mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous granulating and drying apparatus for pharmaceutical products, comprising a granulator and a fluid bed dryer having a gas inlet , wherein the fluid bed dryer comprises at least two separate processing compartments forming part of a common vessel being provided with radially extending partition walls separating the processing compartments from each other, each processing compartment having a product inlet and a product outlet, the fluid bed dryer comprising a bed plate having openings for fluidizing gas and being arranged above the gas inlet of the fluid bed dryer, a gas outlet, a granulated product supply conduit arranged rotatably to selectively communicate with the product inlet of each separate processing compartment , respectively, a product discharge conduit arranged rotatably to selectively communicate with the product outlet of each separate processing compartment , respectively, characterized in that the granulator comprises a longitudinal granulation chamber having a first end with an inlet for powder material and a binder feed port and a second end with an outlet for granulated product, the granulation chamber comprising at least one rotary shaft provided with at least one granulating element, and the granulator and the fluid bed dryer are closely coupled, and further a transport air inlet is arranged at the outlet of the granulation chamber, so that transport air may carry granulated product away from the outlet in the direction of the fluid bed dryer.
A securing means for securing vehicles or moving objects towards mountain sides on steep terrain, including a bottom sleeve anchored to the bottom and a securing pole inserted therein, which is guided along, and supported in, the longitudinal direction of the bottom sleeve and is either releasably attached or held by an adjusting device in a position along the longitudinal direction of the bottom sleeve to provide an attachment point for securing vehicles or objects towards mountain sides on steep terrain with an attachment device located at the securing pole at a height from the bottom, wherein the securing means resists a shear force at the attachment device of at least 5 t, wherein the length of the securing pole including the attachment device is at least 170 cm and at most 570 cm, and wherein the securing pole protrudes into the bottom sleeve at an extent of at least 60 cm in the position in which it provides an attachment point located at a height from the bottom for securing vehicles towards mountain sides on steep terrain.
An organic light emitting display device, comprising: an anode on a substrate ; a first emission part on the anode , the first emission part including a first emission layer and a first electron transfer layer ; a second emission part on the first emission part , the second emission part including a second emission layer and a second electron transfer layer ; and a cathode on the second emission part , wherein at least one among the first electron transfer layer and the second electron transfer layer comprises a first material and a second material, and an absolute value of a low unoccupied molecular orbitals, LUMO, energy level of the first material is larger than an absolute value of a LUMO energy level of the second material, wherein the first material and the second material are mixed through co-deposition, wherein the organic light emitting display device further comprises an N-type charge generation layer between the first emission part and the second emission part , wherein the N-type charge generation layer is formed of an organic layer doped with metal, and wherein the first electron transfer layer comprises a material having an energy bandgap which is 0.50eV to 1.00eV higher than an energy bandgap of a host included in the N-type charge generation layer . an anode on a substrate ; a first emission part on the anode , the first emission part including a first emission layer and a first electron transfer layer ; a second emission part on the first emission part , the second emission part including a second emission layer and a second electron transfer layer ; and a cathode on the second emission part , wherein at least one among the first electron transfer layer and the second electron transfer layer comprises a first material and a second material, and an absolute value of a low unoccupied molecular orbitals, LUMO, energy level of the first material is larger than an absolute value of a LUMO energy level of the second material, wherein the first material and the second material are mixed through co-deposition, wherein the organic light emitting display device further comprises an N-type charge generation layer between the first emission part and the second emission part , wherein the N-type charge generation layer is formed of an organic layer doped with metal, and wherein the first electron transfer layer comprises a material having an energy bandgap which is 0.50eV to 1.00eV higher than an energy bandgap of a host included in the N-type charge generation layer .
Method for determining a particle loading of a particle filter with at least one loading variable, by performing the following steps: - detecting (S1) or providing a number of state variables (T, ṁ soot,in , V ̇, p in ) of a supplied mass flow of gas, which comprise at least one mass flow of particles and a pressure difference indication, in particular a measured pressure difference indication (Δ p mess ), for an actual pressure difference between an input side and an output side of the particle filter ; - determining (S2) at least one modelled loading variable ( m soot,wall,mod , m soot,layer,mod ) with the aid of a physical particle filter model depending on the one or more state variables (T, ṁ soot,in , V ̇, p in ) of the mass flow of gas supplied; - modelling (S4) a correction variable (k soot,wall , k soot,layer , k η ) for the at least one modelled loading variable( m soot,wall,mod , m soot,layer,mod ) with the aid of a data-based error model depending on the state variables (T, ṁ soot,in , V ̇, pin) of the mass flow of gas supplied, the pressure difference indication (Δ p mess ), wherein the error model corresponds to a temporal convolutional network (TCM) or comprises such a network; - determining (S5) the at least one loading variable ( m soot,wall , m soot,layer ) depending on the at least one modelled loading variable ( m soot,wall,mod , m soot,layer,mod ) and the modelled correction variable (k soot,wall , k soot,layer , k η ). - detecting (S1) or providing a number of state variables (T, ṁ soot,in , V ̇, p in ) of a supplied mass flow of gas, which comprise at least one mass flow of particles and a pressure difference indication, in particular a measured pressure difference indication (Δ p mess ), for an actual pressure difference between an input side and an output side of the particle filter ; - determining (S2) at least one modelled loading variable ( m soot,wall,mod , m soot,layer,mod ) with the aid of a physical particle filter model depending on the one or more state variables (T, ṁ soot,in , V ̇, p in ) of the mass flow of gas supplied; - modelling (S4) a correction variable (k soot,wall , k soot,layer , k η ) for the at least one modelled loading variable( m soot,wall,mod , m soot,layer,mod ) with the aid of a data-based error model depending on the state variables (T, ṁ soot,in , V ̇, pin) of the mass flow of gas supplied, the pressure difference indication (Δ p mess ), wherein the error model corresponds to a temporal convolutional network (TCM) or comprises such a network; - determining (S5) the at least one loading variable ( m soot,wall , m soot,layer ) depending on the at least one modelled loading variable ( m soot,wall,mod , m soot,layer,mod ) and the modelled correction variable (k soot,wall , k soot,layer , k η ).
A gas expansion power generation system comprising: a heating unit configured to raise the temperature of natural gas; a flow rate adjustment unit configured to adjust a flow rate of the natural gas; and a power generation unit configured to reduce the pressure of the natural gas and concurrently expand the natural gas and configured to generate electric power through energy generated when the natural gas is expanded, wherein the natural gas is sequentially movable to the heating unit , the flow rate adjustment unit , and the power generation unit , characterized in that the heating unit is configured to receive waste heat generated in a natural gas reforming process as a heat source to preheat the natural gas before moving the power generation unit, or to receive waste heat generated in a natural gas reforming process together with waste heat generated in a power generation process through a fuel cell as a heat source to preheat the natural gas before moving the power generation unit. a heating unit configured to raise the temperature of natural gas; a flow rate adjustment unit configured to adjust a flow rate of the natural gas; and a power generation unit configured to reduce the pressure of the natural gas and concurrently expand the natural gas and configured to generate electric power through energy generated when the natural gas is expanded, wherein the natural gas is sequentially movable to the heating unit , the flow rate adjustment unit , and the power generation unit , characterized in that the heating unit is configured to receive waste heat generated in a natural gas reforming process as a heat source to preheat the natural gas before moving the power generation unit, or to receive waste heat generated in a natural gas reforming process together with waste heat generated in a power generation process through a fuel cell as a heat source to preheat the natural gas before moving the power generation unit.
Apparatus for the capacitive, contactless and nondestructive inspection of a multiplicity of electrically conductive structures produced on or in a substrate , the apparatus having: - an excitation signal generating device for applying an excitation signal; - a capacitive sensor , which has at least two sensor electrode areas arranged at mutually different, constant distances parallel to a surface of the substrate and alongside one another relative to the surface of the substrate ; - a measuring device for detecting sensor measurement signals; - an evaluation device for determining a spatial extent of an electrically conductive structure by means of the detected sensor measurement signals; wherein: - an electrically conductive substrate holder is provided, which positions the substrate and to which an excitation signal generated by means of the excitation signal generating device can be applied; - the capacitive sensor is configured to be positioned on a side of the substrate which faces away from the substrate holder , - the measuring device is configured to detect a respective sensor measurement signal at a respective sensor electrode area . - an excitation signal generating device for applying an excitation signal; - a capacitive sensor , which has at least two sensor electrode areas arranged at mutually different, constant distances parallel to a surface of the substrate and alongside one another relative to the surface of the substrate ; - a measuring device for detecting sensor measurement signals; - an evaluation device for determining a spatial extent of an electrically conductive structure by means of the detected sensor measurement signals; - an electrically conductive substrate holder is provided, which positions the substrate and to which an excitation signal generated by means of the excitation signal generating device can be applied; - the capacitive sensor is configured to be positioned on a side of the substrate which faces away from the substrate holder , - the measuring device is configured to detect a respective sensor measurement signal at a respective sensor electrode area .
A topical composition for use in reversing a medically significant degree of numbness resulting from administration of a local or regional anesthetic agent to a patient, without reversing analgesic effect of the anesthetic agent, said composition comprising greater than 15%, and up to about 99% of a bicarbonate and further comprising a calcium salt of from about 1 mg/100 ml to up about 100 mg/100 ml.
A pallet container for storing and for transporting liquid or free-flowing filling materials having a thin-walled rigid internal container from a thermoplastic plastics material, having a tubular lattice frame , as a supporting jacket tightly enclosing the plastics-material internal container , from welded-together horizontal and vertical tubular bars , and having a rectangular base pallet on which the plastics-material internal container bears and to which the tubular lattice frame is fixedly connected, wherein the cuboid plastics-material internal container has two longer side walls, a shorter rear wall, a shorter front wall, an upper base having a closable filling connector and a container base, wherein on the base side, in the center of the front wall, a lower removal region having a protective-housing-shaped molding , directed inward toward the inside of the plastics-material internal container , for disposing a closable removal fitting in a protected recessed manner is provided, and wherein a likewise cuboidal flexible inliner from a plastics-material film is inserted in the rigid plastics-material internal container , said inliner at the top being connected to the filling connector and at the bottom being connected to the removal connector having the removal fitting of the rigid plastics-material internal container , characterized in that the cuboid-shaped flexible inliner in the lower removal region has a corresponding wall recess , directed inward and adapted to the protective-housing-shaped molding of the rigid plastics-material container , having two lateral wall parts , an upper wall part , and a rearward wall part having a flexible removal connector molded thereon, which is configured so as to bear completely in an exact fit on the internal surface of the molding that protrudes in a protective-housing manner into the interior of the rigid plastics-material container .
Cleaning device adapted for spray cleaning of a sensor surface (S101), the cleaning device comprising a spray-body , wherein the spray-body has a spray-nozzle and a body-housing , wherein a liquid fluid connection (P10L) to a liquid inlet and a pressurized air fluid connection (P10A) to a pressurized air inlet is provided, such that - a suction pressure is induced at the liquid fluid connection (P10L) upon providing pressurized airflow from the pressurized air inlet to the spray-nozzle , and - to the liquid fluid connection (P10L) a hydraulic flow path is connected wherein a hydraulic valve is provided in a liquid fluid duct (LL) of the hydraulic flow path adapted for selective control of supplying liquid fluid (L) from a liquid reservoir to the liquid fluid inlet , and - to the pressurized air fluid connection (P10A) a pneumatic flow path is connected wherein a pneumatic valve is provided in a pressurized air fluid duct (AL) of the pneumatic flow path adapted for selective control of supplying pressurized air fluid (A) from a pressurizing means to the pressurized air fluid inlet , characterized in that - the spray-nozzle is adapted to spray the liquid fluid (L) and the pressurized air fluid (A) as a mixture in an aerosol jet (AJ) from the spray-nozzle if supplied to the spray-nozzle by the fluid connections (P10L, P10A). - a suction pressure is induced at the liquid fluid connection (P10L) upon providing pressurized airflow from the pressurized air inlet to the spray-nozzle , and - to the liquid fluid connection (P10L) a hydraulic flow path is connected wherein a hydraulic valve is provided in a liquid fluid duct (LL) of the hydraulic flow path adapted for selective control of supplying liquid fluid (L) from a liquid reservoir to the liquid fluid inlet , and - to the pressurized air fluid connection (P10A) a pneumatic flow path is connected wherein a pneumatic valve is provided in a pressurized air fluid duct (AL) of the pneumatic flow path adapted for selective control of supplying pressurized air fluid (A) from a pressurizing means to the pressurized air fluid inlet , characterized in that - the spray-nozzle is adapted to spray the liquid fluid (L) and the pressurized air fluid (A) as a mixture in an aerosol jet (AJ) from the spray-nozzle if supplied to the spray-nozzle by the fluid connections (P10L, P10A).
A method performed by a first terminal, the method comprising: determining whether a first delay related to the first terminal is necessary; transmitting , to a second terminal, a delay message including first delay information in case that the first delay is necessary; in response to the delay message, receiving , from the second terminal, an allocation message including information on one or more nodes; determining whether information on the first terminal is included in the information on one or more nodes included in the allocation message; and allocating the first delay in case that the information on the first terminal is included in the information on one or more nodes. determining whether a first delay related to the first terminal is necessary; transmitting , to a second terminal, a delay message including first delay information in case that the first delay is necessary; in response to the delay message, receiving , from the second terminal, an allocation message including information on one or more nodes; determining whether information on the first terminal is included in the information on one or more nodes included in the allocation message; and allocating the first delay in case that the information on the first terminal is included in the information on one or more nodes.
A device for rendering an image in a graphics processing system, the image being divided into a plurality of tiles, each tile having equal size and corresponding several display pixels, the device being configured to, for at least some of the tiles: calculate (Step 901), for a tile, in dependence on the prominence of the tile, a sampling density for the respective tile; determine (Step 902), for each of a set of rendering pixels overlapping the tile, a set of one or more shading samples, each shading sample representing a shade at a respective location on the tile and the locations collectively having the calculated sampling density in the rendering pixel; determine (Step 903), in dependence on the shading sample(s) of a rendering pixel, one or more pixel shade values for display pixels overlapping that rendered pixel; characterized in that the device is further configured to determine the sampling density of the tile based on a scale down factor which depends on the prominence of the tile; wherein the device is configured to calculate the scale down factor so that for the tile located at the center area of the lens, the scale down factor is set to 1.0, whereas for less prominent tiles a smaller scale down factor is calculated that is less than 1.0 based on the respective tile's distance to the foveal area and based on a lens distortion map of a virtual reality lens via 2D texture sampling at the respective tile's location. calculate (Step 901), for a tile, in dependence on the prominence of the tile, a sampling density for the respective tile; determine (Step 902), for each of a set of rendering pixels overlapping the tile, a set of one or more shading samples, each shading sample representing a shade at a respective location on the tile and the locations collectively having the calculated sampling density in the rendering pixel; determine (Step 903), in dependence on the shading sample(s) of a rendering pixel, one or more pixel shade values for display pixels overlapping that rendered pixel; characterized in that the device is further configured to determine the sampling density of the tile based on a scale down factor which depends on the prominence of the tile; wherein the device is configured to calculate the scale down factor so that for the tile located at the center area of the lens, the scale down factor is set to 1.0, whereas for less prominent tiles a smaller scale down factor is calculated that is less than 1.0 based on the respective tile's distance to the foveal area and based on a lens distortion map of a virtual reality lens via 2D texture sampling at the respective tile's location.
A method for processing a flat, at least single-layer substrate by guiding the substrate designed as a strip, web or sheet together with a strip-, web- or arc-shaped filling material at different levels through at least one machining tool and by positioning and holding the substrate , in particular, in the region of the machining tool , by at least one punch of the machining tool creating an opening , in particular, a window, at a specifiable area of the substrate , thereby moving the punch into a region outside of the opening and then, in another stroke, the punch of the machining tool punching out an element corresponding to the cross-section of the opening from the filling material , moving it via the punch in the direction of the opening of the fixed substrate and inserting the element via the punch into the opening of the substrate , characterized in that , during the first operating stroke of the punch , it cuts out of the filling material an element corresponding to the contour of the punch , in another stroke, the punch creates a window-like opening within the substrate and presses the element punched out of the filling material through the opening created in such a way that it can fall through in a downwards direction, wherein this stroke only takes place a single time during another processing step and the same applies for inserting a new substrate , or rather the filling material , into the machining tool .
An avionics server comprising: a plurality of device ports , wherein each one of the plurality of device ports is coupled to a single respective one of a plurality of device network interface cards and dedicated to a single respective one of a plurality of domains , which corresponds to the single respective one device network interface card, wherein each one of the plurality of domains comprises a respective dedicated firewall restricting access to a plurality of applications and/or services on each one of the plurality of domains; and at least one processing device configured to identify one or more signals from a respective user device received, via the respective plurality of device network interface cards , at one or more of the plurality of device ports and to verify, by the respective dedicated firewall, whether the user has access to the respective domains that are dedicated to the one or more device ports over which the one or more signals are received. a plurality of device ports , wherein each one of the plurality of device ports is coupled to a single respective one of a plurality of device network interface cards and dedicated to a single respective one of a plurality of domains , which corresponds to the single respective one device network interface card, wherein each one of the plurality of domains comprises a respective dedicated firewall restricting access to a plurality of applications and/or services on each one of the plurality of domains; and at least one processing device configured to identify one or more signals from a respective user device received, via the respective plurality of device network interface cards , at one or more of the plurality of device ports and to verify, by the respective dedicated firewall, whether the user has access to the respective domains that are dedicated to the one or more device ports over which the one or more signals are received.