mhurhangee/patent-ind-claim-en huggingface dataset:
A drill component comprising a martensitic stainless steel consisting of the following composition in weight%: C 0.21 to 0.27; Si less than or equal to 0.7; Mn 0.2 to 2.5; P less than or equal to 0.03; S less than or equal to 0.05; Cr 11.9 to 14.0; Ni more than 0.5 to 3.0; Mo 0.4 to 1.5; W less than or equal to 0.5; N less than or equal to 0.060; Cu less than or equal to 1.2; Co less than or equal to 1.0; V less than or equal to 0.06; Nb less than or equal to 0.03; Al less than or equal to 0.050; Zr less than or equal to 0.03; Ta less than or equal to 0.03; Hf less than or equal to 0.03; Ti less than or equal to 0.05; and one or more-alloying elements, such as Ca, Mg, B, Pb and Ce, to improve the machinability or the hot working properties max. 0.05 wt%; balance Fe and unavoidable impurities; wherein the martensitic stainless steel comprises more than or equal to 75 % martensite phase and less than or equal to 25 % retained austenite phase and wherein said martensitic stainless steel has a PRE-value more than or equal to 14.
Profile arrangement , in particular for a room partition and/or shower partition , wherein the profile arrangement has a - preferably at least substantially U-shaped - base profile and a - preferably at least substantially L-shaped - clamping profile and is designed to hold or connect to at least one pane , wherein the clamping profile comprises or forms a lever and a clamping part , and wherein by pivoting the lever in the direction of the base profile an opening of the profile arrangement can be reduced and a pane can be clamped in the profile arrangement , characterised in that , by pivoting the lever in the direction of the base profile , the pane can be clamped in the profile arrangement without screws, and in that the clamping profile is designed to be self-locking, has or causes a pressure point during the pivoting movement and is designed in such a way that the pressure and/or the clamping force on the pane is increased at least temporarily both when clamping and when releasing the pane . wherein the profile arrangement has a - preferably at least substantially U-shaped - base profile and a - preferably at least substantially L-shaped - clamping profile and is designed to hold or connect to at least one pane , wherein the clamping profile comprises or forms a lever and a clamping part , and wherein by pivoting the lever in the direction of the base profile an opening of the profile arrangement can be reduced and a pane can be clamped in the profile arrangement , characterised in that , by pivoting the lever in the direction of the base profile , the pane can be clamped in the profile arrangement without screws, and in that the clamping profile is designed to be self-locking, has or causes a pressure point during the pivoting movement and is designed in such a way that the pressure and/or the clamping force on the pane is increased at least temporarily both when clamping and when releasing the pane .
A compound of formula (I), wherein R 1 is C 1-6 alkyl; R 2 is halogen; R 3 is H, halogen or cyano; R 4 is (C 1-6 alkyl) 2 amino or heterocyclyl; R 5 is H, halogen or C 1-6 alkyl; R 6 is H, ((C 1-6 alkyl)zamino)C 1-6 alkyl, C 1-6 alkyl, C 3-7 cycloalkyl, haloC 1-6 alkyl, halogen, morpholinylC 1-6 alkyl or pyrrolidinylC 1-6 alkyl; R 7 is carboxy; or a pharmaceutically acceptable salt, or enantiomer or diastereomer thereof. R 1 is C 1-6 alkyl; R 2 is halogen; R 3 is H, halogen or cyano; R 4 is (C 1-6 alkyl) 2 amino or heterocyclyl; R 5 is H, halogen or C 1-6 alkyl; R 6 is H, ((C 1-6 alkyl)zamino)C 1-6 alkyl, C 1-6 alkyl, C 3-7 cycloalkyl, haloC 1-6 alkyl, halogen, morpholinylC 1-6 alkyl or pyrrolidinylC 1-6 alkyl; R 7 is carboxy; or a pharmaceutically acceptable salt, or enantiomer or diastereomer thereof.
Method for joining comprising the steps of: - providing a fastening element with: ∘ a shaft-shaped anchor section which extends between a first end section and a second end section along an anchor axis (Xa); ∘ a flange section formed on and extending radially to the first end section of the anchor section, and the flange section at least partially forms an application section, and; ∘ a joining material , wherein the joining material is pre-applied to the application section, wherein the joining material is lying on the application section in an at least partially solid state,; - providing a workpiece , wherein the workpiece includes a carrier surface ; - arranging the fastening element on the carrier surface of the workpiece , - joining the fastening element to the workpiece via cross-linking reaction of the joining material, wherein the joining material is mixed and the mixing occurs by rotating the fastening element relative to the workpiece, characterized in that before the joining step, the joining material includes a first adhesive material and a second adhesive material the fastening material comprises a first adhesive material and the second adhesive material, wherein before the joining step the first adhesive material fully covers the second adhesive material, in that a heating device heats the joining material before and/or after and/or during the rotation, and in that temperature sensor measures the temperature of the joining material and/or the flange section and/or the carrier surface and/or the workpiece . - providing a fastening element with: ∘ a shaft-shaped anchor section which extends between a first end section and a second end section along an anchor axis (Xa); ∘ a flange section formed on and extending radially to the first end section of the anchor section, and the flange section at least partially forms an application section, and; ∘ a joining material , wherein the joining material is pre-applied to the application section, wherein the joining material is lying on the application section in an at least partially solid state,; ∘ a shaft-shaped anchor section which extends between a first end section and a second end section along an anchor axis (Xa); ∘ a flange section formed on and extending radially to the first end section of the anchor section, and the flange section at least partially forms an application section, and; ∘ a joining material , wherein the joining material is pre-applied to the application section, wherein the joining material is lying on the application section in an at least partially solid state,; - providing a workpiece , wherein the workpiece includes a carrier surface ; - arranging the fastening element on the carrier surface of the workpiece , - joining the fastening element to the workpiece via cross-linking reaction of the joining material, wherein the joining material is mixed and the mixing occurs by rotating the fastening element relative to the workpiece,
A computer-assisted medical device comprising: an input control for teleoperating an end effector ; and a control unit comprising one or more processors coupled to the end effector and the input control ; wherein the control unit is configured to: suspend teleoperated control of the end effector by the input control in response to a recentering request; determine an input control recentering move to provide positional and orientational harmony between the input control and the end effector ; execute the input control recentering move; and reinstate the teleoperated control of the end effector by the input control . an input control for teleoperating an end effector ; and a control unit comprising one or more processors coupled to the end effector and the input control ; wherein the control unit is configured to: suspend teleoperated control of the end effector by the input control in response to a recentering request; determine an input control recentering move to provide positional and orientational harmony between the input control and the end effector ; execute the input control recentering move; and reinstate the teleoperated control of the end effector by the input control . suspend teleoperated control of the end effector by the input control in response to a recentering request; determine an input control recentering move to provide positional and orientational harmony between the input control and the end effector ; execute the input control recentering move; and reinstate the teleoperated control of the end effector by the input control .
A system for a charging port , comprising: the charging port having a charging inlet in a charging port opening portion provided on a vehicle body; a lid that covers the charging port opening portion and is openable and closable on the vehicle body; and a charging port cover releasably attachable to the lid in an opened state to cover open sections between the charging port opening portion and the lid , wherein the charging port cover is releasably attachable to the lid via an engaging member. the charging port having a charging inlet in a charging port opening portion provided on a vehicle body; a lid that covers the charging port opening portion and is openable and closable on the vehicle body; and a charging port cover releasably attachable to the lid in an opened state to cover open sections between the charging port opening portion and the lid , wherein the charging port cover is releasably attachable to the lid via an engaging member.
A virtualisation platform comprising a plurality of integrated independent levels of security components (3a-3f) interconnected via communication channels , wherein each of said components (3a-3f): - is one of an application partition (3a-3c), an input-output partition or an external communication interface (3e-3f), and - has a specified function, wherein the virtualisation platform is built such as to fulfil the properties of strict segregation and non-interference between said functions, characterised in that said virtualization platform further comprises: - integrated interceptor modules (11a-11h) connected to said components (3a-3f) via said communication channels , each interceptor module being interposed in the communication channel connecting two components, and - integrated analysing means connected to said interceptor modules (11a-11h) and comprising control means and testing means , said control means being configured to put each interceptor module in an operational mode selected out of a set of predetermined operational modes including a testing mode, and said testing means being configured to locally test the components connected to the interceptor modules being put in the testing mode. - is one of an application partition (3a-3c), an input-output partition or an external communication interface (3e-3f), and - has a specified function, - integrated interceptor modules (11a-11h) connected to said components (3a-3f) via said communication channels , each interceptor module being interposed in the communication channel connecting two components, and - integrated analysing means connected to said interceptor modules (11a-11h) and comprising control means and testing means , said control means being configured to put each interceptor module in an operational mode selected out of a set of predetermined operational modes including a testing mode, and said testing means being configured to locally test the components connected to the interceptor modules being put in the testing mode.
An information processing apparatus comprising: a map acquisition unit configured to acquire a polar coordinate map (M1) specifying a first occupancy of a target in a polar coordinate space; a setting unit configured to set filtering windows (F) of sizes corresponding to a distance (r) from a reference position (C) to a sensing point (P) in the polar coordinate space, wherein the setting unit is configured to set the filtering windows (F) of a larger size as the distance (r) from the reference position (C) to the sensing point (P) is smaller; a filtering unit configured to perform filtering on the polar coordinate map (M1) using the filtering windows (F); a converting unit configured to convert the filtered polar coordinate map (M1) into a rectangular coordinate space. a map acquisition unit configured to acquire a polar coordinate map (M1) specifying a first occupancy of a target in a polar coordinate space; a setting unit configured to set filtering windows (F) of sizes corresponding to a distance (r) from a reference position (C) to a sensing point (P) in the polar coordinate space, wherein the setting unit is configured to set the filtering windows (F) of a larger size as the distance (r) from the reference position (C) to the sensing point (P) is smaller; a filtering unit configured to perform filtering on the polar coordinate map (M1) using the filtering windows (F); a converting unit configured to convert the filtered polar coordinate map (M1) into a rectangular coordinate space.
Antenna comprising a ground plane , a metal plate arranged facing said ground plane , a power supply wire allowing to connect said plate to a generator or a receiver, so that the antenna has a resonance frequency in patch antenna mode, called "first working frequency", said antenna being characterised in that it further comprises: - a ground-return wire connecting the plate to the ground plane , the ground-return wire being arranged substantially perpendicularly to the plate and to the ground plane and positioned substantially in the middle of the plate , - a capacitive element arranged in series with the ground-return wire between the power supply wire and the ground plane , and in that the ground-return wire is an element radiating at a "second working frequency", lower than said first working frequency, so that the antenna has a resonance frequency in wire-plate antenna mode at said second working frequency. - a ground-return wire connecting the plate to the ground plane , the ground-return wire being arranged substantially perpendicularly to the plate and to the ground plane and positioned substantially in the middle of the plate , - a capacitive element arranged in series with the ground-return wire between the power supply wire and the ground plane ,
A method of managing applications by a portable computing device, PCD, and a PCD docking station, the method comprising: when an application is selected (3302; 3502), the application having a first application version and a second application version, wherein the second application version requires more computing capability and has a more extensive user interface than the first application version, determining (3304; 3504), by the PCD, whether the PCD is docked or not docked with the PCD docking station; determining (3324; 3506) whether the second application version is available when the PCD is docked; when the PCD is docked, executing (3326; 3508) the first application version when the second application version is unavailable and executing (3330; 3512) the second application version when the second application is available; determining (3306; 3524), the PCD, whether the first application version is available when the PCD is not docked; when the PCD is not docked, executing (3308; 3526), by the PCD, the second application version when the first application version is unavailable and executing (3312; 3530), by the PCD, the first application version when the first application is available. when an application is selected (3302; 3502), the application having a first application version and a second application version, wherein the second application version requires more computing capability and has a more extensive user interface than the first application version, determining (3304; 3504), by the PCD, whether the PCD is docked or not docked with the PCD docking station; determining (3324; 3506) whether the second application version is available when the PCD is docked; when the PCD is docked, executing (3326; 3508) the first application version when the second application version is unavailable and executing (3330; 3512) the second application version when the second application is available; determining (3306; 3524), the PCD, whether the first application version is available when the PCD is not docked; when the PCD is not docked, executing (3308; 3526), by the PCD, the second application version when the first application version is unavailable and executing (3312; 3530), by the PCD, the first application version when the first application is available.
Method for processing data stored in a memory device of a control unit for a motor vehicle, wherein the method is carried out by a computing device , wherein the memory device is assigned to the computing device , wherein the method comprises the following steps: determining at least one first subarea (110_1) of a memory area of the memory device by way of a randomly dependently or pseudo-randomly dependently formed test pattern (PM) by randomly dependently and/or pseudo-randomly dependently choosing at least one out of start address, end address, length, bit mask or byte mask, forming a test variable (PG) formed in a manner dependent on the data (D) stored in the at least one first subarea (110_1), comparing the test variable (PG; PG') with a stored reference test variable (RPG) for the at least one first subarea (110_1), wherein an effected alteration or manipulation of the data of the associated subarea (110_1) for which the reference test variable (RPG) was formed is deduced in the case of a deviation of the test variable (PG) from the reference test variable (RPG).
A transceiver configured to recover within less than 1 millisecond from quality degradation in its operating point, comprising: a receiver analog front end, Rx AFE, , an adaptive module comprising at least one of an adaptive digital equalizer and an adaptive digital canceller, ADEC, , and a slicer ; the Rx AFE receives a signal of more than 500 Mbps from a second transceiver over a link , and feeds the signal to the ADEC that generates a slicer input signal; the slicer utilizes the slicer input signal to generate slicing decisions and slicing errors; wherein the slicing errors are used to adapt the ADEC ; shortly after identifying quality degradation in the transceiver's operating point, the transceiver indicates the second transceiver to transmit known data; and within less than 1 millisecond from identifying the quality degradation, the transceiver utilizes the known data to improve the accuracy of the slicing errors, which enables fast adaptation of the ADEC , that improves the quality in the transceiver's operating point to a level that enables the transceiver to indicate the second transceiver to transmit data; characterized in that the slicer includes a soft decision , a selector , and an error generator and, when the second transceiver transmits the known data, the selector outputs a known decision instead of a decision received from the soft decision , and the error generator generates the slicing errors based on a reconstructed representation of an original transmitted signal at the slicer input and the known decision . a receiver analog front end, Rx AFE, , an adaptive module comprising at least one of an adaptive digital equalizer and an adaptive digital canceller, ADEC, , and a slicer ; the Rx AFE receives a signal of more than 500 Mbps from a second transceiver over a link , and feeds the signal to the ADEC that generates a slicer input signal; the slicer utilizes the slicer input signal to generate slicing decisions and slicing errors; wherein the slicing errors are used to adapt the ADEC ; shortly after identifying quality degradation in the transceiver's operating point, the transceiver indicates the second transceiver to transmit known data; and within less than 1 millisecond from identifying the quality degradation, the transceiver utilizes the known data to improve the accuracy of the slicing errors, which enables fast adaptation of the ADEC , that improves the quality in the transceiver's operating point to a level that enables the transceiver to indicate the second transceiver to transmit data;
Reactive resin component for a reactive resin system comprising a reactive resin, which comprises a compound of general formula (I) where B is an araliphatic hydrocarbon group, and each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group, an inhibitor, an accelerator and a reactive diluent, and comprising inorganic fillers and/or additives, characterized in that the proportion of the compound of general formula (I) in the reactive resin is from 25 to 65 wt.%, based on the total weight of the reactive resin. B is an araliphatic hydrocarbon group, and each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group,
A method of detecting machine logon attacks within a cloud service , the method comprising: accessing a collection of network traffic protocol monitoring data, the network traffic protocol monitoring data comprising network traffic protocol monitoring data across a cloud service ; analyzing the collection of network traffic protocol monitoring data to identify anomalous behavior by attacker entities associated with IP addresses indicating a brute force attack by the attacker entities associated with the IP addresses; based on the anomalous behavior, identifying the IP addresses associated with the attacker entities, and at least one of attack patterns or campaign attack characteristics; the method being characterized by the following steps of: compiling IP addresses associated with the attacker entities and the at least one of attack patterns or campaign attack characteristics into a reference data structure ; using the reference data structure , analyzing a particular log (106-1) for a particular machine (104-1) of a tenant (102-1) in the cloud service to identify the brute force attack on the particular machine (104-1); and notifying the tenant (102-1) associated with the particular machine (104-1) targeted by the brute force attack, wherein notifying the tenant (102-1) comprises providing information from the reference data structure to the tenant (102-1) to enable the tenant (102-1) to deny requests from the attacker . accessing a collection of network traffic protocol monitoring data, the network traffic protocol monitoring data comprising network traffic protocol monitoring data across a cloud service ; analyzing the collection of network traffic protocol monitoring data to identify anomalous behavior by attacker entities associated with IP addresses indicating a brute force attack by the attacker entities associated with the IP addresses; based on the anomalous behavior, identifying the IP addresses associated with the attacker entities, and at least one of attack patterns or campaign attack characteristics; compiling IP addresses associated with the attacker entities and the at least one of attack patterns or campaign attack characteristics into a reference data structure ; using the reference data structure , analyzing a particular log (106-1) for a particular machine (104-1) of a tenant (102-1) in the cloud service to identify the brute force attack on the particular machine (104-1); and notifying the tenant (102-1) associated with the particular machine (104-1) targeted by the brute force attack, wherein notifying the tenant (102-1) comprises providing information from the reference data structure to the tenant (102-1) to enable the tenant (102-1) to deny requests from the attacker .