mhurhangee/patent-ind-claim-en huggingface dataset:
A method of displacing intensity values to be generated by a spatial light modulator in a device including a multiplicity of micromirrors and an image producing system, the image producing system including mirrors or lenses that relay radiation, the intensity values corresponding to a pattern represented by vector pattern data and the displacement of the intensity values corresponding to correction parameters to be applied to the pattern, the method including: rasterizing the vector pattern data to rasterized intensity values mapped to the micromirrors; determining one or more resampling displacement vectors corresponding to the correction parameters, wherein the correction parameters comprise correction for distortion in the field of an exposure stamp of the spatial light modulator, said distortion being introduced by the image producing system, including the mirrors or lenses that relay the radiation, said distortion being mapped across the field of the exposure stamp, the field being projected by the multiplicity of micromirrors; and in real time, resampling the rasterized intensity values at offset locations, the offset locations corresponding to applying the resampling displacement vectors to the pattern, and using the resampled and rasterized intensity values to control the micromirrors and project radiation onto a radiation sensitive layer on a substrate. rasterizing the vector pattern data to rasterized intensity values mapped to the micromirrors; determining one or more resampling displacement vectors corresponding to the correction parameters, wherein the correction parameters comprise correction for distortion in the field of an exposure stamp of the spatial light modulator, said distortion being introduced by the image producing system, including the mirrors or lenses that relay the radiation, said distortion being mapped across the field of the exposure stamp, the field being projected by the multiplicity of micromirrors; and in real time, resampling the rasterized intensity values at offset locations, the offset locations corresponding to applying the resampling displacement vectors to the pattern, and using the resampled and rasterized intensity values to control the micromirrors and project radiation onto a radiation sensitive layer on a substrate.
A magnetic field sensor comprising: - at least one magnetic core (10; 56; 62) exhibiting a magnetic cycle of the magnetic induction as a function of the magnetic field devoid of hysteresis in an operating span [H min ; H max ], the magnetic cycle of the magnetic core being such that the absolute value of the third derivative of the magnetic induction with respect to the magnetic field is a maximum for a zero magnetic field, characterized in that magnetic core is able to modulate the amplitude of a magnetic excitation field as a function of the amplitude of the magnetic field to be measured, and in that the the sensor further comprises - an electronic circuit tied to the magnetic core and able to measure the magnetic field induced in the magnetic core, this induced magnetic field resulting from the combination of the magnetic field to be measured and the magnetic excitation field, the electronic circuit comprising at least one excitation winding able to create the excitation field. - at least one magnetic core (10; 56; 62) exhibiting a magnetic cycle of the magnetic induction as a function of the magnetic field devoid of hysteresis in an operating span [H min ; H max ], the magnetic cycle of the magnetic core being such that the absolute value of the third derivative of the magnetic induction with respect to the magnetic field is a maximum for a zero magnetic field, characterized in that magnetic core is able to modulate the amplitude of a magnetic excitation field as a function of the amplitude of the magnetic field to be measured, and in that the the sensor further comprises - an electronic circuit tied to the magnetic core and able to measure the magnetic field induced in the magnetic core, this induced magnetic field resulting from the combination of the magnetic field to be measured and the magnetic excitation field, the electronic circuit comprising at least one excitation winding able to create the excitation field.
A method, by an authentication service , for providing step-up authentication in a system providing single sign on to a plurality of applications (110 1 , 110 2 , 110 3 ) on a computing device , comprising: receiving, from a token agent on the computing device , a request to authenticate a user of the computer device for a first native application (110 1 ) among the plurality of applications (110 1 , 110 2 , 110 3 ) on the computing device using a primary token associated with a single sign on capability; determining that the primary token is insufficient to authenticate the user for the first native application (110 1 ); requesting a step-up authentication for the user; updating the primary token to reflect the step-up authentication; granting access to the first native application (110 1 ) based on the updated primary token; and re-using the updated primary token which reflects the step-up authentication to grant access to one or more additional native applications (110 2 , 110 3 ) among the plurality of applications (110 1 , 110 2 , 110 3 ) on the computing device , wherein the first native application (110 1 ) and the one or more additional native applications (110 2 , 110 3 ) are configured to be executed on an operating system of the computing device . receiving, from a token agent on the computing device , a request to authenticate a user of the computer device for a first native application (110 1 ) among the plurality of applications (110 1 , 110 2 , 110 3 ) on the computing device using a primary token associated with a single sign on capability; determining that the primary token is insufficient to authenticate the user for the first native application (110 1 ); requesting a step-up authentication for the user; updating the primary token to reflect the step-up authentication; granting access to the first native application (110 1 ) based on the updated primary token; and re-using the updated primary token which reflects the step-up authentication to grant access to one or more additional native applications (110 2 , 110 3 ) among the plurality of applications (110 1 , 110 2 , 110 3 ) on the computing device , wherein the first native application (110 1 ) and the one or more additional native applications (110 2 , 110 3 ) are configured to be executed on an operating system of the computing device .
A method in a base station for dynamically triggering a mobile terminal to transmit sounding reference signals, SRS, wherein a predefined uplink symbol of an uplink subframe is configured to be used by the mobile terminal for SRS, the method being characterized in the steps of: - determining whether the mobile terminal shall use the predefined uplink symbol for data transmission or not during uplink transmission, - signaling to the mobile terminal, at least partially in an uplink grant, an instruction whether the mobile terminal shall use the predefined uplink symbol for data transmission or not during uplink transmission, wherein the signaled instruction further comprises information whether the mobile terminal shall use the predefined uplink symbol for SRS or leave the predefined uplink symbol blank if the predefined uplink symbol shall not be used for data transmission. - determining whether the mobile terminal shall use the predefined uplink symbol for data transmission or not during uplink transmission, - signaling to the mobile terminal, at least partially in an uplink grant, an instruction whether the mobile terminal shall use the predefined uplink symbol for data transmission or not during uplink transmission, wherein the signaled instruction further comprises information whether the mobile terminal shall use the predefined uplink symbol for SRS or leave the predefined uplink symbol blank if the predefined uplink symbol shall not be used for data transmission.
A rail treatment machine , mobile on a track, for removing irregularities on a rail head surface of at least one rail of a laid track , including a machine frame supported on a front on-track undercarriage and on a rear on-track undercarriage , as seen in a working direction , and a tool frame for accommodating at least one tool carrier , characterized in that a rear end of the tool frame is articulatedly mounted on the rear on-track undercarriage of the machine frame in an articulation point on a vertical axis of rotation , and a front end of the tool frame is supported on a separate on-track undercarriage situated between the front on-track undercarriage and the rear on-track undercarriage .
A method (1300; 1400; 1500; 1600) for wireless communication at a user equipment, UE, comprising: transmitting (1305; 1405; 1505; 1605) a first random access channel, RACH, transmission to a base station; receiving (1310; 1415; 1510; 1610), from the base station in response to the first RACH transmission, a second RACH transmission that includes an indication of two or more transmit beams for the UE to use to transmit a third RACH transmission; and transmitting (1315; 1425; 1515; 1615) the third RACH transmission to the base station using the indicated two or more transmit beams; further comprising: receiving , from the base station in response to the third RACH transmission, a fourth RACH transmission that includes an indication that the UE is to transmit an acknowledgement to the base station using one or more transmit beams; receiving the fourth RACH transmission on a plurality of beams, wherein the fourth RACH transmission includes a group acknowledgment configuration; and transmitting a group acknowledgment using the one or more transmit beams based at least in part on the group acknowledgment configuration. transmitting (1305; 1405; 1505; 1605) a first random access channel, RACH, transmission to a base station; receiving (1310; 1415; 1510; 1610), from the base station in response to the first RACH transmission, a second RACH transmission that includes an indication of two or more transmit beams for the UE to use to transmit a third RACH transmission; and transmitting (1315; 1425; 1515; 1615) the third RACH transmission to the base station using the indicated two or more transmit beams; further comprising: receiving , from the base station in response to the third RACH transmission, a fourth RACH transmission that includes an indication that the UE is to transmit an acknowledgement to the base station using one or more transmit beams; receiving the fourth RACH transmission on a plurality of beams, wherein the fourth RACH transmission includes a group acknowledgment configuration; and transmitting a group acknowledgment using the one or more transmit beams based at least in part on the group acknowledgment configuration. receiving , from the base station in response to the third RACH transmission, a fourth RACH transmission that includes an indication that the UE is to transmit an acknowledgement to the base station using one or more transmit beams; receiving the fourth RACH transmission on a plurality of beams, wherein the fourth RACH transmission includes a group acknowledgment configuration; and transmitting a group acknowledgment using the one or more transmit beams based at least in part on the group acknowledgment configuration.
An overvoltage protection arrangement having a plurality of disc-shaped varistors (2; 21; 22) arranged on a first side of an n-cornered supporting plate , at least one gas arrester , as well as thermal disconnecting devices being in close thermal contact with the varistors, wherein the aforementioned components are surrounded by an outer casing , and furthermore means for the electrical connection for soldering onto a printed circuit board are provided on the second side of the supporting plate , wherein the varistors (2; 21; 22) form a parallel package arrangement delimited at two opposing sides by in each case one insulating partition (3; 31) attachable to the supporting plate , each partition (3; 31) has at least one breakthrough for a varistor connection which is associated in each case with one thermal disconnecting device, which in turn comprises a spring-loaded disconnecting lever , wherein the respective disconnecting lever , at its first end, is associated with the respective varistor connection by solder, and merges with its second end into one of the electrical connections and penetrates the supporting plate in this respect, furthermore the thermal disconnecting device each have an insulating slide , the free end of which acts upon the respective disconnecting lever , characterized in that the slides are guided in forms of the respective partition (3; 31), and a positional change of the slide is recognizable by means of a view opening in the outer casing , the slides have two pins for receiving in each case one spring element in a guiding manner, wherein the pins run in parallel, and the gas arrester is located on a side which is free from any partition and is electrically interconnected to the varistor package arrangement and disposes of a separate thermal and spring force-assisted disconnecting device having torsion springs pretensioned and guided on axle stubs (11; 12).
A folding seat comprising: a seat frame ; a seat back frame located at a rear of the seat frame and coupled rotatably to the seat frame or a vehicle; and a first latch part provided with a side support , a first end of the side support being coupled to the vehicle and a second end of the side support being coupled to the rear of the seat frame through a rotation shaft such that the seat frame is rotatable, wherein the first latch part further comprises: a hook having a lower part located behind the rotation shaft and coupled elastically rotatably to the seat frame and having an upper part extending upward from the lower part and coupled to a holding jaw formed on the side support , characterized in that the first latch part further comprises: a strap connected to a lower end of the hook through a cable and extending forward, and, wherein the first latch part further comprises: a holding jaw part having a first end being plate-shaped and coupled to an upper part of the side support , and a second end extending downward from a center of the first end, a portion of the second end of the holding jaw part being configured to have a shape of a holding jaw having a flat upper surface and to protrude rearward. a seat frame ; a seat back frame located at a rear of the seat frame and coupled rotatably to the seat frame or a vehicle; and a first latch part provided with a side support , a first end of the side support being coupled to the vehicle and a second end of the side support being coupled to the rear of the seat frame through a rotation shaft such that the seat frame is rotatable, wherein the first latch part further comprises: a hook having a lower part located behind the rotation shaft and coupled elastically rotatably to the seat frame and having an upper part extending upward from the lower part and coupled to a holding jaw formed on the side support , characterized in that the first latch part further comprises: a strap connected to a lower end of the hook through a cable and extending forward, and, wherein the first latch part further comprises: a holding jaw part having a first end being plate-shaped and coupled to an upper part of the side support , and a second end extending downward from a center of the first end, a portion of the second end of the holding jaw part being configured to have a shape of a holding jaw having a flat upper surface and to protrude rearward. a strap connected to a lower end of the hook through a cable and extending forward, and, wherein the first latch part further comprises: a holding jaw part having a first end being plate-shaped and coupled to an upper part of the side support , and a second end extending downward from a center of the first end, a portion of the second end of the holding jaw part being configured to have a shape of a holding jaw having a flat upper surface and to protrude rearward.
Device for a motor vehicle, configured to process image data of an image capturing unit, with a housing , wherein in the housing at least two printed circuit boards with electronic components for processing the image data are placed in parallel and spaced apart on corresponding sets of supporting areas (5a, 5b, 5c; 6a, 6b, 6c) and the housing extends along a principal axis (H), which in particular coincides with an optical axis of the image capturing unit, and the at least two printed circuit boards are arranged along the principal axis (H), and at least one heat dissipating element (5a, 5b, 5c; 6a, 6b, 6c, 11, 13, 14, 15) is positioned inside (I, 3) or on the outside (A, 4) of the housing , which is configured to dissipate heat generated by the electronic components in operation, while within (I) the housing at least two sets of supporting areas (5a, 5b, 5c; 6a, 6b, 6c) are arranged along the principal axis (H), on which the at least two printed circuit boards (2b; 2c) are placeable in different positions in the direction of the principal axis (H), the at least one heat dissipating element being formed by the at least two sets of supporting areas (5a, 5b, 5c; 6a, 6b, 6c) characterized in that one of the at least two sets of supporting areas is formed by having the end faces of a set of pillar-like protrusions on an interior wall of the housing parallel to the end faces of another set of pillar-like protrusions forming another set of the at least two supporting areas formed on the interior wall , but offset in said direction of said principal axis H.
A method comprising: sending , from a transmitter entity to a receiver entity , first information using a first ciphering configuration; selecting , by the transmitter entity during a security mode control procedure, an activation time for a second ciphering configuration; sending , from the transmitter entity to the receiver entity, a first security message with the activation time; sending , from the transmitter entity to the receiver entity, second information using the first ciphering configuration after sending the first security message and before the activation time; sending , from the transmitter entity to the receiver entity, third information using the second ciphering configuration after the activation time; and characterised in that the selecting of the activation time is based on an expected delay in receiving an acknowledgement for the first security message and current radio conditions. sending , from a transmitter entity to a receiver entity , first information using a first ciphering configuration; selecting , by the transmitter entity during a security mode control procedure, an activation time for a second ciphering configuration; sending , from the transmitter entity to the receiver entity, a first security message with the activation time; sending , from the transmitter entity to the receiver entity, second information using the first ciphering configuration after sending the first security message and before the activation time; sending , from the transmitter entity to the receiver entity, third information using the second ciphering configuration after the activation time; and
A system for estimating measured depth of a borehole, the system comprising: a drilling fluid pulse telemetry system positioned in a borehole, the drilling fluid pulse telemetry system comprising an environmental sensor package and a drilling fluid pulser; and one or more processors and a non-transitory computer-readable medium having executable instructions, which when executed, cause the one or more processors to perform operations of: continuously obtaining time series measurements from the environmental sensor package , the times series measurements comprising source signals and reflected signals; the operations are further characterised by : determining initial estimates of a time delay and path attenuation amplitude from the time series measurements; determining an L2 error for the initial estimates of the time delay and the path attenuation amplitude; performing iterative minimization of the L2 error until a set of source signal parameters converge, resulting in a least squares estimate of the source signal and the reflected signals; using the least squares estimate to obtain time delay values; and using the time delay values to continuously generate an estimate of a measured depth of the borehole. a drilling fluid pulse telemetry system positioned in a borehole, the drilling fluid pulse telemetry system comprising an environmental sensor package and a drilling fluid pulser; and one or more processors and a non-transitory computer-readable medium having executable instructions, which when executed, cause the one or more processors to perform operations of: continuously obtaining time series measurements from the environmental sensor package , the times series measurements comprising source signals and reflected signals; the operations are further characterised by : determining initial estimates of a time delay and path attenuation amplitude from the time series measurements; determining an L2 error for the initial estimates of the time delay and the path attenuation amplitude; performing iterative minimization of the L2 error until a set of source signal parameters converge, resulting in a least squares estimate of the source signal and the reflected signals; using the least squares estimate to obtain time delay values; and using the time delay values to continuously generate an estimate of a measured depth of the borehole. determining initial estimates of a time delay and path attenuation amplitude from the time series measurements; determining an L2 error for the initial estimates of the time delay and the path attenuation amplitude; performing iterative minimization of the L2 error until a set of source signal parameters converge, resulting in a least squares estimate of the source signal and the reflected signals; using the least squares estimate to obtain time delay values; and using the time delay values to continuously generate an estimate of a measured depth of the borehole.
An ointment or gel comprising: i) from 70 to 90 weight parts of water or a mixture of water and a humectant selected from glycerol, polyethylene glycol, and combinations thereof; ii) from 10 to 25 weight parts of a copolymer having the following block structure: HO-[CH 2 -CH 2 -O] a -[CH 2 -CH(CH 3 )-O] b -[CH 2 -CH 2 -O] a -H wherein the ratio of a:b is from 2: 1 to 4: 1, and the molecular weight of said copolymer is from 9000 to 16000; iii) from 0.1 to 3.0 weight parts of xanthan gum; and iv) from 2.0 to 5.0 weight parts of an lidocaine or a pharmaceutically acceptable salt thereof, for use in a method of treating pain in a chronic open wound in non-mucosal tissue, wherein treating comprises topically applying the ointment or gel to the chronic open wound in non-mucosal tissue after debriding the chronic open wound, applying an occlusive bandage to the chronic open wound after applying the ointment or gel; removing the occlusive bandage from the chronic open wound; and debriding the chronic open wound. i) from 70 to 90 weight parts of water or a mixture of water and a humectant selected from glycerol, polyethylene glycol, and combinations thereof; ii) from 10 to 25 weight parts of a copolymer having the following block structure: HO-[CH 2 -CH 2 -O] a -[CH 2 -CH(CH 3 )-O] b -[CH 2 -CH 2 -O] a -H wherein the ratio of a:b is from 2: 1 to 4: 1, and the molecular weight of said copolymer is from 9000 to 16000; iii) from 0.1 to 3.0 weight parts of xanthan gum; and iv) from 2.0 to 5.0 weight parts of an lidocaine or a pharmaceutically acceptable salt thereof,