mhurhangee/patent-ind-claim-en huggingface dataset:
A V2X message communication method, characterized by comprising: receiving (S301), by a mobility management entity , a quality of service, QoS, information request message from a terminal , wherein the QoS information request message carries identification information of the terminal; obtaining (S302), by the mobility management entity , QoS information of the terminal based on the identification information of the terminal, wherein the QoS information comprises a correspondence between a plurality of message identifiers of V2X messages supported by the terminal and QoS parameters corresponding to the message identifiers, wherein each message identifier corresponds to a QoS parameter, and each message identifier includes at least one of a message type or a message flow template type; and sending (S303), by the mobility management entity , the QoS information of the terminal to the terminal. receiving (S301), by a mobility management entity , a quality of service, QoS, information request message from a terminal , wherein the QoS information request message carries identification information of the terminal; obtaining (S302), by the mobility management entity , QoS information of the terminal based on the identification information of the terminal, wherein the QoS information comprises a correspondence between a plurality of message identifiers of V2X messages supported by the terminal and QoS parameters corresponding to the message identifiers, wherein each message identifier corresponds to a QoS parameter, and each message identifier includes at least one of a message type or a message flow template type; and sending (S303), by the mobility management entity , the QoS information of the terminal to the terminal.
A trailer coupling for motor vehicles comprising a ball neck , a vehicle-side bearing unit , with which a first end of the ball neck is connected, and a coupling ball , which is connected with a second end of the ball neck and which has a cavity for a sensor system , wherein the coupling ball has a cavity (134"") in which a sensor system is arranged, wherein the sensor system comprises a circuit board , characterised in that there is arranged on the circuit board at least one magnetic field sensor , which detects in a multi-dimensional manner magnetisable parts which are arranged in a surrounding space lying outside the coupling ball , in that there is arranged in the cavity (134"") at least one permanent magnet , the magnetic field of which permeates the magnetic field sensor , in that the magnetic field sensor is a multi-dimensional magnetic field sensor and in that the magnetic field sensor detects magnetisable elements lying in a two-dimensional surface region in front of this magnetic field sensor and extending transversely to the central axis by influencing a magnetic field , which spreads out from the permanent magnet into a surrounding space around the coupling ball and, due to a magnetisable element entering into the surrounding space , changes its course in the two-dimensional surface region in the two differing spatial directions, the magnetic field sensor detects the magnetisable element on the basis of this change, or in that the magnetic field sensor detects magnetisable elements lying in a three-dimensional space in front of this magnetic field sensor by influencing a magnetic field , which spreads out from the permanent magnet into the surrounding space around the coupling ball and, due to a magnetisable element entering into the surrounding space , changes its spatial course and its magnitude in the three different spatial directions, the magnetic field sensor detects the magnetisable element on the basis of this change.
A display panel, characterized by comprising: a plurality of sub-pixel areas; a first substrate and a second substrate oppositely arranged to form a cell; and a liquid crystal layer disposed between the first substrate and the second substrate , wherein the second substrate includes a first sub-pixel electrode and a second sub-pixel electrode disposed in an area corresponding to one of the plurality of sub-pixel areas, a protruded object is disposed in a gap between a first sub-pixel electrode and a second sub-pixel electrode , respectively included in different adjacent sub-pixel areas, and a projection of the protruded object at least partially overlaps an area of the liquid crystal layer corresponding to the gap; the second substrate includes a plurality of gate lines and a plurality of data lines which are crossed and perpendicular to each other, the first sub-pixel electrode and the second sub-pixel electrode included in each of the plurality of sub-pixel areas are alternately disposed along an extension direction of the data lines, wherein each of the plurality of the gate lines passes through each of the plurality of sub-pixel areas, wherein the first sub-pixel electrode and second sub-pixel electrode included in each of the plurality of sub-pixel areas are respectively disposed on both sides of the gate line ; and wherein the display panel is a multi-domain vertical-aligned display panel. a plurality of sub-pixel areas; a first substrate and a second substrate oppositely arranged to form a cell; and a liquid crystal layer disposed between the first substrate and the second substrate , wherein the second substrate includes a first sub-pixel electrode and a second sub-pixel electrode disposed in an area corresponding to one of the plurality of sub-pixel areas, a protruded object is disposed in a gap between a first sub-pixel electrode and a second sub-pixel electrode , respectively included in different adjacent sub-pixel areas, and a projection of the protruded object at least partially overlaps an area of the liquid crystal layer corresponding to the gap; the second substrate includes a plurality of gate lines and a plurality of data lines which are crossed and perpendicular to each other, the first sub-pixel electrode and the second sub-pixel electrode included in each of the plurality of sub-pixel areas are alternately disposed along an extension direction of the data lines, wherein each of the plurality of the gate lines passes through each of the plurality of sub-pixel areas, wherein the first sub-pixel electrode and second sub-pixel electrode included in each of the plurality of sub-pixel areas are respectively disposed on both sides of the gate line ; and wherein the display panel is a multi-domain vertical-aligned display panel.
A substrate assembly comprising: a power substrate comprising a first direct copper bonded (DCB) surface coupled to a ceramic tile; a chip soldered onto the first DCB surface; a clip attached to the power substrate, the clip comprising: a foot coupled to the power substrate, wherein the foot is disposed at a first end of the clip; and a recessed area disposed at a second end of the clip, the second end being opposite the first end; and a trimetal comprising: a base soldered to the chip; a trapezoid structure disposed atop the base; and a clip portion disposed atop the trapezoid structure, the clip portion further comprising a projecting area; wherein the recessed area of the clip fits into the projecting area of the trimetal. a power substrate comprising a first direct copper bonded (DCB) surface coupled to a ceramic tile; a chip soldered onto the first DCB surface; a clip attached to the power substrate, the clip comprising: a foot coupled to the power substrate, wherein the foot is disposed at a first end of the clip; and a recessed area disposed at a second end of the clip, the second end being opposite the first end; and a foot coupled to the power substrate, wherein the foot is disposed at a first end of the clip; and a recessed area disposed at a second end of the clip, the second end being opposite the first end; and a trimetal comprising: a base soldered to the chip; a trapezoid structure disposed atop the base; and a clip portion disposed atop the trapezoid structure, the clip portion further a base soldered to the chip; a trapezoid structure disposed atop the base; and a clip portion disposed atop the trapezoid structure, the clip portion further comprising a projecting area;
An electrical connector comprising: a docking array of connectors disposed on a docking surface ; a pin assembly disposed on an opposite surface, the opposite surface being substantially parallel with the docking surface ; a sidewall extending between the docking surface and the opposite surface; and a hook protrusion disposed on the sidewall , the hook protrusion having a surface that is substantially co-planar with the docking surface , characterised in that a guide protrusion is disposed on the sidewall , the guide protrusion having an edge that is substantially co-planar with the opposite surface, the guide protrusion sized to fit within a guide groove disposed on a receiving portion ; wherein the hook protrusion aligns with a slot when the guide protrusion is seated into the guide groove , wherein the slot opens to an inner sidewall of the receiving portion . a docking array of connectors disposed on a docking surface ; a pin assembly disposed on an opposite surface, the opposite surface being substantially parallel with the docking surface ; a sidewall extending between the docking surface and the opposite surface; and a hook protrusion disposed on the sidewall , the hook protrusion having a surface that is substantially co-planar with the docking surface , characterised in that a guide protrusion is disposed on the sidewall , the guide protrusion having an edge that is substantially co-planar with the opposite surface, the guide protrusion sized to fit within a guide groove disposed on a receiving portion ; wherein the hook protrusion aligns with a slot when the guide protrusion is seated into the guide groove , wherein the slot opens to an inner sidewall of the receiving portion .
An imaged capillary isoelectric focusing (icIEF) sample matrix comprising (i) about 30 mM to about 50 mM glycine and (ii) about 40 mM to about 60 mM taurine.
A Doherty amplifier comprising: an RF input; a main amplifier connected to the RF input; a peaking amplifier connected to the RF input; a combining node at which an output from the main amplifier combines with an output from the peaking amplifier; and an impedance inverter comprising a first integrated distributed inductor, the first integrated distributed inductor comprising a first conductive strip line integrated on a substrate, a second integrated distributed inductor, the second integrated distributed inductor comprising a second conductive strip line integrated on the substrate, and a capacitor connected in series between the first conductive strip line and the second conductive strip line on the substrate, wherein: the impedance inverter is connected between an output of the main amplifier and the combining node; the combining node is located at a drain bonding pad of the peaking amplifier; and the capacitor comprises a capacitance to avoid altering phase rotation in the impedance inverter beyond 95 degrees. an RF input; a main amplifier connected to the RF input; a peaking amplifier connected to the RF input; a combining node at which an output from the main amplifier combines with an output from the peaking amplifier; and an impedance inverter comprising a first integrated distributed inductor, the first integrated distributed inductor comprising a first conductive strip line integrated on a substrate, a second integrated distributed inductor, the second integrated distributed inductor comprising a second conductive strip line integrated on the substrate, and a capacitor connected in series between the first conductive strip line and the second conductive strip line on the substrate, wherein: the impedance inverter is connected between an output of the main amplifier and the combining node; the combining node is located at a drain bonding pad of the peaking amplifier; and the capacitor comprises a capacitance to avoid altering phase rotation in the impedance inverter beyond 95 degrees. the impedance inverter is connected between an output of the main amplifier and the combining node; the combining node is located at a drain bonding pad of the peaking amplifier; and the capacitor comprises a capacitance to avoid altering phase rotation in the impedance inverter beyond 95 degrees.
A cleansing composition for cleansing the skin comprising by weight of the composition, - 30 to 60 wt.% of one or more polyols; and - 6 to 22 wt.% of thickeners, comprising a combination of: a) inorganic thickener selected from silica, chalk, talc, clay and combinations thereof; b) cellulosic thickener selected from cellulose, cellulose ether, cellulose ester and combinations thereof; wherein the weight ratio of the inorganic thickener to the cellulosic thickener is in the range of 4:1 to 40:1; - 4 to 12 wt. % of non-soap anionic surfactant; - 1 to 6 wt. % of amphoteric surfactant; and wherein the weight ratio of the one or more polyols to the thickeners is in the range of 1:1 to 13:1 and wherein the viscosity of the composition is in the range of 200 to 400 Pa·s, measured at 25°C after 1 minute at 5 rpm. - 30 to 60 wt.% of one or more polyols; and - 6 to 22 wt.% of thickeners, comprising a combination of: a) inorganic thickener selected from silica, chalk, talc, clay and combinations thereof; b) cellulosic thickener selected from cellulose, cellulose ether, cellulose ester and combinations thereof; wherein the weight ratio of the inorganic thickener to the cellulosic thickener is in the range of 4:1 to 40:1; a) inorganic thickener selected from silica, chalk, talc, clay and combinations thereof; b) cellulosic thickener selected from cellulose, cellulose ether, cellulose ester and combinations thereof; - 4 to 12 wt. % of non-soap anionic surfactant; - 1 to 6 wt. % of amphoteric surfactant; and
A camera device , comprising: a camera lens ; a mounting member for mounting the camera lens , a rotation axis of the mounting member being perpendicular to an axial direction of the camera lens ; the mounting member having a magnet disposed thereon, the magnet located at a side of the rotation axis of the mounting member ; a supporting member having an electromagnet disposed thereon, and an axis of the electromagnet being perpendicular to the rotation axis of the mounting member ; the magnet located at one end of the axis of the electromagnet ; and a protective barrel connected to the supporting member , the mounting member disposed inside the protective barrel and pivotably connected to the protective barrel , an orientation of magnetic poles of the magnet is parallel to the axial direction of the camera lens , characterized in that the supporting member has a positioning structure disposed thereon for fixing relative positions of the supporting member and the mounting member , wherein the positioning structure comprises an elastic sheet , the elastic sheet is disposed away from the rotation axis of the mounting member as compared to the electromagnet , one end of the elastic sheet is fastened to the supporting member and the other end has a bump disposed thereon, the mounting member has a slot disposed thereon, and the bump is abutted on the slot . a camera lens ; a mounting member for mounting the camera lens , a rotation axis of the mounting member being perpendicular to an axial direction of the camera lens ; the mounting member having a magnet disposed thereon, the magnet located at a side of the rotation axis of the mounting member ; a supporting member having an electromagnet disposed thereon, and an axis of the electromagnet being perpendicular to the rotation axis of the mounting member ; the magnet located at one end of the axis of the electromagnet ; and a protective barrel connected to the supporting member , the mounting member disposed inside the protective barrel and pivotably connected to the protective barrel , an orientation of magnetic poles of the magnet is parallel to the axial direction of the camera lens , characterized in that the supporting member has a positioning structure disposed thereon for fixing relative positions of the supporting member and the mounting member , wherein the positioning structure comprises an elastic sheet , the elastic sheet is disposed away from the rotation axis of the mounting member as compared to the electromagnet , one end of the elastic sheet is fastened to the supporting member and the other end has a bump disposed thereon, the mounting member has a slot disposed thereon, and the bump is abutted on the slot .
A driving device (1-1; 1-2) for a hybrid vehicle , comprising: a transmission unit configured to be able to output a rotation of an engine while changing rotating speed of the engine ; and a rotating electric machine (MG; MG1), wherein the rotating electric machine (MG; MG1) is configured to supply a torque for increasing the rotating speed of the engine at the time of starting up of the engine to the engine through the transmission unit , and the transmission unit is switched to a high speed gear shift stage at the time of starting up of the engine in a high load state of the rotating electric machine (MG; MG1) . a transmission unit configured to be able to output a rotation of an engine while changing rotating speed of the engine ; and a rotating electric machine (MG; MG1), wherein the rotating electric machine (MG; MG1) is configured to supply a torque for increasing the rotating speed of the engine at the time of starting up of the engine to the engine through the transmission unit , and the transmission unit is switched to a high speed gear shift stage at the time of starting up of the engine in a high load state of the rotating electric machine (MG; MG1) .
A multi-band antenna , comprising: a single radio frequency (RF) input ; a first antenna coupled to the single RF input , wherein the first antenna is configured to provide a first resonant mode of the multi-band antenna in a high band in a range between 1910 MHz and 2310 MHz; and a second antenna parasitically coupled to the first antenna , wherein the second antenna is configured to provide a plurality of resonant modes of the multi-band antenna , wherein the second antenna is a T-monopole antenna to provide three resonant modes of the plurality of resonant modes, the T-monopole comprising: a base electrically coupled to ground ; a first arm extending out from a first side of the base , the first arm to provide a second resonant mode in a low band in a range between 700 MHz and 1000 MHz; a second arm extending out from a second side of the base , the second arm to provide a third resonant mode in the low band in a range between 550 MHz and 850 MHz; and a folded arm extending back towards the second side of the base from a distal end of the second arm , the folded arm to provide in a fourth resonant mode in the high band in a range between 1660 MHz and 2060 MHz. a single radio frequency (RF) input ; a first antenna coupled to the single RF input , wherein the first antenna is configured to provide a first resonant mode of the multi-band antenna in a high band in a range between 1910 MHz and 2310 MHz; and a second antenna parasitically coupled to the first antenna , wherein the second antenna is configured to provide a plurality of resonant modes of the multi-band antenna , wherein the second antenna is a T-monopole antenna to provide three resonant modes of the plurality of resonant modes, the T-monopole comprising: a base electrically coupled to ground ; a first arm extending out from a first side of the base , the first arm to provide a second resonant mode in a low band in a range between 700 MHz and 1000 MHz; a second arm extending out from a second side of the base , the second arm to provide a third resonant mode in the low band in a range between 550 MHz and 850 MHz; and a folded arm extending back towards the second side of the base from a distal end of the second arm , the folded arm to provide in a fourth resonant mode in the high band in a range between 1660 MHz and 2060 MHz. a base electrically coupled to ground ; a first arm extending out from a first side of the base , the first arm to provide a second resonant mode in a low band in a range between 700 MHz and 1000 MHz; a second arm extending out from a second side of the base , the second arm to provide a third resonant mode in the low band in a range between 550 MHz and 850 MHz; and a folded arm extending back towards the second side of the base from a distal end of the second arm , the folded arm to provide in a fourth resonant mode in the high band in a range between 1660 MHz and 2060 MHz.
A method for implementing load sharing performed by a network device, the method comprising the method steps of: • selecting (step 202), among multiple links, a first link that is used to forward a packet flow, wherein the first link is a link between a first forwarding node and a second forwarding node, and the first link is a link that is not in a congested state after an available bandwidth of the first link is occupied by the packet flow; • selecting (step 203) a first hash factor corresponding to the selected first link, wherein the first hash factor is a multiprotocol label switching, MPLS, label or a port number of a source user datagram protocol, UDP, or a flow identifier or a Virtual extensible Local Area Network, VxLAN, ID; • determining a second link corresponding to the selected first hash factor, wherein the second link is a link between the second forwarding node and a third forwarding node; • determining whether the second link corresponding to the selected first hash factor is in a congested state after an available bandwidth of the second link is occupied by the packet flow: ∘ if it is determined (step 204) that the second link corresponding to the selected first hash factor is not in the congested state after the available bandwidth of the second link is occupied by the packet flow, saving (step 205) the first hash factor to a source node of the packet flow. • selecting (step 202), among multiple links, a first link that is used to forward a packet flow, wherein the first link is a link between a first forwarding node and a second forwarding node, and the first link is a link that is not in a congested state after an available bandwidth of the first link is occupied by the packet flow; • selecting (step 203) a first hash factor corresponding to the selected first link, wherein the first hash factor is a multiprotocol label switching, MPLS, label or a port number of a source user datagram protocol, UDP, or a flow identifier or a Virtual extensible Local Area Network, VxLAN, ID; • determining a second link corresponding to the selected first hash factor, wherein the second link is a link between the second forwarding node and a third forwarding node; • determining whether the second link corresponding to the selected first hash factor is in a congested state after an available bandwidth of the second link is occupied by the packet flow: ∘ if it is determined (step 204) that the second link corresponding to the selected first hash factor is not in the congested state after the available bandwidth of the second link is occupied by the packet flow, saving (step 205) the first hash factor to a source node of the packet flow. ∘ if it is determined (step 204) that the second link corresponding to the selected first hash factor is not in the congested state after the available bandwidth of the second link is occupied by the packet flow, saving (step 205) the first hash factor to a source node of the packet flow.