mhurhangee/ep-ind-claims huggingface dataset:
An automatic compressing, rejecting and brewing device for capsule coffeemakers, comprising brackets arranged in parallel; a capsule container, a capsule clamping assembly and a compression mechanism are provided successively between the brackets, and a spring assembly connected to the compression mechanism is provided on each of the brackets; the compression mechanism comprises a first piston compression assembly, a piston rod and a second piston compression assembly, which are connected successively; the first piston compression assembly comprises a sealed chamber, a hot water intake chamber, a first piston chamber and a support rod assembly, which are connected successively; the sealed chamber is communicated with the hot water intake chamber, and a hot water inlet is formed on the hot water intake chamber; a first fluid inlet is formed at one end of the first piston chamber, a first piston connected to the piston rod is provided inside the first piston chamber, and connecting shafts are pairwise provided at the other end of the first piston chamber; wherein the support rod assembly comprises a first support rod and a second support rod, each comprising a straight compression lever and a rotary support block arranged on one side of the straight compression lever; characterized in that the connecting shafts are movably connected to the straight compression lever; each of the brackets is provided with a rotary limiting mechanism which comprises a limiting portion and a rotating portion connected together; during the movement of the first piston compression assembly toward the capsule container, the rotating portion of the rotary limiting mechanism rotates the first support rod and the second support rod upward, and the limiting portion of the rotary limiting mechanism supports and limits the first support rod and the second support rod; after the movement, the straight compression lever is in parallel to the movement direction of the first piston compression assembly; and the second piston compression assembly comprises a second piston chamber and a second piston provided in the second piston chamber, the second piston is connected to the piston rod, and a second fluid inlet is formed on the second piston chamber; and the spring assembly comprises a first return spring and a second return spring arranged pairwise, one end of the first return spring is connected to the first piston compression assembly and the other end of the first return spring is arranged on the brackets, one end of the second return spring is connected to the second piston compression assembly and the other end of the second return spring is arranged on the brackets.
A method for updating an Access Point Name subscription configuration, comprising: receiving an update request message sent by a network element, wherein the update request message carries first APN information and an International Mobile Subscriber Identity (IMSI); obtaining second APN information of a corresponding user according to the IMSI; and characterised by updating a wild card APN subscription configuration of the corresponding user according to the first APN information if the first APN information is different from the second APN information and the corresponding user subscribes to a wild card APN. receiving an update request message sent by a network element, wherein the update request message carries first APN information and an International Mobile Subscriber Identity (IMSI); obtaining second APN information of a corresponding user according to the IMSI; and characterised by updating a wild card APN subscription configuration of the corresponding user according to the first APN information if the first APN information is different from the second APN information and the corresponding user subscribes to a wild card APN.
A sensor for detecting a fluid, the sensor comprising: an optical parametric oscillator having a down converted wave cavity and a non-linear material provided in the down converted wave cavity, the non-linear material being adapted to convert, via a parametric process, pump light into down converted light of two different wavelengths, the first wavelength being longer than the second wavelength, wherein the down converted wave cavity is arranged to resonate only one of the first and second wavelengths, means for modulating, the means for modulating configured to modulate light in the down converted wave cavity to induce an acoustic or pressure wave caused by absorption of the resonant one of the first and second wavelengths by a fluid in the down converted wave cavity, and means for detecting the acoustic or pressure wave, the means for detecting the acoustic or pressure wave being located in the down-converted wave cavity. an optical parametric oscillator having a down converted wave cavity and a non-linear material provided in the down converted wave cavity, the non-linear material being adapted to convert, via a parametric process, pump light into down converted light of two different wavelengths, the first wavelength being longer than the second wavelength, wherein the down converted wave cavity is arranged to resonate only one of the first and second wavelengths, means for modulating, the means for modulating configured to modulate light in the down converted wave cavity to induce an acoustic or pressure wave caused by absorption of the resonant one of the first and second wavelengths by a fluid in the down converted wave cavity, and means for detecting the acoustic or pressure wave, the means for detecting the acoustic or pressure wave being located in the down-converted wave cavity.
A computer implemented method of processing a user input to determine an action to be taken based on content of the user input in a client system, wherein the client system stores a codebook that includes a mapping of a plurality of labels with one or more respective applications, the method comprising: displaying a dialog box on a graphical user interface display associated with the client system; and receiving a user input into the dialog box;, characterized in that the method further comprises processing the content of the user input, wherein said processing comprises: identifying, in the content of the user input, at least one label of the plurality labels, wherein said at least one label includes a label that maps to a plurality of applications; determining an action to take based on the identified at least one label, wherein the action includes accessing the plurality applications to perform further processing based on the content of the user input, wherein the plurality of applications are identified using the codebook; and taking said determined action. displaying a dialog box on a graphical user interface display associated with the client system; and receiving a user input into the dialog box;, characterized in that the method further comprises processing the content of the user input, wherein said processing comprises: identifying, in the content of the user input, at least one label of the plurality labels, wherein said at least one label includes a label that maps to a plurality of applications; determining an action to take based on the identified at least one label, identifying, in the content of the user input, at least one label of the plurality labels, wherein said at least one label includes a label that maps to a plurality of applications; determining an action to take based on the identified at least one label, wherein the action includes accessing the plurality applications to perform further processing based on the content of the user input, wherein the plurality of applications are identified using the codebook; and taking said determined action.
An apparatus for non-contact chucking of a wafer comprising: a wafer chuck, the wafer chuck including one or more pressurized gas elements configured to generate one or more pressurized gas regions across a surface of the wafer chuck suitable for elevating the wafer above the surface of the wafer chuck, the wafer chuck further including one or more vacuum elements configured to generate one or more reduced pressure regions across the surface of the wafer chuck, the reduced pressure regions having a pressure lower than the pressurized gas regions, the one or more reduced pressure regions suitable for securing the wafer above the wafer chuck without contact to the wafer chuck; a gripper assembly coupled to a portion of the wafer chuck, wherein the gripper assembly includes a plurality of gripper elements; and a rotational drive unit mechanically coupled to the wafer chuck, wherein the rotational drive unit is configured to selectively rotate the wafer chuck, characterized in that the gripper assembly includes a cam unit, wherein the cam unit is configured to drive one or more of the gripper elements along a radial direction of the wafer chuck so as to selectably engage the gripper assembly with one or more edge portions of the wafer so as to secure the wafer such that the wafer and the gripper assembly rotate synchronously with the wafer chuck during rotation of the wafer chuck by the rotational drive unit. a wafer chuck, the wafer chuck including one or more pressurized gas elements configured to generate one or more pressurized gas regions across a surface of the wafer chuck suitable for elevating the wafer above the surface of the wafer chuck, the wafer chuck further including one or more vacuum elements configured to generate one or more reduced pressure regions across the surface of the wafer chuck, the reduced pressure regions having a pressure lower than the pressurized gas regions, the one or more reduced pressure regions suitable for securing the wafer above the wafer chuck without contact to the wafer chuck; a gripper assembly coupled to a portion of the wafer chuck, wherein the gripper assembly includes a plurality of gripper elements; and a rotational drive unit mechanically coupled to the wafer chuck, wherein the rotational drive unit is configured to selectively rotate the wafer chuck, characterized in that the gripper assembly includes a cam unit, wherein the cam unit is configured to drive one or more of the gripper elements along a radial direction of the wafer chuck so as to selectably engage the gripper assembly with one or more edge portions of the wafer so as to secure the wafer such that the wafer and the gripper assembly rotate synchronously with the wafer chuck during rotation of the wafer chuck by the rotational drive unit.
A gaiter (9a, 9b, 9c, 9d, 9e) of a disc brake of a utility vehicle, in particular a folding gaiter, having a flexible jacket made of an elastic material, in particular an elastomer, there being arranged on an outer side of the jacket a protective device (13a, 13b, 13c, 13d, 13e), which is connected to and shields at least sections of the jacket and has a plurality of telescopic rings (14, 15, 16) inserted one inside the other such that they are able to move, characterised in that each of the telescopic rings (14, 15, 16) is connected at certain points by bonding or in a form fit to the outer side of the jacket.
A method implemented by a printer to control a fluid firing unit of a printhead, when said printhead is coupled to said printer, to operate according to any one of a normal printing mode and a recovery mode, wherein said method includes: • if the fluid firing unit is operated according to said normal printing mode, applying a first voltage to said fluid firing unit to fire said fluid firing unit during a printing operation; and • if the fluid firing unit is operated according to said recovery mode, applying a second voltage higher than said first voltage to the fluid firing unit to clean said fluid firing unit wherein the fluid firing unit is operated according to said recovery mode if a predetermined condition is met, the predetermined condition comprising detection of any one of • insertion of a new printhead within said printer, • an idle time of the fluid firing unit exceeding a first predetermined time threshold, or • an uncap time during which a printhead of said printer is uncapped exceeding a second predetermined time threshold. • if the fluid firing unit is operated according to said normal printing mode, applying a first voltage to said fluid firing unit to fire said fluid firing unit during a printing operation; and • if the fluid firing unit is operated according to said recovery mode, applying a second voltage higher than said first voltage to the fluid firing unit to clean said fluid firing unit wherein the fluid firing unit is operated according to said recovery mode if a predetermined condition is met, the predetermined condition comprising detection of any one of • insertion of a new printhead within said printer, • an idle time of the fluid firing unit exceeding a first predetermined time threshold, or • an uncap time during which a printhead of said printer is uncapped exceeding a second predetermined time threshold.
Use of an Archease protein for enhancing the ligase activity of a RNA ligase enzyme, preferably for RNA splicing, with the proviso that subject-matter directed to methods for treatment of the human or animal body by surgery or therapy and diagnostic methods practised on the human or animal body is not claimed.
Method for active suppression of sound from a plurality of primary sound sources by means of sound from a plurality of secondary sound sources (5, 21), wherein to each secondary sound source (5, 21) exactly one primary sound source is assigned, wherein for active suppression of sound of the plurality of primary sound sources and for reducing a sound intensity of the sound of the secondary sound sources (5, 21) to zero or to a value approaching zero, for each secondary sound source (5, 21) a controlled variable for controlling the secondary sound source (5, 21) is iteratively determined by the following steps: determining a sound particle velocity of each primary sound source, determining a sound particle velocity and a sound pressure of each secondary sound source (5, 21), determining for each secondary sound source (5, 21) a sound particle velocity effectively to be suppressed, wherein the sound particle velocity effectively to be suppressed of a secondary sound source (5, 21) comprises, besides the sound particle velocity which has been determined for the primary sound source assigned to the respective secondary sound source, also the determined sound pressures and the sound particle velocities of all secondary sound sources (5, 21) except the respective secondary sound source (5, 21), and determining the controlled variable of each secondary sound source (5, 21) in such a manner that a difference between the sound particle velocity determined as effectively to be suppressed for a second sound source (5, 21) and the sound particle velocity determined for the secondary sound source (5, 21) is minimized, and wherein the secondary sound sources (5, 21) are controlled with the respectively determined controlled variables. determining a sound particle velocity of each primary sound source, determining a sound particle velocity and a sound pressure of each secondary sound source (5, 21), determining for each secondary sound source (5, 21) a sound particle velocity effectively to be suppressed, wherein the sound particle velocity effectively to be suppressed of a secondary sound source (5, 21) comprises, besides the sound particle velocity which has been determined for the primary sound source assigned to the respective secondary sound source, also the determined sound pressures and the sound particle velocities of all secondary sound sources (5, 21) except the respective secondary sound source (5, 21), and determining the controlled variable of each secondary sound source (5, 21) in such a manner that a difference between the sound particle velocity determined as effectively to be suppressed for a second sound source (5, 21) and the sound particle velocity determined for the secondary sound source (5, 21) is minimized, and wherein the secondary sound sources (5, 21) are controlled with the respectively determined controlled variables.
Device (10, 30, 80) for detecting caloric intak due to digestion, said device comprising: - a respiration input for obtaining a respiration signal indicating the subject's respiration, - an activity input for obtaining activity data indicating a subject's physical activity, - an analysis unit for analyzing the obtained respiration signal by selecting time windows of the obtained respiration signal for the analysis based on the activity data, in which the activity data indicate no activity or an activity related to caloric intake or an activity below a predetermined intensity, determining one or more of dominant frequency, inter-breath interval length and amplitude of the respiration signal as respiration signal features from the obtained respiration signal, detecting one or more changes of the one or more determined respiration signal features over time, and detecting a period as a period of caloric intake due to digestion by the subject if it has been detected during said period that the dominant frequency increases, the inter-breath interval length decreases and/or the amplitude of the respiration signal increases. - a respiration input for obtaining a respiration signal indicating the subject's respiration, - an activity input for obtaining activity data indicating a subject's physical activity, - an analysis unit for analyzing the obtained respiration signal by selecting time windows of the obtained respiration signal for the analysis based on the activity data, in which the activity data indicate no activity or an activity related to caloric intake or an activity below a predetermined intensity, determining one or more of dominant frequency, inter-breath interval length and amplitude of the respiration signal as respiration signal features from the obtained respiration signal, detecting one or more changes of the one or more determined respiration signal features over time, and detecting a period as a period of caloric intake due to digestion by the subject if it has been detected during said period that the dominant frequency increases, the inter-breath interval length decreases and/or the amplitude of the respiration signal increases. selecting time windows of the obtained respiration signal for the analysis based on the activity data, in which the activity data indicate no activity or an activity related to caloric intake or an activity below a predetermined intensity, determining one or more of dominant frequency, inter-breath interval length and amplitude of the respiration signal as respiration signal features from the obtained respiration signal, detecting one or more changes of the one or more determined respiration signal features over time, and detecting a period as a period of caloric intake due to digestion by the subject if it has been detected during said period that the dominant frequency increases, the inter-breath interval length decreases and/or the amplitude of the respiration signal increases.
Cover system for covering an exterior wall of a building, in particular a facade or a roof, wherein the cover system is provided with a cover element having a cover surface for covering at least a part of the exterior wall and a bearing support (4, 5, 8) for bearing the cover element relative to the exterior wall, wherein one of the cover element and the bearing support (4, 5, 8) is provided with a first connection lip (31, 32) and the other of the cover element and the bearing support is provided with a first retaining member (43, 44) for retaining the first connection lip (31, 32), wherein the first connection lip (31, 32) is at least partially flexible and adapted for, in placed condition of the cover element on the bearing support (4, 5, 8), in cooperation with the first retaining member (43, 44) forming a first connection between the cover element and the bearing support (4, 5, 8), wherein the first connection is substantially flexible in a first direction (F1, F2) substantially parallel to the cover surface of the cover element, said cover system being characterized in that the cover element is provided with one or more parting lines (25, 26) parting the cover element in the cover surface into two or more parts (2A, 2B, 2C, 2D), wherein the one or more parting lines (25, 26) are one or more predetermined break connections.
A method of selecting an encoding specification for encoding audio and/or video data to be streamed from a sender (82a, 82b, 82c) to a receiver (82a, 82b, 82c) via a network (80, 80a, 80b, 80c), the method comprising: partitioning a range of possible conditions of the network into a finite plurality of discrete network conditions, each characterised by different combinations of data-transmission characteristics of at least two different types; in respect of the network in each of the plurality of discrete network conditions, obtaining (s540, s660) a performance measure in respect of each of a plurality of different encoding specifications, the performance measure in respect of the network when in a particular network condition and in respect of a particular encoding specification being obtained by applying a predetermined performance measuring process in respect of audio and/or video data encoded using said encoding specification and streamed via the network when in said network condition; subsequently obtaining (s710, s910) current data-transmission characteristics of said at least two different types in respect of the network and selecting (s720, s920) a corresponding current network condition from said finite plurality of discrete network conditions; and selecting (s750, s930) an encoding specification for encoding said data to be streamed, the selection of said encoding specification being made in dependence on the performance measures obtained using said plurality of encoding specifications in respect of the network when in said selected corresponding current network condition. partitioning a range of possible conditions of the network into a finite plurality of discrete network conditions, each characterised by different combinations of data-transmission characteristics of at least two different types; in respect of the network in each of the plurality of discrete network conditions, obtaining (s540, s660) a performance measure in respect of each of a plurality of different encoding specifications, the performance measure in respect of the network when in a particular network condition and in respect of a particular encoding specification being obtained by applying a predetermined performance measuring process in respect of audio and/or video data encoded using said encoding specification and streamed via the network when in said network condition; subsequently obtaining (s710, s910) current data-transmission characteristics of said at least two different types in respect of the network and selecting (s720, s920) a corresponding current network condition from said finite plurality of discrete network conditions; and selecting (s750, s930) an encoding specification for encoding said data to be streamed, the selection of said encoding specification being made in dependence on the performance measures obtained using said plurality of encoding specifications in respect of the network when in said selected corresponding current network condition.