mhurhangee/patent-ind-claim-en huggingface dataset:
A friction plate having a friction surface formed by adhering a friction material to a substantially annular core plate , said friction surface being provided with an oil passage communicated with inner and outer peripheral edges of said friction plate; characterised in that said friction surface is provided with at least one first oil groove having an opening portion opened to said inner peripheral edge of said friction plate and a closed end portion terminating at a position between said inner and outer peripheral edges, and a plurality of second oil grooves each having an opening portion opened to said outer peripheral edge of said friction plate and a closed end portion terminating at a position between said inner and outer peripheral edges, and wherein both the first oil groove and the second oil grooves are formed to have a substantially constant circumferential width extending from the opening portion to the end portion and the number of said at least one first oil grooves is smaller than that of said second oil grooves.
A pitch-yaw actuation system for actuating a device head , comprising: a pitch frame configured to be pivotably coupled to a device frame via a pitch hinge having a pitch axis ; a yaw frame pivotably coupled to the pitch frame via a yaw hinge having a yaw axis orthogonal to the pitch axis ; a pitch actuator configured to pivot the pitch frame about the pitch axis ; a yaw actuator configured to pivot the yaw frame about the yaw axis ; a universal joint assembly coupling the yaw actuator to the yaw frame , and including: a linear guide mechanism having a guide mechanism axis ; a universal joint slidably coupled to the linear guide mechanism ; and the guide mechanism axis is oriented at an angle that allows the universal joint to move in a manner accommodating misalignment of the yaw actuator with the yaw frame during pivoting of at least one of the pitch frame and the yaw frame . a pitch frame configured to be pivotably coupled to a device frame via a pitch hinge having a pitch axis ; a yaw frame pivotably coupled to the pitch frame via a yaw hinge having a yaw axis orthogonal to the pitch axis ; a pitch actuator configured to pivot the pitch frame about the pitch axis ; a yaw actuator configured to pivot the yaw frame about the yaw axis ; a universal joint assembly coupling the yaw actuator to the yaw frame , and including: a linear guide mechanism having a guide mechanism axis ; a universal joint slidably coupled to the linear guide mechanism ; and the guide mechanism axis is oriented at an angle that allows the universal joint to move in a manner accommodating misalignment of the yaw actuator with the yaw frame during pivoting of at least one of the pitch frame and the yaw frame . a linear guide mechanism having a guide mechanism axis ; a universal joint slidably coupled to the linear guide mechanism ; and the guide mechanism axis is oriented at an angle that allows the universal joint to move in a manner accommodating misalignment of the yaw actuator with the yaw frame during pivoting of at least one of the pitch frame and the yaw frame .
An electronic aerosol provision system comprising: an airflow sensor operable to measure an airflow parameter; a profile recall unit operable to recall one or more inhalation airflow profiles, describing the velocity and/or amount of air inhaled through the electronic aerosol provision system over the course of a puff by the user; a comparison processing unit operable to compare a measured airflow parameter with at least a first inhalation airflow profile while providing aerosol to a user; and a feedback unit operable to provide feedback to the user responsive to the difference between a compared measured airflow parameter and inhalation airflow profile. an airflow sensor operable to measure an airflow parameter; a profile recall unit operable to recall one or more inhalation airflow profiles, describing the velocity and/or amount of air inhaled through the electronic aerosol provision system over the course of a puff by the user; a comparison processing unit operable to compare a measured airflow parameter with at least a first inhalation airflow profile while providing aerosol to a user; and a feedback unit operable to provide feedback to the user responsive to the difference between a compared measured airflow parameter and inhalation airflow profile.
Alternating current circuit breaker comprising a live line between a live supply connecting terminal (Lin) and a live load connecting terminal (Lout), and a neutral line between a neutral supply connecting terminal (Nin) and a neutral load connecting terminal (Nout) for connecting an alternating current load to a mains supply, comprising a first galvanic separation switch (SW2) and a bypass switch (SW1) connected in the live line, and a second galvanic separation switch (SW3) connected in the neutral line, and a semiconductor switch element connected parallel to the bypass switch (SW1), wherein the first and second galvanic separation switch (SW2, SW3), the bypass switch (SW1) and the semiconductor switch element are controlled using a processing unit, wherein the first and second galvanic separation switches (SW2,SW3) and the bypass switch (SW1) are bi-stable relay switches, the semiconductor switch element comprises a combination of a rectifier bridge (D1-D4) and an isolated gate bipolar transistor (IGBT), wherein alternating current terminals of the rectifier bridge (D1-D4) are connected in parallel to the bypass switch (SW1), and direct current terminals of the rectifier bridge (D1-D4) are connected to an emitter and a collector terminal of the isolated gate bipolar transistor (IGBT), and wherein the processing unit is connected to a current measurement unit arranged in the live line, and is arranged to control the change of state of the bypass switch (SW1), first and second galvanic separation switches (SW2, SW3) by use of a pulse signal and to control the conducting state of the isolated gate bipolar transistor (IGBT) in case of detection of a short circuit or an overcurrent condition wherein the current measuring unit is configured to measure one or more parameters from the group of: - a momentary value of the load current (I(t)); - a speed of increase (dI/dt) of the load current; - a RMS value of the load current (<I>) - a time information of the load current (I(t), t1<t<t2). - a momentary value of the load current (I(t)); - a speed of increase (dI/dt) of the load current; - a RMS value of the load current (<I>) - a time information of the load current (I(t), t1<t<t2).
A mounting bracket for retaining a rigid-axle trailing arm on a vehicle support , encompassing two mounting-bracket sidewalls which are located remotely from one another along a spacing axis (A) and between which a passthrough configuration extending along the spacing axis (A) proceeds, which configuration is embodied, in the completely installed state of the mounting bracket , to pass through an attachment eye, received between the mounting-bracket sidewalls , of the rigid-axle trailing arm; the mounting-bracket sidewalls being connected to one another, in a first connection region , by a spine configuration located remotely from the passthrough configuration in a first direction (R1) orthogonal to the spacing axis (A); and the mounting-bracket sidewalls being connected to one another, in a second connection region different from the first, by a connection configuration located remotely from the passthrough configuration in a second direction (R2) that is orthogonal to the spacing direction (A) and is different from the first direction (R1); a reception space of the mounting bracket , which space is delimited by the mounting-bracket sidewalls , the spine configuration , and the connection configuration and is passed through by the passthrough configuration , being open for introduction of the attachment eye from an introduction region of the mounting bracket which is located remotely both from the spine configuration and from the connection configuration , characterized in that an abutment component having at least one abutment portion is arranged in the region between the passthrough configuration and the spine configuration ; the at least one abutment portion being unconnectedly located oppositely from, or abutting against, a mounting-bracket sidewall (12 or 14) in a wall portion facing toward the respective other mounting-bracket sidewall (14 or 12) in such a way that only a compressive force having an effect along the spacing axis (A) is transferrable between the mounting-bracket sidewall and abutment portion ; a bracing region , comprising the abutment portion , of the abutment component being connected intentionally detachably to the spine configuration .
A non-transitory machine-readable storage medium having stored thereon machine-readable instructions executable to cause a processor to: detect a consumable package ; identify a characteristic about a consumable associated with the consumable package ; modify a print device setting according to the identified characteristic; create a log entry associated with the consumable package ; and append the log entry to a user activity log, the user activity log comprising a plurality of logged actions associated with users of the consumable package and comprising user feedback on the performance of the consumable using the modified settings, wherein the user feedback is used to adjust the settings to be modified when the consumable package is detected. detect a consumable package ; identify a characteristic about a consumable associated with the consumable package ; modify a print device setting according to the identified characteristic; create a log entry associated with the consumable package ; and append the log entry to a user activity log, the user activity log comprising a plurality of logged actions associated with users of the consumable package and comprising user feedback on the performance of the consumable using the modified settings, wherein the user feedback is used to adjust the settings to be modified when the consumable package is detected.
Process for printing a substrate containing curved surface sections by using an ink printing assembly with a movable print head comprising an ink carrier having an ink layer, the ink layer being irradiated regionally in such a way that heat bulges are formed in the ink layer which cause the splitting of ink droplets so that the ink printing assembly is working as nozzleless droplet ejector for ejecting droplets of ink from the ink layer, where the distance between the print head and the curved sections of the substrate is adjusted by moving the print head relative to the substrate by providing the print head with three degrees of freedom in translation, allowing horizontal (Tx), vertical (Tg) and in depth (Tz) translations. the ink layer being irradiated regionally in such a way that heat bulges are formed in the ink layer which cause the splitting of ink droplets so that the ink printing assembly is working as nozzleless droplet ejector for ejecting droplets of ink from the ink layer, where the distance between the print head and the curved sections of the substrate is adjusted by moving the print head relative to the substrate by providing the print head with three degrees of freedom in translation, allowing horizontal (Tx), vertical (Tg) and in depth (Tz) translations.
A method for producing a component from ceramic materials, wherein a plurality of layers, which are made of a ceramic material, are in each case applied in a defined geometry on top of one another, in the form of a paste or suspension containing powdery ceramic material and at least one binder, are applied to a base body by means of screen or stencil printing, and at least one region having a defined thickness and geometry is created within at least one layer from a further material that can be removed in a thermal treatment and is likewise applied in the form of a paste or suspension by means of screen or stencil printing, and before a further ceramic layer is applied, electrically functional structures made of an electrically conducting or semiconducting material are applied to and/or created in at least one of the ceramic layers, and the layer structure is sintered in a thermal heat treatment, the further material being removed and at least one hollow space having defined dimensions, width, length, and height being created. a plurality of layers, which are made of a ceramic material, are in each case applied in a defined geometry on top of one another, in the form of a paste or suspension containing powdery ceramic material and at least one binder, are applied to a base body by means of screen or stencil printing, and at least one region having a defined thickness and geometry is created within at least one layer from a further material that can be removed in a thermal treatment and is likewise applied in the form of a paste or suspension by means of screen or stencil printing, and before a further ceramic layer is applied, electrically functional structures made of an electrically conducting or semiconducting material are applied to and/or created in at least one of the ceramic layers, and the layer structure is sintered in a thermal heat treatment, the further material being removed and at least one hollow space having defined dimensions, width, length, and height being created.
A computer-implemented method of protocol processing comprising a main program code (MC), the main program code (MC) comprising instructions for processing different protocol elements (MAC SA, MAC DA) of data packets of a data packet stream (S1) of a transport protocol (TP), wherein a data packet of the data packet stream has a header and a payload and the header keeps overhead information about the packet, a service and other transmission-related data, and wherein the protocol elements correspond to the overhead information, the main program code (MC) comprising multiple code segments, the method comprising the steps of: assigning a latency requirement and/or bandwidth requirement to the code segments of the main program code (MC), compiling each of the code segments according to the assigned latency and/or bandwidth requirement into a respective target code for executing each of the target codes in hardware and by software by different processors (P1, P11, P12, P13, P2) depending on the specific requirements set for the code segments of the main program code (MC), wherein the processors have different processing capabilities, for processing protocol elements of a first type (MAC DA) by the first processor (P1) according to the first target code, and for processing protocol elements of a second type (MAC SA) by the second processor (P2) according to the second target code, wherein the first and second type of protocol elements are different, and distributing the target code to the respective processor (P1, P11, P12, P13, P2) for executing the target code. assigning a latency requirement and/or bandwidth requirement to the code segments of the main program code (MC), compiling each of the code segments according to the assigned latency and/or bandwidth requirement into a respective target code for executing each of the target codes in hardware and by software by different processors (P1, P11, P12, P13, P2) depending on the specific requirements set for the code segments of the main program code (MC), wherein the processors have different processing capabilities, for processing protocol elements of a first type (MAC DA) by the first processor (P1) according to the first target code, and for processing protocol elements of a second type (MAC SA) by the second processor (P2) according to the second target code, wherein the first and second type of protocol elements are different, and distributing the target code to the respective processor (P1, P11, P12, P13, P2) for executing the target code.
A communication method, comprising: setting , by a first station , STA, a first basic service set, BSS, color; generating , by the first STA, a data frame when the first STA and a second STA perform device-to-device, D2D, transmission, wherein the data frame comprises the first BSS color; and sending , by the first STA, the data frame to the second STA. setting , by a first station , STA, a first basic service set, BSS, color; generating , by the first STA, a data frame when the first STA and a second STA perform device-to-device, D2D, transmission, wherein the data frame comprises the first BSS color; and sending , by the first STA, the data frame to the second STA.
A method for a network to handle channel allocation for multiple network nodes, the method comprising the steps of: obtaining at least one first channel of a first network node and at least one second channel of a second network node ; determining that a first priority of the first network node is lower than a second priority of the second network node according to at least one policy ; selecting at least one first available channel from the at least one first channel according to at least one second allocated channel of the second network node, after selecting the at least one second allocated channel ; selecting at least one first allocated channel from the at least one first available channel, if the network selects the at least one first available channel from the at least one first channel successfully ; and allocating the at least one first allocated channel to the first network node ; the method characterized in that the step of selecting the at least one first available channel from the at least one first channel according to the at least one second allocated channel of the second network node comprises: selecting the at least one first channel which is not the at least one second allocated channel, if the first network node is interfered by the second network node; or selecting all of the at least one first channel, if the first network node and the second network node are not interfered by each other. obtaining at least one first channel of a first network node and at least one second channel of a second network node ; determining that a first priority of the first network node is lower than a second priority of the second network node according to at least one policy ; selecting at least one first available channel from the at least one first channel according to at least one second allocated channel of the second network node, after selecting the at least one second allocated channel ; selecting at least one first allocated channel from the at least one first available channel, if the network selects the at least one first available channel from the at least one first channel successfully ; and allocating the at least one first allocated channel to the first network node ; the method characterized in that the step of selecting the at least one first available channel from the at least one first channel according to the at least one second allocated channel of the second network node comprises: selecting the at least one first channel which is not the at least one second allocated channel, if the first network node is interfered by the second network node; or selecting all of the at least one first channel, if the first network node and the second network node are not interfered by each other. selecting the at least one first channel which is not the at least one second allocated channel, if the first network node is interfered by the second network node; or selecting all of the at least one first channel, if the first network node and the second network node are not interfered by each other.
An electro-optic (E/O) device comprising: a first asymmetric optical coupler having an input for receiving an optical input signal and first and second outputs; a first optical waveguide arm coupled to the first output of said first asymmetric optical coupler; a second optical waveguide arm coupled to the second output of said first asymmetric optical coupler; said first asymmetric optical coupler being configured for splitting said optical input signal into first and second optical signals for the first and second optical waveguide arms, with the first and second optical signal having equal phases but at different power levels; at least a first E/O amplitude modulator comprising a first optical ring modulator coupled to said first optical waveguide arm and a second E/O amplitude modulator comprising a second optical ring modulator coupled to said second optical waveguide arm ; and a first optical combiner coupled to said first and second optical waveguide arms downstream from said at least first E/O amplitude modulator and second E/O amplitude modulator. a first asymmetric optical coupler having an input for receiving an optical input signal and first and second outputs; a first optical waveguide arm coupled to the first output of said first asymmetric optical coupler; a second optical waveguide arm coupled to the second output of said first asymmetric optical coupler; said first asymmetric optical coupler being configured for splitting said optical input signal into first and second optical signals for the first and second optical waveguide arms, with the first and second optical signal having equal phases but at different power levels; at least a first E/O amplitude modulator comprising a first optical ring modulator coupled to said first optical waveguide arm and a second E/O amplitude modulator comprising a second optical ring modulator coupled to said second optical waveguide arm ; and a first optical combiner coupled to said first and second optical waveguide arms downstream from said at least first E/O amplitude modulator and second E/O amplitude modulator.
A method of processing a specimen that includes a clinical sample disposed in a liquid-based cytology preservative that comprises formaldehyde, the method comprising the steps of: (a) combining the specimen with proteinase K and formaldehyde scavenger to create a reaction mixture, wherein the formaldehyde scavenger is 2-imidazolidone; (b) incubating the reaction mixture at between 65 and 100 °C for a period of time sufficient to reverse chemical modifications of nucleic acid that may be contained in the specimen by formaldehyde in the liquid-based cytology preservative; (c) isolating a nucleic acid from the reaction mixture after the incubating step; and (d) performing an in vitro amplification reaction using the nucleic acid from the isolating step as templates. (a) combining the specimen with proteinase K and formaldehyde scavenger to create a reaction mixture, wherein the formaldehyde scavenger is 2-imidazolidone; (b) incubating the reaction mixture at between 65 and 100 °C for a period of time sufficient to reverse chemical modifications of nucleic acid that may be contained in the specimen by formaldehyde in the liquid-based cytology preservative; (c) isolating a nucleic acid from the reaction mixture after the incubating step; and (d) performing an in vitro amplification reaction using the nucleic acid from the isolating step as templates.
A method of setting a liner hanger , the method comprising the steps of: conveying the liner hanger into a wellbore using a running tool ; applying a first compressive force to the running tool ; then applying a left-hand torque to the running tool , thereby shearing at least one shear element ; and then applying a first tensile force to the running tool . conveying the liner hanger into a wellbore using a running tool ; applying a first compressive force to the running tool ; then applying a left-hand torque to the running tool , thereby shearing at least one shear element ; and then applying a first tensile force to the running tool .