mhurhangee/ep-ind-claims huggingface dataset:
A device for updating a user presence status on social network services, SNS, in a mobile terminal, comprising: a profile interface module, on which profiles of the mobile terminal are switched by a user; a background module, which is configured to: detect changes of the profiles on the profile interface module, and when the profiles change, obtain content of a new profile entry through a notification of a profile state change event from the profile interface module, and send the content of the new profile entry to a subscription publishing module; the subscription publishing module, which is configured to: receive registration requests from SNS client modules for subscribing to profile state change notifications, record identifications of the SNS client modules which subscribe to the profile state change notification into a notification list for registration, then query the notification list and notify the content of the new profile entry to the respective SNS client module in the notification list one by one when the profiles change; and each of the SNS client modules, which is configured to: receive the content of the new profile entry from the subscription publishing module, and publish the content of the new profile entry to a corresponding SNS system, so as to change the user presence status of the corresponding SNS system according to the content of the new profile entry. a profile interface module, on which profiles of the mobile terminal are switched by a user; a background module, which is configured to: detect changes of the profiles on the profile interface module, and when the profiles change, obtain content of a new profile entry through a notification of a profile state change event from the profile interface module, and send the content of the new profile entry to a subscription publishing module; the subscription publishing module, which is configured to: receive registration requests from SNS client modules for subscribing to profile state change notifications, record identifications of the SNS client modules which subscribe to the profile state change notification into a notification list for registration, then query the notification list and notify the content of the new profile entry to the respective SNS client module in the notification list one by one when the profiles change; and each of the SNS client modules, which is configured to: receive the content of the new profile entry from the subscription publishing module, and publish the content of the new profile entry to a corresponding SNS system, so as to change the user presence status of the corresponding SNS system according to the content of the new profile entry.
A printing unit, comprising: a platen roller configured to convey a recording sheet; a thermal head configured to perform printing on the recording sheet through press contact with an outer peripheral surface of the platen roller; and a frame configured to support the platen roller in a rotatable manner, characterized in that: the printing unit further comprises a motor configured to rotate the platen roller about a predetermined axis; and the motor is fixed to the frame with an adhesive. a platen roller configured to convey a recording sheet; a thermal head configured to perform printing on the recording sheet through press contact with an outer peripheral surface of the platen roller; and a frame configured to support the platen roller in a rotatable manner, characterized in that: the printing unit further comprises a motor configured to rotate the platen roller about a predetermined axis; and the motor is fixed to the frame with an adhesive. the printing unit further comprises a motor configured to rotate the platen roller about a predetermined axis; and the motor is fixed to the frame with an adhesive.
A method of inhibiting isomerization of a reducing saccharide in an aqueous solution containing said reducing saccharide upon a thermal treatment for sterilizing said aqueous saccharide solution, the method comprising the step of acidifying the aqueous saccharide solution prior to and/or in the course of the thermal treatment, wherein the thermal treatment comprises heating the aqueous saccharide solution to a temperature in the range of 115 °C to 150 °C and keeping the temperature for up to 60 minutes; autoclaving the aqueous saccharide solution at 121.1 °C for 15 to 30 minutes; heating the aqueous solution to a temperature of 130 °C to 150 °C and holding the temperature for up to 5 minutes; or subjecting the aqueous solution to a temperature of between 71.5 °C to 74 °C, for 15 to 30 seconds, and wherein the aqueous saccharide solution is acidified by adding at least one acid to said aqueous saccharide solution.
A method, comprising: forming an array of light emitting diode, LED, dies (112;200;300;400;500) including: a substrate layer (128;202;402); and a gallium semiconductor layer (204;302;404;502) formed on a surface of the substrate layer (128;202;402); exposing the gallium semiconductor layer (204;302;404;502) to a laser to detach the gallium semiconductor layer (204;302;404;502) from the substrate layer (128;202;402), the laser being absorbed by a portion of the gallium semiconductor layer (204;302;404;502) to form gallium material (412;506) on each of the LED dies (112;200;300;400;500) of the array; separating the substrate layer (128;202;402) from the gallium semiconductor layer (204;302;404;502) to expose a surface of the gallium semiconductor layer (204;302;404;502) and the gallium material (412;506) on the surface; heating the gallium material (412;506) on at least a subset of the LED dies (112;200;300;400;500) to form liquid gallium (412;506) on the surface of the gallium semiconductor layer (204;302;404;502) of the at least a subset of the LED dies (112;200;300;400;500); contacting the liquid gallium (412;506) of the at least a subset of the LED dies (112;200;300;400;500) with a pick-up tool (104,122,124), PUT; cooling the liquid gallium (412;506) into solid gallium (412;506) to attach the PUT (104,122,124) with the at least a subset of the LED dies (112;200;300;400;500) via the solid gallium (412;506); picking up the at least a subset of the LED dies (112;200;300;400;500) using the PUT (104,122,124). a substrate layer (128;202;402); and a gallium semiconductor layer (204;302;404;502) formed on a surface of the substrate layer (128;202;402); exposing the gallium semiconductor layer (204;302;404;502) to a laser to detach the gallium semiconductor layer (204;302;404;502) from the substrate layer (128;202;402), the laser being absorbed by a portion of the gallium semiconductor layer (204;302;404;502) to form gallium material (412;506) on each of the LED dies (112;200;300;400;500) of the array; separating the substrate layer (128;202;402) from the gallium semiconductor layer (204;302;404;502) to expose a surface of the gallium semiconductor layer (204;302;404;502) and the gallium material (412;506) on the surface; heating the gallium material (412;506) on at least a subset of the LED dies (112;200;300;400;500) to form liquid gallium (412;506) on the surface of the gallium semiconductor layer (204;302;404;502) of the at least a subset of the LED dies (112;200;300;400;500); contacting the liquid gallium (412;506) of the at least a subset of the LED dies (112;200;300;400;500) with a pick-up tool (104,122,124), PUT; cooling the liquid gallium (412;506) into solid gallium (412;506) to attach the PUT (104,122,124) with the at least a subset of the LED dies (112;200;300;400;500) via the solid gallium (412;506); picking up the at least a subset of the LED dies (112;200;300;400;500) using the PUT (104,122,124).
An anti-amyloid-beta (Aβ) globulomer antibody which comprises a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region comprises complementary determining region 1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:17, SEQ ID NO:18 and SEQ ID NO:19, respectively, and the light chain variable region comprises CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:20, SEQ ID NO:21 and SEQ ID NO:22, respectively
A system comprising: a cochlear implant including a resilient housing, a magnet pocket, a magnet aperture having an aperture diameter, and a magnet having a magnet diameter that is greater than the aperture diameter; and a cochlear implant magnet installation system including an installation device including an installation device handle portion defining a longitudinal axis and a distal portion to which the magnet may be magnetically secured; and a guide (200, 300) including a guide handle portion (202, 302) and a first end portion (204, 304), the first end portion having a curved abutment (210, 310) and a projection (206, 306) that extends distally beyond the curved abutment, wherein the first end portion is configured to separate a magnet that is magnetically secured to the distal portion of the installation device from the distal portion of the installation device in response to distal longitudinal movement of the guide relative to the installation device, and wherein the installation device and the guide (200, 300) are configured to be longitudinally aligned with one another. a cochlear implant including a resilient housing, a magnet pocket, a magnet aperture having an aperture diameter, and a magnet having a magnet diameter that is greater than the aperture diameter; and a cochlear implant magnet installation system including an installation device including an installation device handle portion defining a longitudinal axis and a distal portion to which the magnet may be magnetically secured; and a guide (200, 300) including a guide handle portion (202, 302) and a first end portion (204, 304), the first end portion having a curved abutment (210, 310) and a projection (206, 306) that extends distally beyond the curved abutment, wherein the first end portion is configured to separate a magnet that is magnetically secured to the distal portion of the installation device from the distal portion of the installation device in response to distal longitudinal movement of the guide relative to the installation device, and wherein the installation device and the guide (200, 300) are configured to be longitudinally aligned with one another. an installation device including an installation device handle portion defining a longitudinal axis and a distal portion to which the magnet may be magnetically secured; and a guide (200, 300) including a guide handle portion (202, 302) and a first end portion (204, 304), the first end portion having a curved abutment (210, 310) and a projection (206, 306) that extends distally beyond the curved abutment, wherein the first end portion is configured to separate a magnet that is magnetically secured to the distal portion of the installation device from the distal portion of the installation device in response to distal longitudinal movement of the guide relative to the installation device, and wherein the installation device and the guide (200, 300) are configured to be longitudinally aligned with one another.
A co-current gasifier, which has a fuel silo for storing fuel to be gasified, an upper floor forming the bottom of the fuel silo, at least one gasification compartment beneath the upper floor for gasifying the fuel, which upper floor has several holes for conducting the fuel from the fuel silo to the gasification compartment/gasification compartments and means for conducting the gasification air into the gasification compartment, characterized in that the fuel silo is attached at its lower end in a fixed manner to the upper floor.
Binder composition for concrete, mortar or grout comprising lignite fly ash and a second ingredient selected from the group consisting of ground granulated blast furnace slag (GGBS), an alkaline earth activator selected from calcium oxide, calcium hydroxide, magnesium oxide, magnesium hydroxide and mixtures thereof, a class F fly ash, a class C fly ash, calcium carbonate, magnesium carbonate and mixtures thereof, wherein the lignite fly ash has a sulphate content of at least 6 wt.%, based on the weight of the lignite fly ash, and wherein the binder composition comprises from 10 to 90 wt.% of the lignite fly ash and from 90 to 10 wt.% of the second ingredient, based on the total weight of the binder composition.
Method for the production of moulded parts from thermoplastic moulding compounds comprising reinforcing fibres by means of injection moulding, in which a cavity of an injection mould is overfilled with a thermoplastic moulding compound which is heated to a prescribed temperature θ FM, is present in the plasticised state and comprises reinforcing fibers, the cavity of the injection mould having in at least one wall at least one variotherm heatable channel extending along a trajectory, before, during and/or after filling of the injection mould, the region of the injection mould which has the at least one variotherm channel of the wall is set to a temperature θ VT and the remaining region of the wall of the injection mould is set, permanently or at least at times, to a temperature θ W, whereby it applies that θ W < θ VT, after overfilling the thermoplastic moulding compound comprising the reinforcing fibres is cooled until solidification, the solidified moulded part is released from the injection mould, wherein the injection mould has at least one overflow opening and the at least one variotherm heatable channel begins at the gate location of the injection mould and is guided up to at least one overflow opening.
A powder for powder bed fusion comprising polybutylene terephthalate, characterized in that the powder has a grain size distribution where D10 is not less than 20 μm and not more than 42 μm, D50 is not less than 42 μm and not more than 70 μm, and D90 is not more than 100 μm, the grain size distribution determined as explained in the description, the powder comprises polybutylene terephthalate having a melting peak half width in a DSC chart of not less than 1°C and not more than 10°C, the DSC chart determined as explained in the description, and the polybutylene terephthalate comprises structural units derived from a terephthalic acid component and structural units derived from 1,4-butanediol, and further comprises additional structural units derived from a dicarboxylic acid component other than terephthalic acid or from a diol component other than 1,4-butanediol. the powder has a grain size distribution where D10 is not less than 20 μm and not more than 42 μm, D50 is not less than 42 μm and not more than 70 μm, and D90 is not more than 100 μm, the grain size distribution determined as explained in the description, the powder comprises polybutylene terephthalate having a melting peak half width in a DSC chart of not less than 1°C and not more than 10°C, the DSC chart determined as explained in the description, and the polybutylene terephthalate comprises structural units derived from a terephthalic acid component and structural units derived from 1,4-butanediol, and further comprises additional structural units derived from a dicarboxylic acid component other than terephthalic acid or from a diol component other than 1,4-butanediol.
A method for manufacturing a handle substrate, the method comprising the steps of: a) supplying a support substrate comprising a receiving face, b) depositing an anti-adhesive formulation comprising a first solvent on the receiving face of the support substrate so as to form a film, c) depositing a liquid formulation on one face of the film, before the complete evaporation of the first solvent, the liquid formulation being intended to form an adhesive layer, and d) evaporating the first solvent so as to obtain an anti-adhesive film from the film in order to obtain the handle substrate and to obtain a bonding energy between the anti-adhesive film and the adhesive layer lower than 1.2 J/m 2. a) supplying a support substrate comprising a receiving face, b) depositing an anti-adhesive formulation comprising a first solvent on the receiving face of the support substrate so as to form a film, c) depositing a liquid formulation on one face of the film, before the complete evaporation of the first solvent, the liquid formulation being intended to form an adhesive layer, and d) evaporating the first solvent so as to obtain an anti-adhesive film from the film in order to obtain the handle substrate and to obtain a bonding energy between the anti-adhesive film and the adhesive layer lower than 1.2 J/m 2.
A differentiation-inducing culture medium additive for inducing bone differentiation of at least one type of cell selected from the group consisting of a stem cell, a dental pulp cell, a periodontal ligament cell, a primary cell taken from a placenta tissue or an established cell derived therefrom, a primary cell taken from an amnion tissue or an established cell derived therefrom, and a fibroblast under a serum-free condition, the differentiation-inducing culture medium additive, containing no serum, at least comprising: at least one growth factor selected from the group consisting of EGF, FGF, and PDGF, but not from TGF-β and HGF; dexamethasone; and β-glycerophosphate, further comprising at least one phospholipid. at least one growth factor selected from the group consisting of EGF, FGF, and PDGF, but not from TGF-β and HGF; dexamethasone; and β-glycerophosphate, further comprising at least one phospholipid.
A transmission coupled to an off-axis electric motor in a gasoline-electric hybrid vehicle, comprising: a motor-driven gear, the motor-driven gear being hard-splined to an output shaft of a transmission; and an electric motor coupled to the output shaft of the transmission via the motor-driven gear, characterized in that the motor-driven gear replaces an engine-driven reverse gear. a motor-driven gear, the motor-driven gear being hard-splined to an output shaft of a transmission; and an electric motor coupled to the output shaft of the transmission via the motor-driven gear, characterized in that the motor-driven gear replaces an engine-driven reverse gear.
A method for determining a wheel load acting on a wheel of a vehicle, wherein the wheel comprises a rim and a tire mounted onto the rim, and a sensor unit mounted at the wheel, and wherein the method comprises a) determining a tire pressure (p) of the tire by means of the sensor unit, b) determining a tire footprint of the tire by means of the sensor unit, when the vehicle is driving, c) determining the wheel load based on a predetermined relationship between the wheel load, the tire pressure (p) and the tire footprint, characterized in that the method further comprises d) analysing temporal variations of the tire pressure (p) during a standstill period of the vehicle for determining one or more parameters indicating the temporal variations of the tire pressure (p), e) estimating a change (dWL) of the wheel load during the standstill period based on the one or more determined parameters. a) determining a tire pressure (p) of the tire by means of the sensor unit, b) determining a tire footprint of the tire by means of the sensor unit, when the vehicle is driving, c) determining the wheel load based on a predetermined relationship between the wheel load, the tire pressure (p) and the tire footprint, characterized in that the method further comprises d) analysing temporal variations of the tire pressure (p) during a standstill period of the vehicle for determining one or more parameters indicating the temporal variations of the tire pressure (p), e) estimating a change (dWL) of the wheel load during the standstill period based on the one or more determined parameters.
Assembly for a therapeutical equipment or for an imaging equipment, particularly for an oncological hyperthermia system, said assembly comprising an access gate or gantry, an array of first antennas coupled with said gantry, a bed, said bed being at least longitudinally movable with respect to said gantry, and at least one second antenna provided in said bed, said assembly comprising lifting and lowering means for lifting and lowering said access gate or gantry.
An apparatus comprising at least means (510, 520, 522) for: obtaining an identification of a data traffic for an antenna; associating the obtained identification to a first network identification by deriving the first network identification from the obtained identification; assigning the first network identification and a second network identification to the data traffic; performing load balancing for the data traffic using a hash algorithm, wherein the hash algorithm obtains input based on the first network identification; and transmitting the data traffic using link aggregation, wherein the link aggregation is active mode link aggregation utilized in fronthaul. obtaining an identification of a data traffic for an antenna; associating the obtained identification to a first network identification by deriving the first network identification from the obtained identification; assigning the first network identification and a second network identification to the data traffic; performing load balancing for the data traffic using a hash algorithm, wherein the hash algorithm obtains input based on the first network identification; and transmitting the data traffic using link aggregation, wherein the link aggregation is active mode link aggregation utilized in fronthaul.
Microelectromechanical sensor with an out-of-plane detection having a cross sensitivity in a first direction in the plane with a value S T, said sensor comprising a support, an inertial mass suspended from the support by suspension means, a first axis of rotation about which the inertial mass pivots with respect to the support in an out-of-plane direction when the sensor is subjected to a stress in the out-of-plane direction, said suspension means comprising at least one first beam in the plane, said at least one first beam being anchored by a longitudinal end to the support and by another longitudinal end to the inertial mass, in such a way that during a movement of the inertial mass in the out-of-plane direction, said at least first beam is stressed by bending, and means for detection of the movement of the mass in the out-of-plane direction, said detection means comprising at least one first stress gauge suspended by a first end from the inertial mass and by a second end from the support and extending in parallel to said at least one first beam, wherein said to the first beam has a dimension t f in the out-of-plane direction and the inertial mass has a dimension t M in the out-of-plane direction such that t f = 3 4 t M − 2 l arm S T. l arm being the distance between the centre of gravity of the inertial mass and the centre of the at least one first beam projected onto the first longitudinal direction.
A content searching method comprising: displaying a circular object; mapping at least one content to a circumference of the circular object; changing, in response to a first drag input in a central direction or external direction of the circular object being received, the at least one content mapped to the circumference of the circular object; and selecting, in response to a second drag input along the circumference of the circular object being received, the content mapped to the circumference of the circular object based on a position of the second drag input. displaying a circular object; mapping at least one content to a circumference of the circular object; changing, in response to a first drag input in a central direction or external direction of the circular object being received, the at least one content mapped to the circumference of the circular object; and selecting, in response to a second drag input along the circumference of the circular object being received, the content mapped to the circumference of the circular object based on a position of the second drag input.