mhurhangee/patent-ind-claim-en huggingface dataset:
Inspecting machine for leathers , comprising: - a feeding unit for the movement of a leather according to an advancement direction (X); - a sensor unit configured to capture images of said leather during said movement; - a processing device configured to identify one or more geometrical features of said leather based on the analysis of said images; said sensor unit comprising one or more image sensors of the contact kind (CIS - "Contact Image Sensor") faced to said leather when said leather is moved by said feeding unit , said image sensors being arranged perpendicular to said advancement direction (X); characterized in that said sensor unit comprises a plurality of said image sensors arranged in mutually different positions according to said advancement direction (X) and mutually staggered according to a direction perpendicular to said advancement direction (X) in such a way that the respective optical fields have corresponding first sections that are mutually superposed according to said advancement direction (X) to capture corresponding first image portions of a same first portion of said leather in two corresponding mutually different moments, and corresponding remaining sections to capture second image portions of other two respective mutually different portions of said leather that are adjacent to said first portion , said processing device being configured to combine the images captured by said image sensors based on the analysis of said first image portions. - a feeding unit for the movement of a leather according to an advancement direction (X); - a sensor unit configured to capture images of said leather during said movement; - a processing device configured to identify one or more geometrical features of said leather based on the analysis of said images; said sensor unit comprising one or more image sensors of the contact kind (CIS - "Contact Image Sensor") faced to said leather when said leather is moved by said feeding unit , said image sensors being arranged perpendicular to said advancement direction (X); characterized in that said sensor unit comprises a plurality of said image sensors arranged in mutually different positions according to said advancement direction (X) and mutually staggered according to a direction perpendicular to said advancement direction (X) in such a way that the respective optical fields have corresponding first sections that are mutually superposed according to said advancement direction (X) to capture corresponding first image portions of a same first portion of said leather in two corresponding mutually different moments, and corresponding remaining sections to capture second image portions of other two respective mutually different portions of said leather that are adjacent to said first portion , said processing device being configured to combine the images captured by said image sensors based on the analysis of said first image portions.
A expandable resin composition comprising: an aromatic vinyl resin; and zinc oxide, wherein the zinc oxide has a peak intensity ratio (B/A) of 0.01 to 1, where A indicates a peak in the wavelength range of 370 nm to 390 nm and B indicates a peak in the wavelength range of 450 nm to 600 nm in photoluminescence measurement, measured by detecting a spectrum emitted upon irradiating a specimen using a 30 mW He-Cd laser at a wavelength of 325 nm at room temperature with a CCD detector, and a BET surface area of 1 m 2 /g to 10 m 2 /g, as measured by nitrogen gas adsorption using a BET analyzer. an aromatic vinyl resin; and zinc oxide, wherein the zinc oxide has a peak intensity ratio (B/A) of 0.01 to 1, where A indicates a peak in the wavelength range of 370 nm to 390 nm and B indicates a peak in the wavelength range of 450 nm to 600 nm in photoluminescence measurement, measured by detecting a spectrum emitted upon irradiating a specimen using a 30 mW He-Cd laser at a wavelength of 325 nm at room temperature with a CCD detector, and a BET surface area of 1 m 2 /g to 10 m 2 /g, as measured by nitrogen gas adsorption using a BET analyzer.
A method comprising: by a computing device, determining a power consumption profile for a device based at least in part on a type of each of a plurality of radios of the device, wherein the power consumption profile comprises information regarding a typical rate of power consumption by the device; by the computing device, receiving status information for the device, wherein the status information is associated with a type of a particular one of the plurality of radios being utilized, wherein the status information comprises power status and network connectivity status; by the computing device, determining, using a resource-control algorithm and based on the status information and the power consumption profile, a schedule for sending push events to the device, wherein determining the schedule comprises adjusting a frequency of sending push events to the device; by the computing device, identifying content to be provisioned to the device; by the computing device, generating a down-scaled version of the identified content based on the status information and the power consumption profile; by the computing device, sending the scheduled push events at the adjusted frequency to the device, wherein the push events provision the down-scaled version of the identified content to the device; and by the computing device, subsequently sending to the device an up-scaled version of the identified content based on a determination that the device is connected to a cheaper or higher-bandwidth network. by a computing device, determining a power consumption profile for a device based at least in part on a type of each of a plurality of radios of the device, wherein the power consumption profile comprises information regarding a typical rate of power consumption by the device; by the computing device, receiving status information for the device, wherein the status information is associated with a type of a particular one of the plurality of radios being utilized, wherein the status information comprises power status and network connectivity status; by the computing device, determining, using a resource-control algorithm and based on the status information and the power consumption profile, a schedule for sending push events to the device, wherein determining the schedule comprises adjusting a frequency of sending push events to the device; by the computing device, identifying content to be provisioned to the device; by the computing device, generating a down-scaled version of the identified content based on the status information and the power consumption profile; by the computing device, sending the scheduled push events at the adjusted frequency to the device, wherein the push events provision the down-scaled version of the identified content to the device; and by the computing device, subsequently sending to the device an up-scaled version of the identified content based on a determination that the device is connected to a cheaper or higher-bandwidth network.
A method for preparing a cationic electrodeposition coating composition, wherein the method comprises a step of mixing a resin emulsion (i) and a pigment dispersion paste, wherein the resin emulsion (i) comprises an aminated resin (A) and a blocked isocyanate curing agent (B), the pigment dispersion paste comprises a metal compound (C), a pigment dispersion resin (D) and a pigment (E), and wherein the metal compound (C) is one or more a metal oxide or a metal hydroxide having at least one metal element selected from the group consisting of La, Nd, Y, Pr, Yb and Ce, the pigment dispersion paste is prepared by mixing the metal compound (C) and the pigment dispersion resin (D), and mixing the resultant mixture, the pigment dispersion resin (D) and the pigment (E).
A length of supply material comprising: at least one piece of material comprising synthetic fibers, a perimeter, a top face , a bottom face , a first section having a first opening and a second section having a notch and a second opening, wherein the second opening is a slit and wherein the second section is configured to be pulled through the first opening in the first section until the notch and the second opening engage with the first opening .
Method for coding a sequence of images, comprising a step of coding at least one block of a current image of said sequence, implementing a prediction associating said block with at least one corresponding block in a reference image of said sequence, characterized in that said prediction comprises the following steps, for at least one given block of the current image or of the reference image, respectively: - determining a plurality of control vectors for said block, said control vectors each being representative of a motion between a characteristic point of said block and a corresponding position of said characteristic point in the reference image or in the current image, respectively, and said control vectors being determined while taking into account a motion vector of said block and of at least one connection indicator representative of a motion between said block and at least one neighbouring block in said reference image and current image, said at least one connection indicator indicating whether said block and said neighbouring block have a common edge both in the reference image and in the current image after motion compensation; - at least once dividing said block into sub-blocks; - determining a plurality of control vectors for said sub-blocks, on the basis of the control vectors for said block; - determining a prediction value for at least one point of said current image, on the basis of a motion compensation of at least one of said sub-blocks, which compensation is carried out on the basis of the control vectors determined for said sub-block; and in that said method comprises a step of inserting , into a signal representative of said sequence, a prediction residue of the motion vector of the block and items of information for reconstructing said control vectors for said given block, said items of information for reconstructing said control vectors comprising the at least one connection indicator. - determining a plurality of control vectors for said block, said control vectors each being representative of a motion between a characteristic point of said block and a corresponding position of said characteristic point in the reference image or in the current image, respectively, and said control vectors being determined while taking into account a motion vector of said block and of at least one connection indicator representative of a motion between said block and at least one neighbouring block in said reference image and current image, said at least one connection indicator indicating whether said block and said neighbouring block have a common edge both in the reference image and in the current image after motion compensation; - at least once dividing said block into sub-blocks; - determining a plurality of control vectors for said sub-blocks, on the basis of the control vectors for said block; - determining a prediction value for at least one point of said current image, on the basis of a motion compensation of at least one of said sub-blocks, which compensation is carried out on the basis of the control vectors determined for said sub-block;
A sack , in particular, a pinch-bottom sack, which can be filled with a bulk material, having a sheath with at least one surface element , wherein the sheath has a fabric and the surface element has a gripping means , which comprises a load element , on which a carrying force can be applied for lifting the sack , wherein the load element is designed in such a manner that it protrudes at least in certain regions relative to an outer side (3.2) of the surface element at least in a load state (II), in which the carrying force acts on the load element , wherein the load element has a reinforcing means , characterized in that the surface element , the load element and the reinforcing means are of uniform material, wherein each of the components has the same fabric.
A method for removing and/or preventing rouge formation on stainless steel, the method comprising the steps of successively contacting a stainless steel substrate with the following solutions: (i) a first alkaline solution comprising a permanganate and/or bromate compound or any of the corresponding salts as oxidizing agent; (ii) a second neutral or alkaline solution comprising a reducing agent selected from dithionite, sulphite, bisulphite, disulfite or any of the corresponding salts and/or a combination thereof; and, (iii) a third acidic solution comprising at least 5.0×10 -3 to at most 1.0×10 -1 mol/l of complexing anions and at least 1.35×10 -5 to at most 9.0×10 -5 mol/l of Fe 2+ . (i) a first alkaline solution comprising a permanganate and/or bromate compound or any of the corresponding salts as oxidizing agent; (ii) a second neutral or alkaline solution comprising a reducing agent selected from dithionite, sulphite, bisulphite, disulfite or any of the corresponding salts and/or a combination thereof; and, (iii) a third acidic solution comprising at least 5.0×10 -3 to at most 1.0×10 -1 mol/l of complexing anions and at least 1.35×10 -5 to at most 9.0×10 -5 mol/l of Fe 2+ .
Method for detecting emission light , in particular fluorescence light from at least one fluorescent dye, in a laser scanning microscope, in which emission light coming from a sample (S) is guided by way of an imaging optical unit to a two-dimensional matrix sensor that is situated in an image plane and has a multiplicity of pixels , wherein a detection point spread function is detected in spatially oversampled fashion using the matrix sensor , wherein the emission light coming from the sample (S) is spectrally decomposed, in particular in a dispersion direction , using a dispersion device , wherein the spectrally decomposed emission light is detected in spectrally resolved fashion using the matrix sensor , and wherein the evaluation of the intensities ( I i,j ; g i,j ) measured by the pixels ( i , j ) of a pixel region includes a reversal of the spectral separation for at least some of these pixels ( i , j ), characterized in that in order to reverse the spectral separation for the individual pixels ( i , j ) of a pixel region , the intensity values ( g i,j ) measured by the pixels ( i , j ) are assigned to a location in the image plane that has been displaced relative to the respective pixel ( i , j ) by pixel reassignment, with the displacement vector ( d i,j ) depending on the location of the respective pixel ( i , j ) and the wavelength ( λ ) associated with that location. wherein a detection point spread function is detected in spatially oversampled fashion using the matrix sensor , wherein the emission light coming from the sample (S) is spectrally decomposed, in particular in a dispersion direction , using a dispersion device , wherein the spectrally decomposed emission light is detected in spectrally resolved fashion using the matrix sensor , and wherein the evaluation of the intensities ( I i,j ; g i,j ) measured by the pixels ( i , j ) of a pixel region includes a reversal of the spectral separation for at least some of these pixels ( i , j ), characterized in that in order to reverse the spectral separation for the individual pixels ( i , j ) of a pixel region , the intensity values ( g i,j ) measured by the pixels ( i , j ) are assigned to a location in the image plane that has been displaced relative to the respective pixel ( i , j ) by pixel reassignment, with the displacement vector ( d i,j ) depending on the location of the respective pixel ( i , j ) and the wavelength ( λ ) associated with that location.
A grease composition comprising: a biodegradable base oil and a rust-preventive agent, which is a calcium sulfonate complex and a sorbitan fatty acid ester, wherein a total content of biodegradable organic substances in the grease composition is 75% by mass or more, wherein the biodegradable organic substances have a biodegradability of 60% or more by microorganisms, conforming to the OECD test guideline 301B, a content of the calcium sulfonate complex with respect to the sorbitan fatty acid ester, a content of the calcium sulfonate complex/a content of the sorbitan fatty acid ester, is 0.5 to 5.0, and a content of the rust-preventive agent is 2.5 to 30% by mass. a biodegradable base oil and a rust-preventive agent, which is a calcium sulfonate complex and a sorbitan fatty acid ester, wherein a total content of biodegradable organic substances in the grease composition is 75% by mass or more, wherein the biodegradable organic substances have a biodegradability of 60% or more by microorganisms, conforming to the OECD test guideline 301B, a content of the calcium sulfonate complex with respect to the sorbitan fatty acid ester, a content of the calcium sulfonate complex/a content of the sorbitan fatty acid ester, is 0.5 to 5.0, and a content of the rust-preventive agent is 2.5 to 30% by mass.
Tyre, at least the tread of which comprises a composition based on at least a diene elastomer, at a content of between 35 and 99 phr (parts by weight per hundred parts of elastomer), a thermoplastic elastomer of elastomer block and thermoplastic block copolymer type, at a content of between 1 and 65 phr, and a crosslinking system based on an organic peroxide.
Formwork unit comprising a connecting element and a first formwork plate , wherein the connecting element is designed for connecting at least the first formwork plate to a further structural unit during a concreting process, wherein the connecting element comprises: at least one first connecting leg which can be introduced in a form-fitting manner into a receptacle of the first formwork plate and can be shifted in the receptacle in parallel longitudinally along the active surface of the formwork plate as far as an intended end position, at least one first fixing opening , and at least one first wedge-shaped fixing element which can be inserted and locked in the first fixing opening for the force-fitting fixing of the connecting element to the first formwork plate , characterized in that the formwork plate has at least one receptacle , wherein the receptacle is designed as a groove in the formwork plate or as a profile fastened on the active surface of the formwork plate , and a bottom or diameter of the receptacle is wider than a longitudinal opening of the receptacle , wherein a connecting leg of the connecting element associated with the receptacle is formed as a form-fitting counterpart to the receptacle . at least one first connecting leg which can be introduced in a form-fitting manner into a receptacle of the first formwork plate and can be shifted in the receptacle in parallel longitudinally along the active surface of the formwork plate as far as an intended end position, at least one first fixing opening , and at least one first wedge-shaped fixing element which can be inserted and locked in the first fixing opening for the force-fitting fixing of the connecting element to the first formwork plate , characterized in that the formwork plate has at least one receptacle , wherein the receptacle is designed as a groove in the formwork plate or as a profile fastened on the active surface of the formwork plate , and a bottom or diameter of the receptacle is wider than a longitudinal opening of the receptacle , wherein a connecting leg of the connecting element associated with the receptacle is formed as a form-fitting counterpart to the receptacle .
Ion exchanger containing polymers having functional groups of formula (I) wherein represents a polystyrene copolymer scaffold and R 1 and R 2 may be identical or different and independently of one another represent C 1 -C 6 -alkyl or H, and at least one cobalt hexacyanoferrate complex. wherein represents a polystyrene copolymer scaffold and R 1 and R 2 may be identical or different and independently of one another represent C 1 -C 6 -alkyl or H, and at least one cobalt hexacyanoferrate complex.
A method of performing, at a controller , an access to a memory device , the method comprising: transmitting, at the controller , a first command signal (CMD), a first address signal (ADD), and a first swizzling signal (SW) to the memory device to read from a specific subset of memory cells; reading first data bits stored in a memory cell array of the memory device based on the first command signal (CMD) and the first address signal (ADD), wherein the first data bits including at least one front bit and at least one end bit; selecting by a swizzling circuit of the memory device, one of the at least one front bit and the at least one end bit based on the first swizzling signal; and sequentially outputting, at the memory device , at least a part of the first data bits to the controller in a burst manner, based on the first swizzling signal (SW), wherein the at least a part of the first data bits including the selected bit, wherein the at least a part of the first data bits is selected by a plurality of multiplexers (MUX) included in the memory device and the selection is determined by the first swizzling signal (SW), wherein the number of multiplexers (MUX) corresponds to a burst length. transmitting, at the controller , a first command signal (CMD), a first address signal (ADD), and a first swizzling signal (SW) to the memory device to read from a specific subset of memory cells; reading first data bits stored in a memory cell array of the memory device based on the first command signal (CMD) and the first address signal (ADD), wherein the first data bits including at least one front bit and at least one end bit; selecting by a swizzling circuit of the memory device, one of the at least one front bit and the at least one end bit based on the first swizzling signal; and sequentially outputting, at the memory device , at least a part of the first data bits to the controller in a burst manner, based on the first swizzling signal (SW), wherein the at least a part of the first data bits including the selected bit, wherein the at least a part of the first data bits is selected by a plurality of multiplexers (MUX) included in the memory device and the selection is determined by the first swizzling signal (SW), wherein the number of multiplexers (MUX) corresponds to a burst length.
Method for regulating a gas mixture formed from a gas and a fuel gas in a fuel gas-operated heating appliance, wherein the gas mixture is created by providing and mixing a gas quantity by way of a first control element and a fuel gas quantity by way of a second control element , wherein a microthermal gas sensor , which detects at least one material property of the gas , is exposed to the gas and relays a sensor signal dependent on the respective gas to a controller , wherein a microthermal gas mixture sensor , which detects at least one material property of the gas mixture , is exposed to the gas mixture and continuously relays a sensor signal dependent on the respective gas mixture to the controller , wherein, upon change in the detected sensor signal of the gas sensor, a newly detected sensor signal of the gas sensor is compared with reference values which have been measured in the laboratory and saved in a table of values in the controller and from this a target value of the sensor signal of the gas mixture sensor is determined without a mixture ratio of the gas mixture composed of fuel gas and gas being changed, wherein the target value of the sensor signal of the gas mixture sensor is adapted in dependence on a composition of the gas or the fuel gas by the controller and the adapting of the target value of the sensor signal of the gas mixture sensor is done by a calibration process and wherein the calibration process is done in particular by an ionization current regulation of a flame signal of a burner of the heating appliance , until an ionization target value is reached.