mhurhangee/patent-ind-claim-en huggingface dataset:
Method to improve and extend the logics of a test rig for a vehicle component , in particular a battery or an alternator, wherein the test rig is provided with an original software residing in a memory area that implements, under the control of a microprocessor unit , a plurality of original functions - Fl, F2, ... Fn - designed to carry out operation and testing and addressable in different operating positions of the memory area, the method being characterised in that it comprises the steps of: a) creating a script using a pseudo code and according to a specific syntax developing an updated test function, said script providing a new sequence of the original functions ; b) loading said script into said memory area; c) starting said script ; d) running the script implementing the updated test function defined in the same script; e) loading into the memory area an external software component that is a Dynamic Link Library - DLL - which defines a plurality of function pointers, callbacks , each of which addresses an original function - F1, F2, ... Fn - of the resident software; said external software component being capable of executing said script, recognizing the functions called in the script itself and for each function called, executing that function using the test rig and calling it by use of said function pointer; said functions being thus executed by the test rig according to the sequence provided by the script and using the variables defined in the script itself to execute by means of the test rig test logics not provided in the original software. a) creating a script using a pseudo code and according to a specific syntax developing an updated test function, said script providing a new sequence of the original functions ; b) loading said script into said memory area; c) starting said script ; d) running the script implementing the updated test function defined in the same script; e) loading into the memory area an external software component that is a Dynamic Link Library - DLL - which defines a plurality of function pointers, callbacks , each of which addresses an original function - F1, F2, ... Fn - of the resident software; said external software component being capable of executing said script, recognizing the functions called in the script itself and for each function called, executing that function using the test rig and calling it by use of said function pointer; said functions being thus executed by the test rig according to the sequence provided by the script and using the variables defined in the script itself to execute by means of the test rig test logics not provided in the original software.
An identification system between a sign and a vehicle comprising: a sign with sign communication information; a marker at a predetermined location relative to the sign , wherein the marker comprises marker communication information comprising optical communication; a vehicle information system comprising a light source to send light to the marker , a reader to read the optical communication, and a processor to convert the optical communication into output information; wherein the optical communication of the marker is retroreflected light from the light source ; wherein the output information is at least one of a detection of the presence of the sign and a recognition of the sign communication information; characterized in that the processor is configured to send, to an internet-based information storage system, the output information, receive additional information relating to the output information from the internet-based information storage system, and, in response to determining that the additional information is relevant to the vehicle , perform at least one operation that corresponds to a function of the vehicle . a sign with sign communication information; a marker at a predetermined location relative to the sign , wherein the marker comprises marker communication information comprising optical communication; a vehicle information system comprising a light source to send light to the marker , a reader to read the optical communication, and a processor to convert the optical communication into output information; wherein the optical communication of the marker is retroreflected light from the light source ; wherein the output information is at least one of a detection of the presence of the sign and a recognition of the sign communication information; characterized in that the processor is configured to send, to an internet-based information storage system, the output information, receive additional information relating to the output information from the internet-based information storage system, and, in response to determining that the additional information is relevant to the vehicle , perform at least one operation that corresponds to a function of the vehicle .
A pull-out guide for pulling out a pull-out furniture part from the furniture carcass in a pull-out direction , comprising a carcass rail for securing to the furniture carcass , a pull-out rail for securing to the pull-out furniture part and a middle rail , arranged between the carcass rail and the pull-out rail , which has a first and a second rotatably mounted differential roller which each have bearing clearance in a vertical direction with respect to the middle rail and of which the second differential roller is arranged behind the first differential roller related to the pull-out direction , wherein the first and second differential roller co-operate with an upwards directed running track of the carcass rail and a downwards directed running track of the pull-out rail and the first differential roller lies between the upwards directed running track of the carcass rail and the downwards directed running track of the pull-out rail upon pulling out of the pull-out guide starting from a pushed-in position of the rails, in which the pull-out guide is completely retracted, into a pull-out position of the rails, in which the pull-out guide is completely extended, and the second differential roller lies between the upwards directed running track of the carcass rail and the downwards directed running track of the pull-out rail upon pulling out of the pull-out guide starting from the pushed-in position of the rails into an intermediate position of the rails, and upon further pulling out of the pull-out guide from the intermediate position, the end, at the rear related to the pull-out direction , of the downwards directed running track of the pull-out rail lies in front of the second differential roller , and wherein the second differential roller is in the intermediate position of the rails located in the region of a recess of the upwards directed running track of the carcass rail and/or the first differential roller is in the intermediate position of the rails located in the region of an elevation of the upwards directed running track of the carcass rail , characterised in that the distance, related to the pull-out direction , between the longitudinal central axis of the second differential roller and the longitudinal central axis of the first differential roller amounts to less than a sixth of the length of the middle rail.
An actuator for rotating an optical path folding element, OPFE, over a scanning range, comprising: a) an actuated sub-assembly including an optical element holder rigidly coupled to the OPFE at a top side of the optical element holder and having two hinges positioned inside and concentric with two respective ball bearings , the two hinges and the two ball-bearings lying on a rotation axis that is positioned through a center-of-mass of the actuated sub-assembly ; and b) a stationary sub-assembly having a base and two housings , wherein each housing is nested in a respective hinge , c) a voice coil motor, VCM, including a coil fixedly attached to the base and a permanent magnet fixedly attached to the optical element holder at a bottom side of the optical element holder, wherein the VCM is configured to rotate the OPFE in a scanning range of at least ±8 degrees from an original position of the OPFE with a resolution of at least 0.002 degrees. a) an actuated sub-assembly including an optical element holder rigidly coupled to the OPFE at a top side of the optical element holder and having two hinges positioned inside and concentric with two respective ball bearings , the two hinges and the two ball-bearings lying on a rotation axis that is positioned through a center-of-mass of the actuated sub-assembly ; and b) a stationary sub-assembly having a base and two housings , wherein each housing is nested in a respective hinge , c) a voice coil motor, VCM, including a coil fixedly attached to the base and a permanent magnet fixedly attached to the optical element holder at a bottom side of the optical element holder,
Device with adjustable slats to cover external surfaces of buildings, said device comprising: - a frame that can be fixed to a surface of a wall of a building; - a series of slats , each extending along a longitudinal axis and rotatably fixed to said frame about said longitudinal axis; - a linear actuator having a spindle connected to at least one slat of said slats ; said linear actuator being operable so as to rotate said at least one slat about its own longitudinal axis; characterised in that said linear actuator comprises: - a housing having within it a first compartment and a second compartment mutually separated by a wall ; - an electric motor housed in said first compartment ; - a screw member rotatably housed in said second compartment about an operating axis (A) and connected to said electric motor so as to be rotated about said operating axis (A); said spindle being connected to said screw member so that a rotation of said screw member is followed by a translation of said spindle along said operating axis (A); said wall having a hole and said screw member being fixed to a connector inserted into said hole ; - a main sealing element fixed to said hole and to said connector and designed so as to prevent the passage of liquids and dirt between said hole and said connector . - a frame that can be fixed to a surface of a wall of a building; - a series of slats , each extending along a longitudinal axis and rotatably fixed to said frame about said longitudinal axis; - a linear actuator having a spindle connected to at least one slat of said slats ; said linear actuator being operable so as to rotate said at least one slat about its own longitudinal axis; - a housing having within it a first compartment and a second compartment mutually separated by a wall ; - an electric motor housed in said first compartment ; - a screw member rotatably housed in said second compartment about an operating axis (A) and connected to said electric motor so as to be rotated about said operating axis (A); said spindle being connected to said screw member so that a rotation of said screw member is followed by a translation of said spindle along said operating axis (A); said wall having a hole and said screw member being fixed to a connector inserted into said hole ; - a main sealing element fixed to said hole and to said connector and designed so as to prevent the passage of liquids and dirt between said hole and said connector .
A haptic feedback system configured to be communicatively coupled to a ride control system of an amusement park ride and comprising: a screen configured to be positioned on a ride vehicle and comprising a surface modifying component ; a memory configured to store a tactile representation of scenery corresponding to location data indicative of the location of the ride vehicle ; and a processor configured to: receive the location data; in response to receiving the location data, determine the tactile representation of the scenery corresponding to the location data from the memory ; and output the tactile representation of the scenery corresponding to the location data at the surface modifying component . a screen configured to be positioned on a ride vehicle and comprising a surface modifying component ; a memory configured to store a tactile representation of scenery corresponding to location data indicative of the location of the ride vehicle ; and a processor configured to: receive the location data; in response to receiving the location data, determine the tactile representation of the scenery corresponding to the location data from the memory ; and output the tactile representation of the scenery corresponding to the location data at the surface modifying component . receive the location data; in response to receiving the location data, determine the tactile representation of the scenery corresponding to the location data from the memory ; and output the tactile representation of the scenery corresponding to the location data at the surface modifying component .
Container system comprising at least two containers each forming an inner chamber , the containers each comprising a connection device being initially closed, specifically a first connection device of a first container and a second connection device of a second container , and the connection devices being able to be coupled together such that the coupling produces a continuous fluid connection that is closed off from the surroundings and interconnects the inner chambers of the containers such that contents that can be held in the inner chambers can be mixed, the first connection device comprising a thin point designed to rupture through the application of force by a ram of the second connection device , as a result of which the fluid connection can be established, and wherein in its shape, the thin point comprises a tip between two at least substantially straight legs and the ram comprises a splitting device that is designed and arranged such as to rupture the thin point by acting on the tip when the coupling is produced. the containers each comprising a connection device being initially closed, specifically a first connection device of a first container and a second connection device of a second container , and the connection devices being able to be coupled together such that the coupling produces a continuous fluid connection that is closed off from the surroundings and interconnects the inner chambers of the containers such that contents that can be held in the inner chambers can be mixed, the first connection device comprising a thin point designed to rupture through the application of force by a ram of the second connection device , as a result of which the fluid connection can be established, and wherein in its shape, the thin point comprises a tip between two at least substantially straight legs and the ram comprises a splitting device that is designed and arranged such as to rupture the thin point by acting on the tip when the coupling is produced.
Applicator device for applying at least one application medium to fibrous materials, in particular an applicator device for applying an application medium to hair, having a separation unit , which has at least two separating elements which form at least one application gap , which is provided for accommodating hair in order for the application medium to be applied, and having at least one application volume , which is enclosed at least to some extent by the at least two separating elements , wherein the separating elements each having an inner contour which forms a wall for the application volume and encloses the application volume at least to some extent, and wherein the application gaps , which are formed by the separating elements , begin at a common top line and end at a common base line , characterized in that the thickness of the wall is at its greatest in the region of the base line and decreases continually in the direction of the top line .
Method of predicting welding spatters during a resistance welding process, being characterised in that a classification model is used to get a likelihood of a welding spatter will happen, wherein inputs to the model comprise - information about a count value concerning the number of welding processes carried out with the electrode tips and/or a count value concerning the number of milling processes carried out to the electrode tips, and - at least one of a time series measurement of the welding voltage and/or processed data thereof, and a time series measurement of the welding current and/or processed data thereof. - information about a count value concerning the number of welding processes carried out with the electrode tips and/or a count value concerning the number of milling processes carried out to the electrode tips, and - at least one of a time series measurement of the welding voltage and/or processed data thereof, and a time series measurement of the welding current and/or processed data thereof.
A breaker assembly comprising: a breaker board having: a bus bar including a first engagement feature, a board mount spaced from the bus bar, and a back surface with board connections that are positioned in a well positioned between the board mount and the bus bar; and a breaker module having: a line side connector including a second engagement feature engaging the first engagement feature to inhibit separation of the breaker module from the breaker board , a module mount engaging the board mount, and a bottom surface , and a platform protruding from the bottom surface between the module mount and the line side connector and containing breaker connections engaging the board connections , wherein: the board connections are for providing electrical communication between a controller of the breaker assembly and the breaker module ; and two raised stanchions are positioned in the well , and the platform includes recesses dimensioned to receive the stanchions when the breaker module is mounted to the breaker board . a breaker board having: a bus bar including a first engagement feature, a board mount spaced from the bus bar, and a back surface with board connections that are positioned in a well positioned between the board mount and the bus bar; and a bus bar including a first engagement feature, a board mount spaced from the bus bar, and a back surface with board connections that are positioned in a well positioned between the board mount and the bus bar; and a breaker module having: a line side connector including a second engagement feature engaging the first engagement feature to inhibit separation of the breaker module from the breaker board , a module mount engaging the board mount, and a bottom surface , and a platform protruding from the bottom surface between the module mount and the line side connector and containing breaker connections engaging the board connections , a line side connector including a second engagement feature engaging the first engagement feature to inhibit separation of the breaker module from the breaker board , a module mount engaging the board mount, and a bottom surface , and a platform protruding from the bottom surface between the module mount and the line side connector and containing breaker connections engaging the board connections , wherein: the board connections are for providing electrical communication between a controller of the breaker assembly and the breaker module ; and two raised stanchions are positioned in the well , and the platform includes recesses dimensioned to receive the stanchions when the breaker module is mounted to the breaker board . the board connections are for providing electrical communication between a controller of the breaker assembly and the breaker module ; and two raised stanchions are positioned in the well , and the platform includes recesses dimensioned to receive the stanchions when the breaker module is mounted to the breaker board .
An aspirating smoke sensing device for fire detection, characterized by comprising: a charger , a charge collector , a controller , an air intake structure , and a negative pressure source for air path detection , wherein the air intake structure is communicated with an input port of the charger , an output port of the charger is communicated with the charge collector , an output port of the charge collector is connected to the negative pressure source for air path detection , and the controller is electrically connected to the charge collector ; the air intake structure is configured to obtain an air sample; the charger is configured to perform a unipolar charging on the air sample, so as to output a unipolar charged air sample; the charge collector is configured to obtain the unipolar charged air sample and separate charged particles with different particle-sizes in the unipolar charged air sample, so as to obtain charged particles of different particle-size grades; the negative pressure source for air path detection draws the air sample into the charger and the charge collector , and discharges the air sample; and the controller is configured to determine fire detection information according to charge quantities corresponding to the charged particles of different particle-size grades; wherein the aspirating smoke sensing device for fire detection further comprises a coagulator , an input port of the coagulator being communicated with the air intake structure and an output port of the coagulator being communicated with the charger ; and the coagulator is configured to perform a collisional coagulation on the air sample, so as to coagulate micro particle-size particles and small particle-size particles in the air sample into large particle-size particles. the air intake structure is configured to obtain an air sample; the charger is configured to perform a unipolar charging on the air sample, so as to output a unipolar charged air sample; the charge collector is configured to obtain the unipolar charged air sample and separate charged particles with different particle-sizes in the unipolar charged air sample, so as to obtain charged particles of different particle-size grades; the negative pressure source for air path detection draws the air sample into the charger and the charge collector , and discharges the air sample; and the controller is configured to determine fire detection information according to charge quantities corresponding to the charged particles of different particle-size grades; wherein the aspirating smoke sensing device for fire detection further comprises a coagulator , an input port of the coagulator being communicated with the air intake structure and an output port of the coagulator being communicated with the charger ; and the coagulator is configured to perform a collisional coagulation on the air sample, so as to coagulate micro particle-size particles and small particle-size particles in the air sample into large particle-size particles.