mhurhangee/ep-ind-claims huggingface dataset:
Apparatus comprising at least one particle and/or fibre-generating device, preferably furthermore comprising at least one treatment device for treating the particles and/or fibres, in particular for temperature control and/or stretching and/or distributing the particles and/or fibres, wherein the apparatus comprises at least one endless belt, in particular at least one foraminous endless belt, for depositing the particles and/or fibres to form the particle deposit and/or fibre deposit, wherein the endless belt, in particular the foraminous endless belt, is guided between at least two deflecting rollers (2, 3) over at least two support rollers, wherein the support rollers each extend over the entire width of the endless belt or foraminous endless belt, characterized in that the supporting rollers have a diameter of less than 200 mm, preferably of less than 190 mm, preferably of less than 180 mm and particularly preferably of less than or equal to 170 mm, wherein two support rollers in the conveying direction of the endless belt or foraminous endless belt have a distance of more than 1000 mm, preferably of more than 1700 mm, preferably more than 2000 mm and particularly preferably of more than 2500 mm.
A variable vane comprising: a first vane portion; and a second vane portion adjacent the first vane portion, the second vane portion comprising a trunnion (94; 128; 148) projecting outward from a radial end (66; 68) of the second vane portion, the second vane portion configured to rotate about a trunnion axis (104; 130) of the trunnion (94; 128; 148) from a first rotational position to a second rotational position, characterised in that: the trunnion (94; 128; 148) is disposed in a slot within which the trunnion (94; 128; 148) is configured to translate between a first slot end corresponding to a first axial position of the second vane portion and a second slot end corresponding to a second axial position of the second vane portion and wherein the second vane portion is configured to rotate about the trunnion axis (104; 130) of the trunnion (94; 128; 148) from the first rotational position to the second rotational position as the trunnion (94; 128; 148) translates from the first slot end to the second slot end. a first vane portion; and a second vane portion adjacent the first vane portion, the second vane portion comprising a trunnion (94; 128; 148) projecting outward from a radial end (66; 68) of the second vane portion, the second vane portion configured to rotate about a trunnion axis (104; 130) of the trunnion (94; 128; 148) from a first rotational position to a second rotational position, characterised in that: the trunnion (94; 128; 148) is disposed in a slot within which the trunnion (94; 128; 148) is configured to translate between a first slot end corresponding to a first axial position of the second vane portion and a second slot end corresponding to a second axial position of the second vane portion and wherein the second vane portion is configured to rotate about the trunnion axis (104; 130) of the trunnion (94; 128; 148) from the first rotational position to the second rotational position as the trunnion (94; 128; 148) translates from the first slot end to the second slot end.
Method for the generation of a correction model of a camera to correct at least one aberration influenced by a number of selected, modifiable camera settings in the image plane of the camera, wherein a plurality (i) of features (M i) is provided, wherein for each of the selected, modifiable camera settings that influence the aberration, at least two defined setting specifications are provided for the modification of the respective camera setting, wherein for each of the at least two setting specifications the plurality (i) of the features (M i) is captured by the camera, characterized in that the plurality (i) of features (M i) is provided with different known feature positions (P MKX, Y, Z) in space, that image positions (P Bi(X,Y) of the features (Mi) in the image plane are determined by the camera from the captured features (Mi), that at least one known mathematical method is used to determine a relationship between the different known feature positions (P Mi(X,Y,Z) in space and the corresponding image positions (P Bi(X,Y)) in the image plane of the camera, that from that, for each of the at least two provided setting specifications of the selected modifiable camera settings, correction parameters of at least of one specified mathematical correction model are determined for the correction of the at least one aberration and that the at least one correction model is stored in the camera together with the determined correction parameters.
A tunable slot antenna (2000; 2400) comprising: a conductive bezel section (2004; 2404) of an electronic device case; a conductive ground plane section (2006; 2406) forming a perimeter of the electronic device case and being positioned opposite the conductive bezel section, the conductive ground plane section being separated from the conductive bezel section by a perimeter gap at the perimeter; characterized in that a structural tank circuit (2002; 2402) integrated with and connecting the conductive bezel section and the conductive ground plane section across the perimeter gap, wherein the structural tank circuit is formed as a structural portion of the electronic device case. a conductive bezel section (2004; 2404) of an electronic device case; a conductive ground plane section (2006; 2406) forming a perimeter of the electronic device case and being positioned opposite the conductive bezel section, the conductive ground plane section being separated from the conductive bezel section by a perimeter gap at the perimeter; characterized in that a structural tank circuit (2002; 2402) integrated with and connecting the conductive bezel section and the conductive ground plane section across the perimeter gap, wherein the structural tank circuit is formed as a structural portion of the electronic device case.
An apparatus comprising: a receiving unit for receiving an image captured by a monitoring camera; a determination unit for determining, based on the image that was received, a presence or absence of an occurrence of an event that interferes with monitoring performed by the monitoring camera; and a notification unit for notifying an administrator of the monitoring camera that the presence of the occurrence of the event has been determined, in response to the determination, characterized in that the apparatus further comprises an image management unit configured to associate an image captured by another monitoring camera whose field of view includes the monitoring camera with the determination of the presence of the occurrence of the event, in response to the presence of the occurrence of the event is determined based on the image captured by the monitoring camera, to confirm the factor that caused the monitoring interference event. a receiving unit for receiving an image captured by a monitoring camera; a determination unit for determining, based on the image that was received, a presence or absence of an occurrence of an event that interferes with monitoring performed by the monitoring camera; and a notification unit for notifying an administrator of the monitoring camera that the presence of the occurrence of the event has been determined, in response to the determination, characterized in that the apparatus further comprises an image management unit configured to associate an image captured by another monitoring camera whose field of view includes the monitoring camera with the determination of the presence of the occurrence of the event, in response to the presence of the occurrence of the event is determined based on the image captured by the monitoring camera, to confirm the factor that caused the monitoring interference event.
A cooling airflow guide structure of a vehicle transmission box, wherein the transmission box comprises a box body and a cover, the transmission box comprising a belt transmission mechanism, the belt transmission mechanism comprising a driving disk assembly and a driven disk assembly, a driving belt being arranged to couple between the driving disk assembly and the driven disk assembly; the cover of the transmission box comprises a cooling air inlet opening formed therein, an airflow guide hood being set outside and covering the cover, the airflow guide hood comprising at least an airflow guide opening (51, 52) formed therein, the airflow guide opening (51, 52) extending through the airflow guide hood, the airflow guide hood has an inside surface that comprises a flow guide member raised therefrom and adjacent to the airflow guide opening (51, 52), characterized in that the inside surface of the airflow guide hood comprising a blocking rib formed thereon and above the airflow guide opening, the flow guide member and the blocking rib defining a flow guide opening on the inside surface of the airflow guide hood and communicating with the airflow guide opening, and in that a flow escort rib having a lower portion in which a water drain passage is formed.
A hinge mechanism comprising at least three shafts arranged in a row, a linkage mechanism and two connecting parts, characterized in that the two connecting parts are fixedly connected to two shafts on outermost sides, respectively; two adjacent shafts are connected by the linkage mechanism; the linkage mechanism comprises a first linkage and a second linkage; one of the two adjacent shafts is hinged to a first end of the first linkage, another shaft of the two adjacent shafts is hinged to a first end of the second linkage, and a second end of the first linkage is hinged to a second end of the second linkage; and when hinge points where the first linkage and the second linkage are respectively hinged to the two adjacent shafts and a hinge point between the first linkage and the second linkage are in a same straight line, there is a gap between the two adjacent shafts; wherein the shafts are camshafts, and convex portions of the camshafts are located on a same side of the row in which the at least three shafts are arranged.
A catheter comprising: a first shaft comprising a skived proximal portion and defining a first lumen, the skived proximal portion including a guidewire exit port being open the proximal direction; and a second shaft comprising a skived distal portion and defining a second lumen, the skived distal portion being coupled to the skived proximal portion such that the first lumen and the second lumen form a continuous lumen; wherein the skived proximal portion is provided as sliced off distal portion of the first shaft providing a skived proximal end; wherein the skived distal portion is provided as sliced off proximal portion of the second shaft providing a skived distal end complementary to the skived proximal end; and wherein, a segmented joint is formed by binding surfaces (111a, 112a, 113a) of the skived distal end coupled to complementary binding surfaces (111b, 112b, 113b) of the skived proximal end. a first shaft comprising a skived proximal portion and defining a first lumen, the skived proximal portion including a guidewire exit port being open the proximal direction; and a second shaft comprising a skived distal portion and defining a second lumen, the skived distal portion being coupled to the skived proximal portion such that the first lumen and the second lumen form a continuous lumen; wherein the skived proximal portion is provided as sliced off distal portion of the first shaft providing a skived proximal end; wherein the skived distal portion is provided as sliced off proximal portion of the second shaft providing a skived distal end complementary to the skived proximal end; and wherein, a segmented joint is formed by binding surfaces (111a, 112a, 113a) of the skived distal end coupled to complementary binding surfaces (111b, 112b, 113b) of the skived proximal end.
Device for delivering liquid from a bottle or similar container comprising a body adapted to engage with the neck of the bottle and to cause fluid to exit from a spout following the injection into the bottle of in an inert gas under pressure, characterized in that said body includes a first channel, which runs across said body, that first channel having a first opening for the introduction of gas into said channel, said first channel having further a second and a third openings provided spaced along said first channel, said second opening fluidly communicating with a second channel, which is provided in said body, said second channel being adapted to guide the gas inside the bottle, said third opening fluidly communicating with a third channel which is provided in said body and leads to the dispensing spout.
A method for producing N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide, said method comprising: (a) reacting compound 7 having formula: with 4-lodobenzoyl chloride (compound 12) to form compound 13 having formula: (b) reacting compound 13 with methyl 2, 2-difluoro-2-(fluorosulfonyl)acetate; and (c) collecting N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide. (a) reacting compound 7 having formula: with 4-lodobenzoyl chloride (compound 12) to form compound 13 having formula: (b) reacting compound 13 with methyl 2, 2-difluoro-2-(fluorosulfonyl)acetate; and (c) collecting N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide.
A submicron particle comprising: a silica body having a surface and defining a plurality of pores that are suitable to receive molecules therein; and a phospholipid bilayer coating the surface where said phospholipid bilayer is applied by contacting said silica body with a film of phospholipids, whereby said phospholipid bilayer stably seals the plurality of pores; wherein the submicron particle includes a first therapeutic agent within the pores, where said first therapeutic agent is gemcitabine; wherein the submicron particle includes a second different therapeutic agent associated with the phospholipid bilayer, where said second therapeutic agent is paclitaxel; wherein the dose and ratio of gemcitabine to paclitaxel is controlled by loading said silica body with gemcitabine before applying said phospholipid bilayer and said film of phospholipids contains said paclitaxel before application to said silica body; wherein said submicron particle has a maximum dimension of less than one micron; and wherein said submicron particle is a member of a monodisperse population of submicron particles. a silica body having a surface and defining a plurality of pores that are suitable to receive molecules therein; and a phospholipid bilayer coating the surface where said phospholipid bilayer is applied by contacting said silica body with a film of phospholipids, whereby said phospholipid bilayer stably seals the plurality of pores; wherein the submicron particle includes a first therapeutic agent within the pores, where said first therapeutic agent is gemcitabine; wherein the submicron particle includes a second different therapeutic agent associated with the phospholipid bilayer, where said second therapeutic agent is paclitaxel; wherein the dose and ratio of gemcitabine to paclitaxel is controlled by loading said silica body with gemcitabine before applying said phospholipid bilayer and said film of phospholipids contains said paclitaxel before application to said silica body; wherein said submicron particle has a maximum dimension of less than one micron; and wherein said submicron particle is a member of a monodisperse population of submicron particles.
An air duct arrangement, in particular a charge air duct for a turbocharged internal combustion engine, comprising a cooler, and at least two inlet air ducts (30, 32) of an air intake manifold of an internal combustion engine, wherein - at least a first one of the inlet air ducts (30, 32) is arranged between an outlet of the cooler and at least one runner (22, 24, 26, 28) of the air intake manifold, where the runner (22, 24, 26, 28) is connected to an intake valve (50, 52, 54, 56, 58, 60, 62, 64) of a cylinder (42, 44, 46, 48) of the internal combustion engine, - the other one of the inlet air ducts (30, 32) is arranged between the first one of the inlet air ducts (30, 32) and at least one runner (22, 24, 26, 28) connected to an intake valve (50, 52, 54, 56, 58, 60, 62, 64) of at least one of the further cylinders (42, 44, 46, 48), characterized in that an air flow length of at least one of the inlet air ducts (30, 32) is provided such that a charge air pressure wave effected by closing the intake valve (50, 52, 54, 56, 58, 60, 62, 64) of one of the cylinders (42, 44, 46, 48) propagates through the inlet air ducts (30, 32) causing an underpressure at the intake valve (50, 52, 54, 56, 58, 60, 62, 64) of the one further cylinder (42, 44, 46, 48), wherein the air flow lengths of the inlet air ducts (30, 32) provide that the propagation wave arrives with an appropriate phase at the intake valve of the second cylinder with a pressure minimum, wherein a much different air flow length for the two inlet air ducts is provided. - at least a first one of the inlet air ducts (30, 32) is arranged between an outlet of the cooler and at least one runner (22, 24, 26, 28) of the air intake manifold, where the runner (22, 24, 26, 28) is connected to an intake valve (50, 52, 54, 56, 58, 60, 62, 64) of a cylinder (42, 44, 46, 48) of the internal combustion engine, - the other one of the inlet air ducts (30, 32) is arranged between the first one of the inlet air ducts (30, 32) and at least one runner (22, 24, 26, 28) connected to an intake valve (50, 52, 54, 56, 58, 60, 62, 64) of at least one of the further cylinders (42, 44, 46, 48),
Multilayer foil having at least four layers, encompassing - a first layer and a fourth layer having a thickness of from 10 to 440 μm made of a polymer selected from the group consisting of polyvinyl chloride, copolymers made of vinyl chloride units and of one or more other monomers (VC copolymers); mixtures made of polyvinyl chloride and of VC copolymers, polyethylene terephthalate, polyacrylonitrile, copolymers made of acrylonitrile units and of one or more other monomers (AN copolymers); - a second layer having a thickness of from 9 to 120 μm made of a vinylidene chloride polymer (PVDC) selected from the group consisting of polyvinylidene chloride, copolymers made of vinylidene chloride units and of one or more other monomers (VDC copolymers), mixtures made of polyvinylidene chloride and of VDC copolymers; and - a third layer having a thickness of from 15 to 210 μm made of a chlorotrifluoroethylene polymer (PCTFE) selected from the group consisting of polychlorotrifluoroethylene, copolymers made of chlorotrifluoroethylene units and of one or more other monomers (CTFE copolymers), mixtures made of polychlorotrifluoroethylene and of CTFE copolymers. - a first layer and a fourth layer having a thickness of from 10 to 440 μm made of a polymer selected from the group consisting of polyvinyl chloride, copolymers made of vinyl chloride units and of one or more other monomers (VC copolymers); mixtures made of polyvinyl chloride and of VC copolymers, polyethylene terephthalate, polyacrylonitrile, copolymers made of acrylonitrile units and of one or more other monomers (AN copolymers); - a second layer having a thickness of from 9 to 120 μm made of a vinylidene chloride polymer (PVDC) selected from the group consisting of polyvinylidene chloride, copolymers made of vinylidene chloride units and of one or more other monomers (VDC copolymers), mixtures made of polyvinylidene chloride and of VDC copolymers; and - a third layer having a thickness of from 15 to 210 μm made of a chlorotrifluoroethylene polymer (PCTFE) selected from the group consisting of polychlorotrifluoroethylene, copolymers made of chlorotrifluoroethylene units and of one or more other monomers (CTFE copolymers), mixtures made of polychlorotrifluoroethylene and of CTFE copolymers.
A method for forming a mold for casting a titanium-containing article, comprising: mixing calcium aluminate and silicon carbide with a liquid to produce a slurry, wherein the percentage of solids in the slurry is 60% to 80% by weight of the slurry and a viscosity of the slurry is 30 to 1500 mPa·s (30 to 1500 centipoise); introducing the slurry into a mold cavity that contains a fugitive pattern; and allowing the slurry to cure in the mold cavity to form the mold for casting the titanium-containing article, characterized in that the calcium aluminate comprises more than 20% by weight of the slurry and wherein the particle size of the calcium aluminate is less than 50 microns in outside dimension, where the outside dimension refers to the longest distance between two points on a particle. mixing calcium aluminate and silicon carbide with a liquid to produce a slurry, wherein the percentage of solids in the slurry is 60% to 80% by weight of the slurry and a viscosity of the slurry is 30 to 1500 mPa·s (30 to 1500 centipoise); introducing the slurry into a mold cavity that contains a fugitive pattern; and allowing the slurry to cure in the mold cavity to form the mold for casting the titanium-containing article, characterized in that the calcium aluminate comprises more than 20% by weight of the slurry and wherein the particle size of the calcium aluminate is less than 50 microns in outside dimension, where the outside dimension refers to the longest distance between two points on a particle.
A method of generating multimode clock signals having uniform latency to a microprocessor, with one or more pipelines (18-A - 18-D), each pipeline (18-A - 18-D) having a plurality of stages separated by inter-stage pulsed sequential storage elements (16-A - 16-D), the method comprising: generating a pulse clock signal to the inter-stage pulsed sequential storage elements (16-A - 16-D) via a clock generation path responsive to a clock chopping signal being active by combining a phase clock input signal with the clock chopping signal, wherein the clock chopping signal is a delayed version of the phase clock input signal; generating a phase clock signal to the inter-stage pulsed sequential storage elements (16-A - 16-D) via the same clock generation path responsive to the clock chopping signal being inactive; activating the clock chopping signal responsive to a mode control input signal being in a first state; and deactivating the clock chopping signal if at least one of the following conditions applies: the mode control input signal is in a second state and a plurality of clock enable signals are inactive. generating a pulse clock signal to the inter-stage pulsed sequential storage elements (16-A - 16-D) via a clock generation path responsive to a clock chopping signal being active by combining a phase clock input signal with the clock chopping signal, wherein the clock chopping signal is a delayed version of the phase clock input signal; generating a phase clock signal to the inter-stage pulsed sequential storage elements (16-A - 16-D) via the same clock generation path responsive to the clock chopping signal being inactive; activating the clock chopping signal responsive to a mode control input signal being in a first state; and deactivating the clock chopping signal if at least one of the following conditions applies: the mode control input signal is in a second state and a plurality of clock enable signals are inactive.