mhurhangee/patent-ind-claim-en huggingface dataset:
A configuration method for a synchronization network, comprising: determining at least the following information: topology of the synchronization network, and the number of external clocks enabled by the synchronization network; and performing clock configuration for the synchronization network according to the determined information, wherein: if the synchronization network comprises a ring having an external clock injected at a single point, configuring the synchronization network comprises: performing the clock configuration for the ring in a ring manner by: for a node having external clock injection in the ring, configuring an extracted external clock; and for each node having no external clock injection in the ring, configuring two chains for extracting clocks from adjacent nodes at both sides of the node, and configuring an extracted clock in an extraction direction being the same as a preset extraction direction of an operation clock of the ring, as an operation clock, the extraction direction of the operation clock of the ring being clockwise or counter clockwise. determining at least the following information: topology of the synchronization network, and the number of external clocks enabled by the synchronization network; and performing clock configuration for the synchronization network according to the determined information, wherein: if the synchronization network comprises a ring having an external clock injected at a single point, configuring the synchronization network comprises: performing the clock configuration for the ring in a ring manner by: for a node having external clock injection in the ring, configuring an extracted external clock; and for each node having no external clock injection in the ring, configuring two chains for extracting clocks from adjacent nodes at both sides of the node, and configuring an extracted clock in an extraction direction being the same as a preset extraction direction of an operation clock of the ring, as an operation clock, the extraction direction of the operation clock of the ring being clockwise or counter clockwise. for a node having external clock injection in the ring, configuring an extracted external clock; and for each node having no external clock injection in the ring, configuring two chains for extracting clocks from adjacent nodes at both sides of the node, and configuring an extracted clock in an extraction direction being the same as a preset extraction direction of an operation clock of the ring, as an operation clock, the extraction direction of the operation clock of the ring being clockwise or counter clockwise.
A double-shell tank comprising: an inner shell including an inner shell main part and an inner shell dome , the inner shell main part storing liquefied gas, the inner shell dome protruding upward from the inner shell main part ; an inner shell manhole provided in an upper portion of the inner shell dome ; an outer shell including an outer shell main part and an outer shell dome , the outer shell main part surrounding the inner shell main part with a first vacuum space formed between the outer shell main part and the inner shell main part , the outer shell dome surrounding the inner shell dome with a second vacuum space formed between the outer shell dome and the inner shell dome ; an outer shell manhole provided in an upper portion of the outer shell dome ; a bellows incorporated in the outer shell dome , such that the bellows divides the outer shell dome into a lower fixed portion and an upper movable portion ; an inner ring fixed to the inner shell dome in the second vacuum space ; an outer ring fixed to the movable portion of the outer shell dome in the second vacuum space ; a cylindrical partition wall that couples the inner ring and the outer ring , and partitions off the second vacuum space into an upper vacuum space and a lower vacuum space , the upper vacuum space being a space including a region between the inner shell manhole and the outer shell manhole , the double-shell tank being characterised in that the outer ring is positioned below the inner ring; and a middle portion of the partition wall is less thick than both end portions of the partition wall . an inner shell including an inner shell main part and an inner shell dome , the inner shell main part storing liquefied gas, the inner shell dome protruding upward from the inner shell main part ; an inner shell manhole provided in an upper portion of the inner shell dome ; an outer shell including an outer shell main part and an outer shell dome , the outer shell main part surrounding the inner shell main part with a first vacuum space formed between the outer shell main part and the inner shell main part , the outer shell dome surrounding the inner shell dome with a second vacuum space formed between the outer shell dome and the inner shell dome ; an outer shell manhole provided in an upper portion of the outer shell dome ; a bellows incorporated in the outer shell dome , such that the bellows divides the outer shell dome into a lower fixed portion and an upper movable portion ; an inner ring fixed to the inner shell dome in the second vacuum space ; an outer ring fixed to the movable portion of the outer shell dome in the second vacuum space ; a cylindrical partition wall that couples the inner ring and the outer ring , and partitions off the second vacuum space into an upper vacuum space and a lower vacuum space , the upper vacuum space being a space including a region between the inner shell manhole and the outer shell manhole , the double-shell tank being characterised in that the outer ring is positioned below the inner ring; and a middle portion of the partition wall is less thick than both end portions of the partition wall .
A vehicle recovery ladder including: a body ; traction members for releasably fastening to the body, the traction members including threads ; characterized in that the body and the traction members are each integrally formed from the same material, and each traction member is over-molded. a body ; traction members for releasably fastening to the body, the traction members including threads ; characterized in that the body and the traction members are each integrally formed from the same material, and each traction member is over-molded.
Device for a vehicle having a hydraulic actuating unit for controlling the operation of an attachment on the vehicle , the device comprising an electrohydraulic lifting mechanism control system, an evaluation unit and data-carrying connections to a vehicle control system , and a control device assigned to the hydraulic actuating unit , characterized in that the evaluation unit is configured to carry out a method comprising the following steps: a) determining a soil density by means of at least one soil density sensor during the travel of the vehicle, b) comparing the soil density determined with a limiting value, c) modifying the control strategy of the electrohydraulic lifting mechanism control system when the limiting value is reached, wherein the at least one soil density sensor is connected to the control device and the control device is configured to modify the control strategy of the electrohydraulic lifting mechanism control system on the basis of signals from the soil density sensor . a) determining a soil density by means of at least one soil density sensor during the travel of the vehicle, b) comparing the soil density determined with a limiting value, c) modifying the control strategy of the electrohydraulic lifting mechanism control system when the limiting value is reached,
A multilayer interlayer comprising: (A) a high M w layer comprising a poly(vinyl acetal) resin having a weight average molecular weight (M w ) greater than 160,000; and (B) a high Tg layer comprising a poly(vinyl acetal) resin having a weight average molecular weight (M w ) of 160,000 or less and a glass transition temperature (Tg) of at least 46°C; wherein the multilayer interlayer comprises at least two high M w layers, with the high Tg interlayer disposed between the at least two high M w layers, whereby Mw is measured by size exclusion chromatography according to the method referred to in the description and Tg is determined by rheometric dynamic analysis according to the method referred to in the description. (A) a high M w layer comprising a poly(vinyl acetal) resin having a weight average molecular weight (M w ) greater than 160,000; and (B) a high Tg layer comprising a poly(vinyl acetal) resin having a weight average molecular weight (M w ) of 160,000 or less and a glass transition temperature (Tg) of at least 46°C;
Adjusting device for a drawer having a front panel which is held on at least one front panel support which has a carriage with at least one latching element , and a holder which can be fixed on or in a side frame and on which an eccentric with a latching structure is rotatably mounted, in order to adjust the carriage in the height direction during a rotary movement, characterized in that the at least one latching element is in engagement with the latching structure on the eccentric in an upper region so that the at least one latching element presses on the eccentric from above and prevents an adjustment and a weight force of the front panel has a self-locking effect as the weight force of the front panel acts at least in part on the latching element .
An electrical switching element , in particular a relay or switch , comprising a coil arrangement , an armature which is rotatable about an axis of rotation and drivable by the coil arrangement , and a contact arrangement comprising at least one switchable contact spring , wherein the at least one contact spring is in the form of a spring pack and is directly connected to the armature , wherein said spring pack comprises an overstroke spring and at least one further partial spring , wherein the overstroke spring is still movable and deflectable further in the switching direction after contacting of the contact regions of the contact arrangement , characterised in that a protruding limb , which is connected to the armature so as to transmit movement, is provided on the overstroke spring .
A positioning system for positioning a plurality of rotatable objects , comprising: a base plate configured to be positioned on a support surface of a processing machine, the base plate defining a plurality of alignment members for aligning the base plate to the support surface ; at least three elongate cylindrical members arranged in parallel to one another and rotatably supported in alignment with the base plate , the cylindrical members configured to support the plurality of rotatable objects; a rotation mechanism configured to cooperate with the cylindrical members and rotate the cylindrical members in synchrony so as to rotate the plurality of rotatable objects in synchrony; and a rotational control mechanism configured to cooperate with the rotation mechanism to control rotation of the cylindrical members ; characterised in that a first pair of adjacent cylindrical members supports first rotatable objects of the plurality of rotatable objects to align the first rotatable objects along a first position line extending axially between the first pair of adjacent cylindrical members , and a second pair of adjacent cylindrical members supports second rotatable objects of the plurality of rotatable objects to align the second rotatable objects along a second position line extending axially between the second pair of adjacent cylindrical members . a base plate configured to be positioned on a support surface of a processing machine, the base plate defining a plurality of alignment members for aligning the base plate to the support surface ; at least three elongate cylindrical members arranged in parallel to one another and rotatably supported in alignment with the base plate , the cylindrical members configured to support the plurality of rotatable objects; a rotation mechanism configured to cooperate with the cylindrical members and rotate the cylindrical members in synchrony so as to rotate the plurality of rotatable objects in synchrony; and a rotational control mechanism configured to cooperate with the rotation mechanism to control rotation of the cylindrical members ; characterised in that a first pair of adjacent cylindrical members supports first rotatable objects of the plurality of rotatable objects to align the first rotatable objects along a first position line extending axially between the first pair of adjacent cylindrical members , and a second pair of adjacent cylindrical members supports second rotatable objects of the plurality of rotatable objects to align the second rotatable objects along a second position line extending axially between the second pair of adjacent cylindrical members .
A seal (176;276;376;476;576;676) assembly for a gas turbine engine comprising: a seal (169;269;369;469;569;669) including an elongated seal body (170;270;370;470) extending between a seal face (183;683) that faces toward a gas path (C) and a backside face (189;289;389;489;589) opposite the seal face (183;683), and the seal face (183;683) extending circumferentially between first and second mate faces ; wherein the seal body (170...470) defines an internal cavity that extends circumferentially from a first opening along the first mate face to a second opening along the second mate face , and the backside face (189...589) extends between the first and second openings ; and a shield (196;296;396;496;596;696) including a shield body (196A;296A;396A;496A;596A) that spans between the first and second openings such that the backside face (189...589) is situated between the internal cavity and the shield body (196A...596A). a seal (169;269;369;469;569;669) including an elongated seal body (170;270;370;470) extending between a seal face (183;683) that faces toward a gas path (C) and a backside face (189;289;389;489;589) opposite the seal face (183;683), and the seal face (183;683) extending circumferentially between first and second mate faces ; wherein the seal body (170...470) defines an internal cavity that extends circumferentially from a first opening along the first mate face to a second opening along the second mate face , and the backside face (189...589) extends between the first and second openings ; and a shield (196;296;396;496;596;696) including a shield body (196A;296A;396A;496A;596A) that spans between the first and second openings such that the backside face (189...589) is situated between the internal cavity and the shield body (196A...596A).
A grazing restrictor for attaching to a halter , the restrictor comprising: a body portion having at least one central opening ; a plurality of elongate segments (19a-19h) extending outward from the body portion , the elongate segments having a plurality of openings defined therein, the plurality of openings being arranged in linear fashion from a first opening disposed closer to the central opening to a last opening disposed near a distal end of each respective segment, the plurality of elongate segments (19a-19h) configured and arranged to fold upward relative to the body portion to form the shape of a muzzle; and, a plurality of ties configured to be inserted through one or more of the plurality of openings and around the halter , wherein the plurality of ties can be associated with the first opening or the last opening to permit adjusting the fit of the grazing restrictor , wherein the plurality of elongate segments (19a-19h) are configured to position the body portion relative to the halter , wherein the body portion and the plurality of elongate segments (19a-19h) are formed as a unitary, elastic member configured and arranged to lay flat in a first configuration and to be folded into the shape of the muzzle by folding the plurality of elongate segments (19a-19h) upward relative to the body portion in a second configuration and attached to the halter , and wherein the plurality of elongate segments (19a-19h) are configured and arranged such that, when the restrictor is removed from the halter , the plurality of elongate segments (19a-19h) return to the first configuration. a body portion having at least one central opening ; a plurality of elongate segments (19a-19h) extending outward from the body portion , the elongate segments having a plurality of openings defined therein, the plurality of openings being arranged in linear fashion from a first opening disposed closer to the central opening to a last opening disposed near a distal end of each respective segment, the plurality of elongate segments (19a-19h) configured and arranged to fold upward relative to the body portion to form the shape of a muzzle; and, a plurality of ties configured to be inserted through one or more of the plurality of openings and around the halter , wherein the plurality of ties can be associated with the first opening or the last opening to permit adjusting the fit of the grazing restrictor , wherein the plurality of elongate segments (19a-19h) are configured to position the body portion relative to the halter , wherein the body portion and the plurality of elongate segments (19a-19h) are formed as a unitary, elastic member configured and arranged to lay flat in a first configuration and to be folded into the shape of the muzzle by folding the plurality of elongate segments (19a-19h) upward relative to the body portion in a second configuration and attached to the halter , and wherein the plurality of elongate segments (19a-19h) are configured and arranged such that, when the restrictor is removed from the halter , the plurality of elongate segments (19a-19h) return to the first configuration.
A recombinant CHO cell, wherein NGF is stably expressed on the surface of the cell.
An optical waveguide apparatus comprising: at least two total internal reflection TIR surfaces (10; 11) and containing a grating slanted with respect to the TIR surfaces and relative to a waveguide and tilted around an axis perpendicular to the waveguide plane to define two rotation angles; wherein an input TIR light comprises upward TIR light and downward TIR light diffracted respectively in at least first and second ranges of diffraction angles; wherein the input TIR light with a first angular range along a first propagation direction undergoes at least two diffractions, wherein each ray (1002-1005) from said first angular range and its corresponding diffracted ray lie on the diffraction cone of said grating , wherein each diffraction provides a unique TIR angular range along a second propagation direction. at least two total internal reflection TIR surfaces (10; 11) and containing a grating slanted with respect to the TIR surfaces and relative to a waveguide and tilted around an axis perpendicular to the waveguide plane to define two rotation angles; wherein an input TIR light comprises upward TIR light and downward TIR light diffracted respectively in at least first and second ranges of diffraction angles; wherein the input TIR light with a first angular range along a first propagation direction undergoes at least two diffractions, wherein each ray (1002-1005) from said first angular range and its corresponding diffracted ray lie on the diffraction cone of said grating , wherein each diffraction provides a unique TIR angular range along a second propagation direction.
A process cartridge (B) detachably mountable to an image forming apparatus (A), said process cartridge (B) comprising: an electrophotographic photosensitive member ; a developer carrying member for carrying a developer (t) to develop an electrostatic latent image formed on said electrophotographic photosensitive member ; a development frame member rotatably supporting first and second longitudinal ends of the developer carrying member ; a photosensitive member frame member rotatably supporting said electrophotographic photosensitive member at the first end; and a supporting member mounted to said photosensitive member frame member at the second end, wherein said photosensitive member frame member swingably supports said development frame member at the first end; characterized in that a first supporting portion of said supporting member swingably supports said development frame member at the second end and a second supporting portion of said supporting member as a shaft bearing portion rotatably supports said electrophotographic photosensitive member at the second end. an electrophotographic photosensitive member ; a developer carrying member for carrying a developer (t) to develop an electrostatic latent image formed on said electrophotographic photosensitive member ; a development frame member rotatably supporting first and second longitudinal ends of the developer carrying member ; a photosensitive member frame member rotatably supporting said electrophotographic photosensitive member at the first end; and a supporting member mounted to said photosensitive member frame member at the second end, wherein said photosensitive member frame member swingably supports said development frame member at the first end; characterized in that a first supporting portion of said supporting member swingably supports said development frame member at the second end and a second supporting portion of said supporting member as a shaft bearing portion rotatably supports said electrophotographic photosensitive member at the second end.
An apparatus for reducing or correcting for the inter-symbol interference of a signal modulated using a modulation scheme (PAM4), comprising: a first circuit (325-a; 405-a; 810-a) configured to determine, for a first sampling event associated with a rising edge of a clock signal, a first voltage level of a signal modulated using the modulation scheme (PAM4) that includes three or more voltage levels; a second circuit (325-b; 405-b; 810-b) comprising a first feedback circuit (330-b; 415-b; 815-b) coupled with an output of the first circuit (325-a; 405-a; 810-a), the first feedback circuit (330-b; 415-b; 815-b) configured to receive, from the first circuit (325-a; 405-a; 810-a), a feedback signal (350-a; 430-a,b,c; 835-a) indicating information about the first voltage level of the first sampling event, and the first feedback circuit (330-b; 415-b; 815-b) further configured to modify the signal input into the second circuit (325-b; 405-b; 810-b) based at least in part on the feedback signal (350-a; 430-a,b,c; 835-a); and the second circuit (325-b; 405-b; 810-b) configured to determine, for a second sampling event associated with a falling edge of the clock signal, a second voltage level of the signal based at least in part on the modified signal. a first circuit (325-a; 405-a; 810-a) configured to determine, for a first sampling event associated with a rising edge of a clock signal, a first voltage level of a signal modulated using the modulation scheme (PAM4) that includes three or more voltage levels; a second circuit (325-b; 405-b; 810-b) comprising a first feedback circuit (330-b; 415-b; 815-b) coupled with an output of the first circuit (325-a; 405-a; 810-a), the first feedback circuit (330-b; 415-b; 815-b) configured to receive, from the first circuit (325-a; 405-a; 810-a), a feedback signal (350-a; 430-a,b,c; 835-a) indicating information about the first voltage level of the first sampling event, and the first feedback circuit (330-b; 415-b; 815-b) further configured to modify the signal input into the second circuit (325-b; 405-b; 810-b) based at least in part on the feedback signal (350-a; 430-a,b,c; 835-a); and the second circuit (325-b; 405-b; 810-b) configured to determine, for a second sampling event associated with a falling edge of the clock signal, a second voltage level of the signal based at least in part on the modified signal.