mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for monitoring the surroundings of a vehicle, comprising: an outside driver recognition unit (30, 31, 41) for recognizing a driver approaching the vehicle; an obstacle information generating unit (20, 42) for generating obstacle information related to the presence of an obstacle in the surroundings of the vehicle; and a notification unit (45, 50) for notifying the recognized driver outside of the vehicle of the obstacle information from the obstacle information generating unit, and further comprising a blind spot determining unit (40, 43) for determining, based on the obstacle information, whether or not the obstacle is present in a blind spot area of the driver recognized by the outside driver recognition unit, the notification unit (45, 50) notifying of the obstacle information when the obstacle is present in the blind spot area. an outside driver recognition unit (30, 31, 41) for recognizing a driver approaching the vehicle; an obstacle information generating unit (20, 42) for generating obstacle information related to the presence of an obstacle in the surroundings of the vehicle; and a notification unit (45, 50) for notifying the recognized driver outside of the vehicle of the obstacle information from the obstacle information generating unit, and further comprising a blind spot determining unit (40, 43) for determining, based on the obstacle information, whether or not the obstacle is present in a blind spot area of the driver recognized by the outside driver recognition unit, the notification unit (45, 50) notifying of the obstacle information when the obstacle is present in the blind spot area.
Bearing assembly for pivotably attaching a side wall to a vehicle body of a tipper vehicle, comprising: - a strap hinge which is fixedly associated with the side wall and is provided with a hollow cylindrical receiving portion (16; 16') having an interior space defined by an inner wall thereof and a first and a second end; - a pair of side plates (12a', 12b') which are associated with the vehicle body of the tipper vehicle and each have at least one opening, between which the cylindrical receiving portion can be arranged in such a way that the openings of the side plates (12a', 12b') and the interior of the receiving portion are aligned; - a preloaded bearing bush received in the receiving portion; - a sleeve element received in the bearing bush; and - a screw having a screw head which extends through the openings in the side plates (12a', 12b') and the sleeve element and clamps the receiving portion between the side plates (12a', 12b') by means of a nut, the bearing bush comprising an end portion on at least one of the ends of the receiving portion, which end portion extends radially beyond the inner wall of the receiving portion at least in portions, and the sleeve element being formed by two parts (22a', 22b') which extend into the bearing bush from both sides, characterised in that at least one of the two parts (22a', 22b') of the sleeve element is provided with a collar portion which is arranged outside the receiving portion and extends substantially over the entire circumference of the receiving portion, a distance being provided between the end portion and the collar portion. - a strap hinge which is fixedly associated with the side wall and is provided with a hollow cylindrical receiving portion (16; 16') having an interior space defined by an inner wall thereof and a first and a second end; - a pair of side plates (12a', 12b') which are associated with the vehicle body of the tipper vehicle and each have at least one opening, between which the cylindrical receiving portion can be arranged in such a way that the openings of the side plates (12a', 12b') and the interior of the receiving portion are aligned; - a preloaded bearing bush received in the receiving portion; - a sleeve element received in the bearing bush; and - a screw having a screw head which extends through the openings in the side plates (12a', 12b') and the sleeve element and clamps the receiving portion between the side plates (12a', 12b') by means of a nut, the bearing bush comprising an end portion on at least one of the ends of the receiving portion, which end portion extends radially beyond the inner wall of the receiving portion at least in portions, and the sleeve element being formed by two parts (22a', 22b') which extend into the bearing bush from both sides, characterised in that at least one of the two parts (22a', 22b') of the sleeve element is provided with a collar portion which is arranged outside the receiving portion and extends substantially over the entire circumference of the receiving portion, a distance being provided between the end portion and the collar portion.
A system for optimization of alarm settings of a clinical alarm algorithm, said system comprising: an acquisition module configured to acquire clinical monitoring data, CMD, employed by the clinical alarm algorithm over a user-defined period of time; a regeneration module configured to: determine proposed settings for one or more parameters of the clinical alarm algorithm; and apply the clinical monitoring algorithm to the acquired CMD with the proposed settings to determine regeneration results predicting alarm load for different combinations of the proposed settings, wherein the clinical alarm algorithm is a threshold alarm algorithm, wherein the one or more parameters include a threshold of the clinical alarm algorithm, and wherein the regeneration module is further configured to apply the clinical monitoring algorithm to the acquired CMD by, for each proposed setting of the threshold, determining a set of intervals during the user-defined period where the acquired CMD exceeds the proposed setting. an acquisition module configured to acquire clinical monitoring data, CMD, employed by the clinical alarm algorithm over a user-defined period of time; a regeneration module configured to: determine proposed settings for one or more parameters of the clinical alarm algorithm; and apply the clinical monitoring algorithm to the acquired CMD with the proposed settings to determine regeneration results predicting alarm load for different combinations of the proposed settings, determine proposed settings for one or more parameters of the clinical alarm algorithm; and apply the clinical monitoring algorithm to the acquired CMD with the proposed settings to determine regeneration results predicting alarm load for different combinations of the proposed settings,
A method, comprising: scanning a plurality of network entities to report traffic flow data; selecting for reporting at least one network entity that transfers a largest amount of data among the plurality of network entities; receiving, at a network traffic analyzer, a query of network traffic flow data over a certain time period for the selected at least one network entity; modifying the query to produce a plurality of sub-queries, wherein each of the sub-queries are based on different segments of time within the certain time period; executing at least one of the sub-queries for the most recent period of time; and incrementally outputting results of each of said executed sub-queries as each of the sub-queries are completed, wherein said incrementally outputting the results comprises immediately outputting the results of a sub-query when the sub-query is completed, wherein said immediately outputting the results of the sub-query further comprises generating a graphical chart illustrating the incremental results of the sub-query as the sub-query is completed. scanning a plurality of network entities to report traffic flow data; selecting for reporting at least one network entity that transfers a largest amount of data among the plurality of network entities; receiving, at a network traffic analyzer, a query of network traffic flow data over a certain time period for the selected at least one network entity; modifying the query to produce a plurality of sub-queries, wherein each of the sub-queries are based on different segments of time within the certain time period; executing at least one of the sub-queries for the most recent period of time; and incrementally outputting results of each of said executed sub-queries as each of the sub-queries are completed, wherein said incrementally outputting the results comprises immediately outputting the results of a sub-query when the sub-query is completed, wherein said immediately outputting the results of the sub-query further comprises generating a graphical chart illustrating the incremental results of the sub-query as the sub-query is completed.
A method for producing β-hematin comprising adding an HCl aqueous solution to a solution of hemin chloride dissolved in an NaOH aqueous solution, adding acetic acid dropwise thereto so as to adjust the pH level to 4 to 6, and heating the resulting mixture to 80°C or higher.
A proof mass assembly (10, 50, 110) comprising a monolithic crystalline quartz substrate, the monolithic crystalline quartz substrate comprising: a proof mass (12, 112); a proof mass support; a flexure (16, 16a, 16b) connecting the proof mass (12, 112) to the proof mass support, wherein the proof mass (12, 112) is configured to rotate relative to the proof mass support via the flexure (16, 16a, 16b); a first resonator (60a, 120) connected to a first major surface of the proof mass (12, 112) and a first major surface of the proof mass support; and a second resonator (60b, 130) connected to a second major surface of the proof mass (12, 112) and a second major surface of the proof mass support, wherein the flexure (16, 16a, 16b), the first resonator (60a, 120) and the second resonator (60b, 130) are formed via a laser selective etch, the laser selective etch being configured to etch material of the monolithic crystalline quartz substrate at a depth below a surface of the monolithic crystalline quartz substrate. a proof mass (12, 112); a proof mass support; a flexure (16, 16a, 16b) connecting the proof mass (12, 112) to the proof mass support, wherein the proof mass (12, 112) is configured to rotate relative to the proof mass support via the flexure (16, 16a, 16b); a first resonator (60a, 120) connected to a first major surface of the proof mass (12, 112) and a first major surface of the proof mass support; and a second resonator (60b, 130) connected to a second major surface of the proof mass (12, 112) and a second major surface of the proof mass support, wherein the flexure (16, 16a, 16b), the first resonator (60a, 120) and the second resonator (60b, 130) are formed via a laser selective etch, the laser selective etch being configured to etch material of the monolithic crystalline quartz substrate at a depth below a surface of the monolithic crystalline quartz substrate.
Data medium capable of storing data, the data being adapted to enable an electronic device to select a predefined configuration among at least two predefined configurations, the data medium being characterized in that it comprises: i) at least a first element suitable for attaching magnetically with a second element located in the vicinity of a contactless reader in order to couple the data medium to the contactless reader, the contactless reader comprising a second near field communication means and coupled to the electronic device having the at least two predefined configurations, and ii) a first near field communication means arranged for cooperating with said second near field communication means to transfer some of the stored data into said contactless reader, so that said electronic device uses said transferred data to configure itself in one of the at least two predefined configurations, said one corresponding to said transferred data. i) at least a first element suitable for attaching magnetically with a second element located in the vicinity of a contactless reader in order to couple the data medium to the contactless reader, the contactless reader comprising a second near field communication means and coupled to the electronic device having the at least two predefined configurations, and ii) a first near field communication means arranged for cooperating with said second near field communication means to transfer some of the stored data into said contactless reader, so that said electronic device uses said transferred data to configure itself in one of the at least two predefined configurations, said one corresponding to said transferred data.
An upgrade method for a vehicle-mounted device, applied to a vehicle, wherein the vehicle comprises a vehicle-mounted control device and one or more to-be-upgraded vehicle-mounted devices, and the method comprises: obtaining, by the vehicle-mounted control device, a vehicle-mounted upgrade package, wherein the vehicle-mounted upgrade package comprises a plurality of upgrade files; performing, by the vehicle-mounted control device, security verification on the plurality of upgrade files; and sending, by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file, wherein the target upgrade file is an upgrade file on which security verification succeeds in the plurality of upgrade files; wherein the sending, by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file comprises: dividing, by the vehicle-mounted control device, the target upgrade file into a plurality of associated data blocks by using a preset algorithm; performing message authentication code, MAC, processing on the associated data blocks; and separately sending, by the vehicle-mounted control device to the target to-be-upgraded vehicle-mounted device, the plurality of data blocks. obtaining, by the vehicle-mounted control device, a vehicle-mounted upgrade package, wherein the vehicle-mounted upgrade package comprises a plurality of upgrade files; performing, by the vehicle-mounted control device, security verification on the plurality of upgrade files; and sending, by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file, wherein the target upgrade file is an upgrade file on which security verification succeeds in the plurality of upgrade files; wherein the sending, by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file comprises: dividing, by the vehicle-mounted control device, the target upgrade file into a plurality of associated data blocks by using a preset algorithm; performing message authentication code, MAC, processing on the associated data blocks; and separately sending, by the vehicle-mounted control device to the target to-be-upgraded vehicle-mounted device, the plurality of data blocks. dividing, by the vehicle-mounted control device, the target upgrade file into a plurality of associated data blocks by using a preset algorithm; performing message authentication code, MAC, processing on the associated data blocks; and separately sending, by the vehicle-mounted control device to the target to-be-upgraded vehicle-mounted device, the plurality of data blocks.
A distributed network construction method, comprising: obtaining geographic location information about a node; the method being characterized by selecting a strip from a Hash space, wherein the Hash space is divided into strips, wherein each strip includes striplets that belong to different areas and each striplet includes one or more Hash values; and determining the home area of the node according to the geographic location information about the node in the selected strip, and determining a striplet according to the determined home area of the node, and using the determined striplet as a ID space of the node, wherein different areas correspond to different ID spaces; and selecting a value in the determined ID space to construct the ID of the node. obtaining geographic location information about a node; the method being characterized by selecting a strip from a Hash space, wherein the Hash space is divided into strips, wherein each strip includes striplets that belong to different areas and each striplet includes one or more Hash values; and determining the home area of the node according to the geographic location information about the node in the selected strip, and determining a striplet according to the determined home area of the node, and using the determined striplet as a ID space of the node, wherein different areas correspond to different ID spaces; and selecting a value in the determined ID space to construct the ID of the node.
An apparatus for processing birds on a conveyor, including an engagement member, which is moveable and has a contacting surface adapted for being brought into contact with the bird, where the engagement member is connected to a carrier at a primary axis, said carrier being rotatable about a stationary secondary axis and the primary axis being located on the carrier at a distance from the secondary axis, so that said primary axis will rotate about the secondary axis when the carrier is rotated, where both the primary axis and the secondary axis are located at a distance perpendicular to the primary axis from the intended path of the conveyor, c h a r a c t e r i z e d in that the engagement member is restrained by one or more restraints located between the primary axis and the contacting surface, so that the contacting surface is prevented from rotating about the secondary axis.
Handling assembly comprising a handling device for carrying out at least one work step with and/or on a workpiece in a working area of the handling device, wherein stations (5, 5a-5f) are arranged in the working area, comprising at least one monitoring sensor for optically monitoring the working area and for providing monitoring data, comprising a localization module, wherein the localization module is designed to identify the stations (5, 5a-5f) and to determine a station position for each of the stations (5, 5a-5f), comprising a model-generating module for generating a model of the working area, comprising a display unit for displaying the model, wherein sections which a user identifies and/or recognises as stations can be selected as auxiliary identification features by the user in the displayed model, wherein the station identification data includes the auxiliary identification features, comprising a safety module, wherein the safety module, for receiving the monitoring data during the work step, is connected for data processing purposes to the monitoring sensor and is designed to actuate the handling device based on changes in the working area, comprising a control module, wherein the control module is designed to actuate the handling device, for carrying out the work step, based on the respective station position, comprising a task definition module for semantic selection and/or definition of the work step. comprising a handling device for carrying out at least one work step with and/or on a workpiece in a working area of the handling device, wherein stations (5, 5a-5f) are arranged in the working area, comprising at least one monitoring sensor for optically monitoring the working area and for providing monitoring data, comprising a localization module, wherein the localization module is designed to identify the stations (5, 5a-5f) and to determine a station position for each of the stations (5, 5a-5f), comprising a model-generating module for generating a model of the working area, comprising a display unit for displaying the model, wherein sections which a user identifies and/or recognises as stations can be selected as auxiliary identification features by the user in the displayed model, wherein the station identification data includes the auxiliary identification features, comprising a safety module, wherein the safety module, for receiving the monitoring data during the work step, is connected for data processing purposes to the monitoring sensor and is designed to actuate the handling device based on changes in the working area, comprising a control module, wherein the control module is designed to actuate the handling device, for carrying out the work step, based on the respective station position, comprising a task definition module for semantic selection and/or definition of the work step.
An information transmission method, applied to an optical line termination, OLT, wherein the method comprises: allocating, by the OLT, an identifier to a first optical network unit, ONU, through a first channel, and performing, through the first channel, ranging on the first ONU to obtain ranging information about the first channel; and after determining, by the OLT and the first ONU through negotiation, to use two channels to perform information transmission, performing, by the OLT, data transmission of a first service with the first ONU through a second channel; wherein before the performing, by the OLT, data transmission of a first service with the first ONU through a second channel, the method characterized by further comprising: determining, by the OLT, ranging information about the second channel based on the ranging information about the first channel and a channel path delay difference, wherein the channel path delay difference comprises at least one of a difference value between OLT circuit transmission delays, a difference value between ONU circuit transmission delays, and a difference value between optical path transmission delays caused by different wavelengths. allocating, by the OLT, an identifier to a first optical network unit, ONU, through a first channel, and performing, through the first channel, ranging on the first ONU to obtain ranging information about the first channel; and after determining, by the OLT and the first ONU through negotiation, to use two channels to perform information transmission, performing, by the OLT, data transmission of a first service with the first ONU through a second channel; wherein before the performing, by the OLT, data transmission of a first service with the first ONU through a second channel, the method characterized by further comprising: determining, by the OLT, ranging information about the second channel based on the ranging information about the first channel and a channel path delay difference, wherein the channel path delay difference comprises at least one of a difference value between OLT circuit transmission delays, a difference value between ONU circuit transmission delays, and a difference value between optical path transmission delays caused by different wavelengths. determining, by the OLT, ranging information about the second channel based on the ranging information about the first channel and a channel path delay difference, wherein the channel path delay difference comprises at least one of a difference value between OLT circuit transmission delays, a difference value between ONU circuit transmission delays, and a difference value between optical path transmission delays caused by different wavelengths.