mhurhangee/patent-ind-claim-en huggingface dataset:
Beam comprising: - a profile of U-shaped section with two side walls (9.1, 9.2) and a bottom wall (9.3); - a reinforcement housed in the U-shaped section of the profile and fixed to said profile by an expandable adhesive between the side walls (9.1, 9.2) of the U-shaped section and said reinforcement ; and - a plate fixed to the profile so as to close the U-shaped section; the reinforcement forming a partitioned structure extending in a main direction and comprising two opposite side faces (11.1, 11.2) facing the side walls (9.1, 9.2) of the profile and a bottom face (11.3) facing the bottom wall (9.3) of said profile , characterized in that the partitioned structure comprises on the bottom face (11.3) two ribs extending in the main direction and delimiting with the bottom wall (9.3) of the profile a ventilation channel , the expandable adhesive extending from the side walls (9.1, 9.2) towards the bottom wall (9.3) of the U-shaped section and stops at the ribs of the reinforcement of so as to form the ventilation channel , the partitioned structure further comprising on the bottom face (11.3), between the two ribs and on at least one section of said structure , a bottom wall provided with ventilation orifices . - a profile of U-shaped section with two side walls (9.1, 9.2) and a bottom wall (9.3); - a reinforcement housed in the U-shaped section of the profile and fixed to said profile by an expandable adhesive between the side walls (9.1, 9.2) of the U-shaped section and said reinforcement ; and - a plate fixed to the profile so as to close the U-shaped section; the reinforcement forming a partitioned structure extending in a main direction and comprising two opposite side faces (11.1, 11.2) facing the side walls (9.1, 9.2) of the profile and a bottom face (11.3) facing the bottom wall (9.3) of said profile , characterized in that the partitioned structure comprises on the bottom face (11.3) two ribs extending in the main direction and delimiting with the bottom wall (9.3) of the profile a ventilation channel , the expandable adhesive extending from the side walls (9.1, 9.2) towards the bottom wall (9.3) of the U-shaped section and stops at the ribs of the reinforcement of so as to form the ventilation channel , the partitioned structure further comprising on the bottom face (11.3), between the two ribs and on at least one section of said structure , a bottom wall provided with ventilation orifices .
A low energy screw for wood or similar materials comprising: a head configured to accommodate a driving tool; a shank extending from the head to a point tip , the shank having a neck , a body , and a point; main threads ; and lower threads , wherein the main threads have a lead that is from 59.3 percent to about 80 percent of an outer diameter, the main threads are arranged between the neck and the lower threads , the main threads have a thread form including an outer tip having a substantially linear profile and a rounded root having a concave profile, and the lower threads are arranged between the main threads and the point tip . a head configured to accommodate a driving tool; a shank extending from the head to a point tip , the shank having a neck , a body , and a point; main threads ; and lower threads , wherein the main threads have a lead that is from 59.3 percent to about 80 percent of an outer diameter, the main threads are arranged between the neck and the lower threads , the main threads have a thread form including an outer tip having a substantially linear profile and a rounded root having a concave profile, and the lower threads are arranged between the main threads and the point tip .
High strength hot rolled steel plate with excellent low temperature toughness, having a chemical composition consisting of, by mass%, C: 0.01 to 0.08%, Si: 0.01 to 0.50%, Mn: 0.5 to 2.0%, S: 0.0001 to 0.005%, Ti: 0.003 to 0.030%, Mo: 0.05 to 1.00%, B: 0.0003 to 0.010%, and O: 0.0001 to 0.008%, limiting P: 0.050% or less and Al: 0.010% or less, and optionally one or both of Cu: 0.05 to 1.5% and Ni: 0.05 to 5.0%, optionally one or more of Cr: 0.02 to 1.50%, W: 0.01 to 0.50%, V: 0.01 to 0.10%, Nb: 0.001 to 0.20%, Zr: 0.0001 to 0.050%, and Ta: 0.0001 to 0.050%, and optionally one or more of Mg: 0.0001 to 0.010%, Ca: 0.0001 to 0.005%, REM: 0.0001 to 0.005%, Y: 0.0001 to 0.005%, Hf: 0.0001 to 0.005%, and Re: 0.0001 to 0.005%, and having a balance of iron and unavoidable impurities, having a Ceq, calculated by the following formula 1, of 0.30 to 0.53, having a Pcm, found by the following formula 2, of 0.10 to 0.20, and having a metal structure with an area percentage of polygonal ferrite of 20 to 90% and a balance of a hard phase comprised of one or both of bainite and martensite: Ceq = C + Mn / 6 + Ni + Cu / 15 + Cr + Mo + V / 5 Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 ⁢ B where, C, Si, Mn, Ni, Cu, Cr, Mo, V, and B are contents of the individual elements by mass%; and having a tensile strength of 570MPa or more. Cu: 0.05 to 1.5% and Ni: 0.05 to 5.0%, Cr: 0.02 to 1.50%, W: 0.01 to 0.50%, V: 0.01 to 0.10%, Nb: 0.001 to 0.20%, Zr: 0.0001 to 0.050%, and Ta: 0.0001 to 0.050%, and Mg: 0.0001 to 0.010%, Ca: 0.0001 to 0.005%, REM: 0.0001 to 0.005%, Y: 0.0001 to 0.005%, Hf: 0.0001 to 0.005%, and Re: 0.0001 to 0.005%, and having a balance of iron and unavoidable impurities, having a Ceq, calculated by the following formula 1, of 0.30 to 0.53, having a Pcm, found by the following formula 2, of 0.10 to 0.20, and having a metal structure with an area percentage of polygonal ferrite of 20 to 90% and a balance of a hard phase comprised of one or both of bainite and martensite: Ceq = C + Mn / 6 + Ni + Cu / 15 + Cr + Mo + V / 5 Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 ⁢ B where, C, Si, Mn, Ni, Cu, Cr, Mo, V, and B are contents of the individual elements by mass%; and having a tensile strength of 570MPa or more.
A method for a user equipment, UE, comprised in a wireless communication system, the method comprising: receiving (S100), by the UE, a multimedia broadcast multicast service, MBMS, minimization of drive test, MDT, timer configuration from a network; starting (S110), by the UE, a MBMS-MDT timer based on the received MBMS-MDT timer configuration when a specific condition, which relates to degradation of quality of MBMS, is met; while (S120) the MBMS-MDT timer is running, performing, by the UE, MBMS-MDT; when the UE moves to another frequency by a handover procedure or a cell re-selection procedure: terminating MBMS-MDT timer which is running; and when the UE moves to another frequency in case of carrier aggregation: maintaining MBMS-MDT timer which is running. receiving (S100), by the UE, a multimedia broadcast multicast service, MBMS, minimization of drive test, MDT, timer configuration from a network; starting (S110), by the UE, a MBMS-MDT timer based on the received MBMS-MDT timer configuration when a specific condition, which relates to degradation of quality of MBMS, is met; while (S120) the MBMS-MDT timer is running, performing, by the UE, MBMS-MDT; when the UE moves to another frequency by a handover procedure or a cell re-selection procedure: terminating MBMS-MDT timer which is running; and when the UE moves to another frequency in case of carrier aggregation: maintaining MBMS-MDT timer which is running.
Method for generating a secured data object using a data processing device, wherein a digital data stream comprising a continuous sequence of data records is received from the data processing system , while the following steps are performed: - generating a data representation value at the end of each interval with a first interval length, which is assigned to the data records of the respective interval of first length, - receiving a first time stamp assigned to the respective data representation value, and - storing the respective data representation value together with the assigned first time stamp, wherein the following steps are performed in parallel: - generating an interval representation value at the end of each interval with a second interval length which is greater than the first interval length, said value being assigned to the data representation values of the respective interval of second length, - receiving a second time stamp assigned to the respective interval representation value, and - storing the respective interval representation value together with the assigned second time stamp. - generating a data representation value at the end of each interval with a first interval length, which is assigned to the data records of the respective interval of first length, - receiving a first time stamp assigned to the respective data representation value, and - storing the respective data representation value together with the assigned first time stamp, - generating an interval representation value at the end of each interval with a second interval length which is greater than the first interval length, said value being assigned to the data representation values of the respective interval of second length, - receiving a second time stamp assigned to the respective interval representation value, and - storing the respective interval representation value together with the assigned second time stamp.
A computer-implemented method comprising: providing , to a computing device running an operating system that includes an application layer , a framework layer that includes native libraries, a hardware abstraction layer , and a kernel that includes firmware and drivers, a reference system image that is configured to replace, supplement, or modify the framework layer; loading the reference system image to replace, supplement, or modify the framework layer to provide a modified operating system ; providing , to the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test data that is configured to verify functionality of the modified operating system by interacting with the reference system image to test functionality of the hardware abstraction layer without modifying the hardware abstraction layer, wherein the computing device with the framework layer replaced, supplemented, or modified by the reference system image is a non-rooted device; receiving , from the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test reply data in response to the computing device testing the functionality of the hardware abstraction layer; comparing the test reply data to known test reply data that corresponds to a properly functioning computing device running the operating system; and based on the comparison, determining whether the modified operating system of the computing device with the framework layer replaced, supplemented, or modified by the reference system image is functioning properly. providing , to a computing device running an operating system that includes an application layer , a framework layer that includes native libraries, a hardware abstraction layer , and a kernel that includes firmware and drivers, a reference system image that is configured to replace, supplement, or modify the framework layer; loading the reference system image to replace, supplement, or modify the framework layer to provide a modified operating system ; providing , to the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test data that is configured to verify functionality of the modified operating system by interacting with the reference system image to test functionality of the hardware abstraction layer without modifying the hardware abstraction layer, wherein the computing device with the framework layer replaced, supplemented, or modified by the reference system image is a non-rooted device; receiving , from the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test reply data in response to the computing device testing the functionality of the hardware abstraction layer; comparing the test reply data to known test reply data that corresponds to a properly functioning computing device running the operating system; and based on the comparison, determining whether the modified operating system of the computing device with the framework layer replaced, supplemented, or modified by the reference system image is functioning properly.
A bumper for a motor vehicle, with a cross beam element exhibiting a back side which exhibits fastening openings to fasten the bumper to the motor vehicle with at least one fastening device , in the form of a crash box, and a front side lying opposite the back side , wherein the cross beam element has at least one hollow chamber with a closed cross section, and with at least one reinforcing element (40; 40a), which exhibits an end wall (44; 44a) situated parallel to an end wall of the cross beam element and at least two connecting bridges situated parallel to each other and running perpendicular to the end wall of the cross beam element and being at least roughly aligned with at least one transverse wall , which form the at least one hollow chamber on the cross beam element , and which extends over part of the length of the cross beam element and is joined with the cross beam element only in those areas where stricter strength requirement are placed on the bumper, characterized in that the cross beam element is designed together with the reinforcing element (40; 40a) as a single-piece extruded part and wherein the reinforcing element (40; 40a) is situated on the back side of the cross beam element in a central area of the cross beam element in relation to the longitudinal extension of the cross beam element , and in that two crash boxes are provided, which are situated on each side of the reinforcing element (40; 40a) and joined with the cross beam element .
Device (20; 30; 40) for temperature monitoring of a cryopreserved biological sample, comprising a) a sample container (1; 1b) with a receiving space for receiving a biological sample ; and b) an indicator apparatus (21; 31; 41) which can be arranged and/or is arranged on the outside of the sample container for monitoring at least one temperature threshold value, having at least one cavity (24; 34; 44) which is only partially filled with an indicator substance , the melting temperature of which lies in a range from -20°C to -140°C characterized in variant i): that the indicator apparatus is fastened as a base part to the sample container and has on its underside at least one insertion opening , in which a container, in particular a pin-shaped container , which is only partially filled with the indicator substance, is detachably retained; or variant ii): that the sample container is a cryogenic tube and the indicator apparatus is embodied as a hollow cylinder (21; 31), which, for fastening to the cryogenic tube, can be pushed and/or is pushed onto an outer shell surface of the cryogenic tube , wherein the hollow cylinder (21; 31) is embodied to be double-walled with an inner wall and an outer wall , wherein an intermediate space between the inner wall and the outer wall , which forms the at least one cavity, is partially filled with the indicator substance. a) a sample container (1; 1b) with a receiving space for receiving a biological sample ; and b) an indicator apparatus (21; 31; 41) which can be arranged and/or is arranged on the outside of the sample container for monitoring at least one temperature threshold value, having at least one cavity (24; 34; 44) which is only partially filled with an indicator substance , the melting temperature of which lies in a range from -20°C to -140°C characterized in variant i): that the indicator apparatus is fastened as a base part to the sample container and has on its underside at least one insertion opening , in which a container, in particular a pin-shaped container , which is only partially filled with the indicator substance, is detachably retained; or variant ii): that the sample container is a cryogenic tube and the indicator apparatus is embodied as a hollow cylinder (21; 31), which, for fastening to the cryogenic tube, can be pushed and/or is pushed onto an outer shell surface of the cryogenic tube , wherein the hollow cylinder (21; 31) is embodied to be double-walled with an inner wall and an outer wall , wherein an intermediate space between the inner wall and the outer wall , which forms the at least one cavity, is partially filled with the indicator substance. that the indicator apparatus is fastened as a base part to the sample container and has on its underside at least one insertion opening , in which a container, in particular a pin-shaped container , which is only partially filled with the indicator substance, is detachably retained; or variant ii):
Device for adjusting the length of a bracelet, comprising a guidance and fastening system , comprising at least one adjusting link element mounted with the ability to rotate about an axis of rotation (A1) defined by a guidance device of the said guidance and fastening system , this guidance and fastening system further comprising an elastic fastening device comprising an elastic property in order to perform an elastic fastening function, these two guidance and elastic fastening devices both being arranged around the said axis (A1), notably upon implementation of the elastic fastening function, the elastic fastening device providing elastic immobilization of an end link element connected to the adjusting link element , particularly relative elastic immobilization of the said end link element with respect to the adjusting link element , in at least one configuration of the adjustment device, characterized in that the guidance device comprises a bar comprising an end capable of connection with a clasp cover by shoes and/or a stud and comprises an exterior periphery forming a guide surface able to guide an adjusting link element in rotation and/or more or less in translation with respect to a clasp cover , in that the adjusting link element comprises a second pivot pin of axis (A2) distinct from the axis (A1) of the guidance and fastening system , about which an end link element of a bracelet is arranged, and in that the end link element collaborates with the elastic fastening device which elastically immobilizes it with respect to the adjusting link element .
A distributed propulsion system, comprising: a turbine engine core engine , a working medium transporting device , a working medium collecting device and distributed propulsors ; wherein an input end of a gas collecting device of the working medium collecting device is communicated with an output end of a core engine compressor of the turbine engine core engine ; an output end of the working medium collecting device is communicated with an inlet of the working medium transporting device ; an input end of the transporting branch pipe is communicated with a transporting header pipe in the working medium transporting device ; and a plurality of the distributed propulsors is evenly distributed on both sides of the turbine engine core engine , characterized in that , an output end of a transporting branch pipe in the working medium transporting device is respectively communicated with an input end of a propulsor turbine volute of each distributed propulsor ; and an exhaust gas heat regenerating device is circumferentially evenly mounted inside the turbine rear casing , and the included angle α between an axis of the exhaust gas heat regenerating device and an axis of the turbine engine core engine is between 0°-90°.
Semiconductor component comprising a storage unit , an output unit , a calculation unit , a receiving unit and at least five connections, wherein the at least five connections comprise two antenna connections (A1, A2) for connecting to an antenna , two supply connections (VDD, VSS) for supplying the semiconductor component with electrical energy, and an output connection (OUT), wherein the receiving unit is connected to the antenna connections (A1, A2) and is configured to obtain signals from the antenna connections, to convert the signals into data, and to store the data in the storage unit , wherein the output unit is configured to output an output signal at the output connection (OUT), wherein the calculation unit is configured to determine operating hours of the semiconductor component , wherein the output signal is dependent on the data stored in the storage unit and also on the operating hours determined, wherein the calculation unit comprises a counter for counting the operating hours, wherein a counter reading of the counter is storable in the storage unit and the counter is configured to read out the counter reading from the storage unit before the respective beginning of counting, and wherein the counter reading is programmable by way of signals received at the antenna connections (A1, A2). wherein the at least five connections comprise two antenna connections (A1, A2) for connecting to an antenna , two supply connections (VDD, VSS) for supplying the semiconductor component with electrical energy, and an output connection (OUT), wherein the receiving unit is connected to the antenna connections (A1, A2) and is configured to obtain signals from the antenna connections, to convert the signals into data, and to store the data in the storage unit , wherein the output unit is configured to output an output signal at the output connection (OUT), wherein the calculation unit is configured to determine operating hours of the semiconductor component , wherein the output signal is dependent on the data stored in the storage unit and also on the operating hours determined, wherein the calculation unit comprises a counter for counting the operating hours, wherein a counter reading of the counter is storable in the storage unit and the counter is configured to read out the counter reading from the storage unit before the respective beginning of counting, and wherein the counter reading is programmable by way of signals received at the antenna connections (A1, A2).