Abstract: The present invention concerns a method for controlling the operation of an automotive HVAC system. The HVAC system includes at least a refrigerant compressor and a refrigerant evaporator. The method includes the steps of calculating an ambient air enthalpy value; comparing the calculated ambient air enthalpy value to at least one predetermined enthalpy value; and selectively changing the operation of the refrigerant compressor based on the comparison.

Abstract: An exemplary method for generating a BOM file is disclosed. The method includes the steps of: extracting data on components of a circuit design diagram of a motherboard, and storing the data in an spreadsheet as a non-standardized original BOM file; determining whether the data meet requirements corresponding to designing standards of the motherboard by checking the data of the non-standardized original BOM file; classifying the data into lists according to predefined manufacturing procedures; and automatically generating a standardized BOM file according to the corresponding lists. A related system is also disclosed.

Abstract: A testing system (20) includes a database server (201) for storing relevant data employed by the testing system, a gateway (202), a shop flow control server (203) for controlling the operations of the testing system via the gateway, a computer (204) for connecting with the database server and the gateway, a first test end (206) connecting to the computer, and a second test end (209) connecting to the database server and the gateway. The computer includes a board function test module (2040) for performing a board function test, an assembly test module (2042) for performing an assembly test, a system test module (2044) for performing a system test, a high potential test module (2046) for performing a high potential test, and an out of box assurance module (2048) for performing an electrical test. The shop flow control server communicates with the database server and the computer via the gateway.

Abstract: A system is provided for extracting material changes in different design diagrams of a motherboard. The system includes: an extracting module for extracting a first raw BOM from a first circuit design diagram of the motherboard, and for extracting a second raw BOM from a second circuit design diagram of the motherboard, wherein the second circuit design diagram is partially identical to the first circuit design diagram; a converting module for converting the first raw BOM to a first standard BOM, and for converting the second raw BOM to a second standard BOM; a integrity checking module for determining whether data in the two standard BOMs are error free; and an comparing module for comparing the two standard BOMs to extract material changes. A related method is also disclosed.

Abstract: A system for initializing hardware of a computer system includes a board support package (BSP) (20) and a ROM monitor (30). The BSP includes: a basic initialization module (21) for initializing a CPU, a Flash, etc.; an advanced initialization module (22) for initializing serial ports, an Ethernet, etc., for configuring parameters related to system operation and an interrupt service program; a function library (23) for storing various functions for performing configuration and modification of parameters of the hardware; and a boot loader (24) for determining whether parameters of the hardware need to be configured, and for booting an operating system or the ROM monitor based on the determination. The ROM monitor includes a command line editor (31) for inputting commands by users, a command translator (32) for translating the commands into computer-readable instructions, and a function invoking module (33) for invoking functions from the function library based on the instructions.

Abstract: A system for testing an artificial memory includes a monitor (10), a driver (20), and an executing means (30). The monitor includes a command line interface (101) for inputting commands and parameters. The driver includes a command line editor (201), which is adapted to be activated before the command line interface is used; a command translator (202) for invoking corresponding subprograms according to the input commands and parameters; an error flag (203) for indicating whether any error occurred during the testing; and an error counter (204) for counting the number of times any error occurred during the testing. The executing means is for testing the memory with reading/writing of sequence bit strings, and returning test results to the monitor via the driver. A related method for testing an artificial memory is also provided.

Abstract: The present invention concerns a method for controlling the operation of an automotive HVAC system. The HVAC system includes at least a refrigerant compressor and a refrigerant evaporator. The method includes the steps of calculating an ambient air enthalpy value; comparing the calculated ambient air enthalpy value to at least one predetermined enthalpy value; and selectively changing the operation of the refrigerant compressor based on the comparison.

Abstract: A vehicular air conditioner includes a reversible heat pump having an air distribution fan positioned upstream of an indoor heat exchanger, a coolant heat exchanger positioned downstream of the indoor heat exchanger, and a damper arranged adjacent to a coolant heat exchanger. An engine cooling water system is connected to the coolant heat exchanger. A subassembly is used for positioning the damper in the fully opened condition such that the coolant heat exchanger is made an air intake flow path in addition to an air flow path of an air bypass space during a cooling operation. The engine cooling water system includes a coolant bypass valve connected between a primary side flow path and a secondary side flow path for engine cooling water to bypass the coolant heat exchanger. When the damper fully opens a full quantity of the engine cooling water flows to the secondary side flow path.

Abstract: A system for controlling power sources of motherboards under test through networks includes a central server (1), a serial device server (3), a bus distributor (4), a number of power controllers (5), and a number of testing computers (8). The central server sets testing parameters, and transmits instructions regarding turning on or off power sources of the testing computers to the serial device server, in order to control the power sources of the testing computers. The serial device server converts the instructions into serial instructions, and generates corresponding serial signals. The bus distributor distributes an address for each power controller, receives the serial signals, and transmits the serial signals to corresponding power controllers. Each power controller turns on power sources of corresponding testing computers in which motherboards under test are installed according to the received serial signal. A related method is also disclosed.

Abstract: A system for automatically testing motherboards includes a test server (1), client computers (2), and a network (5) connecting the test server with the client computers. The test server is for storing a plurality of high-level OSs (Operating Systems), test programs and test script files, for setting contents of test configuration files, and for storing test results. Each client computer has a motherboard installed therein, and is operated under a DOS (Disk Operating System). The client computer downloads and installs a high-level OS from the test server, downloads and installs one or more test programs and a test script file according to a test configuration file set by the test server, executes the test script file to auto-run test programs in a sequence specified in the test configuration file, and then transmits test results to the test server.

Abstract: A system (3) for automatically initializing and diagnosing backplanes of electronic devices includes a monitor (1) and a driver (2) connected with the monitor. The monitor includes a command editor (10) for receiving diagnosis commands inputted by users, a command translator (11) connected with the command editor for compiling the diagnosis commands into binary commands, a processing unit (13) connected with the command translator for running diagnosis programs, and a display unit (14) connected with the command editor for displaying information. The driver includes an initialization module (20) for initializing the backplane, and a diagnosis module (21) connected with the processing unit and the display unit for providing diagnosis programs. A related method for automatically initializing and diagnosing a backplane of an electronic device is also provided.

Abstract: A system for initializing hardware of a computer system includes a board support package (BSP) (20) and a ROM monitor (30). The BSP includes: a basic initialization module (21) for initializing a CPU, a Flash, etc.; an advanced initialization module (22) for initializing serial ports, an Ethernet, etc., for configuring parameters related to system operation and an interrupt service program; a function library (23) for storing various functions for performing configuration and modification of parameters of the hardware; and a boot loader (24) for determining whether parameters of the hardware need to be configured, and for booting an operating system or the ROM monitor based on the determination. The ROM monitor includes a command line editor (31) for inputting commands by users, a command translator (32) for translating the commands into computer-readable instructions, and a function invoking module (33) for invoking functions from the function library based on the instructions.

Abstract: A testing system (20) includes a database server (201) for storing relevant data employed by the testing system, a gateway (202), a shop flow control server (203) for controlling the operations of the testing system via the gateway, a computer (204) for connecting with the database server and the gateway, a first test end (206) connecting to the computer, and a second test end (209) connecting to the database server and the gateway. The computer includes a board function test module (2040) for performing a board function test, an assembly test module (2042) for performing an assembly test, a system test module (2044) for performing a system test, a high potential test module (2046) for performing a high potential test, and an out of box assurance module (2048) for performing an electrical test. The shop flow control server communicates with the database server and the computer via the gateway.

Abstract: An energy-saving method for operating a climate control system includes reporting an ambient outside temperature from a first temperature sensor to a controller unit and reporting a climate control air temperature from a second temperature sensor to the controller unit. The control unit performs an algorithm to define a control criterion value in response to the ambient outside temperature. A non-refrigeration cycle based heating element is activated to provide heated air to an interior surface of a windshield if the climate control air temperature is above the control criterion value. Moreover, a refrigeration cycle based cooling element and the non-refrigeration cycle based heating element are activated to provide the heated air to the interior surface of the windshield if the climate control air temperature is at or below the control criterion.

Abstract: The aim of the invention is to shorten heating start up time at the time of a heating operation and to improve capacity.

Abstract: Isolated native forms of soluble, freely diffusible Sonic hedgehog protein and recombinant forms of soluble, freely diffusible oligomeric Sonic hedgehog protein are produced. Methods of assaying an oligomeric Sonic hedgehog protein derived from a tissue and/or cell comprise measuring a conditioned media to detect the production of the soluble, freely diffusible Sonic hedgehog protein.

Abstract: An apparatus for heating the interior compartment of a vehicle, the apparatus has a primary heating system, a secondary heating system and an operating system. The primary heating system receives and circulates an engine coolant through a heater core. The secondary heating system receives and circulates a gas, the secondary heating system heats the gas and circulates the heated gas through a heat exchanger. The operating system for operating the heating systems, the operating system receives a plurality of inputs and in response to the inputs the operating system determines which of the heating systems is to be activated in response to a heating request. The operating system also determines whether or not to deactivate one or both of the heating systems.

Abstract: An apparatus and system for manipulating the air temperature within an interior compartment of a vehicle, the apparatus and system includes a HVAC system and an operating system. A compressor receives and circulates a gas through a heat exchanger in order to regulate the air within the vehicle. The compressor has a capacity control valve that is manipulated by the control system in response to a user setting.

Abstract: An air conditioner for a vehicle having an engine that serves as a drive source for a compressor arranged in a rear part of the vehicle. The air conditioner includes the compressor, and further includes an air intake unit having an inside air intake, an outside air intake, an inside air/outside air changeover damper, and a blower disposed on a downstream side of the inside air/outside air changeover damper. The air conditioner includes an air conditioning unit into which air is introduced from the air intake unit, provided along an introduced air distribution path with a cooling apparatus heat exchanger fluidly connected to the compressor and configured to exchange heat between the introduced air and air outside the cabin interior, where the cooling apparatus heat exchanger is located in the rear part of the vehicle. The air conditioning unit also include an engine heat exchanger configured to exchange heat between the introduced air and an engine of the vehicle.

Abstract: An object of the invention is to provide a vehicular air conditioner using a heat pump that can improve heating ability by effective utilization of engine waste heat during a heating operation. The apparatus of the invention is a vehicular air conditioner using a heat pump with a compressor unit 20 equipped with a compressor 31, a throttling resistance 34 and a four way valve 33, connected by a refrigerant path 30 to an indoor heat exchanger 25 for effecting heat exchange between a refrigerant and vehicle cabin air, and an outdoor heat exchanger 21 installed in an engine compartment for effecting heat exchange between a refrigerant and outside air, and equipped with fan 22 for drawing in outside air, and which executes a cooling operation and a heating operation by switching a direction of flow of the refrigerant.