mhurhangee/patent-ind-claim-en huggingface dataset:
Human-machine interface system for a pedal-assisted bicycle comprising an electric motor coupled to one of the bicycle wheels , a pedal-thrust group to be pedaled by an user, a transmission operatively interposed between said pedal-thrust group and one of the bicycle wheels comprising a free-wheel mechanism , an unit for controlling the electric motor , wherein said interface system comprises: - a sensor configured for measuring the speed (ω p ) and direction (ω f/b ) of the pedal-thrust of pedal-thrust group or the pedal-thrust torque and the direction of the pedal-thrust torque applied to pedal-thrust group , and for generating a signal representative of the pedal-thrust speed or of pedal-thrust torque and a signal representative of the pedal-thrust direction or pedal-thrust torque direction; characterized in that it further comprises a message generating module comprising: - a module for calculating a state of the pedal-thrust direction of the pedal-thrust group based on said signal representative of pedal-thrust direction (ω f/b ) or of the direction of pedal-thrust torque applied to the pedal-thrust group and - a module for calculating two or more states corresponding to pedal-thrust speed levels or pedal-thrust torque levels of the pedal-thrust group based on said signals representative of pedal-thrust speed (ω p ) or of the pedal-thrust torque and - a module for generating a sequence of predetermined logic letters wherein each of said logic letters is based on a combination of the states from the calculating modules ; wherein the interface system further comprises an analyzing module configured for generating command signals (COMM) for said electric motor control unit based on said logic letters sequences. - a sensor configured for measuring the speed (ω p ) and direction (ω f/b ) of the pedal-thrust of pedal-thrust group or the pedal-thrust torque and the direction of the pedal-thrust torque applied to pedal-thrust group , and for generating a signal representative of the pedal-thrust speed or of pedal-thrust torque and a signal representative of the pedal-thrust direction or pedal-thrust torque direction; - a module for calculating a state of the pedal-thrust direction of the pedal-thrust group based on said signal representative of pedal-thrust direction (ω f/b ) or of the direction of pedal-thrust torque applied to the pedal-thrust group and - a module for calculating two or more states corresponding to pedal-thrust speed levels or pedal-thrust torque levels of the pedal-thrust group based on said signals representative of pedal-thrust speed (ω p ) or of the pedal-thrust torque and - a module for generating a sequence of predetermined logic letters wherein each of said logic letters is based on a combination of the states from the calculating modules ;
A computer-implemented method of automated seismic amplitude analysis, comprising: a. receiving , at a computer processor , a seismic dataset which is acquired at the earth's surface or an ocean's surface and which is representative of a subsurface volume of interest wherein the seismic dataset includes an angle or angle stack dimension; b. selecting, via the computer processor , a plurality of sets of sub-cubes in the seismic dataset wherein each set of sub-cubes includes a plurality of the angles or the angle stacks; c. computing , via the computer processor , standard score statistics for each sub-cube; d. identifying , via the computer processor , amplitude variation with angle, AVA, anomalies based on the standard score statistics for each sub-cube; e. classifying , via the computer processor , the AVA anomalies to generate classified AVA anomalies; and f. displaying, on a user interface, the classified AVA anomalies as a graphical display, wherein the identifying AVA anomalies comprises: identifying sub-cubes with statistically similar distributions of amplitude to classify as background; and computing an intercept and gradient for each sample in each sub-cube which is not the background by fitting to a reflectivity equation using a least-squares regression. a. receiving , at a computer processor , a seismic dataset which is acquired at the earth's surface or an ocean's surface and which is representative of a subsurface volume of interest wherein the seismic dataset includes an angle or angle stack dimension; b. selecting, via the computer processor , a plurality of sets of sub-cubes in the seismic dataset wherein each set of sub-cubes includes a plurality of the angles or the angle stacks; c. computing , via the computer processor , standard score statistics for each sub-cube; d. identifying , via the computer processor , amplitude variation with angle, AVA, anomalies based on the standard score statistics for each sub-cube; e. classifying , via the computer processor , the AVA anomalies to generate classified AVA anomalies; and f. displaying, on a user interface, the classified AVA anomalies as a graphical display, wherein the identifying AVA anomalies comprises: identifying sub-cubes with statistically similar distributions of amplitude to classify as background; and computing an intercept and gradient for each sample in each sub-cube which is not the background by fitting to a reflectivity equation using a least-squares regression. identifying sub-cubes with statistically similar distributions of amplitude to classify as background; and computing an intercept and gradient for each sample in each sub-cube which is not the background by fitting to a reflectivity equation using a least-squares regression.
A breast status determination device (10, ..., 10"") comprising: - a breast shield (16, ..., 16"") for receiving a breast of a user therein, and - a nipple elongation measurement unit (17, ..., 17"") configured for measuring an elongation of a nipple of the breast received in the breast shield (16, ..., 16"") for a specific pressure in the breast shield (16, ..., 16"") during a milk extraction session, and - a breast status determination unit (20, ..., 20" ") configured for determining an estimated breast emptiness of the breast of the user , a presence or absence of a milk ejection reflex, or the estimated breast emptiness of the breast of the user and the presence or absence of the milk ejection reflex of the breast of the user as a status of the breast of the user based on the elongation of the nipple of the breast of the user . - a breast shield (16, ..., 16"") for receiving a breast of a user therein, and - a nipple elongation measurement unit (17, ..., 17"") configured for measuring an elongation of a nipple of the breast received in the breast shield (16, ..., 16"") for a specific pressure in the breast shield (16, ..., 16"") during a milk extraction session, and - a breast status determination unit (20, ..., 20" ") configured for determining an estimated breast emptiness of the breast of the user , a presence or absence of a milk ejection reflex, or the estimated breast emptiness of the breast of the user and the presence or absence of the milk ejection reflex of the breast of the user as a status of the breast of the user based on the elongation of the nipple of the breast of the user .
Pipe welding device with a rotary table , to which a pipe section to be welded can be coupled, and with a motor for driving the rotary table , wherein the pipe welding device has a ground connection , which is connected by way of a rotary tap to the rotary table , characterised in that the rotary table comprises a forming gas and/or vacuum opening , via which the interior of a pipe section coupled to the rotary table can be acted upon by forming gas and/or vacuum.
A receiver assembly comprising: - a receiver housing comprising a first housing part and a second housing part , the receiver housing defining an inner space, wherein the first housing part and the second housing part are movable relative to each other to define an open configuration and a closed configuration, - an armature extending in a first direction in the inner space, - a diaphragm operationally attached to the armature via a drive pin extending in a second direction, the first and second directions being different, where the second direction is transverse to the first direction, wherein the drive pin and the armature are formed in one part, and characterised in that a circumferential edge part of the diaphragm is arranged in a joint between the first housing part and the second housing part in the closed configuration, whereby the diaphragm is sandwiched between the first housing part and the second housing part. - a receiver housing comprising a first housing part and a second housing part , the receiver housing defining an inner space, wherein the first housing part and the second housing part are movable relative to each other to define an open configuration and a closed configuration, - an armature extending in a first direction in the inner space, - a diaphragm operationally attached to the armature via a drive pin extending in a second direction, the first and second directions being different, where the second direction is transverse to the first direction,
A cosmetic container with an adjustable discharge quantity, comprising: a container body , wherein an upper part of the container body is provided with an opening; an inner cover , wherein an inner wall of the inner cover is threadedly connected to the opening of the container body , and the inner cover extends upward to form an inner cylinder ; an outer wall of the inner cylinder is provided with a movement area, and a plurality of stepped grooves with different depths are arranged in parallel in the movement area; a lower end of the inner cover is hermetically connected to a dropper ; an outer cover , wherein the outer cover is sleeved on an outer side of the inner cover and fixedly connected to the inner cover ; a button , wherein the button is inserted between the inner cover and the outer cover , and the button is stopped by the outer cover; an inner wall of the button is provided with a grade adjusting rib , and a center of the button extends downward to form a piston connecting rod ; the grade adjusting rib is aligned with the different stepped grooves by rotating the button, and then the grade adjusting rib moves down along the stepped groove to a bottom of the stepped groove by pressing the button; a piston , wherein the piston is sleeved on the piston connecting rod of the button and moves up and down with the button; and an elastic member , wherein the elastic member elastically supports the button . a container body , wherein an upper part of the container body is provided with an opening; an inner cover , wherein an inner wall of the inner cover is threadedly connected to the opening of the container body , and the inner cover extends upward to form an inner cylinder ; an outer wall of the inner cylinder is provided with a movement area, and a plurality of stepped grooves with different depths are arranged in parallel in the movement area; a lower end of the inner cover is hermetically connected to a dropper ; an outer cover , wherein the outer cover is sleeved on an outer side of the inner cover and fixedly connected to the inner cover ; a button , wherein the button is inserted between the inner cover and the outer cover , and the button is stopped by the outer cover; an inner wall of the button is provided with a grade adjusting rib , and a center of the button extends downward to form a piston connecting rod ; the grade adjusting rib is aligned with the different stepped grooves by rotating the button, and then the grade adjusting rib moves down along the stepped groove to a bottom of the stepped groove by pressing the button; a piston , wherein the piston is sleeved on the piston connecting rod of the button and moves up and down with the button; and an elastic member , wherein the elastic member elastically supports the button .
A method in a first network node for supporting intersystem quiet period synchronization of secondary wireless access systems coexisting on a frequency spectrum used by a primary system in, for said secondary wireless access systems , a common geographical area , characterized in that the method comprises: - obtaining a quiet period rule set from a second network node being an intersystem node common to all or a number of the secondary wireless access systems , said quiet period rule set being common to all or said number of said secondary wireless access systems ; and - instructing one or more access nodes , which are part of said secondary wireless access systems , to perform transmission according to the obtained quiet period rule set, thereby enabling synchronized quiet periods for all said secondary wireless access systems , wherein the first network node is a client network node comprising a Quiet Period Client for performing said method , and wherein the Quiet Period Client is associated to a Quiet Period Server in said second network node , which is the intersystem node common to all or said number of secondary wireless access systems in the common geographical area . - obtaining a quiet period rule set from a second network node being an intersystem node common to all or a number of the secondary wireless access systems , said quiet period rule set being common to all or said number of said secondary wireless access systems ; and - instructing one or more access nodes , which are part of said secondary wireless access systems , to perform transmission according to the obtained quiet period rule set, thereby enabling synchronized quiet periods for all said secondary wireless access systems , wherein the first network node is a client network node comprising a Quiet Period Client for performing said method , and wherein the Quiet Period Client is associated to a Quiet Period Server in said second network node , which is the intersystem node common to all or said number of secondary wireless access systems in the common geographical area .
A hybrid charge pump control circuit comprising: a first input for providing a positive input voltage; a second input for providing a negative input voltage; a first sequence of PMOS transistors for stepping down the voltage of the first input by an amount equal to the sum of the threshold voltages of the first set of PMOS transistors to generate a stepped down voltage; a second sequence of PMOS transistors for stepping up the voltage of the second input by an amount equal to the sum of the threshold voltages of the second set of PMOS transistors to generate a stepped up voltage; a first reference voltage; a second reference voltage; a comparator ; a first switch for selectively coupling the stepped down voltage to the comparator; a second switch for selectively coupling the stepped up voltage to the comparator; a third switch for selectively coupling the first reference voltage to the comparator; a fourth switch for selectively coupling the second reference voltage to the comparator; wherein the comparator compares the first reference voltage with the stepped down voltage when a first switch and third switch are on and a second switch and fourth switch are off and compares the second reference voltage with the stepped up voltage when the first switch and third switch are off and the second switch and fourth switch are on, to generate an output for controlling a charge pump. a first input for providing a positive input voltage; a second input for providing a negative input voltage; a first sequence of PMOS transistors for stepping down the voltage of the first input by an amount equal to the sum of the threshold voltages of the first set of PMOS transistors to generate a stepped down voltage; a second sequence of PMOS transistors for stepping up the voltage of the second input by an amount equal to the sum of the threshold voltages of the second set of PMOS transistors to generate a stepped up voltage; a first reference voltage; a second reference voltage; a comparator ; a first switch for selectively coupling the stepped down voltage to the comparator; a second switch for selectively coupling the stepped up voltage to the comparator; a third switch for selectively coupling the first reference voltage to the comparator; a fourth switch for selectively coupling the second reference voltage to the comparator; wherein the comparator compares the first reference voltage with the stepped down voltage when a first switch and third switch are on and a second switch and fourth switch are off and compares the second reference voltage with the stepped up voltage when the first switch and third switch are off and the second switch and fourth switch are on, to generate an output for controlling a charge pump.
A method comprising: allocating, by a network node, at least one resource block group from at least one first resource block group (RB,1- RB,n) on a frequency carrier used for a beam forming mode and at least one second resource block group (RB,n - RB,m) on the frequency carrier used for a multiple-input/multiple-output mode, wherein the allocating is in dependence on interference information determined by comparing radio environment information for the at least one first resource block group (RB, 1- RB,n) to radio environment information for the at least one second resource block group (RB,n -RB,m), wherein the allocating is for use by one set of a plurality of sets of user equipments. allocating, by a network node, at least one resource block group from at least one first resource block group (RB,1- RB,n) on a frequency carrier used for a beam forming mode and at least one second resource block group (RB,n - RB,m) on the frequency carrier used for a multiple-input/multiple-output mode, wherein the allocating is in dependence on interference information determined by comparing radio environment information for the at least one first resource block group (RB, 1- RB,n) to radio environment information for the at least one second resource block group (RB,n -RB,m), wherein the allocating is for use by one set of a plurality of sets of user equipments.
A robotic device comprising: a base ; an arm comprising: an inner link having a first end and a second end, the first end of the inner link being mounted to the base, the inner link being configured to move along a pitch axis and a yaw axis; an outer link having a first end and a second end, the first end of the outer link being mounted to the second end of the inner link , the outer link being configured to move along a yaw axis; a cradle endpoint mounted to the second end of outer link ; and a controller mounted to at least one of the base and the arm for controlling operation of the arm; wherein the cradle endpoint comprises a cradle for receiving a forearm of a user, and a connector for connecting a first end of the cradle to the second end of the outer link , wherein the connector comprises a first portion and a second portion , wherein the first portion is rotatably connected to the second end of the outer link so as enable the cradle to be rotatable about a pitch axis , and the second portion is rotatably connected to the first end of the cradle so as enable the cradle to be rotatable about a yaw axis . a base ; an arm comprising: an inner link having a first end and a second end, the first end of the inner link being mounted to the base, the inner link being configured to move along a pitch axis and a yaw axis; an outer link having a first end and a second end, the first end of the outer link being mounted to the second end of the inner link , the outer link being configured to move along a yaw axis; an inner link having a first end and a second end, the first end of the inner link being mounted to the base, the inner link being configured to move along a pitch axis and a yaw axis; an outer link having a first end and a second end, the first end of the outer link being mounted to the second end of the inner link , the outer link being configured to move along a yaw axis; a cradle endpoint mounted to the second end of outer link ; and a controller mounted to at least one of the base and the arm for controlling operation of the arm; wherein the cradle endpoint comprises a cradle for receiving a forearm of a user, and a connector for connecting a first end of the cradle to the second end of the outer link , wherein the connector comprises a first portion and a second portion , wherein the first portion is rotatably connected to the second end of the outer link so as enable the cradle to be rotatable about a pitch axis , and the second portion is rotatably connected to the first end of the cradle so as enable the cradle to be rotatable about a yaw axis .
Method for operating a hearing device having an acceleration sensor , which, in the intended wearing state, is positioned on the head of a hearing device wearer and which is configured for measurement in two measurement axes (x, y, z), which are perpendicular to one another, wherein, according to the method - at least one main feature (at(t), I, K, D) is derived from an acceleration signal of the acceleration sensor , said feature being related to an acceleration (at) directed tangentially to the head , - the presence of a yaw movement of the head is determined on the basis of the or the respective main feature (at(t), I, K, D), taking into account at least one predetermined criterion, which can be derived from the acceleration signal itself and which goes beyond the presence of an acceleration value of the tangentially directed acceleration (at) indicative for a movement, and wherein the detected yaw movement of the head of the hearing device wearer is used to support an analysis of listening situations and/or is used to adapt a signal processing algorithm for a conversation situation, characterized in that as a main feature, a movement intensity (I) is determined on the basis of the time course of the tangentially and, optionally, the radially directed acceleration (at,ar), and wherein a strength of the movement intensity (I) is used as a predetermined criterion, and/or a correlation coefficient (K) between a time derivative of the tangentially directed acceleration (at) and the radially directed acceleration (ar) is determined as a main feature, and wherein a strength of the correlation coefficient (K) is used as a predetermined criterion, and/or a curve (D) of a diagram is used as the main feature, in which diagram the tangential acceleration (at) is plotted against the radial acceleration (ar), and the geometric shape of the curve (D) is used as a predetermined criterion. - at least one main feature (at(t), I, K, D) is derived from an acceleration signal of the acceleration sensor , said feature being related to an acceleration (at) directed tangentially to the head , - the presence of a yaw movement of the head is determined on the basis of the or the respective main feature (at(t), I, K, D), taking into account at least one predetermined criterion, which can be derived from the acceleration signal itself and which goes beyond the presence of an acceleration value of the tangentially directed acceleration (at) indicative for a movement,