mhurhangee/patent-ind-claim-en huggingface dataset:
A medical implant , in particular a stent , for implantation in an animal body and/or a human body , comprising a base body , which comprises at least two webs (18a, 18a', 18b, 18b'; 20a, 20a', 20b, 20b') having at least two deflection points (24a, 24b; 26a, 26b) located opposite one another in the axial direction , and at least one adjusting means (28a, 28b; 30a, 30b) acting on the deflection points (24a, 24b; 26a, 26b) for adjusting an extension of the base body in the circumferential direction , characterized in that an orientation of a direction of the respective stent (18a, 18a', 18b, 18b'; 20a, 20a', 20b, 20b') changes at the respective deflection point (24a, 24b; 26a, 26b), a web being a structure of the base body that extends in the circumferential direction of the implant and has a meander or wave shape, it being possible to shorten an axial distance between the two deflection points (24a, 24b; 26a, 26b) using the adjusting means (28a, 28b; 30a, 30b).
A planar magnet for magnetic density separation, comprising an array of pole pieces succeeding in longitudinal direction of a mounting plane , each pole piece having a body extending transversely along the mounting plane with a substantially constant cross section , wherein each pole piece includes a top segment with a top surface that is curved to distribute a magnetic field associated with the top surface , wherein the top segments of the pole pieces have the same basic curvature, characterized in that the leading and/or trailing pole pieces at the respective leading end and/or trailing end of the magnet are of a width (x1) that is smaller than the width (x2) of any of the pole pieces interposed between the leading and trailing pole pieces, but that is larger than half the width of any of the pole pieces interposed between the leading and trailing pole pieces.
A controller for a shovel , comprising: a motion predicting part configured to predict a motion of the shovel , characterized by an alerting part configured to alert an area surrounding the shovel , before a start of a predetermined motion of the shovel , that the predetermined motion is to be performed, when the motion predicting part predicts that the shovel next performs the predetermined motion. a motion predicting part configured to predict a motion of the shovel , characterized by an alerting part configured to alert an area surrounding the shovel , before a start of a predetermined motion of the shovel , that the predetermined motion is to be performed, when the motion predicting part predicts that the shovel next performs the predetermined motion.
A method for determining the thickness of the paved layer paved by a road paver by means of a self-propelled road roller , comprising the steps: a) establishing a height reference; b) creating a height profile of the surface to be paved by one or more road rollers by compaction to prepare the surface or by the road paver driving over the surface to be paved; c) paving the paved layer by the road paver ; d) measuring the elevation of a height reference sensor of a self-propelled road roller , which compacts the paving layer behind the road paver in relation to the height reference; e) measuring the position of the height reference sensor of the self-propelled road roller from step (d) in relation to a ground surface of the road roller ; f) determining a height profile of the paved surface from the position of the height reference sensor in relation to the height reference and the position of the height reference sensor in relation to the ground surface of the road roller ; and g) determining the thickness (D) of the paved layer from the two height profiles. a) establishing a height reference; b) creating a height profile of the surface to be paved by one or more road rollers by compaction to prepare the surface or by the road paver driving over the surface to be paved; c) paving the paved layer by the road paver ; d) measuring the elevation of a height reference sensor of a self-propelled road roller , which compacts the paving layer behind the road paver in relation to the height reference; e) measuring the position of the height reference sensor of the self-propelled road roller from step (d) in relation to a ground surface of the road roller ; f) determining a height profile of the paved surface from the position of the height reference sensor in relation to the height reference and the position of the height reference sensor in relation to the ground surface of the road roller ; and g) determining the thickness (D) of the paved layer from the two height profiles.
An audio processing method comprising: receiving subband signals corresponding to audio content of a reference signal in respective frequency subbands; receiving subband signals corresponding to audio content of a response signal in the respective frequency subbands; forming filtered inband references by applying respective filters to the subband signals of the reference signal; and for at least one frequency subband: forming one or more filtered crossband references by multiplying, by one or more scalar factors , one or more filtered inband references of one or more other frequency subbands; forming a composite filtered reference by summing the filtered inband reference corresponding to the frequency subband and the one or more filtered crossband references; computing a residual signal as a difference between the composite filtered reference and the subband signal of the response signal corresponding to the frequency subband; and adjusting , based on the residual signal , the one or more scalar factors and the filter applied to the subband signal of the reference signal corresponding to the frequency subband. receiving subband signals corresponding to audio content of a reference signal in respective frequency subbands; receiving subband signals corresponding to audio content of a response signal in the respective frequency subbands; forming filtered inband references by applying respective filters to the subband signals of the reference signal; and for at least one frequency subband: forming one or more filtered crossband references by multiplying, by one or more scalar factors , one or more filtered inband references of one or more other frequency subbands; forming a composite filtered reference by summing the filtered inband reference corresponding to the frequency subband and the one or more filtered crossband references; computing a residual signal as a difference between the composite filtered reference and the subband signal of the response signal corresponding to the frequency subband; and adjusting , based on the residual signal , the one or more scalar factors and the filter applied to the subband signal of the reference signal corresponding to the frequency subband. forming one or more filtered crossband references by multiplying, by one or more scalar factors , one or more filtered inband references of one or more other frequency subbands; forming a composite filtered reference by summing the filtered inband reference corresponding to the frequency subband and the one or more filtered crossband references; computing a residual signal as a difference between the composite filtered reference and the subband signal of the response signal corresponding to the frequency subband; and adjusting , based on the residual signal , the one or more scalar factors and the filter applied to the subband signal of the reference signal corresponding to the frequency subband.
A blood flow sensor comprising: an optical sensor portion which has a contact surface contacting a subject and which receives reflected light from the subject through the contact surface , and then outputs a signal; a holding portion holding the optical sensor portion so as to be movable in movement directions crossing the contact surface ; a first elastic body energizing the optical sensor portion in a first direction where the contact surface goes away from the holding portion among the movement directions; characterized by a moving member energized in the first direction by the first elastic body ; and a pressure sensor abutting on the moving member by movement of the moving member in a second direction opposite to the first direction against energization force of the first elastic body , detecting the abutment, and then outputting a signal. an optical sensor portion which has a contact surface contacting a subject and which receives reflected light from the subject through the contact surface , and then outputs a signal; a holding portion holding the optical sensor portion so as to be movable in movement directions crossing the contact surface ; a first elastic body energizing the optical sensor portion in a first direction where the contact surface goes away from the holding portion among the movement directions; characterized by a moving member energized in the first direction by the first elastic body ; and a pressure sensor abutting on the moving member by movement of the moving member in a second direction opposite to the first direction against energization force of the first elastic body , detecting the abutment, and then outputting a signal.
An additive-manufacturing build-material container comprising a reservoir to hold build material; a build-material outlet structure to allow build material to exit the reservoir through an outlet opening in a top portion of the reservoir a longitudinal collection unit comprising a longitudinal, substantially rigid, tube to collect build material from a gravitational bottom and guide the build material to the outlet opening at the top portion, wherein the longitudinal collection unit extends from said top portion to the bottom portion of the reservoir, and an end portion of the longitudinal collection tube has lateral openings to admit build material; and a bottom venting structure comprising a vent-gas delivery opening to deliver vent gas into a bottom portion of the reservoir.
Tool holder having a tool receptacle for frictionally clamping a tool shank in place, wherein, between the tool shank and the clamping face of the tool holder, a sleeve having a cylindrical cross section is located, via which the tool shank is subjected to the pressure generating the friction fit by the tool holder , characterized in that at least one of the bearing surfaces of the sleeve is interrupted by micro-clearances that form a spring element which, on account of its shallow depth, forms a solid block after a defined, short spring travel, wherein the depth of the micro-clearances measures 0.01 to 0.1 mm.
A ground structure of a solar heat collecting device comprising: a first heat transfer fluid flow path through which a heat transfer fluid receiving solar heat flows; and a plurality of first supports formed using a first conductive material that supports the first heat transfer fluid flow path , wherein the first heat transfer fluid flow path is warmed by being energized, characterized in that : some of the first supports among the plurality of first supports are grounded via a cable , which is connected to the some first supports via a dissimilar material joining member and formed using a second conductive material, all other first supports among the plurality of first supports are grounded via a connection member formed using the first conductive material, and the second conductive material has higher conductivity than the first conductive material. a first heat transfer fluid flow path through which a heat transfer fluid receiving solar heat flows; and a plurality of first supports formed using a first conductive material that supports the first heat transfer fluid flow path , wherein the first heat transfer fluid flow path is warmed by being energized, characterized in that : some of the first supports among the plurality of first supports are grounded via a cable , which is connected to the some first supports via a dissimilar material joining member and formed using a second conductive material, all other first supports among the plurality of first supports are grounded via a connection member formed using the first conductive material, and the second conductive material has higher conductivity than the first conductive material. some of the first supports among the plurality of first supports are grounded via a cable , which is connected to the some first supports via a dissimilar material joining member and formed using a second conductive material, all other first supports among the plurality of first supports are grounded via a connection member formed using the first conductive material, and the second conductive material has higher conductivity than the first conductive material.
A top mount self-locking mechanism for toilets, wherein the top mount self-locking mechanism comprises an outer cylinder , a limiting clamp spring , a rotating shaft and a positioning sleeve ; the limiting clamp spring is arranged in the outer cylinder in a sleeved mode, the rotating shaft is arranged at an axis part of the outer cylinder , and the positioning sleeve is arranged on the rotating shaft in a sleeving mode and moves along with the rotating shaft , wherein the limiting clamp spring is annular and comprises a first convex rib and a second convex rib , and the first convex rib and the second convex rib face the rotating shaft and are arranged on a longitudinal position of the limiting clamp spring ; and shifting pieces are arranged on an outer side of the positioning sleeve and located between the first convex rib and the second convex rib .
A sound attenuation panel comprising: an incident wall defining an aperture therethrough; and a frame unit connected to the incident wall, the frame unit including multiple spoke members spaced apart from one another and radially extending from one or more central hub openings of the frame unit, the one or more central hub openings aligning with the aperture of the incident wall, wherein the frame unit defines channels between adjacent pairs of the spoke members, and wherein the frame unit is configured to receive sound waves into the one or more central hub openings through the aperture of the incident wall to dissipate the sound waves through the channels between the spoke members, and wherein the spoke members of the frame unit are seamlessly connected to the incident wall to define a one-piece, monolithic structure. an incident wall defining an aperture therethrough; and a frame unit connected to the incident wall, the frame unit including multiple spoke members spaced apart from one another and radially extending from one or more central hub openings of the frame unit, the one or more central hub openings aligning with the aperture of the incident wall, wherein the frame unit defines channels between adjacent pairs of the spoke members, and wherein the frame unit is configured to receive sound waves into the one or more central hub openings through the aperture of the incident wall to dissipate the sound waves through the channels between the spoke members, and wherein the spoke members of the frame unit are seamlessly connected to the incident wall to define a one-piece, monolithic structure.
A scheduling method for voice data, comprising: judging (S1) whether a semi-persistent scheduling mode is enabled, and whether a User Equipment, UE, supports the semi-persistent scheduling mode; if the semi-persistent scheduling mode is enabled and the UE supports the semi-persistent scheduling mode, implementing scheduling (S2) in the semi-persistent scheduling mode; and if the semi-persistent scheduling mode is not enabled or the UE does not support the semi-persistent scheduling mode, judging (S3) whether a dynamic delay scheduling mode is enabled; if so, implementing (S4) the dynamic delay scheduling mode, wherein the implementing (S4) the dynamic delay scheduling mode comprises scheduling by binding two consecutive voice data packets and scheduling the bound voice data packets by means of one PDCCH; otherwise, implementing (S5) a dynamic scheduling mode. judging (S1) whether a semi-persistent scheduling mode is enabled, and whether a User Equipment, UE, supports the semi-persistent scheduling mode; if the semi-persistent scheduling mode is enabled and the UE supports the semi-persistent scheduling mode, implementing scheduling (S2) in the semi-persistent scheduling mode; and if the semi-persistent scheduling mode is not enabled or the UE does not support the semi-persistent scheduling mode, judging (S3) whether a dynamic delay scheduling mode is enabled; if so, implementing (S4) the dynamic delay scheduling mode, wherein the implementing (S4) the dynamic delay scheduling mode comprises scheduling by binding two consecutive voice data packets and scheduling the bound voice data packets by means of one PDCCH; otherwise, implementing (S5) a dynamic scheduling mode.
A protective cap for an imaging device, comprising: a hollow protective cap body having a front surface, a shell surface and an open rear end through which the imaging device can be inserted into the protective cap; a recess disposed in the front surface and having a bottom which seals the interior cavity from the recess bottom, wherein the bottom comprises a transparent material; characterized in that the protective cap further comprises: at least one channel disposed in the front portion of the protective cap body below the front surface; wherein the at least one channel has a first opening disposed in the side wall of the recess and a second opening disposed in the shell surface of the protective cap body, and wherein the at least one channel provides fluid communication between the recess and the outer environment of the protective cap. a hollow protective cap body having a front surface, a shell surface and an open rear end through which the imaging device can be inserted into the protective cap; a recess disposed in the front surface and having a bottom which seals the interior cavity from the recess bottom, wherein the bottom comprises a transparent material; characterized in that the protective cap further comprises: at least one channel disposed in the front portion of the protective cap body below the front surface; wherein the at least one channel has a first opening disposed in the side wall of the recess and a second opening disposed in the shell surface of the protective cap body, and wherein the at least one channel provides fluid communication between the recess and the outer environment of the protective cap. at least one channel disposed in the front portion of the protective cap body below the front surface; wherein the at least one channel has a first opening disposed in the side wall of the recess and a second opening disposed in the shell surface of the protective cap body, and wherein the at least one channel provides fluid communication between the recess and the outer environment of the protective cap.
A method for localizing individual emitters (E) in a sample with a first localization step comprising the method steps - illuminating the sample with illumination light (B), wherein the illumination light (B) induces or modulates light emissions of an emitter (E); - detecting the light emissions of the emitter (E); - determining the position of the emitter (E) in the sample from the detected light emissions; and a second localization step with increased accuracy compared to the first localization step, comprising the method steps - illuminating the emitter (E) with an intensity distribution of the illumination light (B) or another illumination light comprising a local minimum in at least one spatial direction at illumination positions which are arranged around the position of the emitter (E) determined in the first localization step; - detecting the light emissions of the emitter (E) for the illumination positions ; - determining the position of the emitter (E) from the light emissions detected for the illumination positions ; characterized in that the position of the emitter (E) determined in the first localization step comprises a systematic deviation from the position of the same emitter (E) determined in the second localization step, wherein the systematic deviation is defined by an occurrence of deviations between the first localization step and the second localization step which are equal within the measurement accuracy in the case of repeated localizations of one and the same emitter (E), and in that a position correction compensating for the systematic deviation is used to determine the illumination positions in the second localization step in order to assign the position of an emitter (E) determined in the first localization step to a corresponding position of the emitter (E) in the second localization step. - illuminating the sample with illumination light (B), wherein the illumination light (B) induces or modulates light emissions of an emitter (E); - detecting the light emissions of the emitter (E); - determining the position of the emitter (E) in the sample from the detected light emissions; and a second localization step with increased accuracy compared to the first localization step, comprising the method steps - illuminating the emitter (E) with an intensity distribution of the illumination light (B) or another illumination light comprising a local minimum in at least one spatial direction at illumination positions which are arranged around the position of the emitter (E) determined in the first localization step; - detecting the light emissions of the emitter (E) for the illumination positions ; - determining the position of the emitter (E) from the light emissions detected for the illumination positions ;
Parking assistance system for a motor vehicle allowing the vehicle to be parked from a traffic lane into an available parking space and allowing it to leave said parking space to move onto the traffic lane, said motor vehicle comprising an obstacle detection system, a parking space detection system, steering angle-controllable electric power steering, a torque-controllable engine and braking system, an automatic transmission or what is known as a "shift-by-wire" system, at least one odometric sensor, an accelerometer, a means for activating an automatic control function and an accelerator pedal (P), characterized in that the parking assistance system comprises a speed regulation module that computes, at all times of the manoeuvre, a speed setpoint on the basis of a maximum speed value (Vmax), of a remaining distance (D) to be covered as computed by a trajectory perception and planning system and of the percentage (%P) by which the accelerator pedal (P) is pressed down by the driver, and in that the parking assistance system comprises a module for verifying the necessary conditions for starting the parking manoeuvre and for the driver to confirm the manoeuvre, the necessary conditions comprising: at least one parking space is found, the vehicle is in the correct position to carry out the parking manoeuvre, the vehicle is stationary and the indicator lights are actuated.