Abstract: Artificial intelligence systems utilizing a chat driven interface that includes a chat portion and a display portion are disclosed. The user may interact with the chat portion of the interface in a human understandable and comfortable manner (e.g., through natural language). The artificial intelligence system uses the context of the interactions in the chat potion of the interface to drive the presentation of content in the display portion interface and the chat portion such that the content presented in the display portion of the interface reflects the intents or concepts expressed in the chat portion of the interface, and the chat portion and the display portion of the interface are kept in synchronicity.

Abstract: In an embodiment, a method involves accessing a first pixel block of an image, the first pixel block comprising pixels, each associated with multiple pixel components, determining whether to separately or jointly encode the multiple pixel components of each of the pixels of the first pixel block, determining that the multiple pixel components of each of the pixels in the first pixel block are to be jointly encoded based on (1) determining, based on the multiple pixel components of each of the pixels, a line defined within a three-dimensional coordinate system in which each of the pixels is represented as a three-dimensional point and (2) determining that the line satisfies a predetermined criteria, and encoding the multiple pixel components of each of the pixels in the first pixel block as a single quantized value based on a projection of the three-dimensional point associated with that pixel onto the line.

Abstract: In one embodiment, a system may include a memory unit, a first processing unit configured to write data into a memory region of the memory unit, a second processing unit configured to read data from the memory region, a first control unit configured to control the first processing unit's access to the memory unit and, and a second control unit configured to control the second processing unit's access to the memory unit. The first control unit may be configured to obtain, from the second control unit, a first memory address associated with a data reading process of the second processing unit, receive a write request from the first processing unit, the read request having an associated second memory address, and write data into the memory region based on the write request in response to a determination that the second memory address falls outside of the guarded reading region.

Abstract: An electronic platform/system and method that uses electronic data to protect itself by realizing where an individual's device is and where it is being accessed from. As the internet expands into the physical world, with every device being IP enabled and addressable, the geographic proximity, network proximity, proximity to the access point of the internet, the authentication, encryption and presentation and flow of data can be linked to an increasingly addressable and measurable physical reality, a moment in time and a proximity to other data and objects using the system and method. The data itself is IP accessible in the form of IP addressable storage devices, and subject to the same techniques. Geographic, chronological and addressable interrelationship of the data as it is packetized and distributed, and the devices as they communicate, form a fabric.

Abstract: A pump intake adapter for pumping shallow levels of fluid from a surface to be drained, the pump intake adapter including a connection on the pump intake adapter to convey the fluid away from the pump intake adapter; an intake surface on the pump intake adapter; and a portion of the intake surface of the pump intake adapter that in operation does not contact the surface to be drained, and creates an open conduit between the pump intake adapter and the surface to be drained through which fluid may flow, the open conduit being in fluid communication with the connection on the pump intake adapter. Other systems and methods are provided.

Abstract: In one embodiment, a computing system may determine a quantization range having a first quantization endpoint and a second quantization endpoint. While fixing the second quantization endpoint to an initial value determined based on the color range, one of a plurality of first candidate values for the first quantization endpoint is selected based on a plurality of corresponding first quantization errors. While fixing the first quantization endpoint to the selected first candidate value, one of a plurality of second candidate values for the second quantization endpoint is selected based on a plurality of corresponding second quantization errors. The computing system may define quantization levels corresponding to the bit depth using the quantization range defined by the first quantization endpoint and the second quantization endpoint, and then encode the one or more color components of the pixel region using the quantization levels.

Abstract: An air cleaner arrangement or assembly is provided. The air cleaner arrangement includes a serviceable filter cartridge. The air cleaner assembly also includes an arrangement for positioning the filter cartridge into a preferred, sealing, orientation and for securing the filter cartridge in that location. Preferred serviceable filter cartridges are provided, as well as methods of assembly and use.

Abstract: A method for testing for a possible water leak in at least a part of a water system, comprising: closing all known water usage taps (42) within the part of the water system to be tested; closing at least one stop cock (14) or valve of the water system to isolate the part of the water system from its replacement water source (12) (or sources), and any external replacement pressure source (or sources); and then a) detecting a first pressure P0 within the isolated part of the water system at a sensor (62, 48) connected to the part of the water system, waiting a period of time t and then detecting a second pressure within the isolated part of the water system at that sensor (62, 48); and b) releasing a volume of water VR from the water system out of the isolated part of the water system via a vent (42) in the isolated part of the water system, before then closing the vent (42), step b) further comprising detecting the pressures either side of that release at that sensor (62, 48); using the pressure drop caused by

Abstract: Artificial intelligence systems utilizing a chat driven interface that includes a chat portion and a display portion are disclosed. The user may interact with the chat portion of the interface in a human understandable and comfortable manner (e.g., through natural language). The artificial intelligence system uses the context of the interactions in the chat portion of the interface to drive the presentation of content in the display portion interface and the chat portion such that the content presented in the display portion of the interface reflects the intents or concepts expressed in the chat portion of the interface, and the chat portion and the display portion of the interface are kept in synchronicity.

Abstract: In one embodiment, a system may include a memory unit, a first processing unit configured to write data into a memory region of the memory unit, a second processing unit configured to read data from the memory region, a first control unit configured to control the first processing unit's access to the memory unit and, and a second control unit configured to control the second processing unit's access to the memory unit. The second control unit may be configured to obtain, from the first control unit, a first memory address associated with a data writing process of the first processing unit, receive a read request from the second processing unit, the read request having an associated second memory address, and delay execution of the read request based on a comparison of the first memory address and the second memory address.

Abstract: In an embodiment, a method involves accessing a first pixel block of an image, the first pixel block comprising pixels, each associated with three color values, determining whether to separately or jointly encode the three color values of each of the pixels of the first pixel block, determining that the three color values of each of the pixels in the first pixel block are to be jointly encoded based on (1) determining, based on the three color values of each of the pixels, a line defined within a three-dimensional coordinate system in which each of the pixels is represented as a three-dimensional point and (2) determining that the line satisfies a predetermined criteria, and encoding the three color values of each of the pixels in the first pixel block as a single quantized value based on a projection of the three-dimensional point associated with that pixel onto the line.

Abstract: In one embodiment, a computing system may access first alpha values associated with first pixels in a first pixel region of an image and determine a bit budget for encoding the first alpha values. The computing system may then select a first alpha-encoding mode for the first alpha values to reflect a determination that the first alpha values are all fully transparent or all fully opaque, and encode the first alpha values by storing the selected first alpha-encoding mode as part of a metadata without using the bit budget to encode the first alpha values individually. The computing system may then update a record of unallocated bits available for allocation based on the bit budget unused in the encoding of the first alpha values, and allocate, based on the record of unallocated bits, bits to encode a set of alpha values different from the first alpha values.

Abstract: In one embodiment, a computing system may determine a quantization range having a first quantization endpoint and a second quantization endpoint. While fixing the second quantization endpoint to an initial value determined based on the color range, one of a plurality of first candidate values for the first quantization endpoint is selected based on a plurality of corresponding first quantization errors. While fixing the first quantization endpoint to the selected first candidate value, one of a plurality of second candidate values for the second quantization endpoint is selected based on a plurality of corresponding second quantization errors. The computing system may define quantization levels corresponding to the bit depth using the quantization range defined by the first quantization endpoint and the second quantization endpoint, and then encode the one or more color components of the pixel region using the quantization levels.

Abstract: In one embodiment, a computing system may access color components of a pixel region in an image, and then determine a color variance for each of the color components. The computing system may further determine a desired bit allocation for each of the color components based on the color variance associated with that color component. The computing system may then determine a total bit allocation for the pixel region based on the desired bit allocations for the color components, as well as a number of unallocated bits available for allocation. The computing system may further determine a final bit allocation for each of the color components by allocating the total bit allocation to each of the color components according to the desired bit allocation for each of the color components. The computing system may then encode each of the color components using the associated final bit allocation.

Abstract: This disclosure describes efficient communication of surface texture data between system on a chip (SOC) integrated circuits. An example system includes a first integrated circuit and a second integrated circuit communicatively coupled to the first integrated circuit by a video communication interface. The first integrated generates a superframe in a video frame of the video communication interface for transmission to the second integrated circuit. The superframe includes multiple subframe payloads that carry surface texture data to be updated in the frame and corresponding subframe headers that include parameters of the subframe payloads. The second integrated circuit includes a direct access memory (DMA) controller. The DMA upon receipt of the superframe, writes the surface texture data within each of the subframe payloads directly to an allocated location in memory based on the parameters included in the corresponding one of the subframe headers.

Abstract: Injectable compositions that can be added to parenteral nutrition are provided. In particular, a stable injectable composition is provided which includes water, and at least one of about 800 ?g to about 4,000 ?g of zinc, about 40 ?g to about 400 ?g of copper, from about 4 ?g to about 90 ?g of selenium, or from about 1 ?g to about 80 ?g of manganese per 1 mL of the injectable composition. Methods of preparing and using of the stable injectable composition are also provided.

Abstract: A parenteral nutrition including at least one of an amino acid, a dextrose, a lipid, an electrolyte or a mixture thereof and a trace element including at least one of zinc, copper, selenium, or manganese is provided. The parenteral nutrition including the trace element is stable for about at least 3 days to about 14 days. Methods of preparing and using the stable injectable parenteral nutrition are also provided.

Abstract: An electronic platform/system and method that uses electronic data to protect itself by realizing where an individual's device is and where it is being accessed from. As the internet expands into the physical world, with every device being IP enabled and addressable, the geographic proximity, network proximity, proximity to the access point of the internet, the authentication, encryption and presentation and flow of data can be linked to an increasingly addressable and measurable physical reality, a moment in time and a proximity to other data and objects using the system and method. The data itself is IP accessible in the form of IP addressable storage devices, and subject to the same techniques. Geographic, chronological and addressable interrelationship of the data as it is packetized and distributed, and the devices as they communicate, form a fabric.

Abstract: A dishwasher having a tub at least partially defining a treating chamber has a chassis supporting the tub. The chassis has a base and defines a space below the tub, and a terminal box having at least one enclosure wall defining an interior is located within the space. A wire connection box is located within the interior of the terminal box. The wire connection box includes a housing and multiple terminals, and is configured to receive and couple the electrical connection for the dishwasher and the electrical mains power line.

Abstract: A system for quickly deploying QM systems in contact centers is provided. A user or administrator can quickly install a QM application on a deployment server. The administrator can provide the QM application access to the contact center data where the QM application can import data from the contact center routing system about one or more customers, agents, queues, teams, and any other information or items typically associated with contact center routing systems. The imported data may also include presence data about the agents, teams, and customers. Based on the imported data, the QM application may execute one or more workflows to automatically determine information such as evaluation frequency and coaching frequency about the agents and teams, or to create or select quality forms to use for the evaluation one or more agents, teams, or contacts.