mhurhangee/patent-ind-claim-en huggingface dataset:
A printing apparatus comprising: sheet holding means for holding sheets; setting means for setting information on sheets held by the sheet holding means; printing means for printing images based on the information on sheets set by the setting means; and control means configured to control a display unit to display, in a case that a job that uses the sheet holding means has been interrupted when sheets are placed on the sheet holding means, information on sheets used by the job and a prompt to confirm whether or not the displayed information is appropriate for the sheets placed on the sheet holding means, and configured to control, in a case that a job that uses the sheet holding means has been interrupted when sheets are placed on the sheet holding means and that the displayed information is confirmed as appropriate for the sheets placed on the sheet holding means, the printing means to perform printing based on the displayed information. sheet holding means for holding sheets; setting means for setting information on sheets held by the sheet holding means; printing means for printing images based on the information on sheets set by the setting means; and control means configured to control a display unit to display, in a case that a job that uses the sheet holding means has been interrupted when sheets are placed on the sheet holding means, information on sheets used by the job and a prompt to confirm whether or not the displayed information is appropriate for the sheets placed on the sheet holding means, and configured to control, in a case that a job that uses the sheet holding means has been interrupted when sheets are placed on the sheet holding means and that the displayed information is confirmed as appropriate for the sheets placed on the sheet holding means, the printing means to perform printing based on the displayed information.
A user equipment, UE , for communicating cellular data and control traffic, the UE comprising circuitry configured to: communicate cellular data traffic with an evolved universal terrestrial radio access network node B, eNB , through an air interface of a long term evolution, LTE, wireless network; establish in a wireless local area network, WLAN, a WLAN point-to-point communication link with the eNB via a WLAN Access Point, AP for communication of the cellular data traffic with the eNB through the WLAN point-to-point communication link , wherein the WLAN AP is networked with the eNB using a wired or wireless connection or is an integral component of the eNB ; and communicate the cellular data traffic to the eNB through the WLAN point-to-point communication link ; characterized in that the circuitry is further configured to split the cellular data traffic from LTE wireless network traffic below an Internet Protocol, IP, layer of a protocol stack , and to communicate the cellular data traffic through the WLAN point-to-point communication link in WLAN tunneling protocol, WLTP, tunneling layers (220, 210; 320, 310; 520, 510; 720, 710) of the protocol stack defined below the IP layer and directly below a packet data convergence protocol, PDCP, layer of the protocol stack , wherein the WLTP tunneling layers (220, 210; 320, 310; 520, 510; 720, 710) include a WLTP transport layer encapsulated by a WLTP encapsulation layer . communicate cellular data traffic with an evolved universal terrestrial radio access network node B, eNB , through an air interface of a long term evolution, LTE, wireless network; establish in a wireless local area network, WLAN, a WLAN point-to-point communication link with the eNB via a WLAN Access Point, AP for communication of the cellular data traffic with the eNB through the WLAN point-to-point communication link , wherein the WLAN AP is networked with the eNB using a wired or wireless connection or is an integral component of the eNB ; and communicate the cellular data traffic to the eNB through the WLAN point-to-point communication link ; characterized in that the circuitry is further configured to split the cellular data traffic from LTE wireless network traffic below an Internet Protocol, IP, layer of a protocol stack , and to communicate the cellular data traffic through the WLAN point-to-point communication link in WLAN tunneling protocol, WLTP, tunneling layers (220, 210; 320, 310; 520, 510; 720, 710) of the protocol stack defined below the IP layer and directly below a packet data convergence protocol, PDCP, layer of the protocol stack , wherein the WLTP tunneling layers (220, 210; 320, 310; 520, 510; 720, 710) include a WLTP transport layer encapsulated by a WLTP encapsulation layer .
A computer-implemented method of kinematic motion planning, the method comprising: accessing a list of a plurality of nodes defining a plurality of potential kinematic path locations between a starting position and an ending position of a vehicle which is an aircraft; characterized by determining a plurality of constraint sets that apply one or more vehicle motion constraints specific to each of a plurality of spatial regions defined between the starting position and the ending position, wherein the constraint sets comprise one or more limits on a maximum acceleration, a turn rate, and a climb rate of the vehicle; applying the constraint sets in determining a plurality of connections between the nodes to form a kinematic motion path based on locations of the nodes relative to the spatial regions, the kinematic motion path including the plurality of connections between the nodes as path options for a dynamic path planner to determine a motion path plan for the vehicle; and outputting the kinematic motion path to the dynamic path planner to complete creation of the motion path plan for the vehicle, wherein the dynamic path planner applies dynamic motion planning inputs to the kinematic motion path to create the motion path plan, the dynamic motion planning inputs including at least one of vehicle speed, position, and motion constraints. accessing a list of a plurality of nodes defining a plurality of potential kinematic path locations between a starting position and an ending position of a vehicle which is an aircraft; characterized by determining a plurality of constraint sets that apply one or more vehicle motion constraints specific to each of a plurality of spatial regions defined between the starting position and the ending position, wherein the constraint sets comprise one or more limits on a maximum acceleration, a turn rate, and a climb rate of the vehicle; applying the constraint sets in determining a plurality of connections between the nodes to form a kinematic motion path based on locations of the nodes relative to the spatial regions, the kinematic motion path including the plurality of connections between the nodes as path options for a dynamic path planner to determine a motion path plan for the vehicle; and outputting the kinematic motion path to the dynamic path planner to complete creation of the motion path plan for the vehicle, wherein the dynamic path planner applies dynamic motion planning inputs to the kinematic motion path to create the motion path plan, the dynamic motion planning inputs including at least one of vehicle speed, position, and motion constraints.
An engine , comprising: a cylinder including a cylinder liner (L); a piston provided inside the cylinder liner (L); and a piston ring provided on the piston ; characterized by a detector (Sa, Sb) configured to output a detection signal in accordance with a contact between a step (La) formed in an inner peripheral surface of the cylinder liner (L) and the piston ring ; and a compression ratio controller configured to control a top dead center position or a bottom dead center position of the piston in accordance with the detection signal to a position at which the piston ring is located beyond the step (La). a cylinder including a cylinder liner (L); a piston provided inside the cylinder liner (L); and a piston ring provided on the piston ; characterized by a detector (Sa, Sb) configured to output a detection signal in accordance with a contact between a step (La) formed in an inner peripheral surface of the cylinder liner (L) and the piston ring ; and a compression ratio controller configured to control a top dead center position or a bottom dead center position of the piston in accordance with the detection signal to a position at which the piston ring is located beyond the step (La).
Food casing consisting of a two-dimensional fibre structure which is coated on one or both sides with acrylic resin, wherein the fibre structure is coated with acrylic resin and at least one other polymer on the side facing the food and the casing has an H 2 O permeation of 30 to 600 1/m 2 d and is permeable to smoke components, wherein the other polymer is blended with the acrylic resin and is a polyvinylpyrrolidone or a copolymer having vinylpyrrolidone units, a homopolymer or copolymer of or comprising units of vinyl alcohol, a polyalkylene glycol, a polyacrylamide or a protein, wherein the food casing is tubular and has at least one longitudinal seam.
A method, performed by a wearable computing device (100; 200; 1000) comprising at least one bio-signal measuring sensor (110, 120, 130, 150; 210, 220, 230, 250; 510; 1010, 1040), and at least one eye-tracking sensor, the at least one bio-signal measuring sensor including at least one brainwave sensor, comprising: displaying at least one image on a display; acquiring at least one bio-signal measurement from a user using the at least one bio-signal measuring sensor, the at least one bio-signal measurement comprising at least one brainwave state measurement; measuring eye activity comprising at least one eye-tracking measurement using the at least one eye-tracking sensor; determining from the measured eye activity the presence or absence of a pattern in the eye movement; processing the at least one bio-signal measurement, including at least the at least one brainwave state measurement, in accordance with a profile associated with the user; determining a bio-signal correspondence between the processed at least one bio-signal measurement and at least one predefined device control action; and in accordance with the bio-signal correspondence determination and the determination of the presence or absence of the pattern in the eye movement, controlling operation of at least one component of the wearable computing device by modifying or initiating the modification of the at least one image displayed on the display, characterised by the said controlling operation being performed only when absence of the pattern in eye movement was determined. displaying at least one image on a display; acquiring at least one bio-signal measurement from a user using the at least one bio-signal measuring sensor, the at least one bio-signal measurement comprising at least one brainwave state measurement; measuring eye activity comprising at least one eye-tracking measurement using the at least one eye-tracking sensor; determining from the measured eye activity the presence or absence of a pattern in the eye movement; processing the at least one bio-signal measurement, including at least the at least one brainwave state measurement, in accordance with a profile associated with the user; determining a bio-signal correspondence between the processed at least one bio-signal measurement and at least one predefined device control action; and in accordance with the bio-signal correspondence determination and the determination of the presence or absence of the pattern in the eye movement, controlling operation of at least one component of the wearable computing device by modifying or initiating the modification of the at least one image displayed on the display, characterised by the said controlling operation being performed only when absence of the pattern in eye movement was determined.
LED converter for operating a load consisting of at least one LED strip having at least one LED, preferably a plurality of LEDs, the LED converter comprising, on the primary side, a resonant converter which is supplied with a DC voltage (V bus ) and has a half bridge which is formed with two alternately clocked switches (S1, S2) and provides a supply voltage for the LED strip via a series/parallel resonant circuit connected at its center point, the LED converter having a control unit which, in order to control the power transmitted by the LED converter to the LED strip, as a fed-back actual value in each switch-on cycle of the lower-potential switch (S1), is designed to directly or indirectly determine a peak value (Max) of a current (I sense ) through a lower-potential switch (S1) of the half bridge, and to set the clocking, i.e. the frequency (f sw ) and/or the duty cycle, of the half bridge as a control variable, characterized in that the control unit is designed to identify a secondary-side fault state, in particular a short circuit, when the detected peak value (Max) reaches a threshold value. and has a half bridge which is formed with two alternately clocked switches (S1, S2) and provides a supply voltage for the LED strip via a series/parallel resonant circuit connected at its center point, the LED converter having a control unit which, in order to control the power transmitted by the LED converter to the LED strip, as a fed-back actual value in each switch-on cycle of the lower-potential switch (S1), is designed to directly or indirectly determine a peak value (Max) of a current (I sense ) through a lower-potential switch (S1) of the half bridge, and to set the clocking, i.e. the frequency (f sw ) and/or the duty cycle, of the half bridge as a control variable, characterized in that the control unit is designed to identify a secondary-side fault state, in particular a short circuit, when the detected peak value (Max) reaches a threshold value.
A substance determining apparatus for determining a substance within a fluid , the substance determining apparatus comprising: particles for being attached to the substance within the fluid , a binding surface for binding the particles , if the particles have been attached to the substance, a sensing unit for sensing the particles within a sensing region on the binding surface , wherein the sensing unit is adapted to generate a sensing signal depending on the particles in the sensing region, a location event determination unit for determining location events indicating that a particle is located in the sensing region and a property of the location events from the generated sensing signal, a location events selection unit for selecting a part of the location events having a property in a predefined property range, and a substance determination unit for determining the substance within the fluid based on the selected part of the location events, wherein the location events determination unit is adapted to determine the following properties of the respective location event: lifetime, starting moment, and ending moment, wherein the sensing unit is adapted such that the generated sensing signal is indicative of starting moments and ending moments of location events and wherein the location event determination unit is adapted to determine the lifetimes of location events by determining the starting moments and the ending moments of the location events from the generated sensing signal. particles for being attached to the substance within the fluid , a binding surface for binding the particles , if the particles have been attached to the substance, a sensing unit for sensing the particles within a sensing region on the binding surface , wherein the sensing unit is adapted to generate a sensing signal depending on the particles in the sensing region, a location event determination unit for determining location events indicating that a particle is located in the sensing region and a property of the location events from the generated sensing signal, a location events selection unit for selecting a part of the location events having a property in a predefined property range, and a substance determination unit for determining the substance within the fluid based on the selected part of the location events, wherein the location events determination unit is adapted to determine the following properties of the respective location event: lifetime, starting moment, and ending moment, wherein the sensing unit is adapted such that the generated sensing signal is indicative of starting moments and ending moments of location events and wherein the location event determination unit is adapted to determine the lifetimes of location events by determining the starting moments and the ending moments of the location events from the generated sensing signal.
A method for calibrating a magnetic position sensor that determines the position of a linearly movable sliding element relative to a housing of the magnetic position sensor , wherein the sliding element is successively brought into several known calibration positions, the respective position measured by the magnetic position sensor is compared with the known calibration position and in each case a position difference is determined which is compensated for in future measurements, characterized in that the calibration is triggered by the magnetic position sensor in that the magnetic position sensor recognizes a pattern of calibration positions it is successively brought into.
Honing machine for carrying out honing operations on boreholes oriented orthogonally with respect to one another in a workpiece , in particular for honing processing of cylinder boreholes and a bearing gate borehole in a cylinder crank casing, having: a machine base ; a round table which is arranged on the machine base and which can rotate about a vertical round table axis and has a plurality of workpiece receptacles which are arranged offset with respect to one another in a circumferential direction at a radial distance from the round table axis, in such a way that a workpiece which is held in a workpiece receptacle can be transported successively to different work stations of the honing machine by rotating the round table; wherein at least one of the workstations is a vertical honing station which has at least one vertical honing unit which has a honing spindle which can move back and forth in the direction of a spindle axis, which is oriented parallel to the round table axis, rotatably about said spindle axis; and at least one of the workstations is a horizontal honing station which has at least one horizontal honing unit which has a honing spindle which can move back and forth in the direction of a horizontal spindle axis , rotatably about said spindle axis, wherein the horizontal honing unit is positioned or can be positioned with respect to the round table in such a way that the horizontal honing unit assumes a processing position in which the horizontal spindle axis is oriented radially with respect to the round table axis . a machine base ; a round table which is arranged on the machine base and which can rotate about a vertical round table axis and has a plurality of workpiece receptacles which are arranged offset with respect to one another in a circumferential direction at a radial distance from the round table axis, in such a way that a workpiece which is held in a workpiece receptacle can be transported successively to different work stations of the honing machine by rotating the round table; wherein at least one of the workstations is a vertical honing station which has at least one vertical honing unit which has a honing spindle which can move back and forth in the direction of a spindle axis, which is oriented parallel to the round table axis, rotatably about said spindle axis; and at least one of the workstations is a horizontal honing station which has at least one horizontal honing unit which has a honing spindle which can move back and forth in the direction of a horizontal spindle axis , rotatably about said spindle axis, wherein the horizontal honing unit is positioned or can be positioned with respect to the round table in such a way that the horizontal honing unit assumes a processing position in which the horizontal spindle axis is oriented radially with respect to the round table axis .
A fluorescent screen configured to convert an X-ray into visible light, comprising a gadolinium oxysulfide phosphor activated with praseodymium and cerium, wherein the phosphor contains praseodymium having a concentration of 0.01 mass% or more and 0.3 mass% or less to a total of the phosphor and cerium having a concentration of 5 ppm or more and 30 ppm or less to the total of the phosphor, wherein an average particle diameter of the phosphor is 10 μm or more and 20 μm or less, and wherein a weight per unit area of the phosphor is 270 mg/cm 2 or more and 380 mg/cm 2 or less. a gadolinium oxysulfide phosphor activated with praseodymium and cerium, wherein the phosphor contains praseodymium having a concentration of 0.01 mass% or more and 0.3 mass% or less to a total of the phosphor and cerium having a concentration of 5 ppm or more and 30 ppm or less to the total of the phosphor, wherein an average particle diameter of the phosphor is 10 μm or more and 20 μm or less, and wherein a weight per unit area of the phosphor is 270 mg/cm 2 or more and 380 mg/cm 2 or less.
A thermoplastic resin composition comprising a copolymer and a thermoplastic resin, wherein the copolymer comprises an aromatic vinyl-based monomer unit and a vinyl cyan-based monomer unit, wherein the heating residue calculated by Equation 1 below is 97.6% or more: Heating residue (%) = (weight of copolymer after staying in oven / weight of copolymer before staying in oven) × 100 wherein, in Equation 1 above, the staying in the oven is performed at 250 °C for 2 hours, wherein the copolymer has a standard deviation of 0.20 or less of the content of the vinyl cyan-based monomer unit in the copolymer, the content being measured as the polymerization time changes during the polymerization, and wherein the copolymer is obtainable by a method comprising step (S10) for adding aromatic vinyl-based monomers and vinyl cyan-based monomers to perform polymerization in the presence of polymerization initiators, wherein the polymerization initiators comprise at least two different kinds of polymerization initiators, and part or all of the aromatic vinyl-based monomers are continuously divisionally added during the polymerization in step (S10). wherein the copolymer comprises an aromatic vinyl-based monomer unit and a vinyl cyan-based monomer unit, wherein the heating residue calculated by Equation 1 below is 97.6% or more: Heating residue (%) = (weight of copolymer after staying in oven / weight of copolymer before staying in oven) × 100 wherein, in Equation 1 above, the staying in the oven is performed at 250 °C for 2 hours, wherein the copolymer has a standard deviation of 0.20 or less of the content of the vinyl cyan-based monomer unit in the copolymer, the content being measured as the polymerization time changes during the polymerization, and wherein the copolymer is obtainable by a method comprising step (S10) for adding aromatic vinyl-based monomers and vinyl cyan-based monomers to perform polymerization in the presence of polymerization initiators, wherein the polymerization initiators comprise at least two different kinds of polymerization initiators, and part or all of the aromatic vinyl-based monomers are continuously divisionally added during the polymerization in step (S10).