mhurhangee/ep-ind-claims huggingface dataset:
An agricultural control system, comprising: a controller comprising a memory and a processor, wherein the controller is configured to determine a first segment of an implement path that enables an agricultural implement to perform an agricultural operation on a first region of an agricultural field, to determine a first segment of a vehicle path of an agricultural vehicle coupled to the agricultural implement to direct the agricultural implement along the first region, to determine a second segment of the implement path that enables the agricultural implement to perform the agricultural operation on a second region of the agricultural field, to determine a second segment of the vehicle path to drive the agricultural implement along the second region, and to determine a first end-of-row turn of the vehicle path at an end of the first segment of the vehicle path and a beginning of a second segment of the implement path, and to output a first signal indicative of the vehicle path, characterised in that the first and second segments of the vehicle path of the agricultural vehicle coupled to the agricultural implement are based at least in part respectively on the first and second segments of the implement path, and in that the controller is further configured to determine the first segment of the vehicle path based at least in part on the geometry of the implement with an offset between the agricultural implement and the agricultural vehicle, and the offset comprises a distance between a lateral center line of the agricultural implement and a lateral center line of the agricultural vehicle. a controller comprising a memory and a processor, wherein the controller is configured to determine a first segment of an implement path that enables an agricultural implement to perform an agricultural operation on a first region of an agricultural field, to determine a first segment of a vehicle path of an agricultural vehicle coupled to the agricultural implement to direct the agricultural implement along the first region, to determine a second segment of the implement path that enables the agricultural implement to perform the agricultural operation on a second region of the agricultural field, to determine a second segment of the vehicle path to drive the agricultural implement along the second region, and to determine a first end-of-row turn of the vehicle path at an end of the first segment of the vehicle path and a beginning of a second segment of the implement path, and to output a first signal indicative of the vehicle path, characterised in that the first and second segments of the vehicle path of the agricultural vehicle coupled to the agricultural implement are based at least in part respectively on the first and second segments of the implement path, and in that the controller is further configured to determine the first segment of the vehicle path based at least in part on the geometry of the implement with an offset between the agricultural implement and the agricultural vehicle, and the offset comprises a distance between a lateral center line of the agricultural implement and a lateral center line of the agricultural vehicle.
Compressor having a housing and having a rotor, wherein the rotor has a first compressor wheel at least on one side, wherein the rotor has a second compressor wheel on a second side, wherein a compressor chamber (6, 14) is formed in each case between the compressor wheels (5, 13) and the housing, wherein the rotor is mounted so as to be rotatable about an axis of rotation, wherein an annular sealing channel is formed between the rotor and the housing, wherein the sealing channel is routed from the second compressor chamber to the first compressor chamber having a lower pressure (2, 104), wherein a throttle portion is provided in the sealing channel, wherein the throttle portion is arranged closer to the low-pressure region (12, 104) of the first compressor chamber than to the second compressor chamber, wherein the first compressor wheel is formed on a first side of the rotor, wherein the second compressor wheel is formed on a second side of the rotor, wherein the first compressor wheel and the second compressor wheel represent a first compressor stage and a second compressor stage, wherein, starting from a high-pressure side, the cross-sectional area of the sealing channel continuously decreases in the flow direction in the direction of the throttle portion and, downstream of the throttle portion, the cross-sectional area of the sealing channel continuously increases in the direction of a low-pressure side.
Medical tomosynthesis system comprising: an interventional device for intervening into a subject volume; an image acquisition device (11, 12) for acquiring images of the subject volume in a plurality of angular positions around the subject volume; and a processor, wherein the processor is adapted to calculate a plurality of angular positions, characterised in that the system comprises geometric data means for providing geometric data of the interventional device and in that knowing a 3D model of the interventional device and having an actual position of the interventional device, the processor is adapted to calculate from the geometric data of the interventional device the projection angles which are in conflict with an image of the region of interest and to exclude these projection angles from the projection angles the image acquisition device is able to take; and wherein the remaining projection angles are the allowed projection angles. an interventional device for intervening into a subject volume; an image acquisition device (11, 12) for acquiring images of the subject volume in a plurality of angular positions around the subject volume; and a processor, wherein the processor is adapted to calculate a plurality of angular positions, characterised in that the system comprises geometric data means for providing geometric data of the interventional device and in that knowing a 3D model of the interventional device and having an actual position of the interventional device, the processor is adapted to calculate from the geometric data of the interventional device the projection angles which are in conflict with an image of the region of interest and to exclude these projection angles from the projection angles the image acquisition device is able to take; and wherein the remaining projection angles are the allowed projection angles.
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities on a tissue-facing surface thereof, each staple cavity having a surgical staple disposed therein; and a tray having the cartridge body seated therein and including a plurality of retaining elements, extending upwardly from the tray, on opposed longitudinal sides of the tray extending along opposed longitudinal sides of the cartridge body, the plurality of retaining elements being configured to extend through a biocompatible adjunct material in order to releasably engage the biocompatible adjunct material such that the adjunct material is disposed on the tissue-facing surface of the cartridge body and is configured to be delivered to tissue by deployment of the surgical staples from the cartridge body exerting a force on the adjunct, and thereby be released from the plurality of retaining elements; characterised in that the tray having the cartridge body seated therein is configured to be releasably seated in a jaw of a surgical stapler. a cartridge body having a plurality of staple cavities on a tissue-facing surface thereof, each staple cavity having a surgical staple disposed therein; and a tray having the cartridge body seated therein and including a plurality of retaining elements, extending upwardly from the tray, on opposed longitudinal sides of the tray extending along opposed longitudinal sides of the cartridge body, the plurality of retaining elements being configured to extend through a biocompatible adjunct material in order to releasably engage the biocompatible adjunct material such that the adjunct material is disposed on the tissue-facing surface of the cartridge body and is configured to be delivered to tissue by deployment of the surgical staples from the cartridge body exerting a force on the adjunct, and thereby be released from the plurality of retaining elements; characterised in that the tray having the cartridge body seated therein is configured to be releasably seated in a jaw of a surgical stapler.
An aircraft, comprising: a wing module; a fuselage, wherein the fuselage has at least one hole defined therethrough; and a spar disposed through the hole and extending into at least a portion of the wing module and at least a portion of the fuselage, wherein the spar connects the fuselage to the wing module; and characterized in that the spar comprises a non-linear spar section disposed within the fuselage, the spar conforming to an interior surface of the fuselage. a wing module; a fuselage, wherein the fuselage has at least one hole defined therethrough; and a spar disposed through the hole and extending into at least a portion of the wing module and at least a portion of the fuselage, wherein the spar connects the fuselage to the wing module; and characterized in that the spar comprises a non-linear spar section disposed within the fuselage, the spar conforming to an interior surface of the fuselage.
Machine, in particular construction machine, having a mast, along which a top drive can be moved vertically by means of an adjusting device, through which top drive a telescopic kelly bar is displaceably guided, which has at least one outer kelly bar which is designed to come to lie on the top drive,, and one inner kelly bar which comprises a rope suspension for a rope, through which the inner kelly bar can be moved vertically by means of a main rope winch, characterised in that an automatic control device is provided, which is designed to automatically control the adjusting device for the top drive and / or the main rope winch for the kelly bar in such a way that the inner kelly bar can be moved relative to the top drive in some areas in a rapid travel mode at a first speed and in some areas in a conservative travel mode, in which the speed is reduced with respect to the first speed of the rapid travel mode.
A bidirectional optoelectronic device comprising: (a) a first optoelectronic component comprising a photodetector arranged (i) to receive an input optical signal modulated to encode first transmitted information and (ii) to generate in response to the input optical signal an output electrical signal modulated to encode the first transmitted information; (b) a second optoelectronic component comprising a light source arranged (i) to receive an input electrical signal modulated to encode second transmitted information and (ii) to generate in response to the input electrical signal an output optical signal modulated to encode the second transmitted information, which light source has first and second electrical leads (126a, 126b) for receiving the input electrical signal; and (c) a protective encapsulant arranged to encapsulate the photodetector and the light source, which encapsulant includes (i) hollow dielectric microspheres dispersed within its volume so as to reduce a cross-talk penalty arising from unwanted electrical signals present in the encapsulant to a level below that exhibited by the bidirectional device without the microspheres in the encapsulant, and (ii) an optical absorber dispersed within its volume so as to reduce a cross-talk penalty arising from unwanted optical signals present in the encapsulant to a level below that exhibited by the optoelectronic device without the optical absorber in the encapsulant. (a) a first optoelectronic component comprising a photodetector arranged (i) to receive an input optical signal modulated to encode first transmitted information and (ii) to generate in response to the input optical signal an output electrical signal modulated to encode the first transmitted information; (b) a second optoelectronic component comprising a light source arranged (i) to receive an input electrical signal modulated to encode second transmitted information and (ii) to generate in response to the input electrical signal an output optical signal modulated to encode the second transmitted information, which light source has first and second electrical leads (126a, 126b) for receiving the input electrical signal; and (c) a protective encapsulant arranged to encapsulate the photodetector and the light source, which encapsulant includes (i) hollow dielectric microspheres dispersed within its volume so as to reduce a cross-talk penalty arising from unwanted electrical signals present in the encapsulant to a level below that exhibited by the bidirectional device without the microspheres in the encapsulant, and (ii) an optical absorber dispersed within its volume so as to reduce a cross-talk penalty arising from unwanted optical signals present in the encapsulant to a level below that exhibited by the optoelectronic device without the optical absorber in the encapsulant.
A process of refining a crude palm fruit oil product, said process comprising the successive steps of: a) removing phospholipids and/or free fatty acids from a crude palm fruit oil product by subjecting the oil product to a pretreatment, thereby producing a pretreated palm fruit oil product with a reduced phospholipid content and/or a reduced free fatty acid content; b) simultaneously or sequentially contacting the pretreated palm fruit oil product with bleaching earth and a porous silica material to produce a bleached palm fruit oil product, said porous silica material having a surface area of at least 10 m 2 /g and being selected from the group consisting of silica, amorphous silicate, zeolite and combinations thereof; and c) deodorizing the bleached palm fruit oil product to produce a refined palm fruit oil product; wherein the pretreated palm fruit oil product is contacted with the porous silica material at a temperature of at least 100°C and wherein the pretreatment of the crude palm fruit oil product comprises the successive steps of: • mixing the crude palm fruit oil product with an aqueous liquid having an alkaline pH of more than 8 to produce an oil-and-water mixture; and • removing an aqueous liquid containing polar lipids from the oil-and-water mixture. a) removing phospholipids and/or free fatty acids from a crude palm fruit oil product by subjecting the oil product to a pretreatment, thereby producing a pretreated palm fruit oil product with a reduced phospholipid content and/or a reduced free fatty acid content; b) simultaneously or sequentially contacting the pretreated palm fruit oil product with bleaching earth and a porous silica material to produce a bleached palm fruit oil product, said porous silica material having a surface area of at least 10 m 2 /g and being selected from the group consisting of silica, amorphous silicate, zeolite and combinations thereof; and c) deodorizing the bleached palm fruit oil product to produce a refined palm fruit oil product; • mixing the crude palm fruit oil product with an aqueous liquid having an alkaline pH of more than 8 to produce an oil-and-water mixture; and • removing an aqueous liquid containing polar lipids from the oil-and-water mixture.
A system for forming a borehole using a rotatable tubular, the system comprising: a housing disposed above the borehole, wherein said housing having a height and a port; a bearing assembly having an inner member and an outer member, the inner member and the outer member being removably positioned within said housing, wherein said inner member is configured to be rotatable with the tubular relative to the outer member, said inner member having a passage through which the tubular may extend; a seal (230,230A) configured to sealably engage the rotatable tubular with said bearing assembly; and a plurality of bearings disposed between said inner member and said outer member; characterized by a bearing assembly rotating plate rotatably disposed within said housing and configured to rotate between a blocking position blocking removal of said bearing assembly from said housing, and an access position configured for removal of said bearing assembly from said housing while said bearing assembly rotating plate remains disposed within said housing. a housing disposed above the borehole, wherein said housing having a height and a port; a bearing assembly having an inner member and an outer member, the inner member and the outer member being removably positioned within said housing, wherein said inner member is configured to be rotatable with the tubular relative to the outer member, said inner member having a passage through which the tubular may extend; a seal (230,230A) configured to sealably engage the rotatable tubular with said bearing assembly; and a plurality of bearings disposed between said inner member and said outer member; characterized by a bearing assembly rotating plate rotatably disposed within said housing and configured to rotate between a blocking position blocking removal of said bearing assembly from said housing, and an access position configured for removal of said bearing assembly from said housing while said bearing assembly rotating plate remains disposed within said housing.
A guidewire system, comprising: a guidewire having a proximal end, a distal end, and a length extending therebetween; wherein the guidewire includes a relatively stiff proximal section and a relatively flexible distal section joined by a transition region; and a TAVI device slidably disposed on the guidewire; characterized in that the guidewire includes an expandable element (140, 340, 440, 540, 840) disposed about the transition region in a first position; wherein the expandable element is configured to expand from a collapsed configuration to an expanded configuration. a guidewire having a proximal end, a distal end, and a length extending therebetween; wherein the guidewire includes a relatively stiff proximal section and a relatively flexible distal section joined by a transition region; and a TAVI device slidably disposed on the guidewire; characterized in that the guidewire includes an expandable element (140, 340, 440, 540, 840) disposed about the transition region in a first position; wherein the expandable element is configured to expand from a collapsed configuration to an expanded configuration.
A mobile communications network for communicating data to and/or from mobile communications devices, the mobile communications network comprising a core network part including a plurality of infrastructure equipment (2, 6, 14, 74, 76, 120, 122), and a radio network part including a plurality of base stations which are provided with a wireless access interface for communicating data to or from the mobile communications devices, wherein the mobile communications device includes an execution processor which is arranged to operate a plurality of applications programs (A1, A2, A3, A4) each of which is arranged to generate an indication of a relative type of the data packets for communication to and/or from a communications bearer (36, 38) or the communications bearer and one or more other communications bearers (36, 38), the mobile communications device being arranged in operation to communicate the indication of the relative type of data packets for communication via the communications bearer (36, 38) for supporting a communications session of the mobile communications device, the indication of the relative type of the data packets being used to configure the communications bearer, wherein the type of the data packets communicated being one of a machine type communications indicator, a low priority indicator, a regular user indicator or a high priority indicator and the mobile communications network is arranged to provide the communications bearer (36, 38) from the mobile communications device to one or more of the infrastructure equipment (2, 6, 14, 74, 76, 120, 122) via one or more of the base stations in accordance with the indication of the relative type of the data packets, and to control the communication of the data packets via the communications bearer in accordance with the relative type of data packets being communicated via the communications bearer and in accordance with a relative priority indicated by the relative type of the data packets in response to an indication of congestion of data packets being communicated by the mobile communications network, by communicating the data packets differently via the communications bearer (36, 38) or the communications bearer and the one or more other communications bearers (36, 38) depending on the type of the data packets communicated via the or each communications bearer, wherein the control of the communication of the data packets via the communications bearer in accordance with the relative priority indicated by the type of the data packets includes storing data packets indicated as being lower priority and/or for communication from or to a machine type communication, MTC, application in a buffer for communication via the communications bearer (36, 38) at a later time and communicating data packets indicated as being a higher priority from other communications bearers (36, 38) at an earlier time in preference to the lower priority and/or MTC data packets, and discarding the lower priority and/or MTC data packets in favour of retaining the higher priority data packets.
A method for a wireless device, the method comprising: transmitting, by the wireless device, a capability message indicating that the wireless device supports semi-persistent channel state information, SP-CSI, reporting via an uplink channel; receiving SP-CSI configuration parameters based on the wireless device supporting the SP-CSI reporting; and transmitting, via the uplink channel, SP-CSI reports based on an activation command indicating activation of the SP-CSI reporting. transmitting, by the wireless device, a capability message indicating that the wireless device supports semi-persistent channel state information, SP-CSI, reporting via an uplink channel; receiving SP-CSI configuration parameters based on the wireless device supporting the SP-CSI reporting; and transmitting, via the uplink channel, SP-CSI reports based on an activation command indicating activation of the SP-CSI reporting.
A method performed by a wireless transmitter determining a transport block size, TBS, the method comprising: determining the TBS using a general function of a number of physical resource blocks, PRBs, to be granted, N PRB, a number of resource elements, REs, per PRB, N RE DL, PRB, a number of layers per transport block, υ, a number of bits per modulation, Q m, and a coding rate determined by a modulation coding scheme, MCS, R, characterised in that: the general function comprises a linear function of N PRB υ, Q m and R when the product of N PRB, υ, Q m and R is larger than or equal to a threshold, the general function increases faster than a linear function of N PRB when the product of N PRB, υ, Q m and R is less than the threshold while it is still a linear function of υ, Q m and R, and for a given set of υ, Q m and R, the TBS is a non-decreasing function of N PRB over the range of N PRB; allocating a transport block of the determined TBS; and transmitting the transport block to a wireless receiver. the general function comprises a linear function of N PRB υ, Q m and R when the product of N PRB, υ, Q m and R is larger than or equal to a threshold, the general function increases faster than a linear function of N PRB when the product of N PRB, υ, Q m and R is less than the threshold while it is still a linear function of υ, Q m and R, and for a given set of υ, Q m and R, the TBS is a non-decreasing function of N PRB over the range of N PRB; allocating a transport block of the determined TBS; and transmitting the transport block to a wireless receiver.