mhurhangee/ep-ind-claims huggingface dataset:
Mobile communication apparatus (1; 2) for use by a person, comprising: a first communications device (19, 20; 30,31) for establishing a first, wireless communication link with a remote unit, and a second communications device (21, 22, 23; 32, 33, 34) for establishing a second communication link with the remote unit through the body of the person, and a controller operable to control operation of the first and second communications devices, characterised in that the controller is operable to instruct the second communication device to request information through the second communication link from the remote unit indicative of whether the remote unit is in an operational state to communicate through the first wireless communication link, and further to instruct the remote unit to switch between operational and non operational states regarding communication through the first communication link.
A computer-implemented method (600, 700) for seismic surveying using a time-distributed firing source array (200, 201-206, 801-807) comprising a plurality of source elements, the method comprising the steps of: a. using (610, 710) the time-distributed firing source array (200,201-206, 801-807) to acquire time-distributed seismic data; b. determining (620, 720) a time-distributed source signature of the time-distributed firing source array (200, 201-206, 801-807); c. selecting (630, 730) a window of frequencies in the time-distributed source signature; d. setting up (640, 740) basis functions with multiple frequencies within the window of frequencies; e. convolving (650, 750) the time-distributed source signature with the basis functions to form a basis for the acquired time-distributed seismic data; f. inverting (660, 760) weighting factors from the acquired time-distributed seismic data and the basis for the acquired time-distributed seismic data; g. selecting (670, 770) an impulsive source signature; h. convolving (680, 780) the impulsive source signature with the basis functions and applying the weighting factors to form impulsive seismic data from the acquired time-distributed seismic data; and i. processing the formed impulsive seismic data to determine properties of an interior section of the Earth. a. using (610, 710) the time-distributed firing source array (200,201-206, 801-807) to acquire time-distributed seismic data; b. determining (620, 720) a time-distributed source signature of the time-distributed firing source array (200, 201-206, 801-807); c. selecting (630, 730) a window of frequencies in the time-distributed source signature; d. setting up (640, 740) basis functions with multiple frequencies within the window of frequencies; e. convolving (650, 750) the time-distributed source signature with the basis functions to form a basis for the acquired time-distributed seismic data; f. inverting (660, 760) weighting factors from the acquired time-distributed seismic data and the basis for the acquired time-distributed seismic data; g. selecting (670, 770) an impulsive source signature; h. convolving (680, 780) the impulsive source signature with the basis functions and applying the weighting factors to form impulsive seismic data from the acquired time-distributed seismic data; and i. processing the formed impulsive seismic data to determine properties of an interior section of the Earth.
A pigmented composition comprising: (a) pigmentary titanium dioxide; (b) organic pigments; and (c) metal oxide particles having an average particle size of less than 50 μm (e.g., as measured by dynamic light scattering); wherein the weight ratio of said pigmentary titanium dioxide and said organic pigments to said metal oxide particles in said composition is greater than 1:1 (e.g., 100:1 to 1:1, 50:1 to 1:1, 30:1 to 1:1, 100:1 to 2:1, 50:1 to 2:1, 30:1 to 2:1, 50:1 to 1:1, 100:1 to 5:1, 50:1 to 5:1, 30:1 to 5:1); wherein said metal oxide particles are selected from silica, alumina, zirconia, zinc oxide, indium tin oxide, ceria, and mixtures thereof, and/or wherein said metal oxide particles are fumed metal oxide particles. (a) pigmentary titanium dioxide; (b) organic pigments; and (c) metal oxide particles having an average particle size of less than 50 μm (e.g., as measured by dynamic light scattering); wherein the weight ratio of said pigmentary titanium dioxide and said organic pigments to said metal oxide particles in said composition is greater than 1:1 (e.g., 100:1 to 1:1, 50:1 to 1:1, 30:1 to 1:1, 100:1 to 2:1, 50:1 to 2:1, 30:1 to 2:1, 50:1 to 1:1, 100:1 to 5:1, 50:1 to 5:1, 30:1 to 5:1); wherein said metal oxide particles are selected from silica, alumina, zirconia, zinc oxide, indium tin oxide, ceria, and mixtures thereof, and/or wherein said metal oxide particles are fumed metal oxide particles. wherein the weight ratio of said pigmentary titanium dioxide and said organic pigments to said metal oxide particles in said composition is greater than 1:1 (e.g., 100:1 to 1:1, 50:1 to 1:1, 30:1 to 1:1, 100:1 to 2:1, 50:1 to 2:1, 30:1 to 2:1, 50:1 to 1:1, 100:1 to 5:1, 50:1 to 5:1, 30:1 to 5:1); wherein said metal oxide particles are selected from silica, alumina, zirconia, zinc oxide, indium tin oxide, ceria, and mixtures thereof, and/or wherein said metal oxide particles are fumed metal oxide particles.
A projection instruction device with a transport conveyor, which projection instruction device generates a projection image to be projected on a parcel based on an image including the parcel and parcel identification information specifying the parcel in the image, the device comprising: a processor; and a memory, characterized in that, by cooperating with the memory, the processor determines a specific area (A-E) in which the parcel is to be picked up based on the parcel identification information specifying the parcel, among a plurality of partitioned areas (A-E) each of which is included in a projection area, the partitioned areas (A-E) being defined by specific lengths of the transport conveyor in a transport direction, from which transport conveyor the parcel is to be picked up, and in a case where the parcel is present in the specific area (A-E), the processor instructs to project the projection image, and in a case where the parcel is in another partitioned area (A-E) than the specific area (A-E), the processor instructs - not to project the projection image to the parcel or - to project a projection image changed as compared to the projection image projected in a case where the parcel is present in the specific area (A-E). a processor; and a memory, characterized in that, by cooperating with the memory, the processor determines a specific area (A-E) in which the parcel is to be picked up based on the parcel identification information specifying the parcel, among a plurality of partitioned areas (A-E) each of which is included in a projection area, the partitioned areas (A-E) being defined by specific lengths of the transport conveyor in a transport direction, from which transport conveyor the parcel is to be picked up, and in a case where the parcel is present in the specific area (A-E), the processor instructs to project the projection image, and in a case where the parcel is in another partitioned area (A-E) than the specific area (A-E), the processor instructs - not to project the projection image to the parcel or - to project a projection image changed as compared to the projection image projected in a case where the parcel is present in the specific area (A-E). - not to project the projection image to the parcel or - to project a projection image changed as compared to the projection image projected in a case where the parcel is present in the specific area (A-E).
A spoke wheel comprising: a hub supported on a laterally extending wheel shaft and on which a driving force and a braking force may be applied, a rim on which a tire may be fitted, and a plurality of spokes (40, 50) connecting the rim to said hub, characterized in that, said spokes (40, 50) are of at least two kinds, including: a short elbow spoke including: a straight line portion; a short elbow formed by bending the one end of the straight line portion; and a head formed on the tip of the short elbow; and a long elbow spoke including: a straight line portion; a long elbow formed by bending the one end of the straight line portion, which is longer than said short elbow in order to avoid interfering with the short elbow spoke; and a head formed on the tip of the long elbow; spoke fastening walls (22L, 22R) with a plurality of spoke holes (24L, 24R) are provided on said hub for engaging said short elbow and said long elbow, said short elbow and said long elbow are engaged with adjacent said spoke holes (24L, 24R) in a side view of the vehicle, simultaneously, said short elbow spoke and said long elbow spoke being arranged so as to cross in a side view of the vehicle, and said short elbow spoke and said long elbow spoke are respectively disposed such that said short elbow spoke receives the braking force and said long elbow spoke receives the driving force. a hub supported on a laterally extending wheel shaft and on which a driving force and a braking force may be applied, a rim on which a tire may be fitted, and a plurality of spokes (40, 50) connecting the rim to said hub, characterized in that, said spokes (40, 50) are of at least two kinds, including: a short elbow spoke including: a straight line portion; a short elbow formed by bending the one end of the straight line portion; and a head formed on the tip of the short elbow; and a long elbow spoke including: a straight line portion; a long elbow formed by bending the one end of the straight line portion, which is longer than said short elbow in order to avoid interfering with the short elbow spoke; and a head formed on the tip of the long elbow; a short elbow spoke including: a straight line portion; a short elbow formed by bending the one end of the straight line portion; and a head formed on the tip of the short elbow; and a long elbow spoke including: a straight line portion; a long elbow formed by bending the one end of the straight line portion, which is longer than said short elbow in order to avoid interfering with the short elbow spoke; and a head formed on the tip of the long elbow; spoke fastening walls (22L, 22R) with a plurality of spoke holes (24L, 24R) are provided on said hub for engaging said short elbow and said long elbow, said short elbow and said long elbow are engaged with adjacent said spoke holes (24L, 24R) in a side view of the vehicle, simultaneously, said short elbow spoke and said long elbow spoke being arranged so as to cross in a side view of the vehicle, and said short elbow spoke and said long elbow spoke are respectively disposed such that said short elbow spoke receives the braking force and said long elbow spoke receives the driving force.
A computer-implemented method comprising: receiving data comprising at least a portion of a program; identifying and retrieving entry point locations and execution-relevant metadata of the program; identifying, using disassembly, regions of code within the program based on the identified entry point locations and the metadata; determining entry points for each of a plurality of functions; generating a set of possible call sequences for each function based on the determined entry points for the plurality of functions, the set of possible call sequences comprising application programming interface API calls and subfunction calls; and generating an API call graph characterizing the generated set of possible call sequences. receiving data comprising at least a portion of a program; identifying and retrieving entry point locations and execution-relevant metadata of the program; identifying, using disassembly, regions of code within the program based on the identified entry point locations and the metadata; determining entry points for each of a plurality of functions; generating a set of possible call sequences for each function based on the determined entry points for the plurality of functions, the set of possible call sequences comprising application programming interface API calls and subfunction calls; and generating an API call graph characterizing the generated set of possible call sequences.
A method for in vitro diagnosing infection by a Mycobacterium species in a subject, said method comprising: incubating a blood sample comprising lymphocytes from said subject in the presence of a peptide fragment comprising or consisting of amino acid sequence TAWITAVVPGLMV (SEQ ID NO:24) for a time and under conditions sufficient to stimulate the lymphocytes to produce an effector molecule, and wherein the presence or level of the effector molecule is indicative of the lymphocytes derived from a subject infected with or prior exposed to the Mycobacterium species.
A composite oxide comprising cerium and at least one element selected from aluminum, silicon, or rare earth metals other than cerium and including yttrium, at a mass ratio of 85:15 to 99:1 in terms of oxides, wherein the composite oxide has a cerium content of 85 mass% or more and less than 99 mass% in terms of CeO 2, and has a property of exhibiting a not less than 0.30 cm 3 /g volume of pores with a diameter of not larger than 200 nm, after calcination at 900 °C for 5 hours.
A method (1300; 1400) for recovering data from a received signal comprising a first user pilot and an interference signal, the method comprising: generating a first-pass pilot estimate from the received signal as an estimate of the received first user pilot (1204; 1304; 1410); cancelling the first-pass pilot estimate from the received signal to generate a first cancelled signal (1206; 1306; 1420); estimating the interference signal from the first cancelled signal to generate an interference estimate; cancelling the interference estimate from the first cancelled signal to generate an interference-cancelled signal; adding the first-pass pilot estimate to the interference-cancelled signal to generate a reconstructed signal; re-estimating the received pilot from the reconstructed signal to generate a second-pass pilot estimate; and demodulating a signal derived from the received signal using the second-pass pilot estimate to recover data from the received signal (1212; 1310; 1460). generating a first-pass pilot estimate from the received signal as an estimate of the received first user pilot (1204; 1304; 1410); cancelling the first-pass pilot estimate from the received signal to generate a first cancelled signal (1206; 1306; 1420); estimating the interference signal from the first cancelled signal to generate an interference estimate; cancelling the interference estimate from the first cancelled signal to generate an interference-cancelled signal; adding the first-pass pilot estimate to the interference-cancelled signal to generate a reconstructed signal;
A tiltrotor aircraft comprising: a rotor system (110a, 110b); a pylon (102a, 102b) coupled to the rotor system (110a, 110b); a spindle coupled to the pylon (102a, 102b); an actuator arm coupled to the spindle, wherein the spindle comprises a splined portion and the actuator arm comprises mating grooves that mate with the splined portion to transfer torque from the actuator arm to the spindle; and an actuator coupled to the actuator arm, wherein the actuator causes the spindle to rotate the pylon (102a, 102b) and the rotor system (110a, 110b); wherein the spindle is partially located in a wing of the tiltrotor aircraft and the actuator arm and actuator are outside and proximate to the wing, and the tiltrotor aircraft further comprises a down stop mounted to an end of the wing, wherein the down stop includes a down stop striker, and wherein the actuator arm includes a down stop block that has a profile that mates with a profile of the down stop striker. a rotor system (110a, 110b); a pylon (102a, 102b) coupled to the rotor system (110a, 110b); a spindle coupled to the pylon (102a, 102b); an actuator arm coupled to the spindle, wherein the spindle comprises a splined portion and the actuator arm comprises mating grooves that mate with the splined portion to transfer torque from the actuator arm to the spindle; and an actuator coupled to the actuator arm, wherein the actuator causes the spindle to rotate the pylon (102a, 102b) and the rotor system (110a, 110b); wherein the spindle is partially located in a wing of the tiltrotor aircraft and the actuator arm and actuator are outside and proximate to the wing, and the tiltrotor aircraft further comprises a down stop mounted to an end of the wing, wherein the down stop includes a down stop striker, and wherein the actuator arm includes a down stop block that has a profile that mates with a profile of the down stop striker.
A control apparatus for an internal combustion engine that is equipped with an exhaust gas treatment device that is provided in an exhaust passage, and a burner device that is provided in the exhaust passage upstream of the exhaust gas treatment device so as to raise a temperature of exhaust gas supplied to the exhaust gas treatment device and is for use with an auxiliary (41, 42, 43) that is to be driven by the internal combustion engine, characterized in that the control apparatus is configured to perform an increase control for increasing a concentration of oxygen in exhaust gas supplied to the burner device when the concentration of oxygen in exhaust gas supplied to the burner device is not higher than a predetermined required concentration of oxygen and there is a request to operate the burner device, wherein the increase control includes a first control for restricting operation of the auxiliary (41, 42, 43) that is driven by the internal combustion engine so as to increase the concentration of oxygen in exhaust gas supplied to the burner device.
A motor driving control apparatus for an electrically assisted bicycle, comprising: a driving unit that drives a motor; and a regeneration control unit that controls the driving unit so as to generate a regenerative braking force in accordance with a vehicle acceleration (Af), a vehicle speed (Vf) and a pedal-rotation converted speed that is obtained by converting a pedal rotation speed, characterized in that the regeneration control unit corrects a regenerative braking force that corresponds to at least one of the vehicle speed (Vf) and the vehicle acceleration (Af) according to a coincidence degree that is expressed as the pedal-rotation converted speed divided by the vehicle speed (Vf), and the regeneration control unit performs the correction so that the regenerative braking force that corresponds to at least one of the vehicle speed (Vf) and the vehicle acceleration (Af) increases, when the coincidence degree decreases. a driving unit that drives a motor; and a regeneration control unit that controls the driving unit so as to generate a regenerative braking force in accordance with a vehicle acceleration (Af), a vehicle speed (Vf) and a pedal-rotation converted speed that is obtained by converting a pedal rotation speed, characterized in that the regeneration control unit corrects a regenerative braking force that corresponds to at least one of the vehicle speed (Vf) and the vehicle acceleration (Af) according to a coincidence degree that is expressed as the pedal-rotation converted speed divided by the vehicle speed (Vf), and the regeneration control unit performs the correction so that the regenerative braking force that corresponds to at least one of the vehicle speed (Vf) and the vehicle acceleration (Af) increases, when the coincidence degree decreases.
An intervertebral implant for implantation in an intervertebral space between adjacent vertebrae, the implant comprising: - a frame having a front portion, a first arm extending from a first end of the front portion, and a second arm extending from a second end of the front portion; and - at least one endplate including at least one outer surface having a contact area configured to engage adjacent vertebrae, the at least one endplate being affixed to the frame such that the at least one endplate contacts at least a portion of the plurality arms - and further comprising a support member positioned centrally between the first and second arms, - wherein the first and second arms (1354a 1354b) join together at a rear portion of the frame to form a ring-like structure divided into halves by the support member; characterized in that - the front portion at least partially defines at least one fastener aperture sized and dimensioned for receiving a fastener; and the support member defines at least one opening having a perimeter sized to retain a corresponding protrusion on the at least one endplate. - a frame having a front portion, a first arm extending from a first end of the front portion, and a second arm extending from a second end of the front portion; and - at least one endplate including at least one outer surface having a contact area configured to engage adjacent vertebrae, the at least one endplate being affixed to the frame such that the at least one endplate contacts at least a portion of the plurality arms - and further comprising a support member positioned centrally between the first and second arms, - wherein the first and second arms (1354a 1354b) join together at a rear portion of the frame to form a ring-like structure divided into halves by the support member; - the front portion at least partially defines at least one fastener aperture sized and dimensioned for receiving a fastener; and the support member defines at least one opening having a perimeter sized to retain a corresponding protrusion on the at least one endplate.
A method of reporting a status for a data flow, the method being performed by a user equipment, UE, and comprising: determining the data flow is being received from a plurality of base stations (120, 130) on a plurality of connections, wherein the plurality of connections is from a core network to the UE via the plurality of base stations (120, 130) and forms a duplicate-delivery bearer for transmissions of the same data packet on at least two of the plurality of connections; receiving a packet on the data flow from at least one of the plurality of base stations (120, 130) via at least one of the plurality of connections; determining that the packet was received via a duplicate-delivery bearer of the at least one of the plurality of connections; and reporting to the plurality of base stations (120, 130) based on the determination that the packet was received via the duplicate-delivery bearer, a status for the packet received on the data flow, the status indicating to the plurality of base stations (120, 130) receipt of the packet and to flush a duplicate of the packet. determining the data flow is being received from a plurality of base stations (120, 130) on a plurality of connections, wherein the plurality of connections is from a core network to the UE via the plurality of base stations (120, 130) and forms a duplicate-delivery bearer for transmissions of the same data packet on at least two of the plurality of connections; receiving a packet on the data flow from at least one of the plurality of base stations (120, 130) via at least one of the plurality of connections; determining that the packet was received via a duplicate-delivery bearer of the at least one of the plurality of connections; and reporting to the plurality of base stations (120, 130) based on the determination that the packet was received via the duplicate-delivery bearer, a status for the packet received on the data flow, the status indicating to the plurality of base stations (120, 130) receipt of the packet and to flush a duplicate of the packet.