mhurhangee/ep-ind-claims huggingface dataset:
A method for classifying a given range profile, comprising: (i) receiving the given range profile to be classified; (ii) gathering sources of information giving structural details of objects of interest, wherein the sources of information are sources other than direct sensor measurements; (iii) selecting from such sources of information features likely to appear most prominent as peaks of backscatter in range data of the objects of interest; (iv) generating, for each object in the set of objects of interest, a probabilistic model representing, for one or more different orientations of the object, possible sequences of distances between features of the object selected as being likely to result in distinct peaks in range data for the object, wherein the possible sequences of distances are derived from a first probabilistic representation of each said selected feature; and (v) classifying a given range profile by deriving an observed sequence of distances from the spacing of distinct peaks in the given range profile and by calculating, for each of one or more probabilistic models generated at step (iii), the probability that the model generates the observed sequence of distances, the object whose model generates the observed sequence with the greatest probability being associated with the given range profile, wherein said range data and the given range profile relate to and are direct sensor measurements generated by a high range resolution radar, a lidar, or a sonar, wherein said distinct peaks correspond to peaks in backscatter from the object, and wherein said objects of interest comprise at least one vehicle, ship, and/or aircraft. (i) receiving the given range profile to be classified; (ii) gathering sources of information giving structural details of objects of interest, wherein the sources of information are sources other than direct sensor measurements; (iii) selecting from such sources of information features likely to appear most prominent as peaks of backscatter in range data of the objects of interest; (iv) generating, for each object in the set of objects of interest, a probabilistic model representing, for one or more different orientations of the object, possible sequences of distances between features of the object selected as being likely to result in distinct peaks in range data for the object, wherein the possible sequences of distances are derived from a first probabilistic representation of each said selected feature; and (v) classifying a given range profile by deriving an observed sequence of distances from the spacing of distinct peaks in the given range profile and by calculating, for each of one or more probabilistic models generated at step (iii), the probability that the model generates the observed sequence of distances, the object whose model generates the observed sequence with the greatest probability being associated with the given range profile,
A vehicle comprising a maneuvering system for maneuvering a predetermined part of the vehicle into a target position provided by a target object, the maneuvering system comprising a first optical sensor device, arranged at the vehicle, for capturing the target object and a calculating device for calculating a trajectory of the predetermined part of the vehicle into the target position by way of an image of the target object captured by the first optical sensor device, the maneuvering system comprising a second optical sensor device arranged at the vehicle in a manner offset relative to the first optical sensor device in a longitudinal direction of the vehicle, characterized in that the optical sensor devices (3, 4) are configured so as to allow a trajectory of the predetermined part of the vehicle into the target position to be calculated independently of one another, together with the calculating device.
A memory device including: a first array of one or more first resonant members extending in a first member direction; a second array of one or more second resonant members extending in a second member direction, the first resonant members encoding either the same or different data than the second resonant members, the first and second resonant members (32, 38) extending in a same plane; and one or more elements for transforming energy associated with vibration of the first and second resonant members (32, 38) into a change in impedance of an electrical equivalent circuit of the memory device, said vibration caused by a magnetic field applied from external of the memory device, such that the magnitude of the impedance change caused by resonance of the first resonant members is maximised at a different magnetic field direction of said magnetic field to that at which the magnitude of the impedance change caused by resonance of the second resonant members is maximised.
Seal for sliding doors and sliding gates, with at least one release rod and with a trigger, wherein the seal has - a coupling element, - a housing, - a sealing bar and - at least one movement mechanism wherein the trigger, the release rod and the coupling element are connected to one another, wherein the movement mechanism connects the housing and the sealing bar to one another in a displaceable manner and the movement mechanism has movement transmission means (Ma, Mb, Mc), in order convert a movement of the coupling element into a movement of the sealing bar, wherein a force introduced via the trigger into the release rod can be transferred into the movement transmission means (Ma, Mb, Mc) of the movement mechanism by means of the coupling element, in order to move the sealing bar, wherein the movement mechanism is a scissor mechanism and the movement transmission means are formed by scissor elements, characterized in that the trigger is provided in the region of a first end of the housing of the seal and extends laterally beyond the housing and the coupling element is arranged in the region of a second end of the housing opposite the first end and the movement of the sealing bar can be actuated by pulling the trigger, the release rod has a thread at both ends, one of the two threads of the release rod is connected to a complementary thread of the trigger and the other of the two threads of the release rod is connected to a complementary thread of the coupling element and the trigger has a threaded hole, into which one end of the release rod is screwed. - a coupling element, - a housing, - a sealing bar and - at least one movement mechanism wherein the trigger, the release rod and the coupling element are connected to one another, wherein the movement mechanism connects the housing and the sealing bar to one another in a displaceable manner and the movement mechanism has movement transmission means (Ma, Mb, Mc), in order convert a movement of the coupling element into a movement of the sealing bar, wherein a force introduced via the trigger into the release rod can be transferred into the movement transmission means (Ma, Mb, Mc) of the movement mechanism by means of the coupling element, in order to move the sealing bar, wherein the movement mechanism is a scissor mechanism and the movement transmission means are formed by scissor elements, characterized in that the trigger is provided in the region of a first end of the housing of the seal and extends laterally beyond the housing and the coupling element is arranged in the region of a second end of the housing opposite the first end and the movement of the sealing bar can be actuated by pulling the trigger, the release rod has a thread at both ends, one of the two threads of the release rod is connected to a complementary thread of the trigger and the other of the two threads of the release rod is connected to a complementary thread of the coupling element and the trigger has a threaded hole, into which one end of the release rod is screwed.
A method for transmitting an uplink, UL, packet by a user equipment, UE, in a wireless communication system, the method comprising: receiving the UL packet from an upper layer; checking whether an Internet Protocol, IP, flow associated with the UL packet is matched to any IP flows defined in UL IP flow to Quality of Service, QoS, flow mapping rules configured in the UE; selecting a QoS flow among allowed QoS flows based on (i) the IP flow of the UL packet being not matched to any of the IP flows defined in the UL IP flow to QoS flow mapping rules, (ii) the UL packet being allowed to be transmitted to a network and (iii) a number of the allowed QoS flows for no matching the UL packet in the UL IP flow to QoS flow mapping rules being two or more; wherein the selected QoS flow has most similar QoS characteristics to requirements of the IP flow of the UL packet from among the allowed QoS flows; setting a QoS Flow identifier, ID, of the UL packet to a special value of the selected QoS flow based on an IP flow of the UL packet that is not matched to the any of IP flows defined in the UL IP flow to QoS flow mapping rules configured in the UE; and transmitting the UL packet with the QoS Flow ID to the network via a Data Radio Bearer, DRB, wherein the special value is a value used to notify the network that the IP flow of the UL packet is not matched to any of the IP flows defined in the UL IP flow to QoS flow mapping rules configured in the UE. receiving the UL packet from an upper layer; checking whether an Internet Protocol, IP, flow associated with the UL packet is matched to any IP flows defined in UL IP flow to Quality of Service, QoS, flow mapping rules configured in the UE; selecting a QoS flow among allowed QoS flows based on (i) the IP flow of the UL packet being not matched to any of the IP flows defined in the UL IP flow to QoS flow mapping rules, (ii) the UL packet being allowed to be transmitted to a network and (iii) a number of the allowed QoS flows for no matching the UL packet in the UL IP flow to QoS flow mapping rules being two or more; wherein the selected QoS flow has most similar QoS characteristics to requirements of the IP flow of the UL packet from among the allowed QoS flows; setting a QoS Flow identifier, ID, of the UL packet to a special value of the selected QoS flow based on an IP flow of the UL packet that is not matched to the any of IP flows defined in the UL IP flow to QoS flow mapping rules configured in the UE; and transmitting the UL packet with the QoS Flow ID to the network via a Data Radio Bearer, DRB, wherein the special value is a value used to notify the network that the IP flow of the UL packet is not matched to any of the IP flows defined in the UL IP flow to QoS flow mapping rules configured in the UE.
A method for treatment of leather, comprising providing leather and contacting the leather with an aqueous phase comprising pectin, wherein the leather is tanned leather, and wherein the pectin has a peak molecular weight from 1 to 300 kDa, wherein the peak molecular weight is the molecular weight of the highest peak in the molecular weight distribution.
Use of a single crystal silicon wafer for the production of insulated gate bipolar transistors (IGBT) which is made of single crystal silicon grown by the Czochralski method and has a gate oxide with a film thickness t ox (cm) of from 50 to 150 nm, wherein the wafer has an interstitial oxygen concentration of at most 7.0 × 10 17 atoms/cm 3, and a resistivity variation within the plane of the wafer of at most 5%, characterized in that letting t ox (cm) be the gate oxide film thickness and S (cm 2) be the electrode surface area when determining the TZDB pass ratio of the IGBT, a density d (cm -3) of crystal originated particles having a size at least twice the gate oxide film thickness which satisfies the following formula, wherein letting the resistivity be R (Ω·cm), the interstitial oxygen concentration [Oi] (atoms/cm 3) has a range which satisfies formula below. d ≤ − ln 0.9 / S ⋅ t ox / 2 Oi ≤ 1.482 × 10 18 × R − 0.2063
An embolic filter system (1000, 2000) comprising: an elongate element (1100, 2100) having a proximal end (1104, 2104) and a distal end (1102, 2102), the elongate element including a first structural element and a first covering material, the elongate element having sufficient structural integrity to support being advanced within a delivery sheath; and a filter (1200, 2200) secured at or proximate to the distal end of the elongate element, characterized in that a distal end (1202, 2202) of the filter is situated proximal of the distal end of the elongate element, the filter including a second structural element and a second covering material, wherein a portion of the second covering material includes a plurality of perforations configured to filter embolic debris from blood flowing into the filter. an elongate element (1100, 2100) having a proximal end (1104, 2104) and a distal end (1102, 2102), the elongate element including a first structural element and a first covering material, the elongate element having sufficient structural integrity to support being advanced within a delivery sheath; and a filter (1200, 2200) secured at or proximate to the distal end of the elongate element, characterized in that a distal end (1202, 2202) of the filter is situated proximal of the distal end of the elongate element, the filter including a second structural element and a second covering material, wherein a portion of the second covering material includes a plurality of perforations configured to filter embolic debris from blood flowing into the filter.
Lighting and/or signalling module, notably for a motor vehicle, comprising optical means for deflecting light rays emitted by a first light source, and a frame comprising at least one screen (28, 30) capable of assuming a position on the path of the light rays deflected by said optical deflection means, characterized in that said optical deflection means and said frame are mounted to be rotationally mobile while the first light source remains fixed, and in that control means are capable of sending command instructions to actuators controlling, on the one hand, the rotation of said optical deflection means and of said frame and, on the other hand, the switching on and the switching off of said first light source.
A heterophasic polypropylene composition comprising (percent by weight referred to the sum of components A) and B)): A) from 85% to 92% of a random copolymer of propylene containing from 0.1 to 1,4 wt% of 1-hexene derived units; said random copolymers of propylene having: - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.3 to 5g/10 min; - a polydispersity index ranging from 4 to 10, preferably from 5 to 6. B) from 8 to 15% of a copolymer of propylene and ethylene having a content of ethylene derived units ranging from 51wt% to 54 wt%; wherein the heterophasic polypropylene composition is endowed with a Melt Flow Rate: measured according to ISO 1133 (230°C, 5 Kg) ranging from 0.5 to 5 g/10min; and an intrinsic viscosity of the fraction soluble in xylene at room temperature ranging from 2.0 dl/g to 5.0 dl/g. A) from 85% to 92% of a random copolymer of propylene containing from 0.1 to 1,4 wt% of 1-hexene derived units; said random copolymers of propylene having: - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.3 to 5g/10 min; - a polydispersity index ranging from 4 to 10, preferably from 5 to 6. - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.3 to 5g/10 min; - a polydispersity index ranging from 4 to 10, preferably from 5 to 6. - a polydispersity index ranging from 4 to 10, preferably from 5 to 6. B) from 8 to 15% of a copolymer of propylene and ethylene having a content of ethylene derived units ranging from 51wt% to 54 wt%;
A non-transitory processor readable medium storing code representing instructions to be executed by a processor, the code comprising code to cause the processor to: receive a plurality of signals, each signal from the plurality of signals identifying a location from a plurality of locations; define a record in a database for each location from the plurality of locations, said database being configured to further maintain a list of pre-defined spoofing locations, wherein a pre-defined spoofing location is a single location that a third party represents as corresponding to multiple locations; receive a signal from the plurality of signals, identifying an untrusted location of a mobile device, said untrusted location being a location deemed as having a low accuracy and/or precision; compare the received untrusted location to the list of pre-defined spoofing locations and define a first match when the untrusted location matches a pre-defined spoofing location; compare the untrusted location to a plurality of location source historical data and define a second match when the untrusted location is statistically over-represented in the plurality of location source historical data; upon receiving the first and the second matching results, calculate an accuracy score for the untrusted location based on the first match and the second match; and send a signal including the untrusted location and the statistical accuracy score for the location. receive a plurality of signals, each signal from the plurality of signals identifying a location from a plurality of locations; define a record in a database for each location from the plurality of locations, said database being configured to further maintain a list of pre-defined spoofing locations, wherein a pre-defined spoofing location is a single location that a third party represents as corresponding to multiple locations; receive a signal from the plurality of signals, identifying an untrusted location of a mobile device, said untrusted location being a location deemed as having a low accuracy and/or precision; compare the received untrusted location to the list of pre-defined spoofing locations and define a first match when the untrusted location matches a pre-defined spoofing location; compare the untrusted location to a plurality of location source historical data and define a second match when the untrusted location is statistically over-represented in the plurality of location source historical data; upon receiving the first and the second matching results, calculate an accuracy score for the untrusted location based on the first match and the second match; and send a signal including the untrusted location and the statistical accuracy score for the location.
Drainage covering comprising - a pair of edge rails (10, 10') each having vertical side sections (11, 11'), contact sections (12, 12') and inwardly and downwardly inclined sloping surfaces (13, 13') which are connected at their upper edges to the side sections (11, 11') and forming an interior (14, 14') with these, wherein vertical slots are formed in the sloping surfaces (13, 13') and the contact sections (12, 12') are formed by inwardly projecting bent edges of the sloping surfaces (13, 13'), - transverse members which sit in the slots with their ends (21, 21') and the edge rails (10, 10') are arranged in a connecting manner in such a manner that a grating is formed, wherein the edge rails (10, 10') and the transverse members are formed from sheet metal material, - wherein the ends (21, 21') of the transverse members are bent inside the interiors (14, 14') of the edge rails (10, 10') in such a manner that the transverse members are fixed in the slots characterized in that the bent ends (21, 21') of the transverse members rest with their lower edges (22, 22') on inner surfaces (16, 16') of the contact sections (12, 12'). - a pair of edge rails (10, 10') each having vertical side sections (11, 11'), contact sections (12, 12') and inwardly and downwardly inclined sloping surfaces (13, 13') which are connected at their upper edges to the side sections (11, 11') and forming an interior (14, 14') with these, wherein vertical slots are formed in the sloping surfaces (13, 13') and the contact sections (12, 12') are formed by inwardly projecting bent edges of the sloping surfaces (13, 13'), - transverse members which sit in the slots with their ends (21, 21') and the edge rails (10, 10') are arranged in a connecting manner in such a manner that a grating is formed, wherein the edge rails (10, 10') and the transverse members are formed from sheet metal material, - wherein the ends (21, 21') of the transverse members are bent inside the interiors (14, 14') of the edge rails (10, 10') in such a manner that the transverse members are fixed in the slots
An electric heating device having an improved air channel, the electric heating device comprises an upper cover component and a lower shell component; and the upper cover component comprises an upper shell and a guiding tube for inserting a tobacco product; the lower shell component comprises a lower shell, and a battery, a control element, and a heater component which are arranged in the lower shell; and the lower shell is detachably connected with the upper shell; the heater component comprises a heater shell, and a heating member and a heating member base which are arranged in the heater shell; the heating member is arranged on the heating member base; and the heating member is connected with the control element; one end of the guiding tube is connected with the upper shell, the other end of the guiding tube extends into the heater shell, and the heating member is at least partially located in the guiding tube; characterized in that, the heating member base is provided with a ventilation portion to guide an air flow to the heating member; the lower shell is provided with a first air inlet, the heater shell is provided with a second air inlet, and the air flow is led to the heating member from an outside of the lower shell through the first air inlet, the second air inlet, and the ventilation portion in sequence. the lower shell component comprises a lower shell, and a battery, a control element, and a heater component which are arranged in the lower shell; and the lower shell is detachably connected with the upper shell; the heater component comprises a heater shell, and a heating member and a heating member base which are arranged in the heater shell; the heating member is arranged on the heating member base; and the heating member is connected with the control element; one end of the guiding tube is connected with the upper shell, the other end of the guiding tube extends into the heater shell, and the heating member is at least partially located in the guiding tube; characterized in that, the heating member base is provided with a ventilation portion to guide an air flow to the heating member; the lower shell is provided with a first air inlet, the heater shell is provided with a second air inlet, and the air flow is led to the heating member from an outside of the lower shell through the first air inlet, the second air inlet, and the ventilation portion in sequence.
A medicament comprising an antagonist of a Programmed Death 1 protein (PD-1) for use in combination with a VEGFR inhibitor for treating a cancer in an individual, wherein the PD-1 antagonist is an anti-PD-1 monoclonal antibody which comprises a heavy chain and a light chain, wherein the heavy and light chains comprise SEQ ID NO:21 and SEQ ID NO:22, respectively, and further wherein the VEGFR inhibitor is N- methyl-2-[3-( -2-pyridin-2-yl-vinyl)-1 H -indazol-6-ylsulfanyl]-benzamide or a pharmaceutically acceptable salt thereof.
Telbivudine, a salt, a solvate and/or an ester thereof for use in the treatment of a subject suffering from AKI or CKD, wherein the treatment comprises administering an effective amount of telbivudine to the subject to improve kidney fibrosis and/or heart fibrosis of the subject.