Abstract: The present disclosure belongs to the field of kitchen equipment, and in particular relates to a cooking device. The cooking device of the present disclosure includes a cabinet and an installation bracket. A cooking chamber is formed in the cabinet, and the installation bracket is detachably connected to the cabinet. A fan assembly is arranged on the installation bracket, and a fume exhaust duct that communicates with the fan assembly is arranged in the installation bracket or in the cabinet. According to the cooking device of the present disclosure, the cabinet and the fan assembly are arranged separately, the fan assembly is arranged on the installation bracket, and a fume exhaust duct that communicates with the fan assembly is arranged inside the installation bracket.

Abstract: The present application discloses a cooking device, which includes a cabinet; the cabinet includes an inner cavity, a first heating assembly and a second heating assembly; the inner cavity is provided with a cooking chamber, as well as a first side wall and a second side wall that are arranged opposite to each other, the first side wall is provided with a first ventilation structure, and the second side wall is provided with a second ventilation structure; the first heating assembly is arranged outside the inner cavity and arranged corresponding to the first ventilation structure, and is configured to circularly heat air in the cooking chamber; the second heating assembly is arranged outside the inner cavity and arranged corresponding to the second ventilation structure, and is configured to circularly heat the air in the cooking chamber.

Abstract: A multi-layer glass phosphor powder sheet and its preparation method, and a light-emitting device. The preparation method for the multi-layer glass phosphor powder sheet includes: mixing a first optical functional material, a glass powder and an organic carrier to obtain a first slurry, and mixing a second optical functional material, the glass powder and the organic carriers to obtain a second slurry; coating the first slurry on a first substrate, and drying it at a first temperature so that at least some of the organic carrier is volatilized, to obtain a first functional layer, the first temperature being lower than a softening point of the glass powder; coating the second slurry on the surface of the first functional layer, to obtain a second functional layer; and sintering the first substrate on which the functional layers are coated at a second temperature, to obtain the multi-layer glass phosphor powder sheet.

Abstract: A steam cleaner is provided, including: a base (2) provided with an air inlet (4); a casing (1) disposed on the base (2) and having an air outlet (11) in a side wall thereof, in which a vortex air duct is defined between a bottom wall (16) of the casing and the base (2), and the air inlet (4) is in fluid communication with the vortex air duct; a fan (7) disposed within the casing (1), and including an electric motor (71) and a heat dissipation fan wheel (72) connected to a lower end of an electric motor shaft of the electric motor, in which the vortex air duct is configured to guide air entering from the air inlet (4) to the heat dissipation fan wheel so as to dissipate heat of the electric motor.

Abstract: A steam cleaner is provided, including: a base (2) provided with an air inlet (4); a casing (1) disposed on the base (2) and having an air outlet (11) in a side wall thereof, in which a vortex air duct is defined between a bottom wall (16) of the casing and the base (2), and the air inlet (4) is in fluid communication with the vortex air duct; a fan disposed within the casing (1), and including an electric motor and a heat dissipation fan wheel connected to a lower end of an electric motor shaft of the electric motor, in which the vortex air duct is configured to guide air entering from the air inlet (4) to the heat dissipation fan wheel so as to dissipate heat of the electric motor.

Abstract: A multi-layer glass phosphor powder sheet and its preparation method, and a light-emitting device. The preparation method for the multi-layer glass phosphor powder sheet includes: mixing a first optical functional material, a glass powder and an organic carrier to obtain a first slurry, and mixing a second optical functional material, the glass powder and the organic carriers to obtain a second slurry; coating the first slurry on a first substrate, and drying it at a first temperature so that at least some of the organic carrier is volatilized, to obtain a first functional layer, the first temperature being lower than a softening point of the glass powder; coating the second slurry on the surface of the first functional layer, to obtain a second functional layer; and sintering the first substrate on which the functional layers are coated at a second temperature, to obtain the multi-layer glass phosphor powder sheet.

Abstract: The integrated circuit described herein includes: a first resistor having a first trench in a dielectric layer, the first trench having a first width; a second resistor having a second trench in the dielectric layer, the second trench having a second width not equal to the first width; a trench in a dielectric layer, a first conductive layer having a first TCR and coating at least a portion of the first trench and the second trench; and a second conductive layer having a second TCR and coating at least a portion of the first conductive layer in each of the first trench and the second trench, wherein the second TCR is not equal to the first TCR, and wherein the TCR of the IC is selected based on a dimension of the trench, a thickness of the first conductive layer, and a thickness of the second conductive layer.

Abstract: The integrated circuit described herein includes: a first resistor having a first trench in a dielectric layer, the first trench having a first width; a second resistor having a second trench in the dielectric layer, the second trench having a second width not equal to the first width; a trench in a dielectric layer; a first conductive layer having a first TCR and coating at least a portion of the first trench and the second trench; and a second conductive layer having a second TCR and coating at least a portion of the first conductive layer in each of the first trench and the second trench, wherein the second TCR is not equal to the first TCR, and wherein the TCR of the IC is selected based on a dimension of the trench, a thickness of the first conductive layer, and a thickness of the second conductive layer.

Abstract: A system and method for developing condensed netlists for sub-circuits within an integrated circuit and for modeling the performance of the integrated circuit based on the condensed netlists rather than full netlists. An IC layout is segmented into a plurality of sub-circuits, each comprising a group of one or more of a given type of active devices connected to (i.e., sharing) the same electrical sub-circuit terminals through a similar resistive network (i.e. such that they are subjected to approximately the same overall combined parasitic resistances). Full netlists corresponding to the sub-circuits are extracted from the layout and condensed. Each condensed netlist accounts for performance variations (e.g., as a function of variations in operating power supply voltages, operating temperatures and, optionally, self-heating and/or stress) exhibited by the active devices and resistive network in a sub-circuit.

Abstract: A system and method for developing condensed netlists for sub-circuits within an integrated circuit and for modeling the performance of the integrated circuit based on the condensed netlists rather than full netlists. An IC layout is segmented into a plurality of sub-circuits, each comprising a group of one or more of a given type of active devices connected to (i.e., sharing) the same electrical sub-circuit terminals through a similar resistive network (i.e. such that they are subjected to approximately the same overall combined parasitic resistances). Full netlists corresponding to the sub-circuits are extracted from the layout and condensed. Each condensed netlist accounts for performance variations (e.g., as a function of variations in operating power supply voltages, operating temperatures and, optionally, self-heating and/or stress) exhibited by the active devices and resistive network in a sub-circuit.