mhurhangee/ep-ind-claims huggingface dataset:
A system for assisting a user in positioning a thermal ablation device in a treatment region of a patient body on the basis of a planned ablation position specified in a treatment plan, the thermal ablation device delivering a thermal dose to the treatment region in operation, the system comprising a localization unit adapted to determine a current position of the device and an evaluation unit adapted to, - compute an optimized thermal dose distribution deliverable to the treatment region by means of the device operating at the current position; characterized in that the evaluation unit is further adapted to: - determine a path for steering the device from the current position to the planned position and to assign a cost to the determined path, the cost quantifying estimated detrimental effects of steering the device along the computed path, and - present, via a display unit, information about the optimized thermal dose distribution and about the cost assigned to the computed path to the user for determining whether an ablation treatment shall be performed at the current position or the planned ablation position. - compute an optimized thermal dose distribution deliverable to the treatment region by means of the device operating at the current position; - determine a path for steering the device from the current position to the planned position and to assign a cost to the determined path, the cost quantifying estimated detrimental effects of steering the device along the computed path, and - present, via a display unit, information about the optimized thermal dose distribution and about the cost assigned to the computed path to the user for determining whether an ablation treatment shall be performed at the current position or the planned ablation position.
A seismic isolation assembly comprising: a first support plate configured for fixed attachment to a base; a second support plate disposed in parallel and substantially centered relation with the first support plate and configured for fixed attachment to a structure and in which a spacing is defined between the first and second support plates (104, 110); a plurality of wire rope isolators fixedly mounted in spaced relation between the first support plate and the second support plate, each wire rope isolator having an upper mounting block, a lower mounting block, and a plurality of wire coils introduced through lateral holes formed in each of the upper and lower mounting blocks (130, 134), each wire rope isolator further having a primary axis passing through the centers of the wire coils, parallel to the planes of the first and second support plates (104, 110); and a plurality of sets of linear dampers, each linear damper including a first end attached to an upper surface of the first support plate and an opposing second end attached to the second support plate, and in which each set of linear dampers is disposed between adjacently spaced wire rope isolators, with each linear damper being inwardly mounted from the first support plate to the second support plate and forming an acute angle relative to a plane of said first support plate, the seismic isolation assembly characterized in that: the linear dampers and the wire rope isolators are configured to dampen applied loads simultaneously. a first support plate configured for fixed attachment to a base; a second support plate disposed in parallel and substantially centered relation with the first support plate and configured for fixed attachment to a structure and in which a spacing is defined between the first and second support plates (104, 110); a plurality of wire rope isolators fixedly mounted in spaced relation between the first support plate and the second support plate, each wire rope isolator having an upper mounting block, a lower mounting block, and a plurality of wire coils introduced through lateral holes formed in each of the upper and lower mounting blocks (130, 134), each wire rope isolator further having a primary axis passing through the centers of the wire coils, parallel to the planes of the first and second support plates (104, 110); and a plurality of sets of linear dampers, each linear damper including a first end attached to an upper surface of the first support plate and an opposing second end attached to the second support plate, and in which each set of linear dampers is disposed between adjacently spaced wire rope isolators, with each linear damper being inwardly mounted from the first support plate to the second support plate and forming an acute angle relative to a plane of said first support plate, the seismic isolation assembly characterized in that: the linear dampers and the wire rope isolators are configured to dampen applied loads simultaneously.
A terminal device, comprising: a communication unit configured to perform wireless communication; and a control unit configured to allocate power for communication between a first serving cell and a second serving cell, the second serving cell comprising different sub frame lengths, wherein the control unit is configured to: calculate transmission power of a first uplink physical channel occurring in the first serving cell in a first time unit, and calculate transmission power of a second uplink physical channel occurring in the second serving cell in a second time unit, wherein the first time unit and the second time unit are set to be mutually different values and the second time unit is an integer multiple of the first time unit, and wherein the first serving cell and the second serving cell belong to a same cell group, the first uplink physical channel overlaps the second uplink physical channel on a time axis, and in a case in which a third uplink physical channel which further overlaps the first uplink physical channel on the time axis and occurs in the second serving cell occurs after the second uplink physical channel, a first scaling factor by which the first uplink physical channel and the second uplink physical channel are multiplied and a second scaling factor by which the third uplink physical channel is multiplied are individually decided. a communication unit configured to perform wireless communication; and a control unit configured to allocate power for communication between a first serving cell and a second serving cell, the second serving cell comprising different sub frame lengths, wherein the control unit is configured to: calculate transmission power of a first uplink physical channel occurring in the first serving cell in a first time unit, and calculate transmission power of a second uplink physical channel occurring in the second serving cell in a second time unit, calculate transmission power of a first uplink physical channel occurring in the first serving cell in a first time unit, and calculate transmission power of a second uplink physical channel occurring in the second serving cell in a second time unit, wherein the first time unit and the second time unit are set to be mutually different values and the second time unit is an integer multiple of the first time unit, and wherein the first serving cell and the second serving cell belong to a same cell group, the first uplink physical channel overlaps the second uplink physical channel on a time axis, and in a case in which a third uplink physical channel which further overlaps the first uplink physical channel on the time axis and occurs in the second serving cell occurs after the second uplink physical channel, a first scaling factor by which the first uplink physical channel and the second uplink physical channel are multiplied and a second scaling factor by which the third uplink physical channel is multiplied are individually decided.
A quark matrix having a sodium content of below 50 ppm and a dry matter content of 15 to 20% by weight and a protein content of 10 to 15% by weight, obtained by (a) subjecting raw milk to heat treatment, separating the cream, (b) subjecting the skimmed milk thus obtained to a microfiltration, obtaining a first retentate R1, which represents a first dairy protein concentrate, and a first permeate P1, (c) subjecting the permeate P1 to an ultrafiltration and/or a reverse osmosis, obtaining a second retentate R2, which represents a second dairy protein concentrate, and a second permeate P2, (d) subjecting the permeate P2 to an electrodialysis with a subsequent treatment using a cation exchanger, producing a diluate D1, (e) combining the diluate D1 with the retentate R1, (f) subjecting the combination product thus obtained to heat treatment until denaturation sets in, g) fermenting the denaturation product thus obtained by the addition of starter cultures and rennet, and (h) adjusting the fermentation product thus obtained to defined dry matter and protein contents. (a) subjecting raw milk to heat treatment, separating the cream, (b) subjecting the skimmed milk thus obtained to a microfiltration, obtaining a first retentate R1, which represents a first dairy protein concentrate, and a first permeate P1, (c) subjecting the permeate P1 to an ultrafiltration and/or a reverse osmosis, obtaining a second retentate R2, which represents a second dairy protein concentrate, and a second permeate P2, (d) subjecting the permeate P2 to an electrodialysis with a subsequent treatment using a cation exchanger, producing a diluate D1, (e) combining the diluate D1 with the retentate R1, (f) subjecting the combination product thus obtained to heat treatment until denaturation sets in, g) fermenting the denaturation product thus obtained by the addition of starter cultures and rennet, and (h) adjusting the fermentation product thus obtained to defined dry matter and protein contents.
An optically clear adhesive sheet comprising: a cured product of a heat-curable polyurethane composition, the heat-curable polyurethane composition containing a polyol component, a polyisocyanate component, and a tackifier, the polyol component having an olefin skeleton, the polyisocyanate component being a modified polyisocyanate that is obtained by reacting an acyclic aliphatic and/or alicyclic polyisocyanate containing an isocyanate group with an ether compound containing an ethylene oxide unit. a cured product of a heat-curable polyurethane composition, the heat-curable polyurethane composition containing a polyol component, a polyisocyanate component, and a tackifier, the polyol component having an olefin skeleton, the polyisocyanate component being a modified polyisocyanate that is obtained by reacting an acyclic aliphatic and/or alicyclic polyisocyanate containing an isocyanate group with an ether compound containing an ethylene oxide unit.
A tire with printed strain sensors (30, 32), the tire comprising: a pair of bead areas (12a, 12b); a ground-contacting tread disposed radially outwardly of the pair of bead areas (12a, 12b); a pair of sidewalls, in which each sidewall extends from a respective bead area (12a, 12b) to the tread; a carcass extending toroidally between each of the bead areas (12a, 12b) radially inwardly of the tread; an innerliner formed on an inside surface of the carcass; and characterised by a pair of resistive strain sensors (30, 32) printed on the innerliner. a pair of bead areas (12a, 12b); a ground-contacting tread disposed radially outwardly of the pair of bead areas (12a, 12b); a pair of sidewalls, in which each sidewall extends from a respective bead area (12a, 12b) to the tread; a carcass extending toroidally between each of the bead areas (12a, 12b) radially inwardly of the tread; an innerliner formed on an inside surface of the carcass; and characterised by a pair of resistive strain sensors (30, 32) printed on the innerliner.
A speaker-integration system for an electronic device, the speaker-integration system comprising: an intermediate structure mountable to an outer enclosure of the electronic device, the intermediate structure forming a cavity; a speaker positioned within the cavity of the intermediate structure and oriented to use the cavity as a speaker back volume; a grommet removably positioned within a hole in a wall of the cavity of the intermediate structure, the grommet configured to form a seal around one or more speaker wires passing through the hole; and a gasket removably positioned to secure the speaker within the cavity, the gasket configured to: form a seal around the speaker at an opening of the cavity to seal the opening of the cavity based on a compression force between the intermediate structure and the outer enclosure; and form a seal between the intermediate structure and the outer enclosure. an intermediate structure mountable to an outer enclosure of the electronic device, the intermediate structure forming a cavity; a speaker positioned within the cavity of the intermediate structure and oriented to use the cavity as a speaker back volume; a grommet removably positioned within a hole in a wall of the cavity of the intermediate structure, the grommet configured to form a seal around one or more speaker wires passing through the hole; and a gasket removably positioned to secure the speaker within the cavity, the gasket configured to: form a seal around the speaker at an opening of the cavity to seal the opening of the cavity based on a compression force between the intermediate structure and the outer enclosure; and form a seal between the intermediate structure and the outer enclosure. form a seal around the speaker at an opening of the cavity to seal the opening of the cavity based on a compression force between the intermediate structure and the outer enclosure; and form a seal between the intermediate structure and the outer enclosure.
A stannous-associated phosphopeptide stabilized amorphous calcium phosphate and/or amorphous calcium fluoride phosphate (ACFP) complex having a stannous ion content of at least 1 mole of stannous per mole of phosphopeptide.
A pharmaceutical composition for use in treating or preventing pain comprising a pharmaceutically acceptable carrier and a compound having a structure of Formula II: wherein R 1 and R 2 are different from each other and represent H or OH, and R represents a substituted or unsubstituted alkyl, alkenyl, alkynyl, or cycloalkyl; or a pharmaceutically acceptable salt or optical isomer thereof; wherein said pharmaceutical composition is a nanoemulsion comprising 10, 11, 12, 13 or 14 weight % of an oil phase. wherein R 1 and R 2 are different from each other and represent H or OH, and R represents a substituted or unsubstituted alkyl, alkenyl, alkynyl, or cycloalkyl; or a pharmaceutically acceptable salt or optical isomer thereof; wherein said pharmaceutical composition is a nanoemulsion comprising 10, 11, 12, 13 or 14 weight % of an oil phase.
A method of decreasing the amount of oxidizer required by a pulping or papermaking process comprising adding to a process stream or solution of the pulping or papermaking process urea hydrochloride to reduce the amount of oxidizer required by the pulping or papermaking process wherein the oxidizer comprises chlorine dioxide, ozone, oxygen, hydrogen peroxide, or combinations thereof.
Starter system for an electric motor supplied by a high-voltage electrical network, the starter system comprising an electronic control circuit and an electronic switch for controlling one phase of the motor, the electronic switch being controlled by the control circuit, the starter system comprising a sensor intended to deliver an analogue signal that is representative of the derivative of a current flowing through the phase of the motor, characterized in that the starter system comprises a detection board comprising means for transforming said analogue signal into a binary signal that is representative of the changes in sign of said analogue signal, and comprising means for transmitting said binary signal to the control circuit, the transmission means first converting the binary signal into an optical signal which is transmitted to the control circuit via optical fibre without using a communication protocol, the control circuit then converting the binary optical signal back to a binary electrical signal.
A dry milling method for producing a sugar stream comprising: dry grinding grain and/or grain components into ground grain particles; mixing the ground grain particles with a liquid to provide a slurry; separating the slurry into an initial solids portion and an initial liquid portion, subjecting the initial solids portion to liquefaction to provide a first liquefied starch solution including starch and subjecting at least a portion of the initial liquid portion to a separate liquefaction step to provide a second liquefied starch solution including starch; thereafter, subjecting the second liquefied starch solution to saccharification to convert the starch to simple sugars and produce a saccharified stream including the simple sugars; and after saccharification of the initial liquid portion but prior to further processing of the simple sugars, separating the saccharified stream into a solids portion and a liquid portion including the simple sugars, wherein, prior to separating the saccharified stream into the solids portion and the liquid portion, the separated initial solids remain separate from the saccharified stream of the second liquefied starch solution, and wherein the separated liquid portion from the saccharified stream defines a sugar stream having a dextrose equivalent of at least 20 DE and a total unfermentable solids fraction that is less than or equal to 30% of a total solids content. dry grinding grain and/or grain components into ground grain particles; mixing the ground grain particles with a liquid to provide a slurry; separating the slurry into an initial solids portion and an initial liquid portion, subjecting the initial solids portion to liquefaction to provide a first liquefied starch solution including starch and subjecting at least a portion of the initial liquid portion to a separate liquefaction step to provide a second liquefied starch solution including starch; thereafter, subjecting the second liquefied starch solution to saccharification to convert the starch to simple sugars and produce a saccharified stream including the simple sugars; and after saccharification of the initial liquid portion but prior to further processing of the simple sugars, separating the saccharified stream into a solids portion and a liquid portion including the simple sugars, wherein, prior to separating the saccharified stream into the solids portion and the liquid portion, the separated initial solids remain separate from the saccharified stream of the second liquefied starch solution, and wherein the separated liquid portion from the saccharified stream defines a sugar stream having a dextrose equivalent of at least 20 DE and a total unfermentable solids fraction that is less than or equal to 30% of a total solids content.
Method for exporting a three-dimensional dental design model based on a three-dimensional dental library model from an augmented reality application, the augmented reality application being adapted to visualize on a display an image of the dental library model rendered by a virtual camera with a preliminary pose and scale in a photo of a face of a patient taken by a camera under a viewing axis to the face of the patient, the photo including a mouth opening showing at least part of the present situation of the patient's dentition, the method comprising: - placing within the augmented reality application the rendered image of the dental library model on the photo and providing tools to modify and/or move the dental library model on the display to obtain a desired dental design model, - providing a three-dimensional scan model of the present situation of the patient's dentition, - aligning the scan model and the present situation of the patient's dentition in the photo to obtain a pose of the scan model, - calculating, based on the preliminary pose and scale and the pose of the scan model, at least one transformation to bring the desired dental design model and the scan model into a common coordinate system to obtain a positioned dental design model, characterized by - adapting the positioned dental design model to the scan model with non-rigid deformations by minimizing a measure of shape difference between the positioned dental design model and the scan model to obtain a modified dental design model as the dental design model for export. - placing within the augmented reality application the rendered image of the dental library model on the photo and providing tools to modify and/or move the dental library model on the display to obtain a desired dental design model, - providing a three-dimensional scan model of the present situation of the patient's dentition, - aligning the scan model and the present situation of the patient's dentition in the photo to obtain a pose of the scan model, - calculating, based on the preliminary pose and scale and the pose of the scan model, at least one transformation to bring the desired dental design model and the scan model into a common coordinate system to obtain a positioned dental design model, characterized by - adapting the positioned dental design model to the scan model with non-rigid deformations by minimizing a measure of shape difference between the positioned dental design model and the scan model to obtain a modified dental design model as the dental design model for export.
A bone plate comprising: at least one screw hole (26a, 28a) having a periphery, the screw hole being adapted to receive a bone screw inserted in a proximal-distal direction, a blocker having a blocking end for blocking a bone screw from further backout of bone should the bone screw begin to back out after implantation, the blocker being predisposed in a blocking position, the blocker being moveable from the blocking position by contact with the bone screw during insertion of the bone screw into the screw hole (26a, 28a); and a blocker fixation element (66, 70) having an open orientation at which the blocker can move from the blocking position and a closed orientation, the closed orientation preventing substantial movement of the blocker from the blocking position; in the blocking position, the blocking end of the blocker at least partially overlaps a portion of a head of the bone screw when the head of the bone screw is disposed within the screw hole (26a, 28a), when a head of a bone screw is disposed within the screw hole (26a, 28a), the blocker fixation element (66, 70) cannot be moved to the closed orientation unless the entire head of the bone screw is disposed distally of the blocker and the blocker is disposed in the blocking position, thereby revealing that the blocker fixation element (66, 70) is in position to prevent substantial movement of the blocker, the bone plate being characterized in that: the blocking end of the blocker is arcuate and substantially matches the periphery of the at least one screw hole (26a, 28a). at least one screw hole (26a, 28a) having a periphery, the screw hole being adapted to receive a bone screw inserted in a proximal-distal direction, a blocker having a blocking end for blocking a bone screw from further backout of bone should the bone screw begin to back out after implantation, the blocker being predisposed in a blocking position, the blocker being moveable from the blocking position by contact with the bone screw during insertion of the bone screw into the screw hole (26a, 28a); and a blocker fixation element (66, 70) having an open orientation at which the blocker can move from the blocking position and a closed orientation, the closed orientation preventing substantial movement of the blocker from the blocking position; the blocking end of the blocker is arcuate and substantially matches the periphery of the at least one screw hole (26a, 28a).