mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of distributing push notifications, the method comprising: receiving (S4) at a user's communication device from a push notification server a push notification service registration identifier, responsive to the user activating (S0) push notifications for a third party application implemented on the user's communication device ; transmitting (S6), by the third party application implemented on the user's communication device , a registration message to a computerized push notification distribution system , the registration message including the push notification service registration identifier and a user identifier of the user ; storing (S7) by the computerized push notification distribution system the push notification service registration identifier and the user identifier linked to the third party application ; receiving (S8) at the computerized push notification distribution system from the third party a message content for a push notification to users of the third party application ; and transmitting (S10) from the computerized push notification distribution system to the push notification server a request for transmitting a push notification, for each notification service registration identifier linked to the third party application , each request for transmitting a push notification including the message content for the push notification and the respective notification service registration identifier. receiving (S4) at a user's communication device from a push notification server a push notification service registration identifier, responsive to the user activating (S0) push notifications for a third party application implemented on the user's communication device ; transmitting (S6), by the third party application implemented on the user's communication device , a registration message to a computerized push notification distribution system , the registration message including the push notification service registration identifier and a user identifier of the user ; storing (S7) by the computerized push notification distribution system the push notification service registration identifier and the user identifier linked to the third party application ; receiving (S8) at the computerized push notification distribution system from the third party a message content for a push notification to users of the third party application ; and transmitting (S10) from the computerized push notification distribution system to the push notification server a request for transmitting a push notification, for each notification service registration identifier linked to the third party application , each request for transmitting a push notification including the message content for the push notification and the respective notification service registration identifier.
Method for processing data by way of coded operations in a number of cycles, in which an uncoded variable x is coded with a cycle-specific signature D and a variable-specific signature B x to form a coded variable x c using the equation x c = D ⋅ x + B x (S1) and at least one coded operation is applied to the coded variable x c (S2).
A kneading machine comprising a head assembly provided with at least one kneading implement rotating about an axis of rotation (X), wherein said assembly comprises an internal housing for housing the means for driving said kneading implement and defines a surface (S) that is transverse to said axis of rotation (X) and that separates the working space of said kneading implement from said internal housing, said machine being characterized in that : - said kneading implement has, at its end portion closest to said surface, a frustoconical surface with geometrical axis coinciding with said axis of rotation (X), which faces said surface (S) and extends about said axis of rotation according to a development such that, for each radial direction, its distance from said surface (S) increases as the distance from said axis of rotation (X) increases; - set between said frustoconical surface and said surface (S) is at least one scraping implement , which is mounted fixed on said head assembly and is prearranged for engaging said frustoconical surface according to a sliding contact, wherein said scraping implement is constituted by a blade provided with a shaped edge for engagement of said frustoconical surface , which has a shape corresponding to a profile of said frustoconical surface in a radial or secant direction thereof. - said kneading implement has, at its end portion closest to said surface, a frustoconical surface with geometrical axis coinciding with said axis of rotation (X), which faces said surface (S) and extends about said axis of rotation according to a development such that, for each radial direction, its distance from said surface (S) increases as the distance from said axis of rotation (X) increases; - set between said frustoconical surface and said surface (S) is at least one scraping implement , which is mounted fixed on said head assembly and is prearranged for engaging said frustoconical surface according to a sliding contact,
A multilayer film, comprising: a. first and second outer layers comprising 80 to 100 wt% of a first ethylene-based polymer; and b. an inner layer interposing the first and second outer layers, the inner layer comprising 5.0 to 30.0 wt% of a first propylene-based elastomer and 70.0 to 95.0 wt% a second ethylene-based polymer, said second ethylene-based polymer having a Composition Distribution Breadth Index (CDBI) of at least 70% and a g' vis of 0.85 to 0.98; wherein the film has a MD 1% Secant Modulus of ≥ 137 MPa. a. first and second outer layers comprising 80 to 100 wt% of a first ethylene-based polymer; and b. an inner layer interposing the first and second outer layers, the inner layer comprising 5.0 to 30.0 wt% of a first propylene-based elastomer and 70.0 to 95.0 wt% a second ethylene-based polymer, said second ethylene-based polymer having a Composition Distribution Breadth Index (CDBI) of at least 70% and a g' vis of 0.85 to 0.98;
A method of monitoring pressure and providing a warning to a patient or caregiver that the patient should be moved to at least reduce a risk of soft tissue damage to the patient , the method comprising: applying a pressure sensing unit to or near a surface of the patient's body that is susceptible to damage from soft tissue pressure, the pressure sensing unit comprising a vibration device and at least one sensor generating electrical outputs corresponding to soft tissue pressure sensed by the sensor at the surface of the patient's body; wirelessly monitoring a plurality of the electrical outputs generated by the sensor ; generating a counter value that increases from an initial value while the soft tissue pressure exceeds a predetermined pressure level and decreases toward the initial value while the soft tissue pressure does not exceed the predetermined pressure level; visually displaying the counter value of the sensor and displaying a visual warning if the counter value is above a predetermined counter value; and continuously generating an alarm while the counter value exceeds a predetermined counter value; and wherein the vibration device is activated if the counter value for the sensor exceeds the predetermined counter value to vibrate to notify the patient of the alarm. applying a pressure sensing unit to or near a surface of the patient's body that is susceptible to damage from soft tissue pressure, the pressure sensing unit comprising a vibration device and at least one sensor generating electrical outputs corresponding to soft tissue pressure sensed by the sensor at the surface of the patient's body; wirelessly monitoring a plurality of the electrical outputs generated by the sensor ; generating a counter value that increases from an initial value while the soft tissue pressure exceeds a predetermined pressure level and decreases toward the initial value while the soft tissue pressure does not exceed the predetermined pressure level; visually displaying the counter value of the sensor and displaying a visual warning if the counter value is above a predetermined counter value; and continuously generating an alarm while the counter value exceeds a predetermined counter value; and wherein the vibration device is activated if the counter value for the sensor exceeds the predetermined counter value to vibrate to notify the patient of the alarm.
A method, comprising: by a user equipment, UE : establish a radio resource control, RRC, connection with a first cell of a cellular network; transmit , to the cellular network, signaling comprising an indication that an enhanced radio link failure, RLF, recovery capability is supported, wherein the enhanced RLF recovery capability comprises applying connected mode configurations after RLF recovery on the first cell; receive , from the cellular network, one or more RRC messages comprising configuration information for RLF recovery on the first cell; detect one or more RLFs corresponding to the first cell; determine , via a connection reestablishment cell selection procedure, that the first cell is a suitable RLF recovery candidate cell of one or more candidate cells; apply , in response to detecting the one or more RLFs and determining that the first cell is a suitable RLF recovery candidate cell, the configuration information for RLF recovery on the first cell; in response to applying the configuration information, transmit , to the cellular network, signaling comprising a trigger indicating an enhanced RLF recovery; and re-establish, upon successful reception of the trigger at the cellular network and without exchanging additional signaling with the cellular network as part of a complete RRC connection re-establishment procedure, the RRC connection with the cellular network using the configuration information. establish a radio resource control, RRC, connection with a first cell of a cellular network; transmit , to the cellular network, signaling comprising an indication that an enhanced radio link failure, RLF, recovery capability is supported, wherein the enhanced RLF recovery capability comprises applying connected mode configurations after RLF recovery on the first cell; receive , from the cellular network, one or more RRC messages comprising configuration information for RLF recovery on the first cell; detect one or more RLFs corresponding to the first cell; determine , via a connection reestablishment cell selection procedure, that the first cell is a suitable RLF recovery candidate cell of one or more candidate cells; apply , in response to detecting the one or more RLFs and determining that the first cell is a suitable RLF recovery candidate cell, the configuration information for RLF recovery on the first cell; in response to applying the configuration information, transmit , to the cellular network, signaling comprising a trigger indicating an enhanced RLF recovery; and re-establish, upon successful reception of the trigger at the cellular network and without exchanging additional signaling with the cellular network as part of a complete RRC connection re-establishment procedure, the RRC connection with the cellular network using the configuration information.
A computer implemented method for training a deep convolutional neural network model to provide a beam model for a radiation machine to deliver a radiation treatment dose to a subject, the method comprising: determining a range of parameter values for at least one parameter of a beam model corresponding to the radiation machine; generating a plurality of sets of beam model parameter values, wherein one or more individual sets of beam model parameter values includes a parameter value selected from the determined range of parameter values; providing a plurality of corresponding dose profiles respectively corresponding to respective individual sets of beam model parameter values in the plurality of sets of beam model parameter values; and training the neural network model using the plurality of sets of beam model parameter values and the corresponding dose profiles. determining a range of parameter values for at least one parameter of a beam model corresponding to the radiation machine; generating a plurality of sets of beam model parameter values, wherein one or more individual sets of beam model parameter values includes a parameter value selected from the determined range of parameter values; providing a plurality of corresponding dose profiles respectively corresponding to respective individual sets of beam model parameter values in the plurality of sets of beam model parameter values; and training the neural network model using the plurality of sets of beam model parameter values and the corresponding dose profiles.
A crystal form I of Canagliflozin, having characteristic diffraction peaks at positions with 2θ values of 4.4±0.2°, 8.4±0.2°, 16.8±0.2°, 17.5±0.2°, 18.0±0.2°, and 22.8±0.2° in an X-ray powder diffraction pattern thereof.
A headgear arrangement for retaining a mask , the headgear arrangement comprising: a granular jamming layer in one or more portions of the headgear arrangement, the granular jamming layer providing a variable stiffness portion configured to selectively transition between a decreased stiffness state and an increased stiffness state, wherein the granular jamming layer comprises a density-dependent, variable viscosity material contained in a compressible chamber, and wherein the headgear arrangement comprises a crown strap , a rear portion , an upper strap , a lower strap , an upper connection and a lower connection , the upper and lower connections being configured to connect a mask to the headgear arrangement.
A mask plate for fabricating a display panel, characterized by comprising: a plurality of through holes spaced apart from each other; a first surface ; and a second surface opposite to the first surface ; wherein each through hole of the plurality of through holes forms a first opening on the first surface , and forms a second opening on the second surface ; wherein an area of the second opening is larger than an area of the first opening ; wherein the second openings are arranged in parallel in a first predetermined direction, the first predetermined direction having a predetermined angle with respect to a horizontal direction or a vertical direction of the mask plate , and the predetermined angle is an oblique angle; and wherein a length direction of the second opening is different from a length direction of the first opening , and the first opening is located within a range of a projection of the second opening on a plane of the mask plate . a plurality of through holes spaced apart from each other; a first surface ; and a second surface opposite to the first surface ; wherein each through hole of the plurality of through holes forms a first opening on the first surface , and forms a second opening on the second surface ; wherein an area of the second opening is larger than an area of the first opening ; wherein the second openings are arranged in parallel in a first predetermined direction, the first predetermined direction having a predetermined angle with respect to a horizontal direction or a vertical direction of the mask plate , and the predetermined angle is an oblique angle; and wherein a length direction of the second opening is different from a length direction of the first opening , and the first opening is located within a range of a projection of the second opening on a plane of the mask plate .
A vehicle (V) comprising a vehicle antenna (AS) mounted on the vehicle (V), the vehicle antenna (AS) comprising: a first antenna portion (A1) configured to receive a radio wave signal, the first antenna portion (A1) being provided on a roof of the vehicle (V); and a second antenna portion (A2) configured to emit a radio wave signal into the vehicle (V), the second antenna portion (A2) being provided in the vehicle (V), wherein the first antenna portion (A1) comprises a monopole antenna, the second antenna portion (A2) comprises a flat plate antenna, and the first antenna portion (A1) and the second antenna portion (A2) are electrically connected to each other via a coaxial cable , characterized in that the flat plate antenna includes: a dielectric body having a plate-like shape; a first electrode (E1) provided to one peripheral portion of the dielectric body ; and a second electrode (E2) provided to another peripheral portion facing the one peripheral portion of the dielectric body , the first electrode (E1) is connected to one end of a core wire of the coaxial cable by a joining portion , and the second electrode (E2) is connected to a part of an outer cover wire of the coaxial cable by a joining portion , and wherein the second antenna portion (A2) is configured to be arranged in a space formed between a ceiling plate and the roof of the vehicle (V). a first antenna portion (A1) configured to receive a radio wave signal, the first antenna portion (A1) being provided on a roof of the vehicle (V); and a second antenna portion (A2) configured to emit a radio wave signal into the vehicle (V), the second antenna portion (A2) being provided in the vehicle (V), wherein the first antenna portion (A1) comprises a monopole antenna, the second antenna portion (A2) comprises a flat plate antenna, and the first antenna portion (A1) and the second antenna portion (A2) are electrically connected to each other via a coaxial cable , characterized in that the flat plate antenna includes: a dielectric body having a plate-like shape; a first electrode (E1) provided to one peripheral portion of the dielectric body ; and a second electrode (E2) provided to another peripheral portion facing the one peripheral portion of the dielectric body , a dielectric body having a plate-like shape; a first electrode (E1) provided to one peripheral portion of the dielectric body ; and a second electrode (E2) provided to another peripheral portion facing the one peripheral portion of the dielectric body , the first electrode (E1) is connected to one end of a core wire of the coaxial cable by a joining portion , and the second electrode (E2) is connected to a part of an outer cover wire of the coaxial cable by a joining portion , and wherein
A method for operating a system for management of implantable medical devices, IMDs , comprising: conducting communications sessions with a plurality of clinician programmer devices , wherein some of the communication sessions occur while the plurality of clinician programmer devices are engaged in respective programming sessions with IMDs and wherein the communication sessions with the plurality of clinician programmer devices include communication of data pertaining to offline programming of IMDs; conducting communications sessions with a plurality of patient controller devices , wherein the communication sessions with the patient controller devices include communication of data pertaining to offline programming of IMDs; reconciling programming session data received from the plurality of clinician programmer devices with programming session data received from patient controller devices to identify instances of unauthorized IMD programming; and distributing revocation data to patient controller devices to be downloaded to corresponding IMDs, wherein the revocation data identifies cryptographic keys that are no longer trusted. conducting communications sessions with a plurality of clinician programmer devices , wherein some of the communication sessions occur while the plurality of clinician programmer devices are engaged in respective programming sessions with IMDs and wherein the communication sessions with the plurality of clinician programmer devices include communication of data pertaining to offline programming of IMDs; conducting communications sessions with a plurality of patient controller devices , wherein the communication sessions with the patient controller devices include communication of data pertaining to offline programming of IMDs; reconciling programming session data received from the plurality of clinician programmer devices with programming session data received from patient controller devices to identify instances of unauthorized IMD programming; and distributing revocation data to patient controller devices to be downloaded to corresponding IMDs, wherein the revocation data identifies cryptographic keys that are no longer trusted.
Heat exchanger assembly for a fuel-operated vehicle heater comprising: - an inner heat exchanger housing with an inner circumferential wall surrounding a housing axis (A) and an inner bottom wall , wherein the inner heat exchanger housing defines an exhaust gas flow space , - an outer heat exchanger housing with an outer circumferential wall and an outer bottom wall , wherein said outer heat exchanger housing and said inner heat exchanger housing define a heat transfer medium flow space , wherein an exhaust gas treatment space is provided on the outer heat exchanger housing , and wherein at least one exhaust gas treatment unit through which exhaust gas can flow is arranged in the exhaust gas treatment space , characterized in that the inner heat exchanger housing comprises a housing head region formed in one piece with the inner circumferential wall and the inner bottom wall , wherein the inner circumferential wall adjoins the housing head region in its axial end region remote from the inner bottom wall and an exhaust gas duct leading from the exhaust gas flow space to the exhaust gas treatment space is provided on the housing head region . - an inner heat exchanger housing with an inner circumferential wall surrounding a housing axis (A) and an inner bottom wall , wherein the inner heat exchanger housing defines an exhaust gas flow space , - an outer heat exchanger housing with an outer circumferential wall and an outer bottom wall , wherein said outer heat exchanger housing and said inner heat exchanger housing define a heat transfer medium flow space , wherein an exhaust gas treatment space is provided on the outer heat exchanger housing , and wherein at least one exhaust gas treatment unit through which exhaust gas can flow is arranged in the exhaust gas treatment space , characterized in that the inner heat exchanger housing comprises a housing head region formed in one piece with the inner circumferential wall and the inner bottom wall , wherein the inner circumferential wall adjoins the housing head region in its axial end region remote from the inner bottom wall and an exhaust gas duct leading from the exhaust gas flow space to the exhaust gas treatment space is provided on the housing head region . wherein an exhaust gas treatment space is provided on the outer heat exchanger housing , and wherein at least one exhaust gas treatment unit through which exhaust gas can flow is arranged in the exhaust gas treatment space , characterized in that the inner heat exchanger housing comprises a housing head region formed in one piece with the inner circumferential wall and the inner bottom wall , wherein the inner circumferential wall adjoins the housing head region in its axial end region remote from the inner bottom wall and an exhaust gas duct leading from the exhaust gas flow space to the exhaust gas treatment space is provided on the housing head region .