mhurhangee/ep-ind-claims huggingface dataset:
A topical formulation comprising components (a), (b), (c) and (d): (a) a skin barrier repair formulation comprising lipids that are fatty acid, bilayer-stabilizing steroid, and complex lipid, wherein the skin barrier repair formulation is present in an amount that enhances skin barrier repair, wherein the weight ratio of CL to CH is from 1.5:1 to 8:1, and the weight ration of CL to FA is from 4:1 to 1:1, the lipids present in an amount from 3 % wt. to 10 % wt, wherein complex lipids are phospholipids, ceramides, sphingomyelins, glycosphingolipids, and combinations thereof in a form that can be incorporated in lipid bilayers; (b) a natural moisturizer formulation, wherein the natural moisturizers are selected from the group consisting of urocanic acid and pyrrolidone-5-carboxylic acid, the natural moisturizer formulation present in a skin moisturizing amount; (c) one or more retinoids in an amount from 0.01 % wt. to 10 % wt.; and (d) taurine in an amount from 0.1 % wt. to 5 % wt. (a) a skin barrier repair formulation comprising lipids that are fatty acid, bilayer-stabilizing steroid, and complex lipid, wherein the skin barrier repair formulation is present in an amount that enhances skin barrier repair, wherein the weight ratio of CL to CH is from 1.5:1 to 8:1, and the weight ration of CL to FA is from 4:1 to 1:1, the lipids present in an amount from 3 % wt. to 10 % wt, wherein complex lipids are phospholipids, ceramides, sphingomyelins, glycosphingolipids, and combinations thereof in a form that can be incorporated in lipid bilayers; (b) a natural moisturizer formulation, wherein the natural moisturizers are selected from the group consisting of urocanic acid and pyrrolidone-5-carboxylic acid, the natural moisturizer formulation present in a skin moisturizing amount; (c) one or more retinoids in an amount from 0.01 % wt. to 10 % wt.; and (d) taurine in an amount from 0.1 % wt. to 5 % wt.
A method of providing stability augmentation in an aircraft, comprising: receiving mechanical movements representative of pilot commands; receiving, at a stability augmentation motor, a command input representative of a stability augmentation command specifying an output position of the stability augmentation motor; measuring the current position of the stability augmentation motor; comparing the current position with the command input position; instructing the stability augmentation motor to move its output position to the command position; receiving mechanical movements from the stability augmentation motor representative of the stability augmentation command; mechanically summing the mechanical movements representative of pilot commands and the mechanical movements representative of stability augmentation commands to yield mechanical movements representative of position commands; transmitting the mechanical movements representative of position commands to a control system; and periodically remeasuring the output position of the stability augmentation motor and adjusting the output position if it does not match the command position. receiving mechanical movements representative of pilot commands; receiving, at a stability augmentation motor, a command input representative of a stability augmentation command specifying an output position of the stability augmentation motor; measuring the current position of the stability augmentation motor; comparing the current position with the command input position; instructing the stability augmentation motor to move its output position to the command position; receiving mechanical movements from the stability augmentation motor representative of the stability augmentation command; mechanically summing the mechanical movements representative of pilot commands and the mechanical movements representative of stability augmentation commands to yield mechanical movements representative of position commands; transmitting the mechanical movements representative of position commands to a control system; and periodically remeasuring the output position of the stability augmentation motor and adjusting the output position if it does not match the command position.
A refrigeration display cabinet system, comprising: a cabinet body; a display region enclosed by the cabinet body; a refrigeration system comprising a compressor, a condenser, a throttling element, and an evaporator that sequentially communicate with each other through a pipeline; and a bypass heat exchanger; wherein the bypass heat exchanger is disposed to be in contact with the cabinet body, and exchanges heat with the display region; wherein the display region has a display port in communication with the external through an air curtain and wherein the cabinet body comprises a bottom part located under the display region; characterized in that an inlet end and an outlet end of the bypass heat exchanger are both connected to the evaporator; wherein the bypass heat exchanger is arranged in the bottom part, is in contact with a top plate of the bottom part, and exchanges heat with the display region. a cabinet body; a display region enclosed by the cabinet body; a refrigeration system comprising a compressor, a condenser, a throttling element, and an evaporator that sequentially communicate with each other through a pipeline; and a bypass heat exchanger; wherein the bypass heat exchanger is disposed to be in contact with the cabinet body, and exchanges heat with the display region; wherein the display region has a display port in communication with the external through an air curtain and wherein the cabinet body comprises a bottom part located under the display region; characterized in that an inlet end and an outlet end of the bypass heat exchanger are both connected to the evaporator; wherein the bypass heat exchanger is arranged in the bottom part, is in contact with a top plate of the bottom part, and exchanges heat with the display region.
A method of wireless communication at a User Equipment, UE, comprising: receiving (1120, 1202), from a base station, an indication of resources in time and frequency allocated for Non-Orthogonal Multiple Access, NOMA, communication with the base station, wherein the indication of resources comprises a set of NOMA resource units, NA-RUs, wherein the set of NA-RUs are mapped to a time frequency resource grid with respect to a synchronization signal block, SSB, based on at least one of a center frequency of an NA-RU or a number of physical resource blocks, PRBs, within each NA-RU in the set of NA-RUs, wherein the indication of resources is based on a mapping of the set of NA-RUs to a time frequency resource grid and indexed in a sequential order; and transmitting (1130, 1204) uplink NOMA communication to the base station based on the indication of resources received from the base station. receiving (1120, 1202), from a base station, an indication of resources in time and frequency allocated for Non-Orthogonal Multiple Access, NOMA, communication with the base station, wherein the indication of resources comprises a set of NOMA resource units, NA-RUs, wherein the set of NA-RUs are mapped to a time frequency resource grid with respect to a synchronization signal block, SSB, based on at least one of a center frequency of an NA-RU or a number of physical resource blocks, PRBs, within each NA-RU in the set of NA-RUs, wherein the indication of resources is based on a mapping of the set of NA-RUs to a time frequency resource grid and indexed in a sequential order; and transmitting (1130, 1204) uplink NOMA communication to the base station based on the indication of resources received from the base station.
A method for measuring a tubular strand (16, 116, 216) exiting from an extrusion device (10, 110, 210), characterized in that electromagnetic radiation from at least one radiation source within a frequency range of 1 GHz to 6000 GHz is directed from the inside to the inner side of the tubular strand (16, 116, 216), electromagnetic radiation reflected by the tubular strand (16, 116, 216) is received by at least one radiation receiver, and the diameter, and/or the wall thickness, and/or deviations in shape of the tubular strand (16, 116, 216) is/are established from the received electromagnetic radiation, wherein the electromagnetic radiation is directed to several measuring regions of the inner side of the tubular strand (16, 116, 216) distributed over the inner circumference of the tubular strand (16, 116, 216), and wherein the electromagnetic radiation is directed to the inner side of the tubular strand (16, 116, 216) with at least one radiation transmitter arranged in the interior of the tubular strand (16, 116, 216) and rotating about the longitudinal axis of the tubular strand (16, 116, 216).
A method of manufacturing a conductive metal sheet, the method comprises cooling and solidifying molten conductive metal flowing out of a melting furnace by a cooling device to form a conductive metal sheet, cooling a raw material in which all of the conductive metal is in a molten state to make the raw material become a pre-product (Pp) of which a part is solidified and the rest is in a molten state, and cooling further the pre-product (Pp) to make the pre-product become the conductive metal sheet as a product in which all of the molten conductive metal is solidified, the method comprising: providing the molten conductive metal from the melting furnace to the cooling device via a flow channel; applying a vibration to at least one of the raw material and the molten conductive metal of the pre-product (Pp) by an electromagnetic force generated due to intersection between a magnetic field and an alternating current flow, wherein the magnetic field is applied to the raw material or the pre-product (Pp) in a thickness direction by a magnetic field unit including permanent magnets (21a,21b); and the alternating current flow is generated between a first electrode and a second electrode, the first electrode being electrically connected to the product coming out from the cooling device, the second electrode being electrically connected to the molten conductive metal,, and the alternating current flow is applied through at least one of the raw material and molten conductive metal of the pre-product (Pp) at the magnetic field unit, so that the alternating current intersects the magnetic field. providing the molten conductive metal from the melting furnace to the cooling device via a flow channel; applying a vibration to at least one of the raw material and the molten conductive metal of the pre-product (Pp) by an electromagnetic force generated due to intersection between a magnetic field and an alternating current flow, wherein the magnetic field is applied to the raw material or the pre-product (Pp) in a thickness direction by a magnetic field unit including permanent magnets (21a,21b); and the alternating current flow is generated between a first electrode and a second electrode, the first electrode being electrically connected to the product coming out from the cooling device, the second electrode being electrically connected to the molten conductive metal,, and the alternating current flow is applied through at least one of the raw material and molten conductive metal of the pre-product (Pp) at the magnetic field unit, so that the alternating current intersects the magnetic field.
A watchdog monitor system comprising a power integrated circuit, IC, having a watchdog timer circuit (40, 40A) and being formed on a semiconductor substrate, the watchdog timer circuit (40, 40A) comprising a timer circuit and a timer control circuit, wherein the timer circuit is adapted to count a count clock signal from an initial value thereof, to output a reset instruction when a count value reaches a time-out value, and to initialize said count value when a timer refresh instruction to be externally input thereto is received, and the timer control circuit is adapted to load a predetermined data to be externally input thereto using the timer refresh instruction as a data latch enable signal, to determine whether the predetermined data matches a predefined pattern or not, to inhibit a count clock signal counting operation to be performed by said timer circuit when there is a state in which the predetermined data matches the predefined pattern, and to restart the count clock signal counting operation of said timer circuit when the state is changed such that the predetermined data does not match the predefined pattern, wherein said power IC comprises a power supply circuit operatively responsive to receipt of an external power supply voltage for generating a predetermined operation power supply voltage, a reset circuit for outputting an external reset signal in response to receipt of either a power-on reset instruction concerning the power supply voltage being output from said power supply circuit or a reset instruction due to time-out of the timer circuit of said watchdog timer circuit (40, 40A), a first external terminal (PRUN) for inputting from outside of said power IC a control signal used for the timer refresh instruction, a second external terminal (RESB) for outputting an external reset signal to outside of said power IC, a third external terminal for inputting the data signal from outside of said power IC, a fourth external terminal (VOUT) for outputting the predetermined operation power supply voltage to outside of said power IC, and a fifth external terminal for inputting other instructions from outside of said power IC, further comprising a microcomputer coupled to the first to fourth external terminals of said power IC, and a switch circuit for outputting a signal depending on a switch state to said fifth external terminal, wherein said microcomputer is adapted to execute, in responding thereto, a low power consumption command to thereby give the first external terminal a clock change and supply the third external terminal with a data signal corresponding to the predefined pattern in sync with the clock change and then go into a low power consumption state, and wherein said timer control circuit is adapted to cause said timer circuit to stop its timer count operation on condition that the input to said fifth external terminal indicates that said switch circuit is in a switch-off state.
An object path prediction method for predicting paths of a plurality of objects by a computer having a storage unit (108; 210) that stores at least positions of the plurality of objects and an internal state including a speed of each object, comprising: a trajectory generation step (S32; S62) of generating a trajectory in a space-time constituted by time and space from changes of the position that can be taken by each of the plurality of objects with a passage of time based on, after reading the positions and the internal states of the plurality of objects from the storage unit (108; 210), the read positions and the internal states of the objects; a prediction step (S33; S63) of probabilistically predicting the paths of the plurality of objects by using the trajectories generated in the trajectory generation step (S32; S62); and an interference level calculation step (S34; S64) of calculating, based on results of prediction in the prediction step (S33; S63), a level of interference quantitatively showing an extent of interference between the paths that can be taken by a specific object and those that can be taken by other objects, characterized in that the interference level calculation step (S34; S64) increases or decreases a value of the level of interference between the specific object and each of the other objects by a specified quantity in accordance with a number of times that the specific object and each of the other objects move closer than an interference distance, which is a maximal value of a spatial distance that allows considering that the specific object and the other object have collided. a trajectory generation step (S32; S62) of generating a trajectory in a space-time constituted by time and space from changes of the position that can be taken by each of the plurality of objects with a passage of time based on, after reading the positions and the internal states of the plurality of objects from the storage unit (108; 210), the read positions and the internal states of the objects; a prediction step (S33; S63) of probabilistically predicting the paths of the plurality of objects by using the trajectories generated in the trajectory generation step (S32; S62); and an interference level calculation step (S34; S64) of calculating, based on results of prediction in the prediction step (S33; S63), a level of interference quantitatively showing an extent of interference between the paths that can be taken by a specific object and those that can be taken by other objects, characterized in that the interference level calculation step (S34; S64) increases or decreases a value of the level of interference between the specific object and each of the other objects by a specified quantity in accordance with a number of times that the specific object and each of the other objects move closer than an interference distance, which is a maximal value of a spatial distance that allows considering that the specific object and the other object have collided.
A method for transmitting information in a battery management system, characterized by comprising: determining, from a plurality of slave nodes (S 0, S 1, S 2, S k), a fault slave node that communicates abnormally with a master node in the battery management system; selecting a target slave node from the plurality of slave nodes (S 0, S 1, S 2, S k), wherein the target slave node is a slave node that communicates normally with both the master node and the fault slave node; transmitting frequency conversion information to the target slave node, so that the target slave node forwards the frequency conversion information to the fault slave node, and the fault slave node performs a frequency conversion based on the frequency conversion information; and transmitting information with the fault slave node using a frequency after the frequency conversion. determining, from a plurality of slave nodes (S 0, S 1, S 2, S k), a fault slave node that communicates abnormally with a master node in the battery management system; selecting a target slave node from the plurality of slave nodes (S 0, S 1, S 2, S k), wherein the target slave node is a slave node that communicates normally with both the master node and the fault slave node; transmitting frequency conversion information to the target slave node, so that the target slave node forwards the frequency conversion information to the fault slave node, and the fault slave node performs a frequency conversion based on the frequency conversion information; and transmitting information with the fault slave node using a frequency after the frequency conversion.
Rotor blade for a wind turbine, wherein - the rotor blade comprises serrations along at least a portion of the trailing edge section of the rotor blade, - the serrations comprise a first tooth and at least a second tooth adjacent to the first tooth, and - the first tooth is spaced apart from the second tooth, wherein the area in between the first tooth and the adjacent second tooth is at least partially filled with porous material such that generation of noise in the trailing edge section of the rotor blade is reduced; the porous material comprises an open area fraction that is the fraction of the open air area compared to the total area covered by the porous material; and wherein: said porous material is a mesh comprising a plurality of strands which are connected to each other in a regular pattern; or said porous material comprises a plurality of fibers, wherein the fibers are tapered in direction towards the trailing edge of the rotor blade. - the rotor blade comprises serrations along at least a portion of the trailing edge section of the rotor blade, - the serrations comprise a first tooth and at least a second tooth adjacent to the first tooth, and - the first tooth is spaced apart from the second tooth, wherein the area in between the first tooth and the adjacent second tooth is at least partially filled with porous material such that generation of noise in the trailing edge section of the rotor blade is reduced; the porous material comprises an open area fraction that is the fraction of the open air area compared to the total area covered by the porous material; and wherein: said porous material is a mesh comprising a plurality of strands which are connected to each other in a regular pattern; or said porous material comprises a plurality of fibers, wherein the fibers are tapered in direction towards the trailing edge of the rotor blade. said porous material is a mesh comprising a plurality of strands which are connected to each other in a regular pattern; or said porous material comprises a plurality of fibers, wherein the fibers are tapered in direction towards the trailing edge of the rotor blade.
A resilient wound dressing comprising: an absorbent layer comprising a non-woven resilient sheet of elastomeric material bonded to a non-woven absorbent material; an elastomeric backing layer; and an elastomeric adhesive layer located between the absorbent layer and the backing layer to adhere the absorbent layer to the backing layer, wherein the non-woven resilient sheet and the non-woven absorbent material are bonded by needle bonding. an absorbent layer comprising a non-woven resilient sheet of elastomeric material bonded to a non-woven absorbent material; an elastomeric backing layer; and an elastomeric adhesive layer located between the absorbent layer and the backing layer to adhere the absorbent layer to the backing layer, wherein the non-woven resilient sheet and the non-woven absorbent material are bonded by needle bonding.
A method for reporting Application Programming Interface, API, capability change according to an API filter, the method comprising: at a first node within a telecommunication core network, which first node comprises a combined Service Capability Exposure Function, SCEF, and Network Exposure Function, NEF,: receiving, from a requesting entity that comprises an Application Function, AF, a monitoring request to be notified of an API capability change related to an identified wireless device associated with a service API, the monitoring request identifying a subset of one or more APIs in which the AF is interested to have monitored; subscribing (402,404) to receive notifications of a core network type change for the identified wireless device; receiving a notification that the identified wireless device has changed from a first type of core network to a second type of core network; determining an API capability change from the first type of core network to the second type of core network for the identified subset of one or more APIs in which the AF is interested and filtering out all but the APIs in which the AF is interested; and reporting, to the requesting entity, the API capability change for the identified subset of one or more APIs in which the AF is interested and not reporting the API capability change for other APIs not in the identified subset. receiving, from a requesting entity that comprises an Application Function, AF, a monitoring request to be notified of an API capability change related to an identified wireless device associated with a service API, the monitoring request identifying a subset of one or more APIs in which the AF is interested to have monitored; subscribing (402,404) to receive notifications of a core network type change for the identified wireless device; receiving a notification that the identified wireless device has changed from a first type of core network to a second type of core network; determining an API capability change from the first type of core network to the second type of core network for the identified subset of one or more APIs in which the AF is interested and filtering out all but the APIs in which the AF is interested; and reporting, to the requesting entity, the API capability change for the identified subset of one or more APIs in which the AF is interested and not reporting the API capability change for other APIs not in the identified subset.