mhurhangee/ep-ind-claims huggingface dataset:
Method for determining an optimal travel route for a fuel cell vehicle with at least one fuel cell and with a navigation system, comprising: - Providing a topographic map comprising several route sections, - Determining at least two travel routes (21a, 21b) from a start position to a destination position composed of one or more of the route sections, - Identifying those route sections along which the fuel cell is subject to an expected enhanced degradation effect, - Determining an overall degree of degradation of the fuel cell for each of the determined routes (21a, 21b) on base of the respective route (21a, 21b) with the lowest overall fuel cell degradation effect, - Choosing of that route (21a, 21b) as the optimal travel route, which comprises the lowest overall degree of degradation, characterized in that a route section is classified as one of the route sections with an increased degradation effect if an increased emission load is to be expected there. - Providing a topographic map comprising several route sections, - Determining at least two travel routes (21a, 21b) from a start position to a destination position composed of one or more of the route sections, - Identifying those route sections along which the fuel cell is subject to an expected enhanced degradation effect, - Determining an overall degree of degradation of the fuel cell for each of the determined routes (21a, 21b) on base of the respective route (21a, 21b) with the lowest overall fuel cell degradation effect, - Choosing of that route (21a, 21b) as the optimal travel route, which comprises the lowest overall degree of degradation, characterized in that a route section is classified as one of the route sections with an increased degradation effect if an increased emission load is to be expected there.
Threaded tubular connection comprising: a tubular female end extending from a main body of a first tubular member, the tubular female end comprising - a female external thread between a female shoulder (18, 24) and a female free end, and - a female internal thread, such that the female shoulder is a female intermediate shoulder located between the female external thread and the female internal thread, a tubular male end extending from a main body of a second tubular member, the tubular male end comprising - a male external thread, a male internal thread and a male shoulder, said male external thread is configured to interlock by thread engagement with the female external thread, said male internal thread is configured to interlock by thread engagement with the female internal thread, and wherein the tubular female end comprises a first machined outer surface of the female end close to the female free end, a second outer diameter above at least one thread root of the female internal thread such that the second outer diameter is bigger than a first outer diameter of the first machined outer surface, and wherein the female free end is free of axial abutment contact with the tubular male end, characterised in that the female free end is longitudinally away from any part of the tubular male end when the connection is made up. a tubular female end extending from a main body of a first tubular member, the tubular female end comprising - a female external thread between a female shoulder (18, 24) and a female free end, and - a female internal thread, such that the female shoulder is a female intermediate shoulder located between the female external thread and the female internal thread, - a female external thread between a female shoulder (18, 24) and a female free end, and - a female internal thread, such that the female shoulder is a female intermediate shoulder located between the female external thread and the female internal thread, a tubular male end extending from a main body of a second tubular member, the tubular male end comprising - a male external thread, a male internal thread and a male shoulder, said male external thread is configured to interlock by thread engagement with the female external thread, said male internal thread is configured to interlock by thread engagement with the female internal thread, and - a male external thread, a male internal thread and a male shoulder, said male external thread is configured to interlock by thread engagement with the female external thread, said male internal thread is configured to interlock by thread engagement with the female internal thread, and wherein the tubular female end comprises a first machined outer surface of the female end close to the female free end, a second outer diameter above at least one thread root of the female internal thread such that the second outer diameter is bigger than a first outer diameter of the first machined outer surface, and wherein the female free end is free of axial abutment contact with the tubular male end, characterised in that the female free end is longitudinally away from any part of the tubular male end when the connection is made up.
Rotor blade assembly for a wind turbine which comprises a fixation end at longitudinal position L=O for the fixation of the blade to the hub and essentially at the opposite end a blade tip at longitudinal position L and a suction side, a pressure side, a trailing edge, a leading edge, and a thickness at 20%L, the assembly having a length L which is larger than 40 meter, wherein said assembly comprises 3 degrees twist difference in the longitudinal range smaller than 25%L, and characterized in that the thickness at 20%L is more than 45%c.
A device for measuring oxygen saturation, the device comprising circuitry (110; 214, 245) configured to: measure a first diode voltage at a light emitting diode (160; 260; 460A, 460B) while applying a first current through the light emitting diode (160; 260; 460A, 460B); measure a second diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a second current through the light emitting diode (160; 260; 460A, 460B); measure a third diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a third current through the light emitting diode (160; 260; 460A, 460B); determine a series resistance for the light emitting diode (160; 260; 460A, 460B) based on the first diode voltage, the second diode voltage, and the third diode voltage; determine an intensity of a received photonic signal corresponding to an output photonic signal output using the light emitting diode (160; 260; 460A, 460B); determine an oxygen saturation level based on the intensity of the received photonic signal and the series resistance; and output an indication of the oxygen saturation level, wherein the circuitry (110; 214, 245) is configured to determine that the light emitting diode (160; 260; 460A, 460B) is valid based on the series resistance, and wherein the determination of the intensity of the received photonic signal is in response to the determination that the light emitting diode (160; 260; 460A, 460B) is valid. measure a first diode voltage at a light emitting diode (160; 260; 460A, 460B) while applying a first current through the light emitting diode (160; 260; 460A, 460B); measure a second diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a second current through the light emitting diode (160; 260; 460A, 460B); measure a third diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a third current through the light emitting diode (160; 260; 460A, 460B); determine a series resistance for the light emitting diode (160; 260; 460A, 460B) based on the first diode voltage, the second diode voltage, and the third diode voltage; determine an intensity of a received photonic signal corresponding to an output photonic signal output using the light emitting diode (160; 260; 460A, 460B); determine an oxygen saturation level based on the intensity of the received photonic signal and the series resistance; and output an indication of the oxygen saturation level, wherein the circuitry (110; 214, 245) is configured to determine that the light emitting diode (160; 260; 460A, 460B) is valid based on the series resistance, and wherein the determination of the intensity of the received photonic signal is in response to the determination that the light emitting diode (160; 260; 460A, 460B) is valid.
Beverage dispensing system installable on the wall of a support or column, said system comprising a dispensing tap of said beverage, a heat exchanger, arranged in contact with said dispensing tap, a dispensing assembly, said dispensing assembly having insulating means (12, 14), suitable to isolate said heat exchanger with respect to said wall, and at least one duct of said beverage to be dispensed, passing through said heat exchanger and in communication with said dispensing tap, and cooling means of said heat exchanger characterized in that said dispensing assembly is arranged straddling said wall of said support or column, said heat exchanger being arranged through said dispensing assembly, in that said dispensing assembly comprises a fixing front bushing, arranged on the front face of said wall of said support or column, and in that said insulation means comprise a fixing rear bushing, arranged on the rear face of said wall of said support or column, said rear bushing being made of thermally insulating material, coupled with said front bushing and adapted to isolate said heat exchanger from said wall.
A threshold system for preventing scale on various surfaces, the threshold system comprising: (a) a sulfonate/acrylate copolymer; b) an acrylate homopolymer, wherein a weight ratio of sulfonate/acrylate copolymer to acrylate homopolymer is between about 2:1 and about 1:2; and (c) a phosphonoalkane carboxylic acid. (a) a sulfonate/acrylate copolymer; b) an acrylate homopolymer, wherein a weight ratio of sulfonate/acrylate copolymer to acrylate homopolymer is between about 2:1 and about 1:2; and (c) a phosphonoalkane carboxylic acid.
Method for checking the origin of a reception signal received by an ultrasonic sensor (3, 5) of a motor vehicle, wherein - a transmission signal from the ultrasonic sensor (3, 5) is modulated and a predetermined code word is impressed on the transmission signal as a result of this modulation, - the received reception signal is compared with the transmission signal, and - the origin of the reception signal is determined on the basis of a result of the comparison, wherein, during the comparison of the reception signal with transmission signal, a code word is extracted from the reception signal and is compared with the code word of the transmission signal, characterized in that in order to extract the code word from the reception signal, this reception signal is subdivided into a plurality of temporal signal components (10', 11') and a partial code word is respectively assigned to each signal component (10', 11'), wherein, in order to determine the partial code words, a temporal length (T') of a first temporal signal component of the reception signal and a temporal length of at least one further temporal signal component of the reception signal are recorded and the temporal length of the further signal component is related to the temporal length (T') of the first temporal signal component. - a transmission signal from the ultrasonic sensor (3, 5) is modulated and a predetermined code word is impressed on the transmission signal as a result of this modulation, - the received reception signal is compared with the transmission signal, and - the origin of the reception signal is determined on the basis of a result of the comparison,
A method of manufacturing a backlight unit for a 3D image display, the method comprising: preparing a stamp including grating patterns which have equal heights; coating a surface of a light guiding plate with discrete amounts of a resin, wherein the discrete amounts of resin are separated from each other and vary in amount depending on their location on the surface; filling or partially filling the resin in spaces between the grating patterns by pressing the stamp into the discrete amounts of resin such that heights of the resin from the surface of the light guiding plate in the spaces between the grating patterns vary along the surface correspondingly to the variation of the resin amount; and forming a diffraction grating structure including diffraction gratings having different heights on the surface of the light guiding plate by curing the resin. preparing a stamp including grating patterns which have equal heights; coating a surface of a light guiding plate with discrete amounts of a resin, wherein the discrete amounts of resin are separated from each other and vary in amount depending on their location on the surface; filling or partially filling the resin in spaces between the grating patterns by pressing the stamp into the discrete amounts of resin such that heights of the resin from the surface of the light guiding plate in the spaces between the grating patterns vary along the surface correspondingly to the variation of the resin amount; and forming a diffraction grating structure including diffraction gratings having different heights on the surface of the light guiding plate by curing the resin.
An internet of things service routing method implemented by using the oneM2M standard, comprising: receiving, by an internet of things platform, a service message from an application; determining, by the internet of things platform based on a service feature of the service message, a target network slice corresponding to the service feature; wherein the service feature comprises at least any one of the following features: a source application identifier with an AE-ID, a destination application identifier with an AE-ID, a source service middleware identifier with a CSE-ID, a destination service middleware identifier with a CSE-ID, a service resource identifier with a Resource-ID, a service resource type, a service message type, an operation method, and a message priority; wherein the AE is the Application Entity, and the CSE is the Common Service Entity; and sending, by the internet of things platform, the service message to a terminal device through the target network slice. receiving, by an internet of things platform, a service message from an application; determining, by the internet of things platform based on a service feature of the service message, a target network slice corresponding to the service feature; wherein the service feature comprises at least any one of the following features: a source application identifier with an AE-ID, a destination application identifier with an AE-ID, a source service middleware identifier with a CSE-ID, a destination service middleware identifier with a CSE-ID, a service resource identifier with a Resource-ID, a service resource type, a service message type, an operation method, and a message priority; wherein the AE is the Application Entity, and the CSE is the Common Service Entity; and sending, by the internet of things platform, the service message to a terminal device through the target network slice.
A system for locating a blood vessel in a patient, the system comprising: a temperature sensor (204, 304a, 304b) operable to output a measure of temperature of a point on a surface of a skin; and a processor (206, 306) in communication with the temperature sensor and configured to: receive a first temperature measure from the temperature sensor, receive a second, subsequent, temperature measure, and generate an output signal indicating the presence of a blood vessel, in which the system comprises a handheld locator (102, 202, 302) comprising the temperature sensor and movable across the skin of the patient and the processor is configured to determine a value of a difference between the first temperature measure and the second, subsequent, temperature measure and to generate the output signal if the value of the difference exceeds a threshold; wherein the processor receives the second temperature measure from the same temperature sensor thereby to provide the first temperature measure and the second temperature measure at different locations on the patient's skin as the handheld locator is moved. a temperature sensor (204, 304a, 304b) operable to output a measure of temperature of a point on a surface of a skin; and a processor (206, 306) in communication with the temperature sensor and configured to: receive a first temperature measure from the temperature sensor, receive a second, subsequent, temperature measure, and generate an output signal indicating the presence of a blood vessel, receive a first temperature measure from the temperature sensor, receive a second, subsequent, temperature measure, and generate an output signal indicating the presence of a blood vessel, in which the system comprises a handheld locator (102, 202, 302) comprising the temperature sensor and movable across the skin of the patient and the processor is configured to determine a value of a difference between the first temperature measure and the second, subsequent, temperature measure and to generate the output signal if the value of the difference exceeds a threshold; wherein the processor receives the second temperature measure from the same temperature sensor thereby to provide the first temperature measure and the second temperature measure at different locations on the patient's skin as the handheld locator is moved.
Quality control method of a stock of a base material for the additive manufacture of components comprising the following steps: - selecting a batch of a base material out of a plurality of indexed batches of the stock, wherein base material assigned to the same batch index is indicative to the quality of the respective base material, - loading a quantity of base material of the selected batch into a manufacturing system, - additively manufacturing the component from the base material, wherein the base material of the selected batch is exposed to manufacturing conditions in a build area and - updating the batch index of the base material remaining from the additive manufacture in the build area according to the exposure, wherein a control system tracks the base material and its quality by means of the batch index of the base material, during a plurality of manufacturing jobs, and wherein the quantity of powder to be loaded into the manufacturing system is entered manually into the control system and the quantity of the base material remaining from the additive manufacture is automatically calculated by the control system, wherein the base material and its quality are tracked in that the stock of the base material is retained in different containers which are numbered and assigned to a batch index each, characterized in that base material which has been assigned to a single batch is contained in different containers, such that the batch consists of the base material in the different containers. - selecting a batch of a base material out of a plurality of indexed batches of the stock, wherein base material assigned to the same batch index is indicative to the quality of the respective base material, - loading a quantity of base material of the selected batch into a manufacturing system, - additively manufacturing the component from the base material, wherein the base material of the selected batch is exposed to manufacturing conditions in a build area and - updating the batch index of the base material remaining from the additive manufacture in the build area according to the exposure, wherein a control system tracks the base material and its quality by means of the batch index of the base material, during a plurality of manufacturing jobs, and
Motor unit preferably applicable to a pump, of the type comprising a jacket substantially cylindrical in shape, which is coupled with a first cover at the level of its first end and with a second cover at the level of its second end and removably fixed to said jacket via locking means, characterized in that said locking means comprise a plurality of through holes made in said second cover, each one of which has its axis (y) inclined with respect to the longitudinal axis (x) of said jacket and houses a fixing element whose free end faces towards the inside of said jacket and is inserted in a corresponding undercut area that is defined in said jacket, said undercut area having its convex surface facing towards the outside, in order to house said free end of said fixing elements.
Safety system for an elevator system, comprising a safety circuit having a plurality of switching contacts (10.n, 11, 12.n) connected in series, whereby opening one of these switching contacts (10.n, 11, 12.n) results in the entire safety circuit being interrupted, and a control unit which is directly or indirectly connected to the safety circuit, the safety circuit having at least one second switching contact which can be switched by the control unit, and the safety circuit thus being able to be interrupted, whereby a power supply of a drive and/or a main controller of the elevator system is interrupted and the elevator system is put into an idle state, characterized in that at least one first switching contact (10.n) is electronically switchable and can be bridged by means of a conductive bridging element (14.n) for maintenance or test purposes, the first switching contact (10.n) can be switched in response to an instruction from the control unit to achieve a change in state of the safety circuit, the control unit is configured to detect the absence of the change in state of the safety circuit if the first switching contact (10.n) is bridged by a bridging element (14.n), and the control unit is configured to switch the second switching contact if no change in state of the safety circuit can be detected in response to the instruction from the control unit to switch the first switching contact (10.n). a safety circuit having a plurality of switching contacts (10.n, 11, 12.n) connected in series, whereby opening one of these switching contacts (10.n, 11, 12.n) results in the entire safety circuit being interrupted, and a control unit which is directly or indirectly connected to the safety circuit, the safety circuit having at least one second switching contact which can be switched by the control unit, and the safety circuit thus being able to be interrupted, whereby a power supply of a drive and/or a main controller of the elevator system is interrupted and the elevator system is put into an idle state, characterized in that at least one first switching contact (10.n) is electronically switchable and can be bridged by means of a conductive bridging element (14.n) for maintenance or test purposes, the first switching contact (10.n) can be switched in response to an instruction from the control unit to achieve a change in state of the safety circuit, the control unit is configured to detect the absence of the change in state of the safety circuit if the first switching contact (10.n) is bridged by a bridging element (14.n), and the control unit is configured to switch the second switching contact if no change in state of the safety circuit can be detected in response to the instruction from the control unit to switch the first switching contact (10.n).