mhurhangee/ep-ind-claims huggingface dataset:
Cremation facility for large animals, in particular equids, comprising: - a crematory oven comprising: • at least one cremation chamber, said cremation chamber comprising at least one primary burner, and a front face having an opening through which the animals are introduced, • a post-combustion chamber into which the cremation chamber leads, comprising secondary burners, - rails positioned close to the opening, and a carriage comprising a means for unloading the animal, the carriage being guided in translation by the rails and movable between a loading position, in which the carriage receives the animal, and an unloading position, in which the carriage is positioned facing the opening, the unloading means being able, in the unloading position, to introduce the animal into the cremation chamber, characterised in that it includes a fume treatment system, including at least one fume filtration or conditioning device (23, 27, 32, 33), into which the post-combustion chamber leads, and in that the means for unloading the animal body comprises an arm extended by a gripping means, cooperating with a pallet or tray intended to receive the animal, and rollers on which the pallet or tray moves during unloading of the animal. - a crematory oven comprising: • at least one cremation chamber, said cremation chamber comprising at least one primary burner, and a front face having an opening through which the animals are introduced, • a post-combustion chamber into which the cremation chamber leads, comprising secondary burners, • at least one cremation chamber, said cremation chamber comprising at least one primary burner, and a front face having an opening through which the animals are introduced, • a post-combustion chamber into which the cremation chamber leads, comprising secondary burners, - rails positioned close to the opening, and a carriage comprising a means for unloading the animal, the carriage being guided in translation by the rails and movable between a loading position, in which the carriage receives the animal, and an unloading position, in which the carriage is positioned facing the opening, the unloading means being able, in the unloading position, to introduce the animal into the cremation chamber, characterised in that it includes a fume treatment system, including at least one fume filtration or conditioning device (23, 27, 32, 33), into which the post-combustion chamber leads, and in that the means for unloading the animal body comprises an arm extended by a gripping means, cooperating with a pallet or tray intended to receive the animal, and rollers on which the pallet or tray moves during unloading of the animal. it includes a fume treatment system, including at least one fume filtration or conditioning device (23, 27, 32, 33), into which the post-combustion chamber leads, and in that the means for unloading the animal body comprises an arm extended by a gripping means, cooperating with a pallet or tray intended to receive the animal, and rollers on which the pallet or tray moves during unloading of the animal.
Open impeller for a submergible pump configured for pumping liquid comprising abrasive matter, the impeller comprising a cover plate, a centrally located hub and at least two spirally swept blades connected to the cover plate and to the hub, each blade comprising a leading edge adjacent the hub and a trailing edge at the periphery of the impeller and a lower edge, wherein the lower edge extends from the leading edge to the trailing edge and separates a suction side of the blade from a pressure side of the blade, and wherein the lower edge is configured to be facing and located opposite a wear plate of said submergible pump, at least one blade comprising a winglet at the lower edge, wherein the winglet is connected to and projects from the suction side of said at least one blade, wherein said winglet is located radially outside an inner radius (r_inner) of the impeller and extends in the circumferential direction to the trailing edge at the suctions side of the blade located at a maximum radius (r_max) of the impeller, said winglet has a lower wear surface configured to be facing and located opposite the wear plate of the submergible pump, wherein said inner radius (r_inner) is equal to the largest of: - the maximum radius (r_max) of the impeller multiplied by 0,6, and - an inlet radius (r_inlet) of the impeller multiplied by 1,2, wherein the inlet radius (r_inlet) is taken at the interface between the leading edge of the blade and the lower edge of the blade at the suction side of the blade. each blade comprising a leading edge adjacent the hub and a trailing edge at the periphery of the impeller and a lower edge, wherein the lower edge extends from the leading edge to the trailing edge and separates a suction side of the blade from a pressure side of the blade, and wherein the lower edge is configured to be facing and located opposite a wear plate of said submergible pump, at least one blade comprising a winglet at the lower edge, wherein the winglet is connected to and projects from the suction side of said at least one blade, wherein said winglet is located radially outside an inner radius (r_inner) of the impeller and extends in the circumferential direction to the trailing edge at the suctions side of the blade located at a maximum radius (r_max) of the impeller, said winglet has a lower wear surface configured to be facing and located opposite the wear plate of the submergible pump, wherein said inner radius (r_inner) is equal to the largest of: - the maximum radius (r_max) of the impeller multiplied by 0,6, and - an inlet radius (r_inlet) of the impeller multiplied by 1,2, wherein the inlet radius (r_inlet) is taken at the interface between the leading edge of the blade and the lower edge of the blade at the suction side of the blade. - the maximum radius (r_max) of the impeller multiplied by 0,6, and - an inlet radius (r_inlet) of the impeller multiplied by 1,2, wherein the inlet radius (r_inlet) is taken at the interface between the leading edge of the blade and the lower edge of the blade at the suction side of the blade.
A production method of a hole blocking layer, the hole blocking layer disposed between an organic semiconductor layer and an electrode connected electrically with the organic semiconductor in a photoelectric conversion element, the photoelectric conversion element comprising the organic semiconductor layer and the electrode, the hole blocking layer suppressing electrical conduction being carried by holes between the organic semiconductor layer and the electrode, the production method comprising: a liquid layer forming step that causes a liquid composition and a surface of a member on which the hole blocking layer is to be formed, to contact with each other thereby forming a liquid layer comprising the liquid composition on the surface of the member on which the hole blocking layer is to be formed, the liquid composition containing a zinc source comprising bis(acetylacetonato)zinc, a complexing agent comprising acetylacetone, and a polar solvent; and a drying step that heats the liquid layer formed by the liquid layer forming step to vaporize the complexing agent and the polar solvent from the liquid layer thereby forming a hole blocking layer comprising zinc oxide on the surface of the member on which the hole blocking layer is to be formed, wherein boiling point T b1 at 1 atm of the polar solvent is 120°C or higher and 160°C or lower and wherein the drying step uses a heating temperature of 100°C or lower. a liquid layer forming step that causes a liquid composition and a surface of a member on which the hole blocking layer is to be formed, to contact with each other thereby forming a liquid layer comprising the liquid composition on the surface of the member on which the hole blocking layer is to be formed, the liquid composition containing a zinc source comprising bis(acetylacetonato)zinc, a complexing agent comprising acetylacetone, and a polar solvent; and a drying step that heats the liquid layer formed by the liquid layer forming step to vaporize the complexing agent and the polar solvent from the liquid layer thereby forming a hole blocking layer comprising zinc oxide on the surface of the member on which the hole blocking layer is to be formed, wherein boiling point T b1 at 1 atm of the polar solvent is 120°C or higher and 160°C or lower and wherein the drying step uses a heating temperature of 100°C or lower.
An apparatus for sensing fluid constituents such as cells, biomolecules or particles comprising: a substrate; a microfluidic channel supported by the substrate; a bubble jet inertial pump supported by the substrate and adjacent the microfluidic channel to selectively pump fluid through the microfluidic channel; optical sensors (28, 628, 828) supported by the substrate adjacent and on a first side of the microfluidic channel; a light emitter on a second side of the microfluidic channel to pass light across the microfluidic channel to the optical sensor; and wherein the optical sensors (28, 628, 828) are located along the microfluidic channel and wherein the light emitter comprises a waveguide (640, 840, 1040) along the microfluidic channel to direct light to each of the optical sensors (28, 628, 828). a substrate; a microfluidic channel supported by the substrate; a bubble jet inertial pump supported by the substrate and adjacent the microfluidic channel to selectively pump fluid through the microfluidic channel; optical sensors (28, 628, 828) supported by the substrate adjacent and on a first side of the microfluidic channel; a light emitter on a second side of the microfluidic channel to pass light across the microfluidic channel to the optical sensor; and wherein the optical sensors (28, 628, 828) are located along the microfluidic channel and wherein the light emitter comprises a waveguide (640, 840, 1040) along the microfluidic channel to direct light to each of the optical sensors (28, 628, 828).
A tool comprising: a housing assembly defining a handle; and a transmission assembly received in the housing assembly, the transmission assembly comprising a reduction gearset and a speed selector mechanism, the reduction gearset comprising a plurality of planetary stages (130, 132, 134), the speed selector mechanism having a movable member, an actuator and a shifter assembly, the movable member being movable parallel to a longitudinal axis of the transmission assembly between a first position, in which the movable member is non-rotatably coupled to the housing assembly, and a second position in which the movable member is coupled to a planet carrier of the reduction gearset for common rotation, the actuator comprising a yoke, which is pivotally coupled to the housing assembly, and a follower that is coupled to the yoke, the follower engaging the movable member so as to be axially movable with the follower, the shifter assembly having a selector switch and a switch fork, the selector switch being slidably mounted to the housing assembly and movable between a first switch position and a second switch position; characterized by the shifter assembly also having a pair of biasing springs (306, 308), and the switch fork being slidably coupled to the selector switch and receiving the yoke, the biasing springs (306, 308) cooperating to bias the switch fork relative to the selector switch into a neutral position. a housing assembly defining a handle; and a transmission assembly received in the housing assembly, the transmission assembly comprising a reduction gearset and a speed selector mechanism, the reduction gearset comprising a plurality of planetary stages (130, 132, 134), the speed selector mechanism having a movable member, an actuator and a shifter assembly, the movable member being movable parallel to a longitudinal axis of the transmission assembly between a first position, in which the movable member is non-rotatably coupled to the housing assembly, and a second position in which the movable member is coupled to a planet carrier of the reduction gearset for common rotation, the actuator comprising a yoke, which is pivotally coupled to the housing assembly, and a follower that is coupled to the yoke, the follower engaging the movable member so as to be axially movable with the follower, the shifter assembly having a selector switch and a switch fork, the selector switch being slidably mounted to the housing assembly and movable between a first switch position and a second switch position; characterized by the shifter assembly also having a pair of biasing springs (306, 308), and the switch fork being slidably coupled to the selector switch and receiving the yoke, the biasing springs (306, 308) cooperating to bias the switch fork relative to the selector switch into a neutral position.
Electrical protection switchgear comprising a device for controlling its earthing, said switchgear being interposed between two parts of an electrical circuit so as to ensure at least the function of passage of the current between the parts, the function of interrupting the current, and the function of earthing one of the abovementioned parts, said switchgear comprising at least two electrical protection apparatuses (C1, C2), respectively a first and a second protection apparatus, mounted in parallel with one another, each apparatus comprising a branch comprising means for interrupting the current and means for isolating the circuit, or breakers, mounted in series, each protection apparatus comprising a mechanism (M1, M2) for controlling its breaker comprising a shaft (8, 9), while the so-called first control mechanism M1 of the breaker of a so-called first of the apparatuses C1 comprises a manoeuvring member that can be actuated by a user, and controls the so-called second control mechanism M2 of the breaker of the so-called second apparatus C2, via a so-called link mechanism L, so that, during a first part of the manoeuvre to actuate the manoeuvring member in the direction of opening of the first breaker to a certain rotational position of the shaft associated with said breaker, called maximum position, the two control shafts (8, 9) respectively of the two breakers (2, 4) are linked in rotation, characterized in that, as soon as the second breaker has reached a certain distance away from its associated line contact, making it possible to ensure a certain insulation distance in the corresponding branch, the two mechanisms M1, M2 are decoupled so that the two shafts (8, 9) continue their rotational travel independently of one another in the direction of opening of the breakers (2, 4).
A method for Vehicle-to-Vehicle communication implemented in a first vehicle, the method comprising: - Exchanging messages between the first vehicle and a second vehicle, each of the messages comprising a hash pointer to the respective last previous message, each hash pointer comprising a link to the respective last previous message and a hash of the respective last previous message; and - After completion of the exchange of messages, publishing a hash pointer to the last message of the exchange of messages, the hash pointer comprising a link pointing to the last message of the exchange of messages and a hash of the last message of the exchange of messages, wherein the completion of the exchange of messages between the first vehicle and the second vehicle results in a contract indicating a cooperative manoeuver to be performed by the first vehicle and the second vehicle. - Exchanging messages between the first vehicle and a second vehicle, each of the messages comprising a hash pointer to the respective last previous message, each hash pointer comprising a link to the respective last previous message and a hash of the respective last previous message; and - After completion of the exchange of messages, publishing a hash pointer to the last message of the exchange of messages, the hash pointer comprising a link pointing to the last message of the exchange of messages and a hash of the last message of the exchange of messages, wherein the completion of the exchange of messages between the first vehicle and the second vehicle results in a contract indicating a cooperative manoeuver to be performed by the first vehicle and the second vehicle.
A semiconductor device comprising: a system bus; a plurality of CPU cores (91 to 94) each connected to the system bus, each comprising a scan chain, and being assigned one or more tasks and configured to perform one of the tasks in a normal operation state; and a diagnostic test circuit connected to the system bus and capable of communicating with the plurality of the CPU cores (91 to 94), and configured to perform a scan test for the plurality of the CPU cores (91 to 94) by using the scan chain, characterized in that at least one but not all of the CPU cores (91 to 94) outputs a test start instruction signal to the diagnostic test circuit when switching to a diagnostic test operation by the scan test from the normal operation state, when the test start instruction signal is output from the at least one but not all of the CPU cores (91 to 94), the diagnostic test circuit performs the scan test for the at least one but not all of the CPU cores (91 to 94) which have output the test start instruction signal in accordance with the test start instruction signal, during an execution time period of the scan test for the at least one but not all of the CPU cores (91 to 94), the rest of the plurality of CPU cores (91 to 94) perform normal operation, and the scan test for the plurality of CPU cores (91 to 94) is repeated periodically until the diagnostic test circuit determines that there is a failure in the plurality of CPU cores (91 to 94). a system bus; a plurality of CPU cores (91 to 94) each connected to the system bus, each comprising a scan chain, and being assigned one or more tasks and configured to perform one of the tasks in a normal operation state; and a diagnostic test circuit connected to the system bus and capable of communicating with the plurality of the CPU cores (91 to 94), and configured to perform a scan test for the plurality of the CPU cores (91 to 94) by using the scan chain, characterized in that at least one but not all of the CPU cores (91 to 94) outputs a test start instruction signal to the diagnostic test circuit when switching to a diagnostic test operation by the scan test from the normal operation state, when the test start instruction signal is output from the at least one but not all of the CPU cores (91 to 94), the diagnostic test circuit performs the scan test for the at least one but not all of the CPU cores (91 to 94) which have output the test start instruction signal in accordance with the test start instruction signal, during an execution time period of the scan test for the at least one but not all of the CPU cores (91 to 94), the rest of the plurality of CPU cores (91 to 94) perform normal operation, and the scan test for the plurality of CPU cores (91 to 94) is repeated periodically until the diagnostic test circuit determines that there is a failure in the plurality of CPU cores (91 to 94).
An apparatus, comprising: a chamber configured to support a plurality of quasi-orthogonal resonant modes; and at least one antenna assembly comprising an antenna having a radiating element, wherein the antenna has predominantly linear polarization of radiation defined by a polarization plane, the radiating element is disposed within the chamber such that the polarization plane is not parallel and not perpendicular to the plane containing a primary axis of the chamber and a central point of the radiating element, and the antenna is coupled to the chamber through a designated surface of the chamber and coupled to at least one source of microwave or radio frequency energy having an operating frequency and positioned to launch one or more of the plurality of quasi-orthogonal resonant modes to be coupled to a load disposed within the chamber; wherein the designated surface of the chamber comprises at least one partially curved surface thereof and the chamber has a shape of a first end-cap and a second end-cap, each end-cap comprising one-half of an oblate spheroid being interconnected with a cylindrical insert along matching edges. a chamber configured to support a plurality of quasi-orthogonal resonant modes; and at least one antenna assembly comprising an antenna having a radiating element, wherein the antenna has predominantly linear polarization of radiation defined by a polarization plane, the radiating element is disposed within the chamber such that the polarization plane is not parallel and not perpendicular to the plane containing a primary axis of the chamber and a central point of the radiating element, and the antenna is coupled to the chamber through a designated surface of the chamber and coupled to at least one source of microwave or radio frequency energy having an operating frequency and positioned to launch one or more of the plurality of quasi-orthogonal resonant modes to be coupled to a load disposed within the chamber; wherein the designated surface of the chamber comprises at least one partially curved surface thereof and the chamber has a shape of a first end-cap and a second end-cap, each end-cap comprising one-half of an oblate spheroid being interconnected with a cylindrical insert along matching edges.
A process for forming a printed product, said process comprising: applying an energy curable coating to a substrate at a first station using a printing process, said energy curable coating comprising an acrylate material that cures by free radical polymerization; curing said energy curable coating using an energy curable process including free radical polymerization at a second station downstream of said first station to define a cured energy curable layer; routing said substrate to a third station downstream of said second station; and applying a metallic ink directly to the intact surface of said cured energy curable layer which consists of the cured energy curable coating, to define a metallic ink layer on the cured energy curable layer, characterized in that said applying said energy curable coating to said substrate at said first station comprises applying said energy curable coating to said substrate at said first station using a gravure cylinder having indicia grooves formed on said gravure cylinder, said indicia grooves being adapted to retain said energy curable coating until contact with said substrate whereby said energy curable coating is applied to said substrate. applying an energy curable coating to a substrate at a first station using a printing process, said energy curable coating comprising an acrylate material that cures by free radical polymerization; curing said energy curable coating using an energy curable process including free radical polymerization at a second station downstream of said first station to define a cured energy curable layer; routing said substrate to a third station downstream of said second station; and applying a metallic ink directly to the intact surface of said cured energy curable layer which consists of the cured energy curable coating, to define a metallic ink layer on the cured energy curable layer, characterized in that said applying said energy curable coating to said substrate at said first station comprises applying said energy curable coating to said substrate at said first station using a gravure cylinder having indicia grooves formed on said gravure cylinder, said indicia grooves being adapted to retain said energy curable coating until contact with said substrate whereby said energy curable coating is applied to said substrate.
A process for producing a baked good with extended mold-free shelf life comprising the steps of: a) baking said baked good and cooling said baked good to a temperature sufficiently low for yeast to survive; b) applying live yeast to said baked good after baking; c) packaging and storing said baked good in a closed bag, wherein the bag is semi-permeable. a) baking said baked good and cooling said baked good to a temperature sufficiently low for yeast to survive; b) applying live yeast to said baked good after baking; c) packaging and storing said baked good in a closed bag, wherein the bag is semi-permeable.