mhurhangee/ep-ind-claims huggingface dataset:
An assembly (62, 64, 168) for placement of a positional sensor for positional tracking of an anatomical reference point, the assembly (62, 64, 168) comprising a mounting base (62, 168) for placement over the anatomical reference point; characterized in that: the mounting base (62, 168) comprises: at least one flexible tab; a mounting flange (140, 172) forming a bottom surface of the mounting base (62, 168); and a ledge (144, 178) positioned between a top surface of the at least one flexible tab and the mounting flange (140, 172); and a sensor housing positioned on the ledge (144, 178) and rotatably engaged with the mounting base (62, 168), the sensor housing having a cavity sized to receive the positional sensor; wherein the at least one flexible tab engages an upward-facing surface of the sensor housing. the mounting base (62, 168) comprises: at least one flexible tab; a mounting flange (140, 172) forming a bottom surface of the mounting base (62, 168); and a ledge (144, 178) positioned between a top surface of the at least one flexible tab and the mounting flange (140, 172); and at least one flexible tab; a mounting flange (140, 172) forming a bottom surface of the mounting base (62, 168); and a ledge (144, 178) positioned between a top surface of the at least one flexible tab and the mounting flange (140, 172); and a sensor housing positioned on the ledge (144, 178) and rotatably engaged with the mounting base (62, 168), the sensor housing having a cavity sized to receive the positional sensor; wherein the at least one flexible tab engages an upward-facing surface of the sensor housing.
A method for operating an autonomous-capable vehicle, the method being implemented by one or more processors and comprising: determining, by a switch logic, switching input from a user operation of one or more switching mechanisms (102, 104); and controlling, by a vehicle autonomy selection logic, an operational state of a vehicle control system based on the switching input, the operational state including (i) a first control state in which autonomous control is enabled but not engaged, (ii), a second control state in which autonomous control is engaged and the vehicle control system ignores a manual control input including manual operation of a brake or steering wheel for the vehicle, and (iii) a third control state in which autonomous control is engaged and subject to being disengaged by manual control input for the vehicle control system; wherein controlling the operational state includes switching from the first control state to the second control state upon detecting switching input in which at least one of the one or more switching mechanisms is actively engaged, wherein the vehicle autonomy selection logic switches from the second control state to the third control state upon detecting switching input in which the at least one switching mechanism stops being actively engaged. determining, by a switch logic, switching input from a user operation of one or more switching mechanisms (102, 104); and controlling, by a vehicle autonomy selection logic, an operational state of a vehicle control system based on the switching input, the operational state including (i) a first control state in which autonomous control is enabled but not engaged, (ii), a second control state in which autonomous control is engaged and the vehicle control system ignores a manual control input including manual operation of a brake or steering wheel for the vehicle, and (iii) a third control state in which autonomous control is engaged and subject to being disengaged by manual control input for the vehicle control system; wherein controlling the operational state includes switching from the first control state to the second control state upon detecting switching input in which at least one of the one or more switching mechanisms is actively engaged, wherein the vehicle autonomy selection logic switches from the second control state to the third control state upon detecting switching input in which the at least one switching mechanism stops being actively engaged.
A single-sided, four-way indexable cutting insert having a positive basic shape and comprising: a rake surface; a base bearing surface located opposite the rake surface; an insert axis A I extending perpendicular to the base bearing surface and through the center of the insert, the insert axis A I defining: an upward direction D U from the base bearing surface towards the rake surface, a downward direction D D opposite to the upward direction D U, and an outward direction D O perpendicular to the upward and downward directions D U, D D and extending away from the insert axis A I; a cutting insert height Hi measurable parallel to the insert axis A I, from the base bearing surface to a highest point of the rake surface; a peripheral surface connecting the rake surface and base bearing surface, the peripheral surface comprising: an unground lower sub-surface which extends upwardly and outwardly from the base bearing surface, the lower sub-surface comprising first, second, third and fourth side abutment surfaces (38A, 38B, 38C, 38D); and an upper sub-surface connecting the lower sub-surface and the rake surface, the upper sub-surface beginning in the upward direction D U at a minimum upper surface height H U above the base bearing surface; a cutting edge formed along an intersection of the peripheral surface and rake surface; a screw hole opening out to the rake and base bearing surfaces (24, 26), the screw hole having a void volume V s; wherein: the insert has an imaginary square frustum defined by: a square base containing the base bearing surface; four isosceles trapezoid side surfaces (54, 54A, 54B, 54C, 54D), each extending upwardly and outwardly from the square base at an abutment surface relief angle θ fulfilling the condition 1° ≤ θ ≤ 15°, and each containing a respective one of the first, second, third and fourth side abutment surfaces (38A, 38B, 38C, 38D); and a square top connecting the four isosceles trapezoid side surfaces (54, 54A, 54B, 54C, 54D) and located a distance equal to the cutting insert height H I from the square base; the upper sub-surface comprises at least one overhanging portion, which extends outwardly from an adjacent one of the trapezoid side surfaces (54, 54A, 54B, 54C, 54D) and has a lowermost point at said minimum upper sub-surface height Hu; characterized in that in a view parallel to the insert axis A I, an inscribed circle diameter Ic of the cutting edges fulfills the condition Ic ≤ 10 mm; and a volume ratio V S /V F of the void volume Vs and a material volume V F of the cutting insert fulfills the condition V S /V F ≥ 0.25.
A surgical instrument comprising: (a) a body assembly comprising: i. a trigger, ii. a casing having a distal aperture formed in a distal end of the casing, and iii. one or more rotational recesses disposed proximal of the distal aperture; and (b) an end effector assembly comprising: i. a bolt portion having one or more locking tabs extending outwardly from the bolt portion, ii. a transmission assembly coupled to the bolt portion and extending distally from the bolt portion, and iii. an end effector coupled to a distal end of the transmission assembly; wherein a portion of the bolt portion having the one or more locking tabs is insertable through the distal aperture of the casing, and wherein the bolt portion is operable to rotate the one or more locking tabs into the one or more rotational recesses, characterized in that the one or more locking tabs comprise an electrical contact, wherein the one or more rotational recesses comprise a complementary electrical contact, wherein the electrical contact and the complementary electrical contact are configured to electrically couple when the one or more locking tabs are rotated into the one or more rotational recesses. (a) a body assembly comprising: i. a trigger, ii. a casing having a distal aperture formed in a distal end of the casing, and iii. one or more rotational recesses disposed proximal of the distal aperture; and i. a trigger, ii. a casing having a distal aperture formed in a distal end of the casing, and iii. one or more rotational recesses disposed proximal of the distal aperture; and (b) an end effector assembly comprising: i. a bolt portion having one or more locking tabs extending outwardly from the bolt portion, ii. a transmission assembly coupled to the bolt portion and extending distally from the bolt portion, and iii. an end effector coupled to a distal end of the transmission assembly; i. a bolt portion having one or more locking tabs extending outwardly from the bolt portion, ii. a transmission assembly coupled to the bolt portion and extending distally from the bolt portion, and iii. an end effector coupled to a distal end of the transmission assembly;
A reservoir for rod-like elements for tobacco industry, configured to be connected to a first feeding duct for feeding the reservoir with a first stream of elements through a first inlet of a first reservoir side, to a second feeding duct for feeding the reservoir with a second stream of elements through a second inlet of a second reservoir side, opposite to the first reservoir side, and to a receiving duct for receiving the rod-like elements from the reservoir, wherein the reservoir has adjustable capacity and is coupled with filling level sensing means (14, 15) for sensing a filling level of the reservoir, wherein: - the reservoir comprises two chambers (12, 13) having adjustable capacity and separated by a partition; - wherein the first chamber is located between the first feeding duct and the receiving duct and comprises a first boundary surface, which limits the space of the first chamber; - wherein the second chamber is located between the second feeding duct and the receiving duct and comprises a second boundary surface, which limits the space of the second chamber; - wherein the first chamber is coupled with a first filling level sensing means for sensing a filling level of the first chamber, and the second chamber is equipped with a second filling level sensing means for sensing a filling level of the second chamber, characterized in that the first filling level sensing means comprises a first guiding surface displaceable between the blocking and non-blocking position, which in the blocking position constitutes the wall for the stream of elements flow from the second feeding duct through the second chamber to the receiving duct; - wherein the second filling level sensing means comprises a second guiding surface displaceable between the blocking and non-blocking position, which in the blocking position constitutes the wall for the stream of elements flow from the first feeding duct through the first chamber to the receiving duct. - the reservoir comprises two chambers (12, 13) having adjustable capacity and separated by a partition; - wherein the first chamber is located between the first feeding duct and the receiving duct and comprises a first boundary surface, which limits the space of the first chamber; - wherein the second chamber is located between the second feeding duct and the receiving duct and comprises a second boundary surface, which limits the space of the second chamber; - wherein the first chamber is coupled with a first filling level sensing means for sensing a filling level of the first chamber, and the second chamber is equipped with a second filling level sensing means for sensing a filling level of the second chamber, - wherein the second filling level sensing means comprises a second guiding surface displaceable between the blocking and non-blocking position, which in the blocking position constitutes the wall for the stream of elements flow from the first feeding duct through the first chamber to the receiving duct.
An axially extending outer case for a gas turbine engine, the outer case comprising: an arcuate case wall having an inner surface and an outer surface; an opening extending through the arcuate case wall; and a boss extending radially from the outer surface of arcuate case wall and surrounding the opening; and contouring surrounding the opening along the inner surface of the arcuate case wall within the boss; characterised by further comprising a circumferentially extending bump-out (48A;48B) extending along the arcuate case wall and into which the opening extends, the bump-out (48A;48B) increasing a local radius of the arcuate case wall as compared to a radius of the inner and outer surfaces (70,68) with respect to a centerline, the bump-out (48A;48B) increasing in depth as it circumferentially extends from the outer surface of the arcuate case wall toward the boss, contouring blending the bump-out (48A;48B) with the boss. an arcuate case wall having an inner surface and an outer surface; an opening extending through the arcuate case wall; and a boss extending radially from the outer surface of arcuate case wall and surrounding the opening; and contouring surrounding the opening along the inner surface of the arcuate case wall within the boss; characterised by further comprising a circumferentially extending bump-out (48A;48B) extending along the arcuate case wall and into which the opening extends, the bump-out (48A;48B) increasing a local radius of the arcuate case wall as compared to a radius of the inner and outer surfaces (70,68) with respect to a centerline, the bump-out (48A;48B) increasing in depth as it circumferentially extends from the outer surface of the arcuate case wall toward the boss, contouring blending the bump-out (48A;48B) with the boss.
A computer implemented method of automatically generating a radiation treatment plan for a patient, said method comprising: accessing patient information (301; 401) pertaining to a radiation treatment for a patient; automatically selecting one or more predictive models based on said patient information (301; 401) in accordance with a hierarchical model comprising a plurality of predictive models (M1,.., M8) arranged in a hierarchy, wherein a respective predictive model of said plurality of predictive models (M1,.., M8) is established based on training data and operable to process patient information (301; 401) and generate a radiation treatment prediction; processing said patient information (301; 401) in accordance with said one or more predictive models; and outputting one or more radiation treatment predictions. accessing patient information (301; 401) pertaining to a radiation treatment for a patient; automatically selecting one or more predictive models based on said patient information (301; 401) in accordance with a hierarchical model comprising a plurality of predictive models (M1,.., M8) arranged in a hierarchy, wherein a respective predictive model of said plurality of predictive models (M1,.., M8) is established based on training data and operable to process patient information (301; 401) and generate a radiation treatment prediction; processing said patient information (301; 401) in accordance with said one or more predictive models; and outputting one or more radiation treatment predictions.
A sensor device comprising: an array sensor having a plurality of detection elements arrayed in one or two dimensional manner; a signal processing unit configured to acquire a detection signal by the array sensor and perform signal processing; and a calculation unit configured to detect an object from the detection signal by the array sensor, and give an instruction for making a frame rate of the detection signal from the array sensor variable on a basis of the detection of the object, wherein the calculation unit identifies a class for the object detected from the detection signal obtained from the array sensor, determines whether or not the identified class is a target class, and gives an instruction for making the frame rate variable according to a determination result; characterized by an output unit configured to output all of the detection signal processed by the signal processing unit, information of the identified class, the number of detected objects, and information of presence or absence of the target class in response to a request of an external device. an array sensor having a plurality of detection elements arrayed in one or two dimensional manner; a signal processing unit configured to acquire a detection signal by the array sensor and perform signal processing; and a calculation unit configured to detect an object from the detection signal by the array sensor, and give an instruction for making a frame rate of the detection signal from the array sensor variable on a basis of the detection of the object, wherein the calculation unit identifies a class for the object detected from the detection signal obtained from the array sensor, determines whether or not the identified class is a target class, and gives an instruction for making the frame rate variable according to a determination result; characterized by an output unit configured to output all of the detection signal processed by the signal processing unit, information of the identified class, the number of detected objects, and information of presence or absence of the target class in response to a request of an external device.
A coating film on a substrate formed from a fluororesin coating composition for forming a topcoat, comprising a crystalline tetrafluoroethylene and perfluoro(ethyl vinyl ether) copolymer having a perfluoro(ethyl vinyl ether) content of 8 to 20 mass% based on the total mass of said copolymer, wherein said substrate is primer coated or the surface of said substrate is chemically treated prior to being coated with said coating film, and wherein the coating film is heat treated at the melting point or higher of said crystalline tetrafluoroethylene and perfluoro(ethyl vinyl ether) copolymer.
Pulsed fiber laser apparatus for outputting picosecond laser pulses, comprising: a mode-locked fiber delivered pulsed seed laser (20, 920) for providing picosecond optical seed pulses having a first time duration; at least one optical fiber amplifier (24, 70, 924) in optical communication with said mode-locked fiber delivered pulsed seed laser; said optical fiber amplifier comprising a gain optical fiber that receives and optically amplifies picosecond optical pulses by operating in a nonlinear regime wherein the picosecond optical pulses are spectrally broadened by a factor of at least 8 during amplification thereof, at least in part by self phase modulation; pulse compressor apparatus (28, 80, 150, 200, 300, 930) in optical communication with said optical fiber amplifier, wherein the pulse compressor apparatus is configured to provide compressed optical pulses, the compressed optical pulses comprising picosecond pulses having a second time duration, shorter than the first time duration; and wherein said pulse compressor apparatus provides a dispersion of at least 50 ps/nm and provides a compression ratio of the time duration of the picosecond optical pulses received by the pulse compressor apparatus to the time duration of the compressed picosecond optical pulses of no greater than about 50. a mode-locked fiber delivered pulsed seed laser (20, 920) for providing picosecond optical seed pulses having a first time duration; at least one optical fiber amplifier (24, 70, 924) in optical communication with said mode-locked fiber delivered pulsed seed laser; said optical fiber amplifier comprising a gain optical fiber that receives and optically amplifies picosecond optical pulses by operating in a nonlinear regime wherein the picosecond optical pulses are spectrally broadened by a factor of at least 8 during amplification thereof, at least in part by self phase modulation; pulse compressor apparatus (28, 80, 150, 200, 300, 930) in optical communication with said optical fiber amplifier, wherein the pulse compressor apparatus is configured to provide compressed optical pulses, the compressed optical pulses comprising picosecond pulses having a second time duration, shorter than the first time duration; and wherein said pulse compressor apparatus provides a dispersion of at least 50 ps/nm and provides a compression ratio of the time duration of the picosecond optical pulses received by the pulse compressor apparatus to the time duration of the compressed picosecond optical pulses of no greater than about 50.
A method performed by a positioning server, for positioning user equipment, UE, the method comprising: collecting, for each of a plurality of UEs, positioning-related information from at least one network node for at least a predefined first duration of time, wherein the positioning-related information at least comprises measured information that is created by a UE or a network node, and is used to position the UE, and wherein the measured information at least comprises one or more cell IDs detected by the UE; determining, for each UE, matching positioning-related information that is matched with the UE's registration address related information, wherein the registration address related information at least comprises the registration address of the UE, and wherein the plurality of UEs' registration addresses are obtained from a network provider; creating a reference database containing, for each UE, a reference point that comprises the UE's identification, ID, registration address related information, and matching positioning-related information; receiving a positioning request from a requesting entity, and in response to the positioning request, acquiring, from the network node, the UE's current positioning-related information; and positioning the UE based on its current positioning-related information and the reference database, wherein the step of positioning at least comprises determining whether the reference database contains a matching reference point that is matched with the UE's current positioning-related information. collecting, for each of a plurality of UEs, positioning-related information from at least one network node for at least a predefined first duration of time, wherein the positioning-related information at least comprises measured information that is created by a UE or a network node, and is used to position the UE, and wherein the measured information at least comprises one or more cell IDs detected by the UE; determining, for each UE, matching positioning-related information that is matched with the UE's registration address related information, wherein the registration address related information at least comprises the registration address of the UE, and wherein the plurality of UEs' registration addresses are obtained from a network provider; creating a reference database containing, for each UE, a reference point that comprises the UE's identification, ID, registration address related information, and matching positioning-related information; receiving a positioning request from a requesting entity, and in response to the positioning request, acquiring, from the network node, the UE's current positioning-related information; and positioning the UE based on its current positioning-related information and the reference database, wherein the step of positioning at least comprises determining whether the reference database contains a matching reference point that is matched with the UE's current positioning-related information.