mhurhangee/patent-ind-claim-en huggingface dataset:
A system for visualizing a spinal column object in image data using a first cross-section surface coupled to a deformable spinal column model of the object, the model comprising features of the object, wherein the system comprises: - a model unit for adapting the model to the object in the image data; - a surface unit for adapting the first cross-section surface to the adapted model on the basis of the coupling between the first cross-section surface and the model; and - a visualization unit for computing an image from the image data on the basis of the adapted first cross-section surface, characterised in that the model unit is arranged for employing the spinal column model comprising a plurality of deformable mesh models of individual vertebrae and for adapting the mesh models of individual vertebrae to vertebrae of the spinal column object in image data. - a model unit for adapting the model to the object in the image data; - a surface unit for adapting the first cross-section surface to the adapted model on the basis of the coupling between the first cross-section surface and the model; and - a visualization unit for computing an image from the image data on the basis of the adapted first cross-section surface, characterised in that the model unit is arranged for employing the spinal column model comprising a plurality of deformable mesh models of individual vertebrae and for adapting the mesh models of individual vertebrae to vertebrae of the spinal column object in image data.
A rubber mixture production line comprising an internal mixer (MI) that performs a process of producing a masterbatch from raw materials comprising at least one elastomeric material, at least one cooling roller tool (OCR) disposed downstream of the internal mixer (MI) that performs a cooling process of the rubber mixture exiting the internal mixer (MI), a batch-off installation (BO) disposed downstream of the cooling roller tool (OCR) that performs an anti-sticking and cooling process of the rubber mixture, and an end-of-line installation (FL) that performs an anti-sticking and cooling process of the rubber mixture, characterized in that the production line further comprises : - at least one twin-screw mixing and extrusion machine (B 1 ) that is disposed upstream of the batch-off installation (BO) and downstream of the cooling roller tool (OCR) and that carries out a mixing process of the rubber mixture, during which vulcanizing agents are added to the cooled rubber mixture exiting the cooling roller tool (OCR); - at least one homogenizing roller tool (OCHx) that is disposed upstream of the batch-off installation (BO) and downstream of the cooling roller tool (OCR) and that carries out a treatment process for the cooled rubber mixture, during which vulcanizing agents are added to the rubber mixture exiting the cooling roller tool (OCR); and - a shaping installation (MF) that carries out a process of shaping the rubber mixture exiting the homogenizing roller tool (OCHX). - at least one twin-screw mixing and extrusion machine (B 1 ) that is disposed upstream of the batch-off installation (BO) and downstream of the cooling roller tool (OCR) and that carries out a mixing process of the rubber mixture, during which vulcanizing agents are added to the cooled rubber mixture exiting the cooling roller tool (OCR); - at least one homogenizing roller tool (OCHx) that is disposed upstream of the batch-off installation (BO) and downstream of the cooling roller tool (OCR) and that carries out a treatment process for the cooled rubber mixture, during which vulcanizing agents are added to the rubber mixture exiting the cooling roller tool (OCR); and - a shaping installation (MF) that carries out a process of shaping the rubber mixture exiting the homogenizing roller tool (OCHX).
Camera for monitoring a monitoring region comprising a camera sensor for generating at least one unmasked monitoring image of the monitoring region and/or of a partial region of the monitoring region , wherein the camera sensor is configured to provide raw data, wherein the raw data comprise the at least one unmasked monitoring image , comprising an evaluation unit , wherein the evaluation unit comprises an input interface for accepting the raw data and comprises an output interface for providing output image data, wherein evaluation unit comprises a check module and a masking module , wherein the check module is configured to detect a person in the unmasked monitoring image on the basis of the raw data, wherein the masking module is configured to generate a masked monitoring image wherein the detected person is represented in a masked manner in the masked monitoring image , wherein the evaluation unit is an evaluation unit integrated into the camera , wherein the output image data comprise exclusively masked monitoring images , characterized by a blocking module , wherein the blocking module is arranged between masking module and output interface in terms of data technology, wherein the blocking module is configured to examine the masked monitoring images for persons and/or personal data and to block and/or to terminate the outputting of output image data in the event of detection of persons and/or personal data in the masked monitoring images. comprising an evaluation unit , wherein the evaluation unit comprises an input interface for accepting the raw data and comprises an output interface for providing output image data, wherein evaluation unit comprises a check module and a masking module , wherein the check module is configured to detect a person in the unmasked monitoring image on the basis of the raw data, wherein the masking module is configured to generate a masked monitoring image wherein the detected person is represented in a masked manner in the masked monitoring image , wherein the evaluation unit is an evaluation unit integrated into the camera , wherein the output image data comprise exclusively masked monitoring images , characterized by a blocking module , wherein the blocking module is arranged between masking module and output interface in terms of data technology, wherein the blocking module is configured to examine the masked monitoring images for persons and/or personal data and to block and/or to terminate the outputting of output image data in the event of detection of persons and/or personal data in the masked monitoring images.
A tire having a tire frame , the tire frame comprising a thermoplastic elastomer as a resin material, and the thermoplastic elastomer having a value of orientation f, as measured by a small angle X-ray scattering method, of from -0.08 to 0.08, where the orientation f is calculated by the formula f = 1/2×(3×<cos 2 θ>-1), where θ refers to a crystalline orientation angle, and this is measured by SAXS, small angle X-ray scattering, from a sample prepared from the tire frame or a material for forming the tire frame .
An electrochemical cell comprising: a hydrogen electrode ; an electrolyte laminated on the hydrogen electrode ; a barrier-layer laminated on the electrolyte ; and an oxygen electrode laminated on the barrier-layer , wherein the barrier-layer has a porous structure having a thickness of 100 μm or greater and 500 μm or less and a porosity of greater than 10%, determined by scanning electron microscopy. a hydrogen electrode ; an electrolyte laminated on the hydrogen electrode ; a barrier-layer laminated on the electrolyte ; and an oxygen electrode laminated on the barrier-layer , wherein the barrier-layer has a porous structure having a thickness of 100 μm or greater and 500 μm or less and a porosity of greater than 10%, determined by scanning electron microscopy.
A well torpedo system comprising: a torpedo configured to be advanced in a wellbore of a subterranean well , the torpedo comprising: an integrated spool configured to hold a fiber-optic (FO) umbilical comprising a FO line configured to couple to a surface component; and a jet-pump engine configured to combust solid propellant to generate thrust to propel advancement of the torpedo in the wellbore, the jet-pump engine comprising: the solid propellant; an igniter configured to ignite the solid propellant to generate gas; a mixing chamber ; a well fluid inlet that is configured to route well fluid from the wellbore into the mixing chamber; and an exhaust port ; wherein the gas is routed into the mixing chamber to mix with the well fluid in the mixing chamber, and a resultant mixture of the gas and the well fluid is expelled from the exhaust port to generate the thrust to propel advancement of the torpedo in the wellbore. an integrated spool configured to hold a fiber-optic (FO) umbilical comprising a FO line configured to couple to a surface component; and a jet-pump engine configured to combust solid propellant to generate thrust to propel advancement of the torpedo in the wellbore, the jet-pump engine comprising: the solid propellant; an igniter configured to ignite the solid propellant to generate gas; a mixing chamber ; a well fluid inlet that is configured to route well fluid from the wellbore into the mixing chamber; and an exhaust port ; the solid propellant; an igniter configured to ignite the solid propellant to generate gas; a mixing chamber ; a well fluid inlet that is configured to route well fluid from the wellbore into the mixing chamber; and an exhaust port ;
A transmission device for a transport cart, comprising: a crawling assembly , a rotary drive assembly, and a crawling drive assembly, wherein the crawling assembly comprises: a wheel frame , comprising a first end and a second end opposite to the first end, the wheel frame extending from the first end to the second end; a driving wheel , mounted at the second end and having an axis perpendicular to an extending direction of the wheel frame ; and a guide wheel , mounted at the second end and having an axis parallel to the extending direction of the wheel frame , wherein, the rotary drive assembly is configured to drive the wheel frame to rotate around a central axis of the extending direction of the wheel frame , and the crawling drive assembly is configured to drive the driving wheel to roll. a wheel frame , comprising a first end and a second end opposite to the first end, the wheel frame extending from the first end to the second end; a driving wheel , mounted at the second end and having an axis perpendicular to an extending direction of the wheel frame ; and a guide wheel , mounted at the second end and having an axis parallel to the extending direction of the wheel frame , wherein, the rotary drive assembly is configured to drive the wheel frame to rotate around a central axis of the extending direction of the wheel frame , and the crawling drive assembly is configured to drive the driving wheel to roll.
Food preparation apparatus comprising a food preparation vessel , a rotatable too! and a sensor , in particular for determining the weight of a food in the food preparation vessel , characterized in in that the tool is a mixing knife and a control unit is provided and configured such that, when a food is chopped in the food preparation vessel by the mixing knife, the control unit determines, on the basis of a sensor signal (S) of the sensor, whether a predetermined chopping state of the food has been reached.
A toner cartridge , comprising: a hollow body including an inner space in which toner is received and a toner discharge portion through which the toner is discharged; a plunger , accommodated in the inner space , movable from a first position to a second position along the inner space to push the toner through the toner discharge portion ; characterized by a first hook provided on the body ; and a second hook , provided on the plunger and having a shape complementary to a shape of the first hook , to be elastically coupled to the first hook when the plunger is at the second position. a hollow body including an inner space in which toner is received and a toner discharge portion through which the toner is discharged; a plunger , accommodated in the inner space , movable from a first position to a second position along the inner space to push the toner through the toner discharge portion ; characterized by a first hook provided on the body ; and a second hook , provided on the plunger and having a shape complementary to a shape of the first hook , to be elastically coupled to the first hook when the plunger is at the second position.
An electronic device comprising: circuitry configured to perform communications with a road side unit , RSU, and another electronic device mounted to a moving object; receive, from the RSU, parameters for performing intermittent device-to-device, D2D, communication with the other electronic device, the parameters including information indicating a resource pool used for performing the intermittent D2D communication with the other electronic device, the information indicating the resource pool including information identifying resources used for discontinuous transmission, DTX, and discontinuous reception, DRX; and perform intermittent D2D communication with the other electronic device based on the parameters received from the RSU, wherein the parameters include information identifying one of a plurality of groups to which the electronic device belongs, each group having different parameters for performing intermittent D2D communication that are commonly applied to electronic devices associated with each group. perform communications with a road side unit , RSU, and another electronic device mounted to a moving object; receive, from the RSU, parameters for performing intermittent device-to-device, D2D, communication with the other electronic device, the parameters including information indicating a resource pool used for performing the intermittent D2D communication with the other electronic device, the information indicating the resource pool including information identifying resources used for discontinuous transmission, DTX, and discontinuous reception, DRX; and perform intermittent D2D communication with the other electronic device based on the parameters received from the RSU, wherein the parameters include information identifying one of a plurality of groups to which the electronic device belongs, each group having different parameters for performing intermittent D2D communication that are commonly applied to electronic devices associated with each group.
A method for resource selection, the method comprising: performing , by a user equipment , (UE), a first sensing operation to determine available resources in a resource pool ; transmitting , by the UE , first data using a first set of available resources, the first set of available resources having been selected from the resource pool in accordance with the first sensing operation; performing , by the UE , concurrently with the first sensing operation and resource selection of the first set of available resources and independently from the first sensing operation, a second sensing operation to determine other available resources in the resource pool ; transmitting , by the UE , second data using a second set of available resources, the second set of available resources having been selected from the resource pool in accordance with the second sensing operation, wherein the first set of available resources and the second set of available resources are independently selected, wherein the first data and the second data are the same data; and wherein the first set of available resources and the second set of available resources are used in the same resource interval. performing , by a user equipment , (UE), a first sensing operation to determine available resources in a resource pool ; transmitting , by the UE , first data using a first set of available resources, the first set of available resources having been selected from the resource pool in accordance with the first sensing operation; performing , by the UE , concurrently with the first sensing operation and resource selection of the first set of available resources and independently from the first sensing operation, a second sensing operation to determine other available resources in the resource pool ; transmitting , by the UE , second data using a second set of available resources, the second set of available resources having been selected from the resource pool in accordance with the second sensing operation, wherein the first set of available resources and the second set of available resources are independently selected, wherein the first data and the second data are the same data; and wherein the first set of available resources and the second set of available resources are used in the same resource interval.
An epoxy resin composition, characterized by comprising an epoxy resin A and an epoxy resin B; wherein a refractive index of the epoxy resin A is 1.54 to 1.8 and a light transmittance measured as defined in the description of the epoxy resin A is greater than 90%; wherein a refractive index of the epoxy resin B is 1.54 to 1.8 and a light transmittance measured as defined in the description of the epoxy resin B is greater than 90%; and wherein the epoxy resin A is an organosilicon modified epoxy resin and the epoxy resin B is another type of epoxy resin; wherein the organosilicon modified epoxy resin is at least one selected from a group consisting of hydroxyl-terminated polydimethylsilane modified epoxy resin epoxy resin, amino-terminated polydimethylsiloxane modified epoxy resin, and aminopropyl-terminated dimethyldiphenylsiloxane modified epoxy resin, and the another type of epoxy resin is selected from a group consisting of bisphenol A epoxy resin, bisphenol F epoxy resin, and glycidyl ester epoxy resin. wherein a refractive index of the epoxy resin A is 1.54 to 1.8 and a light transmittance measured as defined in the description of the epoxy resin A is greater than 90%; wherein a refractive index of the epoxy resin B is 1.54 to 1.8 and a light transmittance measured as defined in the description of the epoxy resin B is greater than 90%; and wherein the epoxy resin A is an organosilicon modified epoxy resin and the epoxy resin B is another type of epoxy resin; wherein the organosilicon modified epoxy resin is at least one selected from a group consisting of hydroxyl-terminated polydimethylsilane modified epoxy resin epoxy resin, amino-terminated polydimethylsiloxane modified epoxy resin, and aminopropyl-terminated dimethyldiphenylsiloxane modified epoxy resin, and the another type of epoxy resin is selected from a group consisting of bisphenol A epoxy resin, bisphenol F epoxy resin, and glycidyl ester epoxy resin.
Process for the preparation of an infant formula base product, comprising: (a) a micro filtration step (MF2) of animal skim milk over a ceramic membrane having a porosity of 0.10 - 0.30 micrometer or over a spiral wound organic membrane having a porosity of 0.10 - 0.35 micrometer, resulting in a retentate (MFR2) and a permeate (MFP2); (b) an ultrafiltration step (UF) of a liquid composition originating from the MFP2 over a membrane having a molecular weight cut-off of at most 25 kDa, resulting in a retentate (UFR) and a permeate (UFP); (c) mixing a composition originating from the MFR2 and a composition originating from the UFR, whereby a composition having a casein/whey protein weight ratio of 30/70 - 50/50 is obtained. wherein the micro filtration operates with a volume concentration factor of 4 - 8 and the ultrafiltration operates with a volume concentration factor of 3 - 7; and/or wherein the MFR2 obtained in step (a) comprises at most 15 wt% whey protein based on total protein and at least 55 wt% casein based on dry weight, the MFP2 obtained in step (a) comprises at most 1.0 wt% casein based on total dry weight, and the UFR obtained in step (b) comprises 22 - 33 wt% whey proteins based on total dry weight and a phosphorus/protein weight ratio between 1/40 and 1/100. (a) a micro filtration step (MF2) of animal skim milk over a ceramic membrane having a porosity of 0.10 - 0.30 micrometer or over a spiral wound organic membrane having a porosity of 0.10 - 0.35 micrometer, resulting in a retentate (MFR2) and a permeate (MFP2); (b) an ultrafiltration step (UF) of a liquid composition originating from the MFP2 over a membrane having a molecular weight cut-off of at most 25 kDa, resulting in a retentate (UFR) and a permeate (UFP); (c) mixing a composition originating from the MFR2 and a composition originating from the UFR, whereby a composition having a casein/whey protein weight ratio of 30/70 - 50/50 is obtained.
An electrophotographic electroconductive member comprising: a support having an electroconductive outer surface; and an electroconductive layer on the electroconductive outer surface of the support , the electroconductive layer having a matrix comprising a first rubber, and domains dispersed in the matrix , the domains each comprising a second rubber and an electronic electroconductive agent , wherein the electroconductive member is configured such that when measuring impedance, a metal film is provided on an outer surface of the electroconductive member , and impedance is measured by applying an AC voltage with an amplitude of 1 V between the electroconductive outer surface of the support and the metal film while varying a frequency between 1.0 × 10 -2 Hz to 1.0 × 10 7 Hz under an environment of a temperature of 23°C and a humidity of 50% RH, and a double logarithmic plot with a frequency on an abscissa and an impedance on an ordinate is obtained, a slope at frequencies of 1.0 × 10 5 Hz to 1.0 × 10 6 Hz is -0.8 or more and -0.3 or less, and the impedance at frequencies 1.0 × 10 -2 Hz to 1.0 × 10 1 Hz is 1.0 × 10 3 to 1.0 × 10 7 Ω. a support having an electroconductive outer surface; and an electroconductive layer on the electroconductive outer surface of the support , the electroconductive layer having a matrix comprising a first rubber, and domains dispersed in the matrix , the domains each comprising a second rubber and an electronic electroconductive agent , wherein the electroconductive member is configured such that when measuring impedance, a metal film is provided on an outer surface of the electroconductive member , and impedance is measured by applying an AC voltage with an amplitude of 1 V between the electroconductive outer surface of the support and the metal film while varying a frequency between 1.0 × 10 -2 Hz to 1.0 × 10 7 Hz under an environment of a temperature of 23°C and a humidity of 50% RH, and a double logarithmic plot with a frequency on an abscissa and an impedance on an ordinate is obtained, a slope at frequencies of 1.0 × 10 5 Hz to 1.0 × 10 6 Hz is -0.8 or more and -0.3 or less, and the impedance at frequencies 1.0 × 10 -2 Hz to 1.0 × 10 1 Hz is 1.0 × 10 3 to 1.0 × 10 7 Ω.
A curable precursor of a structural adhesive composition, comprising: a) a cationically self-polymerizable monomer; b) a polymerization initiator of the cationically self-polymerizable monomer which is initiated at a temperature T1; c) a curable monomer which is different from the cationically self-polymerizable monomer; and d) a curing initiator of the curable monomer which is initiated at a temperature T2 and which is different from the polymerization initiator of the cationically self-polymerizable monomer; wherein the cationically self-polymerizable monomer is a polyfunctional compound comprising at least one cyclic amine; and wherein the curable monomer which is different from the cationically self-polymerizable monomer comprises at least one functional group selected from the group consisting of epoxy groups. a) a cationically self-polymerizable monomer; b) a polymerization initiator of the cationically self-polymerizable monomer which is initiated at a temperature T1; c) a curable monomer which is different from the cationically self-polymerizable monomer; and d) a curing initiator of the curable monomer which is initiated at a temperature T2 and which is different from the polymerization initiator of the cationically self-polymerizable monomer;