mhurhangee/patent-ind-claim-en huggingface dataset:
A roughing grinding tool having - a supporting body , whereas the supporting body comprises an abrasive grain for roughing grinding, and - a trough-opening for fastening a tool drive, characterized by at least one abrasive circle (S 1 to S 4 ), whereas the at least one abrasive circle (S 1 to S 4 ) forms a joining region and a working region surrounding the joining region , and the at least one abrasive circle (S 1 to S 4 ) is fastened in the joining region and is unfastened in the working region . - a supporting body , whereas the supporting body comprises an abrasive grain for roughing grinding, and - a trough-opening for fastening a tool drive,
A coating machine that is characterized by the fact that it is equipped with a rotary atomizing head-type sprayer having a rotary atomizing head to spray paint on the tip of a hollow rotary axis that may be rotated by an air motor in order to supply paint from a feed tube inserted into the rotary axis toward the rotary atomizing head , a paint supply source to supply the paint for the rotary atomizing head-type sprayer and a paint supply channel from the paint supply source to the rotary atomizing head , wherein said paint supply channel is provided with a paint micronization means to promote the micronization of the paint that may be sprayed from the rotary atomizing head .
Self-releasing system comprising a self-releasing cover for a functional opening of a lining component of a vehicle interior, the cover having: - a lid which can be locked to the functional opening of the lining component such that a front side of the lid at least partially covers the functional opening ; - at least one releasing element which is arranged on a rear side of the lid facing away from the front side of the lid ; the cover being designed such that the releasing element can be actuated by exerting a force on the releasing element in the direction of the lid and, as a result of the actuation, the lid can be deformed and/or displaced and a locking of the lid to the functional opening can be detached; the releasing element having a pressure surface on the rear side of the lid , which pressure surface can be subjected to the force exertion required to release the locking; characterized in that the self-releasing system further comprises a functional element which, when the lining component is moved into the intended position during assembly, comes into contact with the releasing element such that the functional element applies a force to the pressure surface 22. - a lid which can be locked to the functional opening of the lining component such that a front side of the lid at least partially covers the functional opening ; - at least one releasing element which is arranged on a rear side of the lid facing away from the front side of the lid ; the cover being designed such that the releasing element can be actuated by exerting a force on the releasing element in the direction of the lid and, as a result of the actuation, the lid can be deformed and/or displaced and a locking of the lid to the functional opening can be detached; the releasing element having a pressure surface on the rear side of the lid , which pressure surface can be subjected to the force exertion required to release the locking; characterized in that the self-releasing system further comprises a functional element which, when the lining component is moved into the intended position during assembly, comes into contact with the releasing element such that the functional element applies a force to the pressure surface 22. the cover being designed such that the releasing element can be actuated by exerting a force on the releasing element in the direction of the lid and, as a result of the actuation, the lid can be deformed and/or displaced and a locking of the lid to the functional opening can be detached; the releasing element having a pressure surface on the rear side of the lid , which pressure surface can be subjected to the force exertion required to release the locking; characterized in that the self-releasing system further comprises a functional element which, when the lining component is moved into the intended position during assembly, comes into contact with the releasing element such that the functional element applies a force to the pressure surface 22.
Method for producing a jigsaw blade or sabre saw blade , in which a flat, hardened and straightened metal strip is used as a blank, from which the saw blade is punched out in a plurality of successive machining stages, wherein, in a first machining stage (S 2 , S 3 , S 4 ), the saw teeth are punched free in the metal strip and, in a later machining stage (S 6 , S 7 ), the saw blade is completely punched out of the metal strip, wherein the machining is carried out using a pressing tool, which involves the punching stamps associated with each machining stage (S 1 to S 7 ) engaging in the metal strip simultaneously with a feed action in a synchronised and clocked manner.
A transport and storage container for liquids having a container which is made of plastic, which is embodied as an inner container and which has, in an upper bottom wall , a filling opening being closable with the help of a lid of the container for filling the container and, at a front side, an outlet neck for connecting an outlet fitting as well as the lid and a lower bottom wall , which couples two side walls , one rear wall and one front wall of the container to one another, for supporting the container on a pallet bottom of a transport pallet of the transport and storage container, said transport pallet being provided with an outer jacket for receiving the container, said lid being provided with a stirring staff arrangement for being connected to a stirring machine that can be combined with the container wherein the stirring staff arrangement has a bar-shaped stirrer element carrier embodied as a hollow shaft for receiving a stirring machine shaft and stirrer elements coupled to the stirrer element carrier so as to be pivotable, in such a manner that the stirrer elements are pivoted, in a mounting configuration, with a free stirrer element end , against an axis of rotation of the stirrer element carrier, characterized in that the stirrer element carrier , at its upper axial end, has a connection means coupled to the lid, wherein the connection means has an axial stop for resting against a supporting edge embodied in the bottom of a stopper depression embodied in the lid for receiving a bung stopper , wherein said supporting edge limits a through boring embodied in the bottom.
A dual-purpose valve for a braking system , the dual-purpose valve comprising: a two-position hydraulic brake control valve coupled to a moveable valve member , a brake control chamber for holding fluid; a brake port for connecting to a brake cylinder ; and a tank port for connecting to a fluid tank ; such that movement of the moveable valve member (34; 44) in a first direction towards a brake deactivation position from a neutral position maintains the hydraulic brake control valve in a closed state, and causes pressurised fluid flow from the brake control chamber to the brake port and thereby disengaging the braking system ; and such that movement of the moveable valve member (34; 44) in a second direction towards a brake activation position from the neutral position alters the hydraulic brake control valve from a closed state to an open state, and permits pressurised fluid flow from the brake port to the tank port through the dual-purpose valve and thereby engaging the braking system , said dual-purpose valve characterised by further comprising a bypass flow path that bypasses the brake control chamber , wherein the bypass flow path is configured to permit fluid flow from the brake port to the tank port . a two-position hydraulic brake control valve coupled to a moveable valve member , a brake control chamber for holding fluid; a brake port for connecting to a brake cylinder ; and a tank port for connecting to a fluid tank ; such that movement of the moveable valve member (34; 44) in a first direction towards a brake deactivation position from a neutral position maintains the hydraulic brake control valve in a closed state, and causes pressurised fluid flow from the brake control chamber to the brake port and thereby disengaging the braking system ; and such that movement of the moveable valve member (34; 44) in a second direction towards a brake activation position from the neutral position alters the hydraulic brake control valve from a closed state to an open state, and permits pressurised fluid flow from the brake port to the tank port through the dual-purpose valve and thereby engaging the braking system ,
Force sensor (CP) comprising: - a first part (PA1) comprising a detection coil (BN); - a second part (PA2) positioned opposite the first part (PA1) and comprising: ∘ a ferromagnetic plate (FM) that is translationally movable relative to the first part (PA1) so as to move towards said part when a force (F) is transferred to the sensor (CP) and to reduce the reluctance of a magnetic circuit formed by said two parts (PA1, PA2) in series with a variable gap; ∘ an electronic detection circuit configured to generate a signal dependent on the reluctance of the magnetic circuit, characterised in that the ferromagnetic plate (FM) is formed by an amorphous metal alloy. - a first part (PA1) comprising a detection coil (BN); - a second part (PA2) positioned opposite the first part (PA1) and comprising: ∘ a ferromagnetic plate (FM) that is translationally movable relative to the first part (PA1) so as to move towards said part when a force (F) is transferred to the sensor (CP) and to reduce the reluctance of a magnetic circuit formed by said two parts (PA1, PA2) in series with a variable gap; ∘ an electronic detection circuit configured to generate a signal dependent on the reluctance of the magnetic circuit, characterised in that the ferromagnetic plate (FM) is formed by an amorphous metal alloy. ∘ a ferromagnetic plate (FM) that is translationally movable relative to the first part (PA1) so as to move towards said part when a force (F) is transferred to the sensor (CP) and to reduce the reluctance of a magnetic circuit formed by said two parts (PA1, PA2) in series with a variable gap; ∘ an electronic detection circuit configured to generate a signal dependent on the reluctance of the magnetic circuit,
A method of driving a display layer comprising an electrophoretic fluid sandwiched between a common electrode (14; 25) and a plurality of pixel electrodes (15, 15a; 26) and having first and second surfaces on opposed sides thereof, the electrophoretic fluid comprising first , second (12; 22) and fourth (18; 24) types of particles, the fourth type (18; 24) being substantially uncharged neutral buoyancy particles, all dispersed in a solvent or solvent mixture, the first (11; 21) and second (12; 22) types of particles having respectively first and second colors differing from one another, the first type (11; 21) of particles having a charge of one polarity and the second (12; 22) type of particles having a charge of the opposite polarity, the method comprising: (a) applying between the common electrode (14; 25) and a pixel electrode (15, 15a; 26) an electric field having a polarity which moves the second type (12; 22) of particles adjacent the common electrode (14; 25), thereby causing an area corresponding to the pixel electrode (15, 15a; 26) to display the second color at the first surface ; and (b) applying between the common electrode (14; 25) and a pixel electrode (15, 15a; 26) an electric field having a polarity which moves the first type (11; 21) of particles adjacent the common electrode (14; 25), thereby causing an area corresponding to the pixel electrode (15, 15a; 26) to display the first color at the first surface ; the method being characterized in that the second type (12; 22) of particles has an electric field threshold and the electric fields used in steps (a) and (b) are greater than the electric field threshold, and further characterized in that the electrophoretic fluid further comprises a third type (13; 23) of particles having a third color differing from the first and second colors and having a charge of the same polarity as the second type (12; 22) of particles, such that: (c) once the first color is displayed at the first surface , applying an electric field between the common electrode (14; 25) and a pixel electrode (15, 15a; 26), which electric field is the same as, or lower than, the electric field threshold and has a polarity which moves the third type (13; 23) of particles adjacent the common electrode (14; 25), causes an area corresponding to the pixel electrode (15, 15a; 26) to display the third color at the first surface , while both the first (11; 21) and second (12; 22) types of particles remain adjacent the pixel electrode (15, 15a; 26). (a) applying between the common electrode (14; 25) and a pixel electrode (15, 15a; 26) an electric field having a polarity which moves the second type (12; 22) of particles adjacent the common electrode (14; 25), thereby causing an area corresponding to the pixel electrode (15, 15a; 26) to display the second color at the first surface ; and (b) applying between the common electrode (14; 25) and a pixel electrode (15, 15a; 26) an electric field having a polarity which moves the first type (11; 21) of particles adjacent the common electrode (14; 25), thereby causing an area corresponding to the pixel electrode (15, 15a; 26) to display the first color at the first surface ;
A method at a service management function in an operator network, the method comprising: interfacing, by the service management function, network management entities within the network to implement one or more service level agreements, SLAs, by processing performance requirements defined in an SLA in order to generate a service management message comprising a request to allocate physical resources in order to satisfy the SLA wherein the generating comprises: receiving a network slice service request, the request comprising an associated SLA defining a level of service to be provided; obtaining local resource information from resource management entities of the operator network; obtaining remote resource information from at least one subnetwork managed by a different operator; determining a division of resources between the operator network and the at least one subnetwork in accordance with the received network slice service request, the obtained local resource information and the obtained remote resource information; and transmitting a request for an allocation of instantiated resources in the operator network and the at least one subnetwork in accordance with the determined division of resources; wherein the service management function further interacts with other service management functions by requesting the service management function implements a chosen fraction of the SLA. interfacing, by the service management function, network management entities within the network to implement one or more service level agreements, SLAs, by processing performance requirements defined in an SLA in order to generate a service management message comprising a request to allocate physical resources in order to satisfy the SLA wherein the generating comprises: receiving a network slice service request, the request comprising an associated SLA defining a level of service to be provided; obtaining local resource information from resource management entities of the operator network; obtaining remote resource information from at least one subnetwork managed by a different operator; determining a division of resources between the operator network and the at least one subnetwork in accordance with the received network slice service request, the obtained local resource information and the obtained remote resource information; and transmitting a request for an allocation of instantiated resources in the operator network and the at least one subnetwork in accordance with the determined division of resources; wherein the service management function further interacts with other service management functions by requesting the service management function implements a chosen fraction of the SLA.
A solid state circuit breaker comprising: a solid state switch (SW) having a gate electrode (g), a source electrode (s) and a drain electrode (d); an inductor (L) in series connected with the solid state switch (SW); and a fault detection circuit for detecting health status of the solid state switch (SW) and characterized in identifying faulty type of the solid state switch (SW) in the condition that a short circuit occurs in the solid state switch (SW) when the measured voltage (V 1 ) of the solid state switch (SW) between the source electrode (s) and the drain electrode (d) is zero in the condition that a switching control signal (S g ) provided to a gate electrode (g) of the solid state switch (SW) is low level, and whether an open circuit in the solid state switch (SW) based on a measured voltage (V m ) of the inductor (L), a reference voltage (V r ) and the switching control signal (S g ). a solid state switch (SW) having a gate electrode (g), a source electrode (s) and a drain electrode (d); an inductor (L) in series connected with the solid state switch (SW); and a fault detection circuit for detecting health status of the solid state switch (SW) and characterized in identifying faulty type of the solid state switch (SW) in the condition that a short circuit occurs in the solid state switch (SW) when the measured voltage (V 1 ) of the solid state switch (SW) between the source electrode (s) and the drain electrode (d) is zero in the condition that a switching control signal (S g ) provided to a gate electrode (g) of the solid state switch (SW) is low level, and whether an open circuit in the solid state switch (SW) based on a measured voltage (V m ) of the inductor (L), a reference voltage (V r ) and the switching control signal (S g ).
A control system for a hydraulic axial displacement machine, comprising: a spool , a spool actuator , a pivotal feedback arm , a spring, and a feedback piston, the spool being coupled to the spring and adapted to move axially with the feedback piston between a charging position and a neutral position, a first portion of the feedback arm being pivotally coupled to a servo-piston and adapted to pivot proportionally to an angular position of a swashplate, a second portion of the feedback arm being coupled to the feedback piston, the spring being adapted to bias the spool towards the neutral position of the spool. a spool , a spool actuator , a pivotal feedback arm , a spring, and a feedback piston, the spool being coupled to the spring and adapted to move axially with the feedback piston between a charging position and a neutral position, a first portion of the feedback arm being pivotally coupled to a servo-piston and adapted to pivot proportionally to an angular position of a swashplate, a second portion of the feedback arm being coupled to the feedback piston, the spring being adapted to bias the spool towards the neutral position of the spool.
Method for an activation of at least one safety function of a safety system of a vehicle , characterized by the following steps: a) detecting at least one distance information about a distance (A) of a mobile identification transmitter to the vehicle by a detection device of the vehicle , b) transmitting the distance information by a data transmission from the detection device via a transmission system of the vehicle to a processing device of the vehicle , wherein the data transmission of the distance information is carried out in a forgery-proof manner. a) detecting at least one distance information about a distance (A) of a mobile identification transmitter to the vehicle by a detection device of the vehicle , b) transmitting the distance information by a data transmission from the detection device via a transmission system of the vehicle to a processing device of the vehicle ,
A user equipment (UE)-based positioning method by a UE placed in a vehicle in a wireless communication system, the method comprising: receiving (S 110) information on location information of at least two anchor nodes, ANs; measuring (S 110) a time difference of arrival, TDoA, for each distributed antenna based on signals received through a plurality of distributed antennas (AT-1, AT-2) from the at least two ANs, said TDoA being measured in each distributed antenna, said plurality of distributed antennas being installed in the vehicle; configuring (S120) a relative position for each of the distributed antennas based on a preconfigured reference point related with the UE, said reference point being in the vehicle and indicating a position of the vehicle, the relative position being defined with respect to the reference point using a distance between the antenna and the reference point and an angle between a segment connecting the antenna and the reference point and an x axis of bearing and heading of the vehicle ; and determining (S130) an absolute position as a position of the preconfigured reference point, based on the TDoA measured for each of the distributed antennas and the relative position configured for each of the distributed antennas. receiving (S 110) information on location information of at least two anchor nodes, ANs; measuring (S 110) a time difference of arrival, TDoA, for each distributed antenna based on signals received through a plurality of distributed antennas (AT-1, AT-2) from the at least two ANs, said TDoA being measured in each distributed antenna, said plurality of distributed antennas being installed in the vehicle; configuring (S120) a relative position for each of the distributed antennas based on a preconfigured reference point related with the UE, said reference point being in the vehicle and indicating a position of the vehicle, the relative position being defined with respect to the reference point using a distance between the antenna and the reference point and an angle between a segment connecting the antenna and the reference point and an x axis of bearing and heading of the vehicle ; and determining (S130) an absolute position as a position of the preconfigured reference point, based on the TDoA measured for each of the distributed antennas and the relative position configured for each of the distributed antennas.