mhurhangee/ep-ind-claims huggingface dataset:
Method for open-loop control or closed-loop control of a hand-held power tool, in particular a screwdriver, preferably a rotary impact screwdriver, comprising at least the following steps: - applying a first torque, in particular torque pulse, in a first direction of rotation to a screwing means and - providing a first target torque for limiting application of the first torque, in particular torque pulse, in the first direction of rotation to the screwing means and - applying a second torque, in particular torque pulse, in a second direction of rotation, which is opposite to the first direction of rotation, to the screwing means, characterized in that the method comprises the following step: - providing a second target torque for limiting application of the second torque, in particular torque pulse, in the second direction of rotation to the screwing means. - applying a first torque, in particular torque pulse, in a first direction of rotation to a screwing means and - providing a first target torque for limiting application of the first torque, in particular torque pulse, in the first direction of rotation to the screwing means and - applying a second torque, in particular torque pulse, in a second direction of rotation, which is opposite to the first direction of rotation, to the screwing means, - providing a second target torque for limiting application of the second torque, in particular torque pulse, in the second direction of rotation to the screwing means.
A message repetition transmission method, the method comprising: receiving, from an application entity, a request message for requesting message repetition transmission; creating a resource msgRepetition that includes attribute information for the message repetition transmission and is applied to the message repetition transmission; transmitting, to the application entity, a response message for informing of successful creation of the resource msgRepetition; and performing the message repetition transmission according to the resource msgRepetition, wherein the attribute information includes at least one of attribute targetResource designating a target resource including at least one value to be repeatably transmitted by the message repetition transmission and attribute valueForRepetition designating the at least one value to be repeatably transmitted by the message repetition transmission, and wherein the message repetition transmission comprises a plurality of transmissions of the at least one value in the target resource to provide a group of users with information. receiving, from an application entity, a request message for requesting message repetition transmission; creating a resource msgRepetition that includes attribute information for the message repetition transmission and is applied to the message repetition transmission; transmitting, to the application entity, a response message for informing of successful creation of the resource msgRepetition; and performing the message repetition transmission according to the resource msgRepetition, wherein the attribute information includes at least one of attribute targetResource designating a target resource including at least one value to be repeatably transmitted by the message repetition transmission and attribute valueForRepetition designating the at least one value to be repeatably transmitted by the message repetition transmission, and wherein the message repetition transmission comprises a plurality of transmissions of the at least one value in the target resource to provide a group of users with information.
Method for updating security elements cooperating with telecommunications terminals, said updates being carried out by an OTA platform on the basis of queries made by said security elements, said security elements transmitting PSK-IDs to said OTA platform, characterised in that the identities IDs of the PSK-IDs define an order of priority for taking into account queries made by said security elements to said OTA platform.
A method for joining a first metallic blank with a first joining section having a first joining surface and a second metallic blank with a second joining section having a second joining surface, the method comprising: - heating the first joining surface to a temperature between the recrystallisation temperature and the melting temperature of the first blank, - heating the second joining surface to a temperature between the recrystallisation temperature and the melting temperature of the second blank, and - pressing the first joining surface of the first blank against the second joining surface of the second blank until the blanks (45, 46) at the joining surfaces (47, 48) have cooled to a temperature below the recrystallisation temperature, characterised in that the heating of the first joining surface is made by laser irradiating the first joining section of the first blank and the heating of the second joining surface is made by laser irradiating the second joining section, wherein the first joining section and the second joining section are irradiated simultaneously with a first laser and a second laser, respectively, wherein the first joining section and the second joining section are arranged in correspondence with the first laser and the second laser during irradiation in such a way that the surface normals of the joining surfaces (47, 48) point in opposite directions, and wherein the two facing joining surfaces (47, 48) lie on an axis, and the lasers (42, 43) irradiate the joining surfaces (47, 48) at an angle to their surface normals. - heating the first joining surface to a temperature between the recrystallisation temperature and the melting temperature of the first blank, - heating the second joining surface to a temperature between the recrystallisation temperature and the melting temperature of the second blank, and - pressing the first joining surface of the first blank against the second joining surface of the second blank until the blanks (45, 46) at the joining surfaces (47, 48) have cooled to a temperature below the recrystallisation temperature,
A cell failure compensation method for a heterogeneous telecommunications network having a plurality of small cells, the method comprising: obtaining a plurality of measurement snapshots from the plurality of the small cells in the network over a period of time, the measurement snapshots comprising a plurality of parameters; calculating for a first cell outage configuration in a first time window, the first cell outage configuration corresponding to a network configuration in which at least one small cell has failed, objective functions for small cells (16, 18, 20, 24) in the first cell outage configuration that have not failed based on the plurality of measurement snapshots; and determining an optimal configuration for the first cell outage configuration in the first time window based on the calculated objective functions, such that in the event of a failure in the network corresponding to the first cell outage configuration in the first time window, the plurality of small cells in the network are reconfigurable based on the determined optimal configuration. obtaining a plurality of measurement snapshots from the plurality of the small cells in the network over a period of time, the measurement snapshots comprising a plurality of parameters; calculating for a first cell outage configuration in a first time window, the first cell outage configuration corresponding to a network configuration in which at least one small cell has failed, objective functions for small cells (16, 18, 20, 24) in the first cell outage configuration that have not failed based on the plurality of measurement snapshots; and determining an optimal configuration for the first cell outage configuration in the first time window based on the calculated objective functions, such that in the event of a failure in the network corresponding to the first cell outage configuration in the first time window, the plurality of small cells in the network are reconfigurable based on the determined optimal configuration.
A data driving circuit of a display device comprising: at least one current sinking unit for controlling a predetermined current to flow in a data line (Dj); at least one voltage generating unit for resetting voltage values of enhancement voltages (V0,...V2 K -1) using a compensation voltage generated when the predetermined current flows; at least one digital-analog converter for selecting as a data signal one of the enhancement voltages (V0,...V2 K -1) to correspond to a digital value of externally supplied data; at least one boosting unit for boosting a voltage value of the data signal; and at least one switching unit for providing the data line with the boosted data signal; wherein the at least one boosting unit is adapted to boost the voltage value of the data signal in response to a voltage-dropping voltage of the compensation voltage generated by an electrical load of the data line (Dj). at least one current sinking unit for controlling a predetermined current to flow in a data line (Dj); at least one voltage generating unit for resetting voltage values of enhancement voltages (V0,...V2 K -1) using a compensation voltage generated when the predetermined current flows; at least one digital-analog converter for selecting as a data signal one of the enhancement voltages (V0,...V2 K -1) to correspond to a digital value of externally supplied data; at least one boosting unit for boosting a voltage value of the data signal; and at least one switching unit for providing the data line with the boosted data signal; wherein the at least one boosting unit is adapted to boost the voltage value of the data signal in response to a voltage-dropping voltage of the compensation voltage generated by an electrical load of the data line (Dj).
An opening and closing device (A, B) comprising a frame, a rotating body having one end rotatably connected to the frame between a first position and a second position centered on a first rotating axis line, a rotation-biasing means which rotates and biases the rotating body in a first rotating direction from the first position towards the second position, and a damper means which suppresses the rotational speed of the rotating body when the rotating body rotates in at least one direction of the first rotating direction and a second rotating direction, which second rotating direction is opposite the first rotating direction; wherein the damper means is provided separately from the rotation-biasing means and wherein, the rotation-biasing means comprises a rotation arm having a base-end section rotatably provided at one of either the frame or the rotating body centered on a second rotating axis line parallel to the first rotating axis line, and a rotation and biasing member which rotates and biases the rotation arm, causes a tip-end section of the rotation arm to press against and contact the other of either the frame or the rotating body, and thereby rotates and biases the rotating body in the first rotating direction; and the second rotating axis line is orthogonally separated and arranged with respect to the first rotating axis line such that when the rotating body rotates in the first rotating direction, the tip-end section of the rotation arm moves in a direction approaching the first rotating axis line, and when the rotating body rotates in the second rotating direction, the tip-end section of the rotation arm moves linearly along the rotating body or frame respectively in a direction of moving away from the first rotating axis line; and the damper means comprises a damper body provided at the other of either the frame or the rotating body; a movable member provided at the damper body so as to be capable of moving linearly in the same direction as the tip-end section of the rotation arm, and associated with the tip-end section of the rotation arm so as to enable relative movement with respect to the damper body in association with movement of the rotation arm; and a damper mechanism provided between the damper body and the movable member to suppress the movement speed of the movable member to a low speed.
Rotary tool for a machining of workpieces, comprising a tool main body comprising a clamping section and a tool head, as well as an exchangeable first cutting insert having at least one first cutting region having a first cutting edge, wherein the first cutting insert can be inserted from a front side of the tool head into an insert groove of the tool main body and can be fastened therein in a rotationally fixed manner, as well as an exchangeable second cutting insert as a reaming cutting insert, which is fastened on the tool head in a position offset in an axial direction of the rotary tool towards the clamping section with respect to the first cutting insert, and comprises an insert main body and at least one second cutting region having at least one second cutting edge, characterized in that the second cutting insert can be fixed via a centered position with respect to a tool head cross-section from the front side of the tool head, wherein a fastening means for the second cutting insert is arranged in the insert groove of the first cutting insert and is accessible from the front side, and in that the fastening means is longer than a diameter of the insert main body, wherein the fastening means, in the installed state in the insert main body, has a thread in at least one area outside the insert main body for screwing to the tool main body.
A spinal orthosis, comprising: - a rear panel having first and second sides; - a first belt member having a first end secured to the first side of the rear panel and a second end at an opposite side of the first end; - a second belt member having a first end secured to the second side of the rear panel and a second end at an opposite side of the first end; - first and second front closures which are removably securable to the second ends of the first and second belt members (114, 116), respectively, and arranged for removably securing to one another to form a continuously circumferential loop with the rear panel and the first and second belt members (114, 116); characterized in that the first front closure has: - upper and lower clamping portions (420, 424) separated from one another and located on a same side of the first front closure, the upper and lower clamping portions (420, 424) arranged to secure to a same surface of the first belt member; - and a central clamping portion spaced apart by folding portions from the upper and lower clamping portions (420, 424) such that the upper and lower clamping portions (420, 424) are arranged to fold about the folding portions and to wrap over an edge of the belt member to face the central clamping portion - a rear panel having first and second sides; - a first belt member having a first end secured to the first side of the rear panel and a second end at an opposite side of the first end; - a second belt member having a first end secured to the second side of the rear panel and a second end at an opposite side of the first end; - first and second front closures which are removably securable to the second ends of the first and second belt members (114, 116), respectively, and arranged for removably securing to one another to form a continuously circumferential loop with the rear panel and the first and second belt members (114, 116); - upper and lower clamping portions (420, 424) separated from one another and located on a same side of the first front closure, the upper and lower clamping portions (420, 424) arranged to secure to a same surface of the first belt member; - and a central clamping portion spaced apart by folding portions from the upper and lower clamping portions (420, 424) such that the upper and lower clamping portions (420, 424) are arranged to fold about the folding portions and to wrap over an edge of the belt member to face the central clamping portion
A cycle crank assembly, comprising: a crank spindle; a drivetrain connector configured to translate rotation of the crank spindle into rotation of a wheel; a crank arm including a pedal interface configured to receive a pedal spindle of a cycle pedal; the cycle crank assembly further comprises: a resiliently deformable member connected to the crank spindle and to the crank arm proximate to the pedal interface, wherein the resiliently deformable member translates rotation of the crank arm into rotation of the crank spindle, and wherein the resiliently deformable member deforms under load to store pedal energy provided by a rider to the cycle pedal, and returns at least a portion of the pedal energy when not under load in a direction of the rotation, and characterised in that the cycle crank assembly, comprises a slip connection configured to allow the crank arm to rotate about the crank spindle,and the slip connection including a sleeve bearing; and the resiliently deformable member is disposed within a hollow defined within the crank arm, wherein the hollow defined within the crank arm is larger in size than the resiliently deformable member along at least a portion of a length of the hollow so as to permit deformation of the resiliently deformable member when under load. a crank spindle; a drivetrain connector configured to translate rotation of the crank spindle into rotation of a wheel; a crank arm including a pedal interface configured to receive a pedal spindle of a cycle pedal; the cycle crank assembly further comprises: a resiliently deformable member connected to the crank spindle and to the crank arm proximate to the pedal interface, wherein the resiliently deformable member translates rotation of the crank arm into rotation of the crank spindle, and wherein the resiliently deformable member deforms under load to store pedal energy provided by a rider to the cycle pedal, and returns at least a portion of the pedal energy when not under load in a direction of the rotation, and characterised in that the cycle crank assembly, comprises a slip connection configured to allow the crank arm to rotate about the crank spindle,and the slip connection including a sleeve bearing; and the resiliently deformable member is disposed within a hollow defined within the crank arm, wherein the hollow defined within the crank arm is larger in size than the resiliently deformable member along at least a portion of a length of the hollow so as to permit deformation of the resiliently deformable member when under load.
A system for generating laser pulses of variable wavelength, comprising at least - a pump pulse generator for generating pump pulses and - an optical parametric gain medium pumped by the pump pulse generator, which converts incoming pump pulses, stimulated by further seed pulses, into wavelength-shifted signal pulses and wavelength-shifted idler pulses, characterized in that the system further comprises an optically dispersive element, the wavelength of the pump pulses is adjustable either as such or via the repetition rate of the pump pulse generator, and when either the repetition rate or the wavelength is changed, the other parameter changes simultaneously by means of the optically dispersive element in such a way that the pump pulses and the seed pulses in the optical parametric gain medium overlap in time. - a pump pulse generator for generating pump pulses and - an optical parametric gain medium pumped by the pump pulse generator, which converts incoming pump pulses, stimulated by further seed pulses, into wavelength-shifted signal pulses and wavelength-shifted idler pulses, the system further comprises an optically dispersive element, the wavelength of the pump pulses is adjustable either as such or via the repetition rate of the pump pulse generator, and when either the repetition rate or the wavelength is changed, the other parameter changes simultaneously by means of the optically dispersive element in such a way that the pump pulses and the seed pulses in the optical parametric gain medium overlap in time.
A micelle adduct of a neutral complex of monovalent Silver of formula Ag-L wherein Ag is an Ag + ion and L is a ligand of formula 4-mercaptophenylboronic acid, and wherein the silver ion is linked to the mercapto group of the ligand L in a micelle system formed by a cationic surfactant.
A method of operating a wireless terminal, the method comprising: determining a target data flow rate based on at least one condition; adjusting a buffer status report, BSR, to cause the target data flow rate; characterised in that at the start of a transmit period, the BSR is computed for sending an initial request according to the target data rate and the duration of a cool down period; wherein at each one of subsequent transmit periods, the BSR is updated to correspond to a fake buffer size, according to the duration of the transmit period and the target data rate; wherein the cool down period starts as soon as the fake buffer size becomes zero; and wherein in the cool down period, the BSR value is set to zero. determining a target data flow rate based on at least one condition; adjusting a buffer status report, BSR, to cause the target data flow rate; characterised in that at the start of a transmit period, the BSR is computed for sending an initial request according to the target data rate and the duration of a cool down period; wherein at each one of subsequent transmit periods, the BSR is updated to correspond to a fake buffer size, according to the duration of the transmit period and the target data rate; wherein the cool down period starts as soon as the fake buffer size becomes zero; and wherein in the cool down period, the BSR value is set to zero.
A first Institute of Electrical and Electronics Engineers, IEEE, 802.11 station, STA, (102; 110, 120) for exchanging antenna capability information, the first IEEE 802.11 STA (102; 110, 120) comprising: a receiver configured to receive a probe request frame that contains a first antenna capability information element that indicates a plurality of antenna capabilities of a second IEEE 802.11 STA (102; 110, 120); and a transmitter configured to transmit a probe response frame that contains a second antenna capability information element that indicates a plurality of antenna capabilities of the first IEEE 802.11 STA (102; 110, 120). a receiver configured to receive a probe request frame that contains a first antenna capability information element that indicates a plurality of antenna capabilities of a second IEEE 802.11 STA (102; 110, 120); and a transmitter configured to transmit a probe response frame that contains a second antenna capability information element that indicates a plurality of antenna capabilities of the first IEEE 802.11 STA (102; 110, 120).
A method for conditioning air, the method comprises flowing a first air flow within a first ventilation system past a first cooling coil, which is connected to a cooling system with a cooling fluid and a cooler, characterised in that the temperature of the first air flow, when passing the first cooling coil, is lower than the temperature of the cooling fluid flowing through the first cooling coil and that the first air flow is heated and the cooling fluid flowing through the first cooling coil is cooled, when the first air flow passes through the first cooling coil, wherein the residual heat of the cooling fluid in the cooling system is used to heat the first air flow, and the method further comprises heating the first air flow by flowing the first air flow past a first heating coil, before flowing the first air flow past the first cooling coil, wherein the first heating coil is connected to a heating system with a heater.