mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling tooth movements for correcting malocclusions, comprising: receiving a plurality of digital tooth models of a subject having one or more malocclusions; determining a movement for each of the digital tooth models for correcting the malocclusions via a tooth movement manager module, wherein determining a movement comprises independently executing a tooth movement plan for each of the tooth models, wherein independently executing comprises concurrently triggering initiation of the treatment plans by the multiple tooth models; assigning a sphere of influence on each of the tooth models to set a proximity distance between each tooth model via a collision manager module, wherein assigning a sphere of influence further comprises monitoring for a collision between tooth models; monitoring an actual state of each tooth (20; 22, 24) of the subject; comparing the actual state of each tooth (20; 22, 24) against an expected state of each tooth model via a tooth manager module; and adjusting the movement of one or more teeth (20; 22, 24) based on a comparison of the actual state and the expected state if a deviation is detected, characterized by further comprising communicating a collision warning to an adjacent tooth model such that one or more of the tooth models alter their movement to avoid the collision. receiving a plurality of digital tooth models of a subject having one or more malocclusions; determining a movement for each of the digital tooth models for correcting the malocclusions via a tooth movement manager module, wherein determining a movement comprises independently executing a tooth movement plan for each of the tooth models, wherein independently executing comprises concurrently triggering initiation of the treatment plans by the multiple tooth models; assigning a sphere of influence on each of the tooth models to set a proximity distance between each tooth model via a collision manager module, wherein assigning a sphere of influence further comprises monitoring for a collision between tooth models; monitoring an actual state of each tooth (20; 22, 24) of the subject; comparing the actual state of each tooth (20; 22, 24) against an expected state of each tooth model via a tooth manager module; and adjusting the movement of one or more teeth (20; 22, 24) based on a comparison of the actual state and the expected state if a deviation is detected, characterized by further comprising communicating a collision warning to an adjacent tooth model such that one or more of the tooth models alter their movement to avoid the collision.
Clamp, comprising a clamp ring having a receiving space for receiving an elongate object, an insertion opening for inserting the elongate object into the receiving space, and a closure for closing the insertion opening, the closure having a closure pin arranged on the clamp ring at a first end region of the clamp ring, a through opening arranged in the clamp ring at a second end region of the clamp ring for the closure pin, and a closure flap arranged at the second end region of the clamp ring for catching the closure pin in the through opening, characterized in that, the closure flap passes through the through opening for the closure pin in order to form a hinge. characterized in that, the closure flap passes through the through opening for the closure pin in order to form a hinge.
Part obtained by selective melting of a powder on a support plate, this part comprising a main element and rigid secondary elements, these secondary elements being arranged between the main element and the support plate, the secondary elements being intended to be detached from the main element, characterized in that all or part of the secondary elements comprises a body of thickness E and a head of width L which is greater than the thickness E of this body, the body being connected to the support plate and the head being connected to the main element and in that all or part of the secondary elements comprises a region of connection between the head and the body and in that the head of the secondary element extends over at most half the height H of this element and in that the region of connection has a blend radius R, said blend radius R being between 1 and 20 mm.
A Fresnel lens in which a plurality of protruding lens portions are concentrically, continuously formed, wherein a lens surface and a non-lens surface are formed in each of the lens portions, the non-lens surface includes a rise surface and a coupling surface, the rise surface is a surface along the optical axis of the Fresnel lens, the coupling surface is a surface which is formed on a top portion of each of the lens portions so as to couple the lens surface of the lens portion and the rise surface of the lens portion to each other, and which has a width extending in a radial direction of the Fresnel lens, and a light absorbing portion is provided in a position along the optical axis of the Fresnel lens which passes through the coupling surface, wherein the light absorbing portion is formed in an inside of each of the lens portions.
A diagnostic support for a skin comprising - a radio-transparent structure suitable to define at least one folding surface of said skin on which said skin may be at least partially stretched and consequently folded, thereby defining folded, mutually superimposed portions of said skin; - and characterised in that - said radio-transparent structure is suitable to position itself between said folded portions, thus spacing them apart from each other, said radio-transparent structure defines a longitudinal axis and comprises ∘ a flexible plate defining said folding surface and suitable to roll up on itself, thus folding said skin, and ∘ a base body on which the plate is wound defining an axis substantially extending almost parallel to said longitudinal axis; and in that - said base body has a circular section perpendicular to said longitudinal axis with a diameter suitably at least equal to 5 cm. - a radio-transparent structure suitable to define at least one folding surface of said skin on which said skin may be at least partially stretched and consequently folded, thereby defining folded, mutually superimposed portions of said skin; - and characterised in that - said radio-transparent structure is suitable to position itself between said folded portions, thus spacing them apart from each other, said radio-transparent structure defines a longitudinal axis and comprises ∘ a flexible plate defining said folding surface and suitable to roll up on itself, thus folding said skin, and ∘ a base body on which the plate is wound defining an axis substantially extending almost parallel to said longitudinal axis; and in that ∘ a flexible plate defining said folding surface and suitable to roll up on itself, thus folding said skin, and ∘ a base body on which the plate is wound defining an axis substantially extending almost parallel to said longitudinal axis; - said base body has a circular section perpendicular to said longitudinal axis with a diameter suitably at least equal to 5 cm.
A dental handpiece device comprising: a dental handpiece main body; and a dental handpiece imaging device with which the dental handpiece main body is equipped, wherein the dental handpiece imaging device comprises: a plurality of camera modules; a processing means; and a display means; wherein each of the plurality of camera modules is adapted to take an image and to convert the image, which is taken, to an electric signal; the processing means is adapted to receive the electric signal from each of the camera modules, to calculate for generating an image based on the electric signal, and to switch a display of an image, which is taken by any of the plurality of camera modules, on the display means; characterised therein that the processing means is adapted to calculate for determining whether or not a portion drilled by a tool that is mounted on the dental handpiece main body can be visually perceived using one of the camera modules. a dental handpiece main body; and a dental handpiece imaging device with which the dental handpiece main body is equipped, wherein the dental handpiece imaging device comprises: a plurality of camera modules; a processing means; and a display means; a plurality of camera modules; a processing means; and a display means; wherein each of the plurality of camera modules is adapted to take an image and to convert the image, which is taken, to an electric signal; the processing means is adapted to receive the electric signal from each of the camera modules, to calculate for generating an image based on the electric signal, and to switch a display of an image, which is taken by any of the plurality of camera modules, on the display means; characterised therein that the processing means is adapted to calculate for determining whether or not a portion drilled by a tool that is mounted on the dental handpiece main body can be visually perceived using one of the camera modules.
A preform configured to receive liquid resin in a liquid molding process, said preform having an initial thickness T 1 and comprising a plurality of superimposed fibrous tapes laid down by an automated placement process, wherein each tape comprises a layer of unidirectional fibers which are aligned parallel to each other, a nonwoven veil bonded to at least one side of the layer of unidirectional fibers, and two different binding materials distributed on at least one side of the layer of unidirectional fibers and penetrated through portions of the nonwoven veil, or distributed throughout the tape, including in spaces between the unidirectional fibers and on portions of the veil, the first binding material is: i. a binder that is a solid at a temperature of up to 50°C, having a softening point at a temperature in the range of 75°C to 125°C as measured by Differentical Scanning Calorimetry, and comprising a blend of epoxy resin and thermoplastic polymer, but is void of any catalyst or cross-linking agent which is active above 75°C; or ii. a composition comprising: at least one multifunctional epoxy resin; at least one thermoplastic polymer; and at least one surfactant selected from anionic surfactants and nonionic surfactants; and the second binding material is iii. partially or fully cross-linked copolymer of polyhydroxyether and polyurethane; the tape, including the nonwoven veil, is porous and permeable to a liquid resin to be used in a subsequent liquid molding process; and the preform exhibits a low-bulk property upon heating as determined by the heating and forming process of the automated placement process. i. a binder that is a solid at a temperature of up to 50°C, having a softening point at a temperature in the range of 75°C to 125°C as measured by Differentical Scanning Calorimetry, and comprising a blend of epoxy resin and thermoplastic polymer, but is void of any catalyst or cross-linking agent which is active above 75°C; or ii. a composition comprising: at least one multifunctional epoxy resin; at least one thermoplastic polymer; and at least one surfactant selected from anionic surfactants and nonionic surfactants; and the second binding material is iii. partially or fully cross-linked copolymer of polyhydroxyether and polyurethane;
A system comprising: a first transformer and a second transformer arranged in a parallel configuration configured to deliver power to components of a building management system, BMS,; a direct digital control, DDC, circuit configured to control power delivered through the first and the second transformers (102, 104) to the components of the BMS; a first temperature sensor, operationally connected to the DDC circuit, configured to measure a first temperature of the first transformer; and a second temperature sensor, operationally connected to the DDC circuit, configured to measure a second temperature of the second transformer, wherein the DDC circuit is configured to determine a difference between the first temperature and the second temperature to predict a fault in the first transformer or the second transformer. a first transformer and a second transformer arranged in a parallel configuration configured to deliver power to components of a building management system, BMS,; a direct digital control, DDC, circuit configured to control power delivered through the first and the second transformers (102, 104) to the components of the BMS; a first temperature sensor, operationally connected to the DDC circuit, configured to measure a first temperature of the first transformer; and a second temperature sensor, operationally connected to the DDC circuit, configured to measure a second temperature of the second transformer, wherein the DDC circuit is configured to determine a difference between the first temperature and the second temperature to predict a fault in the first transformer or the second transformer.
A system, comprising: an extended life mold release agent configured to coat a surface of a mold cavity, wherein the extended life mold release agent comprises: a first material configured to be placed in direct physical contact with the surface of the mold cavity to seal the surface; and a second material configured to coat the first material to protect the first material during a foam production process performed within the mold cavity, wherein the second material comprises a siloxane oil,, wherein the siloxane oil comprises a polymer having repeating units of the formula: wehrein R 1 and R 2 independently comprise an aliphatic or aromatic substituent having between 2 and 8 carbon atoms. an extended life mold release agent configured to coat a surface of a mold cavity, wherein the extended life mold release agent comprises: a first material configured to be placed in direct physical contact with the surface of the mold cavity to seal the surface; and a second material configured to coat the first material to protect the first material during a foam production process performed within the mold cavity, wherein the second material comprises a siloxane oil,, wherein the siloxane oil comprises a polymer having repeating units of the formula: wehrein R 1 and R 2 independently comprise an aliphatic or aromatic substituent having between 2 and 8 carbon atoms. a first material configured to be placed in direct physical contact with the surface of the mold cavity to seal the surface; and a second material configured to coat the first material to protect the first material during a foam production process performed within the mold cavity, wherein the second material comprises a siloxane oil,, wherein the siloxane oil comprises a polymer having repeating units of the formula: wehrein R 1 and R 2 independently comprise an aliphatic or aromatic substituent having between 2 and 8 carbon atoms.
A semiconductor device package comprising one or more semiconductor devices and an interposer substrate; the interposer substrate comprising a metallization stack; the one or more semiconductor devices electrically coupled to the metallization stack, said metallization stack comprising a plurality of interconnected metallization layers, wherein a metal-insulator-metal capacitor is formed between two of said metallization layers, a lower layer and an upper layer, said layers being directly adjacent in the metallization stack, wherein said capacitor comprises: • At least a portion of a bottom plate which is part of the lower metallization layer, • At least a portion of a first conductive layer on and in contact with said bottom plate, • A dielectric layer on and in contact with said first conductive layer, • A second conductive layer (8,31) on and in contact with said dielectric layer, • A top plate which is a first part of the upper metallization layer, said top plate being on and in contact with said second conductive layer and extending vertically from the second conductive layer to a top surface level of the upper metallization layer, wherein the first conductive layer extends beyond the surface of the dielectric layer and the second conductive layer, thus forming an extension portion laterally extending beyond an area covered by the dielectric layer and the second conductive layer; and wherein the metallization stack further comprises a conductive via which forms a second part of the upper metallization layer and is laterally separated from the first part of the upper metallization layer, the conductive via extending vertically from the extension portion of the first conductive layer to the top surface level of the upper metallization layer. • At least a portion of a bottom plate which is part of the lower metallization layer, • At least a portion of a first conductive layer on and in contact with said bottom plate, • A dielectric layer on and in contact with said first conductive layer, • A second conductive layer (8,31) on and in contact with said dielectric layer, • A top plate which is a first part of the upper metallization layer, said top plate being on and in contact with said second conductive layer and extending vertically from the second conductive layer to a top surface level of the upper metallization layer,
Water free bleaching and/or highlighting composition for keratin fibres, especially for human hair based on at least one compound with bleaching effect at a concentration of 5% by weight, calculated to total composition prior to mixing with oxidizing lotion characterised in that it comprises a compound comprising at least two amide bonds in its structure selected from the compounds according to general structure wherein R 1 is a linear or branched, saturated or unsaturated alkyl chain with 1 to 12 C atoms which may be substituted with hydroxy and/or alkoxy groups, R 2 is linear or branched alkyl chain with 1 to 5 C atoms, and R 3 linear or branched, saturated or unsaturated alkyl chain with 1 to 22 C atoms at a concentration in the range of 0.01 to 5% by weight calculated to the total of the composition.
A method of acquiring information by a user equipment device, UE, from a plurality of cells in a wireless communication system, the method comprising: obtaining information about a synchronization signal, SS, burst, the SS burst comprising a plurality of SS blocks, SB's, wherein the information comprises a time difference between two or more SB's; synchronizing to a first cell identified in the SS burst; using the time difference between the two or more SB's to find at least one other cell in the wireless communication system capable of communicating with the UE. obtaining information about a synchronization signal, SS, burst, the SS burst comprising a plurality of SS blocks, SB's, wherein the information comprises a time difference between two or more SB's; synchronizing to a first cell identified in the SS burst; using the time difference between the two or more SB's to find at least one other cell in the wireless communication system capable of communicating with the UE.
A shield body system for a process fluid for chemical and/or electrolytic surface treatment of a substrate, wherein the shield body system comprises a shield body, a distribution body, an agitation unit, at least a substrate and an alignment unit, wherein the shield body comprises a plurality of openings to direct a process fluid flow and/or a current density distribution towards the substrate to be treated, wherein the agitation unit is configured to move the shield body together with the substrate vertically and/or horizontally relative to a distribution body and/or relative to a deposition chamber for chemical and/or electrolytic surface treatment, wherein the distribution body comprises a plurality of openings to direct the process fluid flow and/or the current density distribution towards the shield body, characterized in that the alignment unit is a processor configured to control a relative movement between the shield body and the substrate, thereby aligning the openings of the shield body relative to the substrate, wherein the shield body is positioned and/or dimensioned so that the openings of the shield body correspond to surface elements of the substrate, which are to be deposited, wherein the distribution body is a high-speed plate and comprises a plurality of jets to direct the process fluid to the substrate and a plurality of drains for a return flow of the process fluid back from the substrate and through the drains of the high-speed plate, wherein the drains are arranged next to or around the jets and the drain is dedicated or assigned to the jet arranged next to or around the drain. wherein the shield body system comprises a shield body, a distribution body, an agitation unit, at least a substrate and an alignment unit, wherein the shield body comprises a plurality of openings to direct a process fluid flow and/or a current density distribution towards the substrate to be treated, wherein the agitation unit is configured to move the shield body together with the substrate vertically and/or horizontally relative to a distribution body and/or relative to a deposition chamber for chemical and/or electrolytic surface treatment, wherein the distribution body comprises a plurality of openings to direct the process fluid flow and/or the current density distribution towards the shield body, characterized in that the alignment unit is a processor configured to control a relative movement between the shield body and the substrate, thereby aligning the openings of the shield body relative to the substrate, wherein the shield body is positioned and/or dimensioned so that the openings of the shield body correspond to surface elements of the substrate, which are to be deposited, wherein the distribution body is a high-speed plate and comprises a plurality of jets to direct the process fluid to the substrate and a plurality of drains for a return flow of the process fluid back from the substrate and through the drains of the high-speed plate, wherein the drains are arranged next to or around the jets and the drain is dedicated or assigned to the jet arranged next to or around the drain.
A terminal comprising: a receiving section that receives a downlink, DL, signal using at least one of a plurality of time intervals for transmission included in a subframe; a transmission section that transmits acknowledgement/negative acknowledgement, ACK/NACK, information for the DL signal using an uplink control channel on at least one of a plurality of time intervals for transmission in a subframe after a predetermined period in units of a subframe, and a control section that applies frequency hopping to the uplink control channel and controls such that each region of the uplink control channel allocated to different frequency ranges by the frequency hopping has a same number of symbols, the at least one of the time intervals for transmission of the ACK/NACK information being constituted of an even number of symbols. a receiving section that receives a downlink, DL, signal using at least one of a plurality of time intervals for transmission included in a subframe; a transmission section that transmits acknowledgement/negative acknowledgement, ACK/NACK, information for the DL signal using an uplink control channel on at least one of a plurality of time intervals for transmission in a subframe after a predetermined period in units of a subframe, and a control section that applies frequency hopping to the uplink control channel and controls such that each region of the uplink control channel allocated to different frequency ranges by the frequency hopping has a same number of symbols, the at least one of the time intervals for transmission of the ACK/NACK information being constituted of an even number of symbols.