mhurhangee/patent-ind-claim-en huggingface dataset:
A service transmission control method, comprising receiving (S301), by a service transmission control device , indication information from a service transmission device , wherein the indication information is an identifier of a target service feature information corresponding to a target service data flow transmitted by the service transmission device and the target service feature information is a service feature information, and the target service data flow is one of a plurality of service data flows comprised in a target service transmitted by a service transmission device ; and determining (S303), by the service transmission control device , by querying a pre-recorded table of mapping between a service feature information identifier and the service feature information a target quality of service parameter corresponding to the target service data flow, wherein the service feature information comprises at least one of a play duration of a target segment, a bit rate or an encoding rate of the target segment, a cache size at a receive end or a cache threshold at the receive end and wherein the pre-recorded table of mapping is stored in the service transmission control device and is determined by a negotiation of the service transmission control device with the service transmission device in advance for the service feature information and the service feature information identifier. receiving (S301), by a service transmission control device , indication information from a service transmission device , wherein the indication information is an identifier of a target service feature information corresponding to a target service data flow transmitted by the service transmission device and the target service feature information is a service feature information, and the target service data flow is one of a plurality of service data flows comprised in a target service transmitted by a service transmission device ; and determining (S303), by the service transmission control device , by querying a pre-recorded table of mapping between a service feature information identifier and the service feature information a target quality of service parameter corresponding to the target service data flow, wherein the service feature information comprises at least one of a play duration of a target segment, a bit rate or an encoding rate of the target segment, a cache size at a receive end or a cache threshold at the receive end and wherein the pre-recorded table of mapping is stored in the service transmission control device and is determined by a negotiation of the service transmission control device with the service transmission device in advance for the service feature information and the service feature information identifier.
A haptic device comprising: a drum configured to rotate about an axis; a cord wound around the drum ; a user-actuatable lever operatively coupled to the drum and configured to receive a user-actuation force that causes the user-actuatable lever to actuate and correspondingly the drum to rotate; a position sensor configured to determine a rotational position of the drum ; and an actuator operatively coupled to the cord and configured to apply a tension to the cord that further applies friction to brake the drum to cause the user-actuatable lever to provide a user-perceived resistance that opposes the user-actuation force, and where the user-perceived resistance varies as a function of the rotational position of the drum , when the tension applied on the cord, Tioad, is greater than the minimum cord tension threshold, T h o l d, the cord does not slip on the drum providing static friction and when the tension applied on the cord, Tioad, is less than the minimum cord tension threshold, T h o l d, the cord slips on the drum providing dynamic friction. a drum configured to rotate about an axis; a cord wound around the drum ; a user-actuatable lever operatively coupled to the drum and configured to receive a user-actuation force that causes the user-actuatable lever to actuate and correspondingly the drum to rotate; a position sensor configured to determine a rotational position of the drum ; and an actuator operatively coupled to the cord and configured to apply a tension to the cord that further applies friction to brake the drum to cause the user-actuatable lever to provide a user-perceived resistance that opposes the user-actuation force, and where the user-perceived resistance varies as a function of the rotational position of the drum , when the tension applied on the cord, Tioad, is greater than the minimum cord tension threshold, T h o l d, the cord does not slip on the drum providing static friction and when the tension applied on the cord, Tioad, is less than the minimum cord tension threshold, T h o l d, the cord slips on the drum providing dynamic friction.
A high-pressure pump, comprising: a pressure chamber, a plunger sleeve disposed in the pressure chamber, a protruding member disposed at an outer side of the plunger sleeve and in interference fit to a wall of the pressure chamber, a plunger disposed in the plunger sleeve, an inlet valve , and an outlet valve ; wherein the plunger sleeve comprises a first section and a second section connected to the first section ; the protruding member is disposed on an outer side of the second section close to the first section ; the protruding member divides the pressure chamber into a first pressure chamber and a second pressure chamber , the first section is located in the first pressure chamber , and the inlet valve and the outlet valve are disposed at the first pressure chamber ; in a fuel pumping stage of the high-pressure pump, the plunger moves from the second pressure chamber towards the first pressure chamber ; wherein the first section of the plunger sleeve has a length satisfying a relationship with a total length of the plunger sleeve as follows: 3 < L 2 L 1 < 8 , wherein L2 represents the total length of the plunger sleeve , and L1 represents the length of the first section of the plunger sleeve ; wherein in the fuel pumping stage of the high-pressure pump, the first section of the plunger sleeve deforms to contract inwards, and a clearance between the first section of the plunger sleeve and the plunger is smaller than a machining clearance of a plunger set. wherein the first section of the plunger sleeve has a length satisfying a relationship with a total length of the plunger sleeve as follows: 3 < L 2 L 1 < 8 , wherein L2 represents the total length of the plunger sleeve , and L1 represents the length of the first section of the plunger sleeve ; wherein in the fuel pumping stage of the high-pressure pump, the first section of the plunger sleeve deforms to contract inwards, and a clearance between the first section of the plunger sleeve and the plunger is smaller than a machining clearance of a plunger set.
A self-expanding device having a first compressed configuration with a compressed diameter enabling low profile delivery through a delivery device, and a second expanded configuration with an expanded diameter for apposition against a tissue wall and defining a lumen for fluid flow there through, at least one polymer filament formed into a shape having a series of peaks and valleys and which constitute the peaks and valleys of the device , wherein the shape approximates a repeating diamond-shaped pattern, wherein at least one of the peaks or valleys comprises a loop formed at an end thereof, wherein the loop is configured to provide for even distribution of bending stresses when the device is placed in the first configuration and loaded into the delivery device, wherein the diameter of the device in the compressed configuration (d) is from about 1 mm to about 5.5 mm, and wherein the device is configured to biodegrade.
A method for operating a sensor apparatus comprising an accelerometer having a microelectromechanical systems, MEMs, sensor with a resonant frequency, f 0 , the method comprising: measuring an acceleration signal at an output of the accelerometer; generating a digitized acceleration signal based on the acceleration signal; and processing, with a digital equalization filter, the digitized acceleration signal to generate an equalized acceleration signal having a magnitude frequency response that varies by no more than 3 decibels over a frequency range that extends from 0 to above f 0 , characterized in that processing the digitized acceleration signal comprises using a transfer function of the MEMs sensor to generate the equalized acceleration signal. measuring an acceleration signal at an output of the accelerometer; generating a digitized acceleration signal based on the acceleration signal; and processing, with a digital equalization filter, the digitized acceleration signal to generate an equalized acceleration signal having a magnitude frequency response that varies by no more than 3 decibels over a frequency range that extends from 0 to above f 0 , characterized in that processing the digitized acceleration signal comprises using a transfer function of the MEMs sensor to generate the equalized acceleration signal.
Regulating mechanism for a timepiece , this mechanism comprising at least three functional organs known by the designations of balance , pallet fork and escapement wheel , the balance cooperating with the pallet fork which, itself, co-operates with the escapement wheel , this mechanism being characterized in that it comprises a pallet fork constituted by two functional elements which are referred to as first element and second element , and - the first element bears a functional part which, referred to as first functional part , is intended to co-operate with the balance , which comprises for this purpose a dart provided to prevent an accidental tilting and two horns constituting a portion in the form of a fork and which is mounted rocking on a first shaft , - the second element bears a functional part which is referred to as second functional part , is intended to co-operate with the escapement wheel and is mounted rocking on a second shaft , - the first element and the second element bear respectively a third functional part and a fourth functional part which, together, constitute an articulated connection capable of ensuring the transmission of a rocking movement of the first element to the second element and vice-versa, characterized in that the articulated connection is, with respect to the first shaft and second shaft , positioned in such a way that a rocking of the second element at a predetermined amplitude value, brings about a rocking of the first element at a greater amplitude value. - the first element bears a functional part which, referred to as first functional part , is intended to co-operate with the balance , which comprises for this purpose a dart provided to prevent an accidental tilting and two horns constituting a portion in the form of a fork and which is mounted rocking on a first shaft , - the second element bears a functional part which is referred to as second functional part , is intended to co-operate with the escapement wheel and is mounted rocking on a second shaft , - the first element and the second element bear respectively a third functional part and a fourth functional part which, together, constitute an articulated connection capable of ensuring the transmission of a rocking movement of the first element to the second element and vice-versa, characterized in that the articulated connection is, with respect to the first shaft and second shaft , positioned in such a way that a rocking of the second element at a predetermined amplitude value, brings about a rocking of the first element at a greater amplitude value.
A mobile robot , comprising (a) at least one memory component comprising at least stored map data; (b) at least two cameras adapted to take visual images; (c) at least one processing component adapted to at least extract straight lines from the visual images taken by the at least two cameras by applying an edge detection algorithm followed by a line extractor algorithm and compare them to the stored map data to at least localise the robot ; (d) wherein the robot is adapted to move on the ground in unstructured areas; wherein the processing component is adapted to localise the robot by executing an iterative probabilistic algorithm estimating robot pose. (a) at least one memory component comprising at least stored map data; (b) at least two cameras adapted to take visual images; (c) at least one processing component adapted to at least extract straight lines from the visual images taken by the at least two cameras by applying an edge detection algorithm followed by a line extractor algorithm and compare them to the stored map data to at least localise the robot ; (d) wherein the robot is adapted to move on the ground in unstructured areas;
A closure for a cylindrical vessel, the closure comprising: holding means for properly securing the closure in a fully closed state, the holding means having a predetermined actuation force; and at least one mechanical fuse including a shear pin in communication with the holding means; the shear pin having a predetermined load failure force below that of a load failure force of another component of the closure and above that of the predetermined actuation force of the holding means, the another component of the closure selected from the group consisting of a lug containing the shear pin and a pivot point of the holding means.
Wooden support construction having a first struttype or planar support element and at least one second strut-type or planar support element which are butt jointed and held together with the aid of connecting means , wherein - the connecting means have a first end portion which is anchored in the first support element , and a second end portion which is anchored in a second support element ; wherein - the first support element and the at least second support element converge in a node and in the latter are held together in a force-fitting manner by means of the connecting means ; and - the first support element and the at least second support element in the abutting region form a receptacle space , wherein the receptacle space is penetrated by the connecting means and is filled with a curable casting compound , characterized in that the connecting means are formed by at least one strut element , and the first support element and the at least second support element and the sides thereof that face the abutting region have at least one cavity which is oriented so as to be axial to the longitudinal axis of said support elements and in which is anchored in each case one end portion of the at least one strut element ; or in that the connecting means are formed by at least one planar element , and the first support element and the at least second support element on the ends thereof have a slot which runs so as to be plane-parallel to the central plane of said support elements and in which is anchored in each case one end portion of the at least one planar element . - the connecting means have a first end portion which is anchored in the first support element , and a second end portion which is anchored in a second support element ; wherein - the first support element and the at least second support element converge in a node and in the latter are held together in a force-fitting manner by means of the connecting means ; and - the first support element and the at least second support element in the abutting region form a receptacle space , wherein the receptacle space is penetrated by the connecting means and is filled with a curable casting compound ,
A method of analysing the effect of an assault on hair, comprising the steps of: (i) collecting imaging data for at least one hair surface, (ii) applying at least one assault to the at least one hair surface, (iii) collecting imaging data for the at least one hair surface arising from step (ii), (iv) converting the imaging data collected at steps (i) and (iii) into a format to create magnified images from a 3D printer, (v) producing magnified 3D models of the at least one hair surface from a 3D printer using the data from step iv, (vi) comparing the 3D model arising from step (iii) to the 3D model of step (i) and (vii) assessing the degree of damage to the hair. (i) collecting imaging data for at least one hair surface, (ii) applying at least one assault to the at least one hair surface, (iii) collecting imaging data for the at least one hair surface arising from step (ii), (iv) converting the imaging data collected at steps (i) and (iii) into a format to create magnified images from a 3D printer, (v) producing magnified 3D models of the at least one hair surface from a 3D printer using the data from step iv, (vi) comparing the 3D model arising from step (iii) to the 3D model of step (i) and (vii) assessing the degree of damage to the hair.
An electronic mirror comprises a liquid crystal cell , wherein the liquid crystal cell is configured to be operated in a reflective mode in which external light is reflected or in a transmissive mode in which an electric mirror function is activated; the liquid crystal cell comprises: a first transparent electrode ; a second transparent electrode ; a liquid crystal layer comprising liquid crystal molecules arranged between the first transparent electrode and the second transparent electrode ; and an AC voltage source configured to apply an alternating voltage across the liquid crystal layer between the first transparent electrode and the second transparent electrode , wherein when a voltage is applied across the liquid crystal layer , the liquid crystal molecules in the liquid crystal layer change their orientation, the electronic mirror is configured to apply a varying voltage across the liquid crystal layer which gradually decreases from outer areas towards the center of the liquid crystal layer such that, in the reflective mode, the refraction index of the liquid crystal layer gradually varies from outer areas towards the center of the liquid crystal layer , so as to provide a magnification effect for images reflected by the cell, a polarizing filter layer , wherein the second transparent electrode is arranged between the polarizing filter layer and the liquid crystal layer ; and a reflective polarizing filter layer , wherein the first transparent electrode is arranged between the reflective polarizing filter layer and the liquid crystal layer . a first transparent electrode ; a second transparent electrode ; a liquid crystal layer comprising liquid crystal molecules arranged between the first transparent electrode and the second transparent electrode ; and an AC voltage source configured to apply an alternating voltage across the liquid crystal layer between the first transparent electrode and the second transparent electrode , wherein when a voltage is applied across the liquid crystal layer , the liquid crystal molecules in the liquid crystal layer change their orientation, the electronic mirror is configured to apply a varying voltage across the liquid crystal layer which gradually decreases from outer areas towards the center of the liquid crystal layer such that, in the reflective mode, the refraction index of the liquid crystal layer gradually varies from outer areas towards the center of the liquid crystal layer , so as to provide a magnification effect for images reflected by the cell, a polarizing filter layer , wherein the second transparent electrode is arranged between the polarizing filter layer and the liquid crystal layer ; and a reflective polarizing filter layer , wherein the first transparent electrode is arranged between the reflective polarizing filter layer and the liquid crystal layer .
A computing system implemented method for protecting and repairing a current virtual asset from damage by potential security threats, comprising: monitoring the current virtual asset for the potential security threats with a virtual asset agent running within the current virtual asset to identify the potential security threats that risk compromising virtual asset data to unauthorized computing systems; determining a severity of the potential security threats that are identified by the virtual asset agent for having gained access into the current virtual asset, wherein the severity of the potential security threats is related to a content of the virtual asset data; if the severity is greater than a predetermined threshold, replacing the current virtual asset with a newly created virtual asset , the newly created virtual asset executing a new virtual asset agent, and receiving, with the new virtual asset, secrets that are associated with the current virtual asset; and responsive to determining that the determined severity is less than the predetermined threshold, requesting a software update from an asset management computing system , establishing a trusted communication channel with the asset management computing system, and receiving the software update from the asset management computing system over the trusted communication channel. monitoring the current virtual asset for the potential security threats with a virtual asset agent running within the current virtual asset to identify the potential security threats that risk compromising virtual asset data to unauthorized computing systems; determining a severity of the potential security threats that are identified by the virtual asset agent for having gained access into the current virtual asset, wherein the severity of the potential security threats is related to a content of the virtual asset data; if the severity is greater than a predetermined threshold, replacing the current virtual asset with a newly created virtual asset , the newly created virtual asset executing a new virtual asset agent, and receiving, with the new virtual asset, secrets that are associated with the current virtual asset; and responsive to determining that the determined severity is less than the predetermined threshold, requesting a software update from an asset management computing system , establishing a trusted communication channel with the asset management computing system, and receiving the software update from the asset management computing system over the trusted communication channel.
A molding machine , comprising: a first mold half ; two or more extruders associated with the first mold half , each extruder of the two or more extruders including a barrel , an extrusion screw inside the barrel , and a nozzle in sealed engagement with the first mold half , wherein each extruder of the two or more extruders is controlled independently to rotate the extrusion screw in a first direction to cause material flow and to rotate the extrusion screw in a second direction opposite the first direction to cease material flow once a targeted pressure is achieved for the respective extruder; and a central or main microprocessor configured to process data received from the two or more extruders and control each extruder to individually or collectively cease material flow once the targeted pressure is achieved. a first mold half ; two or more extruders associated with the first mold half , each extruder of the two or more extruders including a barrel , an extrusion screw inside the barrel , and a nozzle in sealed engagement with the first mold half , wherein each extruder of the two or more extruders is controlled independently to rotate the extrusion screw in a first direction to cause material flow and to rotate the extrusion screw in a second direction opposite the first direction to cease material flow once a targeted pressure is achieved for the respective extruder; and a central or main microprocessor configured to process data received from the two or more extruders and control each extruder to individually or collectively cease material flow once the targeted pressure is achieved.