mhurhangee/ep-ind-claims huggingface dataset:
Radar sensor having a mixer for mixing a received signal with a reference signal, and having a device for compensating for interference signals that would overdrive the mixer, wherein the device for compensating for the interference signals has a reflection point at the reference input of the mixer, characterized in that the reflection point has a bypass line that is adjustable by virtue of its having multiple parallel paths of different length that each have an interruption point that can be opened while a transmission signal is fed in and the inclination of the mixer toward overdriving is evaluated.
An audio, video and navigation, AVN, for a vehicle installed within the vehicle, the AVN for a vehicle comprising: a memory configured to store program instructions; and a processor configured to execute the program instructions, the program instructions when executed configured to: search for a network around the AVN; request a server to transmit content pages created by hypertext markup language HTML5 via the network and receive the content pages in response to the request; provide a browser for displaying the content pages; and display the content pages, wherein the AVN is configured to use content on the content pages transmitted from the server, and the AVN is configured to provide information for authentication to the server to receive the content pages from the server, wherein the server provides different content pages based on an authentication result for the AVN. a memory configured to store program instructions; and a processor configured to execute the program instructions, the program instructions when executed configured to: search for a network around the AVN; request a server to transmit content pages created by hypertext markup language HTML5 via the network and receive the content pages in response to the request; provide a browser for displaying the content pages; and display the content pages, wherein the AVN is configured to use content on the content pages transmitted from the server, and the AVN is configured to provide information for authentication to the server to receive the content pages from the server, wherein the server provides different content pages based on an authentication result for the AVN. search for a network around the AVN; request a server to transmit content pages created by hypertext markup language HTML5 via the network and receive the content pages in response to the request; provide a browser for displaying the content pages; and display the content pages, wherein the AVN is configured to use content on the content pages transmitted from the server, and the AVN is configured to provide information for authentication to the server to receive the content pages from the server, wherein the server provides different content pages based on an authentication result for the AVN.
A management node for resource scheduling in a datacenter comprising: a resource scheduler, wherein the resource scheduler is configured for performing application modeling or profiling, wherein application modeling or profiling comprises determining a frequency and an extent of a resource usage of each application operating in the datacenter and creating a joint application profile for the datacenter by aggregating profiles of all applications operating in the datacenter; performing workload estimation for an individual timeslot based on the joint application profile over a time period corresponding to the individual timeslot; performing workload mapping by determining a Multi-Resource Schedulable Unit, MRSU, for the individual timeslot and allocating an integer number of MRSUs to each application of each tenant, wherein a MRSU is a dynamically allocatable group of correlated processor resources, processing memory resources, storage resources, and network resources; and performing continuous optimization by re-allocating over-allocated or idle resources upon demand. a resource scheduler, wherein the resource scheduler is configured for performing application modeling or profiling, wherein application modeling or profiling comprises determining a frequency and an extent of a resource usage of each application operating in the datacenter and creating a joint application profile for the datacenter by aggregating profiles of all applications operating in the datacenter; performing workload estimation for an individual timeslot based on the joint application profile over a time period corresponding to the individual timeslot; performing workload mapping by determining a Multi-Resource Schedulable Unit, MRSU, for the individual timeslot and allocating an integer number of MRSUs to each application of each tenant, wherein a MRSU is a dynamically allocatable group of correlated processor resources, processing memory resources, storage resources, and network resources; and performing continuous optimization by re-allocating over-allocated or idle resources upon demand.
Insulation arrangement comprising a wall or surface, for example, an outer wall, an inner wall, a bottom surface, a floor or a roof surface, as well as a continuous closed insulation surface arranged on the wall, and formed from a plurality of insulation elements connected with one another via their end faces, in particular in a gas and/or moisture-tight manner, wherein rear ventilation means are provided on or in a bottom surface of each insulation element or the insulation surface facing the wall to permit ventilation and discharge of water vapour from the area between the wall and the insulation surface, characterised in that the insulation elements are made of a foamed material or foam, wherein the insulation elements and the insulation surface are/is attached on the building inner side and on the inner side of the wall, and wherein a known condensate converter is provided in the form of a layer of permeable and/or hydrophilic plaster between the insulation surface and the wall, in order to convert condensation and/or masonry moisture exiting from the wall into water vapour and suck the water out of the soaked masonry and pass this water or the resulting water vapour through the plaster thickness to the environment.
A wavelength converting member comprising: a quantum dot layer having quantum dots; and a barrier layer (3, 4) formed on both outer surfaces of the quantum dot layer, wherein a moisture vapor transmission rate of the barrier layer (3, 4) is lower than 9 (g/m 2 ▪ day), characterized in that the quantum dot layer contains the quantum dots, a resin in which the quantum dots are dispersed, a dispersant for improving dispersibility of the quantum dots, and a light-scattering agent, the light-scattering agent is contained in the quantum dot layer at 1 wt% to 10 wt% with respect to the quantum dot layer, wherein the barrier layer (3, 4) is a film having an organic layer, and an outer surface of the barrier layer (3, 4) is matted, and wherein the organic layer is adhered to the quantum dot layer, via an adhesive layer, with the organic layer facing the quantum dot layer. a quantum dot layer having quantum dots; and a barrier layer (3, 4) formed on both outer surfaces of the quantum dot layer, wherein a moisture vapor transmission rate of the barrier layer (3, 4) is lower than 9 (g/m 2 ▪ day), characterized in that the quantum dot layer contains the quantum dots, a resin in which the quantum dots are dispersed, a dispersant for improving dispersibility of the quantum dots, and a light-scattering agent, the light-scattering agent is contained in the quantum dot layer at 1 wt% to 10 wt% with respect to the quantum dot layer, wherein the barrier layer (3, 4) is a film having an organic layer, and an outer surface of the barrier layer (3, 4) is matted, and wherein the organic layer is adhered to the quantum dot layer, via an adhesive layer, with the organic layer facing the quantum dot layer.
Blind rivet arrangement having multiple rivet sleeves (3, 3a, 3b) which are arranged in succession on a rivet mandrel, wherein the rivet mandrel comprises a rivet mandrel head with an outer diameter that is larger than an inner diameter of the rivet sleeves (3, 3a, 3b), characterized in that the rivet mandrel and the rivet mandrel head are embodied as parts produced separately from one another which are connected to one another.
An image processing apparatus comprising: a corresponding region connecting unit that connects regions that depict the same target between a series of images captured in time series, thereby sets at least one connected region; a connected region feature data calculation unit (120, 210) that calculates feature data of the connected region; a digest index value calculation unit (130, 320, 330) that calculates a digest index value corresponding to a degree at which the target depicted in the series of images is aggregated in each image of the series of images, based on the feature data; a digest image detector that detects a digest image based on the digest index value; and a repetition controller (150, 160) that recognizes the connected region included in the digest image as a detected target, and controls repetition of processing in each of the digest index value calculation unit and the digest image detector with respect to an undetected target. a corresponding region connecting unit that connects regions that depict the same target between a series of images captured in time series, thereby sets at least one connected region; a connected region feature data calculation unit (120, 210) that calculates feature data of the connected region; a digest index value calculation unit (130, 320, 330) that calculates a digest index value corresponding to a degree at which the target depicted in the series of images is aggregated in each image of the series of images, based on the feature data; a digest image detector that detects a digest image based on the digest index value; and a repetition controller (150, 160) that recognizes the connected region included in the digest image as a detected target, and controls repetition of processing in each of the digest index value calculation unit and the digest image detector with respect to an undetected target.
Method for estimating a profile depth of a tire of a vehicle during the operation of the vehicle with the steps - measurement of signals of a piezoelectric element (S1, S6, S13, S18) that is disposed on the inside of the tire in a region that is deformed when passing through a contact area, - deriving actual data from the measured signals (S2, S7, S8, S9, S14, S19), - comparing the actual data derived from the signals with comparison data (S3, S10, S15, S20), the comparison data containing records that indicate actual data to be expected for each profile depth, and - estimating the profile depth (S5, S12, S17, S22) based on the comparison of the actual data with the comparison data, characterized in that the step of deriving actual data from the measured signals comprises the steps - determining a first summation value by accumulating signals corresponding to a gentler curvature of the piezoelectric element than a normal curvature of the piezoelectric element, and/or - determining a second summation value by accumulating signals corresponding to a tighter curvature of the piezoelectric element than a normal curvature of the piezoelectric element. - measurement of signals of a piezoelectric element (S1, S6, S13, S18) that is disposed on the inside of the tire in a region that is deformed when passing through a contact area, - deriving actual data from the measured signals (S2, S7, S8, S9, S14, S19), - comparing the actual data derived from the signals with comparison data (S3, S10, S15, S20), the comparison data containing records that indicate actual data to be expected for each profile depth, and - estimating the profile depth (S5, S12, S17, S22) based on the comparison of the actual data with the comparison data, characterized in that the step of deriving actual data from the measured signals comprises the steps - determining a first summation value by accumulating signals corresponding to a gentler curvature of the piezoelectric element than a normal curvature of the piezoelectric element, and/or - determining a second summation value by accumulating signals corresponding to a tighter curvature of the piezoelectric element than a normal curvature of the piezoelectric element.
A composition for infants or young children comprising at least one probiotic bacterial strain, said probiotic bacterial strain being bifidobacteria, and a prebiotic oligosaccharides mixture consisting of 2'-fucosyllactose, lactodifucotetraose/difucosyllactose, lacto-N-tetraose, 6'-sialyllactose, and 3'-sialyllactose and optionally 3-fucosyllactose; wherein the bifidobacteria comprises Bifidobacterium longum subsp. infantis or combination of Bifidobacterium animalis subsp. lactis and Bifidobacterium longum subsp. infantis; wherein at least one of the bifidobacteria is Bifidobacterium longum subsp. infantis LMG 11588 or a strain having an Average Nucleotide Identity of at least 99.9% with this strain. wherein the bifidobacteria comprises Bifidobacterium longum subsp. infantis or combination of Bifidobacterium animalis subsp. lactis and Bifidobacterium longum subsp. infantis; wherein at least one of the bifidobacteria is Bifidobacterium longum subsp. infantis LMG 11588 or a strain having an Average Nucleotide Identity of at least 99.9% with this strain.
A process for preparing a polyurethane foam having reduced volatile organic compound ("VOC") emissions comprising the step of reacting a polyisocyanate with a polyether polyol having at least two hydroxyl groups and from 0.1 to 3 phpp of a silicone-based surfactant composition as a stabilizer for the foam, the silicone-based surfactant composition comprising a first silicone having the general formula: M* t D x D* y M u wherein M* is R 1 2 RSiO 0.5; D is R 1 2 SiO; D* is R 1 RSiO; M is R 1 3 SiO 0.5; R 1 is an aromatic or saturated aliphatic hydrocarbon group; R is a divalent hydrocarbon moiety, optionally interrupted with methoxy or ethoxy groups, and having a hydroxyl end group, t and u are integers from 0 to 2; t+u=2; x+y=1 to 4 and t+y is 1 to 2, in the presence of a blowing agent and under conditions sufficient to form the polyurethane foam. M* is R 1 2 RSiO 0.5; D is R 1 2 SiO; D* is R 1 RSiO; M is R 1 3 SiO 0.5; R 1 is an aromatic or saturated aliphatic hydrocarbon group; R is a divalent hydrocarbon moiety, optionally interrupted with methoxy or ethoxy groups, and having a hydroxyl end group, t and u are integers from 0 to 2; t+u=2; x+y=1 to 4 and t+y is 1 to 2,
Tissue analysis device, particularly for integration in a surgical instrument and/or an apparatus serving for supply of the instrument, having a light receiving device for receiving light created by the influence of an electrical spark or plasma on tissue, having a spectrometer device for determination of light intensities at different wavelengths of the light, having an evaluation device for determination of data from the light intensities characterizing at least one tissue characteristic, having an assignment device for assignment and/or determination of a reliability value referring to or for the tissue characteristic based on a determined contamination of the light receiving device. having a light receiving device for receiving light created by the influence of an electrical spark or plasma on tissue, having a spectrometer device for determination of light intensities at different wavelengths of the light, having an evaluation device for determination of data from the light intensities characterizing at least one tissue characteristic, having an assignment device for assignment and/or determination of a reliability value referring to or for the tissue characteristic based on a determined contamination of the light receiving device.
Heat recovery unit including a transport container comprising at least one heat exchanger arranged in the transport container, with a lower end portion facing a container floor, and an upper end portion, wherein the heat exchanger is configured to exchange heat between a medium carried within a primary circuit and a medium carried within a secondary circuit, and wherein carrying means are arranged in a lower area of the heat exchanger enabling the insertion and extraction of the heat exchanger in a predominantly horizontal direction into and from the container in a sliding manner or in a rolling manner relative to the container, characterized in that external ports (2; 3) of the primary circuit and the secondary circuit are located on one or more side walls of the transport container; the piping of the primary circuit and the piping of the secondary circuit are provided inside of the transport container; all piping reaching and leaving the heat exchanger is arranged vertically above the upper portion of the heat exchanger; and in that the upper end portion has vertically upwards pointing connecting points (34, 35) for connecting the heat exchanger with the primary circuit and with the secondary circuit external ports (2; 3) of the primary circuit and the secondary circuit are located on one or more side walls of the transport container; the piping of the primary circuit and the piping of the secondary circuit are provided inside of the transport container; all piping reaching and leaving the heat exchanger is arranged vertically above the upper portion of the heat exchanger; and in that the upper end portion has vertically upwards pointing connecting points (34, 35) for connecting the heat exchanger with the primary circuit and with the secondary circuit
A valve assembly, said valve assembly including at least one passage along which fluid can be selectively allowed to pass, said assembly including a valve body in which the passage is formed and the valve assembly includes at least first and second balls provided at spaced locations along the fluid passage formed in the valve body and a retaining assembly is provided at at least one end of the valve body to contact with a side of one of the said balls which lies closest to that end, said balls provided to be moveable between a first position in which a channel in the ball forms part of the passage and a second position in which the ball prevents fluid passing along the passage and wherein depending inwardly towards one side of one of the balls there is provided the retaining assembly (32;34), said assembly comprising a first annular member to contact with the ball, a second annular member receiving and locating at least one biasing means, said first and second annular members located within an annular housing, said annular housing retained within the valve body, and an annular securing member which is engaged with the valve body and which has an outer face which forms or receives an external sealing face for the valve assembly to a pipeline or pipeline flange, characterised in that the annular housing is retained with the valve body independently from the annular securing member and in that a sealing assembly is provided between the first and second balls so as to locate with the respective opposing sides of the balls which face towards each other and the sealing assembly comprises a first annular seat for contact with a face of a first ball and a second annular seat for contact with a face of the second ball and said first and second seats are provided with at least one biasing means depending between the same.
A sound-absorbing member comprising a Helmholtz resonance structure including an inlet passage and a hollow portion connected to the outside through the inlet passage, wherein the sound-absorbing member includes a first layer and a second layer disposed on the first layer, the first layer includes a first main surface and a second main surface opposite to the first main surface, the second layer includes a third main surface facing the second main surface and a fourth main surface opposite to the third main surface, the first layer includes a first through-hole penetrating through the second main surface from the first main surface and defining the inlet passage, the second main surface includes a second main surface opening defining an end portion of the first through-hole and a second main surface flat portion, the third main surface includes a third main surface opening defining an end portion of the hollow portion and a third main surface flat portion, the second main surface opening has an opening area smaller than the opening area of the third main surface opening, and a first air layer is formed at least at a portion between the second main surface flat portion and the third main surface flat portion, characterized in that the hollow portion has its bottom in the second layer. a Helmholtz resonance structure including an inlet passage and a hollow portion connected to the outside through the inlet passage, wherein the sound-absorbing member includes a first layer and a second layer disposed on the first layer, the first layer includes a first main surface and a second main surface opposite to the first main surface, the second layer includes a third main surface facing the second main surface and a fourth main surface opposite to the third main surface, the first layer includes a first through-hole penetrating through the second main surface from the first main surface and defining the inlet passage, the second main surface includes a second main surface opening defining an end portion of the first through-hole and a second main surface flat portion, the third main surface includes a third main surface opening defining an end portion of the hollow portion and a third main surface flat portion, the second main surface opening has an opening area smaller than the opening area of the third main surface opening, and a first air layer is formed at least at a portion between the second main surface flat portion and the third main surface flat portion, characterized in that the hollow portion has its bottom in the second layer.
A food composition, comprising: an inner core comprising a soft food, agar, xanthan gum, and locust bean gum; and a polymerized edible hydrocolloid matrix comprising at least one polymer selected from an alginate and a chitosan encapsulating the inner core, wherein an outer surface of the inner core adheres to an inner surface of the polymerized edible hydrocolloid matrix encapsulating the inner core, wherein adheres means that the matrix remained bound to the core after cutting the final encapsulated product, squeezing the final product to attempt extrusion of the soft inner core, and even after partial removal of the polymer matrix; and wherein the pH of the soft food is above the pKa of the edible hydrocolloid matrix prior to polymerization. an inner core comprising a soft food, agar, xanthan gum, and locust bean gum; and a polymerized edible hydrocolloid matrix comprising at least one polymer selected from an alginate and a chitosan encapsulating the inner core, wherein an outer surface of the inner core adheres to an inner surface of the polymerized edible hydrocolloid matrix encapsulating the inner core, wherein adheres means that the matrix remained bound to the core after cutting the final encapsulated product, squeezing the final product to attempt extrusion of the soft inner core, and even after partial removal of the polymer matrix; and wherein the pH of the soft food is above the pKa of the edible hydrocolloid matrix prior to polymerization.