31results about How to "Increased flow cross section" patented technology

The diffuser (10) has a flow channel (22) expanded to a diffuser outlet, and an axially extending conducting body (14) provided at center of the diffuser outlet. The conducting body comprises multiple slots (30) that are distributed over circumference and formed among multiple conducting elements (32) in an axial section of longitudinal extension of the conducting body. The body has a cross-sectional contour arranged perpendicular to a center axis (16) of the diffuser and formed in star shape. Teeth of the body are formed by respective conducting elements.

The invention relates to an air duct (10) for supplying ambient air in an aircraft, comprising an air inlet (12), a duct channel section (16) extending downstream of the air inlet (12) and an air conveying device (22) which is adapted to convey ambient air through the air inlet (12) and the duct channel section (16). A flow control flap (24) closes the air inlet (12) in a first position, releases a first flow cross-section of the air inlet (12) in a second position and releases a second flow cross-section of the air inlet (12), which is larger than the first flow cross-section, in a third position.; The flow control flap (24) is designed and arranged in such a manner that a first surface section (28) of the flow control flap (24) is oriented substantially parallel to an aircraft shell section (18) surrounding the air inlet (12) in the area of the air inlet (12) in the second position of the flow control flap (24) and that the first surface section (28) of the flow control flap (24) is oriented at an angle with respect to the aircraft shell section (18) surrounding the air inlet (12) in an area of the air inlet (12) in the third position of the flow control flap (14).

The invention relates to a hydrostatic axial piston machine with a cylinder barrel and a control surface. A kidney-shaped input connector and a kidney-shaped output connector are configured in a control base. An exhaust chamber is connected with the input connector and the output connector alternately when the cylinder barrel rotates. The hydrostatic axial piston machine may operate as a pump and a motor. When the cylinder barrel is driven in the operation of the pump, the axial piston machine inhales a pressure medium with the input connector and conveys the pressure medium to the output connector. In the operation of the motor, the axial piston machine is driven by the pressure medium supplied by the input connector. The area of a sealing bridging portion is decreased in the area of the input connector on the control surface configured on the control base in order that hydrostatic unloading force is reduced when pressure is applied to the input connector. Therefore, in the operation of the motor, the pressing force of a pressure spring operatively connected with the cylinder barrel and / or pressed cylinder pressure retains pressure of the cylinder barrel on the control surface. Additionally or alternatively, the end portion of the kidney-shaped input connector has a transition contour flattened against a circular arc at a radially outer region.

The invention relates to a cylinder, in particular for a motor vehicle hydraulic brake systems comprising at least one case (2) provided with a plunger piston (3) movable therein, at least one angular sealing collar (5) arranged in the snap ring groove (4) of the case (2), an internal lip (6) dynamically applied to the plunger piston (3) by a first sealing surface (8), an external lip (7) statically applied to the bottom of the snap ring groove (4) by a second sealing surface (9) and the back of the collar (17). Said invention is characterised in that the back of the collar (17) is not flat and is provided with at least one peripheral-sealing surface (18, 24).

The invention relates to the field of intelligent control of diaphragm valves, in particular to an intelligent control system and method for a pneumatic diaphragm valve based on the Internet of Things. Provide a pneumatic diaphragm valve intelligent control system based on the Internet of Things with large flow rate, long service life, relatively stable sealing performance, and easy replacement of parts in advance. An intelligent control system for a pneumatic diaphragm valve based on the Internet of Things, including a valve body, a valve cover, and a diaphragm assembly. The valve body and the valve cover are connected by bolts. There is a flow module, the flow sensor is electrically connected to the flow module, and the diaphragm assembly is arranged between the valve body and the valve cover. The present invention increases the flow cross section of the fluid through the design of the arc groove on the valve body, utilizes the design of the connector to increase the adhesion with the diaphragm and improve its service life, and realizes fluid filling through the on-site control panel Display the problems that occur during the time, and remind the service life of the parts.

A method for operating an air-drying device (10) and air-drying device (10) are provided. The air-drying device (10) has at least one absorption device (20) with a first absorption section (21), a second absorption section (22), an air feed line (11), an air removal line and an analysis unit (13). The first absorption section (21) and the second absorption section (22) can be used alternating to dry air (70). The air feed line (11) feeds air (70) to be dried and is connected to an inlet opening (24) of the absorption device (20) in a fluid-communicating manner. The air removal line (12) removes dried air (70) and is connected to an outlet opening (25) of the absorption device (20) in a fluid-communicating manner. A compressed air system (60) for providing compressed air (70) has such an air-drying device (10).

#CMT# # / CMT# The diffuser (10) has a flow channel (22) expanded to a diffuser outlet, and an axially extending conducting body (14) provided at center of the diffuser outlet. The conducting body comprises multiple slots (30) that are distributed over circumference and formed among multiple conducting elements (32) in an axial section of longitudinal extension of the conducting body. The body has a cross-sectional contour arranged perpendicular to a center axis (16) of the diffuser and formed in star shape. Teeth of the body are formed by respective conducting elements. #CMT#USE : # / CMT# Exhaust gas diffuser for a gas turbine. #CMT#ADVANTAGE : # / CMT# The conducting body comprises slots that are distributed over the circumference and formed between the conducting elements in the axial section of the longitudinal extension of the conducting body, so that improvement of pressure recovery can be achieved while allowing homogeneous inflow of hot gas from a gas turbine in a heat recovery steam generator downstream to the gas turbine, thus improving the efficiency of the gas turbine. The conducting body has higher rigidity, so that aerodynamical disturbance and leak out-lateral support of the conducting body can be avoided. #CMT#DESCRIPTION OF DRAWINGS : # / CMT# The drawing shows a partial sectional perspective view of an exhaust gas diffuser of a gas turbine with a conducting body. 10 : Exhaust gas diffuser 14 : Axially extending conducting body 16 : Center axis 22 : Flow channel 30 : Slots 32 : Conducting elements.

The invention relates to a drive train, comprising an internal combustion engine, an exhaust gas turbine, arranged in the exhaust system of the internal combustion engine, a crankshaft, driven by the internal combustion engine, switchably connected by means of a hydrodynamic coupling to the exhaust turbine with a drive direction such that the crankshaft is driven by the turbine, said hydrodynamic coupling comprising a primary rotor and a secondary rotor which together form a working chamber which may be filled with a working medium for torque transmission, the primary rotor being in driven connection to the exhaust turbine. The primary rotor may be mechanically braked and locked with relation to a rotational movement such that the hydrodynamic coupling assumes a hydrodynamic retarding function. Said drivetrain according to the invention is characterised in that a controller is provided which, before and / or during a braking of the primary rotor, empties the working chamber of the hydrodynamic coupling to a given level.

The invention relates to a furniture hinge (4), including: at least two positioning members (5, 6) which are hinged and fixed on furniture members (2, 3); a buffer device (10) for buffering the relative movement of at least two positioning members, wherein the buffer device has a first fluid chamber (16) and a second fluid chamber (21) which are filled by buffer fluids; a channel (19) for connecting two fluid chambers; a piston (16a) inserting into the first fluid chamber in two fluid chambers and changing the volume of the first fluid chamber (16); and a device (25) arranged in the second fluid chamber, deforming or moving through inlet and outlet of the buffer fluid into / from the second fluid chamber to chamber the volume of the second fluid chamber, wherein at least one connection sheet (20) having at least one port (20a) is arranged behind the channel (19) along a flowing direction set in a buffer process, and the buffer fluids can flow in the second fluid chamber through the port.

The invention relates to an indirectly heated fluidized bed dryer (1) for drying moist fine-grained bulk material. The fluidized bed dryer (1) comprises a housing (2) with an aerated bottom (6), heat exchanger inners extending above the aerated bottom (6) and at least one (6) The lower discharge device for the dried loose material. The fluidized bed dryer (1) according to the invention is characterized in that the available flow cross section of the housing (2) in the region of the heat exchanger inserts is constant over the entire height of the heat exchanger inserts in the cross section of the housing The case increases in the flow direction of the fluidized medium. Inadmissible expansion of the steady-state fluidized bed is reliably prevented in this way.

A machine recommended for use in the energy generation industry as an engine, pump and compressor. The machine has a crankcase 1 , a cylinder 2 with a piston 3 and a piston rod 4 , two crankshafts 6 and 7 rotating in opposite directions. The internal cavity 12 of the piston communicates with the through axial passage 13 of the piston rod 4, which is arranged in the crankcase and has the possibility of reciprocating movement in the suction pipe 14; A diffuser 27 is formed on the side of the cavity 12 and a stirrer 28 is formed from the side of the suction tube 14 . The pumping valve 18 is arranged on the head 5 of the cylinder, the suction valve 16 is arranged on the front wall of the piston; wherein the piston rod 16 and the connecting rods 10 and 11 of the crankshafts 6 and 7 are hingedly connected with the beam 29 . The present invention provides a reduction in wasted space and a reduction in hydraulic losses.

The invention concerns a refrigerator with an air duct (101), the air duct (101) being formed by a depression (103) with wedge-shaped side sections (105) in a wall (107) and a covering (109) secured to the wedge-shaped side sections (105), the exterior of the covering running flush with the wall (107).

The invention relates to a heat exchanger (10), in particular a heat exchanger for an exhaust gas cooler of an internal combustion engine. The object of the present invention is to achieve a separation of the carrier medium into two partial flows with as little flow leakage as possible by means of a suitable structure of the partition ( 40 ). The heat exchanger ( 10 ) can be used as an exhaust gas cooler for an internal combustion engine, the heat exchanger having a heat exchange line ( 14 ) and a bypass line ( 11 ), wherein, in the flow line ( 25 ), in the heat exchanger A switching valve (20) is provided upstream, which separates the carrier medium flowing into the heat exchange conduit and the bypass conduit. In order to maintain the separation between the split flow through the bypass duct (11) and the split flow through the heat exchange duct (14), a partition (40) is provided, which according to the invention extends from the switching valve (20) all the way to the beginning of the bypass pipe (11).

The invention relates to an electro-pneumatic spring energy storage brake device (1) for a motor vehicle, comprising means for generating an electric brake operating signal (the electric brake operating signal represents at least "brake applied" and "brake applied"). device, the electronic control device (8) receiving the brake operation signal, the electropneumatic valve device (10) controlled by the control electronic device (8) according to the operation signal, and at least one pneumatically operated spring storage An energy braking cylinder, wherein the electro-pneumatic valve device (10) is connected to a compressed air source (12) to inflate the at least one spring energy storage brake cylinder or ventilated by connecting to a pressure relief port (3) , and wherein there is a maximum inflation state of the electropneumatic valve device (10) that can be caused by the electronic control device (8), in which state the electropneumatic valve device (10) opens at the compression The largest flow cross-section between the air source (12) and the at least one spring-charged cylinder. It is provided according to the invention that the electronic control unit (8) is configured such that the solenoid valve unit (10) is activated by the The electronic control unit (8) is controlled in the maximum charging state for a long time in this way until the pressure in at least one spring storage brake cylinder starts from the output pressure value with a first gradient and jumps to a level higher than that At a first pressure value that is higher, but still below the brake release pressure for fully releasing the spring-loaded brake cylinder, and is controlled in a state after reaching the first pressure value, In this state, starting from a first pressure value, the pressure in at least one spring accumulator brake cylinder is increased with a second gradient, which is smaller than the first gradient, to At a second pressure value higher than the first pressure value.

The invention relates to a flux field plate (1) for distribution of a reactant to an electrode or a gas diffusion layer of a fuel cell, having a gas inlet (2), having a plurality of channels (3) defining a flow field. In a state in which flow occurs, a pressure drop is present between the gas inlet (2) and the flow field, which pressure drop leads to an intake of exhaust gas flowing in the channels (3) in the direction of the gas inlet (2). Furthermore, a water-gas separator (4), which is fluid-mechanically connected to the gas inlet (2), is present for separating liquid water and / or water vapor from a gas, which water-gas separator is connected to the flow field in order to supply the gas separated in the water-gas separator (4) to the flow field. A flow cross-section on the gas inlet (2)or on the gas inlet region is smaller than the flow cross-section on or in the region of the water-gas separator (4).

The invention relates to an adjustable solenoid valve (10A) having a magnet assembly (20A) and a guide sleeve (13A) in which a non-movable part (11) is fixedly arranged and a valve armature (17A) is axially displaceable arranged in the guide sleeve, wherein the magnet assembly (20A) is pushed onto the immovable part (11) and the guide sleeve (13A), wherein the said non-movable part (11) forms an axial stop for said valve armature (17A), wherein said valve armature (17A) can be driven by a magnetic force generated by an energized magnet assembly (20A), And pressing the blocking element (17.1A) into the valve seat (15.1A) during the movement in the blocking direction; and lifting the blocking element from the valve seat (15.1A) during the movement in the opening direction. In this case, the valve armature (17A) and the immovable part (11) are each formed as a plastic component, wherein the valve armature (17A) is in its second position facing the immovable part (11). At one end face there is a magnet housing (17.3A) which accommodates a permanent magnet (18A) polarized along its direction of motion so that the permanent magnet (18A) is arranged on the Inside the magnet assembly (20A).