mhurhangee/patent-ind-claim-en huggingface dataset:
A vented and water control weatherproofing cladding system, comprising: at least one first exterior cladding panel (322(A)-(C), 372, 1504, 1604) and at least one second exterior cladding panel (322(A)-(C), 372, 1504, 1604), each of the exterior cladding panels having a front surface and a back surface, the back surface including an omnidirectional relief pattern including a plurality of elements integral to each of the exterior cladding panels and that form an omnidirectional ventilation and drainage plane; a bottom portion of said at least one first exterior cladding panel being configured to overlap a top portion of said at least one second exterior cladding panel; characterised in that : the omnidirectional relief pattern of said at least one first exterior cladding panel is configured to form an inlet for air and an exit for moisture between said at least one first exterior cladding panel and a front surface of said at least one second exterior cladding panel. at least one first exterior cladding panel (322(A)-(C), 372, 1504, 1604) and at least one second exterior cladding panel (322(A)-(C), 372, 1504, 1604), each of the exterior cladding panels having a front surface and a back surface, the back surface including an omnidirectional relief pattern including a plurality of elements integral to each of the exterior cladding panels and that form an omnidirectional ventilation and drainage plane; a bottom portion of said at least one first exterior cladding panel being configured to overlap a top portion of said at least one second exterior cladding panel; characterised in that : the omnidirectional relief pattern of said at least one first exterior cladding panel is configured to form an inlet for air and an exit for moisture between said at least one first exterior cladding panel and a front surface of said at least one second exterior cladding panel.
A method of forming a contact lens, the method comprising: conformal coating a media insert , wherein the media insert is a variable optic insert comprising a microcontroller comprising a data storage portion, an energy source , an energy harvester and a liquid meniscus variable optic lens located within an optic zone on the media insert; wherein the energy source and the energy harvester are in electrical communication via conductive circuit paths with the microcontroller ;placing the coated media insert proximate to a first mold part ; depositing a reactive monomer mix into the first mold part ; positioning the coated media insert in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the coated variable optic insert and at least some of the reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation. conformal coating a media insert , wherein the media insert is a variable optic insert comprising a microcontroller comprising a data storage portion, an energy source , an energy harvester and a liquid meniscus variable optic lens located within an optic zone on the media insert; wherein the energy source and the energy harvester are in electrical communication via conductive circuit paths with the microcontroller ;placing the coated media insert proximate to a first mold part ; depositing a reactive monomer mix into the first mold part ; positioning the coated media insert in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the coated variable optic insert and at least some of the reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation.
A multi-stage Analog-to-Digital Converter , ADC, with an embedded offset corrector comprising: a first ADC stage that converts an analog input into a first M digital bits that represent an analog value of the analog input, wherein M is a whole number of at least 3, the first ADC stage outputting a residue after quantization of the analog input to the first M digital bits; a residue amplifier having a first input that receives the residue from the first ADC stage and generates a first output; a feedback capacitor connected between the first input and the first output of the residue amplifier ; a second ADC stage that converts the first output from the residue amplifier into a second N digital bits that represent an analog value of the first output from the residue amplifier , wherein N is a whole number of at least 5; an offset corrector comprising a low-pass filter that directly receives the first output from the residue amplifier and generates a filtered offset; an offset amplifier that receives the filtered offset and generates a buffered offset; an offset capacitor for storing the buffered offset; and an offset switch , connected between the offset capacitor and the first input of the residue amplifier , the offset switch applying the buffered offset stored on the offset capacitor to the first input to permit charge transfer or charge sharing on the first input. a first ADC stage that converts an analog input into a first M digital bits that represent an analog value of the analog input, wherein M is a whole number of at least 3, the first ADC stage outputting a residue after quantization of the analog input to the first M digital bits; a residue amplifier having a first input that receives the residue from the first ADC stage and generates a first output; a feedback capacitor connected between the first input and the first output of the residue amplifier ; a second ADC stage that converts the first output from the residue amplifier into a second N digital bits that represent an analog value of the first output from the residue amplifier , wherein N is a whole number of at least 5; an offset corrector comprising a low-pass filter that directly receives the first output from the residue amplifier and generates a filtered offset; an offset amplifier that receives the filtered offset and generates a buffered offset; an offset capacitor for storing the buffered offset; and an offset switch , connected between the offset capacitor and the first input of the residue amplifier , the offset switch applying the buffered offset stored on the offset capacitor to the first input to permit charge transfer or charge sharing on the first input.
Use of a damaged hair improving agent comprising, as a main component, one or more selected from L-ascorbic acid derivatives represented by the following general formula and salts thereof: wherein R 1 is each independently a linear or branched saturated or unsaturated fatty acid residue having 8 to 36 carbon atoms, R 2 is a linear or branched saturated or unsaturated fatty acid residue having 8 to 36 carbon atoms, R 3 is a linear or branched saturated or unsaturated fatty acid residue having 8 to 36 carbon atoms wherein this derivative is present in an amount of from 0.5 to 20% by mass; for increasing the hydrophobicity of the hair surface and/or making hair smooth and/or further enhancing glossiness. wherein R 1 is each independently a linear or branched saturated or unsaturated fatty acid residue having 8 to 36 carbon atoms, R 2 is a linear or branched saturated or unsaturated fatty acid residue having 8 to 36 carbon atoms, R 3 is a linear or branched saturated or unsaturated fatty acid residue having 8 to 36 carbon atoms wherein this derivative is present in an amount of from 0.5 to 20% by mass; for increasing the hydrophobicity of the hair surface and/or making hair smooth and/or further enhancing glossiness.
A supply device for the electrical supply of at least one load , having a primary power grid , in which a first fuel cell device having a first performance capability is present, having a voltage converter , which connects the primary power grid to a secondary power grid comprising a battery , and having a measuring device for detecting an insulation resistance of the primary power grid and/or of the secondary power grid , characterized in that a second fuel cell device having a second performance capability different than the first performance capability is connected in series to the first fuel cell device in the primary power grid , in that a bypass circuit comprising a switch is connected in each case in parallel to each of the fuel cell devices , and in that the switches of the bypass circuits can be switched depending on the insulation resistance detected. having a primary power grid , in which a first fuel cell device having a first performance capability is present, having a voltage converter , which connects the primary power grid to a secondary power grid comprising a battery , and having a measuring device for detecting an insulation resistance of the primary power grid and/or of the secondary power grid , characterized in that a second fuel cell device having a second performance capability different than the first performance capability is connected in series to the first fuel cell device in the primary power grid , in that a bypass circuit comprising a switch is connected in each case in parallel to each of the fuel cell devices , and in that the switches of the bypass circuits can be switched depending on the insulation resistance detected.
A method in a computing device for notifying users of upcoming loss of offline data coverage when navigating the user along an offline route, the method comprising: receiving a request for navigation directions for travelling from a source location to a destination location; generating, using one or more processors , navigation directions for travelling from the source location to the destination using data that was stored in a memory of the computing device prior to the request, the navigation directions defining an offline navigation route; determining, during navigation along the offline navigation route, using one or more processors that the offline navigation route traverses an area of at least a certain size, for which the memory of the computing device stores no offline data or only limited data related to places disposed along the offline navigation route; and in response to determining that the computing device traveling along the offline navigation route is within a certain threshold distance of a boundary of the area, automatically providing a notification via a user interface of the computing device , wherein the notification indicates that the computing device cannot generate alternate routes or return routes if the computing device deviates from the offline navigation route in the area. receiving a request for navigation directions for travelling from a source location to a destination location; generating, using one or more processors , navigation directions for travelling from the source location to the destination using data that was stored in a memory of the computing device prior to the request, the navigation directions defining an offline navigation route; determining, during navigation along the offline navigation route, using one or more processors that the offline navigation route traverses an area of at least a certain size, for which the memory of the computing device stores no offline data or only limited data related to places disposed along the offline navigation route; and in response to determining that the computing device traveling along the offline navigation route is within a certain threshold distance of a boundary of the area, automatically providing a notification via a user interface of the computing device , wherein the notification indicates that the computing device cannot generate alternate routes or return routes if the computing device deviates from the offline navigation route in the area.
Watercraft having an outer skin opening and a closure lamella for closing the outer skin opening of the watercraft , comprising a hollow body having at least one reinforcing element which is arranged in the interior of the hollow body and which runs in a web-like manner, wherein an outer periphery of a cross-sectional area of the hollow body is formed by two parallel longitudinal edges (20 1 , 20 2 ) and two transverse edges (22 1 , 22 2 ) which connect the longitudinal edges (20 1 , 20 2 ) at the ends thereof and which are arranged in a point-symmetrical manner with respect to one another, wherein guide elements which are configured to be slidable into the hollow body are provided and mutually averted end sides of the hollow body are configured for the fastening of a respective one of the guide elements , in order to hold the closure lamella in the outer skin opening of the watercraft by means of the guide element , wherein the closure lamellae are arranged standing vertically. a hollow body having at least one reinforcing element which is arranged in the interior of the hollow body and which runs in a web-like manner, wherein an outer periphery of a cross-sectional area of the hollow body is formed by two parallel longitudinal edges (20 1 , 20 2 ) and two transverse edges (22 1 , 22 2 ) which connect the longitudinal edges (20 1 , 20 2 ) at the ends thereof and which are arranged in a point-symmetrical manner with respect to one another, wherein guide elements which are configured to be slidable into the hollow body are provided and mutually averted end sides of the hollow body are configured for the fastening of a respective one of the guide elements , in order to hold the closure lamella in the outer skin opening of the watercraft by means of the guide element , wherein the closure lamellae are arranged standing vertically.
Control method for a partially electronic system , such as an electrohydraulic system , having at least one electro-proportional actuator which serves to influence at least one physical control variable (y(t)) of the system , comprising a control path , as a function of the controlled variable (u(t)) of said actuator, wherein a characteristic diagram is created from correlating state values of the controlled (u(t)) and control variable (y(t)), said characteristic diagram being consulted for control processes in subsequent operation of the system , characterised in that to create the characteristic diagram , the value of the controlled variable (u(t)) is initially increased in two phases in a saw-toothed manner in each case, during a first time period , until a saturation of the control variable value y(t) is determined, and is subsequently reduced during a second time period that is shorter than the first time period .
Method for performing open-loop and closed-loop control of an internal combustion engine with a common rail system, in which method the rail pressure (pCR), which is measured by means of a rail pressure sensor , is closed-loop controlled by means of a low-pressure-side intake throttle as first pressure adjusting element in a rail pressure closed-loop control circuit , in which method a rail pressure interference variable (VDRV) for influencing the rail pressure (pCR) is generated by means of a high-pressure-side pressure control valve as a second pressure adjusting element, by means of which fuel is discharged from the rail into the fuel tank , and the position of which is determined by means of a PWM signal (PWMDV), characterized in that an actual rail pressure (pCR(IST)) is calculated from the rail pressure (pCR) by means of a first filter , and a dynamic rail pressure (pCR(DYN)) is calculated from the rail pressure (pCR) by means of a second filter , wherein a stationary state function is set if a stationary state of the engine is detected (BKM = 0), wherein when a stationary state function is set the PWM signal (PWMDV) is output with a value of zero, wherein the stationary state function is reset and a normal function is set if the actual rail pressure (pCR(IST)) exceeds the start value (pSTART) and a verified engine rotational speed (nMOT) is detected (BKM = 1), wherein when a normal function is set the PWM signal (PWMDV) is calculated in accordance with a resulting setpoint volume flow (Vres(SL)), a protective function is set if the dynamic rail pressure (pCR(DYN)) exceeds a maximum pressure value (pMAX), and the protective function is enabled (MERKER = 0), wherein when a protective function is set the PWM signal (PWMDV) is temporally set to a maximum value (PWMt).
A method of communication, comprising the steps of: receiving a packet in a network interface controller that is connected to a host and a communications network , the network interface controller comprising electrical circuitry configured as a packet processing pipeline having a plurality of stages ; determining in the network interface controller that at least a portion of the stages of the pipeline are acceleration-defined stages, wherein acceleration-defined stages are stages which result in actions that are performed in a hardware accelerator ; processing the packet in the pipeline, wherein processing the packet comprises: transmitting data to an accelerator from the acceleration-defined stages; performing respective acceleration tasks on the transmitted data in the accelerator; and returning processed data from the accelerator to receiving stages of the pipeline; and after processing the packet in the pipeline routing the packet toward a destination. receiving a packet in a network interface controller that is connected to a host and a communications network , the network interface controller comprising electrical circuitry configured as a packet processing pipeline having a plurality of stages ; determining in the network interface controller that at least a portion of the stages of the pipeline are acceleration-defined stages, wherein acceleration-defined stages are stages which result in actions that are performed in a hardware accelerator ; processing the packet in the pipeline, wherein processing the packet comprises: transmitting data to an accelerator from the acceleration-defined stages; performing respective acceleration tasks on the transmitted data in the accelerator; and returning processed data from the accelerator to receiving stages of the pipeline; and after processing the packet in the pipeline routing the packet toward a destination. transmitting data to an accelerator from the acceleration-defined stages; performing respective acceleration tasks on the transmitted data in the accelerator; and returning processed data from the accelerator to receiving stages of the pipeline; and after processing the packet in the pipeline routing the packet toward a destination.
Method of blow moulding a container , wherein the method comprises the steps: a) extruding a tube shaped, hollow, elongated parison from an extrusion head , wherein the parison comprises one free end; b) closing a moulding equipment around the parison, wherein the moulding equipment comprises a moulding cavity and at least one aperture , wherein the at least one aperture provides an opening into the moulding cavity from outside the closed moulding equipment, wherein an excess section of the parison is arranged inside the at least one aperture, wherein the free end of the parison is kept in place in the moulding equipment opposite the at least one aperture; c) holding the excess section of the parison in place within the at least one aperture by applying a holding force on the outside of the excess section of the parison; d) cutting the parison outside the closed moulding equipment , thereby providing the parison with an open end adjacent to the at least one aperture ; e) arranging a blow pin within the open end of the parison such that said open end is closed by the blow pin; f) blowing pressurised gas from the blow pin into the parison, thereby forming a blow moulded container within the moulding cavity . a) extruding a tube shaped, hollow, elongated parison from an extrusion head , wherein the parison comprises one free end; b) closing a moulding equipment around the parison, wherein the moulding equipment comprises a moulding cavity and at least one aperture , wherein the at least one aperture provides an opening into the moulding cavity from outside the closed moulding equipment, wherein an excess section of the parison is arranged inside the at least one aperture, wherein the free end of the parison is kept in place in the moulding equipment opposite the at least one aperture; c) holding the excess section of the parison in place within the at least one aperture by applying a holding force on the outside of the excess section of the parison; d) cutting the parison outside the closed moulding equipment , thereby providing the parison with an open end adjacent to the at least one aperture ; e) arranging a blow pin within the open end of the parison such that said open end is closed by the blow pin; f) blowing pressurised gas from the blow pin into the parison, thereby forming a blow moulded container within the moulding cavity .
Apparatus for recognition of food to be cooked , wherein the apparatus comprises the following: - a first light source (130.1), which is configured to emit light of a first colour onto the food to be cooked ; - a second light source (130.2), which is configured to emit light of a second colour onto the food to be cooked ; - a light sensor , which is configured to scan images of the food to be cooked in the light of the first and of the second colour; - a control apparatus , which is configured to: ∘ provide a first image of the food to be cooked , with the first light source (130.1) being activated and the second light source (130.2) being deactivated; ∘ provide a second image of the food to be cooked , with the first light source (130.1) being deactivated and the second light source (130.2) being activated - a processing apparatus , which is configured to recognise the food to be cooked based on the first and the second image; characterised in that one of the light sources comprises a laser. - a first light source (130.1), which is configured to emit light of a first colour onto the food to be cooked ; - a second light source (130.2), which is configured to emit light of a second colour onto the food to be cooked ; - a light sensor , which is configured to scan images of the food to be cooked in the light of the first and of the second colour; - a control apparatus , which is configured to: ∘ provide a first image of the food to be cooked , with the first light source (130.1) being activated and the second light source (130.2) being deactivated; ∘ provide a second image of the food to be cooked , with the first light source (130.1) being deactivated and the second light source (130.2) being activated ∘ provide a first image of the food to be cooked , with the first light source (130.1) being activated and the second light source (130.2) being deactivated; ∘ provide a second image of the food to be cooked , with the first light source (130.1) being deactivated and the second light source (130.2) being activated - a processing apparatus , which is configured to recognise the food to be cooked based on the first and the second image; characterised in that one of the light sources comprises a laser.
Cast part which is cast from a casting material and into which a channel is formed which gas flows through in operation, wherein the channel is at least in sections delimited by a separately prefabricated metal insert which is cast into the cast part , characterised in that the insert on its inner surface assigned to the gas and on its outer surface assigned to the casting material is in each case at least in sections coated in each case with a glaze or enamel coat , that the coat in each case provided on the outer surface of the insert has pores and that the casting material during casting of the insert has penetrated into pores of the coat on the outer surface .