mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a sensor for detecting an analyte in a body fluid, the method comprising the following steps: a) providing a membrane layer; b) depositing at least one first electrically conductive material directly or indirectly onto the membrane layer; c) depositing at least one electrically insulating material directly or indirectly onto the at least one membrane layer and the at least one first electrically conductive material; and d) depositing at least one second electrically conductive material directly or indirectly onto the electrically insulating material. a) providing a membrane layer; b) depositing at least one first electrically conductive material directly or indirectly onto the membrane layer; c) depositing at least one electrically insulating material directly or indirectly onto the at least one membrane layer and the at least one first electrically conductive material; and d) depositing at least one second electrically conductive material directly or indirectly onto the electrically insulating material.
An agglomerated calcined diatomaceous earth product comprising at least one aluminate material, wherein the product has a cristobalite content of less than 1% by weight.
A method comprising: at a beginning (t 1) of a clock cycle (T 1), preparing a first memory and a second memory to receive data; between the beginning (ti) of the clock cycle and a beginning (t 2) of one-quarter of the clock cycle, receiving first data in the first memory; between the beginning (t 1) of the clock cycle and the beginning (t 2) of one-quarter of the clock cycle, receiving a first key in the second memory; at the beginning (t 2) of one-quarter of the clock cycle, preparing a third memory to receive an output of a logic circuit; at a beginning (t 3) of one-half of the clock cycle, generating, by the logic circuit, second data based on the first data and the first key; at a beginning (t 4) of three-quarters of the clock cycle, storing the output received from the logic circuit in the third memory; providing the second data for transmission; and erasing the first key and the first data in one-half clock cycle of generating the second data and before the end (t 5) of the clock cycle. at a beginning (t 1) of a clock cycle (T 1), preparing a first memory and a second memory to receive data; between the beginning (ti) of the clock cycle and a beginning (t 2) of one-quarter of the clock cycle, receiving first data in the first memory; between the beginning (t 1) of the clock cycle and the beginning (t 2) of one-quarter of the clock cycle, receiving a first key in the second memory; at the beginning (t 2) of one-quarter of the clock cycle, preparing a third memory to receive an output of a logic circuit; at a beginning (t 3) of one-half of the clock cycle, generating, by the logic circuit, second data based on the first data and the first key; at a beginning (t 4) of three-quarters of the clock cycle, storing the output received from the logic circuit in the third memory; providing the second data for transmission; and erasing the first key and the first data in one-half clock cycle of generating the second data and before the end (t 5) of the clock cycle.
Method for operating a vehicle treatment installation, in particular a vehicle washing installation, in which at least one vehicle surface (15; 16) is treated with at least one rotating brush (14; 24) with a brush material at an immersion depth of the brush, during the treatment of the vehicle surface the rotating brush is controlled on the basis of a sepoint for the friction of the brush material on the vehicle surface, wherein during the treatment of the vehicle surface the immersion depth of the rotating brush on the vehicle surfaces treated therewith is monitored at the setpoint in order to determine the condition of the brush material. at least one vehicle surface (15; 16) is treated with at least one rotating brush (14; 24) with a brush material at an immersion depth of the brush, during the treatment of the vehicle surface the rotating brush is controlled on the basis of a sepoint for the friction of the brush material on the vehicle surface, wherein during the treatment of the vehicle surface the immersion depth of the rotating brush on the vehicle surfaces treated therewith is monitored at the setpoint in order to determine the condition of the brush material.
An infill particle for artificial turf, wherein: said particle comprises a substrate which is impregnated with salt and said particle does not contain thermoplastic material; said substrate comprises cellulosic and/or hemicellulosic material; and said particle has a volume of up to about 512 mm 3; characterised in that said particle has a salt content of at least 5 % by weight, and said salt is dispersed throughout the particle. said particle comprises a substrate which is impregnated with salt and said particle does not contain thermoplastic material; said substrate comprises cellulosic and/or hemicellulosic material; and said particle has a volume of up to about 512 mm 3; characterised in that said particle has a salt content of at least 5 % by weight, and said salt is dispersed throughout the particle.
A rotor arrangement for an electromechanical transducer, the rotor arrangement comprising a support structure and a magnet assembly, wherein the magnet assembly comprises a base element (272, 273) and a magnet attached to a first surface of the base element, wherein a second surface of the base element opposite to the first surface of the base element comprises a contour, which is adapted to engage with a complementary contour of the support structure, wherein the support structure comprises a recess representing the complementary contour, which is adapted to engage with the contour of the magnet assembly, characterized in that the recess comprises a lateral open end being adapted for laterally inserting the magnet assembly and a lateral closed end representing a stop element, the support structure comprises a further recess comprising a lateral open end for laterally inserting a further magnet assembly and a lateral closed end representing a stop element, and the closed end of the recess and the closed end of the further recess are displaced with respect to each other along the common longitudinal direction. a support structure and a magnet assembly, wherein the magnet assembly comprises a base element (272, 273) and a magnet attached to a first surface of the base element, wherein a second surface of the base element opposite to the first surface of the base element comprises a contour, which is adapted to engage with a complementary contour of the support structure, a base element (272, 273) and a magnet attached to a first surface of the base element, wherein a second surface of the base element opposite to the first surface of the base element comprises a contour, which is adapted to engage with a complementary contour of the support structure, wherein the support structure comprises a recess representing the complementary contour, which is adapted to engage with the contour of the magnet assembly, characterized in that the recess comprises a lateral open end being adapted for laterally inserting the magnet assembly and a lateral closed end representing a stop element, the support structure comprises a further recess comprising a lateral open end for laterally inserting a further magnet assembly and a lateral closed end representing a stop element, and the closed end of the recess and the closed end of the further recess are displaced with respect to each other along the common longitudinal direction.
A projection indication device that generates a projection image to be projected on a parcel based on sensing information of the parcel, the device comprising: a processor; and a memory, wherein, by cooperating with the memory, the processor is configured to: specify the parcel based on sensing information, track the parcel based on a color image of the parcel included in the sensing information, and characterized in that tracking the parcel based on a distance image of the parcel included in the sensing information in a case where overexposure is determined to occur in the color image of the parcel on which a projection image is projected. a processor; and a memory, wherein, by cooperating with the memory, the processor is configured to: specify the parcel based on sensing information, track the parcel based on a color image of the parcel included in the sensing information, and characterized in that tracking the parcel based on a distance image of the parcel included in the sensing information in a case where overexposure is determined to occur in the color image of the parcel on which a projection image is projected. specify the parcel based on sensing information, track the parcel based on a color image of the parcel included in the sensing information, and characterized in that tracking the parcel based on a distance image of the parcel included in the sensing information in a case where overexposure is determined to occur in the color image of the parcel on which a projection image is projected.
An image processing apparatus comprising a superimposition processing block configured to compute pixel values of a display image resulting from the superimposition of a second image on a first image, the superimposition processing block comprising: a first image acquisition block configured to acquire data of the first image; a second image acquisition block configured to acquire data of the second image to be displayed on the first image in a superimposed manner; a luminance range adjustment block configured to adjust a luminance range of at least one of the first image and the second image in accordance with a predetermined rule, wherein the predetermined rule is a preset conversion rule for converting original luminance into luminance after adjustment, the conversion rule changing in accordance with an alpha value set to the second image for alpha blending processing; and an output value computation block configured to compute the pixel values of the display image by executing the alpha blending processing by use of data of the first and second images output by the luminance range adjustment block, wherein, in the adjustment of the first image, the conversion rule for use in the adjustment changes so as to monotonically increase a degree of reduction in a luminance range at the time of the adjustment as the alpha value gets larger and, in the adjustment of the second image, the conversion rule for use in the adjustment changes so as to monotonically decrease a degree of reduction in a luminance range at the time of adjustment as the alpha value gets larger. a first image acquisition block configured to acquire data of the first image; a second image acquisition block configured to acquire data of the second image to be displayed on the first image in a superimposed manner; a luminance range adjustment block configured to adjust a luminance range of at least one of the first image and the second image in accordance with a predetermined rule, wherein the predetermined rule is a preset conversion rule for converting original luminance into luminance after adjustment, the conversion rule changing in accordance with an alpha value set to the second image for alpha blending processing; and an output value computation block configured to compute the pixel values of the display image by executing the alpha blending processing by use of data of the first and second images output by the luminance range adjustment block, wherein, in the adjustment of the first image, the conversion rule for use in the adjustment changes so as to monotonically increase a degree of reduction in a luminance range at the time of the adjustment as the alpha value gets larger and, in the adjustment of the second image, the conversion rule for use in the adjustment changes so as to monotonically decrease a degree of reduction in a luminance range at the time of adjustment as the alpha value gets larger.
A route prediction system comprising: an observation unit to observe a position of a host vehicle and positions and speeds of vehicles surrounding the host vehicle; a signal processing unit to generate, on a basis of the observation results observed by the observation unit, a plurality of hypotheses with reference to combinations of braking avoidance models and left/right steering avoidance models as respective collision avoidance models for at least two detected surrounding vehicles having collision possibilities, and thus may collide with each other, to avoid collision, and calculate predicted route confidence levels of predicted routes of the at least two detected surrounding vehicles corresponding to each of the plurality of hypotheses; and a display unit to display, on a basis of the predicted route confidence levels calculated by the signal processing unit, the predicted routes and the predicted route confidence levels of the at least two detected surrounding vehicles. an observation unit to observe a position of a host vehicle and positions and speeds of vehicles surrounding the host vehicle; a signal processing unit to generate, on a basis of the observation results observed by the observation unit, a plurality of hypotheses with reference to combinations of braking avoidance models and left/right steering avoidance models as respective collision avoidance models for at least two detected surrounding vehicles having collision possibilities, and thus may collide with each other, to avoid collision, and calculate predicted route confidence levels of predicted routes of the at least two detected surrounding vehicles corresponding to each of the plurality of hypotheses; and a display unit to display, on a basis of the predicted route confidence levels calculated by the signal processing unit, the predicted routes and the predicted route confidence levels of the at least two detected surrounding vehicles.
A method of constructing a piston ring, comprising: providing a ring blank having a cross-sectional profile that includes: generally parallel upper and lower surfaces disposed between inner and outer peripheral faces; a generally tapered nose area that is formed at the bottom of the outer peripheral face, wherein the nose area comprises a nose radius into which the outer peripheral face terminates; and a hook area adjoining the nose area, wherein the hook area defines a hook shaped groove in an outer portion of the lower surface; characterized in: that the nose area comprises a nose radius into which the outer peripheral face terminates; forming the ring blank into a ring shape; and grinding the lower surface and a lower portion of the nose area generally simultaneously with a generally planar grinding surface, thereby truncating a lower portion of the nose area while grinding at least a planar portion of the lower surface. providing a ring blank having a cross-sectional profile that includes: generally parallel upper and lower surfaces disposed between inner and outer peripheral faces; a generally tapered nose area that is formed at the bottom of the outer peripheral face, wherein the nose area comprises a nose radius into which the outer peripheral face terminates; and a hook area adjoining the nose area, wherein the hook area defines a hook shaped groove in an outer portion of the lower surface; generally parallel upper and lower surfaces disposed between inner and outer peripheral faces; a generally tapered nose area that is formed at the bottom of the outer peripheral face, wherein the nose area comprises a nose radius into which the outer peripheral face terminates; and a hook area adjoining the nose area, wherein the hook area defines a hook shaped groove in an outer portion of the lower surface; that the nose area comprises a nose radius into which the outer peripheral face terminates; forming the ring blank into a ring shape; and grinding the lower surface and a lower portion of the nose area generally simultaneously with a generally planar grinding surface, thereby truncating a lower portion of the nose area while grinding at least a planar portion of the lower surface.
An energy storage device (100, 110), comprising a battery; a thermoelectric circuit provided in a proximity of an engine of a car and configured to generate a voltage based on a temperature difference; and a heating circuit configured to heat the battery based on the voltage generated by the thermoelectric circuit; characterized in that the energy storage device (100, 110) further comprises a hybrid supercapacitor, wherein the thermoelectric circuit is provided as a housing of the hybrid supercapacitor, whereat the battery is configured to heat up the electrolyte in the hybrid supercapacitor according to power dissipation via resistive heating.
Method for the processing of biomass comprising the following steps: a) fermentation of a first portion of the biomass into biogas and digestate; b) separation of the digestate obtained in step a) into a liquid fraction and a solid fraction; c) separation of nitrogen from the liquid fraction of the digestate obtained in step b) and addition of said nitrogen to the ash obtained in step e) or to the residue obtained after gasification in step e); d) drying of the solid fraction of the digestate obtained in step b); and e) incineration of the dried solid fraction of the digestate obtained in step d) to ash or gasification of the dried solid fraction of the digestate obtained in step d); and optionally: f) conversion of the biogas obtained in step a) into electricity and residual heat; and g) conversion of the heat released in the incineration of step e) and the residual heat obtained in step f) into electricity and residual heat, or conversion of the gas fraction obtained after gasification in step e) into electricity and residual heat. a) fermentation of a first portion of the biomass into biogas and digestate; b) separation of the digestate obtained in step a) into a liquid fraction and a solid fraction; c) separation of nitrogen from the liquid fraction of the digestate obtained in step b) and addition of said nitrogen to the ash obtained in step e) or to the residue obtained after gasification in step e); d) drying of the solid fraction of the digestate obtained in step b); and e) incineration of the dried solid fraction of the digestate obtained in step d) to ash or gasification of the dried solid fraction of the digestate obtained in step d); and optionally: f) conversion of the biogas obtained in step a) into electricity and residual heat; and g) conversion of the heat released in the incineration of step e) and the residual heat obtained in step f) into electricity and residual heat, or conversion of the gas fraction obtained after gasification in step e) into electricity and residual heat.
A kit for providing a sterile injectable botulinum toxin for administration by injection to achieve a therapeutic or cosmetic effect in a subject in need thereof, the kit comprising: a botulinum toxin component present in an amount suitable for injection, the botulinum toxin component selected from the group consisting of a botulinum toxin complex, reduced botulinum toxin complex, and botulinum toxin; a positively charged carrier comprising the amino acid sequence RKKRRQRRRG- 15 -GRKKRRQRRR, wherein the positively charged carrier non-covalently associates with the botulinum toxin component; and a pharmaceutically acceptable diluent suitable for injection; wherein the botulinum toxin component and the positively charged carrier are provided separately from said pharmaceutically acceptable diluent in said kit. a botulinum toxin component present in an amount suitable for injection, the botulinum toxin component selected from the group consisting of a botulinum toxin complex, reduced botulinum toxin complex, and botulinum toxin; a positively charged carrier comprising the amino acid sequence RKKRRQRRRG- 15 -GRKKRRQRRR, wherein the positively charged carrier non-covalently associates with the botulinum toxin component; and a pharmaceutically acceptable diluent suitable for injection; wherein the botulinum toxin component and the positively charged carrier are provided separately from said pharmaceutically acceptable diluent in said kit.
A surgical instrument, comprising: an anvil member; and a staple cartridge having a first tissue contacting surface and a second tissue contacting surface, wherein the first surface has a first height that defines a first gap between the anvil member and the first tissue contacting surface, the second tissue contacting surface having a second height different to the first height, the second height defining a second gap between the anvil member and the second tissue contacting surface, characterized in that the first surface is parallel with the second tissue contacting surface and longitudinally spaced therefrom along and parallel to the longitudinal axis of the instrument extending from a proximal to a distal end of the instrument and wherein the first gap is different from the second gap to provide different pressure values when the anvil member is approximated with the staple cartridge. an anvil member; and a staple cartridge having a first tissue contacting surface and a second tissue contacting surface, wherein the first surface has a first height that defines a first gap between the anvil member and the first tissue contacting surface, the second tissue contacting surface having a second height different to the first height, the second height defining a second gap between the anvil member and the second tissue contacting surface, characterized in that the first surface is parallel with the second tissue contacting surface and longitudinally spaced therefrom along and parallel to the longitudinal axis of the instrument extending from a proximal to a distal end of the instrument and wherein the first gap is different from the second gap to provide different pressure values when the anvil member is approximated with the staple cartridge.
Controller for a control device for controlling a light protection apparatus, wherein the controller comprises a processor and is configured for, in a calibration mode of the controller: causing a transition of the light protection apparatus from a first position to a second position, and registering a confirmation by a user that the second position has been reached, characterized in that the controller is configured for, in the calibration mode: measuring a travel time of the transition of the light protection apparatus from the first position to the second position, or measuring a travel time of the transition from the second position to the first position; and wherein the controller is configured to measure the travel time using a clock cycle of the processor. causing a transition of the light protection apparatus from a first position to a second position, and registering a confirmation by a user that the second position has been reached, characterized in that the controller is configured for, in the calibration mode: measuring a travel time of the transition of the light protection apparatus from the first position to the second position, or measuring a travel time of the transition from the second position to the first position; and wherein the controller is configured to measure the travel time using a clock cycle of the processor. measuring a travel time of the transition of the light protection apparatus from the first position to the second position, or measuring a travel time of the transition from the second position to the first position; and wherein the controller is configured to measure the travel time using a clock cycle of the processor.