Abstract: A node unit includes a base plate, at least one function module, and a non-conductive coolant. The function module includes a heat-generating element, a heat-dissipating structure, and a pump. The heat-generating element is disposed on the base plate, the heat-dissipating structure is disposed on the heat-generating element, and the pump is disposed on the heat-dissipating structure. The base plate and the at least one function module are immersed in the non-conductive coolant. The pump is configured to drive the non-conductive coolant to flow into the heat-dissipating structure and discharge from the heat-dissipating structure. An electronic device and an immersion cooling type equipment are also mentioned.

Abstract: Systems and methods are disclosed including a memory device and a processing device operatively coupled to the memory device. The processing device can perform operations comprising receiving, from a host system, a memory access command; responsive to determining that the memory access command is a program command, incrementing a consecutive counter value; determining whether the consecutive counter value satisfies a threshold criterion; responsive to determining that the consecutive counter value satisfies a threshold criterion, and setting an initial polling timer to a value associated the consecutive counter value satisfying the threshold criterion.

Abstract: A system includes a memory component to, upon completion of second pass programming in response to a multi-pass programming command, write a plurality of flag bits within a group of memory cells programmed by the multi-pass programming command. The system also includes a processing device, operatively coupled to the memory component. The processing device is to detect an error in attempting to read a top page of the group of memory cells, determine a number of first values within the plurality of flag bits, and in response to the number of first values not satisfying a threshold criterion, report, to a host computing device, an uncorrectable data error due to the top page of the group of memory cells being incompletely programmed.

Abstract: A system includes a memory component to, upon completion of second pass programming in response to a multi-pass programming command, write a plurality of flag bits within a group of memory cells programmed by the multi-pass programming command. The system also includes a processing device, operatively coupled to the memory component. The processing device is to detect an error in attempting to read a top page of the group of memory cells, determine a number of first values within the plurality of flag bits, and in response to the number of first values not satisfying a threshold criterion, report, to a host computing device, an uncorrectable data error due to the top page of the group of memory cells being incompletely programmed.

Abstract: A system includes a memory component to, upon completion of second pass programming in response to a multi-pass programming command, write flag bits within a group of memory cells programmed by the multi-pass programming command A processing device, operatively coupled to the memory component, is to perform multi-pass programming of the group of memory cells in association with a logical address. Upon receipt of a read request, the processing device is to determine that a second logical address within the read request does not match the logical address associated with data stored at a physical address of the group of memory cells. The processing device is further to determine a number of first values within the plurality of flag bits, and in response to the number of first values not satisfying a threshold criterion, report, to a host computing device, an uncorrectable data error.

Abstract: A magnetic electric connector and its magnetic terminal. The magnetic electric connector comprises a male connector and a receptacle which are adapted to each other. The male connector comprises an insulator and several first magnetic terminals. The first magnetic terminal comprises a first magnet and a first metallic conducting layer fixed to the outer surface of the first magnet. The receptacle comprises a bench insulator and several second magnetic terminals. The second magnetic terminal comprises a second magnet and a second metallic conducting layer fixed to the outer surface of the second magnet. When the male connector and receptacle are butted, the first magnetic terminal of male connector is adsorbed on the second magnetic terminal of receptacle, forming electrical conduction, implementing charging or transmitting data, they can be localized and fastened without an additional fixing structure, guaranteeing a stable butting of male connector and receptacle.

Abstract: A system includes a memory component to, upon completion of second pass programming in response to a multi-pass programming command, write flag bits within a group of memory cells programmed by the multi-pass programming command A processing device, operatively coupled to the memory component, is to perform multi-pass programming of the group of memory cells in association with a logical address. Upon receipt of a read request, the processing device is to determine that a second logical address within the read request does not match the logical address associated with data stored at a physical address of the group of memory cells. The processing device is further to determine a number of first values within the plurality of flag bits, and in response to the number of first values not satisfying a threshold criterion, report, to a host computing device, an uncorrectable data error.

Abstract: A system and method for monitoring liveliness includes a management device which has an application layer where applications are executed. A connection monitor is located other than on the application layer, and the connection monitor is configured to receive requests from clients and deliver the requests to components on the application layer. The components include a generic application monitor which responds to liveliness monitor requests from the clients for all applications monitored, and one or more applications which response to requests to that application.

Abstract: An autonomic computing system and method determine that a desired end state cannot be reached, determine that an acceptable sub-state can be reached using at least one of priority ratings, conditional relationship specifications, and alternative relationship specifications, and place the computing system in an acceptable sub-state. The priority ratings can contain an attribute assigned to a policy definition that determines a sequence for applying the policy definition. The attribute can be “mandatory”, a numerical value, or “not required”. The conditional relationship specifications have policy definitions that are applied when the state of a specified resource meets a predetermined requirement. An alternative relationship specification has policy definitions and/or conditional relationship specifications that are applied when the state of a specified resource does not meet a predetermined requirement.

Abstract: Real-time data of business applications of an Information Technology environment is monitored to obtain information to be used in managing the environment. A business application includes processing collectively performed by a plurality of components of the environment. A component includes one or more resources, and therefore, in one example, the real-time data being monitored is associated with those resources.

Abstract: A system and method for monitoring liveliness includes a management device which has an application layer where applications are executed. A connection monitor is located other than on the application layer, and the connection monitor is configured to receive requests from clients and deliver the requests to components on the application layer. The components include a generic application monitor which responds to liveliness monitor requests from the clients for all applications monitored, and one or more applications which response to requests to that application.

Abstract: A system and method for monitoring liveliness includes a management device which has an application layer where applications are executed. A connection monitor is located other than on the application layer, and the connection monitor is configured to receive requests from clients and deliver the requests to components on the application layer. The components include a generic application monitor which responds to liveliness monitor requests from the clients for all applications monitored, and one or more applications which response to requests to that application.

Abstract: Programmatically adapting an Information Technology (IT) environment to changes associated with business applications of the IT environment. The programmatically adapting is performed in the context of the business application. The changes can reflect changes in the IT environment, changes to the business application, changes to the business environment and/or failures within the environment, as examples.

Abstract: Management of an Information Technology (IT) environment is conditionally controlled based on runtime analysis of resource pairing constructs. Resource pairings are provided, and evaluated based on the current state of the environment. This real-time information is then used in performing managerial tasks, the results of which are effected by the runtime conditions.

Abstract: Recovery Segments are defined and employed to facilitate management of a customer's environment. A Recovery Segment is a runtime usable representation of resources and relationships between those resources associated with a business application. That representation is usable in managing the business application. Associated with the representation is one or more goals to be met by resources of the representation.

Abstract: Programmatically validating service level policies established for business applications of an Information Technology environment. The programmatic validation predicts whether the policies are achievable within the environment. Examples of service level policies include quantitative goals, redundancy levels and resource use.

Abstract: Computer-implemented systems, apparatus and methods for managing information, operations and functions in a complex medical environment and providing a command control center interface for receiving/sending/displaying data, relating to products, instructions, diagnosis, consultation, patient's information, supplies and their provision, registration, scheduling, updating and like operational functions and features, and updating on an ongoing basis to coordinate, control and synchronize necessary and/or desirable operations within the environment, whereby the “hospital of the future” is effectively facilitated with proficiency and efficiency in an accurate and reliable manner. Such systems may also include one or more client terminal devices in communication with a data interchange subsystem.

Abstract: Real-time data of business applications of an Information Technology environment is monitored to obtain information to be used in managing the environment. A business application includes processing collectively performed by a plurality of components of the environment. A component includes one or more resources, and therefore, in one example, the real-time data being monitored is associated with those resources.

Abstract: The determination of node and/or adapter liveness in a distributed network data processing system is carried out via one messaging protocol that can be assisted by a second messaging protocol which is significantly less susceptible to delay, especially memory blocking delays encountered by daemons running on other nodes. The switching of protocols is accompanied by controlled grace periods for needed responses. This messaging protocol flexibility is also adapted for use as a mechanism for controlling the deliberate activities of node addition (birth) and node deletion (death).

Abstract: Resource graphs are provided for use in managing Information Technology environments. The resource graphs include representations of resources of the environment and their relationships.