Patent classifications
B60T17/06
Brake fluid reservoir
A brake fluid reservoir (1) comprising a receptacle (2), adapted to contain brake fluid, said receptacle (2) forming a bottom wall (3) and a perimetric wall (4), wherein the bottom wall (3) and the perimetric wall (4) define an inner compartment (5) for containing the brake fluid, wherein the perimetric wall (4) defines an inlet opening (6) opposite to the bottom wall (3) communicating with the inner compartment (5), and the bottom wall (3) defines an outlet opening (7) communicating with the inner compartment (5) and fluidically connectable to a braking system; a cap (8) configured to close the inlet opening (6); wherein the receptacle (2) defines an auxiliary opening (9), distinct from the inlet opening (6) and the outlet opening (7), communicating with the inner compartment (5); and wherein the reservoir (1) comprises a valve (10) positioned in the auxiliary opening (9), said valve (10) being configured to regulate a flow of brake fluid through the auxiliary opening (9).
Brake fluid reservoir
A brake fluid reservoir (1) comprising a receptacle (2), adapted to contain brake fluid, said receptacle (2) forming a bottom wall (3) and a perimetric wall (4), wherein the bottom wall (3) and the perimetric wall (4) define an inner compartment (5) for containing the brake fluid, wherein the perimetric wall (4) defines an inlet opening (6) opposite to the bottom wall (3) communicating with the inner compartment (5), and the bottom wall (3) defines an outlet opening (7) communicating with the inner compartment (5) and fluidically connectable to a braking system; a cap (8) configured to close the inlet opening (6); wherein the receptacle (2) defines an auxiliary opening (9), distinct from the inlet opening (6) and the outlet opening (7), communicating with the inner compartment (5); and wherein the reservoir (1) comprises a valve (10) positioned in the auxiliary opening (9), said valve (10) being configured to regulate a flow of brake fluid through the auxiliary opening (9).
Reservoir tank for brake system
In accordance with one aspect of the present disclosure, a reservoir tank for a brake system can be provided, and the reservoir tank includes an upper body provided with an oil injector through which oil is injected, a lower body provided with a port through which oil is supplied to a master cylinder and coupled to the upper body to form an oil space, and a partition provided in the oil space to prevent the oil from being gathered at one side, wherein the partition includes a plurality of first partitions formed vertically and a second partition provided between the plurality of first partitions and provided with a communication space formed therein to communicate with the port.
Air Pressure Vessel For A Transportation Vehicle
A pressure vessel for vehicle for containing and selectively providing pressurized air. The pressure vessel includes a first end cap and a second end cap connected to the first end cap to define an inner volume. In one example, a central shell is positioned between and connected to the first end cap and the second end cap. The first end cap and the second end cap each include reinforcement ribs and a mount positioned on each end of the pressure vessel to mount the pressure vessel to a vehicle. In one example an insert is used to reinforce the air ports or a drain port in communication with an inner volume of the pressure vessel. A mold cavity die for forming an injection molded pressure vessel and a method for inserting a reinforcement in an injection molded pressure vessel is disclosed.
HYDRAULIC UNIT FOR BRAKE SYSTEM
Disclosed is a hydraulic unit for a brake system. A hydraulic unit according to the present embodiment may include a main reservoir tank, a hydraulic block having a reservoir bore, a cylinder bore, a motor bore, a hydraulic flow path, and a valve bore, and an electronic control unit, in which the motor bore is provided on a first surface of the hydraulic block, in which a housing of the electronic control unit is provided on a second surface of the hydraulic block, in which the main reservoir tank includes a coupling part, an extension part, and a connection part.
HYDRAULIC UNIT FOR BRAKE SYSTEM
Disclosed is a hydraulic unit for a brake system. A hydraulic unit according to the present embodiment may include a main reservoir tank, a hydraulic block having a reservoir bore, a cylinder bore, a motor bore, a hydraulic flow path, and a valve bore, and an electronic control unit, in which the motor bore is provided on a first surface of the hydraulic block, in which a housing of the electronic control unit is provided on a second surface of the hydraulic block, in which the main reservoir tank includes a coupling part, an extension part, and a connection part.
FRONT-MOUNTED TYPE RESERVOIR ASSEMBLY
Disclosed is a front-mounted type reservoir assembly. A front-mounted type reservoir assembly according to the present embodiment may be installed on a front surface of a hydraulic block of an integrated brake system and include a main reservoir tank having a main reservoir chamber configured to store a pressurized medium therein, and a plurality of oil ports formed on a front surface of the main reservoir tank so that the pressurized medium is introduced or discharged through the plurality of oil ports, and a remote reservoir tank having a first connection port configured to supply the pressurized medium to the main reservoir tank, an injection part configured to inject the pressurized medium, and a remote reservoir chamber configured to store the pressurized medium therein, in which the remote reservoir tank has partition walls configured to increase flow resistance of the pressurized medium to be supplied to the main reservoir tank.
FRONT-MOUNTED TYPE RESERVOIR ASSEMBLY
Disclosed is a front-mounted type reservoir assembly. A front-mounted type reservoir assembly according to the present embodiment may be installed on a front surface of a hydraulic block of an integrated brake system and include a main reservoir tank having a main reservoir chamber configured to store a pressurized medium therein, and a plurality of oil ports formed on a front surface of the main reservoir tank so that the pressurized medium is introduced or discharged through the plurality of oil ports, and a remote reservoir tank having a first connection port configured to supply the pressurized medium to the main reservoir tank, an injection part configured to inject the pressurized medium, and a remote reservoir chamber configured to store the pressurized medium therein, in which the remote reservoir tank has partition walls configured to increase flow resistance of the pressurized medium to be supplied to the main reservoir tank.
TRAILER-BASED COMPRESSED AIR PARTICULATE REMOVAL SYSTEM
A method for flowing sand out of a trailer, includes charging a brake air tank of the trailer. The method further includes charging an air compression tank with air from the brake air tank. Additionally, the method includes opening a gate of a hopper attached to the trailer, so sand flows out an opening formed by the gate. Moreover, the method includes activating a first air nozzle on the hopper to emit a burst of air from the air compression tank after a first set time period to assist moving the sand. Also, the method includes activating a second air nozzle on the hopper to emit a burst of air from the air compression tank after a second set time period to assist moving the sand. Further, the method includes repeatedly reactivating the first air nozzle and the second air nozzle until the air compression tank is empty.
TRAILER-BASED COMPRESSED AIR PARTICULATE REMOVAL SYSTEM
A method for flowing sand out of a trailer, includes charging a brake air tank of the trailer. The method further includes charging an air compression tank with air from the brake air tank. Additionally, the method includes opening a gate of a hopper attached to the trailer, so sand flows out an opening formed by the gate. Moreover, the method includes activating a first air nozzle on the hopper to emit a burst of air from the air compression tank after a first set time period to assist moving the sand. Also, the method includes activating a second air nozzle on the hopper to emit a burst of air from the air compression tank after a second set time period to assist moving the sand. Further, the method includes repeatedly reactivating the first air nozzle and the second air nozzle until the air compression tank is empty.