Abstract:
A compilation method includes converting memory access instructions that read or write less than a minimum data access unit (MDAU) to memory access instructions that read or write a multiple of the minimum data access unit, converting the memory access instructions into a format including a base address plus an offset, grouping subsets of the converted memory access instructions into partitions, and vectorizing the converted memory access instructions in the subsets that match instruction patterns.
Abstract:
The present invention provides a pharmaceutical preparation for tumor chemotherapy and a method for producing the same, the pharmaceutical preparation for tumor chemotherapy comprises cell vesicles derived from apoptotic tumor cells and chemotherapeutic drugs as active ingredients wrapped within the cell vesicles. The chemotherapeutic drugs contained within the pharmaceutical preparation are chemotherapeutic drugs containing active ingredients for the treatment of the tumors from which the cell vesicles are provided. The present invention also provides a method for producing the pharmaceutical preparation for tumor chemotherapy. The technical solutions provided by the present invention can selectively release the chemotherapeutic drugs to the tumor sites and maintain lasting medicinal effect, increasing their killing effects against tumor cells and reducing the toxic side-effect of the chemotherapeutic drugs to normal cells.
Abstract:
The present invention provides a pharmaceutical preparation for tumor chemotherapy and a method for producing the same, the pharmaceutical preparation for tumor chemotherapy comprises cell vesicles derived from apoptotic tumor cells and chemotherapeutic drugs as active ingredients wrapped within the cell vesicles. The chemotherapeutic drugs contained within the pharmaceutical preparation are chemotherapeutic drugs containing active ingredients for the treatment of the tumors from which the cell vesicles are provided. The present invention also provides a method for producing the pharmaceutical preparation for tumor chemotherapy. The technical solutions provided by the present invention can selectively release the chemotherapeutic drugs to the tumor sites and maintain lasting medicinal effect, increasing their killing effects against tumor cells and reducing the toxic side-effect of the chemotherapeutic drugs to normal cells.
Abstract:
The present invention generally relates to sub-diffraction limit image resolution and other imaging techniques, including imaging in three dimensions. In one aspect, the invention is directed to determining and/or imaging light from two or more entities separated by a distance less than the diffraction limit of the incident light. In some cases, the position of the entities can be determined in all three spatial dimensions (i.e., in the x, y, and z directions), and in certain cases, the positions in all three dimensions can be determined to an accuracy of less than about 1000 nm. In some cases, the z positions may be determined using one of a variety of techniques that uses intensity information or focal information (e.g., a lack of focus) to determine the z position. Non-limiting examples of such techniques include astigmatism imaging, off-focus imaging, or multi-focal-plane imaging.
Abstract:
The present invention discloses a method for requesting LTE RRC connection re-establishment and setting cause values as well as a terminal, and the connection re-establishment request method includes: an LTE terminal determines, according to the occurred scenario, which one of the following four types is the failure reason: radio resource failure, handoff failure, bottom layer error or UE-related error; and the LTE terminal initiates an RRC connection re-establishment request to the network side, wherein the RRC connection re-establishment request includes the failure cause value indicating the failure reason. The present invention can make the network side obtain the reason why the UE initiates the RRC re-establishment from RRC connection re-establishment request message, so as to take different subsequent operations with respect to these different failure reasons.
Abstract:
The present invention generally relates to sub-diffraction limit image resolution and other imaging techniques. In one aspect, the invention is directed to determining and/or imaging light from two or more entities separated by a distance less than the diffraction limit of the incident light. For example, the entities may be separated by a distance of less than about 1000 nm, or less than about 300 nm for visible light. In one set of embodiments, the entities may be selectively activatable, i.e., one entity can be activated to produce light, without activating other entities. A first entity may be activated and determined (e.g., by determining light emitted by the entity), then a second entity may be activated and determined The entities may be immobilized relative to each other and/or to a common entity. The emitted light may be used to determine the positions of the first and second entities, for example, using Gaussian fitting or other mathematical techniques, and in some cases, with sub-diffraction limit resolution. The methods may thus be used, for example, to determine the locations of two or more entities immobilized relative to a common entity, for example, a surface, or a biological entity such as DNA, a protein, a cell, a tissue, etc. The entities may also be determined with respect to time, for example, to determine a time-varying reaction. Other aspects of the invention relate to systems for sub-diffraction limit image resolution, computer programs and techniques for sub-diffraction limit image resolution, methods for promoting sub-diffraction limit image resolution, methods for producing photoswitchable entities, and the like.
Abstract:
In some embodiments, a method and apparatus for automatically parallelizing a sequential network application through pipeline transformation are described. In one embodiment, the method includes the configuration of a network processor into a D-stage processor pipeline. Once configured, a sequential network application program is transformed into D-pipeline stages. Once transformed, the D-pipeline stages are executed in parallel within the D-stage processor pipeline. In one embodiment, transformation of a sequential application program is performed by modeling the sequential network program as a flow network model and selecting from the flow network model into a plurality of preliminary pipeline stages. Other embodiments are described and claimed.
Abstract:
In some embodiments, a method and apparatus for automatically parallelizing a sequential network application through pipeline transformation are described. In one embodiment, the method includes the configuration of a network processor into a D-stage processor pipeline. Once configured, a sequential network application program is transformed into D-pipeline stages. Once transformed, the D-pipeline stages are executed in parallel within the D-stage processor pipeline. In one embodiment, transformation of a sequential application program is performed by modeling the sequential network program as a flow network model and selecting from the flow network model into a plurality of preliminary pipeline stages. Other embodiments are described and claimed.