mhurhangee/ep-ind-claims huggingface dataset:
A method for collision avoidance between a vulnerable road user vehicle and a surrounding vehicle, wherein the user of the vulnerable road user vehicle makes use of a portable communication device, the method comprising the steps of: - in said vulnerable road user vehicle, transferring position detecting sensor data or position data derived therefrom to said portable communication device, - in said portable communication device, evaluating said position detecting sensor data and deriving position data for the vulnerable road user vehicle in case position detecting sensor data are transferred to the portable communication device, performing a map matching technique for refining the position data, and transferring the refined position data to the vulnerable road user vehicle, - in the vulnerable road user vehicle, distributing the refined position data to the surrounding vehicle, and - in the surrounding vehicle, predicting a trajectory for the vulnerable road user vehicle based on the position data received in the distribution step, determining a risk of a collision, and, if the risk of a collision exceeds a certain level performing a collision avoidance maneuver and/or outputting a warning message to the driver of the surrounding vehicle. - in said vulnerable road user vehicle, transferring position detecting sensor data or position data derived therefrom to said portable communication device, - in said portable communication device, evaluating said position detecting sensor data and deriving position data for the vulnerable road user vehicle in case position detecting sensor data are transferred to the portable communication device, performing a map matching technique for refining the position data, and transferring the refined position data to the vulnerable road user vehicle, - in the vulnerable road user vehicle, distributing the refined position data to the surrounding vehicle, and - in the surrounding vehicle, predicting a trajectory for the vulnerable road user vehicle based on the position data received in the distribution step, determining a risk of a collision, and, if the risk of a collision exceeds a certain level performing a collision avoidance maneuver and/or outputting a warning message to the driver of the surrounding vehicle.
Method for producing personalized printed products (1, 1'), in which respectively at least one individually printed sheet is gathered together with a number of conventionally printed sheets and the gathered printed sheets (3, 4) are joined to form a common printed product (1, 1'), wherein information relating to the production of the printed products (1, 1') is passed on from a database to a control device, wherein • a plurality of stacks of conventionally printed sheets are provided, • a printing material web having a plurality of individual sheet segments and, for each individual sheet segment, printed with respectively one marking, based on the information from the database, for controlling the production of the personalized printed products (1, 1'), or a roll (16") of a printing material web printed in this way is provided, • the markings of the individual sheet segments are read and the information obtained therefrom is used for the selective gathering of conventionally printed sheets each belonging to a common printed product (1, 1') and provided in the stacks, • following the reading of the markings of the individual sheet segments, individually printed sheets are severed from the printing material web, and • respectively at least one individually printed sheet is supplied to the associated, selectively gathered, conventionally printed sheets in accordance with the information read from its marking. • a plurality of stacks of conventionally printed sheets are provided, • a printing material web having a plurality of individual sheet segments and, for each individual sheet segment, printed with respectively one marking, based on the information from the database, for controlling the production of the personalized printed products (1, 1'), or a roll (16") of a printing material web printed in this way is provided, • the markings of the individual sheet segments are read and the information obtained therefrom is used for the selective gathering of conventionally printed sheets each belonging to a common printed product (1, 1') and provided in the stacks, • following the reading of the markings of the individual sheet segments, individually printed sheets are severed from the printing material web, and • respectively at least one individually printed sheet is supplied to the associated, selectively gathered, conventionally printed sheets in accordance with the information read from its marking.
A method of forming a battery electrode, comprising: mixing silicon oxide powder and sodium chloride; adding a reducing agent; reducing the silicon oxide and sodium chloride mixture to produce silicon; etching the reduced silicon and forming a porous silicon microstructure; and coating the porous silicon microstructure with an amorphous carbon coating. mixing silicon oxide powder and sodium chloride; adding a reducing agent; reducing the silicon oxide and sodium chloride mixture to produce silicon; etching the reduced silicon and forming a porous silicon microstructure; and coating the porous silicon microstructure with an amorphous carbon coating.
A method for the esterification of a fatty acid F in a column having a single-part or multi-part packing (3, 4) which has the function of an output part in addition to the function as a reactor and which is configured as a reaction zone in at least an upper part with catalysts fixed in the packing, in which method a heterogeneous catalysis of the fatty acid F is carried out using an alcohol A used in the same molar use ratio or in a surplus; a gaseous alcohol-rich counterflow is produced by vaporisation in the sump; water is removed from the reaction zone by means of the counterflow acting as a stripping gas; the charged stripping gas is at least partly liquefied at the head of the column; the head product is separated into a water-rich fraction and an alcohol-rich fraction; and the alcohol-rich fraction is returned into the process as a starting material for the esterification and for the production of the stripping gas, characterised in that the following starting materials are used as the fatty acid F or the alcohol A for the esterification: one of the fatty acids C12, C14, C16, C18, C18' or C18", namely lauric acid, myristic acid, palmitic acid, stearic acid, oleic acid or linoleic acid and one of the alcohols methanol, ethanol, n-propanol, isopropanol, n-butanol, isobutanol or 2-ethyl-hexanol.
A method for highlighting a code snippet corresponding to a faulty activity of one or more activities of a computer network, the method comprising: monitoring, by a processor, a response time for one or more activities performed by a software application; comparing, by the processor, the response time of the one or more activities with a corresponding pre-defined threshold time based on a number of executions of source code, wherein the pre-defined threshold time is based on a traffic in the computer network; detecting a faulty activity of the one or more activities based on the comparison, wherein the faulty activity is linked with a corresponding code snippet in the source code of the software application at run time using a dynamic byte code instrumentation technique that instruments the source code, stores it in a file within a directory, wherein content of the file within the directory is referred as the code snippet; highlighting the code snippet corresponding to the faulty activity in the source code of the software application to fix the code snippet for rectifying the response time of the faulty activity. monitoring, by a processor, a response time for one or more activities performed by a software application; comparing, by the processor, the response time of the one or more activities with a corresponding pre-defined threshold time based on a number of executions of source code, wherein the pre-defined threshold time is based on a traffic in the computer network; detecting a faulty activity of the one or more activities based on the comparison, wherein the faulty activity is linked with a corresponding code snippet in the source code of the software application at run time using a dynamic byte code instrumentation technique that instruments the source code, stores it in a file within a directory, wherein content of the file within the directory is referred as the code snippet; highlighting the code snippet corresponding to the faulty activity in the source code of the software application to fix the code snippet for rectifying the response time of the faulty activity.
An electronic system for generating secret information comprising a Physically Unclonable Function circuit, the PUF being configured to provide a difference between two values of a physical variable of the PUF in response to a challenge applied to the PUF circuit, wherein the system is configured to apply a set of challenges during an enrolment phase, and measure the physical variable difference provided by the PUF in response to each challenge, the system comprising: - a helper data generator configured to generate a helper data comprising a set of bits, a bit of the helper data being generated in association with each applied challenge, said helper data generator being configured to generate each helper data bit from the physical variable difference provided by the PUF in response to the application of the associated challenge, - a secret information generator configured to generate a secret key comprising at least one bit during a usage phase, each bit of the key being generated by applying a challenge among said set of challenges, the secret information generator being configured to determine each bit of the key from the helper data bit corresponding to the applied challenge, and from the physical variable difference provided by the PUF in response to said applied challenge. - a helper data generator configured to generate a helper data comprising a set of bits, a bit of the helper data being generated in association with each applied challenge, said helper data generator being configured to generate each helper data bit from the physical variable difference provided by the PUF in response to the application of the associated challenge, - a secret information generator configured to generate a secret key comprising at least one bit during a usage phase, each bit of the key being generated by applying a challenge among said set of challenges, the secret information generator being configured to determine each bit of the key from the helper data bit corresponding to the applied challenge, and from the physical variable difference provided by the PUF in response to said applied challenge.
A method of bonding composite structures, said method comprising: positioning a second structure at a bonding site on a first structure; coupling a first vacuum bag to the first structure such that the first vacuum bag covers the bonding site; applying a vacuum to the first vacuum bag to induce a first mechanical force to the second structure via the first vacuum bag; coupling a second vacuum bag to the first structure such that the second vacuum bag covers the second structure and at least a portion of the first vacuum bag; and applying a vacuum to the second vacuum bag to induce a second mechanical force to the second structure via the second vacuum bag; and at least partially venting the first vacuum bag to remove at least a portion of the first mechanical force on the second structure, and maintaining the vacuum of the second vacuum bag after at least partially venting of the first vacuum bag to maintain the second mechanical force on the second structure. positioning a second structure at a bonding site on a first structure; coupling a first vacuum bag to the first structure such that the first vacuum bag covers the bonding site; applying a vacuum to the first vacuum bag to induce a first mechanical force to the second structure via the first vacuum bag; coupling a second vacuum bag to the first structure such that the second vacuum bag covers the second structure and at least a portion of the first vacuum bag; and applying a vacuum to the second vacuum bag to induce a second mechanical force to the second structure via the second vacuum bag; and at least partially venting the first vacuum bag to remove at least a portion of the first mechanical force on the second structure, and maintaining the vacuum of the second vacuum bag after at least partially venting of the first vacuum bag to maintain the second mechanical force on the second structure.
A method for instructing at least one mobile station communicating with a serving access node in a mobile communication network that supports access node cooperation, the serving access node being capable of providing a handover of the communication with the mobile station to a supporting access node (BS2, BS3) and of participating in the access node cooperation with a plurality of supporting access nodes (BS2, BS3) such that the serving access node additionally uses, during the access node cooperation, the transmission and receiving capacities of at least one of the plurality of supporting access nodes (BS2, BS3) for communicating with the mobile station, and the at least one mobile station being capable of being handed-over to a supporting access node (BS2, BS3) and of additionally communicating with the plurality of supporting access nodes (BS2, BS3) for carrying out the access node cooperation such that the serving access node additionally uses, during the access node cooperation, the transmission and receiving capacities of at least one of the plurality of supporting access nodes (BS2, BS3) for communicating with the at least one mobile station, the method comprising the steps of - obtaining at least one backhaul parameter relating to a backhaul capacity of at least one of the serving access node and a supporting access node (BS2, BS3); - generating at least one of a handover command and a system information parameter based on the obtained at least one backhaul parameter; - providing the at least one of the handover command and the system information parameter to the at least one mobile station, - determining supporting access nodes (BS2, BS3) that do not have enough free backhaul capacity of transport link available; and - excluding, for carrying out the access node cooperation, the determined supporting access nodes (BS2, BS3) from the additional communication with the at least one mobile station. - obtaining at least one backhaul parameter relating to a backhaul capacity of at least one of the serving access node and a supporting access node (BS2, BS3); - generating at least one of a handover command and a system information parameter based on the obtained at least one backhaul parameter; - providing the at least one of the handover command and the system information parameter to the at least one mobile station, - determining supporting access nodes (BS2, BS3) that do not have enough free backhaul capacity of transport link available; and - excluding, for carrying out the access node cooperation, the determined supporting access nodes (BS2, BS3) from the additional communication with the at least one mobile station.
A microscope system comprising a microscope and an imaging apparatus adapted to image a macro image and a micro image of a specimen on a stage of said microscope, wherein said stage of said microscope is capable of moving in x direction and y direction and having a counter detecting an x position and a y position, and wherein the micro image is a magnified image of a partial region of the specimen, the system comprising: an acquiring section (39A, 40) adapted to acquire identification information of said specimen on said stage; a storage section (24, 27) adapted to store the macro image and the micro image of said specimen in a correlated manner with each other and is further adapted to store said macro image and said micro image of said specimen which are imaged by said imaging apparatus in a correlated manner with the identification information of said specimen acquired by said acquiring section (39a, 40), wherein the correlation between said macro image and said micro image of the specimen is based on the respective imaging positions of said macro image and said micro image; and wherein the system is adapted to judge whether said specimen is a registered specimen for which said micro image correlated with said macro image already stored in said storage section or not based on the identification information of said specimen acquired by said acquiring section (39A, 40), and additionally stores in said storage section when said specimen is judged as said registered specimen a micro image newly imaged within said registered specimen by said imaging apparatus in a correlated manner with said macro image of said registered specimen. an acquiring section (39A, 40) adapted to acquire identification information of said specimen on said stage; a storage section (24, 27) adapted to store the macro image and the micro image of said specimen in a correlated manner with each other and is further adapted to store said macro image and said micro image of said specimen which are imaged by said imaging apparatus in a correlated manner with the identification information of said specimen acquired by said acquiring section (39a, 40), wherein the correlation between said macro image and said micro image of the specimen is based on the respective imaging positions of said macro image and said micro image; and wherein the system is adapted to judge whether said specimen is a registered specimen for which said micro image correlated with said macro image already stored in said storage section or not based on the identification information of said specimen acquired by said acquiring section (39A, 40), and additionally stores in said storage section when said specimen is judged as said registered specimen a micro image newly imaged within said registered specimen by said imaging apparatus in a correlated manner with said macro image of said registered specimen.
A multilayer film structure comprising a layer (Layer B) and a bottom layer (Layer C), each layer having opposing facial surfaces in adhering contact with the other layer, wherein: B. Layer B comprises a crystalline block copolymer composite or a specified block copolymer composite, comprising: i) an ethylene polymer comprising at least 80 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP) and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB), or a mixture of said composite(s); and C. bottom Layer C comprises a polyolefin having at least one melting peak greater than 125°C and has a top facial layer and a bottom facial surface, the top facial surface of Layer C in adhering contact with the bottom facial surface of Layer B. B. Layer B comprises a crystalline block copolymer composite or a specified block copolymer composite, comprising: i) an ethylene polymer comprising at least 80 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP) and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB), or a mixture of said composite(s); and i) an ethylene polymer comprising at least 80 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP) and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB), C. bottom Layer C comprises a polyolefin having at least one melting peak greater than 125°C and has a top facial layer and a bottom facial surface, the top facial surface of Layer C in adhering contact with the bottom facial surface of Layer B.
A system for sealing a rotating shaft (11, 12; 31; 111) of a motor (27; 28; 34) in a handpiece subject to pressure applied in a first direction during a pressurization cycle of an autoclaving process and subject to pressure applied in a second opposite direction during a vacuum cycle of the autoclaving process, comprising a first spring seal positioned at a first location on the shaft (11, 12) and a second spring seal positioned at a second location on the shaft (11, 12), the first spring seal having a base at a closed end and a pair of sealing lips attached to the base at the closed end, the sealing lips being spaced apart at an open end, the open end of the first spring seal being directed toward a force applied during the pressurization cycle to cause the first spring seal to expand during the pressurization cycle of the autoclaving process to increase a sealing force provided by the first spring seal during the pressurization cycle; and characterized in that: the second spring seal having a base at a closed end and a pair of sealing lips attached to the base at the closed end, the sealing lips being spaced apart at an open end, the open end of the second spring seal being directed toward a force applied during the vacuum cycle to cause the second spring seal to expand during the vacuum cycle of the autoclaving process to increase a sealing force provided by the second spring seal during the vacuum cycle. the second spring seal having a base at a closed end and a pair of sealing lips attached to the base at the closed end, the sealing lips being spaced apart at an open end, the open end of the second spring seal being directed toward a force applied during the vacuum cycle to cause the second spring seal to expand during the vacuum cycle of the autoclaving process to increase a sealing force provided by the second spring seal during the vacuum cycle.
A method for elongating telomeres of cells, the method comprising steps of: providing physical stimulation directly or indirectly to the cells; and culturing a mixture of the cells and a medium for a predetermined time, wherein the providing the stimulation directly to the cells is applying the physical stimulation to a medium containing the cells, and the providing the stimulation indirectly to the cells is applying the physical stimulation to the medium not containing cells and then mixing the medium and the cells, wherein the physical stimulation is any one selected from among direct or indirect ultrasound stimulation, wherein the providing the ultrasound stimulation directly to the cells is performed at an ultrasound intensity of 0.1 to 3 W/cm 2 and a frequency of 20 kHz to 20 MHz for a duration of 0.1 seconds to 20 minutes, and the providing the ultrasound stimulation indirectly to the cells is performed at an ultrasound intensity of 1 to 20 W/cm 2 and a frequency of 20 kHz to 20 MHz for a duration of 0.1 seconds to 20 minutes. providing physical stimulation directly or indirectly to the cells; and culturing a mixture of the cells and a medium for a predetermined time, wherein the providing the stimulation directly to the cells is applying the physical stimulation to a medium containing the cells, and the providing the stimulation indirectly to the cells is applying the physical stimulation to the medium not containing cells and then mixing the medium and the cells, wherein the physical stimulation is any one selected from among direct or indirect ultrasound stimulation, wherein the providing the ultrasound stimulation directly to the cells is performed at an ultrasound intensity of 0.1 to 3 W/cm 2 and a frequency of 20 kHz to 20 MHz for a duration of 0.1 seconds to 20 minutes, and the providing the ultrasound stimulation indirectly to the cells is performed at an ultrasound intensity of 1 to 20 W/cm 2 and a frequency of 20 kHz to 20 MHz for a duration of 0.1 seconds to 20 minutes.