mhurhangee/ep-ind-claims huggingface dataset:
Oven muffle comprising a lighting system for illuminating the interior of the oven muffle, the lighting system comprising at least one light source, preferably an LED or LED array, and at least one light guide which is attached to a surface of a wall of the oven muffle, the light guide comprising several distinct light guiding tubes (4; 15a, 15b) arranged side-by-side and arranged and adapted to couple light from the at least one light source into the at least one light guiding tube (4; 15a, 15b) at a light guiding tube face side thereof, characterised in that the light guide is attached to the outer surface of at least one of a lateral wall, a back wall and a top wall of the oven muffle, wherein a respective light guiding tube (4; 15a, 15b) extends in parallel to a light guiding direction along a respective wall from a light tube exit window (11; 11a, 11b) facing at least one corresponding light entrance opening in the respective wall to its light tube face side preferably lying beyond a respective edge of the wall, wherein adjacent light guiding tubes (15a, 15b) are separated from each other by separating walls, and wherein respective mirrored surfaces extend in parallel to the light guiding direction, and wherein light tube face sides of the light guiding tubes (11a, 11b) define a continuous light guide face side, wherein the lighting system comprises a set of light sources arranged in a row along the light guide face side, and wherein at least one light source is assigned to each light tube face side.
Process for the preparation of a syngas comprising hydrogen and carbon monoxide comprising the steps of: (a) reacting a preheated methane comprising gas with an oxidising gas to obtain a hot raw syngas comprising carbon monoxide and hydrogen; (b) cooling the hot raw syngas resulting from step (a) to obtain the syngas by indirect heat exchange against water to produce saturated steam; (c) further cooling the raw syngas obtained in step (b) by indirect heat exchange against a methane comprising gas to obtain a cooled raw syngas and the preheated methane comprising gas for use in step (a), wherein: (i) steps (b) and (c) take place in a single cooling device for combined indirect heat exchange against water and against the methane comprising gas; and (ii) the preheated methane comprising gas obtained in step (c) has a temperature between 400 and 650 °C. (a) reacting a preheated methane comprising gas with an oxidising gas to obtain a hot raw syngas comprising carbon monoxide and hydrogen; (b) cooling the hot raw syngas resulting from step (a) to obtain the syngas by indirect heat exchange against water to produce saturated steam; (c) further cooling the raw syngas obtained in step (b) by indirect heat exchange against a methane comprising gas to obtain a cooled raw syngas and the preheated methane comprising gas for use in step (a), (i) steps (b) and (c) take place in a single cooling device for combined indirect heat exchange against water and against the methane comprising gas; and (ii) the preheated methane comprising gas obtained in step (c) has a temperature between 400 and 650 °C.
A molded stationary induction apparatus comprising: a contents of molded transformer configured of a combination of an iron core and windings whose surface is covered with any of resin and an insulating material containing resin; a closed vessel that accommodates the contents of molded transformer, and encapsulating air] characterized by a heat exchanger provided on the outer side of the closed vessel, the heat exchanger is configured to cool the air inside the closed vessel by circulation of the air inside the closed vessel through the heat exchanger; and wherein the apparatus is configured to encapsulate air having a higher pressure than atmospheric pressure and to set a dielectric voltage higher than a normally used voltage, when the contents of molded transformer is accommodated inside the closed vessel for enclosed air having said higher pressure than atmospheric pressure and for enclosed air at atmospheric pressure. a contents of molded transformer configured of a combination of an iron core and windings whose surface is covered with any of resin and an insulating material containing resin; a closed vessel that accommodates the contents of molded transformer, and encapsulating air] characterized by a heat exchanger provided on the outer side of the closed vessel, the heat exchanger is configured to cool the air inside the closed vessel by circulation of the air inside the closed vessel through the heat exchanger; and wherein the apparatus is configured to encapsulate air having a higher pressure than atmospheric pressure and to set a dielectric voltage higher than a normally used voltage, when the contents of molded transformer is accommodated inside the closed vessel for enclosed air having said higher pressure than atmospheric pressure and for enclosed air at atmospheric pressure.
An attenuated mutant strain of Salmonella comprising at least one copy of a recombinant DNA molecule comprising a eukaryotic expression cassette encoding Mesothelin (MSLN) for use as a vaccine in cancer immunotherapy.
Process for packing products based on portions of fish in the solid form, characterized in that it comprises at least: - the step of introducing one or more portions of raw fish in the solid form in the frozen state into an at least partially flexible packaging; - the step of performing mechanical vacuum inside said packaging filled in with said one or more portions of fish in the solid form in the frozen state; - the step of sealing said packaging so as to form a sealed package comprising said one or more portions of fish in the solid form still in the frozen state; - the step of heat sterilizing said sealed package comprising said one or more portions of fish in the solid form still in the frozen state in an autoclave, wherein said one or more portions of fish in the solid form remains in the frozen state for all the packing process, in other words during said step of introducing into a package, during said step of performing mechanical vacuum, during said step of sealing until the start up of said heat sterilization step in an autoclave, said heat sterilization step in an autoclave carrying out the cooking of said one or more portions of fish in the solid form starting from still in the frozen state. - the step of introducing one or more portions of raw fish in the solid form in the frozen state into an at least partially flexible packaging; - the step of performing mechanical vacuum inside said packaging filled in with said one or more portions of fish in the solid form in the frozen state; - the step of sealing said packaging so as to form a sealed package comprising said one or more portions of fish in the solid form still in the frozen state; - the step of heat sterilizing said sealed package comprising said one or more portions of fish in the solid form still in the frozen state in an autoclave,
An active noise cancellation system for a helmet, for preferentially attenuating sound pressure in a first frequency range in a defined spatial region at a first side of the helmet, the ANC system comprising: a mounting plate, a first face of the mounting plate configured to be disposed, in use, against an inner surface of the helmet to form, with the helmet, a chamber; a loudspeaker provided on the first face of the mounting plate such that, when the mounting plate is mounted on the helmet, the loudspeaker is within the chamber, the plate comprising an aperture for allowing transmission of sound from the loudspeaker to the spatial region; at least one reference microphone (4,5) mounted on a second face of the plate for measuring the sound pressure level; and an ANC control system for determining, based on output signals from the reference microphone(s), a drive signal for driving the loudspeaker to generate a sound signal that at least partially attenuates, in the defined spatial region and in the first frequency range, sound signals from at least one noise source. a mounting plate, a first face of the mounting plate configured to be disposed, in use, against an inner surface of the helmet to form, with the helmet, a chamber; a loudspeaker provided on the first face of the mounting plate such that, when the mounting plate is mounted on the helmet, the loudspeaker is within the chamber, the plate comprising an aperture for allowing transmission of sound from the loudspeaker to the spatial region; at least one reference microphone (4,5) mounted on a second face of the plate for measuring the sound pressure level; and an ANC control system for determining, based on output signals from the reference microphone(s), a drive signal for driving the loudspeaker to generate a sound signal that at least partially attenuates, in the defined spatial region and in the first frequency range, sound signals from at least one noise source.
An anti-friction device associated with a drilling element; said drilling element has a substantially cylindrical shape, with a first outside diameter (dl) and a longitudinal extension along a first axis; said drilling element comprising at least one housing, having an inner profile, said housing adapted to receive said anti-friction device; said anti-friction device has a hollow cylindrical shape, having an inside diameter (d) which is smaller than said first diameter (dl) of the drilling element and an outside diameter which is greater than said first diameter (dl) of the same drilling element; said anti-friction device is capable of rotating about said first axis in said housing, independently of the drilling element; said anti-friction device is a ring, the radial dimensions of which are greater than the longitudinal dimensions relative to the first longitudinal axis; said anti-friction device comprising: • an inner surface to be positioned in the proximity of said inner profile; • an outer surface for abutting, when in use, on the walls of the open hole of a drilling well or on the walls of casings; said inner surface has a curved profile for reducing the friction against the inner profile of the housing; said device comprises only one opening portion for allowing said device to be assembled to or disassembled from the drilling element; said opening portion is a groove extending along the total longitudinal extension of the device itself; said groove defines two ends spaced apart; said device comprises at least one interface portion comprising gripping elements for increasing the equivalent diameters (d, D) of said anti-friction device; said gripping elements being associated with said two end of the groove; said anti-friction device being composed of one single part. • an inner surface to be positioned in the proximity of said inner profile; • an outer surface for abutting, when in use, on the walls of the open hole of a drilling well or on the walls of casings;
A processing unit (120; 400) configured to: receive a set of reference images of a sheet part of a plurality of sheet parts, wherein the set of reference images are captured by a plurality of respective image capture devices (110A-110N); identify at least one primary point in a reference image of the set of reference images; identify at least one secondary point in a mask image of a set of mask images, wherein the mask image defines a silhouette of the sheet part including a size and a shape of the sheet part for inspection, and wherein the mask image corresponds to the reference image; transform the mask image based on the at least one primary point and the at least one secondary point, wherein the transforming changes at least one of an orientation of the mask image or a shape of the mask image to align the orientation of the mask image to an orientation of the reference image and to align the shape of the mask image to a shape of the reference image, apply the transformed mask image to the reference image to identify an inspection region within the reference image; process the inspection region of the reference image to determine a quality of the sheet part; and output information indicative of the quality of the sheet part; wherein the processing unit (120; 400) is configured to independently determine the quality of the sheet part based on the reference image captured by each respective image capture device (110A-110-N). receive a set of reference images of a sheet part of a plurality of sheet parts, wherein the set of reference images are captured by a plurality of respective image capture devices (110A-110N); identify at least one primary point in a reference image of the set of reference images; identify at least one secondary point in a mask image of a set of mask images, wherein the mask image defines a silhouette of the sheet part including a size and a shape of the sheet part for inspection, and wherein the mask image corresponds to the reference image; transform the mask image based on the at least one primary point and the at least one secondary point, wherein the transforming changes at least one of an orientation of the mask image or a shape of the mask image to align the orientation of the mask image to an orientation of the reference image and to align the shape of the mask image to a shape of the reference image, apply the transformed mask image to the reference image to identify an inspection region within the reference image; process the inspection region of the reference image to determine a quality of the sheet part; and output information indicative of the quality of the sheet part;
A wound healing composition comprising the following components: • Snail mucus; • Chitosan; • Cannabidiol; • Hypericum perforatum ethanolic extract and • Calendula officinalis ethanolic extract characterized by the components being embedded with a cross linking agent in chitosan-based microparticles. • Snail mucus; • Chitosan; • Cannabidiol; • Hypericum perforatum ethanolic extract and • Calendula officinalis ethanolic extract characterized by
A pharmaceutical composition for use in the treatment of gastroparesis which comprises a therapeutically effective amount of 4-{[4-({[4-(2,2,2-trifluoroethoxy)-1,2-benzisoxazol-3-yl]oxy}methyl)piperidin-1-yl]methyl}tetrahydro-2H-pyran-4-carboxylic acid or a pharmaceutically acceptable salt thereof.
Tooth system for a cutter head, the tooth system comprising; - a tooth member comprising a cutting portion and a mounting portion with at least one curved surface, - a holder comprising a receiving portion comprising a cavity with a curved surface complementary to the at least one curved surface of the tooth member, the receiving portion for receiving the mounting portion of the tooth member, wherein the mounting portion of the tooth member detachably engages the holder such that when engaged, the at least one curved surface of the tooth member and the receiving portion curved surface contact each other at a contact area, characterised in that the at least one curved surface of the tooth member and the receiving portion curved surface are configured such that the tooth member rotates upon slidably engaging of the tooth member with the holder. - a tooth member comprising a cutting portion and a mounting portion with at least one curved surface, - a holder comprising a receiving portion comprising a cavity with a curved surface complementary to the at least one curved surface of the tooth member, the receiving portion for receiving the mounting portion of the tooth member,
A substantially closed-loop process for producing polycrystalline silicon, the process comprising: introducing trichlorosilane into a disproportionation system to produce silicon tetrachloride and at least one of silane and dichlorosilane; introducing silane or dichlorosilane produced from the disproportionation system into a fluidized bed reactor to produce polycrystalline silicon and an effluent gas comprising hydrogen and unreacted silane or dichlorosilane; introducing an amount of silicon tetrachloride produced from the disproportionation system and an amount of hydrogen from the effluent gas into a hydrogenation reactor to produce trichlorosilane and hydrogen chloride; introducing an amount of hydrogen chloride produced from the hydrogenation reactor and silicon into a chlorination reactor to produce a chlorinated gas comprising trichlorosilane and silicon tetrachloride; and introducing trichlorosilane produced from the chlorination reactor to the disproportionation system to produce silicon tetrachloride and at least one of silane and dichlorosilane. introducing trichlorosilane into a disproportionation system to produce silicon tetrachloride and at least one of silane and dichlorosilane; introducing silane or dichlorosilane produced from the disproportionation system into a fluidized bed reactor to produce polycrystalline silicon and an effluent gas comprising hydrogen and unreacted silane or dichlorosilane; introducing an amount of silicon tetrachloride produced from the disproportionation system and an amount of hydrogen from the effluent gas into a hydrogenation reactor to produce trichlorosilane and hydrogen chloride; introducing an amount of hydrogen chloride produced from the hydrogenation reactor and silicon into a chlorination reactor to produce a chlorinated gas comprising trichlorosilane and silicon tetrachloride; and introducing trichlorosilane produced from the chlorination reactor to the disproportionation system to produce silicon tetrachloride and at least one of silane and dichlorosilane.
A network node comprising: an antenna array with a plurality of antenna sub-arrays; a switching unit coupled to the antenna array, the switching unit being configured to connect an at least two input signals (131, 132) to respective ones of the plurality of antenna sub-arrays; and a processor configured to determine a channel capacity, wherein based on the channel capacity, the processor is configured to: control the switching unit to switch a connection of the at least two input signals (131,132) to different ones of the plurality of antenna sub-arrays to change one or more of an inter-distance between the respective ones of the plurality of antenna sub-arrays and a down-tilting angle of the antenna array, wherein the processor is configured to receive a desired channel capacity of the antenna array; compare the determined channel capacity of an antenna configuration mode with the desired channel capacity of the antenna array; select an antenna configuration mode whose determined channel capacity is larger than the desired channel capacity, and wherein the switching unit is configured to switch the connection of the at least two input signals (131, 132) to the different ones of the plurality of antenna sub-arrays corresponding to the selected antenna configuration mode. an antenna array with a plurality of antenna sub-arrays; a switching unit coupled to the antenna array, the switching unit being configured to connect an at least two input signals (131, 132) to respective ones of the plurality of antenna sub-arrays; and a processor configured to determine a channel capacity, wherein based on the channel capacity, the processor is configured to: control the switching unit to switch a connection of the at least two input signals (131,132) to different ones of the plurality of antenna sub-arrays to change one or more of an inter-distance between the respective ones of the plurality of antenna sub-arrays and a down-tilting angle of the antenna array, wherein the processor is configured to receive a desired channel capacity of the antenna array; compare the determined channel capacity of an antenna configuration mode with the desired channel capacity of the antenna array; select an antenna configuration mode whose determined channel capacity is larger than the desired channel capacity, and wherein the switching unit is configured to switch the connection of the at least two input signals (131, 132) to the different ones of the plurality of antenna sub-arrays corresponding to the selected antenna configuration mode.
A propeller hub with variable-pitch blades for a turboengine, comprising: • a polygonal ring (234, 334) with substantially radial cylindrical recesses (236, 336) distributed about a central axis of the ring for receiving said blades, • a turbine rotor element (243, 343) of the turboengine, and • a securing flange (245, 345) attached to the ring so as to connect said ring to said rotor element (243, 343), and • a plurality of back-up hooks (244, 344) inserted with clearance in openings (241, 341), the back-up hooks (244, 344) being connected to either the ring (234, 334) or the rotor element (243, 343), and the openings (241, 341) being connected to the other one of the two. the propeller hub being characterized in that the opening (241, 341) are substantially parallel to the central axis. • a polygonal ring (234, 334) with substantially radial cylindrical recesses (236, 336) distributed about a central axis of the ring for receiving said blades, • a turbine rotor element (243, 343) of the turboengine, and • a securing flange (245, 345) attached to the ring so as to connect said ring to said rotor element (243, 343), and • a plurality of back-up hooks (244, 344) inserted with clearance in openings (241, 341), the back-up hooks (244, 344) being connected to either the ring (234, 334) or the rotor element (243, 343), and the openings (241, 341) being connected to the other one of the two.
Fastening element for the connection of transmission equipment, such as pull rods, Bowden cables or similar, to a lever element, in particular for motor vehicle latches, whereby the fastening element is, for connection with a transmission element, designed if necessary as a bushing whereby • the fastening element has a bayonet contour; consequently, the fastening element in the mounted state is coupled to the lever element pivotably around a pivoting axis; characterized in that, • the fastening element is designed to be connectable to an aperture of the lever element; • the fastening element encompasses a area which is bridge-shaped vertically to its pivoting axis which can preferably be made to abut the lever element in the mounted state of the fastening element. • the fastening element has a bayonet contour; consequently, the fastening element in the mounted state is coupled to the lever element pivotably around a pivoting axis; • the fastening element is designed to be connectable to an aperture of the lever element; • the fastening element encompasses a area which is bridge-shaped vertically to its pivoting axis which can preferably be made to abut the lever element in the mounted state of the fastening element.
An aircraft interior equipment component with: - a frame, and - a sheetlike section which is supported by the frame and is formed by a flexible and/or foldable membrane connected to the frame, characterized in that the frame extends continuously along an outer circumference of the membrane and in that the frame comprises two rigid frame sections (14a-h) and a joint (16a-h) connecting the rigid frame sections (14a-h) to one another. - a frame, and - a sheetlike section which is supported by the frame and is formed by a flexible and/or foldable membrane connected to the frame,