Abstract: A system for generating virtual lane markers of an intersection so that the virtual lane markers are visible to an operator of a vehicle at the intersection. The system includes a remote station having a transceiver, a remote memory module configured to store map data and baseline static paths of vehicles moving through the intersection, and a remote control module configured to broadcast via the transceiver a map message indicating the baseline static paths. A vehicle transceiver is configured to receive the map message. A vehicle control module is configured to generate virtual lane markers through the intersection based on the baseline static paths included with the received map message.

Abstract: A remote station including a transceiver, a memory, and a control module. The memory is configured to store baseline static paths and dynamic paths of vehicles through an intersection. The baseline static paths refer to at least one of previous predetermined paths, averaged paths or historical paths. The dynamic paths refer to current detected paths. The control module is configured to: (i) compare the dynamic paths to the baseline static paths; (ii) determine whether there is a statistical significance between the dynamic paths and the baseline static paths; and (iii) when there is a statistical significance between the dynamic paths and the baseline static paths, broadcast via the transceiver an alert message indicating that the intersection may include an obstruction.

Abstract: A system for generating virtual lane markers of an intersection so that the virtual lane markers are visible to an operator of a vehicle at the intersection. The system includes a remote station having a transceiver, a remote memory module configured to store map data and baseline static paths of vehicles moving through the intersection, and a remote control module configured to broadcast via the transceiver a map message indicating the baseline static paths. A vehicle transceiver is configured to receive the map message. A vehicle control module is configured to generate virtual lane markers through the intersection based on the baseline static paths included with the received map message.

Abstract: A roll-over alert system for a vehicle when navigating a curve in a road. The system includes a transceiver, a memory, and a control module. The transceiver is configured to receive a map message including a general curve speed recommendation for the curve. The memory is configured to store the map message and vehicle-specific data relevant to safely navigating the curve. The control module is configured to: (i) calculate a vehicle-specific curve speed based on the vehicle-specific data and the general curve speed recommendation included in the map message; and (ii) generate an alert to an operator of the vehicle when an actual vehicle speed exceeds the vehicle-specific curve speed during navigation of the curve by the vehicle.

Abstract: A remote station includes a transceiver, a memory and a control module. The memory is configured to store first path data of vehicles through an intersection. The control module is configured to (i) receive at least one of road obstruction information or current vehicle path information, (ii) update the first path data based on the at least one of the road obstruction information or the current vehicle path information, and (iii) broadcast via the transceiver a first map message including the updated first path data, the map message includes a first plurality of data elements, wherein the first plurality of data elements defining a vehicle path through the intersection.

Abstract: A pedestrian collision warning system includes a transceiver, a memory and a control module. The transceiver receives a PSM and a map message at a vehicle. The memory stores map data. The control module: based on the messages, determines possible conflict boxes in which the vehicle and a pedestrian are predicted to be in at a same time; based on the map data and the map message, determines a most likely path of the vehicle through the intersection from possible intersection paths; based on the most likely path of the vehicle and the possible conflict boxes, determines whether the vehicle and the pedestrian will be in a possible conflict box at a same time; and in response to determining that the vehicle and the pedestrian will be in a possible conflict box at a same time, alerts an occupant of the vehicle or the pedestrian of a potential collision.

Abstract: A remote station includes a transceiver, a memory and a control module. The memory is configured to store (i) baseline static paths of vehicles moving through an intersection, and (ii) map data. The control module is configured to obtain road obstruction information, based on the baseline static paths and the map data, determine whether the road obstruction information affects one or more of the baseline static paths of the vehicles through the intersection and update the one or more baseline static paths based on the road obstruction information, and broadcast, via the transceiver, a map message indicating the updated one or more baseline static paths.

Abstract: A path prediction system includes a transceiver, a memory and a control module. The transceiver is configured to receive a map message at a host vehicle, the map message comprising path information of vehicles through an intersection. The memory is configured to store map data including global navigation satellite system information. The control module is configured to (i) determine if the host vehicle is approaching, at or in an intersection based on the map data, (ii) in response to determining that the host vehicle is approaching, at or in the intersection, predict a path of the host vehicle through the intersection based on the path information, and (iii) based on the predicted path of the host vehicle, perform at least one collision warning operation.

Abstract: A cup is in a bottomed tubular shape to receive an injector along an injector axis. A bracket is extended from a sidewall of the cup. The bracket includes at least one arm and a body. The at least one arm connects the body with the cup. The body forms a screw opening configured to receive a screw along a screw axis. The body has a pivot end on an opposite side of the screw axis from the injector axis.

Abstract: An inter-connect circuit (ICC) device for a fuel delivery system of a vehicle is disposed between an engine control unit (ECU) and a fuel control device. The ECU transmits a drive pulse to the fuel control device by way of a drive pulse line passing through the ICC device. The ICC device includes a housing and a sense circuit. The housing has a first side that is connectable to the ECU and a second side different from the first side that is connectable to the fuel control device. The sense circuit is disposed within the housing. The sense circuit is electrically coupled to the drive pulse line by way of a sense circuit line and is communicably coupled to the ECU by way of a data communication line.

Abstract: An injector has an inlet body. A cup is in a bottomed tubular shape to hold the inlet body. The cup has a sidewall defining first apertures and second apertures. A first pin is inserted in the first apertures. A second pin is inserted in the second apertures. The first pin and the second pin are configured to hold the inlet body and to restrict rotation of the inlet body relative to the cup.

Abstract: A pump may have a first chamber and a solenoid coil to control movement of a first valve member. A second chamber may have a second valve member to control fluid moving into a third chamber. A first fluid passageway may link the first and second chambers, a second passageway may link second and third chambers and a third passageway may link third and fourth chambers. After pressurizing the third chamber causing fluid to flow into and leave a fourth chamber, the third chamber depressurizes due to downward movement of a plunger. Upon depressurization with a solenoid coil energized, second valve member floats and then moves against a valve seat. While the second valve member is moving toward the valve seat, the solenoid coil is de-energized causing the first valve member to move and strike the second valve member when the second valve member is moving at maximum velocity.

Abstract: An inter-connect circuit (ICC) device for a fuel delivery system of a vehicle is disposed between an engine control unit (ECU) and a fuel control device. The ECU transmits a drive pulse to the fuel control device by way of a drive pulse line passing through the ICC device. The ICC device includes a housing and a sense circuit. The housing has a first side that is connectable to the ECU and a second side different from the first side that is connectable to the fuel control device. The sense circuit is disposed within the housing. The sense circuit is electrically coupled to the drive pulse line by way of a sense circuit line and is communicably coupled to the ECU by way of a data communication line.

Abstract: An injector has an inlet body. A cup is in a bottomed tubular shape to hold the inlet body. The cup has a sidewall defining first apertures and second apertures. A first pin is inserted in the first apertures. A second pin is inserted in the second apertures. The first pin and the second pin are configured to hold the inlet body and to restrict rotation of the inlet body relative to the cup.

Abstract: A cup is in a bottomed tubular shape to receive an injector along an injector axis. A bracket is extended from a sidewall of the cup. The bracket includes at least one arm and a body. The at least one arm connects the body with the cup. The body forms a screw opening configured to receive a screw along a screw axis. The body has a pivot end on an opposite side of the screw axis from the injector axis.

Abstract: A pump may have a first chamber and a solenoid coil to control movement of a first valve member. A second chamber may have a second valve member to control fluid moving into a third chamber. A first fluid passageway may link the first and second chambers, a second passageway may link second and third chambers and a third passageway may link third and fourth chambers. After pressurizing the third chamber causing fluid to flow into and leave a fourth chamber, the third chamber depressurizes due to downward movement of a plunger. Upon depressurization with a solenoid coil energized, second valve member floats and then moves against a valve seat. While the second valve member is moving toward the valve seat, the solenoid coil is de-energized causing the first valve member to move and strike the second valve member when the second valve member is moving at maximum velocity.

Abstract: A mounting assembly for mounting a fuel injector to a fuel rail. The mounting assembly includes a mounting boss and a fuel cup. The mounting boss is configured to be mounted to the fuel rail and receive a bolt within the mounting boss to couple the fuel rail to a cylinder head. The fuel cup is coupled to the mounting boss and configured to receive the fuel injector therein, as well as be mounted to the fuel rail to direct fuel from the fuel rail to the fuel injector.

Abstract: A system for delivering fuel to an engine including a fuel reservoir pump configured to pump fuel from a fuel tank to a fuel pump reservoir. A low pressure fuel pump is configured to pump fuel out from within the fuel pump reservoir and to the fuel reservoir pump. A high pressure fuel pump is configured to pump fuel to the engine. The low pressure fuel pump is configured to pump fuel to the high pressure fuel pump. A controller is operable to configure the low pressure fuel pump in a high mode at a first pump rate when the high pressure fuel pump is in a first configuration, and operable to configure the low pressure fuel pump in a low mode at a second pump rate when the high pressure fuel pump is in a second configuration different from the first configuration, the first pump rate is different from the second pump rate.

Abstract: A pump may have a first chamber and a solenoid coil to control movement of a first valve member. A second chamber may have a second valve member to control fluid moving into a third chamber. A first fluid passageway may link the first and second chambers, a second passageway may link second and third chambers and a third passageway may link third and fourth chambers. After pressurizing the third chamber causing fluid to flow into and leave a fourth chamber, the third chamber depressurizes due to downward movement of a plunger. Upon depressurization with a solenoid coil energized, second valve member floats and then moves against a valve seat. While the second valve member is moving toward the valve seat, the solenoid coil is de-energized causing the first valve member to move and strike the second valve member when the second valve member is moving at maximum velocity.

Abstract: A pump may have a first chamber and a solenoid coil to control movement of a first valve member. A second chamber may have a second valve member to control fluid moving into a third chamber. A first fluid passageway may link the first and second chambers, a second passageway may link second and third chambers and a third passageway may link third and fourth chambers. After pressurizing the third chamber causing fluid to flow into and leave a fourth chamber, the third chamber depressurizes due to downward movement of a plunger. Upon depressurization with a solenoid coil energized, second valve member floats and then moves against a valve seat. While the second valve member is moving toward the valve seat, the solenoid coil is de-energized causing the first valve member to move and strike the second valve member when the second valve member is moving at maximum velocity.