n) of the heating power transferring element (1) by a cookware item (5), wherein the control unit (4) is configured to balance the heat provided to the cookware item (5) by determining a rescaled electric power for the windings (2.1-2.n) of the heating power transferring element (2) based on power requests and information regarding the coverage of the windings (2.1-2.n) and to establish an operating cycle by determining a duty cycle for one or more windings (2.1-2.

Abstract: The present invention relates to an induction cooking hob (10) including at least one cooking area (12), wherein the cooking area (12) comprises at least three induction coils (14). The induction coils (14) of at least one cooking area (12) are arranged side-by-side and in series. Each induction coil (14) of at least one cooking area (12) has an elongated shape. The longitudinal axes of the induction coils (14) within one cooking area (12) are arranged in parallel. Each induction coil (14) of 10 the cooking area (12) is associated with a dedicated induction generator (16). The induction generators (16) are connected or connectable to at least one current line (18). The induction generators (16) are connected to and controlled or controllable by at least one control unit (20). Requested powers (rP) for each used induction generator (16) are adjusted or adjustable independent from each other by a user interface (22). Instant powers (iP) of the induction generators (16) within a cycle pattern (T1, T2, . . .

Abstract: The invention relates to a hob comprising a transparent or semi-transparent hob plate (2) and multiple heating elements (3) arranged below said hob plate (2), the hob further comprising illumination means arranged below said hob plate (2) for providing light markings (4) at the upper side (2.1) of the hob plate (2), said light markings (4) indicating heating zones (5) associated with the heating elements (3), wherein the illumination means comprise a light box (10) with at least a bottom wall portion (11) and a pair of side wall portions (12), said light box (10) including one or more lighting elements (13) for illuminating an interior space (14) of the light box (10), wherein the light box (10) further comprises an upper portion (15) being adapted to emit light towards the hob plate (2) in order to provide said light marking (4) at the upper side of the hob plate (2).

Abstract: The invention relates to a hob comprising a transparent or semi-transparent hob plate (2) and multiple heating elements (3) arranged below said hob plate (2), the hob further comprising illumination means arranged below said hob plate (2) for providing light markings (4) at the upper side (2.1) of the hob plate (2), said light markings (4) indicating heating zones (5) associated with the heating elements (3), wherein the illumination means comprise a light box (10) with at least a bottom wall portion (11) and a pair of side wall portions (12), said light box (10) including one or more lighting elements (13) for illuminating an interior space (14) of the light box (10), wherein the light box (10) further comprises an upper portion (15) being adapted to emit light towards the hob plate (2) in order to provide said light marking (4) at the upper side of the hob plate (2).

Abstract: A method for performing a treatment by a domestic appliance having a programmable control unit and a graphic display. The method includes executing a program for performing the treatment, encoding information about the appliance, the program and/or a current status of the appliance, generating a two-dimensional code representing the encoded information, and displaying the code on the graphic display, so that the code is detectable by a camera or scanner of a mobile computer device. Further, a method for processing information about a treatment performed by a domestic appliance, wherein the information is encoded by a two-dimensional code on a graphic display of the appliance. The method includes detecting the two-dimensional code by a camera or scanner, decoding the code, and indicating the decoded information on a display, and/or transmitting the decoded information to a computer device via the internet, and/or processing the decoded information by an application software.

Abstract: The present invention relates to an induction hob with a number of induction coils (12) on a cooking surface (10) and an apparatus for determining the temperatures on the induction coils (12). The induction coils (12) are arranged on the cooking surface (10) according to a predetermined scheme. At least one temperature sensor (14, 16, 18, 20; 24, 26) is arranged within an intermediate space between two or more induction coils (12). The at least one temperature sensor (14, 16, 18, 20; 24, 26) and the central portions of at least two adjacent induction coils (12) are thermally connected by heat conductor elements (22). The temperature sensors (14, 16, 18, 20; 24, 26) are electrically connected to at least one evaluation circuit for determining the temperatures of the adjacent induction coils (12).

Abstract: A method for controlling a cooking process on an induction cooking hob (10). The method includes setting a temperature value or parameter value corresponding with the temperature by a user. A control unit of the induction cooking hob (10) sets a maximum power (Pmax) for a corresponding cooking zone, calculates an average slope value (S1, S2, ASP) of a temperature-time-diagram (20, 22, 24) of the cooking process, compares the average slope value (S1, S2, ASP) with a corresponding threshold value (THR1, THR2, THR3), and indicates that the temperature or parameter has obtained the set temperature value or parameter value, respectively, if the average slope value (S1, S2, ASP) is equal with or smaller than the corresponding threshold value (THR1, THR2, THR3). The method and control unit are provided for controlling a boiling process and a frying process on an induction cooking hob.

Abstract: The present invention relates to an induction cooking hob (10) including at least one cooking area (12), wherein the cooking area (12) comprises at least three induction coils (14). The induction coils (14) of at least one cooking area (12) are arranged side-by-side and in series. Each induction coil (14) of at least one cooking area (12) has an elongated shape. The longitudinal axes of the induction coils (14) within one cooking area (12) are arranged in parallel. Each induction coil (14) of 10 the cooking area (12) is associated with a dedicated induction generator (16). The induction generators (16) are connected or connectable to at least one current line (18). The induction generators (16) are connected to and controlled or controllable by at least one control unit (20). Requested powers (rP) for each used induction generator (16) are adjusted or adjustable independent from each other by a user interface (22). Instant powers (iP) of the induction generators (16) within a cycle pattern (T1, T2, . . .

Abstract: A method for controlling a cooking process on an induction cooking hob (10). The method includes setting a temperature value or parameter value corresponding with the temperature by a user. A control unit of the induction cooking hob (10) sets a maximum power (Pmax) for a corresponding cooking zone, calculates an average slope value (S1, S2, ASP) of a temperature-time-diagram (20, 22, 24) of the cooking process, compares the average slope value (S1, S2, ASP) with a corresponding threshold value (THR1, THR2, THR3), and indicates that the temperature or parameter has obtained the set temperature value or parameter value, respectively, if the average slope value (S1, S2, ASP) is equal with or smaller than the corresponding threshold value (THR1, THR2, THR3). The method and control unit are provided for controlling a boiling process and a frying process on an induction cooking hob.

Abstract: The present invention relates to an induction hob with a number of induction coils (12) on a cooking surface (10) and an apparatus for determining the temperatures on the induction coils (12). The induction coils (12) are arranged on the cooking surface (10) according to a predetermined scheme. At least one temperature sensor (14, 16, 18, 20; 24, 26) is arranged within an intermediate space between two or more induction coils (12). The at least one temperature sensor (14, 16, 18, 20; 24, 26) and the central portions of at least two adjacent induction coils (12) are thermally connected by heat conductor elements (22). The temperature sensors (14, 16, 18, 20; 24, 26) are electrically connected to at least one evaluation circuit for determining the temperatures of the adjacent induction coils (12).