mhurhangee/ep-ind-claims huggingface dataset:
Chain inner plate for a roller chain, having - an inner side and an outer side, - two ends having annular regions which each have a round outer contour, and - a connection region, which connects the two annular regions, - and two collars, of which in each case one collar is arranged at the inner side directly adjacent to each of the two annular regions, - wherein the connection region of the inner side has a recess having a material thickness which is smaller than a material thickness of the annular regions, characterized in that a surface of the recess - has a first curved part-face which adjoins - a planar part-face or - a second curved part-face and - which has at least one tangential transition when viewed in cross-section. - an inner side and an outer side, - two ends having annular regions which each have a round outer contour, and - a connection region, which connects the two annular regions, - and two collars, of which in each case one collar is arranged at the inner side directly adjacent to each of the two annular regions, - wherein the connection region of the inner side has a recess having a material thickness which is smaller than a material thickness of the annular regions, - has a first curved part-face which adjoins - a planar part-face or - a second curved part-face and - which has at least one tangential transition when viewed in cross-section.
Filtering vision element forming a windshield or rearview mirror for a road vehicle on which the element is mounted, and adapted in at least a portion of a vision surface of the element, called filtering portion, to transmit or reflect towards a vehicle's driver a radiation which has, outside the vehicle and before reaching the vision surface, a linear polarization parallel to a filtering direction which is fixed relative to the vehicle, with a lower attenuation in comparison to another radiation which has, outside the vehicle, a linear polarization contained in a plane perpendicular to the filtering direction, the vision surface comprising a lower region and an upper region which is located higher than the lower region relative to the vehicle and to a mounting position of the filtering vision element in said vehicle, said filtering portion corresponding either to the lower region or to the upper region, and the other one among the lower region and upper region, which does not correspond to said filtering portion, being adapted to transmit or reflect towards the driver both radiations which have, outside the vehicle, the linear polarizations respectively parallel to the filtering direction and contained in the plane perpendicular to said filtering direction, so that a difference in attenuation between said linear polarizations has distinct values in the lower and upper regions, wherein the lower region of the vision surface is adapted to transmit or reflect towards the driver a radiation which has, outside the vehicle and before reaching the vision surface, a horizontal linear polarization with greater attenuation in comparison to a radiation which has, outside the vehicle, a linear polarization contained in a vertical plane relative to the vehicle and to the mounting position of the filtering vision element in said vehicle, the filtering vision element being characterized in that the upper region of the vision surface is adapted to transmit or reflect towards the driver the radiation which has, outside the vehicle and before reaching the vision surface, the horizontal linear polarization with less attenuation in comparison to the radiation which has, outside the vehicle, the linear polarization contained in the vertical plane.
A seatbelt control device comprising: a first driving circuit that is configured to drive a motor of a motorized seat belt at a driver seat of a vehicle; a second driving circuit that is configured to drive a motor of a motorized seatbelt at a front passenger seat of the vehicle and a motor (3Y, 4Y) of a motorized seatbelt (3, 4) at a rear seat of the vehicle; and a control section that is configured to control the first driving circuit and the second driving circuit in accordance with input signals. a first driving circuit that is configured to drive a motor of a motorized seat belt at a driver seat of a vehicle; a second driving circuit that is configured to drive a motor of a motorized seatbelt at a front passenger seat of the vehicle and a motor (3Y, 4Y) of a motorized seatbelt (3, 4) at a rear seat of the vehicle; and a control section that is configured to control the first driving circuit and the second driving circuit in accordance with input signals.
A method to manufacture a dual investment solid mold for use in manufacturing a reticulated metal foam, the method comprising: pre-investing a precursor with a diluted pre-investment ceramic plaster to encapsulate the precursor, wherein the precursor is a reticulated foam, wherein the diluted pre-investment ceramic plaster is 55:100 water to powder ratio; and investing the encapsulated precursor with a ceramic plaster, wherin the ceramic plasteris more rigid than the pre-investment ceramic plaster. pre-investing a precursor with a diluted pre-investment ceramic plaster to encapsulate the precursor, wherein the precursor is a reticulated foam, wherein the diluted pre-investment ceramic plaster is 55:100 water to powder ratio; and investing the encapsulated precursor with a ceramic plaster, wherin the ceramic plasteris more rigid than the pre-investment ceramic plaster.
A composition for use in preventing or treating wound, comprising one or more indirubin derivative selected from Chemical Formulas 1-4 as an active ingredient: wherein the wound is caused by diabetic wound.
A computer-implemented system, comprising: a speech recognition component for outputting an Asian character based on speech input; and a correction component for receiving a user selection of a correction method comprising a character-in-word method or a character decomposition method for generating a corrected output using the selected correction method based on an incorrect output by the speech recognition component, wherein the correction component includes a spelling wizard that facilitates user interaction vocally and manually for selecting and correcting the incorrect output, wherein, in the character-in-word method, the spelling wizard is configured to, in response to the user voicing a word that contains the desired character, present a list of characters contained in the word, and to receive a selection of a character to replace the incorrect output, and wherein, in the decomposition method, the spelling wizard is configured to, in response to the user voicing constituent parts of the desired character, present a list of possible characters containing the constituent parts, and to receive a selection of a character to replace the incorrect output. a speech recognition component for outputting an Asian character based on speech input; and a correction component for receiving a user selection of a correction method comprising a character-in-word method or a character decomposition method for generating a corrected output using the selected correction method based on an incorrect output by the speech recognition component, wherein the correction component includes a spelling wizard that facilitates user interaction vocally and manually for selecting and correcting the incorrect output, wherein, in the character-in-word method, the spelling wizard is configured to, in response to the user voicing a word that contains the desired character, present a list of characters contained in the word, and to receive a selection of a character to replace the incorrect output, and wherein, in the decomposition method, the spelling wizard is configured to, in response to the user voicing constituent parts of the desired character, present a list of possible characters containing the constituent parts, and to receive a selection of a character to replace the incorrect output.
Combination of a laser system and an interface unit for positioning a human eye to be treated relative to the laser system, wherein the interface unit has at least one first positioning surface for positioning the interface unit relative to the laser system and also a second positioning surface for bearing against the eye, wherein the interface unit provides a path passing through the second positioning surface for the radiation of the laser system, wherein the interface unit comprises an integrally produced interface body that forms both the at least one first positioning surface and the second positioning surface, wherein the interface body has a spacer cone enclosing the path and also a contact element for bearing against the eye, said contact element being provided at the narrow end of the spacer cone, characterized in that the interface body at the wide end of the spacer cone is embodied with a mounting flange projecting radially from the spacer cone, said mounting flange extending all around the spacer cone and being expanded on part of its circumferential extent to form a gripping plate, wherein the laser system provides an insert into which the interface unit is radially insertable by the mounting flange and in which the interface unit is fixed axially relative to the laser system.
Apparatus for monitoring the process performance of a laser system with a high- power optical fiber cable, specifically an optical fiber cable made for transmitting power levels up to and exceeding 20 kW, having an entrance end for an incident beam-light and an exit end where the beam-light is leaving the optical fiber, and wherein at least one of the ends is provided with a connector device (4,5) having sensor means for monitoring the optical fiber cable status, characterized in - that the sensor means are located inside the connector device (4,5) and arranged for monitoring and controlling a laser application process during action as well as detection of conditions within the connector device, by sensing scattered light in the form of beam light, which is the laser beam going from the laser source towards the application process, as well as process light, which is the light sent back from the laser application process; - that a fiber interlock circuit is located inside the connector device (4,5); and - that the sensor means are connected to the fiber interlock circuit in a closed loop circuit, to activate an interlock break when measured signals are higher than threshold levels; and wherein the comparison of the signals to the threshold values is integrated in electronics inside the connector device (4,5), in order to reduce the fiber interlock circuit response time. - that the sensor means are located inside the connector device (4,5) and arranged for monitoring and controlling a laser application process during action as well as detection of conditions within the connector device, by sensing scattered light in the form of beam light, which is the laser beam going from the laser source towards the application process, as well as process light, which is the light sent back from the laser application process; - that a fiber interlock circuit is located inside the connector device (4,5); and - that the sensor means are connected to the fiber interlock circuit in a closed loop circuit, to activate an interlock break when measured signals are higher than threshold levels; and wherein the comparison of the signals to the threshold values is integrated in electronics inside the connector device (4,5), in order to reduce the fiber interlock circuit response time.
A medicament comprising a) a therapeutically effective amount of the compound trisodium [3-((1S,3R)-1-biphenyl-4-ylmethyl-3-ethoxycarbonyl-1-butylcarbamoyl)propionate- -3'-methyl-2'-(pentanoyl{2"-(tetrazol-5-ylate)biphenyl-4'-ylmethyl}amino)butyrate] hemipentahydrate or b) a combination comprising a therapeutically effective amount of a 1:1 molar ratio of the individual compounds (i) valsartan or a pharmaceutically acceptable salt thereof; and (ii) sacubitril or a pharmaceutically acceptable salt thereof, for use in reducing the risk rate of cardiovascular death and/or heart failure hospitalizations in a human patient suffering from chronic heart failure classified as NYHA class II, III or IV and systolic dysfunction. a) a therapeutically effective amount of the compound trisodium [3-((1S,3R)-1-biphenyl-4-ylmethyl-3-ethoxycarbonyl-1-butylcarbamoyl)propionate- -3'-methyl-2'-(pentanoyl{2"-(tetrazol-5-ylate)biphenyl-4'-ylmethyl}amino)butyrate] hemipentahydrate or b) a combination comprising a therapeutically effective amount of a 1:1 molar ratio of the individual compounds (i) valsartan or a pharmaceutically acceptable salt thereof; and (ii) sacubitril or a pharmaceutically acceptable salt thereof, (i) valsartan or a pharmaceutically acceptable salt thereof; and (ii) sacubitril or a pharmaceutically acceptable salt thereof,
A method for measuring immunoglobulin G-mediated complement activation, comprising the following steps: a) preparing a sample A of immunoglobulin G (IgG) and a sample B comprising native serum, said native serum optionally being diluted in a dilution buffer; b) mixing sample A with sample B at a ratio of "amount of IgG in A in grams": "volume of native serum in B in liters" of between 30 and 75, at a temperature of between 2°C and 6°C, and subsequently incubating the resulting reaction mixture at a temperature of between 35°C and 40°C for a period of between 30 minutes and 2 hours; c) cooling the reaction mixture obtained at the end of step b) to a temperature of between 0°C and 4°C in the presence of EDTA; d) measuring the amount of C5a fragment in the cooled reaction mixture obtained in c). a) preparing a sample A of immunoglobulin G (IgG) and a sample B comprising native serum, said native serum optionally being diluted in a dilution buffer; b) mixing sample A with sample B at a ratio of "amount of IgG in A in grams": "volume of native serum in B in liters" of between 30 and 75, at a temperature of between 2°C and 6°C, and subsequently incubating the resulting reaction mixture at a temperature of between 35°C and 40°C for a period of between 30 minutes and 2 hours; c) cooling the reaction mixture obtained at the end of step b) to a temperature of between 0°C and 4°C in the presence of EDTA; d) measuring the amount of C5a fragment in the cooled reaction mixture obtained in c).
Process for preparing compounds of the formula R 1 R 2 N-(C=S)-S-S-(CH 2) n -S-S(C=S)-NR 1 R 2, in which the R 1 and R 2 radicals are each independently hydrogen, alkyl, cycloalkyl, aralkyl, phenyl or substituted phenyl or Alkylaryl, or, together with the particular nitrogen atom, form a heterocyclic ring having 4 to 8 carbon atoms and n is an integer from 2 to 8, characterized in that the compounds of the formula [R 1 R 2 N-(C=S)-S] z Me 1 in which the R 1 and R 2 radicals are each as defined in the formula and z = 1 when Me 1 is an alkali metal or ammonium ion and z = 2 when Me 1 is an alkaline earth metal ion, are reacted with the compounds of the formula Me 2 O 3 S S-(CH 2) n -S SO 3 Me 3 where Me 2 and Me 3 are the same or different and are each monovalent metal ions or ammonium ions and n is as defined in the formula in the presence of water, carbonyl compounds and organic solvents in a pH range of 7 to 14 at a reaction temperature of 0° to 90°C up to a yield of at least 80% of theory based on the salts of the formula, the compounds of the formula being used in amounts of 180 to 250 mol%, based on the moles of compounds of the formula used, the carbonyl compounds in amounts of 5 to 600 mol%, based on the moles of compounds of the formula used, and the organic solvents in amounts of 2 to 100 000 parts by weight based on 100 parts by weight of the theoretically expected amount of compounds of the formula.
A heart rate detection method used in an earphone, wherein said method comprises: providing a cavity inside the earphone, and installing a first microphone in said cavity; the position where an opening of said cavity clings to a shell of the earphone is the position where the shell of the earphone clings to an auricle of a wearer when the earphone is worn; the shell of the earphone is provided with a hole at a position where the opening of said cavity clings to, and when the earphone is worn, said cavity and the auricle which said hole clings to form an enclosed space; collecting signals generated by pressure change in said cavity by the first microphone when the earphone is worn; taking the signals collected by the first microphone as signals related to heart rate; and detecting heart rate according to the signals related to heart rate. providing a cavity inside the earphone, and installing a first microphone in said cavity; the position where an opening of said cavity clings to a shell of the earphone is the position where the shell of the earphone clings to an auricle of a wearer when the earphone is worn; the shell of the earphone is provided with a hole at a position where the opening of said cavity clings to, and when the earphone is worn, said cavity and the auricle which said hole clings to form an enclosed space; collecting signals generated by pressure change in said cavity by the first microphone when the earphone is worn; taking the signals collected by the first microphone as signals related to heart rate; and detecting heart rate according to the signals related to heart rate.
A control method for controlling periodic actuation signals (S1, S2,... Sn) sent respectively to actuation blocks (B1, B2,...Bn) of the inductors (I1, I2,... In) of a cooking hob, comprising a synchronization step implemented periodically at a predetermined time (t1, t2, t3, t4) of a predefined periodic timing signal (Sc), said periodic actuation signals (S1, S2,... Sn) being stopped and/or started at the synchronization step, characterized in that when one of said periodic actuation signals is not activated for at least one given period (T1, T2) of the predefined periodic timing signal (Sc), said periodic actuation signal is started at the synchronization step implemented at said predetermined time of a following period later than said time given period (T1, T2).
A hot runner nozzle (10, 30, 44) comprising at least one nozzle duct (15, 31, 48) for a plasticized plastic, which ends in a nozzle tip and which can be temperature-controlled by means of a heater, wherein the hot runner nozzle (10, 30, 40) can be attached to an injection molding tool or the like, characterized in that the heater and the nozzle duct (15, 31, 48) are provided in a common housing of the hot runner nozzle (10, 30, 44) laterally next to one another, that the heater is accommodated in a heating duct, and that the housing encompasses at least one material recess, which is arranged between the nozzle duct (15, 31, 48) and the heater and which divides the housing adjacent to the nozzle duct (15, 31, 48) and adjoining the heater duct into housing regions, which are spaced apart from one another.
An arrangement for protecting systems and individuals in multiphase (L1; L2; L3) low-voltage power supply systems, comprising a switching element which can be triggered by the optical detection of a fault arc, characterized in that the electric energy for triggering the switching element results exclusively from the energy of the occurring fault arc, i.e. from a current source which is supplied from the voltage of the fault arc, and the switching element is formed as a thyristor which activates a device for generating a short circuit by means of a short-circuiter device, and further an electronic trigger assembly is provided which contains a bipolar transistor with insulated gate electrode (IGBT 17) as controlled current source, whose collector and emitter is switched between two phases (L1; L2), to the gate of which a stabilised reference voltage is applied, and which is in connection with a switching transistor which becomes conductive upon occurrence of a fault arc and actuates the thyristor via its output.
Method for harvesting electrical energy from the kinetic energy of water waves, comprising the steps: providing a device in the water, the device being so configured that a portion of the device is arranged above the water surface, the device comprising an electroactive polymer which is arranged between electrodes, and mechanical energy from a change in the water level being transmitted in the device to the electroactive polymer; expanding the electroactive polymer from a minimum expansion ε min to a maximum expansion ε max as a result of the mechanical action of a water wave having a propagation speed c and a wavelength λ, wherein during the expansion of the electroactive polymer there is applied thereto for a time interval Δ t load from a time t 1 to a time t load a target electrical load Q * load at which the electrical disruptive strength E max of the electroactive polymer is not exceeded; relaxing the expanded electroactive polymer from the maximum expansion ε max to the minimum expansion ε min as a result of the decreasing mechanical action of the water wave, wherein during the relaxation of the electroactive polymer it is unloaded during a time interval Δ t unload from a time t 2 to a time t unload to a residual load Q 0; and wherein the numerical value of the maximum expansion ε max required for calculating the target electrical load is estimated in advance by: estimating the maximum wave height h max of a water wave and correlating the maximum wave height h max with the maximum expansion ε max via an assignment rule. providing a device in the water, the device being so configured that a portion of the device is arranged above the water surface, the device comprising an electroactive polymer which is arranged between electrodes, and mechanical energy from a change in the water level being transmitted in the device to the electroactive polymer; expanding the electroactive polymer from a minimum expansion ε min to a maximum expansion ε max as a result of the mechanical action of a water wave having a propagation speed c and a wavelength λ, wherein during the expansion of the electroactive polymer there is applied thereto for a time interval Δ t load from a time t 1 to a time t load a target electrical load Q * load at which the electrical disruptive strength E max of the electroactive polymer is not exceeded; relaxing the expanded electroactive polymer from the maximum expansion ε max to the minimum expansion ε min as a result of the decreasing mechanical action of the water wave, wherein during the relaxation of the electroactive polymer it is unloaded during a time interval Δ t unload from a time t 2 to a time t unload to a residual load Q 0; and wherein the numerical value of the maximum expansion ε max required for calculating the target electrical load is estimated in advance by: estimating the maximum wave height h max of a water wave and correlating the maximum wave height h max with the maximum expansion ε max via an assignment rule. estimating the maximum wave height h max of a water wave and correlating the maximum wave height h max with the maximum expansion ε max via an assignment rule.
Load cell for determining a radial force acting on a crankshaft, the load cell comprising the following features: - a receiving sleeve for receiving a ring of a bearing, - a fastening ring for attaching the load cell in a transmission housing, - axial support areas provided on the fastening ring for axially supporting the ring of the bearing, - measuring regions for receiving radial forces of the receiving sleeve and which connect the receiving sleeve with the fastening ring, wherein strain sensors are attached to at least two of the measuring regions; characterized in that the measuring regions comprise measuring lugs formed as angle brackets. - a receiving sleeve for receiving a ring of a bearing, - a fastening ring for attaching the load cell in a transmission housing, - axial support areas provided on the fastening ring for axially supporting the ring of the bearing, - measuring regions for receiving radial forces of the receiving sleeve and which connect the receiving sleeve with the fastening ring, wherein strain sensors are attached to at least two of the measuring regions;