mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural harvesting machine comprising a chassis , ground engaging means supporting the chassis on the ground, attachment means adapting a harvesting header on the chassis , and a system for controlling an operative parameter of the harvesting header , the system comprising: a first sensing arrangement for sensing a property of a field in front of the header in a contact-less manner, a second sensing arrangement for providing a signal suited to derive a value of an adjustable work parameter of the header , an actuator for adjusting the work parameter, and a control unit for determining a control signal for the actuator based on the signal from the first sensing arrangement and on the signal from the second sensing arrangement, characterized in that the second sensing arrangement is arranged to detect the position of a reference point, which indicates the work parameter, in a contact-less manner, and that the first sensing arrangement and the second sensing arrangement are relatively fixed and comprise a jointly used sensor. a first sensing arrangement for sensing a property of a field in front of the header in a contact-less manner, a second sensing arrangement for providing a signal suited to derive a value of an adjustable work parameter of the header , an actuator for adjusting the work parameter, and a control unit for determining a control signal for the actuator based on the signal from the first sensing arrangement and on the signal from the second sensing arrangement, characterized in that the second sensing arrangement is arranged to detect the position of a reference point, which indicates the work parameter, in a contact-less manner, and that the first sensing arrangement and the second sensing arrangement are relatively fixed and comprise a jointly used sensor.
A vehicle structure, comprising: a rear lamp disposed on a rear end and a side end of a vehicle (V) and including a lamp body extending in a front-rear direction of the vehicle (V); a vehicle side surface including a portion (b) bulging toward a vehicle-width-direction outer side with respect to the rear lamp at a front side of a portion of the vehicle side surface overlapping with the rear lamp in a height or vertical direction; and a vehicle rear surface including an extending surface extending toward the vehicle-width-direction outer side with respect to the lamp body in a top view of the vehicle (V) from a lower portion of the rear lamp , characterized by a recessed portion provided on a lower portion of the rear lamp , partitioned by the extending surface and a side surface of the lamp body , and/or extending downward and toward a vehicle-width-direction inner side to a lower surface of the lamp body from a side surface of the lamp body on the vehicle-width-direction outer side. a rear lamp disposed on a rear end and a side end of a vehicle (V) and including a lamp body extending in a front-rear direction of the vehicle (V); a vehicle side surface including a portion (b) bulging toward a vehicle-width-direction outer side with respect to the rear lamp at a front side of a portion of the vehicle side surface overlapping with the rear lamp in a height or vertical direction; and a vehicle rear surface including an extending surface extending toward the vehicle-width-direction outer side with respect to the lamp body in a top view of the vehicle (V) from a lower portion of the rear lamp , characterized by a recessed portion provided on a lower portion of the rear lamp , partitioned by the extending surface and a side surface of the lamp body , and/or extending downward and toward a vehicle-width-direction inner side to a lower surface of the lamp body from a side surface of the lamp body on the vehicle-width-direction outer side.
A method in a wireless device, WD , the method comprising: receiving a reject message from a network node while performing one of a connection establishment procedure and a connection resume procedure; starting a wait timer associated with the receiving of the reject message; receiving (S138), from the network node , one of a release message and a suspend message; and updating (S140) the wait timer as a result of receiving the one of the release message and the suspend message, wherein updating the wait timer as a result of receiving the one of the release message and the suspend message further comprises: restarting the wait timer responsive to receipt of the one of the release message and the suspend message. receiving a reject message from a network node while performing one of a connection establishment procedure and a connection resume procedure; starting a wait timer associated with the receiving of the reject message; receiving (S138), from the network node , one of a release message and a suspend message; and updating (S140) the wait timer as a result of receiving the one of the release message and the suspend message, wherein updating the wait timer as a result of receiving the one of the release message and the suspend message further comprises: restarting the wait timer responsive to receipt of the one of the release message and the suspend message.
Device for dewatering feedstock that is pourable or free-flowing, for example wood chips, by compressing it, comprising a housing with a shell pipe in which a shaft with flights running round its circumference rotates round an axis of rotation, where the feedstock is transported through the housing and compressed and the residual water is conveyed out of the device through holes in the shell pipe , and comprising a feed chute for supplying the feedstock to be dewatered, characterised in that the shell pipe consists of two cylinder half sections whose longitudinal flanges are arranged vertically on top of one another and in that the feed chute has a detachable side wall with a shape and design that allows the screw to be removed.
A sensor assembly comprising: a molded housing having a first cavity configured to mate with a wire harness connector, the molded housing further comprising a second cavity ; a leadless sensor package including conductive pads exposed in a surface of the leadless sensor package ; and terminals inserted into the molded housing and extending into the first cavity , each terminal forming an electrical and mechanical connection with a pad of the conductive pads in the surface of the leadless sensor package , wherein said electrical and mechanical connections are maintained by a spring force of the terminals applied between the molded housing and the conductive pads , characterised in that the leadless sensor package interacts with, and deforms, at least one crush rib in the molded housing to restrain movement of the leadless sensor package when fully inserted into said second cavity . a molded housing having a first cavity configured to mate with a wire harness connector, the molded housing further comprising a second cavity ; a leadless sensor package including conductive pads exposed in a surface of the leadless sensor package ; and terminals inserted into the molded housing and extending into the first cavity , each terminal forming an electrical and mechanical connection with a pad of the conductive pads in the surface of the leadless sensor package , wherein said electrical and mechanical connections are maintained by a spring force of the terminals applied between the molded housing and the conductive pads , characterised in that the leadless sensor package interacts with, and deforms, at least one crush rib in the molded housing to restrain movement of the leadless sensor package when fully inserted into said second cavity .
A method for introducing a gene repair oligonucleobase (GRON)-mediated mutation into a target deoxyribonucleic acid (DNA) sequence in a plant cell, comprising: culturing the cell under conditions that increase one or more cellular DNA repair processes prior to, and/or coincident with, delivery of a GRON into the plant cell, wherein the conditions that increase one or more cellular DNA repair processes comprise introducing one or more site-specific nickases into the plant cell, wherein the one or more site-specific nickases introduce single-strand nicks in the vicinity of the site targeted for conversion by the GRON. culturing the cell under conditions that increase one or more cellular DNA repair processes prior to, and/or coincident with, delivery of a GRON into the plant cell, wherein the conditions that increase one or more cellular DNA repair processes comprise introducing one or more site-specific nickases into the plant cell, wherein the one or more site-specific nickases introduce single-strand nicks in the vicinity of the site targeted for conversion by the GRON.
A computer-implemented method of propagating data packets in a network of nodes, each node in the network having one or more connections to other nodes, the method comprising: generating at least one data packet of a first type; collecting, at a node, a set of data packets of the first type during a first time period, the set including the at least one generated data packet and at least one data packet of the first type received from one or more first nodes in the network; and determining a mapping of the data packets of the set to a plurality of neighbouring nodes connected to the node, the mapping indicating an expected time of relay of each data packet of the set to neighbouring nodes, wherein determining the mapping includes determining at least one of: a first sub-mapping which maps any two data packets having a same source for relay to different subsets of the neighbouring nodes; and a second sub-mapping which maps different expected times of relay to any two data packets that are generated at the node or received by the node from the one or more first nodes in a same time interval, and transmitting the data packets of the set to the plurality of neighbouring nodes according to the determined mapping. generating at least one data packet of a first type; collecting, at a node, a set of data packets of the first type during a first time period, the set including the at least one generated data packet and at least one data packet of the first type received from one or more first nodes in the network; and determining a mapping of the data packets of the set to a plurality of neighbouring nodes connected to the node, the mapping indicating an expected time of relay of each data packet of the set to neighbouring nodes, wherein determining the mapping includes determining at least one of: a first sub-mapping which maps any two data packets having a same source for relay to different subsets of the neighbouring nodes; and a second sub-mapping which maps different expected times of relay to any two data packets that are generated at the node or received by the node from the one or more first nodes in a same time interval, and a first sub-mapping which maps any two data packets having a same source for relay to different subsets of the neighbouring nodes; and a second sub-mapping which maps different expected times of relay to any two data packets that are generated at the node or received by the node from the one or more first nodes in a same time interval, and transmitting the data packets of the set to the plurality of neighbouring nodes according to the determined mapping.
A method of generating a low-pulsatility fluid flow, comprising: pumping a fluid into a first pressurized reservoir using a first peristaltic fluid pump ; sensing an amount of the fluid in the first pressurized reservoir to create a first fluid quantity signal; in response to the first fluid quantity signal, maintaining a predetermined amount of the fluid in the first pressurized reservoir by pumping the fluid into the first pressurized reservoir and/or removing the fluid from the first pressurized reservoir using the first peristaltic fluid pump; pumping the fluid from the first pressurized reservoir to a second pressurized reservoir using a second peristaltic fluid pump ; sensing an amount of the fluid in the second pressurized reservoir to create a second fluid quantity signal; in response to the second fluid quantity signal, maintaining a predetermined amount of the fluid in the second pressurized reservoir by pumping the sheath fluid into the second pressurized reservoir using the second peristaltic pump and/or removing the fluid from the second pressurized reservoir in response to the second sheath fluid quantity signal; supplying air to the first pressurized reservoir so as to pressurize the first pressurized reservoir; communicating air from the first pressurized reservoir to the second pressurized reservoir using a peristaltic air pump to pressurize air in the second reservoir to a predetermined air pressure; and maintaining the predetermined air pressure in the second reservoir by communicating air into the second pressurized reservoir using the peristaltic air pump. pumping a fluid into a first pressurized reservoir using a first peristaltic fluid pump ; sensing an amount of the fluid in the first pressurized reservoir to create a first fluid quantity signal; in response to the first fluid quantity signal, maintaining a predetermined amount of the fluid in the first pressurized reservoir by pumping the fluid into the first pressurized reservoir and/or removing the fluid from the first pressurized reservoir using the first peristaltic fluid pump; pumping the fluid from the first pressurized reservoir to a second pressurized reservoir using a second peristaltic fluid pump ; sensing an amount of the fluid in the second pressurized reservoir to create a second fluid quantity signal; in response to the second fluid quantity signal, maintaining a predetermined amount of the fluid in the second pressurized reservoir by pumping the sheath fluid into the second pressurized reservoir using the second peristaltic pump and/or removing the fluid from the second pressurized reservoir in response to the second sheath fluid quantity signal; supplying air to the first pressurized reservoir so as to pressurize the first pressurized reservoir; communicating air from the first pressurized reservoir to the second pressurized reservoir using a peristaltic air pump to pressurize air in the second reservoir to a predetermined air pressure; and maintaining the predetermined air pressure in the second reservoir by communicating air into the second pressurized reservoir using the peristaltic air pump.
A composition based on synthetic or natural opal incorporated in a polymer selected from polyethylene, polypropylene, acrylates or methacrylates, which is readily meltable, in the form of cylindrical fibers or of ribbons for use in the canal cavity of a natural tooth or in cavities created in the case of implants in a tooth or an implant.
A tobacco smoke filter or filter element comprising: a wrapper engaged around a longitudinally extending core of tobacco smoke filtering material, wherein a first end of the wrapper is substantially flush with a first end of the core around which it is engaged, and a second end of the wrapper extends beyond a second end of the core around which is engaged to define a cavity at the second end of the filter or filter element; and an adhesive disposed between the wrapper and the core, wherein the adhesive is not disposed on the portion of the wrapper which extends beyond the second end of the core around which it is engaged to define the cavity; and an additive distanced from the second end of the core. a wrapper engaged around a longitudinally extending core of tobacco smoke filtering material, wherein a first end of the wrapper is substantially flush with a first end of the core around which it is engaged, and a second end of the wrapper extends beyond a second end of the core around which is engaged to define a cavity at the second end of the filter or filter element; and an adhesive disposed between the wrapper and the core, wherein the adhesive is not disposed on the portion of the wrapper which extends beyond the second end of the core around which it is engaged to define the cavity; and an additive distanced from the second end of the core.
A power contactor (2;78) comprising: a number of inputs (A2,B2,C2) for a number of power sources; a number of outputs (A1,B1,C1,A3,B3,C3) for a number of loads; a number of separable contacts for each pair of said number of inputs and said number of outputs; an electromagnetic coil ; a control circuit structured to control said electromagnetic coil to cause said number of separable contacts to open or close; a plurality of plug-in pins , each of said plug-in pins being for a corresponding one of said number of inputs and said number of outputs, and being structured to plug into a backplane socket ; and an electrically insulating housing electrically insulating each of said plug-in pins from the other said plug-in pins, wherein the electrically insulating housing houses a number of auxiliary switches , the number of auxiliary switches being structured to follow a number of states of said number of outputs. a number of inputs (A2,B2,C2) for a number of power sources; a number of outputs (A1,B1,C1,A3,B3,C3) for a number of loads; a number of separable contacts for each pair of said number of inputs and said number of outputs; an electromagnetic coil ; a control circuit structured to control said electromagnetic coil to cause said number of separable contacts to open or close; a plurality of plug-in pins , each of said plug-in pins being for a corresponding one of said number of inputs and said number of outputs, and being structured to plug into a backplane socket ; and an electrically insulating housing electrically insulating each of said plug-in pins from the other said plug-in pins, wherein the electrically insulating housing houses a number of auxiliary switches , the number of auxiliary switches being structured to follow a number of states of said number of outputs.
A method of wireless communication by a user equipment, UE, comprising: receiving a first operational schedule for a base station including a first set of ON periods and a first set of OFF periods, wherein the base station provides a reduced level of service during the first set of OFF periods relative to the first set of ON periods; determining a second operational schedule for the LTE including a second set of ON periods and a second set of OFF periods, wherein the UE switches to a battery efficient operation mode during the second set of OFF periods relative to the second set of ON periods; and determining to camp on the base station if at least one ON period from the second set overlaps at least one ON period from the first set and if at least one overlapped portion of the ON periods from the first and second sets is longer than a given threshold overlap period . receiving a first operational schedule for a base station including a first set of ON periods and a first set of OFF periods, wherein the base station provides a reduced level of service during the first set of OFF periods relative to the first set of ON periods; determining a second operational schedule for the LTE including a second set of ON periods and a second set of OFF periods, wherein the UE switches to a battery efficient operation mode during the second set of OFF periods relative to the second set of ON periods; and determining to camp on the base station if at least one ON period from the second set overlaps at least one ON period from the first set and if at least one overlapped portion of the ON periods from the first and second sets is longer than a given threshold overlap period .
A tool management device for managing tools detachable from a plurality of tool stations provided in a tool rest of a machine tool , the tool management device comprising: control means configured to cause tool information related to one or more tools attached to each of the tool stations to be displayed in display means , wherein the control means is configured to switch, every time when a display area for designating one of the tool stations is selected, between a deployed state of deploying and displaying tool information related to all tools attached to the selected tool station , and a folded state of folding and displaying only tool information related to a predetermined tool among all tools attached to the selected tool station , to cause the selected state to be displayed in an identical screen. control means configured to cause tool information related to one or more tools attached to each of the tool stations to be displayed in display means , wherein the control means is configured to switch, every time when a display area for designating one of the tool stations is selected, between a deployed state of deploying and displaying tool information related to all tools attached to the selected tool station , and a folded state of folding and displaying only tool information related to a predetermined tool among all tools attached to the selected tool station , to cause the selected state to be displayed in an identical screen.
A method for wireless communication using digital Quadrature Amplitude Modulation, QAM, the method comprising: translating between constellation symbols and bit sequences corresponding to the constellation symbols using a mapping module electronic component of a wireless communication device, in accordance with a 64-point constellation, the constellation symbols used in modulating a signal for transmission or detected in a received signal, or both, wherein normalized magnitudes of the constellation symbols in a first quadrant of the 64-point constellation are defined by the following coordinate pairs to at least three decimal places of precision: 1.484430 0.355657 1.103689 0.241419 0.483043 0.093713 0.757638 0.144839 1.150175 0.837105 0.876141 0.599840 0.335946 0.248000 0.608728 0.420395 0.255763 1.404577 0.189712 1.014604 0.088351 0.457627 0.166639 0.679954 0.768973 1.227892 0.588939 0.901538 0.105757 0.127560 0.433169 0.631655 translating between constellation symbols and bit sequences corresponding to the constellation symbols using a mapping module electronic component of a wireless communication device, in accordance with a 64-point constellation, the constellation symbols used in modulating a signal for transmission or detected in a received signal, or both, wherein normalized magnitudes of the constellation symbols in a first quadrant of the 64-point constellation are defined by the following coordinate pairs to at least three decimal places of precision: 1.484430 0.355657 1.103689 0.241419 0.483043 0.093713 0.757638 0.144839 1.150175 0.837105 0.876141 0.599840 0.335946 0.248000 0.608728 0.420395 0.255763 1.404577 0.189712 1.014604 0.088351 0.457627 0.166639 0.679954 0.768973 1.227892 0.588939 0.901538 0.105757 0.127560 0.433169 0.631655