mhurhangee/ep-ind-claims huggingface dataset:
Liquid detergent composition comprising (a) a continuous liquid phase that is transparent or translucent; and (b) solid particles, wherein said particles are made of a polymeric matrix material, wherein said polymeric matrix material is polyethylene glycol; are dispersed in the continuous liquid phase; have a diameter in the range of about 0.8 to about 8 mm, preferably 1.0 to 2.5 mm; and comprise a plurality of microcapsules with a diameter in the range of from about 4 to about 70 μm dispersed in the polymeric matrix material, wherein the microcapsules are entrapped in the solid particles and that the content of free microcapsules in the liquid phase is below 0.1 wt. %, based on the total weight of the liquid detergent composition; characterized in that the liquid detergent composition comprises microfibrillated cellulose from bacterial sources, wherein the term "about" means the referenced value ±10%, preferably ±5%. (a) a continuous liquid phase that is transparent or translucent; and (b) solid particles, wherein said particles are made of a polymeric matrix material, wherein said polymeric matrix material is polyethylene glycol; are dispersed in the continuous liquid phase; have a diameter in the range of about 0.8 to about 8 mm, preferably 1.0 to 2.5 mm; and comprise a plurality of microcapsules with a diameter in the range of from about 4 to about 70 μm dispersed in the polymeric matrix material, wherein the microcapsules are entrapped in the solid particles and that the content of free microcapsules in the liquid phase is below 0.1 wt. %, based on the total weight of the liquid detergent composition; are made of a polymeric matrix material, wherein said polymeric matrix material is polyethylene glycol; are dispersed in the continuous liquid phase; have a diameter in the range of about 0.8 to about 8 mm, preferably 1.0 to 2.5 mm; and comprise a plurality of microcapsules with a diameter in the range of from about 4 to about 70 μm dispersed in the polymeric matrix material, wherein the microcapsules are entrapped in the solid particles and that the content of free microcapsules in the liquid phase is below 0.1 wt. %, based on the total weight of the liquid detergent composition; characterized in that the liquid detergent composition comprises microfibrillated cellulose from bacterial sources, wherein the term "about" means the referenced value ±10%, preferably ±5%.
A method for monitoring vehicle states in rail vehicles, containing the following steps: inputting data from at least one on-vehicle vehicle monitoring system, inputting data from at least one on-track vehicle monitoring system, the data being captured and supplied by the at least one on-vehicle vehicle monitoring system and the at least one on-track vehicle monitoring system, evaluating the data input and determining error states of a rail vehicle from the data evaluated, characterised in that, as the data is evaluated and error states of a rail vehicle are determined from the data evaluated, the data from the at least one on-vehicle vehicle monitoring system and the data from the at least one on-track vehicle monitoring system are correlated with one another and plausibility checked in order to determine the error states of the rail vehicle. inputting data from at least one on-vehicle vehicle monitoring system, inputting data from at least one on-track vehicle monitoring system, the data being captured and supplied by the at least one on-vehicle vehicle monitoring system and the at least one on-track vehicle monitoring system, evaluating the data input and determining error states of a rail vehicle from the data evaluated, characterised in that, as the data is evaluated and error states of a rail vehicle are determined from the data evaluated, the data from the at least one on-vehicle vehicle monitoring system and the data from the at least one on-track vehicle monitoring system are correlated with one another and plausibility checked in order to determine the error states of the rail vehicle.
Induction heating apparatus, in particular induction hob apparatus, with at least one induction heating element, with at least one heat frequency unit, with at least one rectifier unit and with at least one boost unit, which is provided to convert an input voltage into an output voltage, which is larger than the input voltage, characterised in that the rectifier unit and the heat frequency unit are at least partially embodied in one piece, wherein the rectifier unit and the heat frequency unit have at least one common element, which is a component part of both units.
Angling tool to bend a edge of a first part to a edge of a second part, with the English tool consisting of a first part forming a blade carrier and a body on which at least one block of blood is mounted, the first part being intended to be attached to a robot arm; the English tool comprising at least a second part forming a support, the second part(s) being intended to be attached to a weaving island, in that both parts (7, 9) present means of assembly (19, 21) for the assembly to each other for their cooperation in an anglophone operation age, the tool of blood being characterized in that the said means of assembly (19, 21) form a pivot binding allowing a rotation movement of the first part in relation to the second part on a axis of rotation, and include a male element intended to be inserted into a female element by a parallel translation movement of that axis of rotation.
A semiconductor device comprising: a first substrate comprising a first surface and a second surface opposite the first surface; an active pattern extending in a first horizontal direction on the first surface of the first substrate; a gate electrode extending in a second horizontal direction different from the first horizontal direction on the active pattern; a source/drain region on at least one side of the gate electrode on the active pattern; a first interlayer insulating layer on the source/drain region; a sacrificial layer on the second surface of the first substrate; a lower wiring layer (130, 230, 330) on a lower surface (1 10b) of the sacrificial layer; a through via trench (160T, 460T, 560T) extending to the lower wiring layer (130, 230, 330) by passing through the first interlayer insulating layer and the sacrificial layer in a vertical direction; a through via (160, 460, 560) inside the through via trench (160T, 460T, 560T) and connected to the lower wiring layer (130, 230, 330); a recess (R1, R2) inside the sacrificial layer and protruding from a sidewall of the through via trench (160T, 460T, 560T) in the second horizontal direction; and a through via insulating layer (165, 465, 565) comprising a first portion (165_1, 465_1, 565_1) extending along the sidewall of the through via trench (160T, 460T, 560T) and a second portion (165_2) in the recess (R1, R2), wherein the second portion (165_2) of the through via insulating layer (165, 465, 565) is in contact with an uppermost surface (130a, 230a, 330a) of the lower wiring layer (130, 230, 330). a first substrate comprising a first surface and a second surface opposite the first surface; an active pattern extending in a first horizontal direction on the first surface of the first substrate; a gate electrode extending in a second horizontal direction different from the first horizontal direction on the active pattern; a source/drain region on at least one side of the gate electrode on the active pattern; a first interlayer insulating layer on the source/drain region; a sacrificial layer on the second surface of the first substrate; a lower wiring layer (130, 230, 330) on a lower surface (1 10b) of the sacrificial layer; a through via trench (160T, 460T, 560T) extending to the lower wiring layer (130, 230, 330) by passing through the first interlayer insulating layer and the sacrificial layer in a vertical direction; a through via (160, 460, 560) inside the through via trench (160T, 460T, 560T) and connected to the lower wiring layer (130, 230, 330); a recess (R1, R2) inside the sacrificial layer and protruding from a sidewall of the through via trench (160T, 460T, 560T) in the second horizontal direction; and a through via insulating layer (165, 465, 565) comprising a first portion (165_1, 465_1, 565_1) extending along the sidewall of the through via trench (160T, 460T, 560T) and a second portion (165_2) in the recess (R1, R2), wherein the second portion (165_2) of the through via insulating layer (165, 465, 565) is in contact with an uppermost surface (130a, 230a, 330a) of the lower wiring layer (130, 230, 330).
Nacelle for a turbofan, said nacelle having a longitudinal axis and comprising: - a fixed structure comprising a fixed cowl and in which there is arranged a duct in which there flows a secondary flow, - a mobile assembly comprising a chassis forming a frame and a mobile cowl fixed to the rear of the chassis, the chassis being mobile, relative to the fixed structure, in translation parallel to a direction of displacement between an advanced position, in which the mobile cowl is positioned to the rear of the fixed cowl and extends it, and a retracted position, in which the mobile cowl is retracted relative to the fixed cowl so as to open an opening through the frame between the duct and the outside, where the mobile assembly comprises at least one threaded rod, each one being parallel to the direction of displacement and fixed to the chassis through the frame, where, for each threaded rod, the fixed structure comprises a motorized nut comprising a ball nut which meshes with the threaded rod, and an actuator which turns the ball nut characterized in that the fixed structure comprises an outer box, an inner box and at least one intermediate box, where the outer box takes the form of a box of revolution about the longitudinal axis, where the inner box takes the form of a box of revolution about the longitudinal axis and inside the outer box, and where each intermediate box extends generally radially relative to the longitudinal axis and is fixed to the inner box and to the outer box, and in that the actuator is fixed to at least one box from among the outer box, the inner box or an intermediate box. - a fixed structure comprising a fixed cowl and in which there is arranged a duct in which there flows a secondary flow, - a mobile assembly comprising a chassis forming a frame and a mobile cowl fixed to the rear of the chassis, the chassis being mobile, relative to the fixed structure, in translation parallel to a direction of displacement between an advanced position, in which the mobile cowl is positioned to the rear of the fixed cowl and extends it, and a retracted position, in which the mobile cowl is retracted relative to the fixed cowl so as to open an opening through the frame between the duct and the outside,
Locking brake for a large wind turbine, wherein the locking brake can be used to lock a rotary part that is designed to rotate, this being made possible by a pressure part that is not intended to rotate together with the rotary part and that can be pressed against the rotary part, characterized in that the locking brake is designed in such a way that actuation of the locking brake is permitted only when a completely or near-completely stationary state has been established, and in that a micro-form fit is established between the parts when the parts are pressed against one another.
A window, such as a roof window, for a building, said window comprising a window frame and a sash mounted thereon, wherein the sash comprises a pane module comprising at least a first glass pane and a see-through area, the window further comprises a masking arranged in a masking area, wherein the masking area is arranged along an edge of the pane module and arranged to cover the pane module so that the masking reduces the visibility of at least a part of the sash and/or window frame, when viewed from an exterior side towards an interior side of the pane module, wherein the masking area is divided into one or more first regions and one or more second regions, and wherein the masking of each first region is switchable between an open configuration and a closed configuration, wherein in the closed configuration the masking covers a part of the pane module and wherein in the open configuration the masking exposes the part of the pane module, so that the first region in the open configuration is of increased optical transparency compared to the optical transparency through the first region in the closed configuration, and wherein in at least the open configuration, the window comprises one or more installation spaces arranged beneath the first region and outside the see-through area and wherein the installation space or spaces is or are arranged to accommodate an installation of at least one optical sensor surface of one or more optical sensor devices, so that the optical sensor surface is exposed to light provided through the first region. the window further comprises a masking arranged in a masking area, wherein the masking area is arranged along an edge of the pane module and arranged to cover the pane module so that the masking reduces the visibility of at least a part of the sash and/or window frame, when viewed from an exterior side towards an interior side of the pane module, wherein the masking area is divided into one or more first regions and one or more second regions, and wherein the masking of each first region is switchable between an open configuration and a closed configuration, wherein in the closed configuration the masking covers a part of the pane module and wherein in the open configuration the masking exposes the part of the pane module, so that the first region in the open configuration is of increased optical transparency compared to the optical transparency through the first region in the closed configuration, and wherein in at least the open configuration, the window comprises one or more installation spaces arranged beneath the first region and outside the see-through area and wherein the installation space or spaces is or are arranged to accommodate an installation of at least one optical sensor surface of one or more optical sensor devices, so that the optical sensor surface is exposed to light provided through the first region.
A method for producing a rare-earth magnet, comprising: a first step of producing a sintered body with a structure including a main phase, which has a crystal grain size of 50 to 300 nm, and a grain boundary phase, the structure being represented by a compositional formula: (Nd 100-x Pr x) a TM b B c M d, where TM represents transition metal including at least one of Fe, Ni, or Co, B represents boron, M represents at least one of Ti, Ga, Zn, Si, Al, Nb, Zr, Ni, Mn, V, W, Ta, Ge, Cu, Cr, Hf, Mo, P, C, Mg, Hg, Ag, or Au, 1 ≤ x ≤ 100, 12 ≤ a ≤ 20, b = 100 - a - c - d, 5 ≤ c ≤ 2 0, and 0 ≤ d ≤ 3 (all at%)); a second step of applying hot deformation processing to the sintered body to produce a precursor of a rare-earth magnet; and a third step of, with a Nd-Cu alloy sprayed on the surface of the precursor of the rare-earth magnet, putting the precursor in a high-temperature atmosphere for a predetermined retention time, whereby a melt of the Nd-Cu alloy is diffused and infiltrated into the grain boundary phase of the precursor of the rare-earth magnet. a first step of producing a sintered body with a structure including a main phase, which has a crystal grain size of 50 to 300 nm, and a grain boundary phase, the structure being represented by a compositional formula: (Nd 100-x Pr x) a TM b B c M d, where TM represents transition metal including at least one of Fe, Ni, or Co, B represents boron, M represents at least one of Ti, Ga, Zn, Si, Al, Nb, Zr, Ni, Mn, V, W, Ta, Ge, Cu, Cr, Hf, Mo, P, C, Mg, Hg, Ag, or Au, 1 ≤ x ≤ 100, 12 ≤ a ≤ 20, b = 100 - a - c - d, 5 ≤ c ≤ 2 0, and 0 ≤ d ≤ 3 (all at%)); a second step of applying hot deformation processing to the sintered body to produce a precursor of a rare-earth magnet; and a third step of, with a Nd-Cu alloy sprayed on the surface of the precursor of the rare-earth magnet, putting the precursor in a high-temperature atmosphere for a predetermined retention time, whereby a melt of the Nd-Cu alloy is diffused and infiltrated into the grain boundary phase of the precursor of the rare-earth magnet.
Actuation module for at least one gas exchange valve of an internal combustion engine, having a cylinder-head cover and at least one camshaft, in particular toothed shaft, with at least one cam piece (16, 17) arranged on the camshaft, characterized in that the cylinder-head cover has, for the mounting of the camshaft, at least one split bearing bracket which has a bearing base and a bearing cover, which in each case form a bearing opening with a radially internally situated bearing surface, and wherein at least one cam piece (16, 17) has a bearing element which is arranged in one of the at least one split bearing brackets radially between the camshaft and the bearing surface.
Plastic scintillator for detecting ionizing radiation, the scintillator (21, 30, 40) comprising a block of polymer material able to generate scintillation photon radiation at a predetermined wavelength under the effect of an ionizing radiation, the block of radioluminescent polymer material comprising a plurality of optical cavities (311, 411) the dimensions of which are determined according to the wavelength of the scintillation photon radiation, so as to amplify the scintillation photon radiation by the Purcell effect, each optical cavity being formed by a set of holes in the block of radioluminescent polymer material, the holes extending, along an axis joining an entry face to an exit face of the block of radioluminescent polymer material, to a height comprised between 2 micrometers and 10 millimeters and being distributed, in a plane perpendicular to an axis joining an entry face to an exit face of the block of radioluminescent polymer material, so as to form a two-dimensional array, the optical cavities generating a favored direction of propagation for the scintillation photon radiation along an optical axis of the scintillator, and the photons of the scintillation photon radiation being emitted with a decay time shorter in the cavities than outside the cavities, the plastic scintillator being characterized in that each hole constituting an optical cavity (311, 411) is separated from a neighboring constituting hole by a distance less than or equal to the ratio of the wavelength of the scintillation photon radiation to twice the effective refractive index of the block of radioluminescent polymer material.
A composition for inhalation comprising a pharmaceutically acceptable glassy matrix and at least one bioactive material within the matrix, wherein the glassy matrix comprises a polyvalent metal ion salt as a glass-forming material, wherein the composition is in the form of a powder and polyols are present in an amount of less than 1 wt% based on the weight of the composition, and wherein the polyvalent metal ion salt is calcium lactate, calcium lactate citrate, or calcium lactate gluconate, wherein the powder comprises particles having a median geometric diameter of less than 10 μm and wherein the metal ion salt is present in the composition in an amount of less than or equal to 30 wt.% based on the total weight of the composition.
A computer readable storage medium, comprising executable instructions to: store load data in new rows of an append only table within a data warehouse, without updating or deleting existing rows in the append only table; maintain data changes associated with the load data in a separate update table, said separate update table including information to delete a row from the append only table and/or to update values in the append only table; and merge data from the append only table with data changes from the update table to supply read data wherein the data changes are associated with multi-version concurrency control (MVCC) information and wherein the append only table is not updated with data changes. store load data in new rows of an append only table within a data warehouse, without updating or deleting existing rows in the append only table; maintain data changes associated with the load data in a separate update table, said separate update table including information to delete a row from the append only table and/or to update values in the append only table; and merge data from the append only table with data changes from the update table to supply read data wherein the data changes are associated with multi-version concurrency control (MVCC) information and wherein the append only table is not updated with data changes.
A method comprising: receiving, by a base station distributed (gNB-DU) unit from a wireless device in a radio resource control, RRC, idle state or an RRC inactive state, one or more transport blocks (TB(s)) via a periodic resource; characterised by: determining, by the base station distributed unit, that a time alignment timer associated with the periodic resource is expired; and sending, by the base station distributed unit to a base station central unit (gNB-CU), one or more messages comprising a cause value indicating release of the periodic resource based on the expiration of the time alignment timer. receiving, by a base station distributed (gNB-DU) unit from a wireless device in a radio resource control, RRC, idle state or an RRC inactive state, one or more transport blocks (TB(s)) via a periodic resource; characterised by: determining, by the base station distributed unit, that a time alignment timer associated with the periodic resource is expired; and sending, by the base station distributed unit to a base station central unit (gNB-CU), one or more messages comprising a cause value indicating release of the periodic resource based on the expiration of the time alignment timer. determining, by the base station distributed unit, that a time alignment timer associated with the periodic resource is expired; and sending, by the base station distributed unit to a base station central unit (gNB-CU), one or more messages comprising a cause value indicating release of the periodic resource based on the expiration of the time alignment timer.
Sabot for a sub-caliber projectile, the sabot consisting of at least two sabot segments (2.1, 2.2), bionic structures (5, 6) being provided in the sabot, the bionic structures (5, 6) being honeycombs, struts, bubbles, spherical cavities and/or combinations thereof, and the bionic structures (5, 6) being embedded within the sabot segments (2.1, 2.2), characterized in that the bionic structures (5, 6) are defined by a 3D printing process or by an SLS process and are created in a targeted manner during the manufacture of the sabot.