mhurhangee/ep-ind-claims huggingface dataset:
Device for providing imaging of one or more aspects of blood perfusion induced by cardiac induced blood motion in a skin region of a subject, said device comprising a processing unit configured to: - obtain data streams derived from detected electromagnetic radiation transmitted through or reflected from the skin region, said data streams comprising a data signal (111, 112) per skin pixel for a plurality of skin pixels of the skin region, wherein a first data stream is derived from a patterned illumination of the skin region and a second data stream is derived from a patterned illumination and/or homogenous illumination of the skin region; - determine, per skin pixel or group of skin pixels, from the data signals (111, 112) of the first data stream and the second data stream, optical depth indices, ODIs, by dividing, per skin pixel or group of skin pixels, data signals of the first data stream by data signals of the second data stream, wherein the ODIs are indicative of the depth of the blood flow within the skin region at the skin pixels or groups of skin pixels; - create an ODI image map of the skin region including the plurality of skin pixels from the determined ODIs; - create an amplitude image map of the skin region including the plurality of skin pixels from amplitudes of the data signals of the second data stream; and - correct the amplitude image map by correcting, per skin pixel or group of skin pixels, the amplitudes of the data signals of the second data stream by the determined ODIs. - obtain data streams derived from detected electromagnetic radiation transmitted through or reflected from the skin region, said data streams comprising a data signal (111, 112) per skin pixel for a plurality of skin pixels of the skin region, wherein a first data stream is derived from a patterned illumination of the skin region and a second data stream is derived from a patterned illumination and/or homogenous illumination of the skin region; - determine, per skin pixel or group of skin pixels, from the data signals (111, 112) of the first data stream and the second data stream, optical depth indices, ODIs, by dividing, per skin pixel or group of skin pixels, data signals of the first data stream by data signals of the second data stream, wherein the ODIs are indicative of the depth of the blood flow within the skin region at the skin pixels or groups of skin pixels; - create an ODI image map of the skin region including the plurality of skin pixels from the determined ODIs; - create an amplitude image map of the skin region including the plurality of skin pixels from amplitudes of the data signals of the second data stream; and - correct the amplitude image map by correcting, per skin pixel or group of skin pixels, the amplitudes of the data signals of the second data stream by the determined ODIs.
An apparatus for use in exercise, massage, strength training or muscle stretching, the apparatus comprising a plug, a first module, wherein the first module is a rod module (51, 100) which has a plurality of openings, one or more second modules (53, 60, 70, 80, 120, 130, 140, 150, 180), wherein each second module is detachably securable to the rod module by the plug (61, 154, 200, 210, 220, 230) wherein said plug is removably insertable into an opening in the rod module to thereby detachably secure the second module to the rod module, wherein the openings in the rod module include: an axial opening in each end of the rod module, a plurality of first lateral openings (52, 106), the first lateral openings being parallel to one another and extending through the rod module at spaced locations along the rod module, and a plurality of second lateral openings (52, 107), the second lateral openings also extending through the rod module but in a direction perpendicular to the first lateral openings, wherein said one or more second modules can be detachably secured to the rod module in a plurality of configurations. an axial opening in each end of the rod module, a plurality of first lateral openings (52, 106), the first lateral openings being parallel to one another and extending through the rod module at spaced locations along the rod module, and a plurality of second lateral openings (52, 107), the second lateral openings also extending through the rod module but in a direction perpendicular to the first lateral openings,
Method for ensuring road tracking up to a predefined lateral acceleration limit (a lat,R7 9) in a road vehicle having an autonomous steering function arranged to selectively apply a steering wheel overlay torque ( T PA) to a normal steering assistance torque ( T a) in an electrical power assisted steering system of the road vehicle, characterized in that it comprises: setting the predetermined lateral acceleration limit ( a lat,R 79); and obtaining a signal representing a current lateral acceleration ( a lat) of the road vehicle; differentiating the set predetermined lateral acceleration limit ( a lat, R 79) with the obtained current lateral acceleration signal ( a lat) to obtain a controller error ( e); subjecting the controller error ( e) to a rate selector which is arranged to either output a positive, negative or zero torque rate ( T R) depending on the current value of the controller error ( e); arranging the rate selector to use a predetermined controller error ( e) tolerance dead zone interval having an upper limit and a lower limit; outputting by the rate selector, if the controller error ( e) is below or equal to the lower limit of the dead zone interval or if a driver is interacting, a positive torque rate ( T R); outputting by the rate selector, if the controller error ( e) is above or equal to the upper limit of the dead zone interval, a negative torque rate ( T R); outputting by the rate selector, if the controller error ( e) is between the lower limit and the upper limit of the dead zone interval, a zero torque rate ( T R); integrating the output torque rate ( T R) to provide a torque limit ( T LIM) for the steering wheel overlay torque ( T PA). setting the predetermined lateral acceleration limit ( a lat,R 79); and obtaining a signal representing a current lateral acceleration ( a lat) of the road vehicle; differentiating the set predetermined lateral acceleration limit ( a lat, R 79) with the obtained current lateral acceleration signal ( a lat) to obtain a controller error ( e); subjecting the controller error ( e) to a rate selector which is arranged to either output a positive, negative or zero torque rate ( T R) depending on the current value of the controller error ( e); arranging the rate selector to use a predetermined controller error ( e) tolerance dead zone interval having an upper limit and a lower limit; outputting by the rate selector, if the controller error ( e) is below or equal to the lower limit of the dead zone interval or if a driver is interacting, a positive torque rate ( T R); outputting by the rate selector, if the controller error ( e) is above or equal to the upper limit of the dead zone interval, a negative torque rate ( T R); outputting by the rate selector, if the controller error ( e) is between the lower limit and the upper limit of the dead zone interval, a zero torque rate ( T R); integrating the output torque rate ( T R) to provide a torque limit ( T LIM) for the steering wheel overlay torque ( T PA).
A filler mixture comprising thermoconductive ZnS particles, wherein the filler mixture of thermoconductive ZnS particles comprises ZnS particles of at least two of three particle size ranges selected from coarse particles, medium particles and small particles, wherein said particles are having a d 50 for coarse particles of 1.5 to 1.0 μm, preferably 1.4 to 1.2 μm, a d 50 for medium particles of 0.7 to 0.5 μm, preferably 0.6 to 0.5 μm, and a d 50 for small particles of 0.45 to 0.15, preferably 0,4 to 0,2 μm, wherein the fraction of the particles in the largest d 50 range is present in the particle mixture in a percentage of 20 wt.-% to 80 wt.-%, preferably 40 wt.-% to 80 wt.-% and more preferably 50 wt-% to 80% wt.-% referred to the weight of all fractions of the particles, the measuring method of the particle size being made as disclosed in the description. wherein said particles are having a d 50 for coarse particles of 1.5 to 1.0 μm, preferably 1.4 to 1.2 μm, a d 50 for medium particles of 0.7 to 0.5 μm, preferably 0.6 to 0.5 μm, and a d 50 for small particles of 0.45 to 0.15, preferably 0,4 to 0,2 μm, wherein the fraction of the particles in the largest d 50 range is present in the particle mixture in a percentage of 20 wt.-% to 80 wt.-%, preferably 40 wt.-% to 80 wt.-% and more preferably 50 wt-% to 80% wt.-% referred to the weight of all fractions of the particles, the measuring method of the particle size being made as disclosed in the description.
A vehicle body structure having a floor panel on which a front seat having a slide mechanism is provided, comprising: a front floor panel on which a heel of a pedal operator operating a pedal provided in a vehicle can be placed; a rear floor panel provided at a rear of the front floor panel at a position lower than the front floor panel; a connection panel extending from a rear portion of the front floor panel to a front portion of the rear floor panel, the connection panel being at least partially inclined or curved so as to be positioned downward toward a rear side, at least a front portion of the connection panel being positioned at a front of a front portion of the front seat; and a pair of right and left hinge pillars arranged to extend in an up-down direction at both end portions of the front floor panel in a vehicle width direction, characterized in that the front portion of the connection panel is positioned at the front of rear portions of the hinge pillars as viewed from a side of a vehicle body. a front floor panel on which a heel of a pedal operator operating a pedal provided in a vehicle can be placed; a rear floor panel provided at a rear of the front floor panel at a position lower than the front floor panel; a connection panel extending from a rear portion of the front floor panel to a front portion of the rear floor panel, the connection panel being at least partially inclined or curved so as to be positioned downward toward a rear side, at least a front portion of the connection panel being positioned at a front of a front portion of the front seat; and a pair of right and left hinge pillars arranged to extend in an up-down direction at both end portions of the front floor panel in a vehicle width direction, characterized in that the front portion of the connection panel is positioned at the front of rear portions of the hinge pillars as viewed from a side of a vehicle body.
A method for displaying one or more overlays for a network application accessed via an embedded browser of a client application on a client device, the method comprising: (a) establishing, by the client application on the client device, one or more sessions to a network application accessed via the embedded browser of the client application, the client application maintaining a plurality of overlays for a plurality of network applications; (b) receiving, by the embedded browser of the client application, a web page of the network application; (c) identifying, by the client application from the plurality of overlays based at least on the network application accessed from the plurality of network applications, one or more overlays of the client application to be displayed over the web page in the embedded browser; and (d) displaying, by the client application, the one or more overlays over the web page in the embedded browser. (a) establishing, by the client application on the client device, one or more sessions to a network application accessed via the embedded browser of the client application, the client application maintaining a plurality of overlays for a plurality of network applications; (b) receiving, by the embedded browser of the client application, a web page of the network application; (c) identifying, by the client application from the plurality of overlays based at least on the network application accessed from the plurality of network applications, one or more overlays of the client application to be displayed over the web page in the embedded browser; and (d) displaying, by the client application, the one or more overlays over the web page in the embedded browser.
A lecithinized superoxide dismutase for use in a method of treating acute respiratory distress syndrome, wherein the lecithinized superoxide dismutase is represented by the following general formula: SOD'(Q - B) m wherein, SOD' represents a residue of a human superoxide dismutase containing copper and zinc in an active center thereof and is a residue of a modified superoxide dismutase in which an amino acid at a 111-position in an amino acid sequence of a human superoxide dismutase is converted into S-(2-hydroxyethylthio)cysteine; Q represents a chemical crosslinking wherein Q in the general formula is - C -(CH 2) n -C -, wherein n represents an integer of 2 to 10; B represents a residue of lysolecithin, in which a hydrogen atom of a hydroxyl group is removed from the lysolecithin having the hydroxyl group at the 2-position of glycerol; and m is the average number of bonds of the lysolecithin relative to one molecule of the superoxide dismutase and represents an integer of 4.
A method for maskless selective etching of a nanostructure, the method comprising: providing the nanostructure having a main surface delimited by, in relation to the main surface, inclined surfaces, wherein an inclination angle (α) for the inclined surfaces in relation to the main surface is larger than 10°, wherein the nanostructure is formed of GaP or Si; and subjecting the nanostructure to Atomic Layer Etching comprising cyclic etch process where each cycle comprises subjecting the nanostructure for surface modification by one or more of chemisorption, deposition, conversion and extraction and subjecting the nanostructure for a particle beam consisting of particles having an energy of less than 1000 eV, wherein the particle beam having a direction being parallel with a surface normal to the main surface within a deviation of ±20°, preferably within a deviation of ±10°; whereby selective etching of the main surface relative to the inclined surfaces is achieved such that a recess in the nanostructure is formed, the recess having its opening at the main surface of the nanostructure. providing the nanostructure having a main surface delimited by, in relation to the main surface, inclined surfaces, wherein an inclination angle (α) for the inclined surfaces in relation to the main surface is larger than 10°, wherein the nanostructure is formed of GaP or Si; and subjecting the nanostructure to Atomic Layer Etching comprising cyclic etch process where each cycle comprises subjecting the nanostructure for surface modification by one or more of chemisorption, deposition, conversion and extraction and subjecting the nanostructure for a particle beam consisting of particles having an energy of less than 1000 eV, wherein the particle beam having a direction being parallel with a surface normal to the main surface within a deviation of ±20°, preferably within a deviation of ±10°; whereby selective etching of the main surface relative to the inclined surfaces is achieved such that a recess in the nanostructure is formed, the recess having its opening at the main surface of the nanostructure.
A near-eye display system, comprising: a waveguide configured to propagate coherent light towards a user's eye; and a laser assembly comprising one or more edge-emitting lasers (202A, 202B, 202C) and a collimating lens assembly, the collimating lens assembly including one or more collimating lenses (204A, 204B, 204C), the laser assembly configured to lase coherent light into the waveguide, each edge-emitting laser (202A, 202B, 202C) including an optical cavity having an active gain section and a passive section; wherein the active gain section is configured to amplify an optical power of light reflecting within the optical cavity, wherein the passive section increases a functional length of the optical cavity without further amplifying the optical power of the light reflecting within the optical cavity, and wherein a total length of the optical cavity is configured such that fringe interference (310, 312, 314, 316) of the coherent light (208; 514) propagating through the waveguide is avoided, wherein fringe interference creates artifacts (402, 404) in an image output from the waveguide. a waveguide configured to propagate coherent light towards a user's eye; and a laser assembly comprising one or more edge-emitting lasers (202A, 202B, 202C) and a collimating lens assembly, the collimating lens assembly including one or more collimating lenses (204A, 204B, 204C), the laser assembly configured to lase coherent light into the waveguide, each edge-emitting laser (202A, 202B, 202C) including an optical cavity having an active gain section and a passive section; wherein the active gain section is configured to amplify an optical power of light reflecting within the optical cavity, wherein the passive section increases a functional length of the optical cavity without further amplifying the optical power of the light reflecting within the optical cavity, and wherein a total length of the optical cavity is configured such that fringe interference (310, 312, 314, 316) of the coherent light (208; 514) propagating through the waveguide is avoided, wherein fringe interference creates artifacts (402, 404) in an image output from the waveguide.
A press body, adapted for a press seal having an elastomer body for contacting a conduit sealingly, said press body and a tensioning bolt for tensioning said press body, wherein said press body can be pressed onto said elastomer body by tensioning said tensioning bolt in such a way that said elastomer body contacts said conduit sealingly, and wherein further said press body comprises a read out member at which a force transmitted to said elastomer body during said tensioning of said tensioning bolt can be read out, wherein further said press body comprises a first press body part (22, 23, 31), a second press body part (21, 32) and a deformation member (29, 51), wherein said first press body part (22, 23, 31) is adapted for a contact with said tensioning bolt so that said tensioning bolt transmits a force onto said first press body part (22, 23, 31) during said tensioning and said second press body part (21, 32) is adapted for contacting said elastomer body with a contact surface (28a,b) and wherein further said first press body part (22, 23, 31) and said second press body part (21, 32) are adapted for being movable relatively to each other via said deformation member (29, 51) as a bearing and are adapted for being in a relative position in dependence of said force transmitted to said elastomer body, wherein said relative position can be read out at said read out member, characterized in that said deformation member (29, 51) is different from said elastomer body.
A Stability and Control Augmentation System, SCAS, module comprising first and second SCAS actuators (201', 202'), each SCAS actuator comprising: a mechanical component that translates rotational motion to linear motion along a first axis of said SCAS; one or more electric motors for driving linear movement of the mechanical component in response to a command signal; and one or more angular transducers (2011, 2021) to detect the position of the SCAS actuator along the first axis, and wherein the mechanical component of said first and second SCAS actuators are each operatively connected to a lever (16, 18) or balance beam to provide linear outputs thereto, and wherein said lever or balance beam is arranged to sum or otherwise combine the linear outputs provided by said first and second SCAS actuators, and wherein the mechanical component includes a nut, driven by the one or more electric motors, via a roller-screw or a ballscrew, and connected to the lever or balance beam. a mechanical component that translates rotational motion to linear motion along a first axis of said SCAS; one or more electric motors for driving linear movement of the mechanical component in response to a command signal; and one or more angular transducers (2011, 2021) to detect the position of the SCAS actuator along the first axis, and wherein the mechanical component of said first and second SCAS actuators are each operatively connected to a lever (16, 18) or balance beam to provide linear outputs thereto, and wherein said lever or balance beam is arranged to sum or otherwise combine the linear outputs provided by said first and second SCAS actuators, and wherein the mechanical component includes a nut, driven by the one or more electric motors, via a roller-screw or a ballscrew, and connected to the lever or balance beam.
A radio receiver device arranged to receive a radio signal including a data packet having an address portion and a payload portion, said radio receiver comprising: a first demodulation circuit portion arranged to demodulate the data packet and produce a first estimate of the address portion and a first estimate of the payload portion; a second demodulation circuit portion arranged to demodulate the data packet and produce a second estimate of the payload portion, wherein the first demodulation circuit portion comprises a low-performance demodulator and the second demodulation circuit portion comprises a high-performance demodulator and the high-performance demodulator is more sensitive than the low-performance demodulator; a first comparison circuit portion arranged to compare said first and second estimates of the payload portion (42, 46) and produce a flag only if they are identical; and a second comparison circuit portion arranged, upon receipt of said flag, to compare said first estimate of the address portion to an expected address portion and to discard the data packet if they are not identical. a first demodulation circuit portion arranged to demodulate the data packet and produce a first estimate of the address portion and a first estimate of the payload portion; a second demodulation circuit portion arranged to demodulate the data packet and produce a second estimate of the payload portion, wherein the first demodulation circuit portion comprises a low-performance demodulator and the second demodulation circuit portion comprises a high-performance demodulator and the high-performance demodulator is more sensitive than the low-performance demodulator; a first comparison circuit portion arranged to compare said first and second estimates of the payload portion (42, 46) and produce a flag only if they are identical; and a second comparison circuit portion arranged, upon receipt of said flag, to compare said first estimate of the address portion to an expected address portion and to discard the data packet if they are not identical.