mhurhangee/ep-ind-claims huggingface dataset:
A process for manufacturing a transparent body for use in a touch screen panel, the process comprising: depositing a first transparent layer stack over a transparent substrate, wherein said first transparent layer stack is selected from the group consisting of: a layer stack, wherein the layer stack includes a first dielectric film with a gradient refractive index from a first refractive index to a second refractive index, and a layer stack, wherein the layer stack includes at least a first dielectric film with a first refractive index and a second dielectric film with a second refractive index different from the first refractive index; providing a structured transparent conductive film and wherein the structured transparent conductive film corresponds to a sheet resistance of 100 Ohm/square or below; and providing a transparent adhesive over the structured transparent conductive film configured for attaching the transparent body to the adjacent components of the touch screen panel, wherein the transparent adhesive has a refractive index of 1.3 to 1.7. depositing a first transparent layer stack over a transparent substrate, wherein said first transparent layer stack is selected from the group consisting of: a layer stack, wherein the layer stack includes a first dielectric film with a gradient refractive index from a first refractive index to a second refractive index, and a layer stack, wherein the layer stack includes at least a first dielectric film with a first refractive index and a second dielectric film with a second refractive index different from the first refractive index; a layer stack, wherein the layer stack includes a first dielectric film with a gradient refractive index from a first refractive index to a second refractive index, and a layer stack, wherein the layer stack includes at least a first dielectric film with a first refractive index and a second dielectric film with a second refractive index different from the first refractive index; providing a structured transparent conductive film and wherein the structured transparent conductive film corresponds to a sheet resistance of 100 Ohm/square or below; and providing a transparent adhesive over the structured transparent conductive film configured for attaching the transparent body to the adjacent components of the touch screen panel, wherein the transparent adhesive has a refractive index of 1.3 to 1.7.
An automatic fluid injection device comprising: - an upper body comprising: at least one injection system (3, 4, 5) that is controlled by power supply means and that is triggered by a user interface, such as at least one actuator button; and an insertion mechanism (8, 9) for inserting an injection needle, - a base body for coming into contact with an injection zone and comprising: at least one fluid reservoir, each containing an injection piston; and a needle assembly including said injection needle, said device being characterized in that said injection system comprises: - at least one elongate spring metal strip, each strip being wound on a respective reel before actuation, - a drive mechanism for unwinding said at least one strip against a respective piston so as to perform the injection, and for rewinding said strip on said reel after injection. - an upper body comprising: at least one injection system (3, 4, 5) that is controlled by power supply means and that is triggered by a user interface, such as at least one actuator button; and an insertion mechanism (8, 9) for inserting an injection needle, - a base body for coming into contact with an injection zone and comprising: at least one fluid reservoir, each containing an injection piston; and a needle assembly including said injection needle, - at least one elongate spring metal strip, each strip being wound on a respective reel before actuation, - a drive mechanism for unwinding said at least one strip against a respective piston so as to perform the injection, and for rewinding said strip on said reel after injection.
An exhaust gas purification device (10, 20) that is configured to purify an exhaust gas flowing through an exhaust passage of an engine, the exhaust gas purification device (10, 20) comprising: a tube-shaped casing; a pipe (3, 21) disposed at a downstream side of the casing, inserted into the casing so as to extend in a direction substantially perpendicular to an axial direction of the casing, and provided with one or more through-holes (15a, 15b, 22) communicating with the casing; a guide member (16a, 16b, 16c, 23, 24) for guiding the exhaust gas inside the casing to the one or more through-holes (15a, 15b, 22); and an injection device for injecting into the pipe (3, 21) a reduction agent from an upstream end of the pipe (3, 21), wherein the guide member (16a, 16b, 16c, 23, 24) includes a turning guide member (16a, 16b, 16c, 24) configured to guide the exhaust gas to the one or more through-holes (15a, 15b, 22) from a tangential direction of the pipe (3, 21) so as to generate a swirl flow inside the pipe (3, 21) and a protecting guide member (16a, 23) covering an upstream side of an injection area of the reduction agent in the axial direction of the casing, the exhaust gas purification device being characterised in that the one or more through-holes (15a, 15b, 22) are formed only at the upstream side of a position where the injection area of the reduction agent injected from the injection device and an inner wall surface of the pipe (3, 21) meet. a tube-shaped casing; a pipe (3, 21) disposed at a downstream side of the casing, inserted into the casing so as to extend in a direction substantially perpendicular to an axial direction of the casing, and provided with one or more through-holes (15a, 15b, 22) communicating with the casing; a guide member (16a, 16b, 16c, 23, 24) for guiding the exhaust gas inside the casing to the one or more through-holes (15a, 15b, 22); and an injection device for injecting into the pipe (3, 21) a reduction agent from an upstream end of the pipe (3, 21), wherein the guide member (16a, 16b, 16c, 23, 24) includes a turning guide member (16a, 16b, 16c, 24) configured to guide the exhaust gas to the one or more through-holes (15a, 15b, 22) from a tangential direction of the pipe (3, 21) so as to generate a swirl flow inside the pipe (3, 21) and a protecting guide member (16a, 23) covering an upstream side of an injection area of the reduction agent in the axial direction of the casing, the exhaust gas purification device being characterised in that the one or more through-holes (15a, 15b, 22) are formed only at the upstream side of a position where the injection area of the reduction agent injected from the injection device and an inner wall surface of the pipe (3, 21) meet.
A polymeric nanoparticle for encapsulating a hydrophilic bioactive agent, the polymeric nanoparticle comprising: a polymeric shell impermeable to water, and one or more aqueous cores enclosed by the polymeric shell, the one or more aqueous cores each containing the hydrophilic bioactive agent, wherein the polymeric shell is formed of a polymer containing a non-polar segment and a polar terminal group and has a thickness of 8-20 nm, and the polymeric nanoparticle has an outer diameter of 100-600 nm. a polymeric shell impermeable to water, and one or more aqueous cores enclosed by the polymeric shell, the one or more aqueous cores each containing the hydrophilic bioactive agent,
A method of operating a terminal device for receiving data from a base station in a wireless telecommunications system using a plurality of sub-carriers spanning a system frequency band, the method comprising: receiving from the base stations an indication of a restricted frequency band; receiving and buffering physical-layer control information transmitted by the base station on sub-carriers spanning the system frequency band; receiving and buffering higher-layer data transmitted by the base station on sub-carriers spanning the restricted frequency band, wherein the restricted frequency band is smaller than and within the system frequency band; processing the buffered physical-layer control information to determine an allocation of higher-layer data for the terminal device within the restricted frequency band; and processing the buffered higher-layer data to extract the allocated higher-layer data for the terminal device from the restricted frequency band. receiving from the base stations an indication of a restricted frequency band; receiving and buffering physical-layer control information transmitted by the base station on sub-carriers spanning the system frequency band; receiving and buffering higher-layer data transmitted by the base station on sub-carriers spanning the restricted frequency band, wherein the restricted frequency band is smaller than and within the system frequency band; processing the buffered physical-layer control information to determine an allocation of higher-layer data for the terminal device within the restricted frequency band; and processing the buffered higher-layer data to extract the allocated higher-layer data for the terminal device from the restricted frequency band.
A recombinant baculovirus displaying on its envelope a fusion protein, the fusion protein comprising: (i) a heterologous antigen; and (ii) a C-terminal region of baculovirus envelope GP64 protein, comprising at least 100 amino acid residues in length and lacking a B12D5 binding epitope consisting of the amino acid sequence of SEQ ID NO: 2 or 3 located within the central basic region of the GP64 protein; wherein the heterologous antigen is located at the N-terminus of the fusion protein displaying on the envelope of the recombinant baculovirus. (i) a heterologous antigen; and (ii) a C-terminal region of baculovirus envelope GP64 protein, comprising at least 100 amino acid residues in length and lacking a B12D5 binding epitope consisting of the amino acid sequence of SEQ ID NO: 2 or 3 located within the central basic region of the GP64 protein;
A marine fuel vapor separator (128; 328), comprising: a separator housing having an open interior for containing fuel; a float (180; 380) disposed in said housing and moveable in response to changing levels of the fuel within said interior of said housing, wherein said float (180; 380) is moveable in said open interior of said housing between an upper pre-established constraint and a lower pre-established constraint; at least one magnet (188; 338-A, 388-B) disposed on and moveable with said float (180; 380); characterised in that, a Hall Effect type sensor assembly (190; 390) is disposed externally of said housing in cooperative relation with said magnet of said float for sensing said movement of said magnet, a pair of magnets (388-A; 388-B) is spaced vertically from one another disposed on said float and having either different powers or different polarities and wherein said Hall Effect type sensor assembly includes at least one sensor element for generating a signal when in the proximity of one of said magnets (388-A), and for generating a different signal when in the proximity of the other of said magnets (388-B). a separator housing having an open interior for containing fuel; a float (180; 380) disposed in said housing and moveable in response to changing levels of the fuel within said interior of said housing, wherein said float (180; 380) is moveable in said open interior of said housing between an upper pre-established constraint and a lower pre-established constraint; at least one magnet (188; 338-A, 388-B) disposed on and moveable with said float (180; 380); characterised in that, a Hall Effect type sensor assembly (190; 390) is disposed externally of said housing in cooperative relation with said magnet of said float for sensing said movement of said magnet, a pair of magnets (388-A; 388-B) is spaced vertically from one another disposed on said float and having either different powers or different polarities and wherein said Hall Effect type sensor assembly includes at least one sensor element for generating a signal when in the proximity of one of said magnets (388-A), and for generating a different signal when in the proximity of the other of said magnets (388-B).
Oral pharmaceutical solution comprising hydrocortisone sodium phosphate, from 100 mg/ml to 200 mg/ml propylene glycol, from 100 mg/ml to 200 mg/ml sorbitol, a pharmaceutically acceptable buffering agent and purified water, wherein the pH of the oral solution is from 7.0 to 8.0.
A capsule storage device comprising a container for storing capsules containing an ingredient for preparing a beverage using a beverage preparation machine, characterised in that the capsule storage device further comprises: • a first interface (104, 404) for communicating with a module; • a user-interface having a first element switchable into at least a first state; • a controler configured to send information to the module, through the first interface (104, 404), when the first element is switched into the first state, wherein the information sent by the controller through the first interface (104, 404), comprises a request to perform a specific action related to an order of capsules. • a first interface (104, 404) for communicating with a module; • a user-interface having a first element switchable into at least a first state; • a controler configured to send information to the module, through the first interface (104, 404), when the first element is switched into the first state,
Communication terminal (110 to 113, 510 to 514), that comprises: - a digital communication circuit using time multiplexing on a single radio channel, selectable in a given frequency band, said system implementing a wireless communication in "conference" and "hands-free" mode on an autonomous network between at least two wearers of similar terminals, characterized in that: - this digital communication circuit is configured so that each frame it sends contains both the order number of said terminal in the group, and, in case the group comprises more than three terminals, a chaining data of the order numbers of the terminals synchronized with each other and - the terminal comprises an automatic means for synchronizing to the signal of any of the other terminals in the group of terminals, to synchronize its internal time reference, thus the periodic time cycle, on a time reference common for all terminals of the group, this synchronization being based on the order number of the transmitting terminal present in the frame, the said order number allowing to calculate its own transmission time slot in the periodic cycle time of the Time Division Multiplex, - this means for automatic synchronization conducts re-synchronizations by resetting its internal clock to that of a terminal of its group from which it has received a frame, this resynchronization implementing, when the group is composed of more than three terminals, the order number of the transmitting terminal and the ordered chaining data of order numbers of the terminals synchronized with each other. - a digital communication circuit using time multiplexing on a single radio channel, selectable in a given frequency band, said system implementing a wireless communication in "conference" and "hands-free" mode on an autonomous network between at least two wearers of similar terminals, - this digital communication circuit is configured so that each frame it sends contains both the order number of said terminal in the group, and, in case the group comprises more than three terminals, a chaining data of the order numbers of the terminals synchronized with each other and - the terminal comprises an automatic means for synchronizing to the signal of any of the other terminals in the group of terminals, to synchronize its internal time reference, thus the periodic time cycle, on a time reference common for all terminals of the group, this synchronization being based on the order number of the transmitting terminal present in the frame, the said order number allowing to calculate its own transmission time slot in the periodic cycle time of the Time Division Multiplex, - this means for automatic synchronization conducts re-synchronizations by resetting its internal clock to that of a terminal of its group from which it has received a frame, this resynchronization implementing, when the group is composed of more than three terminals, the order number of the transmitting terminal and the ordered chaining data of order numbers of the terminals synchronized with each other.
A lancing device with a driver configured to exert a driving force on a lancet during a lancing cycle and to be used on a tissue site, said device characterised by comprising: a housing; a lancet positioned in the housing; a drive force generator for advancing said lancet along a path into the tissue site; the housing including a clear or semitransparent housing window that allows a user to visibly confirm that a lancet is loaded, unloaded, or moving during launch, the lancing device including a first and a second angled housings, the first angled housing configured to receive a battery, the second angled housing being smaller than the first angled housing and including one or more of: an actuator assembly, a high voltage capacitor, a PCB, a transformer, encoder, lancets and a microcontroller; a multi-position manual switch for a user interface input. a housing; a lancet positioned in the housing; a drive force generator for advancing said lancet along a path into the tissue site; the housing including a clear or semitransparent housing window that allows a user to visibly confirm that a lancet is loaded, unloaded, or moving during launch, the lancing device including a first and a second angled housings, the first angled housing configured to receive a battery, the second angled housing being smaller than the first angled housing and including one or more of: an actuator assembly, a high voltage capacitor, a PCB, a transformer, encoder, lancets and a microcontroller; a multi-position manual switch for a user interface input.
Temperature measuring device for non-invasively measuring a temperature of a medium in a pipe, comprising a first temperature sensor, a sensor holder and a heat coupling element embodied to produce a heat conduction path from a wall of the pipe to a first temperature sensor, which is embodied to provide a first measured temperature value, characterised in that the heat coupling element has an arcuate profile at least sectionally for adjusting the heat conduction path for the purpose of axially reversing the heat conduction path, wherein the axial reversal relates to an axial direction which is defined by a direction in which the pipe extends.
Use of an insert that can be inserted into a drainage opening of a urinal, whereby the insert has at least one outlet opening for applying, a liquid onto the surface of the bowl of a urinal into whose drainage opening the insert has been inserted, characterized in that the liquid is sprayed or squirted out of the outlet opening onto the surface of the bowl of a urinal.
A component carrier for carrying an electronic component on and/or in the component carrier, wherein the component carrier comprises: an interconnected stack composed of a plurality of electrically conductive layer structures and a plurality of electrically insulating layer structures (106, 106'); wherein at least part of at least one of the electrically conductive layer structures is configured as at least part of an integrated strain gauge configured for detecting strain exerted on at least part of the component carrier, characterized by a strain determination circuit electrically connected to the strain gauge and configured for determining strain based on a signal supplied from the strain gauge in the event of strain, wherein the strain determination circuit is embedded within the interconnected stack. an interconnected stack composed of a plurality of electrically conductive layer structures and a plurality of electrically insulating layer structures (106, 106'); wherein at least part of at least one of the electrically conductive layer structures is configured as at least part of an integrated strain gauge configured for detecting strain exerted on at least part of the component carrier, characterized by a strain determination circuit electrically connected to the strain gauge and configured for determining strain based on a signal supplied from the strain gauge in the event of strain, wherein the strain determination circuit is embedded within the interconnected stack.
A cooling system for an aircraft, comprising: a motor; a compressor connected to the motor to be driven by the motor; a compressor outlet line configured to receive compressor outlet flow from the compressor; a bypass line in fluid communication with the compressor outlet line and a motor outlet line of the motor to divert a bypass flow of the compressor outlet flow; at least one pump in fluid communication between the bypass line and the motor outlet line such that the bypass flow at least partially drives the pump to pull cooling flow through a motor to cool the motor; and further comprising a ram air inlet line in fluid communication with the motor such that air passes from the ram air inlet line, through the motor, to the motor outlet line to receive heat at least from motor stator windings. a motor; a compressor connected to the motor to be driven by the motor; a compressor outlet line configured to receive compressor outlet flow from the compressor; a bypass line in fluid communication with the compressor outlet line and a motor outlet line of the motor to divert a bypass flow of the compressor outlet flow; at least one pump in fluid communication between the bypass line and the motor outlet line such that the bypass flow at least partially drives the pump to pull cooling flow through a motor to cool the motor; and further comprising a ram air inlet line in fluid communication with the motor such that air passes from the ram air inlet line, through the motor, to the motor outlet line to receive heat at least from motor stator windings.
A computer-implemented method for inversion of a 3-D property model in which a 3-D structural model containing an explicit representation of boundary surfaces is built from an initial estimate of surface position and shape parameters to represent a 3-D structure, the method comprising: generating a gridded model from the initial estimate of surface position and shape parameters of the 3-D structural model, the generating comprising identifying the locations of any intersections between a grid cell (311, 321, 331) and a surface, for each intersected grid cell collecting intersection points for all cell edges, obtaining a region-boundary solution for a cell; inverting the 3-D property model by projecting a gridded model gradient obtained from finite difference imaging process back to the initial estimate of surface position and shape parameters in the 3-D structural model; and computing an update to the surface position and shape parameters in the 3-D structural model. generating a gridded model from the initial estimate of surface position and shape parameters of the 3-D structural model, the generating comprising identifying the locations of any intersections between a grid cell (311, 321, 331) and a surface, for each intersected grid cell collecting intersection points for all cell edges, obtaining a region-boundary solution for a cell; inverting the 3-D property model by projecting a gridded model gradient obtained from finite difference imaging process back to the initial estimate of surface position and shape parameters in the 3-D structural model; and computing an update to the surface position and shape parameters in the 3-D structural model.
A composition for use in a therapeutic method of treatment of a subject suffering from Alzheimer's disease or Parkinson's disease, said composition comprising: A) serine; B) N-acetyl cysteine, cysteine and/or cystine; C) carnitine; and D) nicotinamide. A) serine; B) N-acetyl cysteine, cysteine and/or cystine; C) carnitine; and D) nicotinamide.