mhurhangee/patent-ind-claim-en huggingface dataset:
A method of inspecting a conveyor having opposing sides and a length, the conveyor including an endless belt and a plurality of roller structures disposed in spaced relation along at least a portion of the length of the conveyor and under a top flight of the belt for supporting the belt while material is being conveyed on the belt, each roller structure including at least one roller constructed and arranged to rotate about an axis as the belt is conveyed with the material, wherein a guide structure is provided along the length of the conveyor and disposed adjacent to at least one of the sides of the conveyor, the method comprising the steps of (a) orienting an unmanned vehicle , having sensor structure thereon, at one side of the conveyor , and (b) causing the vehicle to travel with respect to the portion of the length of the conveyor while the sensor structure obtains data regarding a state of at least a portion of the belt and rollers of the plurality of roller structures while the conveyor is operating, wherein the guide structure disposed adjacent to the one side of the conveyor guides the vehicle during movement of the vehicle, wherein, while the vehicle is traveling, the sensor structure obtains the data only while being adjacent to the one side of the conveyer, without moving under the top flight of the belt. (a) orienting an unmanned vehicle , having sensor structure thereon, at one side of the conveyor , and (b) causing the vehicle to travel with respect to the portion of the length of the conveyor while the sensor structure obtains data regarding a state of at least a portion of the belt and rollers of the plurality of roller structures while the conveyor is operating,
A method for monitoring the flow of a liquid and operating an electronic device carried by an apparatus provided with a turbine capable of being rotated by a flow of a fluid, a current generator comprising a rotor rotationally connected to said turbine and a stator and delivering a substantially sinusoidal alternating current and a means for detecting at least one determined angular position of said turbine, delivering an electrical pulse each time the turbine passes through this angular position, the monitoring method is characterised by : said detection means comprising a comparator capable of delivering said electrical pulse (Ir) each time the value of the alternating current from the current generator passes above a current threshold (Sc), an elementary volume (Ve) being equal to the volume flowed between two successive pulses, the method comprising: incrementing an electrical pulse counter each time the detection means delivers an electrical pulse (Ir), setting, from an initial value, value thresholds of the number of pulses, and selectively activating a warning means for delivering different warning signals when the numbers of pulses delivered by the pulse counter, corresponding to said elementary volume (Ve) multiplied by this delivered number of pulses, are located within value ranges determined by said value thresholds. incrementing an electrical pulse counter each time the detection means delivers an electrical pulse (Ir), setting, from an initial value, value thresholds of the number of pulses, and selectively activating a warning means for delivering different warning signals when the numbers of pulses delivered by the pulse counter, corresponding to said elementary volume (Ve) multiplied by this delivered number of pulses, are located within value ranges determined by said value thresholds.
An uplink control information transmission method in carrier aggregation, comprising the steps of: sending, by a base station, first indication information to user equipment, UE, wherein the first indication information is used to instruct the UE to determine uplink control information, UCI, according to the first indication information which refers to as the first indication information and which instructs the UE whether to perform spatial bundling on hybrid automatic repeat request, HARQ, information of at least one scheduled carrier, wherein the UCI is the HARQ information; and allocating, by the base station, a physical uplink control channel, PUCCH, resource to the UE, wherein the PUCCH resource is used to transmit the UCI, wherein the first indication information is first-type indication information or second-type indication information; the first-type indication information is used to instruct the UE to determine UCI according to the first-type indication information when the base station generates downlink assignment index, DAI, information according to a quantity of scheduled carriers; and the second-type indication information is used to instruct the UE to determine UCI according to the second-type indication information when the base station generates the DAI information according to a quantity of scheduled codewords. sending, by a base station, first indication information to user equipment, UE, wherein the first indication information is used to instruct the UE to determine uplink control information, UCI, according to the first indication information which refers to as the first indication information and which instructs the UE whether to perform spatial bundling on hybrid automatic repeat request, HARQ, information of at least one scheduled carrier, wherein the UCI is the HARQ information; and allocating, by the base station, a physical uplink control channel, PUCCH, resource to the UE, wherein the PUCCH resource is used to transmit the UCI, wherein the first indication information is first-type indication information or second-type indication information; the first-type indication information is used to instruct the UE to determine UCI according to the first-type indication information when the base station generates downlink assignment index, DAI, information according to a quantity of scheduled carriers; and the second-type indication information is used to instruct the UE to determine UCI according to the second-type indication information when the base station generates the DAI information according to a quantity of scheduled codewords.
Device for recovering particles emitted by a vehicle wheel braking system, comprising linings with friction materials having a front friction face in contact with a rotating element , said particle recovery device also comprising cavities each equipped with a magnet for recovering particles , the linings comprising holes opening towards the rear onto these cavities , characterized in that each magnet comprises plates having flat faces receiving the particles , which are arranged in the direction perpendicular to the friction face.
A credential device comprising: a substrate; a chip embedded in the substrate, the chip having first credential data installed therein; and an image printed on the substrate; wherein second credential data associated with the first credential data is encoded within the image printed on the substrate; and the second credential data being encoded as an invisible digital watermark within the image printed on the substrate; and wherein the credential device further comprises a hologram and a payment network logo at an overlapping position to the invisible digital watermark. a substrate; a chip embedded in the substrate, the chip having first credential data installed therein; and an image printed on the substrate; wherein second credential data associated with the first credential data is encoded within the image printed on the substrate; and the second credential data being encoded as an invisible digital watermark within the image printed on the substrate; and wherein the credential device further comprises a hologram and a payment network logo at an overlapping position to the invisible digital watermark.
A head for multi-layer extrusion device having a plurality of flow paths for separately guiding elastomeric materials (G) from a plurality of extruders to a pre-former attachment unit , the head comprising: a main head to which the plurality of extruders is to be connected; an upper head part positioned above the main head ; and a lower head part positioned below the main head , wherein the plurality of extruders comprises a first extruder and a second extruder , characterized in that the main head , at least, is detachably divided into a first head part to which the first extruder is to be connected, a second head part to which the second extruder is to be connected, a third head part connected to the first head part on a downstream side of the first head part , and a fourth head part connected to the second head part on the downstream side of the second head part , wherein a bottom surface of the third head part and an upper surface of the fourth head part are butted with each other. a main head to which the plurality of extruders is to be connected; an upper head part positioned above the main head ; and a lower head part positioned below the main head , wherein the plurality of extruders comprises a first extruder and a second extruder , characterized in that the main head , at least, is detachably divided into a first head part to which the first extruder is to be connected, a second head part to which the second extruder is to be connected, a third head part connected to the first head part on a downstream side of the first head part , and a fourth head part connected to the second head part on the downstream side of the second head part , wherein a bottom surface of the third head part and an upper surface of the fourth head part are butted with each other.
An insulated cooler unit for producing cooled air, comprising within a thermally-insulated housing chamber : - an inlet for introducing air to be cooled, - an outlet for exiting of cooled air, - an air heat exchanger for cooling air, - a first fan , the unit additionally comprises - a first track member , optionally having a first channel member , - one or more first sliding member(s) adapted to slide over the first track member or within the optional first channel member , wherein the first fan is connected to the first sliding member , and wherein the first fan is slidably mounted in the first track member by means of the first sliding member(s) , and wherein the first fan is capable of being slidably moved over a portion of a, preferably an entire, first length (L1) of the first track member , and characterized in that the unit additionally comprises one to four, preferably two, further fan(s) each connected to at least one further sliding members , and wherein each further fan is slidably mounted in the first track member by means of the further sliding member(s) , and wherein each further fan is capable of being slidably moved over a portion of a, preferably an entire, first length (L1) of the first track member . - an inlet for introducing air to be cooled, - an outlet for exiting of cooled air, - an air heat exchanger for cooling air, - a first fan , - a first track member , optionally having a first channel member , - one or more first sliding member(s) adapted to slide over the first track member or within the optional first channel member ,
A method of operating a photoelectric barrier with at least one first and one second optoelectronic machine guard, wherein the first optoelectronic machine guard has first transmitter units and receiver units , and the second optoelectronic machine guard has second transmitter units and receiver units , wherein all transmitters of the first transmitter units and receiver units are successively activated during the run of a first cycle so as to emit single light pulses and all transmitters of the second transmitter units and receiver units are successively activated during the run of a second cycle so as to emit single light pulses , and the cycles occur substantially simultaneously and the cycles of the first and of the second optoelectronic machines are repeated a certain number of cycles N samples , whereas the single light pulses of the first optoelectronic machine guard are offset in time by a phase shift ΔA and the single light pulses of the second optoelectronic machine guard by a phase shift ΔB in relation to a reference cycle, characterized in that for a given pulse width T puls of the single light pulses (41, 42, 43; 45, 46, 47) and for a given average pulse intermediate time T Task , the first phase offset ΔA and the second phase offset ΔB of each cycle n Zyklus is determined by the following inequality: T Puls ≤ n Zyklus ⋅ ΔA − ⌊ n Zyklus ⋅ N Beams A N Beams B ⌋ ⋅ ΔB mod T Task ≤ T Task − T Puls . wherein ∀ n zyklus = {1,...,( N samples - 1)} ∀ N Beams A = the number of beams of the first optoelectronic machine guard ∀ N Beams B = the number of beams of the second optoelectronic machine guard is and the following restrictions apply for determining the first phase offset ΔA and the second phase offset ΔB : |ΔA| ≥ T Puls |ΔB| ≥ T Puls ΔA ≠ ΔB and | ΔA | = | ΔB |. ∀ n zyklus = {1,...,( N samples - 1)} ∀ N Beams A = the number of beams of the first optoelectronic machine guard ∀ N Beams B = the number of beams of the second optoelectronic machine guard is and the following restrictions apply for determining the first phase offset ΔA and the second phase offset ΔB : |ΔA| ≥ T Puls |ΔB| ≥ T Puls ΔA ≠ ΔB and | ΔA | = | ΔB |. |ΔA| ≥ T Puls |ΔB| ≥ T Puls ΔA ≠ ΔB and | ΔA | = | ΔB |.
Hydraulic control device with a pressure control valve , the pressure control valve comprising a control piston and a modulation piston which can be displaced with respect to one another, the control piston and the modulation piston being pressed apart from one another by way of at least one spring , a pressure space being arranged on an end side of the modulation piston in such a way that its filling brings about a displacement of the modulation piston in the direction of the control piston , and it being possible for the pressure space to be filled through a first throttle with a first volumetric flow Q1 of a pressure medium, characterized in that a venting line with at least one further throttle is connected to the pressure space , through which venting line a second volumetric flow Q2 can be discharged from the pressure space .
A desiccant container for an air dryer cartridge for a vehicle, especially utility vehicle, with at least one container cover ; with at least one container body for accommodating at least one desiccant ; and with at least one pretension device for pretension, in a mounted state, the desiccant internally against the container body and/or the container cover ; wherein the container cover and the pretension device , in a pre-mounted state, are formed as a common pre-mounted unit , characterized in that the common pre-mounted unit comprises at least one locking device for holding, in the pre-mounted state, the pretension device in at least one compressed state.
A process, comprising: reacting a compound of Formula II: wherein PG is a protecting group and LG 1 is a leaving group, with ethylene oxide in the presence of (a) an alkyl lithium and a copper(I)salt; or (b) an alkyl lithium and a Lewis acid, and a solvent, to give a compound of Formula III: reacting a compound of Formula II: wherein PG is a protecting group and LG 1 is a leaving group, with ethylene oxide in the presence of (a) an alkyl lithium and a copper(I)salt; or (b) an alkyl lithium and a Lewis acid, and (a) an alkyl lithium and a copper(I)salt; or (b) an alkyl lithium and a Lewis acid, and a solvent, to give a compound of Formula III:
An apparatus configured to design a footwear part, comprising: a data store comprising footwear template models and executable software; a manufacturing system ; a data collection system collecting data regarding a particular user, having a static data collection component and a dynamic data collection component which comprises a sensor and a processor in data communication with the data store and the data collection system, wherein the processor is configured to execute the software and cause the apparatus to: receive user data associated with a user; generate a user model based on the received user data; determine corrective features based on a comparison of the user model to shape models as well as performance models, wherein the corrective features comprise areas of reduced or increased thickness and bending lines, ribs, cuts, or striations, which enhance or inhibit bending of the footwear part in certain directions; and generate a custom footwear model for the footwear part comprising the determined corrective features. a data store comprising footwear template models and executable software; a manufacturing system ; a data collection system collecting data regarding a particular user, having a static data collection component and a dynamic data collection component which comprises a sensor and a processor in data communication with the data store and the data collection system, wherein the processor is configured to execute the software and cause the apparatus to: receive user data associated with a user; generate a user model based on the received user data; determine corrective features based on a comparison of the user model to shape models as well as performance models, wherein the corrective features comprise areas of reduced or increased thickness and bending lines, ribs, cuts, or striations, which enhance or inhibit bending of the footwear part in certain directions; and generate a custom footwear model for the footwear part comprising the determined corrective features. receive user data associated with a user; generate a user model based on the received user data; determine corrective features based on a comparison of the user model to shape models as well as performance models, wherein the corrective features comprise areas of reduced or increased thickness and bending lines, ribs, cuts, or striations, which enhance or inhibit bending of the footwear part in certain directions; and generate a custom footwear model for the footwear part comprising the determined corrective features.
A pressure sensor module comprising: a housing comprising a body portion , the body portion comprising a pressure port and an annular recess surrounding an opening of the pressure port ; and a pressure sensor apparatus disposed within the housing ; wherein the pressure sensor apparatus comprises: a pressure sensitive structure; a device package comprising a profiled interface region , the profiled interface region comprising a front side and a back side ; and a lead frame encapsulated at least in part by the device package and operably coupled to the pressure sensitive structure; wherein the front side sealingly abuts against an opposing surface to dock directly with the pressure port ; the back side comprises a first surrounding ridge structure ; the profiled interface region comprises an aperture for providing access to the pressure port ; and the front side of the profiled interface region comprises a third surrounding ridge structure adhered at least in part in the annular recess by an adhesive to secure the pressure sensor apparatus to the pressure port and to mate sealingly the front side of the profiled interface region against the pressure port . characterized in that the back side further comprises a second surrounding ridge structure . a housing comprising a body portion , the body portion comprising a pressure port and an annular recess surrounding an opening of the pressure port ; and a pressure sensor apparatus disposed within the housing ; wherein the pressure sensor apparatus comprises: a pressure sensitive structure; a device package comprising a profiled interface region , the profiled interface region comprising a front side and a back side ; and a lead frame encapsulated at least in part by the device package and operably coupled to the pressure sensitive structure; wherein the front side sealingly abuts against an opposing surface to dock directly with the pressure port ; the back side comprises a first surrounding ridge structure ; the profiled interface region comprises an aperture for providing access to the pressure port ; and a pressure sensitive structure; a device package comprising a profiled interface region , the profiled interface region comprising a front side and a back side ; and a lead frame encapsulated at least in part by the device package and operably coupled to the pressure sensitive structure; wherein the front side sealingly abuts against an opposing surface to dock directly with the pressure port ; the back side comprises a first surrounding ridge structure ; the profiled interface region comprises an aperture for providing access to the pressure port ; and the front side of the profiled interface region comprises a third surrounding ridge structure adhered at least in part in the annular recess by an adhesive to secure the pressure sensor apparatus to the pressure port and to mate sealingly the front side of the profiled interface region against the pressure port . characterized in that the back side further comprises a second surrounding ridge structure .
A position and orientation recognition processing apparatus for recognizing a position and orientation of an object , comprising: a model data acquisition unit configured to acquire three-dimensional model data indicating a three-dimensional shape of an object ; a measurement unit configured to acquire measurement data including three-dimensional position information of the object ; a position and orientation recognition unit configured to recognize a position and orientation of the object based on the three-dimensional model data and the measurement data; a similarity score calculation unit configured to calculate a similarity score (S) indicating a degree of similarity between the three-dimensional model data and the measurement data in a position and orientation recognition result of the object ; a reliability calculation unit configured to calculate an index (D1, D2) indicating a feature of a three-dimensional shape of the object in the position and orientation recognition result of the object , wherein the feature of the three-dimensional shape of the object is a dispersion of a frequency distribution of quantized normal directions with respect to respective faces, and calculate a reliability (R) of the similarity score (S) based on the index (D1, D2); and an integrated score calculation unit configured to calculate an integrated score (ST) indicating a quality of the position and orientation recognition result of the object based on the similarity score (S) and the reliability (R). a model data acquisition unit configured to acquire three-dimensional model data indicating a three-dimensional shape of an object ; a measurement unit configured to acquire measurement data including three-dimensional position information of the object ; a position and orientation recognition unit configured to recognize a position and orientation of the object based on the three-dimensional model data and the measurement data; a similarity score calculation unit configured to calculate a similarity score (S) indicating a degree of similarity between the three-dimensional model data and the measurement data in a position and orientation recognition result of the object ; a reliability calculation unit configured to calculate an index (D1, D2) indicating a feature of a three-dimensional shape of the object in the position and orientation recognition result of the object , wherein the feature of the three-dimensional shape of the object is a dispersion of a frequency distribution of quantized normal directions with respect to respective faces, and calculate a reliability (R) of the similarity score (S) based on the index (D1, D2); and an integrated score calculation unit configured to calculate an integrated score (ST) indicating a quality of the position and orientation recognition result of the object based on the similarity score (S) and the reliability (R).