mhurhangee/ep-ind-claims huggingface dataset:
An automated system for separating a layer from a layer assembly, the layer assembly comprising a backing layer and a material layer, the automated system comprising: an automated machine having a controller and an end effector; and a separating tool attached to the end effector of the automated machine, the separating tool including, a displacing member configured to establish a void between the backing layer and the material layer by displacing a portion of the backing layer, the displacing member further comprising a displacing member outer face, and a securing member configured to establish a mechanical connection with a displaced portion of the backing layer, wherein the end effector comprises a vacuum roller configured to lift at least a portion of the layer assembly, wherein the vacuum roller is attached to a movable component via an attachment structure, wherein a support arm is secured to the attachment structure and mounts a perforated drum, wherein the perforated drum is rotated at the command of the controller by a servo motor, wherein positioning and functioning input for the end effector is provided to the controller from affixed sensors; and wherein the separating tool is coupled to the vacuum roller in a selected location able to be brought into contact with the layer assembly. an automated machine having a controller and an end effector; and a separating tool attached to the end effector of the automated machine, the separating tool including, a displacing member configured to establish a void between the backing layer and the material layer by displacing a portion of the backing layer, the displacing member further comprising a displacing member outer face, and a securing member configured to establish a mechanical connection with a displaced portion of the backing layer, a displacing member configured to establish a void between the backing layer and the material layer by displacing a portion of the backing layer, the displacing member further comprising a displacing member outer face, and a securing member configured to establish a mechanical connection with a displaced portion of the backing layer, wherein the end effector comprises a vacuum roller configured to lift at least a portion of the layer assembly, wherein the vacuum roller is attached to a movable component via an attachment structure, wherein a support arm is secured to the attachment structure and mounts a perforated drum, wherein the perforated drum is rotated at the command of the controller by a servo motor, wherein positioning and functioning input for the end effector is provided to the controller from affixed sensors; and wherein the separating tool is coupled to the vacuum roller in a selected location able to be brought into contact with the layer assembly.
A heat protection tube comprising: an outer layer comprising aluminum and having an outer surface and an inner surface; and an inner composite layer comprising an aluminum layer and a glass fiber layer, wherein the aluminum layer and the glass fiber layer are laminated together; wherein the aluminum layer of the inner composite layer is bonded to the inner surface of the outer layer; and wherein the glass fiber layer of the inner composite layer defines an interior space of the heat protection tube and wherein the glass fiber layer is at least partially coated with a polymer coating. an outer layer comprising aluminum and having an outer surface and an inner surface; and an inner composite layer comprising an aluminum layer and a glass fiber layer, wherein the aluminum layer and the glass fiber layer are laminated together; wherein the aluminum layer of the inner composite layer is bonded to the inner surface of the outer layer; and wherein the glass fiber layer of the inner composite layer defines an interior space of the heat protection tube and wherein the glass fiber layer is at least partially coated with a polymer coating.
An ex vivo method of estimating a parameter of physiological significance, the method comprising: (a) providing at multiple time points one or more images of a tissue in a subject to whom a dose of a contrast agent has been administered; and (b) determining, using a computer equipped with image processing software, the concentration or relative concentration of the CA in a region or regions of interest in the tissue, thereby generating concentration data; (c) describing the time-based behavior of concentrations of CA within the tissue using a pharmacokinetic model that is based on a set of pharmacokinetic model parameters; and (d) fitting, using computer code, the pharmacokinetic model to the concentration data, varying one or more parameters, wherein the best fit estimates a parameter of physiological significance, wherein the pharmacokinetic model for performing the analysis is a model based on the Krogh cylinder given by the following equations: ∂ C ∂ t = D ∇ 2 C − k o n ε C A g + k o f f B ∂ B ∂ t = k o n ε C A g − k o f f B − k e, B B ∂ A g ∂ t = R S − k o n ε C A g + k o f f B − k e, A g A g ∂ I ∂ t = k e B − k r e s i d I ∂ C ∂ r | r = R = 0 − D ∂ C ∂ r | r = R c a p = P C p − C ε wherein ∇ 2 denotes the Laplacian in cylindrical coordinates, denotes the free CA concentration, denotes the bound CA/antigen concentration, [Ag] denotes the unbound antigen concentration, denotes the concentration of intracellular CA, D denotes the CA diffusion coefficient in tissue, k on denotes the CA/antigen association rate constant, k off denotes the CA/antigen dissociation rate constant, ε denotes the CA void fraction in the tissue, k e,B denotes the internalization rate constant of the CA/antigen bound complex, k e,Ag denotes the internalization rate constant of the antigen, k resid denotes the rate of release of CA or CA signal from the intracellular compartment, Rs denotes the antigen synthesis rate, R denotes the Krogh cylinder radius, R cap denotes the capillary radius, P denotes the tumor capillary permeability, and p denotes an arterial input function. (a) providing at multiple time points one or more images of a tissue in a subject to whom a dose of a contrast agent has been administered; and (b) determining, using a computer equipped with image processing software, the concentration or relative concentration of the CA in a region or regions of interest in the tissue, thereby generating concentration data; (c) describing the time-based behavior of concentrations of CA within the tissue using a pharmacokinetic model that is based on a set of pharmacokinetic model parameters; and (d) fitting, using computer code, the pharmacokinetic model to the concentration data, varying one or more parameters, wherein the best fit estimates a parameter of physiological significance,
A catalyst composition for preparing a conjugated diene-based polymer, the composition comprising: a functionalizing agent of the following Formula 1; a rare earth metal compound; an alkylating agent; and a halogen compound: [Formula 1] (X 1) a -N-(X 2) 3-a in Formula 1, a is an integer of 1 or 2, X 1 and X 2 are each independently selected from the group consisting of a hydrogen atom, monovalent C 1-20 hydrocarbon, - OR a, -SiR b R c R d and a covalent bonding functional group, or adjacent two functional groups in X 1 and X 2 are connected to form a heterocyclic compound, where at least one of X 1 and X 2 includes the covalent bonding functional group, where R a, R b, R c, and R d are each independently selected from the group consisting of a hydrogen atom, C 1-20 alkyl, C 3-20 cycloalkyl, C 6-20 aryl, C 7-20 alkylaryl, C 7-20 arylalkyl, and -NR'R", where R' and R" are each independently selected from the group consisting of a hydrogen atom, C 1-20 alkyl, C 3-20 cycloalkyl, C 6-20 aryl, C 7-20 alkylaryl, C 7-20 arylalkyl, and a covalent bonding functional group, and the covalent bonding functional group is a functional group containing a carbon-carbon double bond. a functionalizing agent of the following Formula 1; a rare earth metal compound; an alkylating agent; and a halogen compound: [Formula 1] (X 1) a -N-(X 2) 3-a in Formula 1, a is an integer of 1 or 2, X 1 and X 2 are each independently selected from the group consisting of a hydrogen atom, monovalent C 1-20 hydrocarbon, - OR a, -SiR b R c R d and a covalent bonding functional group, or adjacent two functional groups in X 1 and X 2 are connected to form a heterocyclic compound, where at least one of X 1 and X 2 includes the covalent bonding functional group, where R a, R b, R c, and R d are each independently selected from the group consisting of a hydrogen atom, C 1-20 alkyl, C 3-20 cycloalkyl, C 6-20 aryl, C 7-20 alkylaryl, C 7-20 arylalkyl, and -NR'R", where R' and R" are each independently selected from the group consisting of a hydrogen atom, C 1-20 alkyl, C 3-20 cycloalkyl, C 6-20 aryl, C 7-20 alkylaryl, C 7-20 arylalkyl, and a covalent bonding functional group, and the covalent bonding functional group is a functional group containing a carbon-carbon double bond. a is an integer of 1 or 2, X 1 and X 2 are each independently selected from the group consisting of a hydrogen atom, monovalent C 1-20 hydrocarbon, - OR a, -SiR b R c R d and a covalent bonding functional group, or adjacent two functional groups in X 1 and X 2 are connected to form a heterocyclic compound, where at least one of X 1 and X 2 includes the covalent bonding functional group, where R a, R b, R c, and R d are each independently selected from the group consisting of a hydrogen atom, C 1-20 alkyl, C 3-20 cycloalkyl, C 6-20 aryl, C 7-20 alkylaryl, C 7-20 arylalkyl, and -NR'R", where R' and R" are each independently selected from the group consisting of a hydrogen atom, C 1-20 alkyl, C 3-20 cycloalkyl, C 6-20 aryl, C 7-20 alkylaryl, C 7-20 arylalkyl, and a covalent bonding functional group, and the covalent bonding functional group is a functional group containing a carbon-carbon double bond.
A computer-implemented method for operating an autonomous vehicle, characterized in that the method comprises: in response to sensor data received from a plurality of sensors mounted on an autonomous vehicle, perceiving a surrounding environment based on the sensor data, wherein the surrounding environment includes a plurality of sub-environments surrounding the autonomous vehicle; for each of the sub-environments, identifying one of a plurality of driving scenario handlers associated with the sub-environment, each driving scenario handler corresponding to one of a plurality of driving scenarios, each of the plurality of driving scenario handlers is to provide driving parameters indicating how the autonomous vehicle should move within the corresponding sub-environment based on the sensor data; and invoking the identified driving scenario handler to determine an individual driving condition within the corresponding sub-environment; determining an overall driving condition for the surrounding environment based on the individual driving conditions provided by the identified driving scenario handlers; planning a route segment based on the overall driving condition of the surrounding environment, generating planning and control data; and controlling the autonomous vehicle based on the planning and control data. in response to sensor data received from a plurality of sensors mounted on an autonomous vehicle, perceiving a surrounding environment based on the sensor data, wherein the surrounding environment includes a plurality of sub-environments surrounding the autonomous vehicle; for each of the sub-environments, identifying one of a plurality of driving scenario handlers associated with the sub-environment, each driving scenario handler corresponding to one of a plurality of driving scenarios, each of the plurality of driving scenario handlers is to provide driving parameters indicating how the autonomous vehicle should move within the corresponding sub-environment based on the sensor data; and invoking the identified driving scenario handler to determine an individual driving condition within the corresponding sub-environment; identifying one of a plurality of driving scenario handlers associated with the sub-environment, each driving scenario handler corresponding to one of a plurality of driving scenarios, each of the plurality of driving scenario handlers is to provide driving parameters indicating how the autonomous vehicle should move within the corresponding sub-environment based on the sensor data; and invoking the identified driving scenario handler to determine an individual driving condition within the corresponding sub-environment; determining an overall driving condition for the surrounding environment based on the individual driving conditions provided by the identified driving scenario handlers; planning a route segment based on the overall driving condition of the surrounding environment, generating planning and control data; and controlling the autonomous vehicle based on the planning and control data.
A bunting bag for children, comprising a main part, a bottom part (18, 18') provided with a bottom wind flap and a zipper extending substantially round a circumference of the bottom part (18, 18'), and a hood-shaped part containing an adjusting device, which main part further comprises a central closing and opening device, characterised in that on each side edge the main part is provided with a wind flap extending in the main part's longitudinal direction to a lower end of the main part, which wind flaps form an inner and outer wind flap in the closing and opening device, and a lower wind flap provided in the main part's lower end and extending round the main part's circumference, from side edge to side edge of the main part, where a horizontal zipper is located inside the lower wind flap and extending substantially round the circumference of the main part, with the result that the wind flaps and the lower and bottom wind flaps (17, 20) will be arranged on an inner and outer side of respectively the closing and opening device and the horizontal zipper and zipper (16, 19), in order thereby to prevent through-flow of air through them.
Method of cosmetic treatment for slowing down or treating skin ageing, and in particular for reducing the depth of wrinkles, and/or slowing down their appearance, and/or restoring the tonicity and elasticity of the skin, and/or slowing down the decrease in tonicity and elasticity of the skin, characterized in that it is applied to the skin an efficient amount of at least one agent for promoting the adhesion of the keratinocytes of the epidermal basal layer to the dermo-epidermal junction, especially to the collagen IV of said junction, selected from magnesium or zinc chloride, or a divalent magnesium or zinc complex with an amino acid, or an C 2 -C 12 aliphatic alpha-hydroxy acid, or a mixture of said salt or of said complex; said agent for promoting the adhesion being applied in a composition containing it in an amount ranging between 0.001 and 1% by weight with respect to the total weight of the composition, either in association with an efficient amount of at least an agent stimulating the synthesis of collagen IV, selected from soya saponins and soya sapogenols, preferably of type A and type B, and plant extracts rich in such compounds, or in association with an efficient amount of an agent stimulating the synthesis of collagen VII, selected from an extract of Potentilla erecta, an extract of Bertholletia, or in association with a combination of both.
Measuring arrangement for determining at least one measured variable, comprising at least one sensor device, at least one signal output for outputting at least one output signal, wherein the output signal transmits information about a measured variable and/or a state of the measuring arrangement using at least one predetermined value of current, wherein the measuring arrangement is equipped with a functionality for recognizing an error state, which is used for monitoring individual components or the entire measuring device, wherein a first adjusting unit, and a second adjusting unit are provided, that the first adjusting unit and the second adjusting unit are configured and attuned to one another so that the first adjusting unit and the second adjusting unit set the value of the current of the output signal to a predetermined desired value, that the first adjusting unit sets a predetermined fixed current value, and the second adjusting unit sets a variable current value, wherein a control unit is provided and the control unit is set via the second adjusting unit depending on the desired value of the variable current value, characterized in that the control unit, in the case that there is an error condition in the measuring arrangement, interrupts power supply to the second adjusting unit.
A method for registering a node (Node A) of an underlying network at an overlay network, wherein the node (Node A) of the underlying network registers at a registration node (NR 1, NR 3) which initiates a propagation of registration information towards the overlay network, characterised in that said node (Node A) of the underlying network comprises multiple interfaces and registers preference information regarding the use of the multiple interfaces at said registration node (NR 1, NR 3).
A method of bonding a predetermined capping moiety onto one or more unpaired cysteine residues on an antibody, said method comprising the step of: growing an antibody-expressing cell line in a culture medium containing said predetermined capping moiety, or a precursor of said predetermined capping moiety, wherein said cell line expresses said antibody, and wherein said predetermined capping moiety is attached by a covalent bond to at least one of said unpaired cysteine residues on said expressed antibody, wherein the capping moiety is selected from a reactive group consisting of maleimido trioxa-4-formyl benzamide (MTFB) with an aldehyde handle, or maleimido azido-lysine with an azide handle, or dibenzocyclooctyl-polyethylene maleimide (DBCO-PEG4-Maleimide) with an alkyne handle.
A method for producing a sugar-containing solution comprised mainly of glucose, comprising hydrolyzing cellulose in the presence of water and a catalyst to produce at least oligosaccharides and glucose, wherein the catalyst is comprised of a porous carbon material comprising a quantity of phenolic hydroxyl groups of 100 mmol/kg or greater and 700 mmol/kg or lower and having a specific surface area of 800 m 2 /g or higher and 2,500 m 2 /g or lower.
Electronic system for controlling docking of a vehicle, such as an airport's vehicule, at a given docking zone of a docking destination of a docking destination of an airplan or of a building, the given docking zone comprising at least one target (3,4), the system comprising first means for determining configured for determining the docking zone's position by determining the type of the target (3,4) from a set of given types and from its position, second means for determining configured for determining a guidance trajectory of the vehicle to said docking zone depending on the type and on the position of said target (3,4), and third means for determining configured for determining the type of the docking destination, the second determination being suitable for determining one or more exclusion zones depending on a type of the docking destination, by comparison of the type of the docking destination with types of docking destination stored in a database in association with exclusion zones so that the guidance trajectory of the vehicle to the given docking zone does not pass into any of the exclusion zones, characterized in that the second means for determining are suitable to determine a docking line passing through a target situated on a surface of the docking zone and perpendicular to said surface, so that the guidance trajectory of the vehicle to the docking zone is terminated by a final portion of said docking line with a length greater than or equal to a determined threshold greater than or equal to 2 meters, the second means for determining being suitable for said trajectory for going to the final portion of the docking line by adjusting the trajectory at different predetermined moments, in order, at each of the predetermined moments: - to align the rear suspension of the vehicle with the docking line when said vehicle is located at a distance greater than a given distance from the docking line; - to align a front suspension of the vehicle with the docking line when said vehicle is located at a distance less than the given distance from the docking line; and - to retain the trajectory determined at a preceding moment if the confidence level in locating the targets (3, 4) determined the first means for determining is less than a given threshold, or if the first means for determining are no longer detecting the targets (3, 4). - to align the rear suspension of the vehicle with the docking line when said vehicle is located at a distance greater than a given distance from the docking line; - to align a front suspension of the vehicle with the docking line when said vehicle is located at a distance less than the given distance from the docking line; and - to retain the trajectory determined at a preceding moment if the confidence level in locating the targets (3, 4) determined the first means for determining is less than a given threshold, or if the first means for determining are no longer detecting the targets (3, 4).
A folding ski that comprises: - a ski front section having a front end with a tip slightly bent upwards and a rear end, - a ski rear section having a front end and a rear end with a tail slightly bent upwards, - a folding connection that inseparably connects the rear end of the ski front section with the front end of the ski rear section, - a connecting platform serving to reinforce the folding connection of the ski in its functional state, wherein the connecting platform has at least four tongues (61, 62, 63, 64), one at each end of the connecting platform and two in the central area of the connecting platform proximal to the folding connection, one from each side of the folding connection, wherein grooves (71, 72, 73, 74) are formed on the front section of the ski and the rear section of the ski, said grooves being arranged in a way to engage, in the functional state of the ski, the tongues of the connecting platform, wherein the connecting platform is formed in the shape of ski camber bent upwards in an arcuate manner and formed from an elastic material characterized in that in the functional state of the ski, the arcuate shape of the connecting platform preloads the ski in a way that the ski is camber-shaped, wherein the ratio between the height (h) and the length of the ski camber of the connecting platform ranges from 1:170 to 1:280, is preferably about 1:240. - a ski front section having a front end with a tip slightly bent upwards and a rear end, - a ski rear section having a front end and a rear end with a tail slightly bent upwards, - a folding connection that inseparably connects the rear end of the ski front section with the front end of the ski rear section, - a connecting platform serving to reinforce the folding connection of the ski in its functional state, wherein the connecting platform has at least four tongues (61, 62, 63, 64), one at each end of the connecting platform and two in the central area of the connecting platform proximal to the folding connection, one from each side of the folding connection, wherein grooves (71, 72, 73, 74) are formed on the front section of the ski and the rear section of the ski, said grooves being arranged in a way to engage, in the functional state of the ski, the tongues of the connecting platform, wherein the connecting platform is formed in the shape of ski camber bent upwards in an arcuate manner and formed from an elastic material characterized in that in the functional state of the ski, the arcuate shape of the connecting platform preloads the ski in a way that the ski is camber-shaped, wherein the ratio between the height (h) and the length of the ski camber of the connecting platform ranges from 1:170 to 1:280, is preferably about 1:240.