Patent classifications
B60H1/00878
THERMAL MONITORING IN AUTONOMOUS-DRIVING VEHICLES
A system managing vehicle operations based on thermal data. The system includes a thermal camera arranged in the vehicle to sense intra-vehicle thermal conditions. The system also includes a hardware-based storage device including a thermal-data analysis module that, when executed by a hardware-based processing unit, determines, based on the intra-vehicle thermal data, an activity or state of one or more vehicle occupants. The storage device may also include: an action module that, when executed, determines an output action based on the activity or state; and an output-interface module that, when executed, initiates performing the output action. The storage device may also include In various embodiments, the hardware-based storage device includes a database module that, when executed, obtains pre-stored occupant data corresponding to an occupant, and determining the output action is based on the pre-stored occupant data and occupant activity or state determined.
HEATING OR COOLING A VEHICLE
In an example of a method for heating or cooling a vehicle, an application resident on an electronic memory of a mobile communications device is launched. The electronic memory is coupled to a microprocessor. The microprocessor is operatively connected to a mobile device communications platform (MDCP). Preset climate control modes are displayed on a display. A user input identifying a selected preset climate control mode is received at a user interface. In response to receiving the user input, the selected preset climate control mode is transmitted to a vehicle communications platform (VCP). In response to receiving the selected preset climate control mode, a climate control instruction is transmitted by the VCP to a climate control system. In response to receiving the climate control instruction at the control module of the climate control system, the selected preset climate control mode is caused to be implemented in the vehicle.
AIR-CONDITIONING CONTROL APPARATUS, VEHICLE, AND AIRCONDITIONING CONTROL METHOD
An air-conditioning control apparatus includes an electronic control unit. The electronic control unit is configured to acquire temperature information of an electronic instrument provided in a vehicle cabin. The electronic control unit is configured to control air conditioning in the vehicle cabin based on the acquired temperature information of the electronic instrument.
Detecting illegal use of phone to prevent the driver from getting a fine
An apparatus includes an interface and a processor. The interface may be configured to receive video frames corresponding to an interior of a vehicle. The processor may be configured to perform video operations on the video frames to detect objects in the video frames, detect a driver based on the objects detected in the video frames, detect a use of an electronic device by the driver and generate a notification signal. The notification signal may be configured to warn the driver about using the electronic device in the vehicle. The notification signal may be generated if the use of the electronic device is unauthorized. The processor may comprise a dedicated hardware module configured to perform feature detection to calculate descriptors for determining a likelihood that pixels of the video frames belong to the objects that correspond to the use of the electronic device by the driver.
Vehicle accessory power management assembly
A vehicle accessory power management assembly includes a vehicle speed sensor, an accelerator sensor, an accessory device, a power transmitting device and a controller. The power transmitting device receives rotational power from a power device and transmits it to the accessory device. The power transmitting device is switchable between a first operating state and a second operating state. In the first operating state the accessory device is operated at a first power consumption level and in the second operating state the accessory device is operated at a second power consumption level lower than the first power consumption level. The controller is configured to switch the switching part from the first operating state to the second operating state in response to determining that a current level of acceleration requested of the power device is of greater importance than operating the accessory device at the first operating state.
CLOSED LOOP FEEDBACK CONTROL AND DIAGNOSTICS OF A TRANSPORT CLIMATE CONTROL SYSTEM
A closed loop feedback control and diagnostics system for a transport climate control system is provided. The closed loop feedback control and diagnostics system includes a plurality of source current sensors configured to monitor current received from a high voltage three-phase AC power source. The closed loop feedback control and diagnostics system also includes a plurality of compressor current sensors configured to monitor current drawn by an electrically powered compressor of the transport climate control system. The closed loop feedback control and diagnostics system also includes a controller configured to receive source current signals from each of the plurality of source current sensors, configured to receive compressor current signals from each of the plurality of compressor current sensors, and configured to control operation of the transport climate control system based on the received source current signals and the received compressor current signals.
VEHICLE FEATURE CONTROL SYSTEMS AND METHODS BASED ON SMOKING
A vehicle system includes: at least one of: a sensor configured to measure an amount of a chemical in air within a passenger cabin of a vehicle; and a camera configured to capture images within the passenger cabin of the vehicle; and a control module configured to: detect smoking within the passenger cabin based on the at least one of the amount of the chemical and at least one of the images; and in response to smoking being detected within the passenger cabin, adjust operation of at least one of a luxury feature of the vehicle and a comfort feature of the vehicle.
HEAT PUMP SYSTEM FOR VEHICLE
A heat pump system for a vehicle controls a temperature of a battery module by use of one chiller in which a coolant and a refrigerant are heat-exchanged and that improves heating efficiency by recovering heat from various heat sources in a heating mode of a vehicle to use them for indoor heating, including: a valve, an electrical component cooling device, a battery cooling device, an indoor heating device, an indoor cooling device, a centralized energy device, and a chiller, wherein a condenser included in the centralized energy device is connected to the second line through the second valve to condense the refrigerant supplied through the refrigerant line through heat-exchange with the coolant and is provided in a sixth line through which the coolant flows; and a first end portion of the third line is connected to a third valve provided in the sixth line.
DATA ANALYSIS OF ENVIRONMENTAL DATA FOR MANAGING TEMPERATURE OF A TRANSPORT ENVIRONMENT
Proactive temperature maintenance in a temperature controlled unit of a delivery vehicle can be based on a computer data analysis of multiple temperature factors. A computer can receive route environmental data from a multiplicity of sources regarding temperatures outside a vehicle, including a temperature at a current location and temperatures at another location along a route of the vehicle. Route environmental data can be analyzed to determine when to initiate a proactive cooling action for maintaining a cooling requirement within a refrigerated space within the vehicle, and the cooling requirements can include a threshold temperature in the refrigerated space. A proactive cooling action can be initiated based on the analysis before the threshold temperature is reached by assessing temperature variations in the route environmental data for determining a temperature effect on the vehicle at one or more locations along the route.
Air-conditioning control system for vehicle, air-conditioning control method for vehicle, and recording medium
An air-conditioning control system for a vehicle includes an acquisitor configured to acquire an exposure temperature of an exposed body surface of an occupant and a clothing surface temperature of the occupant, a non-exposure temperature estimator configured to estimate a non-exposure temperature of a non-exposed body surface of the occupant on the basis of the exposure temperature and a clothing amount, a clothing amount estimator configured to estimate the clothing amount on the basis of the non-exposure temperature and the clothing surface temperature, and a control unit configured to control an air conditioner of a vehicle into which the occupant gets on the basis of an estimation result of the clothing amount estimator.