Abstract: A microelectronic assembly includes units superposed on one another to form at least one stack having a vertical direction. Each unit includes one or more microelectronic devices and has top and bottom surfaces. Top unit terminals are exposed at the top surfaces and bottom unit terminals are exposed at the bottom surfaces. The top and bottom unit terminals are provided at a set of ordered column positions. Each top unit terminal of the set, except the top unit terminals at the highest ordered column position, is connected to a respective bottom unit terminal of the same unit at a next higher ordered column position. Each bottom unit terminal of the set, except the bottom unit terminals of the lowest unit in the stack, is connected to a respective upper unit terminal of the next lower unit in the stack at the same column position.

Abstract: Disabling communication in a multiprocessor fabric. The multiprocessor fabric may include a plurality of processors and a plurality of communication elements and each of the plurality of communication elements may include a memory. A configuration may be received for the multiprocessor fabric, which specifies disabling of communication paths between one or more of: one or more processors and one or more communication elements; one or more processors and one or more other processors; or one or more communication elements and one or more other communication elements. Accordingly, the multiprocessor fabric may be automatically configured in hardware to disable the communication paths specified by the configuration. The multiprocessor fabric may be operated to execute a software application according to the configuration.

Abstract: This invention provides methods of making and using a fluorescent probe from the Sandercyanin protein as set forth in SEQ ID NO: 1 or SEQ ID NO: 2. In one embodiment, the invention provides a method of creating a fluorescent probe, comprising the steps of attaching a Sandercyanin moiety to a probe, wherein the probe is specific to a desired target.

Abstract: A processing system includes processors and dynamically configurable communication elements (DCCs) coupled together in an interspersed arrangement. A source device may transfer a data item through an intermediate subset of the DCCs to a destination device. The source and destination devices may each correspond to different processors, DCCs, or input/output devices, or mixed combinations of these. In response to detecting a stall after the source device begins transfer of the data item to the destination device and prior to receipt of all of the data item at the destination device, a stalling device is operable to propagate stalling information through one or more of the intermediate subset towards the source device. In response to receiving the stalling information, at least one of the intermediate subset is operable to buffer all or part of the data item.

Abstract: According to one example of the present invention, there is provided a method of moving one of a plurality of software objects deployed among a plurality of object destinations in a computing system. The method comprises identifying a deployed software object to be moved to a new object destination, identifying a candidate object destination, identifying other software objects deployed on the candidate object destination, identifying a constraint associated with software object to be moved, identifying a constraint associated with software objects deployed on the candidate object destination, determining whether the identified constraints are compatible, and authorizing the move of the software object to be moved where it is determined that the constraints are compatible.

Abstract: An example of a camera includes an optical element moving between first and second focus positions upon application of an electrical signal, a sensor capturing first and second images transmitted by the optical element in the respective first and second focus positions, a first storage location recording first images and a second storage location recording second images, and a screen simultaneously displaying a most recent first image from the first storage cation and a most recent second image from the second storage location. Another example of a camera includes the optical element and sensor, as well as a processor to: control timing of application of an electrical signal to the optical element to regulate changing of the optical element between first and second focus positions, synchronize capture by the sensor of first and second images, and control streaming of most recent first and second images for simultaneous viewing.

Abstract: In various embodiments, a flow selector of a fluid flow control system may be used to select a flow rate of a fluid. When the system is in an electronic mode, an encoder may electronically encode the fluid flow selection. A controller may receive the electronically encoded flow selection and transmit a corresponding control signal to an electronic valve to allow the fluid to flow at the selected flow rate. An engagement device, such as a clutch, may disengage the flow selector from a mechanical valve when the fluid flow control system enters a manual mode. When the system is in a manual mode, the engagement device may engage the flow selector with the mechanical valve, allowing the flow selector to directly control the flow rate of the fluid through the mechanical valve. Applications to gases and anesthesia delivery are disclosed herein. Various alternative components and embodiments are described herein.

Abstract: A microelectronic assembly includes units superposed on one another to form at least one stack having a vertical direction. Each unit includes one or more microelectronic devices and has top and bottom surfaces. Top unit terminals are exposed at the top surfaces and bottom unit terminals are exposed at the bottom surfaces. The top and bottom unit terminals are provided at a set of ordered column positions. Each top unit terminal of the set, except the top unit terminals at the highest ordered column position, is connected to a respective bottom unit terminal of the same unit at a next higher ordered column position. Each bottom unit terminal of the set, except the bottom unit terminals of the lowest unit in the stack, is connected to a respective upper unit terminal of the next lower unit in the stack at the same column position.

Abstract: A system disclosed rate limits API requests. The system includes an API server that receives an API request from a developer application at an API server and a token bucket to rate limit API requests from the developer application. A token query translation module determines a number of tokens needed to process the API request based on a rate configured in predefined policy data for the developer application and a replenish rate of the token bucket. The number of tokens inversely corresponds to the rate configured in the predefined policy data. A token request module instructs the API server to process the API request if the token bucket has sufficient tokens and reduces the number of tokens in the token bucket for the developer application by the number of tokens needed to process the API request. In this way, the disclosed system effectively simulates buckets having configurable replenish rates.

Abstract: Some embodiments provide a construction system that includes a plurality of panels. Moreover, at least some of the plurality of panels may include an upper side, a lower side, an insulation member, and at least one support member that is coupled to the insulation member. In some aspects, the support member may be coupled to the insulation member such that the support member extends from the upper side to the lower side of the panel. In some embodiments, the construction system may also include a plurality of engagement elements that are configured to engage at least some of the panels to assemble the panels into at least a portion of a structure.

Abstract: A processing system includes processors and dynamically configurable communication elements (DCCs) coupled together in an interspersed arrangement. A source device may transfer a data item through an intermediate subset of the DCCs to a destination device. The source and destination devices may each correspond to different processors, DCCs, or input/output devices, or mixed combinations of these. In response to detecting a stall after the source device begins transfer of the data item to the destination device and prior to receipt of all of the data item at the destination device, a stalling device is operable to propagate stalling information through one or more of the intermediate subset towards the source device. In response to receiving the stalling information, at least one of the intermediate subset is operable to buffer all or part of the data item.

Abstract: A processing system includes processors and dynamically configurable communication elements (DCCs) coupled together in an interspersed arrangement. A source device may transfer a data item through an intermediate subset of the DCCs to a destination device. The source and destination devices may each correspond to different processors, DCCs, or input/output devices, or mixed combinations of these. In response to detecting a stall after the source device begins transfer of the data item to the destination device and prior to receipt of all of the data item at the destination device, a stalling device is operable to propagate stalling information through one or more of the intermediate subset towards the source device. In response to receiving the stalling information, at least one of the intermediate subset is operable to buffer all or part of the data item.

Abstract: According to one example, there is provided a method of determining a deployment of applications in a computer system comprising a plurality of computing hardware. The method comprises obtaining, for each of a plurality of applications, a set of application characteristics, assigning each of the plurality of applications, using the obtained characteristics, to one of a plurality of predetermined application models, and determining a virtual server deployment plan and an application deployment plan, the determination based in part on characteristics of the computer system, characteristics of the applications, and application model compatibility data.

Abstract: According to one example, there is provided a method of deploying applications in a computer system. The method comprises obtaining, for each of a plurality of computer applications, a set of application characteristics, assigning, based on the obtained characteristics, each of the plurality of applications to one of a set of predetermined application models, and determining, based in part on the obtained characteristics and in part on application model compatibility data, a set of hardware characteristics, a virtual server distribution plan, and an application distribution plan.

Abstract: Described is a sealing system for use at high pressure. End-face seals minimize the sealing radius and therefore allow various fittings—including known ferrule fittings—to be used in high-pressure systems. End-face seals at such high pressure may require smooth surfaces. In order to reduce cost, an end-face preparation tool forges a dimple into the end face to mechanically deform and smooth the surface.

Abstract: A packet switch includes an arbiter that generates an availability signal indicating whether one or more pseudo-ports are available for receiving data. Each pseudo-port identifies one or more output ports of the packet switch. An input port of the packet switch receives data of a data packet, generates a grant request identifying a pseudo-port, and issues the grant request to a grant request filter. The grant request filter determines based on the availability signal whether the grant request is serviceable by the packet switch. If the grant request is a serviceable grant request, the grant request filter issues the grant request to the arbiter. The arbiter can select the serviceable grant request and issue a grant to the input port. The data of the data packet can then be routed from the input port to each output port identified by the pseudo-port.

Abstract: A method and a system for analyzing a data value of interest in a multidimensional database. The data value of interest is first identified in a structured report. The data source for the structured report is retrieved. A context for the data value of interest in the data source is collected, for example, by extracting a slicer from the structured report, by extracting members of master-detail pages, or by extracting a default measure from the structured report. An analysis specification based on the collected context is then built, and the data value of interest is analyzed using the analysis specification. The result from analyzing the data value of interest may be presented in an analysis view.

Abstract: A system, method, and computer program product for generating a distributable software package, including loading a template/profile; loading at least one module; receiving configuration options over a network connection; and assembling a distributable software package according to the profile, template(s), modules, and the configuration options.

Abstract: A method and a system for analyzing a data value of interest in a multidimensional database. The data value of interest is first identified in a structured report. The data source for the structured report is retrieved. A context for the data value of interest in the data source is collected, for example, by extracting a slicer from the structured report, by extracting members of master-detail pages, or by extracting a default measure from the structured report. An analysis specification based on the collected context is then built, and the data value of interest is analyzed using the analysis specification. The result from analyzing the data value of interest may be presented in an analysis view.

Abstract: Disabling communication in a multiprocessor fabric. The multiprocessor fabric may include a plurality of processors and a plurality of communication elements and each of the plurality of communication elements may include a memory. A configuration may be received for the multiprocessor fabric, which specifies disabling of communication paths between one or more of: one or more processors and one or more communication elements; one or more processors and one or more other processors; or one or more communication elements and one or more other communication elements. Accordingly, the multiprocessor fabric may be automatically configured in hardware to disable the communication paths specified by the configuration. The multiprocessor fabric may be operated to execute a software application according to the configuration.