mhurhangee/ep-ind-claims huggingface dataset:
The invention is an electrical insulated bearing production method wherein the method contains the steps of; - stacking bearing outer rings on top of each other in such a way that their side surfaces are in contact with each other, - applying liquid seal or rubber spray which contains silicon and which is resistant to heat up to 270C° on to the raceway of the outer rings stacked on top of each other which will not be coated with polyamide, - cleaning the external sidewall surface of the topmost of outer rings stacked on top of each other from the liquid seal or rubber spray containing heat resistant silicon by wiping this sidewall surface with perchloroethylene-impregnated cloth, - coating the outer diameter and sidewall surfaces of the outer rings with primer by hanging the same on a bracket, - heating the outer rings whose outer diameter and sidewall surfaces have been coated with primer to over 186C°, which is the melting temperature of the polyamide, by placing outer rings in a furnace, - adhering the polyamide powders to the outer diameter and sidewall surfaces of the outer rings by melting. - stacking bearing outer rings on top of each other in such a way that their side surfaces are in contact with each other, - applying liquid seal or rubber spray which contains silicon and which is resistant to heat up to 270C° on to the raceway of the outer rings stacked on top of each other which will not be coated with polyamide, - cleaning the external sidewall surface of the topmost of outer rings stacked on top of each other from the liquid seal or rubber spray containing heat resistant silicon by wiping this sidewall surface with perchloroethylene-impregnated cloth, - coating the outer diameter and sidewall surfaces of the outer rings with primer by hanging the same on a bracket, - heating the outer rings whose outer diameter and sidewall surfaces have been coated with primer to over 186C°, which is the melting temperature of the polyamide, by placing outer rings in a furnace, - adhering the polyamide powders to the outer diameter and sidewall surfaces of the outer rings by melting.
Method for controlling at least one component of a chassis of a vehicle, wherein as a function of a current certainty taken from sensor data detected by sensor of a road section to be driven on a parameterisation of a reactive controller of the at least one component of the chassis is changed, so that if the road section is driven on when the sensor data have high uncertainty the reactive controller controls with a reaction time that is decreased compared to normal operation, wherein the uncertainty and/or certainty of the sensor data is calculated by a certainty index, and wherein the certainty index is calculated by means of a variance of the sensor data.
A spacecraft or satellite optical transmission apparatus comprising: an optical fiber (11, 12, 13) comprising an active trivalent dopant and at least two passive trivalent dopants wherein in use the optical fiber having recovery from radiation induced attenuation; and a single optical pump source operatively coupled to provide photoannealing pump energy to the optical fiber; wherein the active trivalent dopant is erbium at a doping density of between approximately 100 ppm and approximately 3,000 ppm and one of the passive trivalent dopants is La at a dopant density of between approximately 10,000 and approximately 120,000 ppm and another of the passive trivalent dopants is trivalent aluminum at a doping density of between approximately 10,000 ppm and 60,000 ppm, preferably 35,000 and 60,000 ppm; wherein the optical pump is configured to provide pump energy having a wavelength of between approximately 970 nm and approximately 990 nm; and further wherein the apparatus is configured for optically pumping the optical fiber at a single wavelength only for recovery from radiation induced attenuation. an optical fiber (11, 12, 13) comprising an active trivalent dopant and at least two passive trivalent dopants wherein in use the optical fiber having recovery from radiation induced attenuation; and a single optical pump source operatively coupled to provide photoannealing pump energy to the optical fiber; wherein the active trivalent dopant is erbium at a doping density of between approximately 100 ppm and approximately 3,000 ppm and one of the passive trivalent dopants is La at a dopant density of between approximately 10,000 and approximately 120,000 ppm and another of the passive trivalent dopants is trivalent aluminum at a doping density of between approximately 10,000 ppm and 60,000 ppm, preferably 35,000 and 60,000 ppm; wherein the optical pump is configured to provide pump energy having a wavelength of between approximately 970 nm and approximately 990 nm; and further wherein the apparatus is configured for optically pumping the optical fiber at a single wavelength only for recovery from radiation induced attenuation.
A support arm system having a support arm and a device case that is mounted via a connection console on the support arm, wherein the connection console comprises: - a case mounting having a mounting side through which the case mounting is fixed on the device case in two positions which are offset by 180°, wherein the mounting side has a plurality of key hole openings, at least two of them being positioned offset from one another by 180°; - a central part which is fixed on the case mounting, and which is mounted to the support arm via an attachment side, and which defines a cable maneuvering space; and - a cover element which closes, as needed, a mounting and inspection opening of the central part through which the cable maneuvering space can be accessed. - a case mounting having a mounting side through which the case mounting is fixed on the device case in two positions which are offset by 180°, wherein the mounting side has a plurality of key hole openings, at least two of them being positioned offset from one another by 180°; - a central part which is fixed on the case mounting, and which is mounted to the support arm via an attachment side, and which defines a cable maneuvering space; and - a cover element which closes, as needed, a mounting and inspection opening of the central part through which the cable maneuvering space can be accessed.
A barcode scanning device for decoding a one-dimensional non-planar barcode having a plurality of barcode elements that are adjacently arranged to form a pattern and that each have a width which is an integer multiple of a given smallest width (d), and wherein at least two of the barcode elements are arranged separated by a distance of the given smallest width (d), the barcode scanning device comprising: a barcode scanner configured for generating a time-dependent signal corresponding to the pattern of the barcode by scanning the barcode; and a correcting unit that is configured for determining from the time-dependent signal at least one geometrical parameter each characterizing relative positions of adjacent barcode elements as if projected onto a virtual plane that is arranged between the barcode scanner and the non-planar barcode; for determining a radius of curvature of a virtual cylinder which approximates a surface that the non-planar barcode is attached to from the determined geometrical parameters between adjacent barcode elements by finding a radius of curvature for which a variance of differences of the determined geometrical parameters between adjacently arranged barcode elements to integer multiples of a smallest variation of the geometrical parameter is at least close to a minimum; and for correcting the determined geometrical parameters by a correction factor corresponding to the smallest variation of the geometrical parameter and obtained by using the determined radius of curvature and a portion of the time-dependent signal. a barcode scanner configured for generating a time-dependent signal corresponding to the pattern of the barcode by scanning the barcode; and a correcting unit that is configured for determining from the time-dependent signal at least one geometrical parameter each characterizing relative positions of adjacent barcode elements as if projected onto a virtual plane that is arranged between the barcode scanner and the non-planar barcode; for determining a radius of curvature of a virtual cylinder which approximates a surface that the non-planar barcode is attached to from the determined geometrical parameters between adjacent barcode elements by finding a radius of curvature for which a variance of differences of the determined geometrical parameters between adjacently arranged barcode elements to integer multiples of a smallest variation of the geometrical parameter is at least close to a minimum; and for correcting the determined geometrical parameters by a correction factor corresponding to the smallest variation of the geometrical parameter and obtained by using the determined radius of curvature and a portion of the time-dependent signal.
A display device comprising: a display unit configured to display an image and to sense a touch input; a sensor unit configured to sense a fingerprint from the touch input on the display unit; a storage unit configured to store data; and a processor configured to control the display unit, the sensor unit, and the storage unit, wherein the processor is further configured to: detect a selection input for selecting first information to be output, the first information having a security on state or a security off state; obtain the fingerprint from the selection input when the selection input is detected, and convert the first information from the security on state into the security off state when the obtained fingerprint is matched with a pre-stored fingerprint; and when a predetermined input for the first information was detected before the first information is converted into the security off state, maintain the first information to the security on state, wherein the display device is configured to output the first information depending on the security state of the first information. a display unit configured to display an image and to sense a touch input; a sensor unit configured to sense a fingerprint from the touch input on the display unit; a storage unit configured to store data; and a processor configured to control the display unit, the sensor unit, and the storage unit, wherein the processor is further configured to: detect a selection input for selecting first information to be output, the first information having a security on state or a security off state; obtain the fingerprint from the selection input when the selection input is detected, and convert the first information from the security on state into the security off state when the obtained fingerprint is matched with a pre-stored fingerprint; and when a predetermined input for the first information was detected before the first information is converted into the security off state, maintain the first information to the security on state, wherein the display device is configured to output the first information depending on the security state of the first information. detect a selection input for selecting first information to be output, the first information having a security on state or a security off state; obtain the fingerprint from the selection input when the selection input is detected, and convert the first information from the security on state into the security off state when the obtained fingerprint is matched with a pre-stored fingerprint; and when a predetermined input for the first information was detected before the first information is converted into the security off state, maintain the first information to the security on state, wherein the display device is configured to output the first information depending on the security state of the first information.
A ticketing terminal on board a transport vehicle, characterised in that it comprises a body equipped with at least: • one contactless card reader; • one printer incorporated in said body, a paper output of the printer being provided by a slot made in the body, the paper output of the printer being oriented by a rotation of the printer relative to said body along a first substantially vertical axis; • an orientable customer interface (36, 37), the customer interface being oriented by a second rotation relative to said body about a second substantially vertical axis; • an orientable driver interface. • one contactless card reader; • one printer incorporated in said body, a paper output of the printer being provided by a slot made in the body, the paper output of the printer being oriented by a rotation of the printer relative to said body along a first substantially vertical axis; • an orientable customer interface (36, 37), the customer interface being oriented by a second rotation relative to said body about a second substantially vertical axis; • an orientable driver interface.
Brood comb heating device for the thermal treatment of brood combs, comprising a housing that has receiving portions for at least one planar heating element and for at least one brood comb and comprising a control unit connected to the heating element, characterised in that the housing is designed as part of a beehive and has two regions (16, 17) which are divided by a dividing wall and connected by an openable and closable opening in the dividing wall, the heating element is designed as an infrared heater, has at least one heat-emitting lateral face and is inserted in a second region of the housing such that the heat-emitting lateral face is arranged in parallel with a brood comb moved from a first into the second region (16, 17), the control unit controlling and/or regulating the heating element such that a predetermined temperature is present in the housing.
Wind turbine nacelle cover, characterized in that it comprises at least three parts (1, 2, 3; 4, 5, 6) which are in contact when the cover is closed, one rear part (3, 6) of said at least three parts including a working platform and the cover being equipped with driving devices which are able to separate the at least three parts from each other; wherein when the cover opens an upper part and a lower part are arranged in a way that the opened position is reached moving up the upper part and moving down the lower part, or alternatively a left part and a right part are arranged in a way that the opened position is reached pivoting the left part and the right part around an axis located on the top of the nacelle and parallel to the main direction of said nacelle; and finally pivoting said rear part (3, 6) around a horizontal axis, until the platform integrated in said rear part (3, 6) reaches a horizontal position.
Wiper blade device with a receiving unit which has a spring-rail-receiving region for receiving a spring rail, wherein the receiving unit has at least one first movably mounted closure element which is provided to close the spring-rail-receiving region in at least one direction when the spring rail is installed, wherein the first closure element is pivotable in the direction of the spring rail, wherein the first closure element in a fitted state lies flat against an upper side of the spring rail that lies opposite a lower side, characterized by a wind defector element which is formed integrally with a component of the receiving unit, and the wind deflector element has at least one latching element which is provided in order, in a fitted state, to avoid movement of the wind deflector element relative to a basic element of the receiving unit.
A method of automated scheduling or re-scheduling tests for execution in a continuous integration environment, the continuous integration environment including a code repository and at least one continuous integration server that periodically generates software builds based on committed code changes, executes queued tests on the generated builds, and reports results to developers, the method comprising: periodically receiving, by a micro-scheduler service handler from one or more micro-scheduler servers, a plurality of test execution requests, each test execution request identifying at least one test to be run by the continuous integration server and a score assigned by the requesting micro-scheduler server; filtering by the micro-scheduler service handler the received test execution requests to remove harmful and redundant requests; prioritizing by the micro-scheduler service handler the filtered requests for each micro-scheduler server based on their respective assigned score and available system resources of the continuous integration environment, wherein the score defines a priority of the request in relation to other test execution requests submitted by the requesting micro-scheduler server; placing by the micro-scheduler service handler the prioritized requests in one or more queues for execution; and submitting by the micro-scheduler service handler specific test requests to the continuous integration server for execution based on the queued requests. periodically receiving, by a micro-scheduler service handler from one or more micro-scheduler servers, a plurality of test execution requests, each test execution request identifying at least one test to be run by the continuous integration server and a score assigned by the requesting micro-scheduler server; filtering by the micro-scheduler service handler the received test execution requests to remove harmful and redundant requests; prioritizing by the micro-scheduler service handler the filtered requests for each micro-scheduler server based on their respective assigned score and available system resources of the continuous integration environment, wherein the score defines a priority of the request in relation to other test execution requests submitted by the requesting micro-scheduler server; placing by the micro-scheduler service handler the prioritized requests in one or more queues for execution; and submitting by the micro-scheduler service handler specific test requests to the continuous integration server for execution based on the queued requests.
An electrosurgical instrument having opposing end effectors (22, 24) and a handle (16, 18) for effecting movement of the end effectors relative to one another, the end effectors comprising: a pair of opposing electrodes (110', 120', 120") each including: an electrically conductive surface (116, 126); and an insulating substrate having an exterior surface (111', 121', 121"), the exterior surface of the insulating substrate intersecting the electrically conductive surface to form at least one insulator-conductor junction point (136, 136', 136") therebetween; characterized in that the electrically conductive surface of one of the pair of opposing electrodes is disposed in at least partial non-vertical registration with the electrically conductive surface on the opposing one of the pair of electrodes. a pair of opposing electrodes (110', 120', 120") each including: an electrically conductive surface (116, 126); and an insulating substrate having an exterior surface (111', 121', 121"), the exterior surface of the insulating substrate intersecting the electrically conductive surface to form at least one insulator-conductor junction point (136, 136', 136") therebetween; an electrically conductive surface (116, 126); and an insulating substrate having an exterior surface (111', 121', 121"), the exterior surface of the insulating substrate intersecting the electrically conductive surface to form at least one insulator-conductor junction point (136, 136', 136") therebetween;
A method for producing homoserine lactone and organic acid, comprising - producing O-acyl homoserine by a microorganism, and - hydrolysing the O-acyl homoserine in the presence of hydrochloric acid, wherein O-acyl homoserine and hydrochloric acid are used at a molar ratio of 1: 1-15. - producing O-acyl homoserine by a microorganism, and - hydrolysing the O-acyl homoserine in the presence of hydrochloric acid, wherein O-acyl homoserine and hydrochloric acid are used at a molar ratio of 1: 1-15.
A device for imparting an orbital angular momentum to a charged particle wave propagating along a beam axis in a charged particle beam generating apparatus, the device comprising: - a support element having a target region adapted for transmitting a charged particle wave propagating along a beam axis, and - an induction means for inducing a magnetic flux, wherein said induction means is adapted for providing a magnetic flux along an elongated profile in order to induce an angular gradient, relative to the beam axis, of the phase of the charged particle wave when transmitted through said target region, wherein a free end portion of the elongated profile is located in a substantially central position of said target region, wherein said induction means is adapted for providing said magnetic flux such that at said free end portion a field distribution exists that approximates that of a magnetic monopole. - a support element having a target region adapted for transmitting a charged particle wave propagating along a beam axis, and - an induction means for inducing a magnetic flux,
A straddle-type vehicle comprising: an engine; a transmission adapted to transmit power of the engine to a driving wheel; an actuator adapted to operate the transmission to change a transmission ratio; an accelerator grip adapted to be turnable from a neutral position in a positive direction; and a controller adapted to control the transmission so that the transmission ratio of the transmission coincides with a transmission ratio obtained according to an amount of turn of the accelerator grip, characterized in that the accelerator grip is urged toward the neutral position and is adapted to be turnable from the neutral position in a negative direction, and the controller adapted to change the transmission ratio of the transmission toward a low-speed due to the turn of the accelerator grip from the neutral position in the negative direction so as to provide a speed reduction using the engine brake. an engine; a transmission adapted to transmit power of the engine to a driving wheel; an actuator adapted to operate the transmission to change a transmission ratio; an accelerator grip adapted to be turnable from a neutral position in a positive direction; and a controller adapted to control the transmission so that the transmission ratio of the transmission coincides with a transmission ratio obtained according to an amount of turn of the accelerator grip, characterized in that the accelerator grip is urged toward the neutral position and is adapted to be turnable from the neutral position in a negative direction, and the controller adapted to change the transmission ratio of the transmission toward a low-speed due to the turn of the accelerator grip from the neutral position in the negative direction so as to provide a speed reduction using the engine brake.