Abstract:
A method for producing a sensor element, wherein at least parts of the sensor element are subjected to at least one plasma treatment process during production. The plasma treatment process may be either a plasma cleaning process and/or a plasma activation process. During the plasma treatment process, a base element and/or a carrier element of the sensor element is subjected to a plasma treatment process before a placement process and/or before a contact-connecting process with electrical connection means. The sensor element is equipped with at least one measurement probe element and/or at least one electronic circuit. This method is used to produce a sensor element, such as a speed sensor element, that may be used in a motor vehicle.
Abstract:
Provides methods, systems and apparatus for timer management of an element processing system wherein timer intervals related to elements to be processed can be handled in a time-efficient manner. An example method is a method for detecting a timeout of elements in an element processing system wherein a timer value, indicating a timeout interval with respect to a given time base, is assigned to each of the elements when processed. From a number of elements processed, the timer value indicating a minimum timeout interval to expire is determined out of the number of timer values assigned to the number of elements being processed.
Abstract:
A method for dynamically programming Field Programmable Gate Arrays (FPGA) in a coprocessor, the coprocessor coupled to a processor, includes: beginning an execution of an application by the processor; receiving an instruction from the processor to the coprocessor to perform a function for the application; determining that the FPGA in the coprocessor is not programmed with logic for the function; fetching a configuration bit stream for the function; and programming the FPGA with the configuration bit stream. In this manner, the FPGA are programmable “on the fly”, i.e., dynamically during the execution of an application. The hardware acceleration and resource sharing advantages provided by the FPGA can be utilized more often by the application. Logic flexibility and space savings on the chip comprising the coprocessor and processor are provided as well.
Abstract:
An exhaust gas turbine (30) for expanding exhaust gas, comprising a turbine housing (33) having an inflow housing portion (35) for exhaust gas to be expanded and an outflow housing portion (36) for expanded exhaust gas, a turbine rotor (34) received by the turbine housing (33), the turbine rotor (34) being rotatable about an axis of rotation, a metering means (42) for a reducing agent or a precursor substance of a reducing agent, wherein the reducing agent or the precursor substance can be introduced into the expanded exhaust gas via the metering device (42), and with a swirl atomizer (43), rotating together with the turbine rotor (34), for the reducing agent or the precursor substance, the reducing agent or the precursor substance being atomizable in the expanded exhaust gas via the swirl atomizer (43), the swirl atomizer (43) engaging the turbine rotor (34) at a downstream, hub-side portion of the turbine rotor (34). Downstream of the turbine rotor (34) in extension of the axis of rotation of the turbine rotor (34), an impingement body (44) is arranged for the reducing agent or the precursor substance introduced into the exhaust gas and atomized, wherein a distance of the impingement body (44) from the swirl atomizer (43) corresponds to at most 7 times a diameter of the turbine rotor (34).
Abstract:
A method for manufacturing a sensor in which a sensor element, which comprises at least a first housing, is at least partially encapsulation-molded in an encapsulation-molding process. As a result of the encapsulation-molding process a sensor housing is formed. The sensor element is mechanically connected to a support element and/or accommodated by the support element, after which the sensor element and the support element are encapsulation-molded in a common encapsulation-molding process for forming the sensor housing.
Abstract:
A method for producing a sensor element, wherein at least parts of the sensor element are subjected to at least one plasma treatment process during production. The plasma treatment process may be either a plasma cleaning process and/or a plasma activation process. During the plasma treatment process, a base element and/or a carrier element of the sensor element is subjected to a plasma treatment process before a placement process and/or before a contact-connecting process with electrical connection means. The sensor element is equipped with at least one measurement probe element and/or at least one electronic circuit. This method is used to produce a sensor element, such as a speed sensor element, that may be used in a motor vehicle.
Abstract:
An apparatus for determining a priority value for a thread for execution on a multithreading processor system includes: a base value register for depositing a priority base value; and an evaluation unit for determining the priority value of the thread for execution on the multithreading processor system subject to the priority base value and an application priority value delivered from a thread's application.
Abstract:
An apparatus for determining a priority value for a thread for execution on a multithreading processor system includes: a base value register for depositing a priority base value; and an evaluation unit for determining the priority value of the thread for execution on the multithreading processor system subject to the priority base value and an application priority value delivered from a thread's application.
Abstract:
The present invention provides file operation management devices, methods and processing systems which allow better utilization of application-processing units. It also provides file system operation functionality which requires less resources of the application-processing unit and provides a performance increase of the application. It provides a file operation management device for performing file system operations, including a storage interface for coupling to a data storage device, a system-internal data interface for connecting with a processing unit to receive user and/or command data from the processing unit and to transmit status and user data to the coupled processing unit, a file system unit for receiving the user and/or command data via the data interface and for performing the file system operation on the data storage device depending on the user and/or command data received via the data interface.
Abstract:
Provides methods, systems and apparatus for coupling a general purpose processor (GPP) to an application specific instruction set processor (ASIP) in such a manner that the GPP can include execute instructions that do not normally comprise part of its instruction set architecture (ISA). The GPP is coupled to the ASIP via a coprocessor port such that instructions issued by the GPP to the port are conveyed to a novel pre-decoder module of the ASIP. The pre-decoder module translates the GPP instruction into operation codes for ASIP instructions to be executed in the ASIP or to an address in the ASIP instruction memory that identifies a start address for a plurality of ASIP instructions defining a complex application specific function. Once the ASIP has executed the instructions it shares the result of the execution with the GPP. In this way, the GPP takes advantage of the ASIP in its ability to more quickly execute an application specific program/procedure.