Abstract: An additive manufacturing system includes one or more processors configured to determine one or more geometrical characteristics of each of multiple segments of a build part at a candidate position relative to an additive manufacturing instrument. The one or more geometrical characteristics include an angle of incidence between a beam line extending from a beam source and a surface normal of a respective skin of the corresponding segment proximate to the beam line. The one or more processors are configured to control the additive manufacturing instrument, based on the one or more geometrical characteristics, to direct focused energy beams from a first orientation relative to the build part to form a first segment of the segments of the build part and to direct focused energy beams from a second orientation relative to the build part to form a second segment of the segments of the build part.

Abstract: The present disclosure relates to a cooking apparatus, a method of controlling the cooking apparatus, and a knob of the cooking apparatus. An aspect of the present disclosure is to provide a display on a knob for setting a function of a cooking apparatus and to display status information of the cooking apparatus through the display of the knob, so that a user can easily and conveniently check the status information of the cooking apparatus. The cooking apparatus includes a knob comprising a fixing member fixed to a main body of the cooking apparatus, a rotating member supported by the fixing member and rotatably installed on the main body, and a display provided on the fixing member to display status information of the cooking apparatus; and a controller configured to transmit the status information of the cooking apparatus displayed on the display through a wireless communication network.

Abstract: An additive manufacturing system includes one or more processors configured to determine one or more geometrical characteristics of each of multiple segments of a build part at a candidate position of the build part relative to an additive manufacturing instrument. The one or more geometrical characteristics include an angle of incidence between a beam line extending from an electromagnetic energy source of the additive manufacturing instrument and a surface normal of a respective skin of the corresponding segment proximate to the beam line. The one or more processors are configured to determine, based on one or more geometrical characteristics of the segments at the candidate position, one or more locations of support material to be formed adjacent the build part during a build process of the build part.

Abstract: An oven comprises an interior electronics cavity defined within electronics cavity walls. The oven includes an air inlet for receiving ambient air from an ambient space outside the electronics cavity into the interior electronics cavity and a first air outlet for returning steam laden air from a cooking space to the ambient space outside the cooking space. The oven also includes a second air outlet positioned to separate flow going into the air inlet from flow from the first air outlet. An air plenum can be defined outside of the cooking space, and the air inlet can be defined in a first portion of an exterior interface of the air plenum. The second air outlet can be defined in a second portion of the exterior interface.

Abstract: An induction heating type cooktop includes an upper plate coupled to a top side of a case and configured to place an object to be heated on a top of the upper plate, a working coil disposed inside the case to heat the object, a thin film disposed on at least one of a top surface or a bottom surface of the upper plate, an insulator disposed between the bottom surface of the upper plate and the working coil, and a temperature sensor configured to measure a temperature of at least one of the thin film or the upper plate by a plurality of thermocouples.

Abstract: A cooktop for a cooking appliance includes a cooking panel that has a first edge. A support feature is coupled to the cooking panel proximate the first edge. The cooking panel is disposed on the support feature. The support feature and the cooking panel define a cavity. A human-machine interface is coupled to an underside of the cooking panel. The human-machine interface is disposed within the cavity and adjacent to the support feature. A magnet assembly is coupled to the cooking panel and the human-machine interface. The magnet assembly is configured to retain the human-machine interface in a selected position on the underside of the cooking panel.

Abstract: A control method of stepwise and stepless linear adjustment of a gas oven includes step 1: obtaining the setting temperature of the gas oven; step 2: obtaining the temperature inside the gas oven; step 3: determining the low temperature threshold, high temperature threshold and preset flame level according to the setting temperature, wherein the high temperature threshold is greater than the low temperature threshold; step 4: ensuring the temperature inside the gas oven is between the low temperature threshold and the high temperature threshold; step 5: if it exceeds, determining the change trend of the temperature inside the gas oven; step 6: when the change trend of the temperature inside the gas oven rises or falls, adjusting the flame level of the gas oven to the preset flame level.

Abstract: An air data probe (10) and associated method of method of measuring air data is disclosed. The air data probe includes a plurality of air pressure sensors, and a body (14) that encloses a hollow interior cavity (16), where the body (14) has a generally symmetrical airfoil profile. The body (14) includes a plurality of projections (20a-d) extending beyond the generally symmetrical airfoil profile, each of the plurality of projections (20a-d) including an pressure port (22a-d) at a distal end (24a-d) that is in communication with the hollow interior cavity. Each of the pressure ports (22a-d) receives a corresponding air pressure sensor (12a-d) that is configured to collect static and dynamic air pressure data.

Abstract: A system for controlling an appliance having a plurality of gas cooktop burners operated by a plurality of digital gas valves includes a plurality of control selectors that include illuminated displays on faces thereof for indicating to which gas cooktop burner each control selector is assigned.

Abstract: A cooktop assembly includes a burner box and a controller disposed on the burner box. A mounting panel is coupled to the burner box over the controller. The mounting panel defines a plurality of embossed features. Each of the plurality of embossed features extends vertically upward from discrete portions of the mounting panel. A plurality of coil assemblies includes individual coil assemblies. Each of the individual coil assemblies includes a coil disposed on a coil plate that defines more than one aperture. Each of the individual embossed features extends through an aperture of the more than one aperture defined by one of the coil plates when the individual coil assemblies are disposed on the mounting panel. A cooktop is disposed over the plurality of coil assemblies and coupled to the burner box.