mhurhangee/ep-ind-claims huggingface dataset:
An aqua shoe that is equipped with an anti-slip structure comprising: an upper that covers an instep from above; an insole part that connects to the lower part of the upper; and an outsole part which is integrated with the insole part and the upper and which is supported by an outsole surface, wherein the outsole part is equipped with an anti-slip structure in which a plurality of suction parts are arranged while a suction part includes a cup that tightly contacts along the cup rim to the ground surface to provide, by being compressed, suction force and a protuberance that protrudes downward from the center of the cup, wherein the suction part is constructed so that the level of the cup rim is located lower than the level of the lower end of the protuberance, wherein for the suction part, the cup rim, upon stepping on the ground, contacts to the ground and provides suction force by being compressed then relieves the suction force when the protuberance, upon shifting the foot load and by increasing the pressure, contacts to the ground, characterized in that the outsole part is provided with connections that link the tops of the suction part to one another and openings that vertically penetrate between the connections, the structure of which therefore ameliorates water expulsion, and the outsole part is provided with an inlay that shapes as a flat panel, and the level of the inlay bottom corresponds to the level of the lower end of the suction part. an upper that covers an instep from above; an insole part that connects to the lower part of the upper; and an outsole part which is integrated with the insole part and the upper and which is supported by an outsole surface, wherein the outsole part is equipped with an anti-slip structure in which a plurality of suction parts are arranged while a suction part includes a cup that tightly contacts along the cup rim to the ground surface to provide, by being compressed, suction force and a protuberance that protrudes downward from the center of the cup, wherein the suction part is constructed so that the level of the cup rim is located lower than the level of the lower end of the protuberance, wherein for the suction part, the cup rim, upon stepping on the ground, contacts to the ground and provides suction force by being compressed then relieves the suction force when the protuberance, upon shifting the foot load and by increasing the pressure, contacts to the ground, characterized in that the outsole part is provided with connections that link the tops of the suction part to one another and openings that vertically penetrate between the connections, the structure of which therefore ameliorates water expulsion, and the outsole part is provided with an inlay that shapes as a flat panel, and the level of the inlay bottom corresponds to the level of the lower end of the suction part.
A method to mitigate vibration in a drill-string, the method comprising the steps of: measuring, via a sensor, a drill-string torque of a drill-string to yield measurement data; determining, via a processor, a plurality of vibration modes using the measurement data; determining, via the processor, a frequency and an amplitude of each of the plurality of vibration modes; determining, via the processor, a controller setting via a minimization of an objective function based on a reflectivity of vibration energy of the plurality of vibration modes by performing an optimization of the measurement data based on the frequency and the amplitude of each of the plurality of vibration modes, wherein the optimization reduces the reflectivity of the vibration energy of one of the plurality of vibration modes, and limits a dampening of another of the plurality of vibration modes, wherein the optimization is performed by calculating a reflectivity of torsional waves at a top drive of the drill-string using a first equation: R ω = z − P − i ωD − 1 ω / z + P + i ωD − I ω wherein ω is an angular frequency of the reflectivity of torsional waves, z is impedance of a drill pipe of the drill-string, and P, I, and D are a proportional factor, an integral factor, and a derivative factor of the top drive, respectively; and controlling, via a controller, the drill-string based on the controller setting to mitigate the plurality of vibration modes. measuring, via a sensor, a drill-string torque of a drill-string to yield measurement data; determining, via a processor, a plurality of vibration modes using the measurement data; determining, via the processor, a frequency and an amplitude of each of the plurality of vibration modes; determining, via the processor, a controller setting via a minimization of an objective function based on a reflectivity of vibration energy of the plurality of vibration modes by performing an optimization of the measurement data based on the frequency and the amplitude of each of the plurality of vibration modes, wherein the optimization reduces the reflectivity of the vibration energy of one of the plurality of vibration modes, and limits a dampening of another of the plurality of vibration modes, wherein the optimization is performed by calculating a reflectivity of torsional waves at a top drive of the drill-string using a first equation: R ω = z − P − i ωD − 1 ω / z + P + i ωD − I ω wherein ω is an angular frequency of the reflectivity of torsional waves, z is impedance of a drill pipe of the drill-string, and P, I, and D are a proportional factor, an integral factor, and a derivative factor of the top drive, respectively; and controlling, via a controller, the drill-string based on the controller setting to mitigate the plurality of vibration modes.
Method for detecting at least one object resting against a motor vehicle, wherein at least one camera image is captured by means of a camera using a control apparatus, wherein a capture region of the camera is directed into an exterior region of the motor vehicle and, in part or entirely, onto an exterior surface of the motor vehicle, characterized in that, for a free-standing check, a check is performed in the at least one camera image using an image analysis device of the control apparatus as to whether at least one predetermined own structure of the motor vehicle is depicted and, in the event that the at least one own structure cannot be found using the image analysis device, a blocking signal indicating that an object is resting against the motor vehicle is generated, wherein a starting signal for starting to drive is received by an autopilot of the motor vehicle and the autopilot starts to drive only in the absence of a blocking signal.
A handrail disinfecting device, comprising at least one housing and a plurality of light-emitting diodes having a main light cone axis, which light-emitting diodes can emit germicidal electromagnetic radiation in the region of their light cone, wherein the housing has an entry side and an exit side opposite the entry side for a continuous handrail of a passenger transport installation, • wherein a pass-through segment for the handrail, which segment is divided into at least two sectors (61, 62, 63), is present in the housing between the entry side and the exit side; • wherein the sectors (61, 62, 63) are arranged one behind the other in the longitudinal extension of the pass-through segment; • wherein at least one light-emitting diode is arranged in the first sector, the main light cone axis of which diode is oriented substantially orthogonally to a first plane; and • wherein at least two light-emitting diodes are arranged in the second sector, wherein the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a second plane and the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a third plane, and wherein the second plane and the third plane are arranged in parallel with the longitudinal extension of the pass-through segment and so as to be mutually inclined at an angle (α) of 100° to 160°, characterized in that the handrail disinfecting device has at least one guide roller, by means of which guide roller a handrail of a passenger transport installation can be guided through the housing in the pass-through segment in a defined position in relation to the light-emitting diodes. • wherein a pass-through segment for the handrail, which segment is divided into at least two sectors (61, 62, 63), is present in the housing between the entry side and the exit side; • wherein the sectors (61, 62, 63) are arranged one behind the other in the longitudinal extension of the pass-through segment; • wherein at least one light-emitting diode is arranged in the first sector, the main light cone axis of which diode is oriented substantially orthogonally to a first plane; and • wherein at least two light-emitting diodes are arranged in the second sector, wherein the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a second plane and the main light cone axis of at least one light-emitting diode is oriented substantially orthogonally to a third plane, and
A multilayer coating system on a substrate, comprising - a top coat which is a cured coating composition, wherein the coating composition comprises at least one water-based anionic polyurethane dispersion and 0.1 to 4 weight-%, preferably 0.15 to 1.5 weight-%, of nanoparticulate TiO 2 having an average particle size of not more than 100 nm, based on the solids content of the coating composition, whereby the average particle size of nanoparticulate TiO 2 is determined as the number-average primary particle diameter as measured by transmission electron microscopy according to ISO/TS 11937:2012, and - one or more base coats which are a cured base coating composition, wherein the base coating composition comprises an isocyanate-functional polyurethane polymer. - a top coat which is a cured coating composition, wherein the coating composition comprises at least one water-based anionic polyurethane dispersion and 0.1 to 4 weight-%, preferably 0.15 to 1.5 weight-%, of nanoparticulate TiO 2 having an average particle size of not more than 100 nm, based on the solids content of the coating composition, whereby the average particle size of nanoparticulate TiO 2 is determined as the number-average primary particle diameter as measured by transmission electron microscopy according to ISO/TS 11937:2012, and - one or more base coats which are a cured base coating composition, wherein the base coating composition comprises an isocyanate-functional polyurethane polymer.
A surgical instrument for inserting a spinal implant (100, 170) in the intervertebral disc space between two adjacent vertebrae and an anchor (130, 140, 150, 160, 164, 166) engageable with the implant and an adjacent vertebra, the instrument comprising: an engagement portion including a superior surface (228, 528), an inferior surface (230, 530), a distal engagement surface (206, 506) for interfacing with the implant, and characterized in that the engagement portion includes a longitudinal channel (218, 220; 518, 519; 520, 521) on at least one of the superior and inferior surfaces (228, 528; (230, 530) for slidably translating the anchor (130, 140, 150, 160, 164, 166) toward the engagement surface (206, 506). an engagement portion including a superior surface (228, 528), an inferior surface (230, 530), a distal engagement surface (206, 506) for interfacing with the implant, and characterized in that the engagement portion includes a longitudinal channel (218, 220; 518, 519; 520, 521) on at least one of the superior and inferior surfaces (228, 528; (230, 530) for slidably translating the anchor (130, 140, 150, 160, 164, 166) toward the engagement surface (206, 506).
A method for producing a semiconductor device (100; 200) comprising: a radiation step of radiating an electron beam to the a front side of an n-type silicon substrate and a heat treatment step to perform lifetime killer control; after said radiation step and heat treatment step an implantation step of performing proton implantation from a rear surface of the n-type silicon substrate; and a formation step of performing an annealing process for the silicon substrate in an annealing furnace to form a first semiconductor region of n-type which has a higher impurity concentration than the silicon substrate after the implantation step, wherein in the formation step, the annealing furnace is in a hydrogen atmosphere and volume concentration of hydrogen is equal to or greater than 0.5% and less than 4.65%; an annealing temperature of the annealing process is equal to or higher than 300 °C and lower than 350°C; and wherein a range of the proton implanted from the rear surface is in the range of 16 μm to 220 μm. a radiation step of radiating an electron beam to the a front side of an n-type silicon substrate and a heat treatment step to perform lifetime killer control; after said radiation step and heat treatment step an implantation step of performing proton implantation from a rear surface of the n-type silicon substrate; and a formation step of performing an annealing process for the silicon substrate in an annealing furnace to form a first semiconductor region of n-type which has a higher impurity concentration than the silicon substrate after the implantation step, wherein in the formation step, the annealing furnace is in a hydrogen atmosphere and volume concentration of hydrogen is equal to or greater than 0.5% and less than 4.65%; an annealing temperature of the annealing process is equal to or higher than 300 °C and lower than 350°C; and wherein a range of the proton implanted from the rear surface is in the range of 16 μm to 220 μm.
Framework assembly for motor vehicle including a floor with a front zone formed by a first part destined to be situated under a driver's seat and a front passenger's seat of the vehicle and a second part destined to be positioned under rear passenger seats of the vehicle, as well as a reservoir including a first compartment delimiting an empty space to store a pollutant removal agent, characterised in that the said first compartment of the reservoir is positioned in the front zone of the floor at least partially in a lateral zone deformable in case of shock of the vehicle.
A method of delivering user-specific data to a device, the method comprising: using a processor to perform acts comprising: associating a user's biometric data with a cluster (204, 206, 208, 210) of biometric data items that minimize a predefined statistic, said biometric data being collected with a fingerprint reader or a camera connected to said processor; associating a cryptographic key (212, 214, 216, 218) with said cluster; using said cryptographic key to encrypt user-specific data that is specific to said user, said user specific data comprising text documents, spreadsheets, images, music, video and/or metadata such as user settings; and delivering, to a device on which said user is using a software service, said user-encrypted data in encrypted form, said device having software that identifies said cryptographic key (212, 214, 216, 218) from said biometric data and that uses said cryptographic key (212, 214, 216, 218) to decrypt said user-specific data for use with said software service, wherein the biometric data is used to look up the cryptographic key (212, 214, 216, 218) in a database that associates cryptographic keys with said clusters (204, 206, 208, 210) of biometric data, and wherein, if multiple clusters in the database match the biometric data, the cryptographic keys (212, 214, 216, 218) corresponding to said multiple matching clusters are applied one-by-one to said user-encrypted data until the correct key is found. associating a user's biometric data with a cluster (204, 206, 208, 210) of biometric data items that minimize a predefined statistic, said biometric data being collected with a fingerprint reader or a camera connected to said processor; associating a cryptographic key (212, 214, 216, 218) with said cluster; using said cryptographic key to encrypt user-specific data that is specific to said user, said user specific data comprising text documents, spreadsheets, images, music, video and/or metadata such as user settings; and delivering, to a device on which said user is using a software service, said user-encrypted data in encrypted form, said device having software that identifies said cryptographic key (212, 214, 216, 218) from said biometric data and that uses said cryptographic key (212, 214, 216, 218) to decrypt said user-specific data for use with said software service, wherein the biometric data is used to look up the cryptographic key (212, 214, 216, 218) in a database that associates cryptographic keys with said clusters (204, 206, 208, 210) of biometric data, and wherein, if multiple clusters in the database match the biometric data, the cryptographic keys (212, 214, 216, 218) corresponding to said multiple matching clusters are applied one-by-one to said user-encrypted data until the correct key is found.
Method for proposing a driving speed for a driver at the steering wheel of a vehicle, the method comprising the following steps of: - estimating the available grip potential at a given instant between a tyre of the vehicle and the roadway on a predetermined upcoming route; - determining, among a set of predetermined driving styles, secure styles for which the grip requirement on the predetermined route remains lower than the grip potential; - selecting, among said secure styles, a secure comfortable style according to a driver profile; - determining, according to said secure comfortable style and to a location of the vehicle, a basic proposed driving speed on an upcoming section of route. - estimating the available grip potential at a given instant between a tyre of the vehicle and the roadway on a predetermined upcoming route; - determining, among a set of predetermined driving styles, secure styles for which the grip requirement on the predetermined route remains lower than the grip potential; - selecting, among said secure styles, a secure comfortable style according to a driver profile; - determining, according to said secure comfortable style and to a location of the vehicle, a basic proposed driving speed on an upcoming section of route.
An actuator comprising: - a latch which can be retracted and extended by means of a spindle, - a drive wheel having an internal thread, - a drive for the drive wheel, - an external thread of the spindle, which extends into the internal thread of the drive wheel, characterized by an emergency unlocking device which can be manually actuated and which comprises a lever (6, 16) and a cantilever arm which is connected to the latch. - a latch which can be retracted and extended by means of a spindle, - a drive wheel having an internal thread, - a drive for the drive wheel, - an external thread of the spindle, which extends into the internal thread of the drive wheel, characterized by an emergency unlocking device which can be manually actuated and which comprises a lever (6, 16) and a cantilever arm which is connected to the latch.
A wireless communication device comprising: a housing; a controller coupled to the housing, the controller configured to control the operations of the wireless communication device; memory coupled to the controller; a transceiver coupled to the controller, the transceiver configured to send and receive wireless signals, a receive signal includes at least a control channel and a packet data channel, the control channel being configured to provide the modulation and encoding and/or decoding information necessary to process a subsequent packet of data received by the transceiver or in preparation for transmission by the transceiver; the wireless communication device being characterised by a monitoring module for monitoring the control channel and controlling a dynamic scaling module, the monitoring module being configured to read a parameter field from the control channel which is used to determine whether the data message has certain processing needs meeting a certain threshold; the dynamic scaling module being configured to provide energy savings by varying the voltage and frequency of at least the controller, substantially real-time, according to the processing needs determined by the monitoring module, to provide: (i) a performance mode including a performance voltage and performance frequency when the certain threshold is met; and (ii) a default mode including a default voltage and default frequency when the certain threshold is not met, wherein the performance frequency is higher than the default frequency. a housing; a controller coupled to the housing, the controller configured to control the operations of the wireless communication device; memory coupled to the controller; a transceiver coupled to the controller, the transceiver configured to send and receive wireless signals, a receive signal includes at least a control channel and a packet data channel, the control channel being configured to provide the modulation and encoding and/or decoding information necessary to process a subsequent packet of data received by the transceiver or in preparation for transmission by the transceiver; the wireless communication device being characterised by a monitoring module for monitoring the control channel and controlling a dynamic scaling module, the monitoring module being configured to read a parameter field from the control channel which is used to determine whether the data message has certain processing needs meeting a certain threshold; the dynamic scaling module being configured to provide energy savings by varying the voltage and frequency of at least the controller, substantially real-time, according to the processing needs determined by the monitoring module, to provide: (i) a performance mode including a performance voltage and performance frequency when the certain threshold is met; and (ii) a default mode including a default voltage and default frequency when the certain threshold is not met, wherein the performance frequency is higher than the default frequency.
A method of providing location services in a 3GPP network, by performing in a serving mobile location centre, SMLC, the steps of: receiving signaling sent by a base station subsystem, BSS, to initiate periodic reporting of location of a user equipment, UE to a client entity, wherein the signaling received from the BSS comprises a periodic location request and periodic location information indicative of when to send location estimates for the UE to the client entity; evaluating the periodic location request and selecting a positioning method and for location reporting indicated by the periodic location information, receiving from the BSS location information sent by the UE or concerning the UE, performing positioning if needed to obtain a location estimate for the UE, and sending the location estimate for the UE to the BSS. receiving signaling sent by a base station subsystem, BSS, to initiate periodic reporting of location of a user equipment, UE to a client entity, wherein the signaling received from the BSS comprises a periodic location request and periodic location information indicative of when to send location estimates for the UE to the client entity; evaluating the periodic location request and selecting a positioning method and for location reporting indicated by the periodic location information, receiving from the BSS location information sent by the UE or concerning the UE, performing positioning if needed to obtain a location estimate for the UE, and sending the location estimate for the UE to the BSS.