Abstract: A combined ventilation and microwave oven system includes an external enclosure with a top portion defining recirculation vent outlets, a cooling air inlet, a cooling air outlet, and an outside vent outlet, first and second side portions, and a bottom portion defining a vent inlet. The vent inlet is connected with the recirculation vent outlets and the outside vent outlet via airflow pathways. A hood assembly is disposed within the external enclosure and includes a first hood fan disposed between the cooking cavity and the first side portion and a second hood fan disposed between the cooking cavity and the second side portion. The hood assembly is configured to direct air through the vent inlet and through an interior of the external enclosure. A cooling fan is disposed between the cooking cavity and the second side portion to direct air through the cooling air inlet and the cooling air outlet.

Abstract: Systems and methods are provided for adaptive data replication. A first data object is stored. One or more first network characteristics of a communication network are detected. A first replication mode is triggered (e.g., a single-master replication mode) based on the one or more first network characteristics of the communication network. The single-master replication may be configured to facilitate real-time synchronizations (e.g., for critical updates). One or more second network characteristics of the communication network are detected. A second replication mode (e.g., a multi-master replication mode) is triggered based on the one or more second network characteristics. The second replication may be configured to facilitate a delayed synchronization (e.g., for non-critical updates) of the first data object and the second data object using the second update file.

Abstract: The present invention is directed to inhibitors of the interaction of menin with MLL and MLL fusion proteins, pharmaceutical compositions containing the same, and their use in the treatment of cancer and other diseases mediated by the menin-MLL interaction.

Abstract: Methods of preparing desodiated and oxidized sodium nickelate materials using persulfate solution, and sodium nickelate materials prepared by such methods, are disclosed. Also disclosed are methods of preparing pre-aged beta nickelates using a hydroxide solution, and beta nickelates prepared by such methods. An alkaline cathode composition comprising electrolytic manganese dioxide and the desodiated and oxidized sodium nickelate and beta nickelates are also provided, as are alkaline electrochemical cells comprising these nickelates and compositions.

Abstract: A combined ventilation and microwave oven system includes an external enclosure with a top portion defining recirculation vent outlets, a cooling air inlet, a cooling air outlet, and an outside vent outlet, first and second side portions, and a bottom portion defining a vent inlet. The vent inlet is connected with the recirculation vent outlets and the outside vent outlet via airflow pathways. A hood assembly is disposed within the external enclosure and includes a first hood fan disposed between the cooking cavity and the first side portion and a second hood fan disposed between the cooking cavity and the second side portion. The hood assembly is configured to direct air through the vent inlet and through an interior of the external enclosure. A cooling fan is disposed between the cooking cavity and the second side portion to direct air through the cooling air inlet and the cooling air outlet.

Abstract: Techniques for content-adaptive encoder configuration are described herein. In accordance with various embodiments, a device (e.g., a content-based toolset configurator) including a processor and a non-transitory memory receives one or more frames in a media stream and a performance target of an encoder. The content-based toolset configurator performs cycles of pre-analysis of the one or more frames to generate content features within the performance target, assigns a content class to the one or more frames based on the content features, a previous classification, and the performance target, and sets configurations of the encoder for encoding the one or more frames corresponding to the content class and the performance target.

Abstract: A combined ventilation and microwave oven system includes an external enclosure with a top portion defining recirculation vent outlets, a cooling air outlet, and an outside vent outlet, side portions, and a bottom portion defining vent inlets. The vent inlets are in fluid communication with the recirculation vent outlets in a recirculation mode and the outside vent outlet in an outside vent mode. A cooling fan is disposed between the cooking cavity and the first side portion and is configured to direct air through the cooling air inlet and the cooling air outlet. A hood assembly is disposed within the external enclosure and includes at least one first hood fan disposed between the cooking cavity and the first side portion, and a second hood fan disposed between the cooking cavity and the second side portion to direct air through the vent inlets and through an interior of the external enclosure.

Abstract: A microwave hood system includes an outer wrapper with a top portion including a cooling air inlet, a cooling air outlet, an outside vent outlet, and a recirculation vent outlet, a first side portion, and a second side portion. A bottom portion includes a vent inlet and is operably coupled to the outer wrapper. A cooking cavity is disposed between the top portion and the bottom portion. A cooking component area is laterally adjacent one of the first side portion and the second side portion. A hood assembly includes a first hood fan disposed between the first side portion and the cooking cavity and a second hood fan disposed between the second side portion and the cooking cavity. A cooling fan is disposed in the cooking component area proximate the second side portion. The cooling fan is in fluid communication with the cooling air inlet.

Abstract: A combined ventilation and microwave oven system includes an external enclosure with a top portion defining recirculation vent outlets, a cooling air inlet, a cooling air outlet, and an outside vent outlet, first and second side portions, and a bottom portion defining a vent inlet. The vent inlet is connected with the recirculation vent outlets and the outside vent outlet via airflow pathways. A hood assembly is disposed within the external enclosure and includes a first hood fan disposed between the cooking cavity and the first side portion and a second hood fan disposed between the cooking cavity and the second side portion. The hood assembly is configured to direct air through the vent inlet and through an interior of the external enclosure. A cooling fan is disposed between the cooking cavity and the second side portion to direct air through the cooling air inlet and the cooling air outlet.

Abstract: A microwave hood system is provided. The microwave hood system includes a microwave oven enclosure defining a cooking cavity therein. A cooking component is positioned within the cooking cavity and configured to emit microwaves. The heating system defines a heating cavity therein, wherein the heating system is coupled to the microwave oven enclosure. A heating element is positioned in the heating cavity. The heating cavity reaches a temperature in a range from about 40° C. to about 80° C. when the heating element is in use. A broiler element is positioned within the heating cavity. The heating cavity reaches a temperature in a range from about hundred and 150° C. to about 300° C. when the broiler element is in use. A dual hood system is also coupled to the microwave hood system.

Abstract: A microwave hood system is provided. The microwave hood system includes a microwave oven enclosure defining a cooking cavity therein. A cooking component is positioned within the cooking cavity and configured to emit microwaves. The heating system defines a heating cavity therein, wherein the heating system is coupled to the microwave oven enclosure. A heating element is positioned in the heating cavity. The heating cavity reaches a temperature in a range from about 40° C. to about 80° C. when the heating element is in use. A broiler element is positioned within the heating cavity. The heating cavity reaches a temperature in a range from about hundred and 150° C. to about 300° C. when the broiler element is in use. A dual hood system is also coupled to the microwave hood system.

Abstract: A combined ventilation hood and microwave oven system (10) with an overall vertical dimension (30) is provided, which is smaller than a conventional combined ventilation hood and microwave oven. One or more vent hood fans (66;74) are disposed on lateral sides of a microwave coo-king cavity (34) to draw in exhaust air (92;93) through one or more vent inlets (54;56;158;160) disposed on a bottom surface (20;156) and expel the exhaust air (92;93;162) through one or more vent outlets (46;52) defined on a surface of an outer wrapper (80) of the combined system. The low-profile combined ventilation hood and microwave oven system is coupled with a modular heating system (150;180) for heating food, which provides both functions within the space typically required by the conventional combined ventilation hood and microwave oven.

Abstract: A microwave hood system is provided. The microwave hood system includes a microwave oven enclosure defining a cooking cavity therein. A cooking component is positioned within the cooking cavity and configured to emit microwaves. The heating system defines a heating cavity therein, wherein the heating system is coupled to the microwave oven enclosure. A heating element is positioned in the heating cavity. The heating cavity reaches a temperature in a range from about 40° C. to about 80° C. when the heating element is in use. A broiler element is positioned within the heating cavity. The heating cavity reaches a temperature in a range from about hundred and 150° C. to about 300° C. when the broiler element is in use.

Abstract: A combined ventilation hood and microwave oven system (10) with an overall vertical dimension (30) is provided, which is smaller than a conventional combined ventilation hood and microwave oven. One or more vent hood fans (66;74) are disposed on lateral sides of a microwave coo-king cavity (34) to draw in exhaust air (92;93) through one or more vent inlets (54;56;158;160) disposed on a bottom surface (20;156) and expel the exhaust air (92;93;162) through one or more vent outlets (46;52) defined on a surface of an outer wrapper (80) of the combined system. The low-profile combined ventilation hood and microwave oven system is coupled with a modular heating system (150;180) for heating food, which provides both functions within the space typically required by the conventional combined ventilation hood and microwave oven.