mhurhangee/ep-ind-claims huggingface dataset:
A sensing assembly comprising: a sensing assembly housing (12; 62; 112), the housing for enclosing an interior and comprising a mounting portion (26; 119) for mounting the housing to a supporting structure and including angled sides (24ab; 86ab; 116ab); a plurality of sensing assembly components at least partially positioned or at least partially contained within the interior; and an indicator lens device (40; 76; 114) which is integral with, or integrated with respect to the housing and wherein the indicator lens device is located on the mounting portion between the angled sides, so that the angled sides allow for enhanced visibility of light shining through the indicator lens device, wherein the indicator lens device is supported on the mounting portion between mounting holes (34ab, 118ab); wherein one of the angled sides (24a; 86a; 116a) of the sensing device housing contacts a side surface of the indicator lens device forming an oblique angle such that an oblique viewing angle is formed using at least a portion of a surface of the indicator lens device surface and at least a portion of the surface of the sensing assembly housing, and wherein the oblique viewing angle range comprises a viewing angle that is greater than 90 degrees. a sensing assembly housing (12; 62; 112), the housing for enclosing an interior and comprising a mounting portion (26; 119) for mounting the housing to a supporting structure and including angled sides (24ab; 86ab; 116ab); a plurality of sensing assembly components at least partially positioned or at least partially contained within the interior; and an indicator lens device (40; 76; 114) which is integral with, or integrated with respect to the housing and wherein the indicator lens device is located on the mounting portion between the angled sides, so that the angled sides allow for enhanced visibility of light shining through the indicator lens device, wherein the indicator lens device is supported on the mounting portion between mounting holes (34ab, 118ab); wherein one of the angled sides (24a; 86a; 116a) of the sensing device housing contacts a side surface of the indicator lens device forming an oblique angle such that an oblique viewing angle is formed using at least a portion of a surface of the indicator lens device surface and at least a portion of the surface of the sensing assembly housing, and wherein the oblique viewing angle range comprises a viewing angle that is greater than 90 degrees.
A method for identifying a vein in a patient, the method comprising: applying a thermochromic ink to a venous area on the skin of a patient, wherein the thermochromic ink comprises thermosensitive color-changing microcapsules that contain a proton-accepting chromogen and a desensitizer, wherein the desensitizer possesses a melting point above which the chromogen is capable of becoming protonated, thereby resulting in a color change; and thereafter, observing the venous area for the color change. applying a thermochromic ink to a venous area on the skin of a patient, wherein the thermochromic ink comprises thermosensitive color-changing microcapsules that contain a proton-accepting chromogen and a desensitizer, wherein the desensitizer possesses a melting point above which the chromogen is capable of becoming protonated, thereby resulting in a color change; and thereafter, observing the venous area for the color change.
Method for determining a distance (d ERC) between an eye rotation center of an eye of a subject and an apex of a cornea of the eye, the method being carried out using calculation means and comprising: - providing a geometric model of an eye, whereby the eye is modeled with a first sphere for the sclera of the eye and a second sphere for the cornea of the eye, the first sphere having a first radius and a first center, the second sphere having a second radius smaller than the first radius and a second center, the first center and the second center being aligned on an optical axis of the eye, another distance "P1P2" between first center and the second center being such that P1P2 < (R 1 2 - R2 2)1⁄2, "R1" referring to the first radius and "R2" referring to the second radius, the eye rotation center of this eye being positioned at the center of the first sphere, said distance (d ERC) being determined based on a set of personal parameters (L E, d AC, D I, A GE, K) including at least a first geometric dimension (D I) of the eye, each personal parameter (L E, d AC, D I, A GE, K) being distinct from said distance (dERc); - determining a value of each personal parameter (L E, d AC, D I, A GE, K) for the subject; and - determining a first approximate value of said distance (d ERC) in accordance with said geometric model based on the values of the personal parameters (L E, d AC, D I, AGE, K). - providing a geometric model of an eye, whereby the eye is modeled with a first sphere for the sclera of the eye and a second sphere for the cornea of the eye, the first sphere having a first radius and a first center, the second sphere having a second radius smaller than the first radius and a second center, the first center and the second center being aligned on an optical axis of the eye, another distance "P1P2" between first center and the second center being such that P1P2 < (R 1 2 - R2 2)1⁄2, "R1" referring to the first radius and "R2" referring to the second radius, the eye rotation center of this eye being positioned at the center of the first sphere, said distance (d ERC) being determined based on a set of personal parameters (L E, d AC, D I, A GE, K) including at least a first geometric dimension (D I) of the eye, each personal parameter (L E, d AC, D I, A GE, K) being distinct from said distance (dERc); - determining a value of each personal parameter (L E, d AC, D I, A GE, K) for the subject; and - determining a first approximate value of said distance (d ERC) in accordance with said geometric model based on the values of the personal parameters (L E, d AC, D I, AGE, K).
A computer-implemented method for detecting anomalous events using a long-term memory in a video analysis system configured to observe patterns of behavior depicted in a sequence of video frames, comprising: receiving an active percept, wherein the active percept encodes a pattern of behavior and comprises a sub-graph of a neural network excited by a semantic symbol stream, wherein the semantic symbol stream describes objects depicted in the sequence of video frames; querying the long-term memory using the active percept as an input stimulus; receiving, in response to the querying, a retrieved percept from the long-term memory and an occurrence frequency of the retrieved percept, wherein the retrieved percept encodes a pattern of behavior previously observed by the video analysis system; determining a distance (d) between the active percept and the retrieved percept based at least in part on the occurrence frequency of the retrieved percept; and upon determining the distance (d) exceeds a specified threshold, publishing an alert notification indicating the occurrence of an anomalous event, as represented by the active percept. receiving an active percept, wherein the active percept encodes a pattern of behavior and comprises a sub-graph of a neural network excited by a semantic symbol stream, wherein the semantic symbol stream describes objects depicted in the sequence of video frames; querying the long-term memory using the active percept as an input stimulus; receiving, in response to the querying, a retrieved percept from the long-term memory and an occurrence frequency of the retrieved percept, wherein the retrieved percept encodes a pattern of behavior previously observed by the video analysis system; determining a distance (d) between the active percept and the retrieved percept based at least in part on the occurrence frequency of the retrieved percept; and upon determining the distance (d) exceeds a specified threshold, publishing an alert notification indicating the occurrence of an anomalous event, as represented by the active percept.
Method for correcting a light pattern provided by an automotive lighting device with a matrix of light sources, the method comprising the steps of a) providing some resolution data of the light sources; the method being characterized in that it further comprises the steps of b) simulating a test map of the light pattern using the resolution data; c) simulating distortion maps of the test map, each distortion map being associated to a distortion factor, wherein the distortion factor is defined in a barrel-like or in a pin-cushion direction; d) obtaining a real distorted light pattern by the projection of the simulated test map by the matrix of light sources; e) comparing the real distorted light pattern with the distortion maps, finding a distortion map which is the most similar to the real distorted map; and f) applying a correction factor to correct the real distorted light pattern, thus obtaining a corrected light pattern, the correction factor being a corrective distortion factor inverse to the distortion factor of the distortion map which is the most similar to the real distorted map. a) providing some resolution data of the light sources; the method being characterized in that it further comprises the steps of b) simulating a test map of the light pattern using the resolution data; c) simulating distortion maps of the test map, each distortion map being associated to a distortion factor, wherein the distortion factor is defined in a barrel-like or in a pin-cushion direction; d) obtaining a real distorted light pattern by the projection of the simulated test map by the matrix of light sources; e) comparing the real distorted light pattern with the distortion maps, finding a distortion map which is the most similar to the real distorted map; and f) applying a correction factor to correct the real distorted light pattern, thus obtaining a corrected light pattern, the correction factor being a corrective distortion factor inverse to the distortion factor of the distortion map which is the most similar to the real distorted map.
A method of controlling undesirable vegetation in turf which comprises applying a synergistic combination comprising (a) florasulam, (b) 2,4-D or an agriculturally acceptable salt or ester thereof, and (c) fluroxypyr or an agriculturally acceptable salt or ester thereof wherein the weight ratio of (a) to (b) is from 1:80 to 1:140, and the weight ratio of (a) to (c) is from 1:7 to 1:13.
A semiconductor light emitting device package (200N1) for display pixels, the semiconductor light emitting device package (200N1) comprising: a first semiconductor light emitting device of a first color having a first material; and a second semiconductor light emitting device of a second color having a second material and disposed on the first semiconductor light emitting device of the first color, wherein the first semiconductor light emitting device of the first color comprises a first semiconductor light emitting structure having an inner recess, and a first-first electrode and a first-second electrode layer electrically connected to a first side and a second side of the first semiconductor light emitting structure, respectively, and wherein the second semiconductor light emitting device is disposed in the inner recess of the first semiconductor light emitting device (110N, 110N), characterized in that the semiconductor light emitting device package (200N1) further comprising a first-first metal layer and a second-first metal layer disposed between the second semiconductor light emitting device and the first semiconductor light emitting device in an electrically insulated state. a first semiconductor light emitting device of a first color having a first material; and a second semiconductor light emitting device of a second color having a second material and disposed on the first semiconductor light emitting device of the first color, wherein the first semiconductor light emitting device of the first color comprises a first semiconductor light emitting structure having an inner recess, and a first-first electrode and a first-second electrode layer electrically connected to a first side and a second side of the first semiconductor light emitting structure, respectively, and wherein the second semiconductor light emitting device is disposed in the inner recess of the first semiconductor light emitting device (110N, 110N), characterized in that the semiconductor light emitting device package (200N1) further comprising a first-first metal layer and a second-first metal layer disposed between the second semiconductor light emitting device and the first semiconductor light emitting device in an electrically insulated state.
A wind-turbine-dynamic-characteristics monitoring apparatus comprising: an identifying unit that identifies dynamic-characteristics models of a wind turbine for each of a plurality of operating ranges that are determined in accordance with wind speed, and calculates the values of the dynamic-characteristics parameters for the dynamic-characteristics models; a storage unit that stores the dynamic-characteristics parameters calculated by the identifying unit in association with time information and wind speed, for each of the operating ranges; and a monitoring unit that obtains a predetermined dynamic-characteristics parameter for each of the operating ranges among the dynamic-characteristics parameters stored in the storage unit, that monitors, for each of the ranges, temporal variation of the predetermined dynamic-characteristics parameter in the dynamic-characteristics model identified by the identifying unit, and that determines whether adjustment of a control parameter of the wind turbine is needed on the basis of the temporal variation of the dynamic-characteristics parameter. an identifying unit that identifies dynamic-characteristics models of a wind turbine for each of a plurality of operating ranges that are determined in accordance with wind speed, and calculates the values of the dynamic-characteristics parameters for the dynamic-characteristics models; a storage unit that stores the dynamic-characteristics parameters calculated by the identifying unit in association with time information and wind speed, for each of the operating ranges; and a monitoring unit that obtains a predetermined dynamic-characteristics parameter for each of the operating ranges among the dynamic-characteristics parameters stored in the storage unit, that monitors, for each of the ranges, temporal variation of the predetermined dynamic-characteristics parameter in the dynamic-characteristics model identified by the identifying unit, and that determines whether adjustment of a control parameter of the wind turbine is needed on the basis of the temporal variation of the dynamic-characteristics parameter.
A composition for microbial culture of gram-positive bacteria, said composition comprising 0.05 - 5 wt% of nanofibrillar cellulose in the form of hydrogel, obtained by treating raw cellulose material with acid followed by treatment with base, mechanically disintegrating the cellulose raw material with suitable equipment such as a refiner, grinder, homogenizer, colloider, friction grinder, ultrasound-sonicator, fluidizer such as microfluidizer, macrofluidizer or fluidizer-type homogenizer, and mixing said nanofibrillar cellulose with water and at least one nutrient source comprising at least one carbon source, at least one nitrogen source, at least one phosphorus source, at least one mineral source and at least one trace element source.
A polymer latex compound comprising: - 10 wt.% to 30 wt.% of a carboxylated acrylonitrile butadiene rubber component; - 10 wt.% to 30 wt.% of a polychloroprene latex component; and - 56 wt.% to 64 wt.% of a natural latex component, based on the dry weight of each component. - 10 wt.% to 30 wt.% of a carboxylated acrylonitrile butadiene rubber component; - 10 wt.% to 30 wt.% of a polychloroprene latex component; and - 56 wt.% to 64 wt.% of a natural latex component,
A woman's body shaper under garment comprising: a breast-covering region; and a pair of expandable, stretchable buttocks-covering mesh regions (16,17) having side flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh buttocks regions, said flank areas extending on the sides and bottoms of said buttocks mesh regions, characterized in that the breast-covering region is made of a flexible mesh portion; a pair of expandable, stretchable side breast-covering mesh regions having flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh breasts region, said flank areas extended on the sides and bottoms of said breast-covering mesh regions of said body shaper undergarment; and in that said buttocks enclosed expandable, stretchable mesh regions (16,17) include multiple regions (25,26,27,28) of expansion and stretch, with lower portions (27,28) of said multiple regions (25,26) being less expandable and stretchable than intermediate regions of expansion and stretch. a breast-covering region; and a pair of expandable, stretchable buttocks-covering mesh regions (16,17) having side flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh buttocks regions, said flank areas extending on the sides and bottoms of said buttocks mesh regions, characterized in that the breast-covering region is made of a flexible mesh portion; a pair of expandable, stretchable side breast-covering mesh regions having flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh breasts region, said flank areas extended on the sides and bottoms of said breast-covering mesh regions of said body shaper undergarment; and in that said buttocks enclosed expandable, stretchable mesh regions (16,17) include multiple regions (25,26,27,28) of expansion and stretch, with lower portions (27,28) of said multiple regions (25,26) being less expandable and stretchable than intermediate regions of expansion and stretch.
A method, comprising: receiving, by a user equipment configured with a random-access-less time-alignment timer separate from an existing time-alignment timer, a command to perform a random-access-less handover from a source cell to a target cell and a time-alignment value for the random-access-less time-alignment timer; performing, by the user equipment, the random-access-less handover from the source cell to the target cell; starting, by the user equipment, the random-access-less time-alignment timer; transmitting, by the user equipment, one or more uplink transmissions to the target cell using the time-alignment value, wherein the one or more uplink transmissions are transmitted while the random-access-less time-alignment timer is running; receiving, by the user equipment, an updated time-alignment value from the target cell while the random-access-less time-alignment timer is running, when the timing of the one or more uplink transmissions is determined to be correct by the target cell; stopping the random-access-less time-alignment timer, applying the updated time-alignment value and starting the existing time-alignment timer, by the user equipment, when the updated time-alignment value is received from the target cell; and stopping, by the user equipment, the one or more uplink transmissions, when no updated time alignment value is received from the target cell. receiving, by a user equipment configured with a random-access-less time-alignment timer separate from an existing time-alignment timer, a command to perform a random-access-less handover from a source cell to a target cell and a time-alignment value for the random-access-less time-alignment timer; performing, by the user equipment, the random-access-less handover from the source cell to the target cell; starting, by the user equipment, the random-access-less time-alignment timer; transmitting, by the user equipment, one or more uplink transmissions to the target cell using the time-alignment value, wherein the one or more uplink transmissions are transmitted while the random-access-less time-alignment timer is running; receiving, by the user equipment, an updated time-alignment value from the target cell while the random-access-less time-alignment timer is running, when the timing of the one or more uplink transmissions is determined to be correct by the target cell; stopping the random-access-less time-alignment timer, applying the updated time-alignment value and starting the existing time-alignment timer, by the user equipment, when the updated time-alignment value is received from the target cell; and stopping, by the user equipment, the one or more uplink transmissions, when no updated time alignment value is received from the target cell.
A method of completing a subsea well extending from a subsea wellhead, comprising: coupling a completion string with a christmas tree above the water line; and landing the christmas tree on the subsea wellhead characterized in that control of the well is maintained using at least two independently verified deep-set well control barriers (26, 30), the first and second barriers being positioned below a lowermost end of the completion string when the completion string is installed in the well, the integrity of each of the first and second barriers being verified after the respective barrier is thus positioned, and the barriers remain in position at all times until the well is completed. coupling a completion string with a christmas tree above the water line; and landing the christmas tree on the subsea wellhead characterized in that control of the well is maintained using at least two independently verified deep-set well control barriers (26, 30), the first and second barriers being positioned below a lowermost end of the completion string when the completion string is installed in the well, the integrity of each of the first and second barriers being verified after the respective barrier is thus positioned, and the barriers remain in position at all times until the well is completed.
A face driver having a body in which a compression spring is directly or indirectly braced against a centering rod having a centering point, and having a driver disk that surrounds the centering rod and is intended for contacting the workpiece, whereby a driver head rotationally coupled to the body is formed with a plurality of guides offset from and extending parallel to a center axis and holding respective axially shiftable support pins, the driver disk having a back face turned away from the workpiece and formed with a plurality of radial grooves in which fit front heads of the support pins, whereby the centering heads are part-spherical, characterized in that the grooves have V-forming bevels fitting with the front heads.
Attachment block for a low-voltage switching device, wherein the low-voltage switching device comprises an electromagnetic drive with a fixed yoke and an armature that is movable in relation to the yoke and also a switching contact, the contacts of which can be closed and opened by the movement of the armature along an axis, wherein the attachment block, which is provided separately from the low-voltage switching device, comprises a means for damping movement, which during a closing operation of the switching contact by movement of the armature in the direction of the yoke slows down the movement of the armature as soon as there is contact between the contacts of the switching contact, characterized in that the means for damping movement comprises a damping plate and a number of counter bearings (35, 38), wherein the damping plate abuts against the number of counter bearings (35, 38) as soon as there is contact between the contacts, wherein the damping plate can be mechanically coupled or is mechanically coupled with the armature and wherein the damping plate is coupled with a shaft, which extends in the axial direction, with the attachment block mechanically connected to the low-voltage switching device is mechanically connected to a contact carrier of the low-voltage switching device and follows the movement of the armature.