mhurhangee/patent-ind-claim-en huggingface dataset:
Stretch blow method for forming a sharp edge on a container - wherein the method has the following steps: - introducing a preform into a cavity of a blow mold , wherein the cavity has a top region , a center region , and a bottom region and wherein, when the blow mold is closed, the center region can be moved relative to the top region and/or relative to the bottom region , - inflating the preform to form a container, - relative movement of the center region to the top region and/or to the bottom region , such that the container is compressed at least in a region for forming the edge. - introducing a preform into a cavity of a blow mold , wherein the cavity has a top region , a center region , and a bottom region and wherein, when the blow mold is closed, the center region can be moved relative to the top region and/or relative to the bottom region , - inflating the preform to form a container, - relative movement of the center region to the top region and/or to the bottom region , such that the container is compressed at least in a region for forming the edge.
An industrial process differential pressure sensing device comprising: a housing including a first isolation cavity and a fill fluid contained in the first isolation cavity , and a second isolation cavity and a fill fluid contained in the second isolation cavity ; a first isolation diaphragm configured to seal a process interface of the first isolation cavity from a process medium ; a second isolation diaphragm configured to seal a process interface of the second isolation cavity from the process medium ; a static pressure sensor configured to output a static pressure signal that is based on a pressure of the fill fluid in the first isolation cavity ; a first eddy current displacement sensor configured to output a first position signal indicative of a position of the first isolation diaphragm relative to the housing ; a differential pressure sensor exposed to sensor interfaces of the first and second isolation cavities and configured to output a differential pressure signal that is indicative of a difference in pressure between the fill fluids in the first and second isolation cavities ; and a controller configured to detect a loss of a seal of the first isolation cavity based on the first position signal , the static pressure signal and the differential pressure signal . a housing including a first isolation cavity and a fill fluid contained in the first isolation cavity , and a second isolation cavity and a fill fluid contained in the second isolation cavity ; a first isolation diaphragm configured to seal a process interface of the first isolation cavity from a process medium ; a second isolation diaphragm configured to seal a process interface of the second isolation cavity from the process medium ; a static pressure sensor configured to output a static pressure signal that is based on a pressure of the fill fluid in the first isolation cavity ; a first eddy current displacement sensor configured to output a first position signal indicative of a position of the first isolation diaphragm relative to the housing ; a differential pressure sensor exposed to sensor interfaces of the first and second isolation cavities and configured to output a differential pressure signal that is indicative of a difference in pressure between the fill fluids in the first and second isolation cavities ; and a controller configured to detect a loss of a seal of the first isolation cavity based on the first position signal , the static pressure signal and the differential pressure signal .
Method of manufacturing an object having an integrated contactless microcircuit (IC1, IC2, IC3), the method comprising the steps of: forming an antenna coil (AT1, AT2, AT7) in the shape of a spiral on a first side of a substrate (TG3-TG6, TG12, TG13), the antenna coil comprising an end inside the spiral and an end outside the spiral, providing a contactless microcircuit (IC1, IC2, IC3) comprising connection terminals, forming, on the first side of the substrate, first (E2, E5, E22) and second (E4, E6, E9, E11, E24) conductive pads connected to the inner and outer ends of the antenna coil, respectively, and fixing the microcircuit on the substrate by connecting the connection terminals of the microcircuit to third (E2', E5', E22') and fourth (E4', E25) conductive pads, the second and fourth conductive pads being arranged opposite one another so as to form a capacitor connected in series with the antenna coil, the method further comprising a step of forming the third conductive pad (E2', E5', E22') on a second side of the substrate (TG3-TG6, TG12, TG13) opposite the first conductive pad (E2, E5, E22) so as to form, together with the first conductive pad, a capacitor connected in series with the antenna coil, characterized in that the second conductive pad (E4) comprises a non-conductive window opposite which the microcircuit (IC3) is placed. forming an antenna coil (AT1, AT2, AT7) in the shape of a spiral on a first side of a substrate (TG3-TG6, TG12, TG13), the antenna coil comprising an end inside the spiral and an end outside the spiral, providing a contactless microcircuit (IC1, IC2, IC3) comprising connection terminals, forming, on the first side of the substrate, first (E2, E5, E22) and second (E4, E6, E9, E11, E24) conductive pads connected to the inner and outer ends of the antenna coil, respectively, and fixing the microcircuit on the substrate by connecting the connection terminals of the microcircuit to third (E2', E5', E22') and fourth (E4', E25) conductive pads, the second and fourth conductive pads being arranged opposite one another so as to form a capacitor connected in series with the antenna coil, the method further comprising a step of forming the third conductive pad (E2', E5', E22') on a second side of the substrate (TG3-TG6, TG12, TG13) opposite the first conductive pad (E2, E5, E22) so as to form, together with the first conductive pad, a capacitor connected in series with the antenna coil, characterized in that the second conductive pad (E4) comprises a non-conductive window opposite which the microcircuit (IC3) is placed.
A method for prediction or diagnosis of a liver fibrosis in non-alcoholic fatty liver disease (NAFLD), the method comprising a measurement step of measuring the expression of a nucleic acid sequence encoding a growth differentiation factor 15 (GDF15) protein or the concentration of the GDF15 protein in a sample, wherein said expression or said concentration indicates the liver fibrosis.
An orally disintegrating tablet that is (a) a compression molding product of a mixture comprising pharmaceutically active ingredient-containing granules; rapidly disintegrating granules; and a lubricant, (b) wherein the rapidly disintegrating granules contain mannitol, and organic and inorganic, hydrophilic and water-insoluble additives, (i) wherein the organic, hydrophilic and water-insoluble additives contained in said rapidly disintegrating granules are starch, crospovidone, and ethyl cellulose, and (ii) wherein the inorganic, hydrophilic and water-insoluble additive is light anhydrous silicic acid or magnesium aluminometasilicate, and wherein the proportion of the rapidly disintegrating granules in the total amount of the pharmaceutically active ingredient-containing granules and the rapidly disintegrating granules is 45-70 weight %. (a) a compression molding product of a mixture comprising pharmaceutically active ingredient-containing granules; rapidly disintegrating granules; and a lubricant, (b) wherein the rapidly disintegrating granules contain mannitol, and organic and inorganic, hydrophilic and water-insoluble additives, (i) wherein the organic, hydrophilic and water-insoluble additives contained in said rapidly disintegrating granules are starch, crospovidone, and ethyl cellulose, and (ii) wherein the inorganic, hydrophilic and water-insoluble additive is light anhydrous silicic acid or magnesium aluminometasilicate, and wherein the proportion of the rapidly disintegrating granules in the total amount of the pharmaceutically active ingredient-containing granules and the rapidly disintegrating granules is 45-70 weight %. (i) wherein the organic, hydrophilic and water-insoluble additives contained in said rapidly disintegrating granules are starch, crospovidone, and ethyl cellulose, and (ii) wherein the inorganic, hydrophilic and water-insoluble additive is light anhydrous silicic acid or magnesium aluminometasilicate, and wherein the proportion of the rapidly disintegrating granules in the total amount of the pharmaceutically active ingredient-containing granules and the rapidly disintegrating granules is 45-70 weight %.
A method for operating a printing apparatus for printing at least a first and a second image on a recording medium in a plurality of swaths , each swath being printed by a print head that reciprocates in a scanning direction; the print head being configured to apply marking material to the recording medium in accordance with a first set of image lines for each swath to be printed; the first set of image lines being provided to the print head from a swath buffer ; wherein the first set of image lines are transmitted to the swath buffer out of a second set of image lines stored in a line buffer , wherein the second set of image lines in the line buffer is to be printed without interruption; wherein the line buffer is fed with image lines of a first bitmap (BM1) representing the first image and thereafter with image lines of a second bitmap (BM2) representing the second image; wherein, when the line buffer comprises the final image lines of the first bitmap (BM1) while there are still empty data storage sections within the line buffer , and when it is not indicated, by a pausing signal , that the printing of the second image should be halted, the starting image lines of the second bitmap (BM2) are transferred to the empty data storage section of the line buffer .
A method comprising: receiving, by a wireless device from a base station, one or more radio resource control messages comprising configuration parameters of a cell, wherein the configuration parameters comprise: a first preamble received target power value for beam failure recovery associated with the cell; and a second preamble received target power value for random access associated with the cell; based on detecting a beam failure of the cell, transmitting, using a first transmission power that is based on the first preamble received target power value, a first preamble for beam failure recovery associated with the beam failure of the cell; and transmitting, via the cell and using a second transmission power that is based on the second preamble received target power value, a second preamble associated with random access. receiving, by a wireless device from a base station, one or more radio resource control messages comprising configuration parameters of a cell, wherein the configuration parameters comprise: a first preamble received target power value for beam failure recovery associated with the cell; and a second preamble received target power value for random access associated with the cell; a first preamble received target power value for beam failure recovery associated with the cell; and a second preamble received target power value for random access associated with the cell; based on detecting a beam failure of the cell, transmitting, using a first transmission power that is based on the first preamble received target power value, a first preamble for beam failure recovery associated with the beam failure of the cell; and transmitting, via the cell and using a second transmission power that is based on the second preamble received target power value, a second preamble associated with random access.
A vibration apparatus, comprising: a vibration generator including a piezoelectric material, the vibration generator being configured to generate vibration; and a sensor portion disposed at the vibration generator , the sensor portion being configured to sense an environmental parameter change; wherein the vibration generator comprises: at least one vibration structure having a vibration portion including the piezoelectric material; a first protection member disposed at a first surface of the vibration portion ; and a second protection member disposed at a second surface of the vibration portion opposite to the first surface; characterized in that : the sensor portion is disposed at the first protection member and/or at the second protection member , and between the first protection member and the second protection member . a vibration generator including a piezoelectric material, the vibration generator being configured to generate vibration; and a sensor portion disposed at the vibration generator , the sensor portion being configured to sense an environmental parameter change; wherein the vibration generator comprises: at least one vibration structure having a vibration portion including the piezoelectric material; a first protection member disposed at a first surface of the vibration portion ; and a second protection member disposed at a second surface of the vibration portion opposite to the first surface; characterized in that : the sensor portion is disposed at the first protection member and/or at the second protection member , and between the first protection member and the second protection member . at least one vibration structure having a vibration portion including the piezoelectric material; a first protection member disposed at a first surface of the vibration portion ; and a second protection member disposed at a second surface of the vibration portion opposite to the first surface; characterized in that : the sensor portion is disposed at the first protection member and/or at the second protection member , and between the first protection member and the second protection member . the sensor portion is disposed at the first protection member and/or at the second protection member , and between the first protection member and the second protection member .
An actively dampened centerless grinding process for a centerless grinding machine having wheels , between which there is arranged a part to be ground, and heads carrying the wheels , the grinding process comprising: • moving the wheels closer to one another, applying pressure on the part for the grinding thereof, such that vibrations will be generated in the grinding machine due to grinding, • measuring the vibrations due to grinding, and • introducing, depending on said measurement, an active damping force ( F act ) by means of using an inertial actuator such that the vibrations due to grinding are attenuated, characterized by said active damping force ( F act ) being parallel to the force flow of the grinding machine and said inertial actuator acting directly on one of the heads . • moving the wheels closer to one another, applying pressure on the part for the grinding thereof, such that vibrations will be generated in the grinding machine due to grinding, • measuring the vibrations due to grinding, and • introducing, depending on said measurement, an active damping force ( F act ) by means of using an inertial actuator such that the vibrations due to grinding are attenuated,
Method for limiting the ovalization and/or the superimposed tilting of a rolling bearing supporting a drive unit (M), having at least two bearing rings (IR, AR) arranged such that they can rotate relative to each other, which enclose at least one row of rolling elements in a bearing interior and which are spaced apart from each other by an annular gap, wherein the drive unit (M) is arranged in such a way that radial forces acting on the bearing rings (IR, AR) depend on a drive power supplied to the drive unit (M) as motor power, comprising the following steps: - determining a radial deformation of the annular gap between the bearing rings (IR, AR) occurring during the operation of the drive unit (M), by means of at least two distance sensors (S) , - comparing the determined radial deformation with a predefinable limiting value in an evaluation unit (A) and - reducing the motor power supplied to the drive unit (M) by means of a control unit (C) of the drive unit which is connected to the distance sensors (S), if the radial deformation exceeds the predefinable limiting value . - determining a radial deformation of the annular gap between the bearing rings (IR, AR) occurring during the operation of the drive unit (M), by means of at least two distance sensors (S) , - comparing the determined radial deformation with a predefinable limiting value in an evaluation unit (A) and - reducing the motor power supplied to the drive unit (M) by means of a control unit (C) of the drive unit which is connected to the distance sensors (S), if the radial deformation exceeds the predefinable limiting value .
A catheter for use with a catheterization system having a plurality of external magnetic field generators (F1, F2, F3), each generating a position-data magnetic field, the catheter comprising: a distal section adapted for engagement with patient tissue, the distal section having: a proximal portion , a distal portion and a flexible joint between the proximal portion and the distal portion; an internal magnetic field generator (MF) positioned in one of the proximal and distal portions, the internal magnetic field generator generating a pressure-data magnetic field; a first plurality of pressure sensing coils (S 1, S2, S3) and a second plurality of position sensing coils (Sx, Sy) positioned in the other of the proximal and distal portions, the first plurality of sensing coils adapted to sense the pressure-data magnetic field and generate signals representative of data relating to pressure exerted on the distal section when engaged with tissue, the second plurality of sensing coils adapted to sense each of the position-data magnetic field and generate signals representative of data relating to position of the distal section; and characterized by a first lead serially connecting a first pair of a pressure sensing coil and a position sensing coil. a proximal portion , a distal portion and a flexible joint between the proximal portion and the distal portion; an internal magnetic field generator (MF) positioned in one of the proximal and distal portions, the internal magnetic field generator generating a pressure-data magnetic field; a first plurality of pressure sensing coils (S 1, S2, S3) and a second plurality of position sensing coils (Sx, Sy) positioned in the other of the proximal and distal portions, the first plurality of sensing coils adapted to sense the pressure-data magnetic field and generate signals representative of data relating to pressure exerted on the distal section when engaged with tissue, the second plurality of sensing coils adapted to sense each of the position-data magnetic field and generate signals representative of data relating to position of the distal section; and characterized by a first lead serially connecting a first pair of a pressure sensing coil and a position sensing coil.
A communication device comprising: a memory; and a processor configured to: determine a congestion level associated with a communication channel; determine a priority level associated with a packet to be transmitted on the communication channel, wherein the priority level is determined based on a traffic classification associated with the packet; jointly adapt a PHY layer transmission parameter and a MAC layer transmission parameter based on the determined congestion level and the determined priority level; and transmit the packet using the jointly adapted MAC layer transmission parameter at a MAC layer of the communication device and the jointly adapted PHY layer transmission parameter at a PHY layer of the communication device. a memory; and a processor configured to: determine a congestion level associated with a communication channel; determine a priority level associated with a packet to be transmitted on the communication channel, wherein the priority level is determined based on a traffic classification associated with the packet; jointly adapt a PHY layer transmission parameter and a MAC layer transmission parameter based on the determined congestion level and the determined priority level; and transmit the packet using the jointly adapted MAC layer transmission parameter at a MAC layer of the communication device and the jointly adapted PHY layer transmission parameter at a PHY layer of the communication device. determine a congestion level associated with a communication channel; determine a priority level associated with a packet to be transmitted on the communication channel, wherein the priority level is determined based on a traffic classification associated with the packet; jointly adapt a PHY layer transmission parameter and a MAC layer transmission parameter based on the determined congestion level and the determined priority level; and transmit the packet using the jointly adapted MAC layer transmission parameter at a MAC layer of the communication device and the jointly adapted PHY layer transmission parameter at a PHY layer of the communication device.
A wearable radio frequency receiver device, comprising: a receiver antenna configured to receive an interrogation signal from a transmitter; a sensor coupled to the receiver antenna and configured to receive a physiological input from a user wearing the device and generate an analog sensor signal based on the physiological input; and a modulator configured to perform direct frequency modulation on the received interrogation signal based on the analog sensor signal wherein the physiological input is directly encoded in the directly frequency modulated interrogation signal; wherein the receiver antenna is configured to reflect at least a portion of the directly frequency modulated interrogation signal as backscatter radiation carrying the analog response. a receiver antenna configured to receive an interrogation signal from a transmitter; a sensor coupled to the receiver antenna and configured to receive a physiological input from a user wearing the device and generate an analog sensor signal based on the physiological input; and a modulator configured to perform direct frequency modulation on the received interrogation signal based on the analog sensor signal wherein the physiological input is directly encoded in the directly frequency modulated interrogation signal; wherein the receiver antenna is configured to reflect at least a portion of the directly frequency modulated interrogation signal as backscatter radiation carrying the analog response.