mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel injection device comprising: a valve body that comes into contact with a valve seat , to close a fuel passage, and moves away from the valve seat , to open the fuel passage in order to inject fuel through at least one injection orifice ; a mover that performs valve opening and closing operations in collaboration with the valve body , wherein the mover has a slope provided on an upper end surface of the mover ; and a magnetic core that is excited by energization of a coil and that generates a magnetic force to drive the mover , wherein the magnetic core has a hole that is opened in an end surface opposite to the mover and formed in a direction along a valve stem , and the hole has, provided on the mover side end surface of the magnetic core , a magnetic core inner diameter enlarged part in which an inner diameter is gradually enlarged from a back side of the hole toward the end surface opposite to the mover , the magnetic core inner diameter enlarged part and the slope are located on an inner side of the magnetic core and an inner side of the mover , respectively, characterised in that an interval between a surface where the magnetic core inner diameter enlarged part is formed and the slope of the mover in the direction along the valve stem is increased as the inner diameter of the inner diameter enlarged part becomes smaller. a valve body that comes into contact with a valve seat , to close a fuel passage, and moves away from the valve seat , to open the fuel passage in order to inject fuel through at least one injection orifice ; a mover that performs valve opening and closing operations in collaboration with the valve body , wherein the mover has a slope provided on an upper end surface of the mover ; and a magnetic core that is excited by energization of a coil and that generates a magnetic force to drive the mover , wherein the magnetic core has a hole that is opened in an end surface opposite to the mover and formed in a direction along a valve stem , and the hole has, provided on the mover side end surface of the magnetic core , a magnetic core inner diameter enlarged part in which an inner diameter is gradually enlarged from a back side of the hole toward the end surface opposite to the mover , the magnetic core inner diameter enlarged part and the slope are located on an inner side of the magnetic core and an inner side of the mover , respectively, characterised in that an interval between a surface where the magnetic core inner diameter enlarged part is formed and the slope of the mover in the direction along the valve stem is increased as the inner diameter of the inner diameter enlarged part becomes smaller.
A furniture hinge for articulated fixing of a furniture door , flap or the like to a furniture carcass , having a hinge member having a hinge cup and a hinge arm which is pivotably connected to the hinge cup and which can be secured to one of the furniture components, and having an assembly member which can be secured to the other furniture component, having a linear damper for damping at least the closure movement of the furniture hinge , having a locking element which can be adjusted into at least two switching positions and by means of which the linear damper is blocked in a locking switching position in the retracted position thereof and is released in a damping switching position, wherein in the locking switching position a locking bolt (103.3) which is pivotably supported about a rotation axis of the locking element is pivoted into the adjustment region of the linear damper or a component which is connected to the linear damper and in the damping switching position is pivoted out of the adjustment region, and wherein the rotation axis of the locking element is orientated in the movement direction of the linear damper , characterized in that a blocking attachment is secured to a movably supported cylinder or a movably supported piston of the linear damper , in that the blocking attachment has an attachment inclination (67.1) and opposite a blocking counter-face (67.2), in that , in the locking switching position (102.7) and with the linear damper deployed, the attachment inclination (67.1) is orientated to face the locking bolt (103.3) and in that , in the locking switching position (102.7) and with the linear damper retracted, the blocking counter-face (67.2) is orientated so as to face the locking bolt (103.3).
A router , comprising: first means for identifying an identifier of a virtual machine contained in a reception frame, wherein the reception frame contains virtual machine identifiers (VMid-A) for both a transmitting virtual server and a receiving virtual server (VMid-D), and the identifier of the virtual machine is assigned to the respective bit space of a part or whole of the MAC address field, a part or whole of the VLAN tag field, and a part or whole of the IP address field of the reception frame; second means for recognising a virtual network identifier (VPNid) from the identified virtual machine identifiers in the reception frame to determine the encapsulated packet destination virtual network, and for encapsulating the reception frame with the recognised virtual network identifier (VPNid); and third means for forwarding the encapsulated frame. first means for identifying an identifier of a virtual machine contained in a reception frame, wherein the reception frame contains virtual machine identifiers (VMid-A) for both a transmitting virtual server and a receiving virtual server (VMid-D), and the identifier of the virtual machine is assigned to the respective bit space of a part or whole of the MAC address field, a part or whole of the VLAN tag field, and a part or whole of the IP address field of the reception frame; second means for recognising a virtual network identifier (VPNid) from the identified virtual machine identifiers in the reception frame to determine the encapsulated packet destination virtual network, and for encapsulating the reception frame with the recognised virtual network identifier (VPNid); and third means for forwarding the encapsulated frame.
An information receiving method, wherein the method comprises: sending , by a terminal device, a random access signal to a network device on a random access resource; determining , by the terminal device, a random access identifier corresponding to the random access resource based on a time-frequency resource sequence number of the random access resource and a carrier identifier of a carrier on which the random access resource is located; and receiving , by the terminal device, a random access response from the network device based on the random access identifier on a downlink carrier; and wherein the random access resource is on a first uplink carrier or a second uplink carrier, and the first uplink carrier and the second uplink carrier are both corresponding to the downlink carrier, and the first uplink carrier is a supplementary uplink, SUL carrier, and the second uplink carrier is a time division duplex, TDD uplink carrier; and a relationship between the random access identifier, the time-frequency resource sequence number and the carrier identifier meets: S = 1 + t _ id + n 2 * f _ id + n 3 * carrier_id; wherein S is the random access identifier, t_id is a sequence number of a first symbol of the random access resource, f id is a frequency domain resource sequence number of the random access resource in the first symbol, carrier id is the carrier identifier, and both n2 and n3 are positive integers. sending , by a terminal device, a random access signal to a network device on a random access resource; determining , by the terminal device, a random access identifier corresponding to the random access resource based on a time-frequency resource sequence number of the random access resource and a carrier identifier of a carrier on which the random access resource is located; and receiving , by the terminal device, a random access response from the network device based on the random access identifier on a downlink carrier; and wherein the random access resource is on a first uplink carrier or a second uplink carrier, and the first uplink carrier and the second uplink carrier are both corresponding to the downlink carrier, and the first uplink carrier is a supplementary uplink, SUL carrier, and the second uplink carrier is a time division duplex, TDD uplink carrier; and a relationship between the random access identifier, the time-frequency resource sequence number and the carrier identifier meets: S = 1 + t _ id + n 2 * f _ id + n 3 * carrier_id; wherein S is the random access identifier, t_id is a sequence number of a first symbol of the random access resource, f id is a frequency domain resource sequence number of the random access resource in the first symbol, carrier id is the carrier identifier, and both n2 and n3 are positive integers.
A different-material joint comprised of a four-layer or more multilayer clad material where one outermost end is an aluminum alloy , the other outermost end is stainless steel or steel , said aluminum alloy is clad with pure aluminum , and an intermediate material between said pure aluminum and said stainless steel or steel includes one or more types of materials selected from the group comprising nickel , nickel alloy, titanium , titanium alloy, copper, copper alloy, and silver, said joint characterized in that all of said bonding interfaces between layers are wave-shaped bonding interfaces with wave heights of 1 mm or less, wherein said layers are bonded by explosive welding.
A rack corner steering mechanism comprising an input gear and a rack steering assembly driven by the input gear , the rack steering assembly comprises a plunger and a plurality of rack units which are successively movably connected to an end of the plunger and arranged in a corner shape, wherein the plunger is a straight bar and is moved along a straight trajectory, a side wall of the plunger close to the input gear is a first tooth surface to be engaged with the input gear , a side wall of each of the rack units close to the input gear is a second tooth surface to be engaged with the input gear , that rack unit of the rack units adjacent to the plunger is obliquely connected to the end of the plunger , each of the other rack units is successively connected to the end of its preceding rack unit, and the rack corner steering mechanism is configured such that when the second tooth surface of a rack unit is engaged with the input gear , this rack unit is rotated to be brought in line with the plunger ; and wherein the rack corner steering mechanism further comprises a housing , a retainer , and a cylinder , the housing has a corner, the cylinder is arranged at a front side of the corner, the plunger is inserted into the cylinder , each rack unit is located at the corner, the input gear is fixed on the retainer ; characterized in that the retainer comprises a pipe orifice portion with a C-shaped cross-section and two fixing portions extending upward from two ends of the pipe orifice portion , the pipe orifice portion is connected to the cylinder to allow the plunger and each rack unit to pass through, the input gear is fixed between said two fixing portions , and the rack corner steering mechanism is configured such that the input gear may be rotated to drive the plunger to move forward and enter the cylinder , and then to move straightly along the cylinder .
A method for manufacturing a tank , the tank including a cylinder body having an end portion , and an end plate having an end portion , the end portion of the cylinder body and the end portion of the end plate being joined together by welding, one of the body and the end plate being defined as a first member , the other one being defined as a second member , the end portion of the first member having a concave portion and a protrusion , the concave portion being formed such that a distance between an inner surface and a center (C) of the first member is shorter than a radius (r2) of an inner peripheral surface of the end portion of the second member , the protrusion being formed such that an open end of the first member protrudes outward beyond an outer peripheral surface of the end portion of the second member , the method comprising: an abutting step of making the end portion of the first member and the end portion of the second member abut against each other; and a joining step of welding portions of the first and second members and abutting against each other together, the abutting step and the joining step being sequentially performed, wherein the end plate is a member having a beading portion configured as a projection bulging radially outward at a position opposite to the protrusion with respect to the concave portion . one of the body and the end plate being defined as a first member , the other one being defined as a second member , the end portion of the first member having a concave portion and a protrusion , the concave portion being formed such that a distance between an inner surface and a center (C) of the first member is shorter than a radius (r2) of an inner peripheral surface of the end portion of the second member , the protrusion being formed such that an open end of the first member protrudes outward beyond an outer peripheral surface of the end portion of the second member , the method comprising: an abutting step of making the end portion of the first member and the end portion of the second member abut against each other; and a joining step of welding portions of the first and second members and abutting against each other together, the abutting step and the joining step being sequentially performed, wherein the end plate is a member having a beading portion configured as a projection bulging radially outward at a position opposite to the protrusion with respect to the concave portion . an abutting step of making the end portion of the first member and the end portion of the second member abut against each other; and a joining step of welding portions of the first and second members and abutting against each other together, the abutting step and the joining step being sequentially performed, wherein the end plate is a member having a beading portion configured as a projection bulging radially outward at a position opposite to the protrusion with respect to the concave portion .
A self-adaptive rotary arm positioning device, comprising a rotary arm body and a vibration isolating cushion , one end of the rotary arm body being rotatably connectable to a frame of a bogie through a rotary arm joint , and an upper surface of another end of the rotary arm body being connected to a lower surface of the vibration isolating cushion , wherein the self-adaptive rotary arm positioning device further comprises a curved member , a vertical distance is provided between the upper surface and the lower surface , both the upper surface and the lower surface are in rolling fit with the curved member at least in a front-rear direction, and the vertical distance is configured to provide space for rotation of the another end of the rotary arm body around the rotary arm joint .
Windshield with an electrically controllable sun visor , at least comprising an outer pane and an inner pane that are joined to one another via an intermediate layer , wherein above a central field of vision (B), a functional element with electrically controllable optical properties is incorporated into the intermediate layer , which element is connected to the outer pane via a region of a first thermoplastic layer and to the inner pane via a region of a second thermoplastic layer , wherein the functional element is divided by isolating lines into segments that can be electrically actuated separately, characterized in that the functional element is a PDLC functional element, that the region of the first thermoplastic layer and/or the region of the second thermoplastic layer is tinted or colored, and, that the functional element has an edge seal that is formed by a transparent colorless adhesive or a transparent colorless adhesive tape. wherein above a central field of vision (B), a functional element with electrically controllable optical properties is incorporated into the intermediate layer , which element is connected to the outer pane via a region of a first thermoplastic layer and to the inner pane via a region of a second thermoplastic layer , wherein the functional element is divided by isolating lines into segments that can be electrically actuated separately, characterized in that the functional element is a PDLC functional element, that the region of the first thermoplastic layer and/or the region of the second thermoplastic layer is tinted or colored, and, that the functional element has an edge seal that is formed by a transparent colorless adhesive or a transparent colorless adhesive tape.
A medical occlusive device comprising: an occlusive device frame comprising a plurality of elongate occlusive frame members , each of the elongate occlusive frame members including a first end and a second end; a first hub member that aggregates the first ends of the plurality of elongate occlusive frame members ; wherein the occlusive device frame includes an occlusive face portion , a laterally facing skirt portion , and a distal portion, and wherein first portions of the elongate occlusive frame members define the occlusive face portion and extend radially from the first hub member , second portions of the elongate occlusive frame members define the laterally facing skirt portion and extend in a distal and helical direction along a first rotational direction from the occlusive face portion , and wherein the plurality of elongate occlusive frame members terminate in free ends at the distal portion; and an anchor frame comprising a plurality of elongate anchor frame members that extend from a second hub member such that free ends of the elongate anchor frame members protrude from the laterally facing skirt portion , wherein the first hub member is coupled with the second hub member ; and wherein the first hub member is coupled within the second hub member , or the second hub member is coupled within the first hub member . an occlusive device frame comprising a plurality of elongate occlusive frame members , each of the elongate occlusive frame members including a first end and a second end; a first hub member that aggregates the first ends of the plurality of elongate occlusive frame members ; wherein the occlusive device frame includes an occlusive face portion , a laterally facing skirt portion , and a distal portion, and wherein first portions of the elongate occlusive frame members define the occlusive face portion and extend radially from the first hub member , second portions of the elongate occlusive frame members define the laterally facing skirt portion and extend in a distal and helical direction along a first rotational direction from the occlusive face portion , and wherein the plurality of elongate occlusive frame members terminate in free ends at the distal portion; and an anchor frame comprising a plurality of elongate anchor frame members that extend from a second hub member such that free ends of the elongate anchor frame members protrude from the laterally facing skirt portion , wherein the first hub member is coupled with the second hub member ; and wherein the first hub member is coupled within the second hub member , or the second hub member is coupled within the first hub member .
An apparatus for applying negative pressure to a wound, comprising: a negative pressure source configured to be fluidically coupled to a wound dressing ; a power source configured to supply power to the apparatus ; and a controller configured to: monitor a duty cycle of the negative pressure source , an operational time of the apparatus elapsed from an initial activation of the apparatus , and a remaining capacity of the power source; and determine a duty cycle threshold based at least in part on the remaining capacity of the power source and the operational time of the apparatus ; and operate the negative pressure source based at least in part on the determined duty cycle threshold; and wherein the controller is configured to adjust the duty cycle threshold dynamically based on the operating conditions. a negative pressure source configured to be fluidically coupled to a wound dressing ; a power source configured to supply power to the apparatus ; and a controller configured to: monitor a duty cycle of the negative pressure source , an operational time of the apparatus elapsed from an initial activation of the apparatus , and a remaining capacity of the power source; and determine a duty cycle threshold based at least in part on the remaining capacity of the power source and the operational time of the apparatus ; and operate the negative pressure source based at least in part on the determined duty cycle threshold; and wherein the controller is configured to adjust the duty cycle threshold dynamically based on the operating conditions. monitor a duty cycle of the negative pressure source , an operational time of the apparatus elapsed from an initial activation of the apparatus , and a remaining capacity of the power source; and determine a duty cycle threshold based at least in part on the remaining capacity of the power source and the operational time of the apparatus ; and operate the negative pressure source based at least in part on the determined duty cycle threshold; and wherein the controller is configured to adjust the duty cycle threshold dynamically based on the operating conditions.
An adaptive pulsed radar method of sensing or measuring a product material in a storage tank, comprising: adaptively and automatically selecting a first waveform type from a plurality of waveform types based on a power supply limitation for an adaptive pulsed multi-waveform radar system having a programmable receiver, Rx, and a programmable transmitter , Tx, implementing said method; automatically setting an initial gain or attenuation for said programmable Rx; transmitting a pulsed radar signal using said first waveform type to said product material, wherein said pulsed radar signal is reflected or scattered by said product material to provide a radar signal during an interval of time including a target signal; said programmable Rx receiving said radar signal including said target signal during said interval of time, and signal processing said target signal with a lower attenuation setting compared to said initial gain or attenuation to determine at least one parameter associated with said product material ; automatically switching from said first waveform type to another of said plurality of waveform types for said pulsed radar signal based on a change in said power limitation. adaptively and automatically selecting a first waveform type from a plurality of waveform types based on a power supply limitation for an adaptive pulsed multi-waveform radar system having a programmable receiver, Rx, and a programmable transmitter , Tx, implementing said method; automatically setting an initial gain or attenuation for said programmable Rx; transmitting a pulsed radar signal using said first waveform type to said product material, wherein said pulsed radar signal is reflected or scattered by said product material to provide a radar signal during an interval of time including a target signal; said programmable Rx receiving said radar signal including said target signal during said interval of time, and signal processing said target signal with a lower attenuation setting compared to said initial gain or attenuation to determine at least one parameter associated with said product material ; automatically switching from said first waveform type to another of said plurality of waveform types for said pulsed radar signal based on a change in said power limitation.